Index: head/etc/devd/usb.conf
===================================================================
--- head/etc/devd/usb.conf	(revision 308120)
+++ head/etc/devd/usb.conf	(revision 308121)
@@ -1,5893 +1,5893 @@
 #
 # $FreeBSD$
 #
 # This file was automatically generated by "tools/tools/bus_autoconf/bus_autoconf.sh".
 # Please do not edit!
 #
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0104";
 	match "product" "0x00be";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0123";
 	match "product" "0x0001";
 	action "kldload -n uep";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03e8";
 	match "product" "0x0008";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03eb";
 	match "product" "0x2109";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0x0121";
 	action "kldload -n ugensa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x1016|0x1116|0x1216)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x1b1d|0x1e1d)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x2016|0x2116|0x2216)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x241d|0x251d)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x3016|0x3116)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0x311d";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0x3216";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0x3524";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "(0x4016|0x4116|0x4216|0x5016|0x5116|0x5216)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0x811c";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x03f0";
 	match "product" "0xca02";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0402";
 	match "product" "0x5632";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0403";
 	match "product" "(0x5259|0x6001|0x6004|0x6006|0x6006|0x6010|0x6011|0x6014|0x6015|0x8372|0x9378|0x9379|0x937a|0x937c|0x9868|0x9e90|0x9f80|0xa6d0|0xa6d1|0xabb8|0xb810|0xb811|0xb812|0xbaf8|0xbbe2|0xbca0|0xbca1|0xbca2|0xbca4|0xbcd8|0xbcd9|0xbcda|0xbdc8|0xbfd8|0xbfd9|0xbfda|0xbfdb|0xbfdc|0xc7d0|0xc850|0xc991|0xcaa0|0xcc48|0xcc49|0xcc4a|0xd010|0xd011|0xd012|0xd013|0xd014|0xd015|0xd016|0xd017|0xd070|0xd071|0xd388|0xd389|0xd38a|0xd38b|0xd38c|0xd38d|0xd38e|0xd38f|0xd578|0xd678|0xd738|0xd780|0xdaf8|0xdaf9|0xdafa|0xdafb|0xdafc|0xdafd|0xdafe|0xdaff|0xdc00|0xdc01|0xdd20|0xdf28|0xdf30|0xdf31|0xdf32|0xdf33|0xdf35|0xe000|0xe001|0xe002|0xe004|0xe006|0xe008|0xe009|0xe00a|0xe050|0xe0e8|0xe0e9|0xe0ea|0xe0eb|0xe0ec|0xe0ed|0xe0ee|0xe0ef|0xe0f0|0xe0f1|0xe0f2|0xe0f3|0xe0f4|0xe0f5|0xe0f6|0xe0f7|0xe40b|0xe520|0xe548|0xe6c8|0xe700|0xe729|0xe808|0xe809|0xe80a|0xe80b|0xe80c|0xe80d|0xe80e|0xe80f|0xe888|0xe889|0xe88a|0xe88b|0xe88c|0xe88d|0xe88e|0xe88f|0xea90|0xebe0|0xec88|0xec89|0xed22|0xed71|0xed72|0xed73|0xed74|0xee18|0xeee8|0xeee9|0xeeea|0xeeeb|0xeeec|0xeeed|0xeeee|0xeeef|0xef50|0xef51|0xf068|0xf069|0xf06a|0xf06b|0xf06c|0xf06d|0xf06e|0xf06f|0xf070|0xf0c0|0xf0c8|0xf208|0xf2d0|0xf3c0|0xf3c1|0xf3c2|0xf448|0xf449|0xf44a|0xf44b|0xf44c|0xf460|0xf608|0xf60b|0xf680|0xf850|0xf857|0xf9d0|0xf9d1|0xf9d2|0xf9d3|0xf9d4|0xf9d5|0xfa00|0xfa01|0xfa02|0xfa03|0xfa04|0xfa05|0xfa06|0xfa10|0xfa33|0xfa88|0xfad0|0xfaf0|0xfb58|0xfb59|0xfb5a|0xfb5b|0xfb5c|0xfb5d|0xfb5e|0xfb5f|0xfb80|0xfb99|0xfbfa|0xfc08|0xfc09|0xfc0a|0xfc0b|0xfc0c|0xfc0d|0xfc0e|0xfc0f|0xfc60|0xfc70|0xfc71|0xfc72|0xfc73|0xfc82|0xfd60|0xfe38|0xff00|0xff18|0xff1c|0xff1d|0xff20|0xff38|0xff39|0xff3a|0xff3b|0xff3c|0xff3d|0xff3e|0xff3f|0xffa8)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0408";
 	match "product" "0x0304";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0408";
 	match "product" "(0x1000|0xea02|0xea03|0xea04|0xea05|0xea06)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0409";
 	match "product" "(0x00d5|0x00d6|0x00d7)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0409";
 	match "product" "0x0249";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0409";
 	match "product" "0x0408";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0409";
 	match "product" "(0x8024|0x8025)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x0001|0x0005|0x0009)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x0012";
 	action "kldload -n if_rue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x003d";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x005e|0x0066|0x0067)";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x006e";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x008b";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x00b3";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x00d8|0x00d9)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x00da";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x00e8";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x00f4|0x0116|0x0119)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x012e";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "0x0137";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x0148|0x0150|0x015d|0x016f|0x01a2|0x01a8|0x01ee)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0411";
 	match "product" "(0x0242|0x025d)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0413";
 	match "product" "0x2101";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0423";
 	match "product" "(0x000a|0x000c)";
 	action "kldload -n if_cue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x043e";
 	match "product" "0x9c01";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x044e";
 	match "product" "(0x3001|0x3002)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0456";
 	match "product" "(0xf000|0xf001)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x045a";
 	match "product" "(0x5001|0x5002)";
 	action "kldload -n urio";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x045b";
 	match "product" "0x0053";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x045e";
 	match "product" "0x0079";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x045e";
 	match "product" "0x007a";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x045e";
 	match "product" "(0x00ce|0x0400|0x0401|0x0402|0x0403|0x0404|0x0405|0x0406|0x0407|0x0408|0x0409|0x040a|0x040b|0x040c|0x040d|0x040e|0x040f|0x0410|0x0411|0x0412|0x0413|0x0414|0x0415|0x0416|0x0417|0x0432|0x0433|0x0434|0x0435|0x0436|0x0437|0x0438|0x0439|0x043a|0x043b|0x043c|0x043d|0x043e|0x043f|0x0440|0x0441|0x0442|0x0443|0x0444|0x0445|0x0446|0x0447|0x0448|0x0449|0x044a|0x044b|0x044c|0x044d|0x044e|0x044f|0x0450|0x0451|0x0452|0x0453|0x0454|0x0455|0x0456|0x0457|0x0458|0x0459|0x045a|0x045b|0x045c|0x045d|0x045e|0x045f|0x0460|0x0461|0x0462|0x0463|0x0464|0x0465|0x0466|0x0467|0x0468|0x0469|0x046a|0x046b|0x046c|0x046d|0x046e|0x046f|0x0470|0x0471|0x0472|0x0473|0x0474|0x0475|0x0476|0x0477|0x0478|0x0479|0x047a|0x047b|0x04c8|0x04c9|0x04ca|0x04cb|0x04cc|0x04cd|0x04ce|0x04d7|0x04d8|0x04d9|0x04da|0x04db|0x04dc|0x04dd|0x04de|0x04df|0x04e0|0x04e1|0x04e2|0x04e3|0x04e4|0x04e5|0x04e6|0x04e7|0x04e8|0x04e9|0x04ea)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0471";
 	match "product" "0x066a";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0471";
 	match "product" "0x1236";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0471";
 	match "product" "0x200f";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0482";
 	match "product" "0x0203";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0489";
 	match "product" "(0xe000|0xe003)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0489";
 	match "product" "(0xe027|0xe02c|0xe036|0xe03c|0xe03d|0xe042|0xe04e|0xe056|0xe057)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0499";
 	match "product" "(0x1000|0x1001|0x1002|0x1003|0x1004|0x1005|0x1006|0x1007|0x1008|0x1009|0x100a|0x100c|0x100d|0x100e|0x100f|0x1010|0x1011|0x1012|0x1013|0x1014|0x1015|0x1016|0x1017|0x1018|0x1019|0x101a|0x101b|0x101c|0x101d|0x101e|0x101f|0x1020|0x1021|0x1022|0x1023|0x1024|0x1025|0x1026|0x1027|0x1028|0x1029|0x102a|0x102b|0x102e|0x1030|0x1031|0x1032|0x1033|0x1034|0x1035|0x1036|0x1037|0x1038|0x1039|0x103a|0x103b|0x103c|0x103d|0x103e|0x103f|0x1040|0x1041|0x1042|0x1043|0x1044|0x1045|0x104e|0x104f|0x1050|0x1051|0x1052|0x1053|0x1054|0x1055|0x1056|0x1057|0x1058|0x1059|0x105a|0x105b|0x105c|0x105d|0x1503|0x2000|0x2001|0x2002|0x2003|0x5000|0x5001|0x5002|0x5003|0x5004|0x5005|0x5006|0x5007|0x5008|0x5009|0x500a|0x500b|0x500c|0x500d|0x500e|0x500f|0x7000|0x7010)";
 	action "kldload -n snd_uaudio";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x049f";
 	match "product" "(0x0003|0x0032)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x049f";
 	match "product" "0x505a";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04a4";
 	match "product" "0x0014";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04a5";
 	match "product" "0x4027";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04a5";
 	match "product" "0x4068";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04ad";
 	match "product" "(0x0301|0x0302|0x0303|0x0306)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04b4";
 	match "product" "0x1002";
 	action "kldload -n ufm";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04b7";
 	match "product" "0x0531";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04b8";
 	match "product" "(0x0521|0x0522)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "0x0901";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "(0x0904|0x0913)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "0x0930";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "0x093f";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "(0x0944|0x0945|0x0947|0x0948)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "0x0952";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bb";
 	match "product" "(0x0a03|0x0a0e)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bf";
 	match "product" "(0x0115|0x0117)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04bf";
 	match "product" "0x030a";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04c5";
 	match "product" "(0x1058|0x1079)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04ca";
 	match "product" "(0x2003|0x3005|0x3006|0x3008)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04da";
 	match "product" "0x2500";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04da";
 	match "product" "0x3900";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04dd";
 	match "product" "(0x8004|0x8005|0x8006|0x8007|0x9031)";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04dd";
 	match "product" "(0x9102|0x9121|0x9123|0x9151|0x91ac|0x9242)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04e8";
 	match "product" "0x2018";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04e8";
 	match "product" "(0x5f00|0x5f01|0x5f02|0x5f03|0x5f04)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04e8";
 	match "product" "0x6601";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04e8";
 	match "product" "(0x6611|0x6613|0x6615|0x6617|0x6619|0x661b|0x662e|0x6630|0x6632)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04e8";
 	match "product" "0x8001";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04f1";
 	match "product" "0x3008";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04f1";
 	match "product" "(0x3011|0x3012)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x04f2";
 	match "product" "(0xaff7|0xaff8|0xaff9|0xaffa|0xaffa)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0502";
 	match "product" "(0x1631|0x1632|0x16e1|0x16e2|0x16e3)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0506";
 	match "product" "(0x03e8|0x11f8)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0506";
 	match "product" "0x4601";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x0103";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x0109";
 	action "kldload -n umct";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x0121";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x0257";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x0409";
 	action "kldload -n umct";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x1102";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x1103";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x1203";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "(0x2102|0x2103)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x4050";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x5055";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x7050";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "(0x7050|0x7051)";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x705a";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x705c";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x705e";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "(0x8053|0x805c|0x815c)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x815f";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "(0x825a|0x825b)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x845a";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x905b";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "(0x935a|0x935b)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x050d";
 	match "product" "0x945a";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0525";
 	match "product" "(0x1080|0xa4a0)";
 	action "kldload -n udbp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0525";
 	match "product" "0xa4a2";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0536";
 	match "product" "0x01a0";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0543";
 	match "product" "(0x0ed9|0x1527|0x1529|0x152b|0x152e|0x1921|0x1922|0x1923)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0547";
 	match "product" "0x2008";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0547";
 	match "product" "0x2720";
 	action "kldload -n udbp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x054c";
 	match "product" "(0x0038|0x0066|0x0095|0x009a|0x00da|0x0169)";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x054c";
 	match "product" "0x0437";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0557";
 	match "product" "0x2002";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0557";
 	match "product" "0x2007";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0557";
 	match "product" "0x2008";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0557";
 	match "product" "0x2009";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0557";
 	match "product" "0x4000";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x055d";
 	match "product" "0x2018";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0565";
 	match "product" "0x0001";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0565";
 	match "product" "(0x0002|0x0003|0x0005)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0567";
 	match "product" "(0x2000|0x2002)";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056c";
 	match "product" "0x8007";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056e";
 	match "product" "(0x200c|0x4002|0x4005)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056e";
 	match "product" "0x4008";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056e";
 	match "product" "(0x400b|0x4010)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056e";
 	match "product" "(0x5003|0x5004)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x056e";
 	match "product" "0xabc1";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x057c";
 	match "product" "(0x2200|0x3800)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x057c";
 	match "product" "0x8401";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0584";
 	match "product" "0xb000";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0584";
 	match "product" "0xb020";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "(0x3401|0x3407|0x3409|0x340a|0x340f|0x3410)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "0x3416";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "0x3417";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "(0x341a|0x341e)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "0x341f";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "0x3421";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0586";
 	match "product" "0x3426";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x058f";
 	match "product" "0x9720";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05a6";
 	match "product" "0x0101";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x020d|0x020e|0x020f|0x0210|0x0214|0x0215|0x0216|0x0217|0x0218|0x0219|0x021a|0x021b|0x021c)";
 	action "kldload -n atp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x0223|0x0224|0x0225)";
 	action "kldload -n wsp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x0229|0x022a|0x022b)";
 	action "kldload -n atp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x0230|0x0231|0x0232|0x0236|0x0237|0x0238|0x023f|0x0240|0x0241|0x0242|0x0243|0x0244|0x0245|0x0246|0x0247|0x0249|0x024a|0x024b|0x024c|0x024d|0x024e|0x0252|0x0253|0x0254|0x0259|0x025a|0x025b|0x0262|0x0263|0x0264|0x0272|0x0273|0x0274|0x0290|0x0291|0x0292)";
 	action "kldload -n wsp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x030a|0x030b)";
 	action "kldload -n atp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "0x1402";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "product" "(0x8213|0x8215|0x8218|0x821a|0x821b|0x821f|0x8281|0x828f)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ad";
 	match "product" "0x0fba";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05c6";
 	match "product" "(0x1000|0x6000|0x6500|0x6613|0x9000|0x9002|0x9204|0x9205)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05cc";
 	match "product" "0x3000";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05db";
 	match "product" "(0x0003|0x0005|0x0009|0x000a|0x0011)";
 	action "kldload -n uvscom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05e0";
 	match "product" "(0x2000|0x2001|0x2002|0x2003|0x2004|0x2005|0x2006|0x2007|0x2008|0x2009|0x200a)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05e3";
 	match "product" "0x0501";
 	action "kldload -n udbp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05e9";
 	match "product" "(0x0008|0x0009)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0647";
 	match "product" "0x0100";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x065a";
 	match "product" "(0xc000|0xc001)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x066b";
 	match "product" "(0x200c|0x2202)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x066b";
 	match "product" "0x2202";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x066b";
 	match "product" "(0x2203|0x2204|0x2206|0x400b)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0675";
 	match "product" "0x0550";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067b";
 	match "product" "(0x0000|0x0001)";
 	action "kldload -n udbp";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067b";
 	match "product" "(0x0307|0x04bb|0x0609|0x0611|0x0612|0x1234|0x206a|0x2303)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067b";
 	match "product" "0x2501";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067b";
 	match "product" "(0x331a|0xaaa0|0xaaa2)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067c";
 	match "product" "0x1001";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x067e";
 	match "product" "0x1001";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0681";
 	match "product" "0x3c06";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06ce";
 	match "product" "0x8311";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06e1";
 	match "product" "(0x0008|0x0009)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06f8";
 	match "product" "0xe000";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06f8";
 	match "product" "(0xe010|0xe020)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06f8";
 	match "product" "0xe030";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06f8";
 	match "product" "(0xe031|0xe032)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x06f8";
 	match "product" "0xe033";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0707";
 	match "product" "0x0100";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0707";
 	match "product" "(0x0200|0x0201)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0707";
 	match "product" "0xee13";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0707";
 	match "product" "0xee13";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0711";
 	match "product" "(0x0200|0x0210|0x0230)";
 	action "kldload -n umct";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0731";
 	match "product" "(0x0528|0x2003)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0745";
 	match "product" "0x0001";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0745";
 	match "product" "0x1000";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0769";
 	match "product" "0x11f2";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0769";
 	match "product" "0x11f3";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0769";
 	match "product" "0x31f3";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x077b";
 	match "product" "0x2226";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0789";
 	match "product" "0x010c";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0789";
 	match "product" "0x0160";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0789";
 	match "product" "(0x0162|0x0163|0x0164|0x0166|0x0168|0x0169)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x078b";
 	match "product" "0x1234";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x079b";
 	match "product" "0x0027";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x079b";
 	match "product" "(0x004a|0x0062)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07a6";
 	match "product" "(0x07c2|0x0986|0x8511|0x8513|0x8515)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x0001";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "(0x0004|0x000d)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x0017";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x002a";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "(0x002d|0x002e)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "(0x002f|0x003c|0x003f|0x0041|0x0042)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x0047";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x0056";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07aa";
 	match "product" "0x9601";
 	action "kldload -n if_udav";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "(0x110c|0x200c)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "(0x2770|0x2870|0x3070|0x3071|0x3072)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "0x4000";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "(0x4002|0x4003|0x4004|0x4007|0x400b|0x400c|0x4102|0x4104)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "0x420a";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "0x6001";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "(0x8178|0x8179|0x8188|0x8189)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "0xabc1";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07b8";
 	match "product" "(0xb21b|0xb21c|0xb21d|0xb21e|0xb21f)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07c9";
 	match "product" "0xb100";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07cf";
 	match "product" "(0x2001|0x2002|0x2003)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "(0x3300|0x3302|0x3303)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "0x3a09";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "0x3a0c";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "0x3a0f";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "(0x3c03|0x3c04|0x3c06|0x3c07)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "(0x3c09|0x3c0a|0x3c0b|0x3c0d|0x3c0e|0x3c0f)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "0x3c10";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x07d1";
 	match "product" "(0x3c11|0x3c13|0x3c15|0x3c16)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x081e";
 	match "product" "0xdf00";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x082d";
 	match "product" "(0x0100|0x0200|0x0300)";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0830";
 	match "product" "(0x0001|0x0002|0x0003|0x0020|0x0031|0x0040|0x0050|0x0060|0x0061|0x0070)";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0833";
 	match "product" "(0x012e|0x039f)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0x1046";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "(0x4505|0x4506)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0x4508";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0x4521";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0x5046";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "(0x6618|0x7511|0x7512|0x7522|0x8522|0xa512|0xa618|0xa701|0xa702|0xb522)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0xc512";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "(0xc522|0xd522)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0xe501";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x083a";
 	match "product" "0xf522";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0841";
 	match "product" "0x0001";
 	action "kldload -n urio";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "(0x1001|0x1002)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x1020";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x1040";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x1100";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x4240";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x4260";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x4300";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "(0x6100|0x6a00)";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "(0x9001|0x9010)";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x9012";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x9021";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "0x9040";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0846";
 	match "product" "(0x9041|0x9052)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0856";
 	match "product" "(0xac01|0xac02|0xac03|0xac11|0xac12|0xac16|0xac17|0xac18|0xac19|0xac25|0xac26|0xac27|0xac33|0xac34|0xac49|0xac50|0xba02)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x085a";
 	match "product" "(0x0008|0x0009)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x086e";
 	match "product" "0x1920";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x087d";
 	match "product" "0x5704";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08d1";
 	match "product" "0x0001";
 	action "kldload -n if_cue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08d1";
 	match "product" "0x0003";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08dd";
 	match "product" "(0x0986|0x0987|0x0988|0x8511)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08dd";
 	match "product" "0x90ff";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08e6";
 	match "product" "0x5501";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x08fd";
 	match "product" "0x000a";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0915";
 	match "product" "(0x2000|0x2002)";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x091e";
 	match "product" "0x0004";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0921";
 	match "product" "0x1001";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0930";
 	match "product" "(0x0215|0x0219)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0930";
 	match "product" "(0x0700|0x0705|0x0706|0x0707|0x0708|0x0709|0x070a|0x070b)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0930";
 	match "product" "0x0a07";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0930";
 	match "product" "(0x0d45|0x1302)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x093c";
 	match "product" "(0x0601|0x0701)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x094b";
 	match "product" "0x0001";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0951";
 	match "product" "0x0008";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0951";
 	match "product" "0x000a";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x095a";
 	match "product" "0x3003";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0960";
 	match "product" "(0x0065|0x0066|0x0067)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0961";
 	match "product" "0x0010";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x099e";
 	match "product" "(0x0052|0x4000)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x09aa";
 	match "product" "0x1000";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x09d7";
 	match "product" "0x0100";
 	action "kldload -n ugensa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0a46";
 	match "product" "(0x0268|0x8515|0x9601)";
 	action "kldload -n if_udav";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0a5c";
 	match "product" "0x2033";
 	action "kldload -n ubtbcmfw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0a5c";
 	match "product" "0x21e1";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0acd";
 	match "product" "0x0300";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0ace";
 	match "product" "(0x1211|0x1215)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0ace";
 	match "product" "0x1221";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0x5000|0x6000|0x6050|0x6100|0x6150|0x6200|0x6250|0x6300|0x6350|0x6500|0x6501|0x6600|0x6601|0x6701)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x6711";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0x6721|0x6741|0x6761|0x6800|0x6901)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x6911";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x6971";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x6971";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x7001";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x7011";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0x7021|0x7041|0x7061|0x7100|0x7201|0x7211)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0x7251|0x7301|0x7361|0x7381|0x7401|0x7501)";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0x7601";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0x7601|0x9000|0xc031|0xd013|0xd031)";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "0xd033";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0af0";
 	match "product" "(0xd033|0xd055|0xd055)";
 	action "kldload -n uhso";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "(0x1706|0x1707)";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "(0x170c|0x171b)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x171d";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "(0x1723|0x1724)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "(0x1731|0x1732|0x1742|0x1760|0x1761|0x1784)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x1786";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x1790";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x1791";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x179d";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17ab";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17ad";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17b5";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17ba";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17cb";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "0x17d2";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b05";
 	match "product" "(0x4200|0x4201|0x4202|0x420f|0x9200|0x9202)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b39";
 	match "product" "0x0103";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b39";
 	match "product" "0x0109";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b39";
 	match "product" "0x0421";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b3b";
 	match "product" "(0x1630|0x5630|0x6630)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b41";
 	match "product" "0x0011";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b63";
 	match "product" "0x6530";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b8c";
 	match "product" "0x2303";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b95";
 	match "product" "(0x1720|0x1780)";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b95";
 	match "product" "(0x178a|0x1790)";
 	action "kldload -n if_axge";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0b95";
 	match "product" "(0x7720|0x772a|0x772b|0x7e2b)";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0baf";
 	match "product" "0x0118";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0baf";
 	match "product" "0x0121";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bb2";
 	match "product" "0x6098";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bb4";
 	match "product" "(0x00ce|0x00cf|0x00cf|0x0a01|0x0a02|0x0a03|0x0a04|0x0a05|0x0a06|0x0a07|0x0a08|0x0a09|0x0a0a|0x0a0b|0x0a0c|0x0a0d|0x0a0e|0x0a0f|0x0a10|0x0a11|0x0a12|0x0a13|0x0a14|0x0a15|0x0a16|0x0a17|0x0a18|0x0a19|0x0a1a|0x0a1b|0x0a1c|0x0a1d|0x0a1e|0x0a1f|0x0a20|0x0a21|0x0a22|0x0a23|0x0a24|0x0a25|0x0a26|0x0a27|0x0a28|0x0a29|0x0a2a|0x0a2b|0x0a2c|0x0a2d|0x0a2e|0x0a2f|0x0a30|0x0a31|0x0a32|0x0a33|0x0a34|0x0a35|0x0a36|0x0a37|0x0a38|0x0a39|0x0a3a|0x0a3b|0x0a3c|0x0a3d|0x0a3e|0x0a3f|0x0a40|0x0a41|0x0a42|0x0a43|0x0a44|0x0a45|0x0a46|0x0a47|0x0a48|0x0a49|0x0a4a|0x0a4b|0x0a4c|0x0a4d|0x0a4e|0x0a4f|0x0a50|0x0a51|0x0a52|0x0a53|0x0a54|0x0a55|0x0a56|0x0a57|0x0a58|0x0a59|0x0a5a|0x0a5b|0x0a5c|0x0a5d|0x0a5e|0x0a5f|0x0a60|0x0a61|0x0a62|0x0a63|0x0a64|0x0a65|0x0a66|0x0a67|0x0a68|0x0a69|0x0a6a|0x0a6b|0x0a6c|0x0a6d|0x0a6e|0x0a6f|0x0a70|0x0a71|0x0a72|0x0a73|0x0a74|0x0a75|0x0a76|0x0a77|0x0a78|0x0a79|0x0a7a|0x0a7b|0x0a7c|0x0a7d|0x0a7e|0x0a7f|0x0a80|0x0a81|0x0a82|0x0a83|0x0a84|0x0a85|0x0a86|0x0a87|0x0a88|0x0a89|0x0a8a|0x0a8b|0x0a8c|0x0a8d|0x0a8e|0x0a8f|0x0a90|0x0a91|0x0a92|0x0a93|0x0a94|0x0a95|0x0a96|0x0a97|0x0a98|0x0a99|0x0a9a|0x0a9b|0x0a9c|0x0a9d|0x0a9e|0x0a9f|0x0bce)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x0179|0x018a|0x317f)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "0x8150";
 	action "kldload -n if_rue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
-	match "product" "0x8152";
+	match "product" "(0x8152|0x8153)";
 	action "kldload -n if_ure";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "0x8170";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x8171|0x8172|0x8173|0x8174)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x8176|0x8177|0x8178|0x8179|0x817a|0x817b|0x817c|0x817d|0x817e|0x817f)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x8187|0x8189)";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x818a|0x8191)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x8197|0x8198)";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "(0x8712|0x8712)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "0x8754";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bda";
 	match "product" "0xc512";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bdb";
 	match "product" "0x1002";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bed";
 	match "product" "(0x1100|0x1101)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bf8";
 	match "product" "0x1001";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0bf8";
 	match "product" "0x1009";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c10";
 	match "product" "0x0000";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c26";
 	match "product" "(0x0004|0x0009|0x000a|0x000b|0x000c|0x000d|0x0010|0x0011|0x0012|0x0013|0x0018)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c33";
 	match "product" "0x0010";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c44";
 	match "product" "0x03a2";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c45";
 	match "product" "0x7401";
 	action "kldload -n ugold";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c52";
 	match "product" "(0x2101|0x2102|0x2103|0x2104|0x2211|0x2212|0x2213|0x2221|0x2222|0x2223|0x2411|0x2412|0x2413|0x2421|0x2422|0x2423|0x2431|0x2432|0x2433|0x2441|0x2442|0x2443|0x2811|0x2812|0x2813|0x2821|0x2822|0x2823|0x2831|0x2832|0x2833|0x2841|0x2842|0x2843|0x2851|0x2852|0x2853|0x2861|0x2862|0x2863|0x2871|0x2872|0x2873|0x2881|0x2882|0x2883|0x9020)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c6c";
 	match "product" "0x04b2";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c7d";
 	match "product" "0x0005";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c88";
 	match "product" "0x17da";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c88";
 	match "product" "0x17da";
 	action "kldload -n ugensa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c88";
 	match "product" "0x180a";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0c8e";
 	match "product" "0x6000";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cad";
 	match "product" "0x9001";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0008";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0011";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0012";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0015";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x001a";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0022";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0023";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0025";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cde";
 	match "product" "0x0026";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cf3";
 	match "product" "(0x0001|0x0003|0x0005)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cf3";
 	match "product" "(0x1001|0x1002|0x1010|0x1011)";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cf3";
 	match "product" "(0x3002|0x3004|0x311d)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cf3";
 	match "product" "0x9170";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0cf3";
 	match "product" "(0xe004|0xe019)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0d3a";
 	match "product" "0x0300";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0d46";
 	match "product" "(0x2020|0x2021)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0d8e";
 	match "product" "0x3762";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0d8e";
 	match "product" "(0x7801|0x7811)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db0";
 	match "product" "(0x3820|0x3821|0x3822|0x3870|0x3871)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db0";
 	match "product" "(0x6861|0x6865|0x6869)";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db0";
 	match "product" "(0x6874|0x6877)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db0";
 	match "product" "(0x6899|0x821a|0x822a|0x870a|0x871a|0x899a)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db0";
 	match "product" "(0xa861|0xa874)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0db7";
 	match "product" "0x0002";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0dcd";
 	match "product" "0x0001";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x000d";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0017";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0021";
 	action "kldload -n if_mos";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0028";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "(0x002b|0x002c|0x002d|0x0039|0x003b|0x003c|0x003d|0x003e|0x003f|0x0040|0x0041|0x0042)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0045";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "(0x0047|0x0048|0x004a)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x004b";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x004d";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0052";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0056";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "(0x005c|0x0061)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0072";
 	action "kldload -n if_axge";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x0074";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "0x061c";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "(0x9071|0x9075)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df6";
 	match "product" "(0x90ac|0x9712)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0df7";
 	match "product" "0x0620";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e0b";
 	match "product" "(0x9031|0x9041)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e55";
 	match "product" "0x110b";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e66";
 	match "product" "(0x0001|0x0003|0x0009|0x000b)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e66";
 	match "product" "(0x0015|0x0016)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e66";
 	match "product" "(0x0019|0x0023)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e66";
 	match "product" "0x400c";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e67";
 	match "product" "0x0002";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e7e";
 	match "product" "0x1001";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0e8d";
 	match "product" "0x763f";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0ea0";
 	match "product" "0x6858";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eab";
 	match "product" "0xc893";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eb0";
 	match "product" "0x9020";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eb0";
 	match "product" "0x9021";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eb0";
 	match "product" "0x9071";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eba";
 	match "product" "(0x1080|0x2080)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0eef";
 	match "product" "(0x0001|0x0002)";
 	action "kldload -n uep";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f3d";
 	match "product" "0x0112";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f3d";
 	match "product" "0x0112";
 	action "kldload -n ugensa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f3d";
 	match "product" "0x68a3";
 	action "kldload -n usie";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f3d";
 	match "product" "0x68aa";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f4e";
 	match "product" "0x0200";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f88";
 	match "product" "0x3012";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f88";
 	match "product" "0x3014";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f94";
 	match "product" "(0x0001|0x0005)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0f98";
 	match "product" "0x0201";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0fb8";
 	match "product" "(0x3001|0x3002|0x3003|0x4001)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0fcf";
 	match "product" "(0x1003|0x1004|0x1006)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0fd8";
 	match "product" "0x0001";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0fde";
 	match "product" "0xca05";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0fe6";
 	match "product" "(0x8101|0x9700)";
 	action "kldload -n if_udav";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1004";
 	match "product" "0x618f";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x100d";
 	match "product" "(0x9031|0x9032)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1011";
 	match "product" "0x3198";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x103c";
 	match "product" "0x1629";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x103e";
 	match "product" "0x03e8";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1044";
 	match "product" "0x8001";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1044";
 	match "product" "0x8002";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1044";
 	match "product" "0x8007";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1044";
 	match "product" "(0x8008|0x800a)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1044";
 	match "product" "(0x800b|0x800c|0x800d)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1066";
 	match "product" "(0x00ce|0x0300|0x0500|0x0600|0x0700)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x106c";
 	match "product" "0x3701";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10a6";
 	match "product" "0xaa26";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10ab";
 	match "product" "0x10c5";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10b5";
 	match "product" "0xac70";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10b5";
 	match "product" "0xac70";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10bd";
 	match "product" "0x1427";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10c4";
 	match "product" "(0x0f91|0x1101|0x1601|0x800a|0x803b|0x8043|0x8044)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10c4";
 	match "product" "0x8053";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10c4";
 	match "product" "(0x8066|0x806f|0x807a|0x80c4|0x80ca|0x80dd|0x80ed|0x80f6|0x8115|0x813d|0x813f|0x814a|0x814a|0x814b|0x8156|0x815e|0x815f|0x818b|0x819f|0x81a6|0x81a9|0x81ac|0x81ad|0x81c8|0x81e2|0x81e7|0x81e8|0x81f2|0x8218|0x822b|0x826b|0x8293|0x82f9|0x8341|0x8382|0x83a8|0x83d8|0x8411|0x8418|0x846e|0x8477|0x85ea|0x85eb|0x85f8|0x8664|0x8665|0x88a4|0x88a5|0xea60|0xea61|0xea70|0xea71|0xea80|0xf001|0xf002|0xf003|0xf004)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10c5";
 	match "product" "0xea61";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x10ce";
 	match "product" "0xea61";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1114";
 	match "product" "(0x0001|0x0004|0x0006)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x114b";
 	match "product" "0x0110";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x114b";
 	match "product" "0x0150";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1163";
 	match "product" "0x0100";
 	action "kldload -n ucycom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1182";
 	match "product" "0x1388";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1186";
 	match "product" "0x3e04";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1189";
 	match "product" "0x0893";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "(0x0017|0x0018|0x0019|0x0020|0x0021|0x0022|0x0023|0x0024|0x0025|0x0026|0x0027|0x0028|0x0029|0x0112|0x0120|0x0218)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "0x0218";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "(0x0220|0x0224|0x0fff)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "0x0fff";
 	action "kldload -n usie";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "(0x6802|0x6803|0x6804|0x6805|0x6808|0x6809|0x6812|0x6813|0x6815|0x6816|0x6820|0x6821|0x6822|0x6832|0x6833|0x6834|0x6835|0x6838|0x6839|0x683a|0x683b|0x683c|0x683d|0x683e|0x6850|0x6851|0x6852|0x6853|0x6855|0x6856|0x6859|0x685a|0x6880|0x6890|0x6891|0x6892|0x6893|0x68a3)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "0x68a3";
 	action "kldload -n usie";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1199";
 	match "product" "(0x68aa|0x68c0|0x9041)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x11ad";
 	match "product" "0x0701";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x11d9";
 	match "product" "(0x1002|0x1003)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x11f5";
 	match "product" "(0x0001|0x0003|0x0004|0x0005)";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x11f6";
 	match "product" "0x2001";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x11f7";
 	match "product" "0x02df";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1209";
 	match "product" "(0x1002|0x1006)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1231";
 	match "product" "(0xce01|0xce02)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x126f";
 	match "product" "0xa006";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x128d";
 	match "product" "0x0001";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x129b";
 	match "product" "0x1666";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x129b";
 	match "product" "0x1828";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "product" "(0x1001|0x1003|0x1004|0x1401|0x1402|0x1403|0x1404|0x1405|0x1406|0x1407|0x1408|0x1409|0x140a|0x140b|0x140c|0x140d|0x140e|0x140f|0x1410|0x1411|0x1412|0x1413|0x1414|0x1415|0x1416|0x1417|0x1418|0x1419|0x141a|0x141b|0x141c|0x141d|0x141e|0x141f|0x1420|0x1421|0x1422|0x1423|0x1424|0x1425|0x1426|0x1427|0x1428|0x1429|0x142a|0x142b|0x142c|0x142d|0x142e|0x142f|0x1430|0x1431|0x1432|0x1433|0x1434|0x1435|0x1436|0x1437|0x1438|0x1439|0x143a|0x143b|0x143c|0x143d|0x143e|0x143f|0x1446|0x1464|0x1465|0x14ac|0x14c9|0x14cf|0x14d1|0x14fe|0x1505|0x1506|0x1520|0x1521|0x1526)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "product" "0x155b";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "product" "(0x1573|0x1803|0x1c05|0x1c0b)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12ef";
 	match "product" "0x0100";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1342";
 	match "product" "0x0202";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1342";
 	match "product" "0x0204";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1371";
 	match "product" "(0x9022|0x9032)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1371";
 	match "product" "0x9401";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1385";
 	match "product" "(0x4250|0x5f00|0x5f02)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13ad";
 	match "product" "0x9999";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x000c";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "(0x000d|0x0011)";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x0018";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x001a";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "(0x0020|0x0023)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x0024";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x002f";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13b1";
 	match "product" "0x003f";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d2";
 	match "product" "0x0400";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "(0x3247|0x3262|0x3273|0x3284)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "0x3304";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "0x3305";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "(0x3306|0x3309|0x3310|0x3311|0x3325)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "(0x3357|0x3358|0x3359)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x13d3";
 	match "product" "(0x3362|0x3375|0x3393)";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1410";
 	match "product" "(0x1100|0x1110|0x1120|0x1130|0x1400|0x1410|0x1420|0x1430|0x1450|0x2100|0x2110|0x2120|0x2130|0x2400|0x2410|0x2420|0x4100|0x4400|0x5010|0x5020|0x5041|0x5100|0x6000|0x6002|0x7001|0x7031|0x7042)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1416";
 	match "product" "0x1110";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1435";
 	match "product" "0x0326";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1435";
 	match "product" "0x0427";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1435";
 	match "product" "0x0711";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1435";
 	match "product" "0x0804";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1435";
 	match "product" "(0x0826|0x082a)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1453";
 	match "product" "0x4026";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1457";
 	match "product" "(0x5118|0x5118)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1472";
 	match "product" "0x0009";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1482";
 	match "product" "0x3c09";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1485";
 	match "product" "(0x0001|0x0002)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "0x1706";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "0x2070";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "0x2570";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "(0x2573|0x2671)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "(0x2770|0x2870|0x2878|0x3070|0x3071|0x3072|0x3370|0x3572|0x3573|0x5370|0x5572|0x8070)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "0x9020";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x148f";
 	match "product" "0x9021";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14b2";
 	match "product" "(0x3300|0x3301|0x3302)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14b2";
 	match "product" "0x3c02";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14b2";
 	match "product" "(0x3c06|0x3c07|0x3c08|0x3c09|0x3c11|0x3c12)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14b2";
 	match "product" "0x3c22";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14b2";
 	match "product" "(0x3c23|0x3c25|0x3c25|0x3c27|0x3c28)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14ea";
 	match "product" "0xab10";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14ea";
 	match "product" "0xab11";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x14ea";
 	match "product" "0xab13";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1555";
 	match "product" "0x0004";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1557";
 	match "product" "0x7720";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1557";
 	match "product" "0x8150";
 	action "kldload -n if_rue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x157e";
 	match "product" "0x3006";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x157e";
 	match "product" "(0x300a|0x300b|0x300d)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x157e";
 	match "product" "0x300e";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x157e";
 	match "product" "0x3204";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x157e";
 	match "product" "0x3205";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1582";
 	match "product" "0x6003";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x15a9";
 	match "product" "0x0004";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x15a9";
 	match "product" "(0x0006|0x0010)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x15ba";
 	match "product" "(0x0003|0x002b)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x15c5";
 	match "product" "0x0008";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x15e8";
 	match "product" "(0x9100|0x9110)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1614";
 	match "product" "(0x0800|0x0802|0x7002)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1631";
 	match "product" "0x6200";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1631";
 	match "product" "0xc019";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1645";
 	match "product" "(0x0005|0x0008|0x8005)";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x166a";
 	match "product" "(0x0101|0x0201|0x0301|0x0303|0x0304|0x0305|0x0401)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x167b";
 	match "product" "0x4001";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x168c";
 	match "product" "0x0001";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1690";
 	match "product" "0x0601";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1690";
 	match "product" "(0x0710|0x0712)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1690";
 	match "product" "0x0722";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1690";
 	match "product" "(0x0740|0x0744)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16ab";
 	match "product" "(0x7801|0x7811)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d5";
 	match "product" "(0x6202|0x6501)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d5";
 	match "product" "0x6501";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d5";
 	match "product" "0x6502";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d5";
 	match "product" "0x6502";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d6";
 	match "product" "0x0001";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d8";
 	match "product" "(0x6006|0x6280)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16d8";
 	match "product" "0x6280";
 	action "kldload -n ugensa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x16dc";
 	match "product" "(0x0010|0x0011|0x0012|0x0015)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1726";
 	match "product" "0x1000";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1726";
 	match "product" "0x1000";
 	action "kldload -n ubsa";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1737";
 	match "product" "0x0039";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1737";
 	match "product" "(0x0070|0x0071)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1737";
 	match "product" "0x0073";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1737";
 	match "product" "(0x0077|0x0078|0x0079)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1740";
 	match "product" "0x0100";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1740";
 	match "product" "(0x0605|0x0615)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1740";
 	match "product" "0x2000";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1740";
 	match "product" "(0x9603|0x9605)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1740";
 	match "product" "(0x9701|0x9702|0x9703|0x9705|0x9706|0x9707|0x9708|0x9709|0x9801)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1761";
 	match "product" "0x0b05";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x177f";
 	match "product" "0x0153";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x177f";
 	match "product" "0x0154";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x177f";
 	match "product" "(0x0302|0x0313)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1781";
 	match "product" "0x0c30";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x17a8";
 	match "product" "(0x0001|0x0005)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x17e9";
 	match "product" "(0x0059|0x0100|0x0117|0x0136|0x0138|0x0141|0x015a|0x0198|0x019b|0x01ba|0x01bb|0x01d4|0x01d7|0x01e2|0x0215|0x024c|0x02a9|0x02e9|0x0377|0x03e0|0x401a)";
 	action "kldload -n udl";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x17ef";
 	match "product" "0x304b";
 	action "kldload -n if_axge";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x17ef";
 	match "product" "0x7203";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x17f4";
 	match "product" "0xaaaa";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1843";
 	match "product" "0x0200";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18c5";
 	match "product" "0x0002";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18c5";
 	match "product" "(0x0008|0x0012)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18e8";
 	match "product" "(0x6196|0x6229)";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18e8";
 	match "product" "0x6232";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18e8";
 	match "product" "0x6238";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18e8";
 	match "product" "0x6259";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x18ef";
 	match "product" "0xe00f";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x19d2";
 	match "product" "(0x0001|0x0002|0x0003|0x0004|0x0005|0x0006|0x0007|0x0008|0x0009|0x000a|0x000b|0x000c|0x000d|0x000e|0x000f|0x0010|0x0011|0x0012|0x0013|0x0014|0x0015|0x0016|0x0017|0x0018|0x0019|0x0020|0x0021|0x0022|0x0023|0x0024|0x0025|0x0026|0x0027|0x0028|0x0029|0x0030|0x0031|0x0032|0x0033|0x0037|0x0039|0x0042|0x0043|0x0048|0x0049|0x0051|0x0052|0x0053|0x0054|0x0055|0x0057|0x0058|0x0059|0x0060|0x0061|0x0062|0x0063|0x0064|0x0066|0x0069|0x0070|0x0073|0x0076|0x0078|0x0082|0x0086|0x0103|0x0117|0x1179|0x1181|0x1420|0x1514|0x1516|0x2000|0x2002|0x2003|0xffdd|0xffde|0xfff1|0xfff5|0xfffe)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x19f5";
 	match "product" "0x9909";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1a79";
 	match "product" "0x6001";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1a86";
 	match "product" "(0x5523|0x7523)";
 	action "kldload -n uchcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1a8d";
 	match "product" "(0x1002|0x1003|0x1004|0x1005|0x1006|0x1007|0x1008|0x1009|0x100a|0x100b|0x100c|0x100d|0x100e|0x100f|0x1010|0x1011|0x1012)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1adb";
 	match "product" "0x0001";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1b3d";
 	match "product" "(0x0100|0x0101|0x0102|0x0103|0x0104|0x0105|0x0106|0x0107|0x0108|0x0109|0x010a|0x010b|0x010c|0x010d|0x010e|0x010f|0x0110|0x0111|0x0112|0x0113|0x0114|0x0115|0x0116|0x0117|0x0118|0x0119|0x011a|0x011b|0x011c|0x011d|0x011e|0x011f|0x0120|0x0121|0x0122|0x0123|0x0124|0x0125|0x0126|0x0128|0x0129|0x012a|0x012b|0x012d|0x012e|0x012f|0x0130|0x0131|0x0132|0x0133|0x0134|0x0135|0x0136|0x0137|0x0138|0x0139|0x013a|0x013b|0x013c|0x013d|0x013e|0x013f|0x0140|0x0141|0x0142|0x0143|0x0144|0x0145|0x0146|0x0147|0x0148|0x0149|0x014a|0x014b|0x014c|0x014d|0x014e|0x014f|0x0150|0x0151|0x0152|0x0153|0x0159|0x015a|0x015b|0x015c|0x015d|0x015e|0x015f|0x0160|0x0161|0x0162|0x0163|0x0164|0x0165|0x0166|0x0167|0x0168|0x0169|0x016a|0x016b|0x016c|0x016d|0x016e|0x016f|0x0170|0x0171|0x0172|0x0173|0x0174|0x0175|0x0176|0x0177|0x0178|0x0179|0x017a|0x017b|0x017c|0x017d|0x017e|0x017f|0x0180|0x0181|0x0182|0x0183|0x0184|0x0185|0x0186|0x0187|0x0188|0x0189|0x018a|0x018b|0x018c|0x018d|0x018e|0x018f|0x0190|0x0191|0x0192|0x0193|0x0194|0x0195|0x0196|0x0197|0x0198|0x0199|0x019a|0x019b|0x019c|0x019d|0x019e|0x019f|0x01a0|0x01a1|0x01a2|0x01a3|0x01a4|0x01a5|0x01a6|0x01a7|0x01a8|0x01a9|0x01aa|0x01ab|0x01ac|0x01ad|0x01ae|0x01af|0x01b0|0x01b1|0x01b2|0x01b3|0x01b4|0x01b5|0x01b6|0x01b7|0x01b8|0x01b9|0x01ba|0x01bb|0x01bc|0x01bd|0x01be|0x01bf|0x01c0|0x01c1|0x01c2|0x01c3|0x01c4|0x01c5|0x01c6|0x01c7|0x01c8|0x01c9|0x01ca|0x01cb|0x01cc|0x01cd|0x01ce|0x01cf|0x01d0|0x01d1|0x01d2|0x01d3|0x01d4|0x01d5|0x01d6|0x01d7|0x01d8|0x01d9|0x01da|0x01db|0x01dc|0x01dd|0x01de|0x01df|0x01e0|0x01e1|0x01e2|0x01e3|0x01e4|0x01e5|0x01e6|0x01e7|0x01e8|0x01e9|0x01ea|0x01eb|0x01ec|0x01ed|0x01ee|0x01ef|0x01f0|0x01f1|0x01f2|0x01f3|0x01f4|0x01f5|0x01f6|0x01f7|0x01f8|0x01f9|0x01fa|0x01fb|0x01fc|0x01fd|0x01fe|0x01ff)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1b75";
 	match "product" "0x3072";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1b75";
 	match "product" "0x8187";
 	action "kldload -n if_urtw";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1b91";
 	match "product" "0x0064";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1bbb";
 	match "product" "(0x0000|0xf000)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1bc7";
 	match "product" "(0x1003|0x1004)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1bc9";
 	match "product" "0x6001";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1be3";
 	match "product" "0x07a6";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1c0c";
 	match "product" "0x0102";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1c9e";
 	match "product" "(0x6061|0x9603|0x9605|0xf000)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1cf1";
 	match "product" "(0x0001|0x0004|0x001c|0x0022)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1d09";
 	match "product" "0x4000";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1d34";
 	match "product" "0x0004";
 	action "kldload -n uled";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1d4d";
 	match "product" "(0x0002|0x000c|0x000e|0x0010)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1da5";
 	match "product" "(0x4512|0x4515|0x4519|0x4523)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1e0e";
 	match "product" "(0x9000|0x9200|0xce16)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1e29";
 	match "product" "(0x0102|0x0501)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1eda";
 	match "product" "0x2310";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x1fb9";
 	match "product" "(0x0100|0x0200|0x0201|0x0202|0x0203|0x0300|0x0301|0x0302|0x0303|0x0400|0x0401|0x0402|0x0403|0x0404|0x0600|0x0601|0x0602|0x0700|0x0701)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x1a00|0x1a02)";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0x200c";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x3307|0x3308|0x3309|0x330a|0x330d|0x330f|0x3310|0x3314|0x3315|0x3316|0x3318)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x3a00|0x3a02|0x3a04)";
 	action "kldload -n if_uath";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0x3c00";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0x3c05";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x3c09|0x3c0a|0x3c15|0x3c1a|0x3c1b|0x3c1f|0x3c20)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0x4000";
 	action "kldload -n if_kue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x4001|0x4002|0x4003|0x400b|0x4102)";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0x4a00";
 	action "kldload -n if_axge";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "(0x7d02|0x7e12|0xa707|0xa805)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2001";
 	match "product" "0xabc1";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "(0x1201|0x4902)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0x5303";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0x5304";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0xab01";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "(0xab24|0xab25)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0xab28";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "(0xab2a|0xab2b|0xab2e|0xab30)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0xab50";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "(0xc007|0xed01)";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0xed02";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "(0xed06|0xed14)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2019";
 	match "product" "0xed17";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x203d";
 	match "product" "(0x1480|0x14a1|0x14a9)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20b7";
 	match "product" "0x0713";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20b8";
 	match "product" "0x8888";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20b9";
 	match "product" "0x1682";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20f4";
 	match "product" "0x624d";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20f4";
 	match "product" "0x646b";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x20f4";
 	match "product" "(0x648b|0x805b)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2100";
 	match "product" "(0x9e52|0x9e54)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x22b8";
 	match "product" "(0x4204|0x4214|0x4224|0x4234|0x4244)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x22b8";
 	match "product" "(0x600c|0x6027)";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x22b8";
 	match "product" "0x710f";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x22de";
 	match "product" "0x6801";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2357";
 	match "product" "0x0101";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2405";
 	match "product" "0x0003";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x2478";
 	match "product" "0x2008";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x3195";
 	match "product" "(0xf190|0xf280|0xf281)";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x3334";
 	match "product" "0x1701";
 	action "kldload -n if_aue";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x3340";
 	match "product" "(0x011c|0x0326|0x0426|0x043a|0x051c|0x053a|0x071c|0x0b1c|0x0e3a|0x0f1c|0x0f3a|0x1326|0x191c|0x2326|0x3326)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x3708";
 	match "product" "(0x20ce|0x21ce)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x4113";
 	match "product" "(0x0210|0x0211|0x0400|0x0410)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x413c";
 	match "product" "(0x4001|0x4002|0x4003|0x4004|0x4005|0x4006|0x4007|0x4008|0x4009)";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x413c";
 	match "product" "(0x8102|0x8104)";
 	action "kldload -n if_upgt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x413c";
 	match "product" "(0x8114|0x8115|0x8116|0x8117|0x8118|0x8128|0x8129|0x8133|0x8134|0x8135|0x8136|0x8137|0x8138|0x8180|0x8181|0x8182)";
 	action "kldload -n u3g";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x413c";
 	match "product" "0x8197";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x413c";
 	match "product" "0x9500";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x4348";
 	match "product" "0x5523";
 	action "kldload -n uchcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x4505";
 	match "product" "0x0010";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x4766";
 	match "product" "0x0001";
 	action "kldload -n uvisor";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x4855";
 	match "product" "(0x0090|0x0091)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5050";
 	match "product" "(0x0100|0x0101|0x0102|0x0103|0x0104|0x0105|0x0106|0x0107|0x0300|0x0301|0x0400|0x0500|0x0700|0x0800|0x0900|0x0a00|0x0b00|0x0c00|0x0d00|0x0e00|0x0f00|0x1000|0x8000|0x8001|0x8002|0x8003|0x8004|0x8005)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5173";
 	match "product" "0x1809";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5372";
 	match "product" "0x2303";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5a57";
 	match "product" "0x0260";
 	action "kldload -n if_ural";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5a57";
 	match "product" "(0x0280|0x0282|0x0283|0x0284|0x5257)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x5e04";
 	match "product" "0xce00";
 	action "kldload -n uipaq";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x6189";
 	match "product" "0x182d";
 	action "kldload -n if_axe";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x6189";
 	match "product" "0x2068";
 	action "kldload -n uplcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x6547";
 	match "product" "0x0232";
 	action "kldload -n uark";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x6891";
 	match "product" "0xa727";
 	action "kldload -n if_zyd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x7392";
 	match "product" "0x7318";
 	action "kldload -n if_rum";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x7392";
 	match "product" "(0x7611|0x7612|0x7622)";
 	action "kldload -n if_rsu";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x7392";
 	match "product" "(0x7711|0x7717|0x7718|0x7733)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x7392";
 	match "product" "(0x7811|0x7822|0xa811|0xa812|0xa822)";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x8516";
 	match "product" "(0x2070|0x2770|0x2870|0x3070|0x3071|0x3072|0x3572)";
 	action "kldload -n if_run";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9710";
 	match "product" "0x7703";
 	action "kldload -n umoscom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9710";
 	match "product" "0x7730";
 	action "kldload -n if_mos";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9710";
 	match "product" "0x7820";
 	action "kldload -n umcs";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9710";
 	match "product" "(0x7830|0x7832)";
 	action "kldload -n if_mos";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9710";
 	match "product" "0x7840";
 	action "kldload -n umcs";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9846";
 	match "product" "0x9041";
 	action "kldload -n if_rtwn_usb";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x9e88";
 	match "product" "0x9e8f";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0xcace";
 	match "product" "0x0300";
 	action "kldload -n if_otus";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0xdaae";
 	match "product" "0xead6";
 	action "kldload -n uslcom";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0xdeee";
 	match "product" "(0x0300|0x0302|0x0303)";
 	action "kldload -n uftdi";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0489";
 	match "intclass" "0xff";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "intclass" "0xff";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x05ac";
 	match "intclass" "0xff";
 	match "intsubclass" "0xfd";
 	match "intprotocol" "0x01";
 	action "kldload -n if_ipheth";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0830";
 	match "intclass" "0x02";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0xff";
 	action "kldload -n if_urndis";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x0a5c";
 	match "intclass" "0xff";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "intclass" "0x02";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0xff";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "intclass" "0xff";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0x16";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "intclass" "0xff";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0x46";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "vendor" "0x12d1";
 	match "intclass" "0xff";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0x76";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "(host|device)";
 	match "intclass" "0x02";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0x00";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "(host|device)";
 	match "intclass" "0x02";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0x01";
 	action "kldload -n umodem";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x02";
 	match "intsubclass" "0x02";
 	match "intprotocol" "0xff";
 	action "kldload -n if_urndis";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x03";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ukbd";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x03";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x02";
 	action "kldload -n ums";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x07";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ulpt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x07";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x02";
 	action "kldload -n ulpt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x07";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x03";
 	action "kldload -n ulpt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0xe0";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n ng_ubt";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0xe0";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x03";
 	action "kldload -n if_urndis";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0xef";
 	match "intsubclass" "0x01";
 	match "intprotocol" "0x01";
 	action "kldload -n if_urndis";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0xff";
 	match "intsubclass" "0x5d";
 	match "intprotocol" "0x01";
 	action "kldload -n uhid";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x01";
 	match "intsubclass" "0x01";
 	action "kldload -n snd_uaudio";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x01";
 	match "intsubclass" "0x03";
 	action "kldload -n snd_uaudio";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "(host|device)";
 	match "intclass" "0x02";
 	match "intsubclass" "0x06";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "(host|device)";
 	match "intclass" "0x02";
 	match "intsubclass" "0x0a";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "(host|device)";
 	match "intclass" "0x02";
 	match "intsubclass" "0x0d";
 	action "kldload -n if_cdce";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x02";
 	match "intsubclass" "0x88";
 	action "kldload -n ufoma";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x03";
 	action "kldload -n uhid";
 };
 
 nomatch 32 {
 	match "bus" "uhub[0-9]+";
 	match "mode" "host";
 	match "intclass" "0x08";
 	action "kldload -n umass";
 };
 
 # 2743 USB entries processed
 
Index: head/share/man/man4/ure.4
===================================================================
--- head/share/man/man4/ure.4	(revision 308120)
+++ head/share/man/man4/ure.4	(revision 308121)
@@ -1,121 +1,126 @@
 .\"
-.\" Copyright (c) 2015 Kevin Lo <kevlo@FreeBSD.org>
+.\" Copyright (c) 2015-2016 Kevin Lo <kevlo@FreeBSD.org>
 .\" All rights reserved.
 .\"
 .\" Redistribution and use in source and binary forms, with or without
 .\" modification, are permitted provided that the following conditions
 .\" are met:
 .\" 1. Redistributions of source code must retain the above copyright
 .\"    notice, this list of conditions and the following disclaimer.
 .\" 2. Redistributions in binary form must reproduce the above copyright
 .\"    notice, this list of conditions and the following disclaimer in the
 .\"    documentation and/or other materials provided with the distribution.
 .\"
 .\" THIS SOFTWARE IS PROVIDED BY THE AUTHOR AND CONTRIBUTORS ``AS IS'' AND
 .\" ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
 .\" IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
 .\" ARE DISCLAIMED.  IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE
 .\" FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
 .\" DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
 .\" OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
 .\" HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
 .\" LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
 .\" OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
 .\" SUCH DAMAGE.
 .\"
 .\" $FreeBSD$
 .\"
-.Dd December 1, 2015
+.Dd October 31, 2016
 .Dt URE 4
 .Os
 .Sh NAME
 .Nm ure
-.Nd "RealTek RTL8152 USB to Fast Ethernet controller driver"
+.Nd "RealTek RTL8152/RTL8153 USB to Ethernet controller driver"
 .Sh SYNOPSIS
 To compile this driver into the kernel,
 place the following lines in your
 kernel configuration file:
 .Bd -ragged -offset indent
 .Cd "device uhci"
 .Cd "device ohci"
 .Cd "device usb"
 .Cd "device miibus"
 .Cd "device uether"
 .Cd "device ure"
 .Ed
 .Pp
 Alternatively, to load the driver as a
 module at boot time, place the following line in
 .Xr loader.conf 5 :
 .Bd -literal -offset indent
 if_ure_load="YES"
 .Ed
 .Sh DESCRIPTION
 The
 .Nm
 driver provides support for USB Ethernet adapters based on the RealTek
-RTL8152 USB to Fast Ethernet controller chip.
+RealTek RTL8152 and RTL8153 USB Ethernet controllers.
 .Pp
-The RTL8152 contains an integrated Fast Ethernet MAC, which supports
-both 10 and 100Mbps speeds in either full or half duplex.
+NICs based on the RTL8152 are capable of 10 and 100Mbps speeds.
+NICs based on the RTL8153 are capable of 10, 100 and 1000Mbps operation.
 .Pp
 The
 .Nm
 driver supports the following media types:
 .Bl -tag -width ".Cm 10baseT/UTP"
 .It Cm autoselect
 Enable auto selection of the media type and options.
 The user can manually override
 the auto selected mode by adding media options to the
 .Pa /etc/rc.conf
 file.
 .It Cm 10baseT/UTP
 Set 10Mbps operation.
 The
 .Cm mediaopt
 option can also be used to select either
 .Cm full-duplex
 or
 .Cm half-duplex
 modes.
 .It Cm 100baseTX
 Set 100Mbps (Fast Ethernet) operation.
 The
 .Cm mediaopt
 option can also be used to select either
 .Cm full-duplex
 or
 .Cm half-duplex
 modes.
+.It Cm 1000baseTX
+Set 1000baseTX operation over twisted pair.
+The RealTek gigE chips support 1000Mbps in
+.Cm full-duplex
+mode only.
 .El
 .Pp
 The
 .Nm
 driver supports the following media options:
-.Bl -tag -width ".Cm 10baseT/UTP"
+.Bl -tag -width ".Cm full-duplex"
 .It Cm full-duplex
 Force full duplex operation.
 .It Cm half-duplex
 Force half duplex operation.
 .El
 .Pp
 For more information on configuring this device, see
 .Xr ifconfig 8 .
 .Sh DIAGNOSTICS
 .Bl -diag
 .It "ure%d: watchdog timeout"
 A packet was queued for transmission and a transmit command was
 issued, however the device failed to acknowledge the transmission
 before a timeout expired.
 .El
 .Sh SEE ALSO
 .Xr arp 4 ,
 .Xr miibus 4 ,
 .Xr netintro 4 ,
 .Xr ng_ether 4 ,
 .Xr ifconfig 8
 .Sh AUTHORS
 The
 .Nm
 driver was written by
 .An Kevin Lo Aq Mt kevlo@FreeBSD.org .
Index: head/sys/conf/NOTES
===================================================================
--- head/sys/conf/NOTES	(revision 308120)
+++ head/sys/conf/NOTES	(revision 308121)
@@ -1,3069 +1,3069 @@
 # $FreeBSD$
 #
 # NOTES -- Lines that can be cut/pasted into kernel and hints configs.
 #
 # Lines that begin with 'device', 'options', 'machine', 'ident', 'maxusers',
 # 'makeoptions', 'hints', etc. go into the kernel configuration that you
 # run config(8) with.
 #
 # Lines that begin with 'hint.' are NOT for config(8), they go into your
 # hints file.  See /boot/device.hints and/or the 'hints' config(8) directive.
 #
 # Please use ``make LINT'' to create an old-style LINT file if you want to
 # do kernel test-builds.
 #
 # This file contains machine independent kernel configuration notes.  For
 # machine dependent notes, look in /sys/<arch>/conf/NOTES.
 #
 
 #
 # NOTES conventions and style guide:
 #
 # Large block comments should begin and end with a line containing only a
 # comment character.
 #
 # To describe a particular object, a block comment (if it exists) should
 # come first.  Next should come device, options, and hints lines in that
 # order.  All device and option lines must be described by a comment that
 # doesn't just expand the device or option name.  Use only a concise
 # comment on the same line if possible.  Very detailed descriptions of
 # devices and subsystems belong in man pages.
 #
 # A space followed by a tab separates 'options' from an option name.  Two
 # spaces followed by a tab separate 'device' from a device name.  Comments
 # after an option or device should use one space after the comment character.
 # To comment out a negative option that disables code and thus should not be
 # enabled for LINT builds, precede 'options' with "#!".
 #
 
 #
 # This is the ``identification'' of the kernel.  Usually this should
 # be the same as the name of your kernel.
 #
 ident		LINT
 
 #
 # The `maxusers' parameter controls the static sizing of a number of
 # internal system tables by a formula defined in subr_param.c.
 # Omitting this parameter or setting it to 0 will cause the system to
 # auto-size based on physical memory.
 #
 maxusers	10
 
 # To statically compile in device wiring instead of /boot/device.hints
 #hints		"LINT.hints"		# Default places to look for devices.
 
 # Use the following to compile in values accessible to the kernel
 # through getenv() (or kenv(1) in userland). The format of the file
 # is 'variable=value', see kenv(1)
 #
 #env		"LINT.env"
 
 #
 # The `makeoptions' parameter allows variables to be passed to the
 # generated Makefile in the build area.
 #
 # CONF_CFLAGS gives some extra compiler flags that are added to ${CFLAGS}
 # after most other flags.  Here we use it to inhibit use of non-optimal
 # gcc built-in functions (e.g., memcmp).
 #
 # DEBUG happens to be magic.
 # The following is equivalent to 'config -g KERNELNAME' and creates
 # 'kernel.debug' compiled with -g debugging as well as a normal
 # 'kernel'.  Use 'make install.debug' to install the debug kernel
 # but that isn't normally necessary as the debug symbols are not loaded
 # by the kernel and are not useful there anyway.
 #
 # KERNEL can be overridden so that you can change the default name of your
 # kernel.
 #
 # MODULES_OVERRIDE can be used to limit modules built to a specific list.
 #
 makeoptions	CONF_CFLAGS=-fno-builtin  #Don't allow use of memcmp, etc.
 #makeoptions	DEBUG=-g		#Build kernel with gdb(1) debug symbols
 #makeoptions	KERNEL=foo		#Build kernel "foo" and install "/foo"
 # Only build ext2fs module plus those parts of the sound system I need.
 #makeoptions	MODULES_OVERRIDE="ext2fs sound/sound sound/driver/maestro3"
 makeoptions	DESTDIR=/tmp
 
 #
 # FreeBSD processes are subject to certain limits to their consumption
 # of system resources.  See getrlimit(2) for more details.  Each
 # resource limit has two values, a "soft" limit and a "hard" limit.
 # The soft limits can be modified during normal system operation, but
 # the hard limits are set at boot time.  Their default values are
 # in sys/<arch>/include/vmparam.h.  There are two ways to change them:
 # 
 # 1.  Set the values at kernel build time.  The options below are one
 #     way to allow that limit to grow to 1GB.  They can be increased
 #     further by changing the parameters:
 #	
 # 2.  In /boot/loader.conf, set the tunables kern.maxswzone,
 #     kern.maxbcache, kern.maxtsiz, kern.dfldsiz, kern.maxdsiz,
 #     kern.dflssiz, kern.maxssiz and kern.sgrowsiz.
 #
 # The options in /boot/loader.conf override anything in the kernel
 # configuration file.  See the function init_param1 in
 # sys/kern/subr_param.c for more details.
 #
 
 options 	MAXDSIZ=(1024UL*1024*1024)
 options 	MAXSSIZ=(128UL*1024*1024)
 options 	DFLDSIZ=(1024UL*1024*1024)
 
 #
 # BLKDEV_IOSIZE sets the default block size used in user block
 # device I/O.  Note that this value will be overridden by the label
 # when specifying a block device from a label with a non-0
 # partition blocksize.  The default is PAGE_SIZE.
 #
 options 	BLKDEV_IOSIZE=8192
 
 #
 # MAXPHYS and DFLTPHYS
 #
 # These are the maximal and safe 'raw' I/O block device access sizes.
 # Reads and writes will be split into MAXPHYS chunks for known good
 # devices and DFLTPHYS for the rest. Some applications have better
 # performance with larger raw I/O access sizes. Note that certain VM
 # parameters are derived from these values and making them too large
 # can make an unbootable kernel.
 #
 # The defaults are 64K and 128K respectively.
 options 	DFLTPHYS=(64*1024)
 options 	MAXPHYS=(128*1024)
 
 
 # This allows you to actually store this configuration file into
 # the kernel binary itself. See config(8) for more details.
 #
 options 	INCLUDE_CONFIG_FILE     # Include this file in kernel
 
 #
 # Compile-time defaults for various boot parameters
 #
 options 	BOOTVERBOSE=1
 options 	BOOTHOWTO=RB_MULTIPLE
 
 options 	GEOM_AES		# Don't use, use GEOM_BDE
 options 	GEOM_BDE		# Disk encryption.
 options 	GEOM_BSD		# BSD disklabels
 options 	GEOM_CACHE		# Disk cache.
 options 	GEOM_CONCAT		# Disk concatenation.
 options 	GEOM_ELI		# Disk encryption.
 options 	GEOM_FOX		# Redundant path mitigation
 options 	GEOM_GATE		# Userland services.
 options 	GEOM_JOURNAL		# Journaling.
 options 	GEOM_LABEL		# Providers labelization.
 options 	GEOM_LINUX_LVM		# Linux LVM2 volumes
 options 	GEOM_MAP		# Map based partitioning
 options 	GEOM_MBR		# DOS/MBR partitioning
 options 	GEOM_MIRROR		# Disk mirroring.
 options 	GEOM_MULTIPATH		# Disk multipath
 options 	GEOM_NOP		# Test class.
 options 	GEOM_PART_APM		# Apple partitioning
 options 	GEOM_PART_BSD		# BSD disklabel
 options 	GEOM_PART_BSD64		# BSD disklabel64
 options 	GEOM_PART_EBR		# Extended Boot Records
 options 	GEOM_PART_EBR_COMPAT	# Backward compatible partition names
 options 	GEOM_PART_GPT		# GPT partitioning
 options 	GEOM_PART_LDM		# Logical Disk Manager
 options 	GEOM_PART_MBR		# MBR partitioning
 options 	GEOM_PART_PC98		# PC-9800 disk partitioning
 options 	GEOM_PART_VTOC8		# SMI VTOC8 disk label
 options 	GEOM_PC98		# NEC PC9800 partitioning
 options 	GEOM_RAID		# Soft RAID functionality.
 options 	GEOM_RAID3		# RAID3 functionality.
 options 	GEOM_SHSEC		# Shared secret.
 options 	GEOM_STRIPE		# Disk striping.
 options 	GEOM_SUNLABEL		# Sun/Solaris partitioning
 options 	GEOM_UZIP		# Read-only compressed disks
 options 	GEOM_VINUM		# Vinum logical volume manager
 options 	GEOM_VIRSTOR		# Virtual storage.
 options 	GEOM_VOL		# Volume names from UFS superblock
 options 	GEOM_ZERO		# Performance testing helper.
 
 #
 # The root device and filesystem type can be compiled in;
 # this provides a fallback option if the root device cannot
 # be correctly guessed by the bootstrap code, or an override if
 # the RB_DFLTROOT flag (-r) is specified when booting the kernel.
 #
 options 	ROOTDEVNAME=\"ufs:da0s2e\"
 
 
 #####################################################################
 # Scheduler options:
 #
 # Specifying one of SCHED_4BSD or SCHED_ULE is mandatory.  These options
 # select which scheduler is compiled in.
 #
 # SCHED_4BSD is the historical, proven, BSD scheduler.  It has a global run
 # queue and no CPU affinity which makes it suboptimal for SMP.  It has very
 # good interactivity and priority selection.
 #
 # SCHED_ULE provides significant performance advantages over 4BSD on many
 # workloads on SMP machines.  It supports cpu-affinity, per-cpu runqueues
 # and scheduler locks.  It also has a stronger notion of interactivity 
 # which leads to better responsiveness even on uniprocessor machines.  This
 # is the default scheduler.
 #
 # SCHED_STATS is a debugging option which keeps some stats in the sysctl
 # tree at 'kern.sched.stats' and is useful for debugging scheduling decisions.
 #
 options 	SCHED_4BSD
 options 	SCHED_STATS
 #options 	SCHED_ULE
 
 #####################################################################
 # SMP OPTIONS:
 #
 # SMP enables building of a Symmetric MultiProcessor Kernel.
 
 # Mandatory:
 options 	SMP			# Symmetric MultiProcessor Kernel
 
 # EARLY_AP_STARTUP releases the Application Processors earlier in the
 # kernel startup process (before devices are probed) rather than at the
 # end.  This is a temporary option for use during the transition from
 # late to early AP startup.
 options		EARLY_AP_STARTUP
 
 # MAXCPU defines the maximum number of CPUs that can boot in the system.
 # A default value should be already present, for every architecture.
 options 	MAXCPU=32
 
 # MAXMEMDOM defines the maximum number of memory domains that can boot in the
 # system.  A default value should already be defined by every architecture.
 options 	MAXMEMDOM=2
 
 # VM_NUMA_ALLOC enables use of memory domain-aware allocation in the VM
 # system.
 options 	VM_NUMA_ALLOC
 
 # DEVICE_NUMA enables reporting of domain affinity of I/O devices via
 # bus_get_domain(), etc.
 options 	DEVICE_NUMA
 
 # ADAPTIVE_MUTEXES changes the behavior of blocking mutexes to spin
 # if the thread that currently owns the mutex is executing on another
 # CPU.  This behavior is enabled by default, so this option can be used
 # to disable it.
 options 	NO_ADAPTIVE_MUTEXES
 
 # ADAPTIVE_RWLOCKS changes the behavior of reader/writer locks to spin
 # if the thread that currently owns the rwlock is executing on another
 # CPU.  This behavior is enabled by default, so this option can be used
 # to disable it.
 options 	NO_ADAPTIVE_RWLOCKS
 
 # ADAPTIVE_SX changes the behavior of sx locks to spin if the thread that
 # currently owns the sx lock is executing on another CPU.
 # This behavior is enabled by default, so this option can be used to
 # disable it.
 options 	NO_ADAPTIVE_SX
 
 # MUTEX_NOINLINE forces mutex operations to call functions to perform each
 # operation rather than inlining the simple cases.  This can be used to
 # shrink the size of the kernel text segment.  Note that this behavior is
 # already implied by the INVARIANT_SUPPORT, INVARIANTS, KTR, LOCK_PROFILING,
 # and WITNESS options.
 options 	MUTEX_NOINLINE
 
 # RWLOCK_NOINLINE forces rwlock operations to call functions to perform each
 # operation rather than inlining the simple cases.  This can be used to
 # shrink the size of the kernel text segment.  Note that this behavior is
 # already implied by the INVARIANT_SUPPORT, INVARIANTS, KTR, LOCK_PROFILING,
 # and WITNESS options.
 options 	RWLOCK_NOINLINE
 
 # SX_NOINLINE forces sx lock operations to call functions to perform each
 # operation rather than inlining the simple cases.  This can be used to
 # shrink the size of the kernel text segment.  Note that this behavior is
 # already implied by the INVARIANT_SUPPORT, INVARIANTS, KTR, LOCK_PROFILING,
 # and WITNESS options.
 options 	SX_NOINLINE
 
 # SMP Debugging Options:
 #
 # CALLOUT_PROFILING enables rudimentary profiling of the callwheel data
 #	  structure used as backend in callout(9).
 # PREEMPTION allows the threads that are in the kernel to be preempted by
 #	  higher priority [interrupt] threads.  It helps with interactivity
 #	  and allows interrupt threads to run sooner rather than waiting.
 #	  WARNING! Only tested on amd64 and i386.
 # FULL_PREEMPTION instructs the kernel to preempt non-realtime kernel
 #	  threads.  Its sole use is to expose race conditions and other
 #	  bugs during development.  Enabling this option will reduce
 #	  performance and increase the frequency of kernel panics by
 #	  design.  If you aren't sure that you need it then you don't.
 #	  Relies on the PREEMPTION option.  DON'T TURN THIS ON.
 # SLEEPQUEUE_PROFILING enables rudimentary profiling of the hash table
 #	  used to hold active sleep queues as well as sleep wait message
 #	  frequency.
 # TURNSTILE_PROFILING enables rudimentary profiling of the hash table
 #	  used to hold active lock queues.
 # UMTX_PROFILING enables rudimentary profiling of the hash table used 
 	  to hold active lock queues.
 # WITNESS enables the witness code which detects deadlocks and cycles
 #         during locking operations.
 # WITNESS_KDB causes the witness code to drop into the kernel debugger if
 #	  a lock hierarchy violation occurs or if locks are held when going to
 #	  sleep.
 # WITNESS_SKIPSPIN disables the witness checks on spin mutexes.
 options 	PREEMPTION
 options 	FULL_PREEMPTION
 options 	WITNESS
 options 	WITNESS_KDB
 options 	WITNESS_SKIPSPIN
 
 # LOCK_PROFILING - Profiling locks.  See LOCK_PROFILING(9) for details.
 options 	LOCK_PROFILING
 # Set the number of buffers and the hash size.  The hash size MUST be larger
 # than the number of buffers.  Hash size should be prime.
 options 	MPROF_BUFFERS="1536"
 options 	MPROF_HASH_SIZE="1543"
 
 # Profiling for the callout(9) backend.
 options 	CALLOUT_PROFILING
 
 # Profiling for internal hash tables.
 options 	SLEEPQUEUE_PROFILING
 options 	TURNSTILE_PROFILING
 options 	UMTX_PROFILING
 
 
 #####################################################################
 # COMPATIBILITY OPTIONS
 
 #
 # Implement system calls compatible with 4.3BSD and older versions of
 # FreeBSD.  You probably do NOT want to remove this as much current code
 # still relies on the 4.3 emulation.  Note that some architectures that
 # are supported by FreeBSD do not include support for certain important
 # aspects of this compatibility option, namely those related to the
 # signal delivery mechanism.
 #
 options 	COMPAT_43
 
 # Old tty interface.
 options 	COMPAT_43TTY
 
 # Note that as a general rule, COMPAT_FREEBSD<n> depends on
 # COMPAT_FREEBSD<n+1>, COMPAT_FREEBSD<n+2>, etc.
 
 # Enable FreeBSD4 compatibility syscalls
 options 	COMPAT_FREEBSD4
 
 # Enable FreeBSD5 compatibility syscalls
 options 	COMPAT_FREEBSD5
 
 # Enable FreeBSD6 compatibility syscalls
 options 	COMPAT_FREEBSD6
 
 # Enable FreeBSD7 compatibility syscalls
 options 	COMPAT_FREEBSD7
 
 # Enable FreeBSD9 compatibility syscalls
 options 	COMPAT_FREEBSD9
 
 # Enable FreeBSD10 compatibility syscalls
 options 	COMPAT_FREEBSD10
 
 # Enable Linux Kernel Programming Interface
 options 	COMPAT_LINUXKPI
 
 #
 # These three options provide support for System V Interface
 # Definition-style interprocess communication, in the form of shared
 # memory, semaphores, and message queues, respectively.
 #
 options 	SYSVSHM
 options 	SYSVSEM
 options 	SYSVMSG
 
 
 #####################################################################
 # DEBUGGING OPTIONS
 
 #
 # Compile with kernel debugger related code.
 #
 options 	KDB
 
 #
 # Print a stack trace of the current thread on the console for a panic.
 #
 options 	KDB_TRACE
 
 #
 # Don't enter the debugger for a panic. Intended for unattended operation
 # where you may want to enter the debugger from the console, but still want
 # the machine to recover from a panic.
 #
 options 	KDB_UNATTENDED
 
 #
 # Enable the ddb debugger backend.
 #
 options 	DDB
 
 #
 # Print the numerical value of symbols in addition to the symbolic
 # representation.
 #
 options 	DDB_NUMSYM
 
 #
 # Enable the remote gdb debugger backend.
 #
 options 	GDB
 
 #
 # SYSCTL_DEBUG enables a 'sysctl' debug tree that can be used to dump the
 # contents of the registered sysctl nodes on the console.  It is disabled by
 # default because it generates excessively verbose console output that can
 # interfere with serial console operation.
 #
 options 	SYSCTL_DEBUG
 
 #
 # Enable textdump by default, this disables kernel core dumps.
 #
 options		TEXTDUMP_PREFERRED
 
 #
 # Enable extra debug messages while performing textdumps.
 #
 options		TEXTDUMP_VERBOSE
 
 #
 # NO_SYSCTL_DESCR omits the sysctl node descriptions to save space in the
 # resulting kernel.
 options		NO_SYSCTL_DESCR
 
 #
 # MALLOC_DEBUG_MAXZONES enables multiple uma zones for malloc(9)
 # allocations that are smaller than a page.  The purpose is to isolate
 # different malloc types into hash classes, so that any buffer
 # overruns or use-after-free will usually only affect memory from
 # malloc types in that hash class.  This is purely a debugging tool;
 # by varying the hash function and tracking which hash class was
 # corrupted, the intersection of the hash classes from each instance
 # will point to a single malloc type that is being misused.  At this
 # point inspection or memguard(9) can be used to catch the offending
 # code.
 #
 options 	MALLOC_DEBUG_MAXZONES=8
 
 #
 # DEBUG_MEMGUARD builds and enables memguard(9), a replacement allocator
 # for the kernel used to detect modify-after-free scenarios.  See the
 # memguard(9) man page for more information on usage.
 #
 options 	DEBUG_MEMGUARD
 
 #
 # DEBUG_REDZONE enables buffer underflows and buffer overflows detection for
 # malloc(9).
 #
 options 	DEBUG_REDZONE
 
 #
 # EARLY_PRINTF enables support for calling a special printf (eprintf)
 # very early in the kernel (before cn_init() has been called).  This
 # should only be used for debugging purposes early in boot.  Normally,
 # it is not defined.  It is commented out here because this feature
 # isn't generally available. And the required eputc() isn't defined.
 #
 #options	EARLY_PRINTF
 
 #
 # KTRACE enables the system-call tracing facility ktrace(2).  To be more
 # SMP-friendly, KTRACE uses a worker thread to process most trace events
 # asynchronously to the thread generating the event.  This requires a
 # pre-allocated store of objects representing trace events.  The
 # KTRACE_REQUEST_POOL option specifies the initial size of this store.
 # The size of the pool can be adjusted both at boottime and runtime via
 # the kern.ktrace_request_pool tunable and sysctl.
 #
 options 	KTRACE			#kernel tracing
 options 	KTRACE_REQUEST_POOL=101
 
 #
 # KTR is a kernel tracing facility imported from BSD/OS.  It is
 # enabled with the KTR option.  KTR_ENTRIES defines the number of
 # entries in the circular trace buffer; it may be an arbitrary number.
 # KTR_BOOT_ENTRIES defines the number of entries during the early boot,
 # before malloc(9) is functional.
 # KTR_COMPILE defines the mask of events to compile into the kernel as
 # defined by the KTR_* constants in <sys/ktr.h>.  KTR_MASK defines the
 # initial value of the ktr_mask variable which determines at runtime
 # what events to trace.  KTR_CPUMASK determines which CPU's log
 # events, with bit X corresponding to CPU X.  The layout of the string
 # passed as KTR_CPUMASK must match a series of bitmasks each of them
 # separated by the "," character (ie:
 # KTR_CPUMASK=0xAF,0xFFFFFFFFFFFFFFFF).  KTR_VERBOSE enables
 # dumping of KTR events to the console by default.  This functionality
 # can be toggled via the debug.ktr_verbose sysctl and defaults to off
 # if KTR_VERBOSE is not defined.  See ktr(4) and ktrdump(8) for details.
 #
 options 	KTR
 options 	KTR_BOOT_ENTRIES=1024
 options 	KTR_ENTRIES=(128*1024)
 options 	KTR_COMPILE=(KTR_ALL)
 options 	KTR_MASK=KTR_INTR
 options 	KTR_CPUMASK=0x3
 options 	KTR_VERBOSE
 
 #
 # ALQ(9) is a facility for the asynchronous queuing of records from the kernel
 # to a vnode, and is employed by services such as ktr(4) to produce trace
 # files based on a kernel event stream.  Records are written asynchronously
 # in a worker thread.
 #
 options 	ALQ
 options 	KTR_ALQ
 
 #
 # The INVARIANTS option is used in a number of source files to enable
 # extra sanity checking of internal structures.  This support is not
 # enabled by default because of the extra time it would take to check
 # for these conditions, which can only occur as a result of
 # programming errors.
 #
 options 	INVARIANTS
 
 #
 # The INVARIANT_SUPPORT option makes us compile in support for
 # verifying some of the internal structures.  It is a prerequisite for
 # 'INVARIANTS', as enabling 'INVARIANTS' will make these functions be
 # called.  The intent is that you can set 'INVARIANTS' for single
 # source files (by changing the source file or specifying it on the
 # command line) if you have 'INVARIANT_SUPPORT' enabled.  Also, if you
 # wish to build a kernel module with 'INVARIANTS', then adding
 # 'INVARIANT_SUPPORT' to your kernel will provide all the necessary
 # infrastructure without the added overhead.
 #
 options 	INVARIANT_SUPPORT
 
 #
 # The DIAGNOSTIC option is used to enable extra debugging information
 # from some parts of the kernel.  As this makes everything more noisy,
 # it is disabled by default.
 #
 options 	DIAGNOSTIC
 
 #
 # REGRESSION causes optional kernel interfaces necessary only for regression
 # testing to be enabled.  These interfaces may constitute security risks
 # when enabled, as they permit processes to easily modify aspects of the
 # run-time environment to reproduce unlikely or unusual (possibly normally
 # impossible) scenarios.
 #
 options 	REGRESSION
 
 #
 # This option lets some drivers co-exist that can't co-exist in a running
 # system.  This is used to be able to compile all kernel code in one go for
 # quality assurance purposes (like this file, which the option takes it name
 # from.)
 #
 options 	COMPILING_LINT
 
 #
 # STACK enables the stack(9) facility, allowing the capture of kernel stack
 # for the purpose of procinfo(1), etc.  stack(9) will also be compiled in
 # automatically if DDB(4) is compiled into the kernel.
 #
 options 	STACK
 
 #
 # The NUM_CORE_FILES option specifies the limit for the number of core
 # files generated by a particular process, when the core file format
 # specifier includes the %I pattern. Since we only have 1 character for
 # the core count in the format string, meaning the range will be 0-9, the
 # maximum value allowed for this option is 10.
 # This core file limit can be adjusted at runtime via the debug.ncores
 # sysctl.
 #
 options 	NUM_CORE_FILES=5
 
 
 #####################################################################
 # PERFORMANCE MONITORING OPTIONS
 
 #
 # The hwpmc driver that allows the use of in-CPU performance monitoring
 # counters for performance monitoring.  The base kernel needs to be configured
 # with the 'options' line, while the hwpmc device can be either compiled
 # in or loaded as a loadable kernel module.
 #
 # Additional configuration options may be required on specific architectures,
 # please see hwpmc(4).
 
 device		hwpmc			# Driver (also a loadable module)
 options 	HWPMC_DEBUG
 options 	HWPMC_HOOKS		# Other necessary kernel hooks
 
 
 #####################################################################
 # NETWORKING OPTIONS
 
 #
 # Protocol families
 #
 options 	INET			#Internet communications protocols
 options 	INET6			#IPv6 communications protocols
 
 options 	ROUTETABLES=2		# allocated fibs up to 65536. default is 1.
 					# but that would be a bad idea as they are large.
 
 options 	TCP_OFFLOAD		# TCP offload support.
 
 # In order to enable IPSEC you MUST also add device crypto to 
 # your kernel configuration
 options 	IPSEC			#IP security (requires device crypto)
 #options 	IPSEC_DEBUG		#debug for IP security
 #
 # Set IPSEC_NAT_T to enable NAT-Traversal support.  This enables
 # optional UDP encapsulation of ESP packets.
 #
 options		IPSEC_NAT_T		#NAT-T support, UDP encap of ESP
 
 #
 # SMB/CIFS requester
 # NETSMB enables support for SMB protocol, it requires LIBMCHAIN and LIBICONV
 # options.
 options 	NETSMB			#SMB/CIFS requester
 
 # mchain library. It can be either loaded as KLD or compiled into kernel
 options 	LIBMCHAIN
 
 # libalias library, performing NAT
 options 	LIBALIAS
 
 # flowtable cache
 options 	FLOWTABLE
 
 #
 # SCTP is a NEW transport protocol defined by
 # RFC2960 updated by RFC3309 and RFC3758.. and
 # soon to have a new base RFC and many many more
 # extensions. This release supports all the extensions
 # including many drafts (most about to become RFC's).
 # It is the reference implementation of SCTP
 # and is quite well tested.
 #
 # Note YOU MUST have both INET and INET6 defined.
 # You don't have to enable V6, but SCTP is 
 # dual stacked and so far we have not torn apart
 # the V6 and V4.. since an association can span
 # both a V6 and V4 address at the SAME time :-)
 #
 options 	SCTP
 # There are bunches of options:
 # this one turns on all sorts of
 # nastily printing that you can
 # do. It's all controlled by a
 # bit mask (settable by socket opt and
 # by sysctl). Including will not cause
 # logging until you set the bits.. but it
 # can be quite verbose.. so without this
 # option we don't do any of the tests for
 # bits and prints.. which makes the code run
 # faster.. if you are not debugging don't use.
 options 	SCTP_DEBUG
 #
 # This option turns off the CRC32c checksum. Basically,
 # you will not be able to talk to anyone else who
 # has not done this. Its more for experimentation to
 # see how much CPU the CRC32c really takes. Most new
 # cards for TCP support checksum offload.. so this 
 # option gives you a "view" into what SCTP would be
 # like with such an offload (which only exists in
 # high in iSCSI boards so far). With the new
 # splitting 8's algorithm its not as bad as it used
 # to be.. but it does speed things up try only
 # for in a captured lab environment :-)
 options 	SCTP_WITH_NO_CSUM
 #
 
 #
 # All that options after that turn on specific types of
 # logging. You can monitor CWND growth, flight size
 # and all sorts of things. Go look at the code and
 # see. I have used this to produce interesting 
 # charts and graphs as well :->
 # 
 # I have not yet committed the tools to get and print
 # the logs, I will do that eventually .. before then
 # if you want them send me an email rrs@freebsd.org
 # You basically must have ktr(4) enabled for these
 # and you then set the sysctl to turn on/off various
 # logging bits. Use ktrdump(8) to pull the log and run
 # it through a display program.. and graphs and other
 # things too.
 #
 options 	SCTP_LOCK_LOGGING
 options 	SCTP_MBUF_LOGGING
 options 	SCTP_MBCNT_LOGGING
 options 	SCTP_PACKET_LOGGING
 options 	SCTP_LTRACE_CHUNKS
 options 	SCTP_LTRACE_ERRORS
 
 
 # altq(9). Enable the base part of the hooks with the ALTQ option.
 # Individual disciplines must be built into the base system and can not be
 # loaded as modules at this point. ALTQ requires a stable TSC so if yours is
 # broken or changes with CPU throttling then you must also have the ALTQ_NOPCC
 # option.
 options 	ALTQ
 options 	ALTQ_CBQ	# Class Based Queueing
 options 	ALTQ_RED	# Random Early Detection
 options 	ALTQ_RIO	# RED In/Out
 options 	ALTQ_CODEL	# CoDel Active Queueing
 options 	ALTQ_HFSC	# Hierarchical Packet Scheduler
 options 	ALTQ_FAIRQ	# Fair Packet Scheduler
 options 	ALTQ_CDNR	# Traffic conditioner
 options 	ALTQ_PRIQ	# Priority Queueing
 options 	ALTQ_NOPCC	# Required if the TSC is unusable
 options 	ALTQ_DEBUG
 
 # netgraph(4). Enable the base netgraph code with the NETGRAPH option.
 # Individual node types can be enabled with the corresponding option
 # listed below; however, this is not strictly necessary as netgraph
 # will automatically load the corresponding KLD module if the node type
 # is not already compiled into the kernel. Each type below has a
 # corresponding man page, e.g., ng_async(8).
 options 	NETGRAPH		# netgraph(4) system
 options 	NETGRAPH_DEBUG		# enable extra debugging, this
 					# affects netgraph(4) and nodes
 # Node types
 options 	NETGRAPH_ASYNC
 options 	NETGRAPH_ATMLLC
 options 	NETGRAPH_ATM_ATMPIF
 options 	NETGRAPH_BLUETOOTH		# ng_bluetooth(4)
 options 	NETGRAPH_BLUETOOTH_BT3C		# ng_bt3c(4)
 options 	NETGRAPH_BLUETOOTH_HCI		# ng_hci(4)
 options 	NETGRAPH_BLUETOOTH_L2CAP	# ng_l2cap(4)
 options 	NETGRAPH_BLUETOOTH_SOCKET	# ng_btsocket(4)
 options 	NETGRAPH_BLUETOOTH_UBT		# ng_ubt(4)
 options 	NETGRAPH_BLUETOOTH_UBTBCMFW	# ubtbcmfw(4)
 options 	NETGRAPH_BPF
 options 	NETGRAPH_BRIDGE
 options 	NETGRAPH_CAR
 options 	NETGRAPH_CISCO
 options 	NETGRAPH_DEFLATE
 options 	NETGRAPH_DEVICE
 options 	NETGRAPH_ECHO
 options 	NETGRAPH_EIFACE
 options 	NETGRAPH_ETHER
 options 	NETGRAPH_FRAME_RELAY
 options 	NETGRAPH_GIF
 options 	NETGRAPH_GIF_DEMUX
 options 	NETGRAPH_HOLE
 options 	NETGRAPH_IFACE
 options 	NETGRAPH_IP_INPUT
 options 	NETGRAPH_IPFW
 options 	NETGRAPH_KSOCKET
 options 	NETGRAPH_L2TP
 options 	NETGRAPH_LMI
 # MPPC compression requires proprietary files (not included)
 #options 	NETGRAPH_MPPC_COMPRESSION
 options 	NETGRAPH_MPPC_ENCRYPTION
 options 	NETGRAPH_NETFLOW
 options 	NETGRAPH_NAT
 options 	NETGRAPH_ONE2MANY
 options 	NETGRAPH_PATCH
 options 	NETGRAPH_PIPE
 options 	NETGRAPH_PPP
 options 	NETGRAPH_PPPOE
 options 	NETGRAPH_PPTPGRE
 options 	NETGRAPH_PRED1
 options 	NETGRAPH_RFC1490
 options 	NETGRAPH_SOCKET
 options 	NETGRAPH_SPLIT
 options 	NETGRAPH_SPPP
 options 	NETGRAPH_TAG
 options 	NETGRAPH_TCPMSS
 options 	NETGRAPH_TEE
 options 	NETGRAPH_UI
 options 	NETGRAPH_VJC
 options 	NETGRAPH_VLAN
 
 # NgATM - Netgraph ATM
 options 	NGATM_ATM
 options 	NGATM_ATMBASE
 options 	NGATM_SSCOP
 options 	NGATM_SSCFU
 options 	NGATM_UNI
 options 	NGATM_CCATM
 
 device		mn	# Munich32x/Falc54 Nx64kbit/sec cards.
 
 # Network stack virtualization.
 #options	VIMAGE
 #options	VNET_DEBUG	# debug for VIMAGE
 
 #
 # Network interfaces:
 #  The `loop' device is MANDATORY when networking is enabled.
 device		loop
 
 #  The `ether' device provides generic code to handle
 #  Ethernets; it is MANDATORY when an Ethernet device driver is
 #  configured or token-ring is enabled.
 device		ether
 
 #  The `vlan' device implements the VLAN tagging of Ethernet frames
 #  according to IEEE 802.1Q.
 device		vlan
 
 # The `vxlan' device implements the VXLAN encapsulation of Ethernet
 # frames in UDP packets according to RFC7348.
 device		vxlan
 
 #  The `wlan' device provides generic code to support 802.11
 #  drivers, including host AP mode; it is MANDATORY for the wi,
 #  and ath drivers and will eventually be required by all 802.11 drivers.
 device		wlan
 options 	IEEE80211_DEBUG		#enable debugging msgs
 options 	IEEE80211_AMPDU_AGE	#age frames in AMPDU reorder q's
 options 	IEEE80211_SUPPORT_MESH	#enable 802.11s D3.0 support
 options 	IEEE80211_SUPPORT_TDMA	#enable TDMA support
 
 #  The `wlan_wep', `wlan_tkip', and `wlan_ccmp' devices provide
 #  support for WEP, TKIP, and AES-CCMP crypto protocols optionally
 #  used with 802.11 devices that depend on the `wlan' module.
 device		wlan_wep
 device		wlan_ccmp
 device		wlan_tkip
 
 #  The `wlan_xauth' device provides support for external (i.e. user-mode)
 #  authenticators for use with 802.11 drivers that use the `wlan'
 #  module and support 802.1x and/or WPA security protocols.
 device		wlan_xauth
 
 #  The `wlan_acl' device provides a MAC-based access control mechanism
 #  for use with 802.11 drivers operating in ap mode and using the
 #  `wlan' module.
 #  The 'wlan_amrr' device provides AMRR transmit rate control algorithm
 device		wlan_acl
 device		wlan_amrr
 
 # Generic TokenRing
 device		token
 
 #  The `fddi' device provides generic code to support FDDI.
 device		fddi
 
 #  The `arcnet' device provides generic code to support Arcnet.
 device		arcnet
 
 #  The `sppp' device serves a similar role for certain types
 #  of synchronous PPP links (like `cx', `ar').
 device		sppp
 
 #  The `bpf' device enables the Berkeley Packet Filter.  Be
 #  aware of the legal and administrative consequences of enabling this
 #  option.  DHCP requires bpf.
 device		bpf
 
 #  The `netmap' device implements memory-mapped access to network
 #  devices from userspace, enabling wire-speed packet capture and
 #  generation even at 10Gbit/s. Requires support in the device
 #  driver. Supported drivers are ixgbe, e1000, re.
 device		netmap
 
 #  The `disc' device implements a minimal network interface,
 #  which throws away all packets sent and never receives any.  It is
 #  included for testing and benchmarking purposes.
 device		disc
 
 # The `epair' device implements a virtual back-to-back connected Ethernet
 # like interface pair.
 device		epair
 
 #  The `edsc' device implements a minimal Ethernet interface,
 #  which discards all packets sent and receives none.
 device		edsc
 
 #  The `tap' device is a pty-like virtual Ethernet interface
 device		tap
 
 #  The `tun' device implements (user-)ppp and nos-tun(8)
 device		tun
 
 #  The `gif' device implements IPv6 over IP4 tunneling,
 #  IPv4 over IPv6 tunneling, IPv4 over IPv4 tunneling and
 #  IPv6 over IPv6 tunneling.
 #  The `gre' device implements GRE (Generic Routing Encapsulation) tunneling,
 #  as specified in the RFC 2784 and RFC 2890.
 #  The `me' device implements Minimal Encapsulation within IPv4 as
 #  specified in the RFC 2004.
 #  The XBONEHACK option allows the same pair of addresses to be configured on
 #  multiple gif interfaces.
 device		gif
 device		gre
 device		me
 options 	XBONEHACK
 
 #  The `stf' device implements 6to4 encapsulation.
 device		stf
 
 # The pf packet filter consists of three devices:
 #  The `pf' device provides /dev/pf and the firewall code itself.
 #  The `pflog' device provides the pflog0 interface which logs packets.
 #  The `pfsync' device provides the pfsync0 interface used for
 #   synchronization of firewall state tables (over the net).
 device		pf
 device		pflog
 device		pfsync
 
 # Bridge interface.
 device		if_bridge
 
 # Common Address Redundancy Protocol. See carp(4) for more details.
 device		carp
 
 # IPsec interface.
 device		enc
 
 # Link aggregation interface.
 device		lagg
 
 #
 # Internet family options:
 #
 # MROUTING enables the kernel multicast packet forwarder, which works
 # with mrouted and XORP.
 #
 # IPFIREWALL enables support for IP firewall construction, in
 # conjunction with the `ipfw' program.  IPFIREWALL_VERBOSE sends
 # logged packets to the system logger.  IPFIREWALL_VERBOSE_LIMIT
 # limits the number of times a matching entry can be logged.
 #
 # WARNING:  IPFIREWALL defaults to a policy of "deny ip from any to any"
 # and if you do not add other rules during startup to allow access,
 # YOU WILL LOCK YOURSELF OUT.  It is suggested that you set firewall_type=open
 # in /etc/rc.conf when first enabling this feature, then refining the
 # firewall rules in /etc/rc.firewall after you've tested that the new kernel
 # feature works properly.
 #
 # IPFIREWALL_DEFAULT_TO_ACCEPT causes the default rule (at boot) to
 # allow everything.  Use with care, if a cracker can crash your
 # firewall machine, they can get to your protected machines.  However,
 # if you are using it as an as-needed filter for specific problems as
 # they arise, then this may be for you.  Changing the default to 'allow'
 # means that you won't get stuck if the kernel and /sbin/ipfw binary get
 # out of sync.
 #
 # IPDIVERT enables the divert IP sockets, used by ``ipfw divert''.  It
 # depends on IPFIREWALL if compiled into the kernel.
 #
 # IPFIREWALL_NAT adds support for in kernel nat in ipfw, and it requires
 # LIBALIAS.
 #
 # IPFIREWALL_NAT64 adds support for in kernel NAT64 in ipfw.
 #
 # IPFIREWALL_NPTV6 adds support for in kernel NPTv6 in ipfw.
 #
 # IPSTEALTH enables code to support stealth forwarding (i.e., forwarding
 # packets without touching the TTL).  This can be useful to hide firewalls
 # from traceroute and similar tools.
 #
 # PF_DEFAULT_TO_DROP causes the default pf(4) rule to deny everything.
 #
 # TCPDEBUG enables code which keeps traces of the TCP state machine
 # for sockets with the SO_DEBUG option set, which can then be examined
 # using the trpt(8) utility.
 #
 # TCPPCAP enables code which keeps the last n packets sent and received
 # on a TCP socket.
 #
 # TCP_HHOOK enables the hhook(9) framework hooks for the TCP stack.
 #
 # RADIX_MPATH provides support for equal-cost multi-path routing.
 #
 options 	MROUTING		# Multicast routing
 options 	IPFIREWALL		#firewall
 options 	IPFIREWALL_VERBOSE	#enable logging to syslogd(8)
 options 	IPFIREWALL_VERBOSE_LIMIT=100	#limit verbosity
 options 	IPFIREWALL_DEFAULT_TO_ACCEPT	#allow everything by default
 options 	IPFIREWALL_NAT		#ipfw kernel nat support
 options 	IPFIREWALL_NAT64	#ipfw kernel NAT64 support
 options 	IPFIREWALL_NPTV6	#ipfw kernel IPv6 NPT support
 options 	IPDIVERT		#divert sockets
 options 	IPFILTER		#ipfilter support
 options 	IPFILTER_LOG		#ipfilter logging
 options 	IPFILTER_LOOKUP		#ipfilter pools
 options 	IPFILTER_DEFAULT_BLOCK	#block all packets by default
 options 	IPSTEALTH		#support for stealth forwarding
 options 	PF_DEFAULT_TO_DROP	#drop everything by default
 options 	TCPDEBUG
 options 	TCPPCAP
 options 	TCP_HHOOK
 options 	RADIX_MPATH
 
 # The MBUF_STRESS_TEST option enables options which create
 # various random failures / extreme cases related to mbuf
 # functions.  See mbuf(9) for a list of available test cases.
 # MBUF_PROFILING enables code to profile the mbuf chains
 # exiting the system (via participating interfaces) and
 # return a logarithmic histogram of monitored parameters
 # (e.g. packet size, wasted space, number of mbufs in chain).
 options 	MBUF_STRESS_TEST
 options 	MBUF_PROFILING
 
 # Statically link in accept filters
 options 	ACCEPT_FILTER_DATA
 options 	ACCEPT_FILTER_DNS
 options 	ACCEPT_FILTER_HTTP
 
 # TCP_SIGNATURE adds support for RFC 2385 (TCP-MD5) digests. These are
 # carried in TCP option 19. This option is commonly used to protect
 # TCP sessions (e.g. BGP) where IPSEC is not available nor desirable.
 # This is enabled on a per-socket basis using the TCP_MD5SIG socket option.
 # This requires the use of 'device crypto' and 'options IPSEC'.
 options 	TCP_SIGNATURE		#include support for RFC 2385
 
 # DUMMYNET enables the "dummynet" bandwidth limiter.  You need IPFIREWALL
 # as well.  See dummynet(4) and ipfw(8) for more info.  When you run
 # DUMMYNET it is advisable to also have at least "options HZ=1000" to achieve
 # a smooth scheduling of the traffic.
 options 	DUMMYNET
 
 #####################################################################
 # FILESYSTEM OPTIONS
 
 #
 # Only the root filesystem needs to be statically compiled or preloaded
 # as module; everything else will be automatically loaded at mount
 # time.  Some people still prefer to statically compile other
 # filesystems as well.
 #
 # NB: The UNION filesystem was known to be buggy in the past.  It is now
 # being actively maintained, although there are still some issues being
 # resolved.
 #
 
 # One of these is mandatory:
 options 	FFS			#Fast filesystem
 options 	NFSCL			#Network File System client
 
 # The rest are optional:
 options 	AUTOFS			#Automounter filesystem
 options 	CD9660			#ISO 9660 filesystem
 options 	FDESCFS			#File descriptor filesystem
 options 	FUSE			#FUSE support module
 options 	MSDOSFS			#MS DOS File System (FAT, FAT32)
 options 	NFSLOCKD		#Network Lock Manager
 options 	NFSD			#Network Filesystem Server
 options 	KGSSAPI			#Kernel GSSAPI implementation
 
 options 	NULLFS			#NULL filesystem
 options 	PROCFS			#Process filesystem (requires PSEUDOFS)
 options 	PSEUDOFS		#Pseudo-filesystem framework
 options 	PSEUDOFS_TRACE		#Debugging support for PSEUDOFS
 options 	SMBFS			#SMB/CIFS filesystem
 options 	TMPFS			#Efficient memory filesystem
 options 	UDF			#Universal Disk Format
 options 	UNIONFS			#Union filesystem
 # The xFS_ROOT options REQUIRE the associated ``options xFS''
 options 	NFS_ROOT		#NFS usable as root device
 
 # Soft updates is a technique for improving filesystem speed and
 # making abrupt shutdown less risky.
 #
 options 	SOFTUPDATES
 
 # Extended attributes allow additional data to be associated with files,
 # and is used for ACLs, Capabilities, and MAC labels.
 # See src/sys/ufs/ufs/README.extattr for more information.
 options 	UFS_EXTATTR
 options 	UFS_EXTATTR_AUTOSTART
 
 # Access Control List support for UFS filesystems.  The current ACL
 # implementation requires extended attribute support, UFS_EXTATTR,
 # for the underlying filesystem.
 # See src/sys/ufs/ufs/README.acls for more information.
 options 	UFS_ACL
 
 # Directory hashing improves the speed of operations on very large
 # directories at the expense of some memory.
 options 	UFS_DIRHASH
 
 # Gjournal-based UFS journaling support.
 options 	UFS_GJOURNAL
 
 # Make space in the kernel for a root filesystem on a md device.
 # Define to the number of kilobytes to reserve for the filesystem.
 # This is now optional.
 # If not defined, the root filesystem passed in as the MFS_IMAGE makeoption
 # will be automatically embedded in the kernel during linking. Its exact size
 # will be consumed within the kernel.
 # If defined, the old way of embedding the filesystem in the kernel will be
 # used. That is to say MD_ROOT_SIZE KB will be allocated in the kernel and
 # later, the filesystem image passed in as the MFS_IMAGE makeoption will be
 # dd'd into the reserved space if it fits.
 options 	MD_ROOT_SIZE=10
 
 # Make the md device a potential root device, either with preloaded
 # images of type mfs_root or md_root.
 options 	MD_ROOT
 
 # Disk quotas are supported when this option is enabled.
 options 	QUOTA			#enable disk quotas
 
 # If you are running a machine just as a fileserver for PC and MAC
 # users, using SAMBA, you may consider setting this option
 # and keeping all those users' directories on a filesystem that is
 # mounted with the suiddir option. This gives new files the same
 # ownership as the directory (similar to group). It's a security hole
 # if you let these users run programs, so confine it to file-servers
 # (but it'll save you lots of headaches in those cases). Root owned
 # directories are exempt and X bits are cleared. The suid bit must be
 # set on the directory as well; see chmod(1). PC owners can't see/set
 # ownerships so they keep getting their toes trodden on. This saves
 # you all the support calls as the filesystem it's used on will act as
 # they expect: "It's my dir so it must be my file".
 #
 options 	SUIDDIR
 
 # NFS options:
 options 	NFS_MINATTRTIMO=3	# VREG attrib cache timeout in sec
 options 	NFS_MAXATTRTIMO=60
 options 	NFS_MINDIRATTRTIMO=30	# VDIR attrib cache timeout in sec
 options 	NFS_MAXDIRATTRTIMO=60
 options 	NFS_DEBUG		# Enable NFS Debugging
 
 #
 # Add support for the EXT2FS filesystem of Linux fame.  Be a bit
 # careful with this - the ext2fs code has a tendency to lag behind
 # changes and not be exercised very much, so mounting read/write could
 # be dangerous (and even mounting read only could result in panics.)
 #
 options 	EXT2FS
 
 # Cryptographically secure random number generator; /dev/random
 device		random
 
 # The system memory devices; /dev/mem, /dev/kmem
 device		mem
 
 # The kernel symbol table device; /dev/ksyms
 device		ksyms
 
 # Optional character code conversion support with LIBICONV.
 # Each option requires their base file system and LIBICONV.
 options 	CD9660_ICONV
 options 	MSDOSFS_ICONV
 options 	UDF_ICONV
 
 
 #####################################################################
 # POSIX P1003.1B
 
 # Real time extensions added in the 1993 POSIX
 # _KPOSIX_PRIORITY_SCHEDULING: Build in _POSIX_PRIORITY_SCHEDULING
 
 options 	_KPOSIX_PRIORITY_SCHEDULING
 # p1003_1b_semaphores are very experimental,
 # user should be ready to assist in debugging if problems arise.
 options 	P1003_1B_SEMAPHORES
 
 # POSIX message queue
 options 	P1003_1B_MQUEUE
 
 #####################################################################
 # SECURITY POLICY PARAMETERS
 
 # Support for BSM audit
 options 	AUDIT
 
 # Support for Mandatory Access Control (MAC):
 options 	MAC
 options 	MAC_BIBA
 options 	MAC_BSDEXTENDED
 options 	MAC_IFOFF
 options 	MAC_LOMAC
 options 	MAC_MLS
 options 	MAC_NONE
 options 	MAC_PARTITION
 options 	MAC_PORTACL
 options 	MAC_SEEOTHERUIDS
 options 	MAC_STUB
 options 	MAC_TEST
 
 # Support for Capsicum
 options 	CAPABILITIES	# fine-grained rights on file descriptors
 options 	CAPABILITY_MODE	# sandboxes with no global namespace access
 
 
 #####################################################################
 # CLOCK OPTIONS
 
 # The granularity of operation is controlled by the kernel option HZ whose
 # default value (1000 on most architectures) means a granularity of 1ms
 # (1s/HZ).  Historically, the default was 100, but finer granularity is
 # required for DUMMYNET and other systems on modern hardware.  There are
 # reasonable arguments that HZ should, in fact, be 100 still; consider,
 # that reducing the granularity too much might cause excessive overhead in
 # clock interrupt processing, potentially causing ticks to be missed and thus
 # actually reducing the accuracy of operation.
 
 options 	HZ=100
 
 # Enable support for the kernel PLL to use an external PPS signal,
 # under supervision of [x]ntpd(8)
 # More info in ntpd documentation: http://www.eecis.udel.edu/~ntp
 
 options 	PPS_SYNC
 
 # Enable support for generic feed-forward clocks in the kernel.
 # The feed-forward clock support is an alternative to the feedback oriented
 # ntpd/system clock approach, and is to be used with a feed-forward
 # synchronization algorithm such as the RADclock:
 # More info here: http://www.synclab.org/radclock
 
 options 	FFCLOCK
 
 
 #####################################################################
 # SCSI DEVICES
 
 # SCSI DEVICE CONFIGURATION
 
 # The SCSI subsystem consists of the `base' SCSI code, a number of
 # high-level SCSI device `type' drivers, and the low-level host-adapter
 # device drivers.  The host adapters are listed in the ISA and PCI
 # device configuration sections below.
 #
 # It is possible to wire down your SCSI devices so that a given bus,
 # target, and LUN always come on line as the same device unit.  In
 # earlier versions the unit numbers were assigned in the order that
 # the devices were probed on the SCSI bus.  This means that if you
 # removed a disk drive, you may have had to rewrite your /etc/fstab
 # file, and also that you had to be careful when adding a new disk
 # as it may have been probed earlier and moved your device configuration
 # around.  (See also option GEOM_VOL for a different solution to this
 # problem.)
 
 # This old behavior is maintained as the default behavior.  The unit
 # assignment begins with the first non-wired down unit for a device
 # type.  For example, if you wire a disk as "da3" then the first
 # non-wired disk will be assigned da4.
 
 # The syntax for wiring down devices is:
 
 hint.scbus.0.at="ahc0"
 hint.scbus.1.at="ahc1"
 hint.scbus.1.bus="0"
 hint.scbus.3.at="ahc2"
 hint.scbus.3.bus="0"
 hint.scbus.2.at="ahc2"
 hint.scbus.2.bus="1"
 hint.da.0.at="scbus0"
 hint.da.0.target="0"
 hint.da.0.unit="0"
 hint.da.1.at="scbus3"
 hint.da.1.target="1"
 hint.da.2.at="scbus2"
 hint.da.2.target="3"
 hint.sa.1.at="scbus1"
 hint.sa.1.target="6"
 
 # "units" (SCSI logical unit number) that are not specified are
 # treated as if specified as LUN 0.
 
 # All SCSI devices allocate as many units as are required.
 
 # The ch driver drives SCSI Media Changer ("jukebox") devices.
 #
 # The da driver drives SCSI Direct Access ("disk") and Optical Media
 # ("WORM") devices.
 #
 # The sa driver drives SCSI Sequential Access ("tape") devices.
 #
 # The cd driver drives SCSI Read Only Direct Access ("cd") devices.
 #
 # The ses driver drives SCSI Environment Services ("ses") and
 # SAF-TE ("SCSI Accessible Fault-Tolerant Enclosure") devices.
 #
 # The pt driver drives SCSI Processor devices.
 #
 # The sg driver provides a passthrough API that is compatible with the
 # Linux SG driver.  It will work in conjunction with the COMPAT_LINUX
 # option to run linux SG apps.  It can also stand on its own and provide
 # source level API compatibility for porting apps to FreeBSD.
 #
 # Target Mode support is provided here but also requires that a SIM
 # (SCSI Host Adapter Driver) provide support as well.
 #
 # The targ driver provides target mode support as a Processor type device.
 # It exists to give the minimal context necessary to respond to Inquiry
 # commands. There is a sample user application that shows how the rest
 # of the command support might be done in /usr/share/examples/scsi_target.
 #
 # The targbh driver provides target mode support and exists to respond
 # to incoming commands that do not otherwise have a logical unit assigned
 # to them.
 #
 # The pass driver provides a passthrough API to access the CAM subsystem.
 
 device		scbus		#base SCSI code
 device		ch		#SCSI media changers
 device		da		#SCSI direct access devices (aka disks)
 device		sa		#SCSI tapes
 device		cd		#SCSI CD-ROMs
 device		ses		#Enclosure Services (SES and SAF-TE)
 device		pt		#SCSI processor
 device		targ		#SCSI Target Mode Code
 device		targbh		#SCSI Target Mode Blackhole Device
 device		pass		#CAM passthrough driver
 device		sg		#Linux SCSI passthrough
 device		ctl		#CAM Target Layer
 
 # CAM OPTIONS:
 # debugging options:
 # CAMDEBUG		Compile in all possible debugging.
 # CAM_DEBUG_COMPILE	Debug levels to compile in.
 # CAM_DEBUG_FLAGS	Debug levels to enable on boot.
 # CAM_DEBUG_BUS		Limit debugging to the given bus.
 # CAM_DEBUG_TARGET	Limit debugging to the given target.
 # CAM_DEBUG_LUN		Limit debugging to the given lun.
 # CAM_DEBUG_DELAY	Delay in us after printing each debug line.
 #
 # CAM_MAX_HIGHPOWER: Maximum number of concurrent high power (start unit) cmds
 # SCSI_NO_SENSE_STRINGS: When defined disables sense descriptions
 # SCSI_NO_OP_STRINGS: When defined disables opcode descriptions
 # SCSI_DELAY: The number of MILLISECONDS to freeze the SIM (scsi adapter)
 #             queue after a bus reset, and the number of milliseconds to
 #             freeze the device queue after a bus device reset.  This
 #             can be changed at boot and runtime with the
 #             kern.cam.scsi_delay tunable/sysctl.
 options 	CAMDEBUG
 options 	CAM_DEBUG_COMPILE=-1
 options 	CAM_DEBUG_FLAGS=(CAM_DEBUG_INFO|CAM_DEBUG_PROBE|CAM_DEBUG_PERIPH)
 options 	CAM_DEBUG_BUS=-1
 options 	CAM_DEBUG_TARGET=-1
 options 	CAM_DEBUG_LUN=-1
 options 	CAM_DEBUG_DELAY=1
 options 	CAM_MAX_HIGHPOWER=4
 options 	SCSI_NO_SENSE_STRINGS
 options 	SCSI_NO_OP_STRINGS
 options 	SCSI_DELAY=5000	# Be pessimistic about Joe SCSI device
 options 	CAM_IOSCHED_DYNAMIC
 
 # Options for the CAM CDROM driver:
 # CHANGER_MIN_BUSY_SECONDS: Guaranteed minimum time quantum for a changer LUN
 # CHANGER_MAX_BUSY_SECONDS: Maximum time quantum per changer LUN, only
 #                           enforced if there is I/O waiting for another LUN
 # The compiled in defaults for these variables are 2 and 10 seconds,
 # respectively.
 #
 # These can also be changed on the fly with the following sysctl variables:
 # kern.cam.cd.changer.min_busy_seconds
 # kern.cam.cd.changer.max_busy_seconds
 #
 options 	CHANGER_MIN_BUSY_SECONDS=2
 options 	CHANGER_MAX_BUSY_SECONDS=10
 
 # Options for the CAM sequential access driver:
 # SA_IO_TIMEOUT: Timeout for read/write/wfm  operations, in minutes
 # SA_SPACE_TIMEOUT: Timeout for space operations, in minutes
 # SA_REWIND_TIMEOUT: Timeout for rewind operations, in minutes
 # SA_ERASE_TIMEOUT: Timeout for erase operations, in minutes
 # SA_1FM_AT_EOD: Default to model which only has a default one filemark at EOT.
 options 	SA_IO_TIMEOUT=4
 options 	SA_SPACE_TIMEOUT=60
 options 	SA_REWIND_TIMEOUT=(2*60)
 options 	SA_ERASE_TIMEOUT=(4*60)
 options 	SA_1FM_AT_EOD
 
 # Optional timeout for the CAM processor target (pt) device
 # This is specified in seconds.  The default is 60 seconds.
 options 	SCSI_PT_DEFAULT_TIMEOUT=60
 
 # Optional enable of doing SES passthrough on other devices (e.g., disks)
 #
 # Normally disabled because a lot of newer SCSI disks report themselves
 # as having SES capabilities, but this can then clot up attempts to build
 # a topology with the SES device that's on the box these drives are in....
 options 	SES_ENABLE_PASSTHROUGH
 
 
 #####################################################################
 # MISCELLANEOUS DEVICES AND OPTIONS
 
 device		pty		#BSD-style compatibility pseudo ttys
 device		nmdm		#back-to-back tty devices
 device		md		#Memory/malloc disk
 device		snp		#Snoop device - to look at pty/vty/etc..
 device		ccd		#Concatenated disk driver
 device		firmware	#firmware(9) support
 
 # Kernel side iconv library
 options 	LIBICONV
 
 # Size of the kernel message buffer.  Should be N * pagesize.
 options 	MSGBUF_SIZE=40960
 
 
 #####################################################################
 # HARDWARE BUS CONFIGURATION
 
 #
 # PCI bus & PCI options:
 #
 device		pci
 options 	PCI_HP			# PCI-Express native HotPlug
 options 	PCI_IOV			# PCI SR-IOV support
 
 
 #####################################################################
 # HARDWARE DEVICE CONFIGURATION
 
 # For ISA the required hints are listed.
 # EISA, MCA, PCI, CardBus, SD/MMC and pccard are self identifying buses, so
 # no hints are needed.
 
 #
 # Mandatory devices:
 #
 
 # These options are valid for other keyboard drivers as well.
 options 	KBD_DISABLE_KEYMAP_LOAD	# refuse to load a keymap
 options 	KBD_INSTALL_CDEV	# install a CDEV entry in /dev
 
 device		kbdmux			# keyboard multiplexer
 options		KBDMUX_DFLT_KEYMAP	# specify the built-in keymap
 makeoptions	KBDMUX_DFLT_KEYMAP=it.iso
 
 options 	FB_DEBUG		# Frame buffer debugging
 
 device		splash			# Splash screen and screen saver support
 
 # Various screen savers.
 device		blank_saver
 device		daemon_saver
 device		dragon_saver
 device		fade_saver
 device		fire_saver
 device		green_saver
 device		logo_saver
 device		rain_saver
 device		snake_saver
 device		star_saver
 device		warp_saver
 
 # The syscons console driver (SCO color console compatible).
 device		sc
 hint.sc.0.at="isa"
 options 	MAXCONS=16		# number of virtual consoles
 options 	SC_ALT_MOUSE_IMAGE	# simplified mouse cursor in text mode
 options 	SC_DFLT_FONT		# compile font in
 makeoptions	SC_DFLT_FONT=cp850
 options 	SC_DISABLE_KDBKEY	# disable `debug' key
 options 	SC_DISABLE_REBOOT	# disable reboot key sequence
 options 	SC_HISTORY_SIZE=200	# number of history buffer lines
 options 	SC_MOUSE_CHAR=0x3	# char code for text mode mouse cursor
 options 	SC_PIXEL_MODE		# add support for the raster text mode
 
 # The following options will let you change the default colors of syscons.
 options 	SC_NORM_ATTR=(FG_GREEN|BG_BLACK)
 options 	SC_NORM_REV_ATTR=(FG_YELLOW|BG_GREEN)
 options 	SC_KERNEL_CONS_ATTR=(FG_RED|BG_BLACK)
 options 	SC_KERNEL_CONS_REV_ATTR=(FG_BLACK|BG_RED)
 
 # The following options will let you change the default behavior of
 # cut-n-paste feature
 options 	SC_CUT_SPACES2TABS	# convert leading spaces into tabs
 options 	SC_CUT_SEPCHARS=\"x09\"	# set of characters that delimit words
 					# (default is single space - \"x20\")
 
 # If you have a two button mouse, you may want to add the following option
 # to use the right button of the mouse to paste text.
 options 	SC_TWOBUTTON_MOUSE
 
 # You can selectively disable features in syscons.
 options 	SC_NO_CUTPASTE
 options 	SC_NO_FONT_LOADING
 options 	SC_NO_HISTORY
 options 	SC_NO_MODE_CHANGE
 options 	SC_NO_SYSMOUSE
 options 	SC_NO_SUSPEND_VTYSWITCH
 
 # `flags' for sc
 #	0x80	Put the video card in the VESA 800x600 dots, 16 color mode
 #	0x100	Probe for a keyboard device periodically if one is not present
 
 # Enable experimental features of the syscons terminal emulator (teken).
 options 	TEKEN_CONS25		# cons25-style terminal emulation
 options 	TEKEN_UTF8		# UTF-8 output handling
 
 # The vt video console driver.
 device		vt
 options		VT_ALT_TO_ESC_HACK=1	# Prepend ESC sequence to ALT keys
 options		VT_MAXWINDOWS=16	# Number of virtual consoles
 options		VT_TWOBUTTON_MOUSE	# Use right mouse button to paste
 
 # The following options set the default framebuffer size.
 options		VT_FB_DEFAULT_HEIGHT=480
 options		VT_FB_DEFAULT_WIDTH=640
 
 # The following options will let you change the default vt terminal colors.
 options		TERMINAL_NORM_ATTR=(FG_GREEN|BG_BLACK)
 options		TERMINAL_KERN_ATTR=(FG_LIGHTRED|BG_BLACK)
 
 #
 # Optional devices:
 #
 
 #
 # SCSI host adapters:
 #
 # adv: All Narrow SCSI bus AdvanSys controllers.
 # adw: Second Generation AdvanSys controllers including the ADV940UW.
 # aha: Adaptec 154x/1535/1640
 # ahb: Adaptec 174x EISA controllers
 # ahc: Adaptec 274x/284x/2910/293x/294x/394x/3950x/3960x/398X/4944/
 #      19160x/29160x, aic7770/aic78xx
 # ahd: Adaptec 29320/39320 Controllers.
 # aic: Adaptec 6260/6360, APA-1460 (PC Card), NEC PC9801-100 (C-BUS)
 # bt:  Most Buslogic controllers: including BT-445, BT-54x, BT-64x, BT-74x,
 #      BT-75x, BT-946, BT-948, BT-956, BT-958, SDC3211B, SDC3211F, SDC3222F
 # esp: Emulex ESP, NCR 53C9x and QLogic FAS families based controllers
 #      including the AMD Am53C974 (found on devices such as the Tekram
 #      DC-390(T)) and the Sun ESP and FAS families of controllers
 # isp: Qlogic ISP 1020, 1040 and 1040B PCI SCSI host adapters,
 #      ISP 1240 Dual Ultra SCSI, ISP 1080 and 1280 (Dual) Ultra2,
 #      ISP 12160 Ultra3 SCSI,
 #      Qlogic ISP 2100 and ISP 2200 1Gb Fibre Channel host adapters.
 #      Qlogic ISP 2300 and ISP 2312 2Gb Fibre Channel host adapters.
 #      Qlogic ISP 2322 and ISP 6322 2Gb Fibre Channel host adapters.
 # ispfw: Firmware module for Qlogic host adapters
 # mpt: LSI-Logic MPT/Fusion 53c1020 or 53c1030 Ultra4
 #      or FC9x9 Fibre Channel host adapters.
 # ncr: NCR 53C810, 53C825 self-contained SCSI host adapters.
 # sym: Symbios/Logic 53C8XX family of PCI-SCSI I/O processors:
 #      53C810, 53C810A, 53C815, 53C825,  53C825A, 53C860, 53C875,
 #      53C876, 53C885,  53C895, 53C895A, 53C896,  53C897, 53C1510D,
 #      53C1010-33, 53C1010-66.
 # trm: Tekram DC395U/UW/F DC315U adapters.
 
 #
 # Note that the order is important in order for Buslogic ISA/EISA cards to be
 # probed correctly.
 #
 device		bt
 hint.bt.0.at="isa"
 hint.bt.0.port="0x330"
 device		adv
 hint.adv.0.at="isa"
 device		adw
 device		aha
 hint.aha.0.at="isa"
 device		aic
 hint.aic.0.at="isa"
 device		ahb
 device		ahc
 device		ahd
 device		esp
 device		iscsi_initiator
 device		isp
 hint.isp.0.disable="1"
 hint.isp.0.role="3"
 hint.isp.0.prefer_iomap="1"
 hint.isp.0.prefer_memmap="1"
 hint.isp.0.fwload_disable="1"
 hint.isp.0.ignore_nvram="1"
 hint.isp.0.fullduplex="1"
 hint.isp.0.topology="lport"
 hint.isp.0.topology="nport"
 hint.isp.0.topology="lport-only"
 hint.isp.0.topology="nport-only"
 # we can't get u_int64_t types, nor can we get strings if it's got
 # a leading 0x, hence this silly dodge.
 hint.isp.0.portwnn="w50000000aaaa0000"
 hint.isp.0.nodewnn="w50000000aaaa0001"
 device		ispfw
 device		mpt
 device		ncr
 device		sym
 device		trm
 
 # The aic7xxx driver will attempt to use memory mapped I/O for all PCI
 # controllers that have it configured only if this option is set. Unfortunately,
 # this doesn't work on some motherboards, which prevents it from being the
 # default.
 options 	AHC_ALLOW_MEMIO
 
 # Dump the contents of the ahc controller configuration PROM.
 options 	AHC_DUMP_EEPROM
 
 # Bitmap of units to enable targetmode operations.
 options 	AHC_TMODE_ENABLE
 
 # Compile in Aic7xxx Debugging code.
 options 	AHC_DEBUG
 
 # Aic7xxx driver debugging options. See sys/dev/aic7xxx/aic7xxx.h
 options 	AHC_DEBUG_OPTS
 
 # Print register bitfields in debug output.  Adds ~128k to driver
 # See ahc(4).
 options 	AHC_REG_PRETTY_PRINT
 
 # Compile in aic79xx debugging code.
 options 	AHD_DEBUG
 
 # Aic79xx driver debugging options.  Adds ~215k to driver.  See ahd(4).
 options 	AHD_DEBUG_OPTS=0xFFFFFFFF
 
 # Print human-readable register definitions when debugging
 options 	AHD_REG_PRETTY_PRINT
 
 # Bitmap of units to enable targetmode operations.
 options 	AHD_TMODE_ENABLE
 
 # The adw driver will attempt to use memory mapped I/O for all PCI
 # controllers that have it configured only if this option is set.
 options 	ADW_ALLOW_MEMIO
 
 # Options used in dev/iscsi (Software iSCSI stack)
 #
 options 	ISCSI_INITIATOR_DEBUG=9
 
 # Options used in dev/isp/ (Qlogic SCSI/FC driver).
 #
 #	ISP_TARGET_MODE		-	enable target mode operation
 #
 options 	ISP_TARGET_MODE=1
 #
 #	ISP_DEFAULT_ROLES	-	default role
 #		none=0
 #		target=1
 #		initiator=2
 #		both=3			(not supported currently)
 #
 #	ISP_INTERNAL_TARGET		(trivial internal disk target, for testing)
 #
 options 	ISP_DEFAULT_ROLES=0
 
 # Options used in dev/sym/ (Symbios SCSI driver).
 #options 	SYM_SETUP_LP_PROBE_MAP	#-Low Priority Probe Map (bits)
 					# Allows the ncr to take precedence
 					# 1 (1<<0) -> 810a, 860
 					# 2 (1<<1) -> 825a, 875, 885, 895
 					# 4 (1<<2) -> 895a, 896, 1510d
 #options 	SYM_SETUP_SCSI_DIFF	#-HVD support for 825a, 875, 885
 					# disabled:0 (default), enabled:1
 #options 	SYM_SETUP_PCI_PARITY	#-PCI parity checking
 					# disabled:0, enabled:1 (default)
 #options 	SYM_SETUP_MAX_LUN	#-Number of LUNs supported
 					# default:8, range:[1..64]
 
 # The 'dpt' driver provides support for old DPT controllers (http://www.dpt.com/).
 # These have hardware RAID-{0,1,5} support, and do multi-initiator I/O.
 # The DPT controllers are commonly re-licensed under other brand-names -
 # some controllers by Olivetti, Dec, HP, AT&T, SNI, AST, Alphatronic, NEC and
 # Compaq are actually DPT controllers.
 #
 # See src/sys/dev/dpt for debugging and other subtle options.
 #  DPT_MEASURE_PERFORMANCE  Enables a set of (semi)invasive metrics. Various
 #                           instruments are enabled.  The tools in
 #                           /usr/sbin/dpt_* assume these to be enabled.
 #  DPT_DEBUG_xxxx           These are controllable from sys/dev/dpt/dpt.h
 #  DPT_RESET_HBA            Make "reset" actually reset the controller
 #                           instead of fudging it.  Only enable this if you
 #			    are 100% certain you need it.
 
 device		dpt
 
 # DPT options
 #!CAM# options 	DPT_MEASURE_PERFORMANCE
 options 	DPT_RESET_HBA
 
 #
 # Compaq "CISS" RAID controllers (SmartRAID 5* series)
 # These controllers have a SCSI-like interface, and require the
 # CAM infrastructure.
 #
 device		ciss
 
 #
 # Intel Integrated RAID controllers.
 # This driver was developed and is maintained by Intel.  Contacts
 # at Intel for this driver are
 # "Kannanthanam, Boji T" <boji.t.kannanthanam@intel.com> and
 # "Leubner, Achim" <achim.leubner@intel.com>.
 #
 device		iir
 
 #
 # Mylex AcceleRAID and eXtremeRAID controllers with v6 and later
 # firmware.  These controllers have a SCSI-like interface, and require
 # the CAM infrastructure.
 #
 device		mly
 
 #
 # Compaq Smart RAID, Mylex DAC960 and AMI MegaRAID controllers.  Only
 # one entry is needed; the code will find and configure all supported
 # controllers.
 #
 device		ida		# Compaq Smart RAID
 device		mlx		# Mylex DAC960
 device		amr		# AMI MegaRAID
 device		amrp		# SCSI Passthrough interface (optional, CAM req.)
 device		mfi		# LSI MegaRAID SAS
 device		mfip		# LSI MegaRAID SAS passthrough, requires CAM
 options 	MFI_DEBUG
 device		mrsas		# LSI/Avago MegaRAID SAS/SATA, 6Gb/s and 12Gb/s
 
 #
 # 3ware ATA RAID
 #
 device		twe		# 3ware ATA RAID
 
 #
 # Serial ATA host controllers:
 #
 # ahci: Advanced Host Controller Interface (AHCI) compatible
 # mvs:  Marvell 88SX50XX/88SX60XX/88SX70XX/SoC controllers
 # siis: SiliconImage SiI3124/SiI3132/SiI3531 controllers
 #
 # These drivers are part of cam(4) subsystem. They supersede less featured
 # ata(4) subsystem drivers, supporting same hardware.
 
 device		ahci
 device		mvs
 device		siis
 
 #
 # The 'ATA' driver supports all legacy ATA/ATAPI controllers, including
 # PC Card devices. You only need one "device ata" for it to find all
 # PCI and PC Card ATA/ATAPI devices on modern machines.
 # Alternatively, individual bus and chipset drivers may be chosen by using
 # the 'atacore' driver then selecting the drivers on a per vendor basis.
 # For example to build a system which only supports a VIA chipset,
 # omit 'ata' and include the 'atacore', 'atapci' and 'atavia' drivers.
 device		ata
 
 # Modular ATA
 #device		atacore		# Core ATA functionality
 #device		atacard		# CARDBUS support
 #device		atabus		# PC98 cbus support
 #device		ataisa		# ISA bus support
 #device		atapci		# PCI bus support; only generic chipset support
 
 # PCI ATA chipsets
 #device		ataacard	# ACARD
 #device		ataacerlabs	# Acer Labs Inc. (ALI)
 #device		ataamd		# American Micro Devices (AMD)
 #device		ataati		# ATI
 #device		atacenatek	# Cenatek
 #device		atacypress	# Cypress
 #device		atacyrix	# Cyrix
 #device		atahighpoint	# HighPoint
 #device		ataintel	# Intel
 #device		ataite		# Integrated Technology Inc. (ITE)
 #device		atajmicron	# JMicron
 #device		atamarvell	# Marvell
 #device		atamicron	# Micron
 #device		atanational	# National
 #device		atanetcell	# NetCell
 #device		atanvidia	# nVidia
 #device		atapromise	# Promise
 #device		ataserverworks	# ServerWorks
 #device		atasiliconimage	# Silicon Image Inc. (SiI) (formerly CMD)
 #device		atasis		# Silicon Integrated Systems Corp.(SiS)
 #device		atavia		# VIA Technologies Inc.
 
 #
 # For older non-PCI, non-PnPBIOS systems, these are the hints lines to add:
 hint.ata.0.at="isa"
 hint.ata.0.port="0x1f0"
 hint.ata.0.irq="14"
 hint.ata.1.at="isa"
 hint.ata.1.port="0x170"
 hint.ata.1.irq="15"
 
 #
 # The following options are valid on the ATA driver:
 #
 # ATA_REQUEST_TIMEOUT:	the number of seconds to wait for an ATA request
 #			before timing out.
 
 #options 	ATA_REQUEST_TIMEOUT=10
 
 #
 # Standard floppy disk controllers and floppy tapes, supports
 # the Y-E DATA External FDD (PC Card)
 #
 device		fdc
 hint.fdc.0.at="isa"
 hint.fdc.0.port="0x3F0"
 hint.fdc.0.irq="6"
 hint.fdc.0.drq="2"
 #
 # FDC_DEBUG enables floppy debugging.  Since the debug output is huge, you
 # gotta turn it actually on by setting the variable fd_debug with DDB,
 # however.
 options 	FDC_DEBUG
 #
 # Activate this line if you happen to have an Insight floppy tape.
 # Probing them proved to be dangerous for people with floppy disks only,
 # so it's "hidden" behind a flag:
 #hint.fdc.0.flags="1"
 
 # Specify floppy devices
 hint.fd.0.at="fdc0"
 hint.fd.0.drive="0"
 hint.fd.1.at="fdc0"
 hint.fd.1.drive="1"
 
 #
 # uart: newbusified driver for serial interfaces.  It consolidates the sio(4),
 #	sab(4) and zs(4) drivers.
 #
 device		uart
 
 # Options for uart(4)
 options 	UART_PPS_ON_CTS		# Do time pulse capturing using CTS
 					# instead of DCD.
 options 	UART_POLL_FREQ		# Set polling rate, used when hw has
 					# no interrupt support (50 Hz default).
 
 # The following hint should only be used for pure ISA devices.  It is not
 # needed otherwise.  Use of hints is strongly discouraged.
 hint.uart.0.at="isa"
 
 # The following 3 hints are used when the UART is a system device (i.e., a
 # console or debug port), but only on platforms that don't have any other
 # means to pass the information to the kernel.  The unit number of the hint
 # is only used to bundle the hints together.  There is no relation to the
 # unit number of the probed UART.
 hint.uart.0.port="0x3f8"
 hint.uart.0.flags="0x10"
 hint.uart.0.baud="115200"
 
 # `flags' for serial drivers that support consoles like sio(4) and uart(4):
 #	0x10	enable console support for this unit.  Other console flags
 #		(if applicable) are ignored unless this is set.  Enabling
 #		console support does not make the unit the preferred console.
 #		Boot with -h or set boot_serial=YES in the loader.  For sio(4)
 #		specifically, the 0x20 flag can also be set (see above).
 #		Currently, at most one unit can have console support; the
 #		first one (in config file order) with this flag set is
 #		preferred.  Setting this flag for sio0 gives the old behavior.
 #	0x80	use this port for serial line gdb support in ddb.  Also known
 #		as debug port.
 #
 
 # Options for serial drivers that support consoles:
 options 	BREAK_TO_DEBUGGER	# A BREAK/DBG on the console goes to
 					# ddb, if available.
 
 # Solaris implements a new BREAK which is initiated by a character
 # sequence CR ~ ^b which is similar to a familiar pattern used on
 # Sun servers by the Remote Console.  There are FreeBSD extensions:
 # CR ~ ^p requests force panic and CR ~ ^r requests a clean reboot.
 options 	ALT_BREAK_TO_DEBUGGER
 
 # Serial Communications Controller
 # Supports the Siemens SAB 82532 and Zilog Z8530 multi-channel
 # communications controllers.
 device		scc
 
 # PCI Universal Communications driver
 # Supports various multi port PCI I/O cards.
 device		puc
 
 #
 # Network interfaces:
 #
 # MII bus support is required for many PCI Ethernet NICs,
 # namely those which use MII-compliant transceivers or implement
 # transceiver control interfaces that operate like an MII.  Adding
 # "device miibus" to the kernel config pulls in support for the generic
 # miibus API, the common support for for bit-bang'ing the MII and all
 # of the PHY drivers, including a generic one for PHYs that aren't
 # specifically handled by an individual driver.  Support for specific
 # PHYs may be built by adding "device mii", "device mii_bitbang" if
 # needed by the NIC driver and then adding the appropriate PHY driver.
 device  	mii		# Minimal MII support
 device  	mii_bitbang	# Common module for bit-bang'ing the MII
 device  	miibus		# MII support w/ bit-bang'ing and all PHYs
 
 device  	acphy		# Altima Communications AC101
 device  	amphy		# AMD AM79c873 / Davicom DM910{1,2}
 device  	atphy		# Attansic/Atheros F1
 device  	axphy		# Asix Semiconductor AX88x9x
 device  	bmtphy		# Broadcom BCM5201/BCM5202 and 3Com 3c905C
 device  	brgphy		# Broadcom BCM54xx/57xx 1000baseTX
 device  	ciphy		# Cicada/Vitesse CS/VSC8xxx
 device  	e1000phy	# Marvell 88E1000 1000/100/10-BT
 device  	gentbi		# Generic 10-bit 1000BASE-{LX,SX} fiber ifaces
 device  	icsphy		# ICS ICS1889-1893
 device  	ip1000phy	# IC Plus IP1000A/IP1001
 device  	jmphy		# JMicron JMP211/JMP202
 device  	lxtphy		# Level One LXT-970
 device  	mlphy		# Micro Linear 6692
 device  	nsgphy		# NatSemi DP8361/DP83865/DP83891
 device  	nsphy		# NatSemi DP83840A
 device  	nsphyter	# NatSemi DP83843/DP83815
 device  	pnaphy		# HomePNA
 device  	qsphy		# Quality Semiconductor QS6612
 device  	rdcphy		# RDC Semiconductor R6040
 device  	rgephy		# RealTek 8169S/8110S/8211B/8211C
 device  	rlphy		# RealTek 8139
 device  	rlswitch	# RealTek 8305
 device  	smcphy		# SMSC LAN91C111
 device  	tdkphy		# TDK 89Q2120
 device  	tlphy		# Texas Instruments ThunderLAN
 device  	truephy		# LSI TruePHY
 device		xmphy		# XaQti XMAC II
 
 # an:   Aironet 4500/4800 802.11 wireless adapters. Supports the PCMCIA,
 #       PCI and ISA varieties.
 # ae:   Support for gigabit ethernet adapters based on the Attansic/Atheros
 #       L2 PCI-Express FastEthernet controllers.
 # age:  Support for gigabit ethernet adapters based on the Attansic/Atheros
 #       L1 PCI express gigabit ethernet controllers.
 # alc:  Support for Atheros AR8131/AR8132 PCIe ethernet controllers.
 # ale:  Support for Atheros AR8121/AR8113/AR8114 PCIe ethernet controllers.
 # ath:  Atheros a/b/g WiFi adapters (requires ath_hal and wlan)
 # bce:	Broadcom NetXtreme II (BCM5706/BCM5708) PCI/PCIe Gigabit Ethernet
 #       adapters.
 # bfe:	Broadcom BCM4401 Ethernet adapter.
 # bge:	Support for gigabit ethernet adapters based on the Broadcom
 #	BCM570x family of controllers, including the 3Com 3c996-T,
 #	the Netgear GA302T, the SysKonnect SK-9D21 and SK-9D41, and
 #	the embedded gigE NICs on Dell PowerEdge 2550 servers.
 # bxe:	Broadcom NetXtreme II (BCM5771X/BCM578XX) PCIe 10Gb Ethernet
 #       adapters.
 # bwi:	Broadcom BCM430* and BCM431* family of wireless adapters.
 # bwn:	Broadcom BCM43xx family of wireless adapters.
 # cas:	Sun Cassini/Cassini+ and National Semiconductor DP83065 Saturn
 # cm:	Arcnet SMC COM90c26 / SMC COM90c56
 #	(and SMC COM90c66 in '56 compatibility mode) adapters.
 # cxgb: Chelsio T3 based 1GbE/10GbE PCIe Ethernet adapters.
 # cxgbe:Chelsio T4 and T5 based 1GbE/10GbE/40GbE PCIe Ethernet adapters.
 # cxgbev: Chelsio T4 and T5 based PCIe Virtual Functions.
 # dc:   Support for PCI fast ethernet adapters based on the DEC/Intel 21143
 #       and various workalikes including:
 #       the ADMtek AL981 Comet and AN985 Centaur, the ASIX Electronics
 #       AX88140A and AX88141, the Davicom DM9100 and DM9102, the Lite-On
 #       82c168 and 82c169 PNIC, the Lite-On/Macronix LC82C115 PNIC II
 #       and the Macronix 98713/98713A/98715/98715A/98725 PMAC. This driver
 #       replaces the old al, ax, dm, pn and mx drivers.  List of brands:
 #       Digital DE500-BA, Kingston KNE100TX, D-Link DFE-570TX, SOHOware SFA110,
 #       SVEC PN102-TX, CNet Pro110B, 120A, and 120B, Compex RL100-TX,
 #       LinkSys LNE100TX, LNE100TX V2.0, Jaton XpressNet, Alfa Inc GFC2204,
 #       KNE110TX.
 # de:   Digital Equipment DC21040
 # em:   Intel Pro/1000 Gigabit Ethernet 82542, 82543, 82544 based adapters.
 # igb:  Intel Pro/1000 PCI Express Gigabit Ethernet: 82575 and later adapters.
 # ep:   3Com 3C509, 3C529, 3C556, 3C562D, 3C563D, 3C572, 3C574X, 3C579, 3C589
 #       and PC Card devices using these chipsets.
 # ex:   Intel EtherExpress Pro/10 and other i82595-based adapters,
 #       Olicom Ethernet PC Card devices.
 # fe:   Fujitsu MB86960A/MB86965A Ethernet
 # fea:  DEC DEFEA EISA FDDI adapter
 # fpa:  Support for the Digital DEFPA PCI FDDI. `device fddi' is also needed.
 # fxp:  Intel EtherExpress Pro/100B
 #	(hint of prefer_iomap can be done to prefer I/O instead of Mem mapping)
 # gem:  Apple GMAC/Sun ERI/Sun GEM
 # hme:  Sun HME (Happy Meal Ethernet)
 # jme:  JMicron JMC260 Fast Ethernet/JMC250 Gigabit Ethernet based adapters.
 # le:   AMD Am7900 LANCE and Am79C9xx PCnet
 # lge:	Support for PCI gigabit ethernet adapters based on the Level 1
 #	LXT1001 NetCellerator chipset. This includes the D-Link DGE-500SX,
 #	SMC TigerCard 1000 (SMC9462SX), and some Addtron cards.
 # malo: Marvell Libertas wireless NICs.
 # mwl:  Marvell 88W8363 802.11n wireless NICs.
 #	Requires the mwl firmware module
 # mwlfw: Marvell 88W8363 firmware
 # msk:	Support for gigabit ethernet adapters based on the Marvell/SysKonnect
 #	Yukon II Gigabit controllers, including 88E8021, 88E8022, 88E8061,
 #	88E8062, 88E8035, 88E8036, 88E8038, 88E8050, 88E8052, 88E8053,
 #	88E8055, 88E8056 and D-Link 560T/550SX.
 # lmc:	Support for the LMC/SBE wide-area network interface cards.
 # mlx5:	Mellanox ConnectX-4 and ConnectX-4 LX IB and Eth shared code module.
 # mlx5en:Mellanox ConnectX-4 and ConnectX-4 LX PCIe Ethernet adapters.
 # my:	Myson Fast Ethernet (MTD80X, MTD89X)
 # nge:	Support for PCI gigabit ethernet adapters based on the National
 #	Semiconductor DP83820 and DP83821 chipset. This includes the
 #	SMC EZ Card 1000 (SMC9462TX), D-Link DGE-500T, Asante FriendlyNet
 #	GigaNIX 1000TA and 1000TPC, the Addtron AEG320T, the Surecom
 #	EP-320G-TX and the Netgear GA622T.
 # oce:	Emulex 10 Gbit adapters (OneConnect Ethernet)
 # pcn:	Support for PCI fast ethernet adapters based on the AMD Am79c97x
 #	PCnet-FAST, PCnet-FAST+, PCnet-FAST III, PCnet-PRO and PCnet-Home
 #	chipsets. These can also be handled by the le(4) driver if the
 #	pcn(4) driver is left out of the kernel. The le(4) driver does not
 #	support the additional features like the MII bus and burst mode of
 #	the PCnet-FAST and greater chipsets though.
 # ral:	Ralink Technology IEEE 802.11 wireless adapter
 # re:   RealTek 8139C+/8169/816xS/811xS/8101E PCI/PCIe Ethernet adapter
 # rl:   Support for PCI fast ethernet adapters based on the RealTek 8129/8139
 #       chipset.  Note that the RealTek driver defaults to using programmed
 #       I/O to do register accesses because memory mapped mode seems to cause
 #       severe lockups on SMP hardware.  This driver also supports the
 #       Accton EN1207D `Cheetah' adapter, which uses a chip called
 #       the MPX 5030/5038, which is either a RealTek in disguise or a
 #       RealTek workalike.  Note that the D-Link DFE-530TX+ uses the RealTek
 #       chipset and is supported by this driver, not the 'vr' driver.
 # rtwn: RealTek wireless adapters.
 # rtwnfw: RealTek wireless firmware.
 # sf:   Support for Adaptec Duralink PCI fast ethernet adapters based on the
 #       Adaptec AIC-6915 "starfire" controller.
 #       This includes dual and quad port cards, as well as one 100baseFX card.
 #       Most of these are 64-bit PCI devices, except for one single port
 #       card which is 32-bit.
 # sge:  Silicon Integrated Systems SiS190/191 Fast/Gigabit Ethernet adapter
 # sis:  Support for NICs based on the Silicon Integrated Systems SiS 900,
 #       SiS 7016 and NS DP83815 PCI fast ethernet controller chips.
 # sk:   Support for the SysKonnect SK-984x series PCI gigabit ethernet NICs.
 #       This includes the SK-9841 and SK-9842 single port cards (single mode
 #       and multimode fiber) and the SK-9843 and SK-9844 dual port cards
 #       (also single mode and multimode).
 #       The driver will autodetect the number of ports on the card and
 #       attach each one as a separate network interface.
 # sn:   Support for ISA and PC Card Ethernet devices using the
 #       SMC91C90/92/94/95 chips.
 # ste:  Sundance Technologies ST201 PCI fast ethernet controller, includes
 #       the D-Link DFE-550TX.
 # stge: Support for gigabit ethernet adapters based on the Sundance/Tamarack
 #       TC9021 family of controllers, including the Sundance ST2021/ST2023,
 #       the Sundance/Tamarack TC9021, the D-Link DL-4000 and ASUS NX1101.
 # ti:   Support for PCI gigabit ethernet NICs based on the Alteon Networks
 #       Tigon 1 and Tigon 2 chipsets.  This includes the Alteon AceNIC, the
 #       3Com 3c985, the Netgear GA620 and various others.  Note that you will
 #       probably want to bump up kern.ipc.nmbclusters a lot to use this driver.
 # tl:   Support for the Texas Instruments TNETE100 series 'ThunderLAN'
 #       cards and integrated ethernet controllers.  This includes several
 #       Compaq Netelligent 10/100 cards and the built-in ethernet controllers
 #       in several Compaq Prosignia, Proliant and Deskpro systems.  It also
 #       supports several Olicom 10Mbps and 10/100 boards.
 # tx:   SMC 9432 TX, BTX and FTX cards. (SMC EtherPower II series)
 # txp:	Support for 3Com 3cR990 cards with the "Typhoon" chipset
 # vr:   Support for various fast ethernet adapters based on the VIA
 #       Technologies VT3043 `Rhine I' and VT86C100A `Rhine II' chips,
 #       including the D-Link DFE520TX and D-Link DFE530TX (see 'rl' for
 #       DFE530TX+), the Hawking Technologies PN102TX, and the AOpen/Acer ALN-320.
 # vte:  DM&P Vortex86 RDC R6040 Fast Ethernet
 # vx:   3Com 3C590 and 3C595
 # wb:   Support for fast ethernet adapters based on the Winbond W89C840F chip.
 #       Note: this is not the same as the Winbond W89C940F, which is a
 #       NE2000 clone.
 # wi:   Lucent WaveLAN/IEEE 802.11 PCMCIA adapters. Note: this supports both
 #       the PCMCIA and ISA cards: the ISA card is really a PCMCIA to ISA
 #       bridge with a PCMCIA adapter plugged into it.
 # xe:   Xircom/Intel EtherExpress Pro100/16 PC Card ethernet controller,
 #       Accton Fast EtherCard-16, Compaq Netelligent 10/100 PC Card,
 #       Toshiba 10/100 Ethernet PC Card, Xircom 16-bit Ethernet + Modem 56
 # xl:   Support for the 3Com 3c900, 3c905, 3c905B and 3c905C (Fast)
 #       Etherlink XL cards and integrated controllers.  This includes the
 #       integrated 3c905B-TX chips in certain Dell Optiplex and Dell
 #       Precision desktop machines and the integrated 3c905-TX chips
 #       in Dell Latitude laptop docking stations.
 #       Also supported: 3Com 3c980(C)-TX, 3Com 3cSOHO100-TX, 3Com 3c450-TX
 
 # Order for ISA/EISA devices is important here
 
 device		cm
 hint.cm.0.at="isa"
 hint.cm.0.port="0x2e0"
 hint.cm.0.irq="9"
 hint.cm.0.maddr="0xdc000"
 device		ep
 device		ex
 device		fe
 hint.fe.0.at="isa"
 hint.fe.0.port="0x300"
 device		fea
 device		sn
 hint.sn.0.at="isa"
 hint.sn.0.port="0x300"
 hint.sn.0.irq="10"
 device		an
 device		wi
 device		xe
 
 # PCI Ethernet NICs that use the common MII bus controller code.
 device		ae		# Attansic/Atheros L2 FastEthernet
 device		age		# Attansic/Atheros L1 Gigabit Ethernet
 device		alc		# Atheros AR8131/AR8132 Ethernet
 device		ale		# Atheros AR8121/AR8113/AR8114 Ethernet
 device		bce		# Broadcom BCM5706/BCM5708 Gigabit Ethernet
 device		bfe		# Broadcom BCM440x 10/100 Ethernet
 device		bge		# Broadcom BCM570xx Gigabit Ethernet
 device		cas		# Sun Cassini/Cassini+ and NS DP83065 Saturn
 device		dc		# DEC/Intel 21143 and various workalikes
 device		et		# Agere ET1310 10/100/Gigabit Ethernet
 device		fxp		# Intel EtherExpress PRO/100B (82557, 82558)
 hint.fxp.0.prefer_iomap="0"
 device		gem		# Apple GMAC/Sun ERI/Sun GEM
 device		hme		# Sun HME (Happy Meal Ethernet)
 device		jme		# JMicron JMC250 Gigabit/JMC260 Fast Ethernet
 device		lge		# Level 1 LXT1001 gigabit Ethernet
 device		mlx5		# Shared code module between IB and Ethernet
 device		mlx5en		# Mellanox ConnectX-4 and ConnectX-4 LX
 device		msk		# Marvell/SysKonnect Yukon II Gigabit Ethernet
 device		my		# Myson Fast Ethernet (MTD80X, MTD89X)
 device		nge		# NatSemi DP83820 gigabit Ethernet
 device		re		# RealTek 8139C+/8169/8169S/8110S
 device		rl		# RealTek 8129/8139
 device		pcn		# AMD Am79C97x PCI 10/100 NICs
 device		sf		# Adaptec AIC-6915 (``Starfire'')
 device		sge		# Silicon Integrated Systems SiS190/191
 device		sis		# Silicon Integrated Systems SiS 900/SiS 7016
 device		sk		# SysKonnect SK-984x & SK-982x gigabit Ethernet
 device		ste		# Sundance ST201 (D-Link DFE-550TX)
 device		stge		# Sundance/Tamarack TC9021 gigabit Ethernet
 device		tl		# Texas Instruments ThunderLAN
 device		tx		# SMC EtherPower II (83c170 ``EPIC'')
 device		vr		# VIA Rhine, Rhine II
 device		vte		# DM&P Vortex86 RDC R6040 Fast Ethernet
 device		wb		# Winbond W89C840F
 device		xl		# 3Com 3c90x (``Boomerang'', ``Cyclone'')
 
 # PCI Ethernet NICs.
 device		cxgb		# Chelsio T3 10 Gigabit Ethernet
 device		cxgb_t3fw	# Chelsio T3 10 Gigabit Ethernet firmware
 device		cxgbe		# Chelsio T4 and T5 1GbE/10GbE/40GbE
 device		cxgbev		# Chelsio T4 and T5 1GbE/10GbE/40GbE VF
 device		de		# DEC/Intel DC21x4x (``Tulip'')
 device		em		# Intel Pro/1000 Gigabit Ethernet
 device		igb		# Intel Pro/1000 PCIE Gigabit Ethernet
 device		ixgb		# Intel Pro/10Gbe PCI-X Ethernet
 device		ix		# Intel Pro/10Gbe PCIE Ethernet
 device		ixv		# Intel Pro/10Gbe PCIE Ethernet VF
 device		le		# AMD Am7900 LANCE and Am79C9xx PCnet
 device		mxge		# Myricom Myri-10G 10GbE NIC
 device		nxge		# Neterion Xframe 10GbE Server/Storage Adapter
 device		oce		# Emulex 10 GbE (OneConnect Ethernet)
 device		ti		# Alteon Networks Tigon I/II gigabit Ethernet
 device		txp		# 3Com 3cR990 (``Typhoon'')
 device		vx		# 3Com 3c590, 3c595 (``Vortex'')
 device		vxge		# Exar/Neterion XFrame 3100 10GbE
 
 # PCI FDDI NICs.
 device		fpa
 
 # PCI WAN adapters.
 device		lmc
 
 # PCI IEEE 802.11 Wireless NICs
 device		ath		# Atheros pci/cardbus NIC's
 device		ath_hal		# pci/cardbus chip support
 #device		ath_ar5210	# AR5210 chips
 #device		ath_ar5211	# AR5211 chips
 #device		ath_ar5212	# AR5212 chips
 #device		ath_rf2413
 #device		ath_rf2417
 #device		ath_rf2425
 #device		ath_rf5111
 #device		ath_rf5112
 #device		ath_rf5413
 #device		ath_ar5416	# AR5416 chips
 options 	AH_SUPPORT_AR5416	# enable AR5416 tx/rx descriptors
 # All of the AR5212 parts have a problem when paired with the AR71xx
 # CPUS.  These parts have a bug that triggers a fatal bus error on the AR71xx
 # only.  Details of the exact nature of the bug are sketchy, but some can be
 # found at https://forum.openwrt.org/viewtopic.php?pid=70060 on pages 4, 5 and
 # 6.  This option enables this workaround.  There is a performance penalty
 # for this work around, but without it things don't work at all.  The DMA
 # from the card usually bursts 128 bytes, but on the affected CPUs, only
 # 4 are safe.
 options	   	AH_RXCFG_SDMAMW_4BYTES
 #device		ath_ar9160	# AR9160 chips
 #device		ath_ar9280	# AR9280 chips
 #device		ath_ar9285	# AR9285 chips
 device		ath_rate_sample	# SampleRate tx rate control for ath
 device		bwi		# Broadcom BCM430* BCM431*
 device		bwn		# Broadcom BCM43xx
 device		malo		# Marvell Libertas wireless NICs.
 device		mwl		# Marvell 88W8363 802.11n wireless NICs.
 device		mwlfw
 device		ral		# Ralink Technology RT2500 wireless NICs.
 device		rtwn		# Realtek wireless NICs
 device		rtwnfw
 
 # Use sf_buf(9) interface for jumbo buffers on ti(4) controllers.
 #options 	TI_SF_BUF_JUMBO
 # Turn on the header splitting option for the ti(4) driver firmware.  This
 # only works for Tigon II chips, and has no effect for Tigon I chips.
 # This option requires the TI_SF_BUF_JUMBO option above.
 #options 	TI_JUMBO_HDRSPLIT
 
 # These two options allow manipulating the mbuf cluster size and mbuf size,
 # respectively.  Be very careful with NIC driver modules when changing
 # these from their default values, because that can potentially cause a
 # mismatch between the mbuf size assumed by the kernel and the mbuf size
 # assumed by a module.  The only driver that currently has the ability to
 # detect a mismatch is ti(4).
 options 	MCLSHIFT=12	# mbuf cluster shift in bits, 12 == 4KB
 options 	MSIZE=512	# mbuf size in bytes
 
 #
 # ATM related options (Cranor version)
 # (note: this driver cannot be used with the HARP ATM stack)
 #
 # The `en' device provides support for Efficient Networks (ENI)
 # ENI-155 PCI midway cards, and the Adaptec 155Mbps PCI ATM cards (ANA-59x0).
 #
 # The `hatm' device provides support for Fore/Marconi HE155 and HE622
 # ATM PCI cards.
 #
 # The `fatm' device provides support for Fore PCA200E ATM PCI cards.
 #
 # The `patm' device provides support for IDT77252 based cards like
 # ProSum's ProATM-155 and ProATM-25 and IDT's evaluation boards.
 #
 # atm device provides generic atm functions and is required for
 # atm devices.
 # NATM enables the netnatm protocol family that can be used to
 # bypass TCP/IP.
 #
 # utopia provides the access to the ATM PHY chips and is required for en,
 # hatm and fatm.
 #
 # the current driver supports only PVC operations (no atm-arp, no multicast).
 # for more details, please read the original documents at
 # http://www.ccrc.wustl.edu/pub/chuck/tech/bsdatm/bsdatm.html
 #
 device		atm
 device		en
 device		fatm			#Fore PCA200E
 device		hatm			#Fore/Marconi HE155/622
 device		patm			#IDT77252 cards (ProATM and IDT)
 device		utopia			#ATM PHY driver
 options 	NATM			#native ATM
 
 options 	LIBMBPOOL		#needed by patm, iatm
 
 #
 # Sound drivers
 #
 # sound: The generic sound driver.
 #
 
 device		sound
 
 #
 # snd_*: Device-specific drivers.
 #
 # The flags of the device tell the device a bit more info about the
 # device that normally is obtained through the PnP interface.
 #	bit  2..0   secondary DMA channel;
 #	bit  4      set if the board uses two dma channels;
 #	bit 15..8   board type, overrides autodetection; leave it
 #		    zero if don't know what to put in (and you don't,
 #		    since this is unsupported at the moment...).
 #
 # snd_ad1816:		Analog Devices AD1816 ISA PnP/non-PnP.
 # snd_als4000:		Avance Logic ALS4000 PCI.
 # snd_atiixp:		ATI IXP 200/300/400 PCI.
 # snd_audiocs:		Crystal Semiconductor CS4231 SBus/EBus. Only
 #			for sparc64.
 # snd_cmi:		CMedia CMI8338/CMI8738 PCI.
 # snd_cs4281:		Crystal Semiconductor CS4281 PCI.
 # snd_csa:		Crystal Semiconductor CS461x/428x PCI. (except
 #			4281)
 # snd_ds1:		Yamaha DS-1 PCI.
 # snd_emu10k1:		Creative EMU10K1 PCI and EMU10K2 (Audigy) PCI.
 # snd_emu10kx:		Creative SoundBlaster Live! and Audigy
 # snd_envy24:		VIA Envy24 and compatible, needs snd_spicds.
 # snd_envy24ht:		VIA Envy24HT and compatible, needs snd_spicds.
 # snd_es137x:		Ensoniq AudioPCI ES137x PCI.
 # snd_ess:		Ensoniq ESS ISA PnP/non-PnP, to be used in
 #			conjunction with snd_sbc.
 # snd_fm801:		Forte Media FM801 PCI.
 # snd_gusc:		Gravis UltraSound ISA PnP/non-PnP.
 # snd_hda:		Intel High Definition Audio (Controller) and
 #			compatible.
 # snd_hdspe:		RME HDSPe AIO and RayDAT.
 # snd_ich:		Intel ICH AC'97 and some more audio controllers
 #			embedded in a chipset, for example nVidia
 #			nForce controllers.
 # snd_maestro:		ESS Technology Maestro-1/2x PCI.
 # snd_maestro3:		ESS Technology Maestro-3/Allegro PCI.
 # snd_mss:		Microsoft Sound System ISA PnP/non-PnP.
 # snd_neomagic:		Neomagic 256 AV/ZX PCI.
 # snd_sb16:		Creative SoundBlaster16, to be used in
 #			conjunction with snd_sbc.
 # snd_sb8:		Creative SoundBlaster (pre-16), to be used in
 #			conjunction with snd_sbc.
 # snd_sbc:		Creative SoundBlaster ISA PnP/non-PnP.
 #			Supports ESS and Avance ISA chips as well.
 # snd_solo:		ESS Solo-1x PCI.
 # snd_spicds:		SPI codec driver, needed by Envy24/Envy24HT drivers.
 # snd_t4dwave:		Trident 4DWave DX/NX PCI, Sis 7018 PCI and Acer Labs
 #			M5451 PCI.
 # snd_uaudio:		USB audio.
 # snd_via8233:		VIA VT8233x PCI.
 # snd_via82c686:	VIA VT82C686A PCI.
 # snd_vibes:		S3 Sonicvibes PCI.
 
 device		snd_ad1816
 device		snd_als4000
 device		snd_atiixp
 #device		snd_audiocs
 device		snd_cmi
 device		snd_cs4281
 device		snd_csa
 device		snd_ds1
 device		snd_emu10k1
 device		snd_emu10kx
 device		snd_envy24
 device		snd_envy24ht
 device		snd_es137x
 device		snd_ess
 device		snd_fm801
 device		snd_gusc
 device		snd_hda
 device		snd_hdspe
 device		snd_ich
 device		snd_maestro
 device		snd_maestro3
 device		snd_mss
 device		snd_neomagic
 device		snd_sb16
 device		snd_sb8
 device		snd_sbc
 device		snd_solo
 device		snd_spicds
 device		snd_t4dwave
 device		snd_uaudio
 device		snd_via8233
 device		snd_via82c686
 device		snd_vibes
 
 # For non-PnP sound cards:
 hint.pcm.0.at="isa"
 hint.pcm.0.irq="10"
 hint.pcm.0.drq="1"
 hint.pcm.0.flags="0x0"
 hint.sbc.0.at="isa"
 hint.sbc.0.port="0x220"
 hint.sbc.0.irq="5"
 hint.sbc.0.drq="1"
 hint.sbc.0.flags="0x15"
 hint.gusc.0.at="isa"
 hint.gusc.0.port="0x220"
 hint.gusc.0.irq="5"
 hint.gusc.0.drq="1"
 hint.gusc.0.flags="0x13"
 
 #
 # Following options are intended for debugging/testing purposes:
 #
 # SND_DEBUG                    Enable extra debugging code that includes
 #                              sanity checking and possible increase of
 #                              verbosity.
 #
 # SND_DIAGNOSTIC               Similar in a spirit of INVARIANTS/DIAGNOSTIC,
 #                              zero tolerance against inconsistencies.
 #
 # SND_FEEDER_MULTIFORMAT       By default, only 16/32 bit feeders are compiled
 #                              in. This options enable most feeder converters
 #                              except for 8bit. WARNING: May bloat the kernel.
 #
 # SND_FEEDER_FULL_MULTIFORMAT  Ditto, but includes 8bit feeders as well.
 #
 # SND_FEEDER_RATE_HP           (feeder_rate) High precision 64bit arithmetic
 #                              as much as possible (the default trying to
 #                              avoid it). Possible slowdown.
 #
 # SND_PCM_64                   (Only applicable for i386/32bit arch)
 #                              Process 32bit samples through 64bit
 #                              integer/arithmetic. Slight increase of dynamic
 #                              range at a cost of possible slowdown.
 #
 # SND_OLDSTEREO                Only 2 channels are allowed, effectively
 #                              disabling multichannel processing.
 #
 options		SND_DEBUG
 options		SND_DIAGNOSTIC
 options		SND_FEEDER_MULTIFORMAT
 options		SND_FEEDER_FULL_MULTIFORMAT
 options		SND_FEEDER_RATE_HP
 options		SND_PCM_64
 options		SND_OLDSTEREO
 
 #
 # Miscellaneous hardware:
 #
 # bktr: Brooktree bt848/848a/849a/878/879 video capture and TV Tuner board
 # joy: joystick (including IO DATA PCJOY PC Card joystick)
 # cmx: OmniKey CardMan 4040 pccard smartcard reader
 
 device		joy			# PnP aware, hints for non-PnP only
 hint.joy.0.at="isa"
 hint.joy.0.port="0x201"
 device		cmx
 
 #
 # The 'bktr' device is a PCI video capture device using the Brooktree
 # bt848/bt848a/bt849a/bt878/bt879 chipset. When used with a TV Tuner it forms a
 # TV card, e.g. Miro PC/TV, Hauppauge WinCast/TV WinTV, VideoLogic Captivator,
 # Intel Smart Video III, AverMedia, IMS Turbo, FlyVideo.
 #
 # options 	OVERRIDE_CARD=xxx
 # options 	OVERRIDE_TUNER=xxx
 # options 	OVERRIDE_MSP=1
 # options 	OVERRIDE_DBX=1
 # These options can be used to override the auto detection
 # The current values for xxx are found in src/sys/dev/bktr/bktr_card.h
 # Using sysctl(8) run-time overrides on a per-card basis can be made
 #
 # options 	BROOKTREE_SYSTEM_DEFAULT=BROOKTREE_PAL
 # or
 # options 	BROOKTREE_SYSTEM_DEFAULT=BROOKTREE_NTSC
 # Specifies the default video capture mode.
 # This is required for Dual Crystal (28&35MHz) boards where PAL is used
 # to prevent hangs during initialization, e.g. VideoLogic Captivator PCI.
 #
 # options 	BKTR_USE_PLL
 # This is required for PAL or SECAM boards with a 28MHz crystal and no 35MHz
 # crystal, e.g. some new Bt878 cards.
 #
 # options 	BKTR_GPIO_ACCESS
 # This enables IOCTLs which give user level access to the GPIO port.
 #
 # options 	BKTR_NO_MSP_RESET
 # Prevents the MSP34xx reset. Good if you initialize the MSP in another OS first
 #
 # options 	BKTR_430_FX_MODE
 # Switch Bt878/879 cards into Intel 430FX chipset compatibility mode.
 #
 # options 	BKTR_SIS_VIA_MODE
 # Switch Bt878/879 cards into SIS/VIA chipset compatibility mode which is
 # needed for some old SiS and VIA chipset motherboards.
 # This also allows Bt878/879 chips to work on old OPTi (<1997) chipset
 # motherboards and motherboards with bad or incomplete PCI 2.1 support.
 # As a rough guess, old = before 1998
 #
 # options 	BKTR_NEW_MSP34XX_DRIVER
 # Use new, more complete initialization scheme for the msp34* soundchip.
 # Should fix stereo autodetection if the old driver does only output
 # mono sound.
 
 #
 # options 	BKTR_USE_FREEBSD_SMBUS
 # Compile with FreeBSD SMBus implementation
 #
 # Brooktree driver has been ported to the new I2C framework. Thus,
 # you'll need to have the following 3 lines in the kernel config.
 #     device smbus
 #     device iicbus
 #     device iicbb
 #     device iicsmb
 # The iic and smb devices are only needed if you want to control other
 # I2C slaves connected to the external connector of some cards.
 #
 device		bktr
  
 #
 # PC Card/PCMCIA and Cardbus
 #
 # cbb: pci/cardbus bridge implementing YENTA interface
 # pccard: pccard slots
 # cardbus: cardbus slots
 device		cbb
 device		pccard
 device		cardbus
 
 #
 # MMC/SD
 #
 # mmc 		MMC/SD bus
 # mmcsd		MMC/SD memory card
 # sdhci		Generic PCI SD Host Controller
 #
 device		mmc
 device		mmcsd
 device		sdhci
 
 #
 # SMB bus
 #
 # System Management Bus support is provided by the 'smbus' device.
 # Access to the SMBus device is via the 'smb' device (/dev/smb*),
 # which is a child of the 'smbus' device.
 #
 # Supported devices:
 # smb		standard I/O through /dev/smb*
 #
 # Supported SMB interfaces:
 # iicsmb	I2C to SMB bridge with any iicbus interface
 # bktr		brooktree848 I2C hardware interface
 # intpm		Intel PIIX4 (82371AB, 82443MX) Power Management Unit
 # alpm		Acer Aladdin-IV/V/Pro2 Power Management Unit
 # ichsmb	Intel ICH SMBus controller chips (82801AA, 82801AB, 82801BA)
 # viapm		VIA VT82C586B/596B/686A and VT8233 Power Management Unit
 # amdpm		AMD 756 Power Management Unit
 # amdsmb	AMD 8111 SMBus 2.0 Controller
 # nfpm		NVIDIA nForce Power Management Unit
 # nfsmb		NVIDIA nForce2/3/4 MCP SMBus 2.0 Controller
 # ismt		Intel SMBus 2.0 controller chips (on Atom S1200, C2000)
 #
 device		smbus		# Bus support, required for smb below.
 
 device		intpm
 device		alpm
 device		ichsmb
 device		viapm
 device		amdpm
 device		amdsmb
 device		nfpm
 device		nfsmb
 device		ismt
 
 device		smb
 
 # SMBus peripheral devices
 #
 # jedec_ts	Temperature Sensor compliant with JEDEC Standard 21-C
 #
 device		jedec_ts
 
 # I2C Bus
 #
 # Philips i2c bus support is provided by the `iicbus' device.
 #
 # Supported devices:
 # ic	i2c network interface
 # iic	i2c standard io
 # iicsmb i2c to smb bridge. Allow i2c i/o with smb commands.
 # iicoc simple polling driver for OpenCores I2C controller
 #
 # Supported interfaces:
 # bktr	brooktree848 I2C software interface
 #
 # Other:
 # iicbb	generic I2C bit-banging code (needed by lpbb, bktr)
 #
 device		iicbus		# Bus support, required for ic/iic/iicsmb below.
 device		iicbb
 
 device		ic
 device		iic
 device		iicsmb		# smb over i2c bridge
 device		iicoc		# OpenCores I2C controller support
 
 # I2C peripheral devices
 #
 # ds133x	Dallas Semiconductor DS1337, DS1338 and DS1339 RTC
 # ds1374	Dallas Semiconductor DS1374 RTC
 # ds1672	Dallas Semiconductor DS1672 RTC
 # s35390a	Seiko Instruments S-35390A RTC
 #
 device		ds133x
 device		ds1374
 device		ds1672
 device		s35390a
 
 # Parallel-Port Bus
 #
 # Parallel port bus support is provided by the `ppbus' device.
 # Multiple devices may be attached to the parallel port, devices
 # are automatically probed and attached when found.
 #
 # Supported devices:
 # vpo	Iomega Zip Drive
 #	Requires SCSI disk support ('scbus' and 'da'), best
 #	performance is achieved with ports in EPP 1.9 mode.
 # lpt	Parallel Printer
 # plip	Parallel network interface
 # ppi	General-purpose I/O ("Geek Port") + IEEE1284 I/O
 # pps	Pulse per second Timing Interface
 # lpbb	Philips official parallel port I2C bit-banging interface
 # pcfclock Parallel port clock driver.
 #
 # Supported interfaces:
 # ppc	ISA-bus parallel port interfaces.
 #
 
 options 	PPC_PROBE_CHIPSET # Enable chipset specific detection
 				  # (see flags in ppc(4))
 options 	DEBUG_1284	# IEEE1284 signaling protocol debug
 options 	PERIPH_1284	# Makes your computer act as an IEEE1284
 				# compliant peripheral
 options 	DONTPROBE_1284	# Avoid boot detection of PnP parallel devices
 options 	VP0_DEBUG	# ZIP/ZIP+ debug
 options 	LPT_DEBUG	# Printer driver debug
 options 	PPC_DEBUG	# Parallel chipset level debug
 options 	PLIP_DEBUG	# Parallel network IP interface debug
 options 	PCFCLOCK_VERBOSE         # Verbose pcfclock driver
 options 	PCFCLOCK_MAX_RETRIES=5   # Maximum read tries (default 10)
 
 device		ppc
 hint.ppc.0.at="isa"
 hint.ppc.0.irq="7"
 device		ppbus
 device		vpo
 device		lpt
 device		plip
 device		ppi
 device		pps
 device		lpbb
 device		pcfclock
 
 #
 # Etherswitch framework and drivers
 #
 # etherswitch	The etherswitch(4) framework
 # miiproxy	Proxy device for miibus(4) functionality
 # 
 # Switch hardware support:
 # arswitch	Atheros switches
 # ip17x 	IC+ 17x family switches
 # rtl8366r	Realtek RTL8366 switches
 # ukswitch	Multi-PHY switches
 #
 device		etherswitch
 device		miiproxy
 device		arswitch
 device		ip17x
 device		rtl8366rb
 device		ukswitch
 
 # Kernel BOOTP support
 
 options 	BOOTP		# Use BOOTP to obtain IP address/hostname
 				# Requires NFSCL and NFS_ROOT
 options 	BOOTP_NFSROOT	# NFS mount root filesystem using BOOTP info
 options 	BOOTP_NFSV3	# Use NFS v3 to NFS mount root
 options 	BOOTP_COMPAT	# Workaround for broken bootp daemons.
 options 	BOOTP_WIRED_TO=fxp0 # Use interface fxp0 for BOOTP
 options 	BOOTP_BLOCKSIZE=8192 # Override NFS block size
 
 #
 # Add software watchdog routines.
 #
 options 	SW_WATCHDOG
 
 #
 # Add the software deadlock resolver thread.
 #
 options 	DEADLKRES
 
 #
 # Disable swapping of stack pages.  This option removes all
 # code which actually performs swapping, so it's not possible to turn
 # it back on at run-time.
 #
 # This is sometimes usable for systems which don't have any swap space
 # (see also sysctls "vm.defer_swapspace_pageouts" and
 # "vm.disable_swapspace_pageouts")
 #
 #options 	NO_SWAPPING
 
 # Set the number of sf_bufs to allocate. sf_bufs are virtual buffers
 # for sendfile(2) that are used to map file VM pages, and normally
 # default to a quantity that is roughly 16*MAXUSERS+512. You would
 # typically want about 4 of these for each simultaneous file send.
 #
 options 	NSFBUFS=1024
 
 #
 # Enable extra debugging code for locks.  This stores the filename and
 # line of whatever acquired the lock in the lock itself, and changes a
 # number of function calls to pass around the relevant data.  This is
 # not at all useful unless you are debugging lock code.  Note that
 # modules should be recompiled as this option modifies KBI.
 #
 options 	DEBUG_LOCKS
 
 
 #####################################################################
 # USB support
 # UHCI controller
 device		uhci
 # OHCI controller
 device		ohci
 # EHCI controller
 device		ehci
 # XHCI controller
 device		xhci
 # SL811 Controller
 #device		slhci
 # General USB code (mandatory for USB)
 device		usb
 #
 # USB Double Bulk Pipe devices
 device		udbp
 # USB Fm Radio
 device		ufm
 # USB temperature meter
 device		ugold
 # USB LED
 device		uled
 # Human Interface Device (anything with buttons and dials)
 device		uhid
 # USB keyboard
 device		ukbd
 # USB printer
 device		ulpt
 # USB mass storage driver (Requires scbus and da)
 device		umass
 # USB mass storage driver for device-side mode
 device		usfs
 # USB support for Belkin F5U109 and Magic Control Technology serial adapters
 device		umct
 # USB modem support
 device		umodem
 # USB mouse
 device		ums
 # USB touchpad(s)
 device		atp
 device		wsp
 # eGalax USB touch screen
 device		uep
 # Diamond Rio 500 MP3 player
 device		urio
 #
 # USB serial support
 device		ucom
 # USB support for 3G modem cards by Option, Novatel, Huawei and Sierra
 device		u3g
 # USB support for Technologies ARK3116 based serial adapters
 device		uark
 # USB support for Belkin F5U103 and compatible serial adapters
 device		ubsa
 # USB support for serial adapters based on the FT8U100AX and FT8U232AM
 device		uftdi
 # USB support for some Windows CE based serial communication.
 device		uipaq
 # USB support for Prolific PL-2303 serial adapters
 device		uplcom
 # USB support for Silicon Laboratories CP2101/CP2102 based USB serial adapters
 device		uslcom
 # USB Visor and Palm devices
 device		uvisor
 # USB serial support for DDI pocket's PHS
 device		uvscom
 #
 # USB ethernet support
 device		uether
 # ADMtek USB ethernet. Supports the LinkSys USB100TX,
 # the Billionton USB100, the Melco LU-ATX, the D-Link DSB-650TX
 # and the SMC 2202USB. Also works with the ADMtek AN986 Pegasus
 # eval board.
 device		aue
 
 # ASIX Electronics AX88172 USB 2.0 ethernet driver. Used in the
 # LinkSys USB200M and various other adapters.
 device		axe
 # ASIX Electronics AX88178A/AX88179 USB 2.0/3.0 gigabit ethernet driver.
 device		axge
 
 #
 # Devices which communicate using Ethernet over USB, particularly
 # Communication Device Class (CDC) Ethernet specification. Supports
 # Sharp Zaurus PDAs, some DOCSIS cable modems and so on.
 device		cdce
 #
 # CATC USB-EL1201A USB ethernet. Supports the CATC Netmate
 # and Netmate II, and the Belkin F5U111.
 device		cue
 #
 # Kawasaki LSI ethernet. Supports the LinkSys USB10T,
 # Entrega USB-NET-E45, Peracom Ethernet Adapter, the
 # 3Com 3c19250, the ADS Technologies USB-10BT, the ATen UC10T,
 # the Netgear EA101, the D-Link DSB-650, the SMC 2102USB
 # and 2104USB, and the Corega USB-T.
 device		kue
 #
 # RealTek RTL8150 USB to fast ethernet. Supports the Melco LUA-KTX
 # and the GREEN HOUSE GH-USB100B.
 device		rue
 #
 # Davicom DM9601E USB to fast ethernet. Supports the Corega FEther USB-TXC.
 device		udav
 #
-# RealTek RTL8152 USB to fast ethernet.
+# RealTek RTL8152/RTL8153 USB Ethernet driver
 device		ure
 #
 # Moschip MCS7730/MCS7840 USB to fast ethernet. Supports the Sitecom LN030.
 device		mos
 #
 # HSxPA devices from Option N.V
 device		uhso
 
 # Realtek RTL8188SU/RTL8191SU/RTL8192SU wireless driver
 device		rsu
 #
 # Ralink Technology RT2501USB/RT2601USB wireless driver
 device		rum
 # Ralink Technology RT2700U/RT2800U/RT3000U wireless driver
 device		run
 #
 # Atheros AR5523 wireless driver
 device		uath
 #
 # Conexant/Intersil PrismGT wireless driver
 device		upgt
 #
 # Ralink Technology RT2500USB wireless driver
 device		ural
 #
 # RNDIS USB ethernet driver
 device		urndis
 # Realtek RTL8187B/L wireless driver
 device		urtw
 #
 # ZyDas ZD1211/ZD1211B wireless driver
 device		zyd
 #
 # Sierra USB wireless driver
 device		usie
 
 # 
 # debugging options for the USB subsystem
 #
 options 	USB_DEBUG
 options 	U3G_DEBUG
 
 # options for ukbd:
 options 	UKBD_DFLT_KEYMAP	# specify the built-in keymap
 makeoptions	UKBD_DFLT_KEYMAP=jp.pc98
 
 # options for uplcom:
 options 	UPLCOM_INTR_INTERVAL=100	# interrupt pipe interval
 						# in milliseconds
 
 # options for uvscom:
 options 	UVSCOM_DEFAULT_OPKTSIZE=8	# default output packet size
 options 	UVSCOM_INTR_INTERVAL=100	# interrupt pipe interval
 						# in milliseconds
 
 #####################################################################
 # FireWire support
 
 device		firewire	# FireWire bus code
 device		sbp		# SCSI over Firewire (Requires scbus and da)
 device		sbp_targ	# SBP-2 Target mode  (Requires scbus and targ)
 device		fwe		# Ethernet over FireWire (non-standard!)
 device		fwip		# IP over FireWire (RFC2734 and RFC3146)
 
 #####################################################################
 # dcons support (Dumb Console Device)
 
 device		dcons			# dumb console driver
 device		dcons_crom		# FireWire attachment
 options 	DCONS_BUF_SIZE=16384	# buffer size
 options 	DCONS_POLL_HZ=100	# polling rate
 options 	DCONS_FORCE_CONSOLE=0	# force to be the primary console
 options 	DCONS_FORCE_GDB=1	# force to be the gdb device
 
 #####################################################################
 # crypto subsystem
 #
 # This is a port of the OpenBSD crypto framework.  Include this when
 # configuring IPSEC and when you have a h/w crypto device to accelerate
 # user applications that link to OpenSSL.
 #
 # Drivers are ports from OpenBSD with some simple enhancements that have
 # been fed back to OpenBSD.
 
 device		crypto		# core crypto support
 
 # Only install the cryptodev device if you are running tests, or know
 # specifically why you need it.  In most cases, it is not needed and
 # will make things slower.
 device		cryptodev	# /dev/crypto for access to h/w
 
 device		rndtest		# FIPS 140-2 entropy tester
 
 device		hifn		# Hifn 7951, 7781, etc.
 options 	HIFN_DEBUG	# enable debugging support: hw.hifn.debug
 options 	HIFN_RNDTEST	# enable rndtest support
 
 device		ubsec		# Broadcom 5501, 5601, 58xx
 options 	UBSEC_DEBUG	# enable debugging support: hw.ubsec.debug
 options 	UBSEC_RNDTEST	# enable rndtest support
 
 #####################################################################
 
 
 #
 # Embedded system options:
 #
 # An embedded system might want to run something other than init.
 options 	INIT_PATH=/sbin/init:/rescue/init
 
 # Debug options
 options 	BUS_DEBUG	# enable newbus debugging
 options 	DEBUG_VFS_LOCKS	# enable VFS lock debugging
 options 	SOCKBUF_DEBUG	# enable sockbuf last record/mb tail checking
 options 	IFMEDIA_DEBUG	# enable debugging in net/if_media.c
 
 #
 # Verbose SYSINIT
 #
 # Make the SYSINIT process performed by mi_startup() verbose.  This is very
 # useful when porting to a new architecture.  If DDB is also enabled, this
 # will print function names instead of addresses.
 options 	VERBOSE_SYSINIT
 
 #####################################################################
 # SYSV IPC KERNEL PARAMETERS
 #
 # Maximum number of System V semaphores that can be used on the system at
 # one time.
 options 	SEMMNI=11
 
 # Total number of semaphores system wide
 options 	SEMMNS=61
 
 # Total number of undo structures in system
 options 	SEMMNU=31
 
 # Maximum number of System V semaphores that can be used by a single process
 # at one time.
 options 	SEMMSL=61
 
 # Maximum number of operations that can be outstanding on a single System V
 # semaphore at one time.
 options 	SEMOPM=101
 
 # Maximum number of undo operations that can be outstanding on a single
 # System V semaphore at one time.
 options 	SEMUME=11
 
 # Maximum number of shared memory pages system wide.
 options 	SHMALL=1025
 
 # Maximum size, in bytes, of a single System V shared memory region.
 options 	SHMMAX=(SHMMAXPGS*PAGE_SIZE+1)
 options 	SHMMAXPGS=1025
 
 # Minimum size, in bytes, of a single System V shared memory region.
 options 	SHMMIN=2
 
 # Maximum number of shared memory regions that can be used on the system
 # at one time.
 options 	SHMMNI=33
 
 # Maximum number of System V shared memory regions that can be attached to
 # a single process at one time.
 options 	SHMSEG=9
 
 # Set the amount of time (in seconds) the system will wait before
 # rebooting automatically when a kernel panic occurs.  If set to (-1),
 # the system will wait indefinitely until a key is pressed on the
 # console.
 options 	PANIC_REBOOT_WAIT_TIME=16
 
 # Attempt to bypass the buffer cache and put data directly into the
 # userland buffer for read operation when O_DIRECT flag is set on the
 # file.  Both offset and length of the read operation must be
 # multiples of the physical media sector size.
 #
 options 	DIRECTIO
 
 # Specify a lower limit for the number of swap I/O buffers.  They are
 # (among other things) used when bypassing the buffer cache due to
 # DIRECTIO kernel option enabled and O_DIRECT flag set on file.
 #
 options 	NSWBUF_MIN=120
 
 #####################################################################
 
 # More undocumented options for linting.
 # Note that documenting these is not considered an affront.
 
 options 	CAM_DEBUG_DELAY
 
 # VFS cluster debugging.
 options 	CLUSTERDEBUG
 
 options 	DEBUG
 
 # Kernel filelock debugging.
 options 	LOCKF_DEBUG
 
 # System V compatible message queues
 # Please note that the values provided here are used to test kernel
 # building.  The defaults in the sources provide almost the same numbers.
 # MSGSSZ must be a power of 2 between 8 and 1024.
 options 	MSGMNB=2049	# Max number of chars in queue
 options 	MSGMNI=41	# Max number of message queue identifiers
 options 	MSGSEG=2049	# Max number of message segments
 options 	MSGSSZ=16	# Size of a message segment
 options 	MSGTQL=41	# Max number of messages in system
 
 options 	NBUF=512	# Number of buffer headers
 
 options 	SCSI_NCR_DEBUG
 options 	SCSI_NCR_MAX_SYNC=10000
 options 	SCSI_NCR_MAX_WIDE=1
 options 	SCSI_NCR_MYADDR=7
 
 options 	SC_DEBUG_LEVEL=5	# Syscons debug level
 options 	SC_RENDER_DEBUG	# syscons rendering debugging
 
 options 	VFS_BIO_DEBUG	# VFS buffer I/O debugging
 
 options 	KSTACK_MAX_PAGES=32 # Maximum pages to give the kernel stack
 options 	KSTACK_USAGE_PROF
 
 # Adaptec Array Controller driver options
 options 	AAC_DEBUG	# Debugging levels:
 				# 0 - quiet, only emit warnings
 				# 1 - noisy, emit major function
 				#     points and things done
 				# 2 - extremely noisy, emit trace
 				#     items in loops, etc.
 
 # Resource Accounting
 options 	RACCT
 
 # Resource Limits
 options 	RCTL
 
 # Yet more undocumented options for linting.
 # BKTR_ALLOC_PAGES has no effect except to cause warnings, and
 # BROOKTREE_ALLOC_PAGES hasn't actually been superseded by it, since the
 # driver still mostly spells this option BROOKTREE_ALLOC_PAGES.
 ##options 	BKTR_ALLOC_PAGES=(217*4+1)
 options 	BROOKTREE_ALLOC_PAGES=(217*4+1)
 options 	MAXFILES=999
 
 # Random number generator
 # Only ONE of the below two may be used; they are mutually exclusive.
 # If neither is present, then the Fortuna algorithm is selected.
 #options 	RANDOM_YARROW	# Yarrow CSPRNG (old default)
 #options 	RANDOM_LOADABLE	# Allow the algorithm to be loaded as
 				# a module.
 # Select this to allow high-rate but potentially expensive
 # harvesting of Slab-Allocator entropy. In very high-rate
 # situations the value of doing this is dubious at best.
 options 	RANDOM_ENABLE_UMA	# slab allocator
 
 # Module to enable execution of application via emulators like QEMU
 options         IMAGACT_BINMISC
 
 # Intel em(4) driver
 options		EM_MULTIQUEUE # Activate multiqueue features/disable MSI-X
 
 # zlib I/O stream support
 # This enables support for compressed core dumps.
 options 	GZIO
 
 # BHND(4) drivers
 options		BHND_LOGLEVEL	# Logging threshold level
 
 # evdev interface 
 device		evdev		# input event device support
 options 	EVDEV_SUPPORT	# evdev support in legacy drivers
 options 	EVDEV_DEBUG	# enable event debug msgs
 device		uinput		# install /dev/uinput cdev
 options 	UINPUT_DEBUG	# enable uinput debug msgs
Index: head/sys/dev/mii/miidevs
===================================================================
--- head/sys/dev/mii/miidevs	(revision 308120)
+++ head/sys/dev/mii/miidevs	(revision 308121)
@@ -1,347 +1,347 @@
 $FreeBSD$
 /*$NetBSD: miidevs,v 1.105 2011/11/25 23:28:14 jakllsch Exp $*/
 
 /*-
  * Copyright (c) 1998, 1999 The NetBSD Foundation, Inc.
  * All rights reserved.
  *
  * This code is derived from software contributed to The NetBSD Foundation
  * by Jason R. Thorpe of the Numerical Aerospace Simulation Facility,
  * NASA Ames Research Center.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  *
  * THIS SOFTWARE IS PROVIDED BY THE NETBSD FOUNDATION, INC. AND CONTRIBUTORS
  * ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED
  * TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
  * PURPOSE ARE DISCLAIMED.  IN NO EVENT SHALL THE FOUNDATION OR CONTRIBUTORS
  * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
  * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
  * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
  * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
  * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
  * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
  * POSSIBILITY OF SUCH DAMAGE.
  */
 
 /*
  * List of known MII OUIs.
  * For a complete list see http://standards.ieee.org/regauth/oui/
  *
  * XXX Vendors do obviously not agree how OUIs (24 bit) are mapped
  * to the 22 bits available in the id registers.
  * IEEE 802.3u-1995, subclause 22.2.4.3.1, figure 22-12, depicts the right
  * mapping; the bit positions are defined in IEEE 802-1990, figure 5.2.
  * (There is a formal 802.3 interpretation, number 1-07/98 of July 09 1998,
  * about this.)
  * The MII_OUI() macro in "mii.h" reflects this.
  * If a vendor uses a different mapping, an "xx" prefixed OUI is defined here
  * which is mangled accordingly to compensate.
  */
 
 oui AGERE			0x00053d	Agere Systems
 oui ALTIMA			0x0010a9	Altima Communications
 oui AMD				0x00001a	Advanced Micro Devices
 oui BROADCOM			0x001018	Broadcom Corporation
 oui BROADCOM2			0x000af7	Broadcom Corporation
 oui BROADCOM3			0x001be9	Broadcom Corporation
 oui BROADCOM4			0x18c086	Broadcom Corporation
 oui CICADA			0x0003f1	Cicada Semiconductor
 oui DAVICOM			0x00606e	Davicom Semiconductor
 oui ENABLESEMI			0x0010dd	Enable Semiconductor
 oui ICPLUS			0x0090c3	IC Plus Corp.
 oui ICS				0x00a0be	Integrated Circuit Systems
 oui INTEL			0x00aa00	Intel Corporation
 oui JMICRON			0x00d831	JMicron Technologies
 oui LEVEL1			0x00207b	Level 1
 oui MARVELL			0x005043	Marvell Semiconductor
 oui MICREL			0x0010a1	Micrel
 oui MYSON			0x00c0b4	Myson Technology
 oui NATSEMI			0x080017	National Semiconductor
 oui PMCSIERRA			0x00e004	PMC-Sierra
 oui QUALSEMI			0x006051	Quality Semiconductor
 oui RDC				0x00d02d	RDC Semiconductor
 oui REALTEK			0x00e04c	RealTek Semicondctor
 oui SEEQ			0x00a07d	Seeq Technology
 oui SIS				0x00e006	Silicon Integrated Systems
 oui SMC				0x00800f	SMC
 oui TI				0x080028	Texas Instruments
 oui TSC				0x00c039	TDK Semiconductor
 oui VITESSE			0x0001c1	Vitesse Semiconductor
 oui XAQTI			0x00e0ae	XaQti Corp.
 
 /* Some Intel 82553's use an alternative OUI. */
 oui xxINTEL			0x001f00	Intel Corporation
 
 /* Some VIA 6122's use an alternative OUI. */
 oui xxCICADA			0x00c08f	Cicada Semiconductor
 
 /* bad bitorder (bits "g" and "h" (= MSBs byte 1) lost) */
 oui yyAMD			0x000058	Advanced Micro Devices
 oui xxATHEROS			0x00c82e	Atheros Communications
 oui xxBROADCOM			0x000818	Broadcom Corporation
 oui xxBROADCOM_ALT1		0x0050ef	Broadcom Corporation
 oui xxDAVICOM			0x000676	Davicom Semiconductor
 oui yyINTEL			0x005500	Intel Corporation
 oui xxJATO			0x0007c1	Jato Technologies
 oui xxMARVELL			0x000ac2	Marvell Semiconductor
 oui xxMYSON			0x00032d	Myson Technology
 oui xxNATSEMI			0x1000e8	National Semiconductor
 oui xxQUALSEMI			0x00068a	Quality Semiconductor
 oui xxTSC			0x00039c	TDK Semiconductor
 oui xxVITESSE			0x008083	Vitesse Semiconductor
 
 /* bad byteorder (bits "q" and "r" (= LSBs byte 3) lost) */
 oui xxLEVEL1			0x782000	Level 1
 oui xxXAQTI			0xace000	XaQti Corp.
 
 /* Don't know what's going on here. */
 oui xxASIX			0x000674	Asix Semiconductor
 oui yyDAVICOM			0x000602	Davicom Semiconductor
 oui xxICPLUS			0x0009c3	IC Plus Corp.
 oui xxPMCSIERRA			0x0009c0	PMC-Sierra
 oui xxPMCSIERRA2		0x009057	PMC-Sierra
 oui xxREALTEK			0x000732	RealTek Semicondctor
 oui yyREALTEK			0x000004	RealTek Semicondctor
 
 /*
  * List of known models.  Grouped by oui.
  */
 
 /* Agere Systems PHYs */
 model AGERE ET1011		0x0001 ET1011 10/100/1000baseT PHY
 model AGERE ET1011C		0x0004 ET1011C 10/100/1000baseT PHY
 
 /* Altima Communications PHYs */
 model ALTIMA ACXXX		0x0001 ACXXX 10/100 media interface
 model ALTIMA AC101L		0x0012 AC101L 10/100 media interface
 model ALTIMA AC101		0x0021 AC101 10/100 media interface
 /* AMD Am79C87[45] have ALTIMA OUI */
 model ALTIMA Am79C875		0x0014 Am79C875 10/100 media interface
 model ALTIMA Am79C874		0x0021 Am79C874 10/100 media interface
 
 /* Advanced Micro Devices PHYs */
 /* see Davicom DM9101 for Am79C873 */
 model yyAMD 79C972_10T		0x0001 Am79C972 internal 10BASE-T interface
 model yyAMD 79c973phy		0x0036 Am79C973 internal 10/100 media interface
 model yyAMD 79c901		0x0037 Am79C901 10BASE-T interface
 model yyAMD 79c901home		0x0039 Am79C901 HomePNA 1.0 interface
 
 /* Atheros Communications/Attansic PHYs */
 model xxATHEROS F1		0x0001 Atheros F1 10/100/1000 PHY
 model xxATHEROS F2		0x0002 Atheros F2 10/100 PHY
 model xxATHEROS AR8021		0x0004 Atheros AR8021 10/100/1000 PHY
 model xxATHEROS F1_7		0x0007 Atheros F1 10/100/1000 PHY
 
 /* Asix semiconductor PHYs */
 model xxASIX AX88X9X		0x0031 Ax88x9x internal PHY
 
 /* Broadcom Corp. PHYs */
 model xxBROADCOM 3C905B		0x0012 Broadcom 3c905B internal PHY
 model xxBROADCOM 3C905C		0x0017 Broadcom 3c905C internal PHY
 model xxBROADCOM BCM5201	0x0021 BCM5201 10/100 media interface
 model xxBROADCOM BCM5214	0x0028 BCM5214 Quad 10/100 media interface
 model xxBROADCOM BCM5221	0x001e BCM5221 10/100 media interface
 model xxBROADCOM BCM5222	0x0032 BCM5222 Dual 10/100 media interface
 model xxBROADCOM BCM4401	0x0036 BCM4401 10/100 media interface
 model xxBROADCOM BCM5365	0x0037 BCM5365 10/100 5-port PHY switch
 model BROADCOM BCM5400		0x0004 BCM5400 1000BASE-T media interface
 model BROADCOM BCM5401		0x0005 BCM5401 1000BASE-T media interface
 model BROADCOM BCM5402		0x0006 BCM5402 1000BASE-T media interface
 model BROADCOM BCM5411		0x0007 BCM5411 1000BASE-T media interface
 model BROADCOM BCM5404		0x0008 BCM5404 1000BASE-T media interface
 model BROADCOM BCM5424		0x000a BCM5424/BCM5234 1000BASE-T media interface
 model BROADCOM BCM5464		0x000b BCM5464 1000BASE-T media interface
 model BROADCOM BCM5461		0x000c BCM5461 1000BASE-T media interface
 model BROADCOM BCM5462		0x000d BCM5462 1000BASE-T media interface
 model BROADCOM BCM5421		0x000e BCM5421 1000BASE-T media interface
 model BROADCOM BCM5752		0x0010 BCM5752 1000BASE-T media interface
 model BROADCOM BCM5701		0x0011 BCM5701 1000BASE-T media interface
 model BROADCOM BCM5706		0x0015 BCM5706 1000BASE-T/SX media interface
 model BROADCOM BCM5703		0x0016 BCM5703 1000BASE-T media interface
 model BROADCOM BCM5750		0x0018 BCM5750 1000BASE-T media interface
 model BROADCOM BCM5704		0x0019 BCM5704 1000BASE-T media interface
 model BROADCOM BCM5705		0x001a BCM5705 1000BASE-T media interface
 model BROADCOM BCM54K2		0x002e BCM54K2 1000BASE-T media interface
 model BROADCOM BCM5714		0x0034 BCM5714 1000BASE-T media interface
 model BROADCOM BCM5780		0x0035 BCM5780 1000BASE-T media interface
 model BROADCOM BCM5708C		0x0036 BCM5708C 1000BASE-T media interface
 model BROADCOM BCM5466		0x003b BCM5466 1000BASE-T media interface
 model BROADCOM2 BCM5325		0x0003 BCM5325 10/100 5-port PHY switch
 model BROADCOM2 BCM5906		0x0004 BCM5906 10/100baseTX media interface
 model BROADCOM2 BCM5478		0x0008 BCM5478 1000BASE-T media interface
 model BROADCOM2 BCM5488		0x0009 BCM5488 1000BASE-T media interface
 model BROADCOM2 BCM5481		0x000a BCM5481 1000BASE-T media interface
 model BROADCOM2 BCM5482		0x000b BCM5482 1000BASE-T media interface
 model BROADCOM2 BCM5755		0x000c BCM5755 1000BASE-T media interface
 model BROADCOM2 BCM5754		0x000e BCM5754/BCM5787 1000BASE-T media interface
 model BROADCOM2 BCM5708S	0x0015 BCM5708S 1000/2500baseSX PHY
 model BROADCOM2 BCM5785		0x0016 BCM5785 1000BASE-T media interface
 model BROADCOM2 BCM5709CAX	0x002c BCM5709CAX 10/100/1000baseT PHY
 model BROADCOM2 BCM5722		0x002d BCM5722 1000BASE-T media interface
 model BROADCOM2 BCM5784		0x003a BCM5784 10/100/1000baseT PHY
 model BROADCOM2 BCM5709C	0x003c BCM5709 10/100/1000baseT PHY
 model BROADCOM2 BCM5761		0x003d BCM5761 10/100/1000baseT PHY
 model BROADCOM2 BCM5709S	0x003f BCM5709S/5720S 1000/2500baseSX PHY
 model BROADCOM3 BCM57780	0x0019 BCM57780 1000BASE-T media interface
 model BROADCOM3 BCM5717C	0x0020 BCM5717C 1000BASE-T media interface
 model BROADCOM3 BCM5719C	0x0022 BCM5719C 1000BASE-T media interface
 model BROADCOM3 BCM57765	0x0024 BCM57765 1000BASE-T media interface
 model BROADCOM3 BCM5720C	0x0036 BCM5720C 1000BASE-T media interface
 model BROADCOM4 BCM5725C	0x0038 BCM5725C 1000BASE-T media interface
 model xxBROADCOM_ALT1 BCM5906	0x0004 BCM5906 10/100baseTX media interface
 
 /* Cicada Semiconductor PHYs (now owned by Vitesse?) */
 model xxCICADA CS8201		0x0001 Cicada CS8201 10/100/1000TX PHY
 model xxCICADA CS8204		0x0004 Cicada CS8204 10/100/1000TX PHY
 model xxCICADA VSC8211		0x000b Cicada VSC8211 10/100/1000TX PHY
 model xxCICADA VSC8221		0x0015 Cicada CS8201 10/100/1000TX PHY
 model xxCICADA CS8201A		0x0020 Cicada CS8201 10/100/1000TX PHY
 model xxCICADA CS8201B		0x0021 Cicada CS8201 10/100/1000TX PHY
 model xxCICADA CS8244		0x002c Cicada CS8244 10/100/1000TX PHY
 model xxVITESSE VSC8601		0x0002 Vitesse VSC8601 10/100/1000TX PHY
 
 /* Davicom Semiconductor PHYs */
 /* AMD Am79C873 seems to be a relabeled DM9101 */
 model xxDAVICOM DM9101		0x0000 DM9101 (AMD Am79C873) 10/100 media interface
 model xxDAVICOM DM9102		0x0004 DM9102 10/100 media interface
 model yyDAVICOM DM9101		0x0000 DM9101 10/100 media interface
 
 /* IC Plus Corp. PHYs */
 model xxICPLUS IP101		0x0005 IP101 10/100 PHY
 model xxICPLUS IP1000A		0x0008 IP100A 10/100/1000 media interface
 model xxICPLUS IP1001		0x0019 IP1001 10/100/1000 media interface
 
 /* Integrated Circuit Systems PHYs */
 model ICS 1889			0x0001 ICS1889 10/100 media interface
 model ICS 1890			0x0002 ICS1890 10/100 media interface
 model ICS 1892			0x0003 ICS1892 10/100 media interface
 model ICS 1893			0x0004 ICS1893 10/100 media interface
 
 /* Intel Corporation PHYs */
 model xxINTEL I82553		0x0000 i82553 10/100 media interface
 model yyINTEL I82555		0x0015 i82555 10/100 media interface
 model yyINTEL I82562EH		0x0017 i82562EH HomePNA interface
 model yyINTEL I82562G		0x0031 i82562G 10/100 media interface
 model yyINTEL I82562EM		0x0032 i82562EM 10/100 media interface
 model yyINTEL I82562ET		0x0033 i82562ET 10/100 media interface
 model yyINTEL I82553		0x0035 i82553 10/100 media interface
 model yyINTEL I82566		0x0039 i82566 10/100/1000 media interface
 model INTEL I82577		0x0005 i82577 10/100/1000 media interface
 model INTEL I82579		0x0009 i82579 10/100/1000 media interface
 model xxMARVELL I82563		0x000a i82563 10/100/1000 media interface
 
 model yyINTEL IGP01E1000	0x0038 Intel IGP01E1000 Gigabit PHY
 
 /* Jato Technologies PHYs */
 model xxJATO BASEX		0x0000 Jato 1000baseX media interface
 
 /* JMicron Technologies PHYs */
 model JMICRON JMP211		0x0021 JMP211 10/100/1000 media interface
 model JMICRON JMP202		0x0022 JMP202 10/100 media interface
 
 /* Level 1 PHYs */
 model xxLEVEL1 LXT970		0x0000 LXT970 10/100 media interface
 model LEVEL1 LXT971		0x000e LXT971/2 10/100 media interface
 model LEVEL1 LXT973		0x0021 LXT973 10/100 Dual PHY
 model LEVEL1 LXT974		0x0004 LXT974 10/100 Quad PHY
 model LEVEL1 LXT975		0x0005 LXT975 10/100 Quad PHY
 model LEVEL1 LXT1000_OLD	0x0003 LXT1000 1000BASE-T media interface
 model LEVEL1 LXT1000		0x000c LXT1000 1000BASE-T media interface
 
 /* Marvell Semiconductor PHYs */
 model xxMARVELL E1000		0x0000 Marvell 88E1000 Gigabit PHY
 model xxMARVELL E1011		0x0002 Marvell 88E1011 Gigabit PHY
 model xxMARVELL E1000_3		0x0003 Marvell 88E1000 Gigabit PHY
 model xxMARVELL E1000S		0x0004 Marvell 88E1000S Gigabit PHY
 model xxMARVELL E1000_5		0x0005 Marvell 88E1000 Gigabit PHY
 model xxMARVELL E1101		0x0006 Marvell 88E1101 Gigabit PHY
 model xxMARVELL E3082		0x0008 Marvell 88E3082 10/100 Fast Ethernet PHY
 model xxMARVELL E1112		0x0009 Marvell 88E1112 Gigabit PHY
 model xxMARVELL E1149		0x000b Marvell 88E1149 Gigabit PHY
 model xxMARVELL E1111		0x000c Marvell 88E1111 Gigabit PHY
 model xxMARVELL E1145		0x000d Marvell 88E1145 Quad Gigabit PHY
 model xxMARVELL E1116		0x0021 Marvell 88E1116 Gigabit PHY
 model xxMARVELL E1116R		0x0024 Marvell 88E1116R Gigabit PHY
 model xxMARVELL E1118		0x0022 Marvell 88E1118 Gigabit PHY
 model xxMARVELL E1149R		0x0025 Marvell 88E1149R Quad Gigabit PHY
 model xxMARVELL E3016		0x0026 Marvell 88E3016 10/100 Fast Ethernet PHY
 model xxMARVELL PHYG65G		0x0027 Marvell PHYG65G Gigabit PHY
 model xxMARVELL E1116R_29	0x0029 Marvell 88E1116R Gigabit PHY
 model MARVELL E1000		0x0005 Marvell 88E1000 Gigabit PHY
 model MARVELL E1011		0x0002 Marvell 88E1011 Gigabit PHY
 model MARVELL E1000_3		0x0003 Marvell 88E1000 Gigabit PHY
 model MARVELL E1000_5		0x0005 Marvell 88E1000 Gigabit PHY
 model MARVELL E1111		0x000c Marvell 88E1111 Gigabit PHY
 
 /* Micrel PHYs */
 model MICREL KSZ9021		0x0021 Micrel KSZ9021 10/100/1000 PHY
 model MICREL KSZ9031		0x0022 Micrel KSZ9031 10/100/1000 PHY
 
 /* Myson Technology PHYs */
 model xxMYSON MTD972		0x0000 MTD972 10/100 media interface
 model MYSON MTD803		0x0000 MTD803 3-in-1 media interface
 
 /* National Semiconductor PHYs */
 model xxNATSEMI DP83840		0x0000 DP83840 10/100 media interface
 model xxNATSEMI DP83843		0x0001 DP83843 10/100 media interface
 model xxNATSEMI DP83815		0x0002 DP83815 10/100 media interface
 model xxNATSEMI DP83847		0x0003 DP83847 10/100 media interface
 model xxNATSEMI DP83891		0x0005 DP83891 1000BASE-T media interface
 model xxNATSEMI DP83861		0x0006 DP83861 1000BASE-T media interface
 model xxNATSEMI DP83865		0x0007 DP83865 1000BASE-T media interface
 model xxNATSEMI DP83849		0x000a DP83849 10/100 media interface
 
 /* PMC Sierra PHYs */
 model xxPMCSIERRA PM8351	0x0000 PM8351 OctalPHY Gigabit interface
 model xxPMCSIERRA2 PM8352	0x0002 PM8352 OctalPHY Gigabit interface
 model xxPMCSIERRA2 PM8353	0x0003 PM8353 QuadPHY Gigabit interface
 model PMCSIERRA PM8354		0x0004 PM8354 QuadPHY Gigabit interface
 
 /* Quality Semiconductor PHYs */
 model xxQUALSEMI QS6612		0x0000 QS6612 10/100 media interface
 
 /* RDC Semiconductor PHYs */
 model RDC R6040			0x0003 R6040 10/100 media interface
 
 /* RealTek Semicondctor PHYs */
 model yyREALTEK RTL8201L	0x0020 RTL8201L 10/100 media interface
 model xxREALTEK RTL8169S	0x0011 RTL8169S/8110S/8211 1000BASE-T media interface
 model REALTEK RTL8305SC		0x0005 RTL8305SC 10/100 802.1q switch
 model REALTEK RTL8201E		0x0008 RTL8201E 10/100 media interface
-model REALTEK RTL8251		0x0000 RTL8251 1000BASE-T media interface
+model REALTEK RTL8251		0x0000 RTL8251/8153 1000BASE-T media interface
 model REALTEK RTL8169S		0x0011 RTL8169S/8110S/8211 1000BASE-T media interface
 
 /* Seeq Seeq PHYs */
 model SEEQ 80220		0x0003 Seeq 80220 10/100 media interface
 model SEEQ 84220		0x0004 Seeq 84220 10/100 media interface
 model SEEQ 80225		0x0008 Seeq 80225 10/100 media interface
 
 /* Silicon Integrated Systems PHYs */
 model SIS 900			0x0000 SiS 900 10/100 media interface
 
 /* Texas Instruments PHYs */
 model TI TLAN10T		0x0001 ThunderLAN 10BASE-T media interface
 model TI 100VGPMI		0x0002 ThunderLAN 100VG-AnyLan media interface
 model TI TNETE2101		0x0003 TNETE2101 media interface
 
 /* TDK Semiconductor PHYs */
 model xxTSC 78Q2120		0x0014 78Q2120 10/100 media interface
 model xxTSC 78Q2121		0x0015 78Q2121 100BASE-TX media interface
 
 /* Vitesse Semiconductor */
 model xxVITESSE VSC8641		0x0003 Vitesse VSC8641 10/100/1000TX PHY
 
 /* XaQti Corp. PHYs */
 model xxXAQTI XMACII		0x0000 XaQti Corp. XMAC II gigabit interface
 
 /* SMC */
 model SMC LAN8710A		0x000F SMC LAN8710A 10/100 interface
 model SMC LAN8700		0x000C SMC LAN8700  10/100 interface
Index: head/sys/dev/mii/rgephy.c
===================================================================
--- head/sys/dev/mii/rgephy.c	(revision 308120)
+++ head/sys/dev/mii/rgephy.c	(revision 308121)
@@ -1,576 +1,584 @@
 /*-
  * Copyright (c) 2003
  *	Bill Paul <wpaul@windriver.com>.  All rights reserved.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  * 3. All advertising materials mentioning features or use of this software
  *    must display the following acknowledgement:
  *	This product includes software developed by Bill Paul.
  * 4. Neither the name of the author nor the names of any co-contributors
  *    may be used to endorse or promote products derived from this software
  *    without specific prior written permission.
  *
  * THIS SOFTWARE IS PROVIDED BY Bill Paul AND CONTRIBUTORS ``AS IS'' AND
  * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
  * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
  * ARE DISCLAIMED.  IN NO EVENT SHALL Bill Paul OR THE VOICES IN HIS HEAD
  * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
  * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
  * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
  * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
  * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
  * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF
  * THE POSSIBILITY OF SUCH DAMAGE.
  */
 
 #include <sys/cdefs.h>
 __FBSDID("$FreeBSD$");
 
 /*
  * Driver for the RealTek 8169S/8110S/8211B/8211C internal 10/100/1000 PHY.
  */
 
 #include <sys/param.h>
 #include <sys/systm.h>
 #include <sys/kernel.h>
 #include <sys/module.h>
 #include <sys/socket.h>
 #include <sys/taskqueue.h>
 #include <sys/bus.h>
 
 #include <net/if.h>
 #include <net/if_var.h>
 #include <net/if_arp.h>
 #include <net/if_media.h>
 
 #include <dev/mii/mii.h>
 #include <dev/mii/miivar.h>
 #include "miidevs.h"
 
 #include <dev/mii/rgephyreg.h>
 
 #include "miibus_if.h"
 
 #include <machine/bus.h>
 #include <dev/rl/if_rlreg.h>
 
 static int rgephy_probe(device_t);
 static int rgephy_attach(device_t);
 
 static device_method_t rgephy_methods[] = {
 	/* device interface */
 	DEVMETHOD(device_probe,		rgephy_probe),
 	DEVMETHOD(device_attach,	rgephy_attach),
 	DEVMETHOD(device_detach,	mii_phy_detach),
 	DEVMETHOD(device_shutdown,	bus_generic_shutdown),
 	DEVMETHOD_END
 };
 
 static devclass_t rgephy_devclass;
 
 static driver_t rgephy_driver = {
 	"rgephy",
 	rgephy_methods,
 	sizeof(struct mii_softc)
 };
 
 DRIVER_MODULE(rgephy, miibus, rgephy_driver, rgephy_devclass, 0, 0);
 
 static int	rgephy_service(struct mii_softc *, struct mii_data *, int);
 static void	rgephy_status(struct mii_softc *);
 static int	rgephy_mii_phy_auto(struct mii_softc *, int);
 static void	rgephy_reset(struct mii_softc *);
 static int	rgephy_linkup(struct mii_softc *);
 static void	rgephy_loop(struct mii_softc *);
 static void	rgephy_load_dspcode(struct mii_softc *);
 static void	rgephy_disable_eee(struct mii_softc *);
 
 static const struct mii_phydesc rgephys[] = {
 	MII_PHY_DESC(REALTEK, RTL8169S),
 	MII_PHY_DESC(REALTEK, RTL8251),
 	MII_PHY_END
 };
 
 static const struct mii_phy_funcs rgephy_funcs = {
 	rgephy_service,
 	rgephy_status,
 	rgephy_reset
 };
 
 static int
 rgephy_probe(device_t dev)
 {
 
 	return (mii_phy_dev_probe(dev, rgephys, BUS_PROBE_DEFAULT));
 }
 
 static int
 rgephy_attach(device_t dev)
 {
 	struct mii_softc *sc;
 	u_int flags;
 
 	sc = device_get_softc(dev);
 	flags = 0;
 	if (mii_dev_mac_match(dev, "re"))
 		flags |= MIIF_PHYPRIV0;
+	else if (mii_dev_mac_match(dev, "ure"))
+		flags |= MIIF_PHYPRIV1;
 	mii_phy_dev_attach(dev, flags, &rgephy_funcs, 0);
 
 	/* RTL8169S do not report auto-sense; add manually. */
 	sc->mii_capabilities = (PHY_READ(sc, MII_BMSR) | BMSR_ANEG) &
 	    sc->mii_capmask;
 	if (sc->mii_capabilities & BMSR_EXTSTAT)
 		sc->mii_extcapabilities = PHY_READ(sc, MII_EXTSR);
 	device_printf(dev, " ");
 	mii_phy_add_media(sc);
 	printf("\n");
 	/*
 	 * Allow IFM_FLAG0 to be set indicating that auto-negotiation with
 	 * manual configuration, which is used to work around issues with
 	 * certain setups by default, should not be triggered as it may in
 	 * turn cause harm in some edge cases.
 	 */
 	sc->mii_pdata->mii_media.ifm_mask |= IFM_FLAG0;
 
 	PHY_RESET(sc);
 
 	MIIBUS_MEDIAINIT(sc->mii_dev);
 	return (0);
 }
 
 static int
 rgephy_service(struct mii_softc *sc, struct mii_data *mii, int cmd)
 {
 	struct ifmedia_entry *ife = mii->mii_media.ifm_cur;
 	int speed, gig, anar;
 
 	switch (cmd) {
 	case MII_POLLSTAT:
 		break;
 
 	case MII_MEDIACHG:
 		PHY_RESET(sc);	/* XXX hardware bug work-around */
 
 		anar = PHY_READ(sc, RGEPHY_MII_ANAR);
 		anar &= ~(RGEPHY_ANAR_PC | RGEPHY_ANAR_ASP |
 		    RGEPHY_ANAR_TX_FD | RGEPHY_ANAR_TX |
 		    RGEPHY_ANAR_10_FD | RGEPHY_ANAR_10);
 
 		switch (IFM_SUBTYPE(ife->ifm_media)) {
 		case IFM_AUTO:
 #ifdef foo
 			/*
 			 * If we're already in auto mode, just return.
 			 */
 			if (PHY_READ(sc, RGEPHY_MII_BMCR) & RGEPHY_BMCR_AUTOEN)
 				return (0);
 #endif
 			(void)rgephy_mii_phy_auto(sc, ife->ifm_media);
 			break;
 		case IFM_1000_T:
 			speed = RGEPHY_S1000;
 			goto setit;
 		case IFM_100_TX:
 			speed = RGEPHY_S100;
 			anar |= RGEPHY_ANAR_TX_FD | RGEPHY_ANAR_TX;
 			goto setit;
 		case IFM_10_T:
 			speed = RGEPHY_S10;
 			anar |= RGEPHY_ANAR_10_FD | RGEPHY_ANAR_10;
 setit:
 			if ((ife->ifm_media & IFM_FLOW) != 0 &&
 			    (mii->mii_media.ifm_media & IFM_FLAG0) != 0)
 				return (EINVAL);
 
 			if ((ife->ifm_media & IFM_FDX) != 0) {
 				speed |= RGEPHY_BMCR_FDX;
 				gig = RGEPHY_1000CTL_AFD;
 				anar &= ~(RGEPHY_ANAR_TX | RGEPHY_ANAR_10);
 				if ((ife->ifm_media & IFM_FLOW) != 0 ||
 				    (sc->mii_flags & MIIF_FORCEPAUSE) != 0)
 					anar |=
 					    RGEPHY_ANAR_PC | RGEPHY_ANAR_ASP;
 			} else {
 				gig = RGEPHY_1000CTL_AHD;
 				anar &=
 				    ~(RGEPHY_ANAR_TX_FD | RGEPHY_ANAR_10_FD);
 			}
 			if (IFM_SUBTYPE(ife->ifm_media) == IFM_1000_T) {
 				gig |= RGEPHY_1000CTL_MSE;
 				if ((ife->ifm_media & IFM_ETH_MASTER) != 0)
 				    gig |= RGEPHY_1000CTL_MSC;
 			} else {
 				gig = 0;
 				anar &= ~RGEPHY_ANAR_ASP;
 			}
 			if ((mii->mii_media.ifm_media & IFM_FLAG0) == 0)
 				speed |=
 				    RGEPHY_BMCR_AUTOEN | RGEPHY_BMCR_STARTNEG;
 			rgephy_loop(sc);
 			PHY_WRITE(sc, RGEPHY_MII_1000CTL, gig);
 			PHY_WRITE(sc, RGEPHY_MII_ANAR, anar);
 			PHY_WRITE(sc, RGEPHY_MII_BMCR, speed);
 			break;
 		case IFM_NONE:
 			PHY_WRITE(sc, MII_BMCR, BMCR_ISO | BMCR_PDOWN);
 			break;
 		default:
 			return (EINVAL);
 		}
 		break;
 
 	case MII_TICK:
 		/*
 		 * Only used for autonegotiation.
 		 */
 		if (IFM_SUBTYPE(ife->ifm_media) != IFM_AUTO) {
 			sc->mii_ticks = 0;
 			break;
 		}
 
 		/*
 		 * Check to see if we have link.  If we do, we don't
 		 * need to restart the autonegotiation process.
 		 */
 		if (rgephy_linkup(sc) != 0) {
 			sc->mii_ticks = 0;
 			break;
 		}
 
 		/* Announce link loss right after it happens. */
 		if (sc->mii_ticks++ == 0)
 			break;
 
 		/* Only retry autonegotiation every mii_anegticks seconds. */
 		if (sc->mii_ticks <= sc->mii_anegticks)
 			return (0);
 
 		sc->mii_ticks = 0;
 		rgephy_mii_phy_auto(sc, ife->ifm_media);
 		break;
 	}
 
 	/* Update the media status. */
 	PHY_STATUS(sc);
 
 	/*
 	 * Callback if something changed. Note that we need to poke
 	 * the DSP on the RealTek PHYs if the media changes.
 	 *
 	 */
 	if (sc->mii_media_active != mii->mii_media_active ||
 	    sc->mii_media_status != mii->mii_media_status ||
 	    cmd == MII_MEDIACHG) {
 		rgephy_load_dspcode(sc);
 	}
 	mii_phy_update(sc, cmd);
 	return (0);
 }
 
 static int
 rgephy_linkup(struct mii_softc *sc)
 {
 	int linkup;
 	uint16_t reg;
 
 	linkup = 0;
 	if ((sc->mii_flags & MIIF_PHYPRIV0) == 0 &&
 	    sc->mii_mpd_rev >= RGEPHY_8211B) {
 		if (sc->mii_mpd_rev == RGEPHY_8211F) {
 			reg = PHY_READ(sc, RGEPHY_F_MII_SSR);
 			if (reg & RGEPHY_F_SSR_LINK)
 				linkup++;
 		} else {
 			reg = PHY_READ(sc, RGEPHY_MII_SSR);
 			if (reg & RGEPHY_SSR_LINK)
 				linkup++;
 		}
 	} else {
-		reg = PHY_READ(sc, RL_GMEDIASTAT);
+		if (sc->mii_flags & MIIF_PHYPRIV1)
+			reg = PHY_READ(sc, URE_GMEDIASTAT);
+		else
+			reg = PHY_READ(sc, RL_GMEDIASTAT);
 		if (reg & RL_GMEDIASTAT_LINK)
 			linkup++;
 	}
 
 	return (linkup);
 }
 
 static void
 rgephy_status(struct mii_softc *sc)
 {
 	struct mii_data *mii = sc->mii_pdata;
 	int bmsr, bmcr;
 	uint16_t ssr;
 
 	mii->mii_media_status = IFM_AVALID;
 	mii->mii_media_active = IFM_ETHER;
 
 	if (rgephy_linkup(sc) != 0)
 		mii->mii_media_status |= IFM_ACTIVE;
 
 	bmsr = PHY_READ(sc, RGEPHY_MII_BMSR);
 	bmcr = PHY_READ(sc, RGEPHY_MII_BMCR);
 	if (bmcr & RGEPHY_BMCR_ISO) {
 		mii->mii_media_active |= IFM_NONE;
 		mii->mii_media_status = 0;
 		return;
 	}
 
 	if (bmcr & RGEPHY_BMCR_LOOP)
 		mii->mii_media_active |= IFM_LOOP;
 
 	if (bmcr & RGEPHY_BMCR_AUTOEN) {
 		if ((bmsr & RGEPHY_BMSR_ACOMP) == 0) {
 			/* Erg, still trying, I guess... */
 			mii->mii_media_active |= IFM_NONE;
 			return;
 		}
 	}
 
 	if ((sc->mii_flags & MIIF_PHYPRIV0) == 0 &&
 	    sc->mii_mpd_rev >= RGEPHY_8211B) {
 		if (sc->mii_mpd_rev == RGEPHY_8211F) {
 			ssr = PHY_READ(sc, RGEPHY_F_MII_SSR);
 			switch (ssr & RGEPHY_F_SSR_SPD_MASK) {
 			case RGEPHY_F_SSR_S1000:
 				mii->mii_media_active |= IFM_1000_T;
 				break;
 			case RGEPHY_F_SSR_S100:
 				mii->mii_media_active |= IFM_100_TX;
 				break;
 			case RGEPHY_F_SSR_S10:
 				mii->mii_media_active |= IFM_10_T;
 				break;
 			default:
 				mii->mii_media_active |= IFM_NONE;
 				break;
 			}
 			if (ssr & RGEPHY_F_SSR_FDX)
 				mii->mii_media_active |= IFM_FDX;
 			else
 				mii->mii_media_active |= IFM_HDX;
 
 		} else {
 			ssr = PHY_READ(sc, RGEPHY_MII_SSR);
 			switch (ssr & RGEPHY_SSR_SPD_MASK) {
 			case RGEPHY_SSR_S1000:
 				mii->mii_media_active |= IFM_1000_T;
 				break;
 			case RGEPHY_SSR_S100:
 				mii->mii_media_active |= IFM_100_TX;
 				break;
 			case RGEPHY_SSR_S10:
 				mii->mii_media_active |= IFM_10_T;
 				break;
 			default:
 				mii->mii_media_active |= IFM_NONE;
 				break;
 			}
 			if (ssr & RGEPHY_SSR_FDX)
 				mii->mii_media_active |= IFM_FDX;
 			else
 				mii->mii_media_active |= IFM_HDX;
 		}
 	} else {
-		bmsr = PHY_READ(sc, RL_GMEDIASTAT);
+		if (sc->mii_flags & MIIF_PHYPRIV1)
+			bmsr = PHY_READ(sc, URE_GMEDIASTAT);
+		else
+			bmsr = PHY_READ(sc, RL_GMEDIASTAT);
 		if (bmsr & RL_GMEDIASTAT_1000MBPS)
 			mii->mii_media_active |= IFM_1000_T;
 		else if (bmsr & RL_GMEDIASTAT_100MBPS)
 			mii->mii_media_active |= IFM_100_TX;
 		else if (bmsr & RL_GMEDIASTAT_10MBPS)
 			mii->mii_media_active |= IFM_10_T;
 		else
 			mii->mii_media_active |= IFM_NONE;
 		if (bmsr & RL_GMEDIASTAT_FDX)
 			mii->mii_media_active |= IFM_FDX;
 		else
 			mii->mii_media_active |= IFM_HDX;
 	}
 
 	if ((mii->mii_media_active & IFM_FDX) != 0)
 		mii->mii_media_active |= mii_phy_flowstatus(sc);
 
 	if ((IFM_SUBTYPE(mii->mii_media_active) == IFM_1000_T) &&
 	    (PHY_READ(sc, RGEPHY_MII_1000STS) & RGEPHY_1000STS_MSR) != 0)
 		mii->mii_media_active |= IFM_ETH_MASTER;
 }
 
 static int
 rgephy_mii_phy_auto(struct mii_softc *sc, int media)
 {
 	int anar;
 
 	rgephy_loop(sc);
 	PHY_RESET(sc);
 
 	anar = BMSR_MEDIA_TO_ANAR(sc->mii_capabilities) | ANAR_CSMA;
 	if ((media & IFM_FLOW) != 0 || (sc->mii_flags & MIIF_FORCEPAUSE) != 0)
 		anar |= RGEPHY_ANAR_PC | RGEPHY_ANAR_ASP;
 	PHY_WRITE(sc, RGEPHY_MII_ANAR, anar);
 	DELAY(1000);
 	PHY_WRITE(sc, RGEPHY_MII_1000CTL,
 	    RGEPHY_1000CTL_AHD | RGEPHY_1000CTL_AFD);
 	DELAY(1000);
 	PHY_WRITE(sc, RGEPHY_MII_BMCR,
 	    RGEPHY_BMCR_AUTOEN | RGEPHY_BMCR_STARTNEG);
 	DELAY(100);
 
 	return (EJUSTRETURN);
 }
 
 static void
 rgephy_loop(struct mii_softc *sc)
 {
 	int i;
 
 	if (sc->mii_mpd_model != MII_MODEL_REALTEK_RTL8251 &&
 	    sc->mii_mpd_rev < RGEPHY_8211B) {
 		PHY_WRITE(sc, RGEPHY_MII_BMCR, RGEPHY_BMCR_PDOWN);
 		DELAY(1000);
 	}
 
 	for (i = 0; i < 15000; i++) {
 		if (!(PHY_READ(sc, RGEPHY_MII_BMSR) & RGEPHY_BMSR_LINK)) {
 #if 0
 			device_printf(sc->mii_dev, "looped %d\n", i);
 #endif
 			break;
 		}
 		DELAY(10);
 	}
 }
 
 #define PHY_SETBIT(x, y, z) \
 	PHY_WRITE(x, y, (PHY_READ(x, y) | (z)))
 #define PHY_CLRBIT(x, y, z) \
 	PHY_WRITE(x, y, (PHY_READ(x, y) & ~(z)))
 
 /*
  * Initialize RealTek PHY per the datasheet. The DSP in the PHYs of
  * existing revisions of the 8169S/8110S chips need to be tuned in
  * order to reliably negotiate a 1000Mbps link. This is only needed
  * for rev 0 and rev 1 of the PHY. Later versions work without
  * any fixups.
  */
 static void
 rgephy_load_dspcode(struct mii_softc *sc)
 {
 	int val;
 
 	if (sc->mii_mpd_model == MII_MODEL_REALTEK_RTL8251 ||
 	    sc->mii_mpd_rev >= RGEPHY_8211B)
 		return;
 
 	PHY_WRITE(sc, 31, 0x0001);
 	PHY_WRITE(sc, 21, 0x1000);
 	PHY_WRITE(sc, 24, 0x65C7);
 	PHY_CLRBIT(sc, 4, 0x0800);
 	val = PHY_READ(sc, 4) & 0xFFF;
 	PHY_WRITE(sc, 4, val);
 	PHY_WRITE(sc, 3, 0x00A1);
 	PHY_WRITE(sc, 2, 0x0008);
 	PHY_WRITE(sc, 1, 0x1020);
 	PHY_WRITE(sc, 0, 0x1000);
 	PHY_SETBIT(sc, 4, 0x0800);
 	PHY_CLRBIT(sc, 4, 0x0800);
 	val = (PHY_READ(sc, 4) & 0xFFF) | 0x7000;
 	PHY_WRITE(sc, 4, val);
 	PHY_WRITE(sc, 3, 0xFF41);
 	PHY_WRITE(sc, 2, 0xDE60);
 	PHY_WRITE(sc, 1, 0x0140);
 	PHY_WRITE(sc, 0, 0x0077);
 	val = (PHY_READ(sc, 4) & 0xFFF) | 0xA000;
 	PHY_WRITE(sc, 4, val);
 	PHY_WRITE(sc, 3, 0xDF01);
 	PHY_WRITE(sc, 2, 0xDF20);
 	PHY_WRITE(sc, 1, 0xFF95);
 	PHY_WRITE(sc, 0, 0xFA00);
 	val = (PHY_READ(sc, 4) & 0xFFF) | 0xB000;
 	PHY_WRITE(sc, 4, val);
 	PHY_WRITE(sc, 3, 0xFF41);
 	PHY_WRITE(sc, 2, 0xDE20);
 	PHY_WRITE(sc, 1, 0x0140);
 	PHY_WRITE(sc, 0, 0x00BB);
 	val = (PHY_READ(sc, 4) & 0xFFF) | 0xF000;
 	PHY_WRITE(sc, 4, val);
 	PHY_WRITE(sc, 3, 0xDF01);
 	PHY_WRITE(sc, 2, 0xDF20);
 	PHY_WRITE(sc, 1, 0xFF95);
 	PHY_WRITE(sc, 0, 0xBF00);
 	PHY_SETBIT(sc, 4, 0x0800);
 	PHY_CLRBIT(sc, 4, 0x0800);
 	PHY_WRITE(sc, 31, 0x0000);
 
 	DELAY(40);
 }
 
 static void
 rgephy_reset(struct mii_softc *sc)
 {
 	uint16_t pcr, ssr;
 
 	switch (sc->mii_mpd_rev) {
 	case RGEPHY_8211F:
 		pcr = PHY_READ(sc, RGEPHY_F_MII_PCR1);
 		pcr &= ~(RGEPHY_F_PCR1_MDI_MM | RGEPHY_F_PCR1_ALDPS_EN);
 		PHY_WRITE(sc, RGEPHY_F_MII_PCR1, pcr);
 		rgephy_disable_eee(sc);
 		break;
 	case RGEPHY_8211C:
 		if ((sc->mii_flags & MIIF_PHYPRIV0) == 0) {
 			/* RTL8211C(L) */
 			ssr = PHY_READ(sc, RGEPHY_MII_SSR);
 			if ((ssr & RGEPHY_SSR_ALDPS) != 0) {
 				ssr &= ~RGEPHY_SSR_ALDPS;
 				PHY_WRITE(sc, RGEPHY_MII_SSR, ssr);
 			}
 		}
 		/* FALLTHROUGH */
 	default:
 		if (sc->mii_mpd_rev >= RGEPHY_8211B) {
 			pcr = PHY_READ(sc, RGEPHY_MII_PCR);
 			if ((pcr & RGEPHY_PCR_MDIX_AUTO) == 0) {
 				pcr &= ~RGEPHY_PCR_MDI_MASK;
 				pcr |= RGEPHY_PCR_MDIX_AUTO;
 				PHY_WRITE(sc, RGEPHY_MII_PCR, pcr);
 			}
 		}
 		break;
 	}
 
 	mii_phy_reset(sc);
 	DELAY(1000);
 	rgephy_load_dspcode(sc);
 }
 
 static void
 rgephy_disable_eee(struct mii_softc *sc)
 {
 	uint16_t anar;
 
 	PHY_WRITE(sc, RGEPHY_F_EPAGSR, 0x0000);
 	PHY_WRITE(sc, MII_MMDACR, MMDACR_FN_ADDRESS |
 	    (MMDACR_DADDRMASK & RGEPHY_F_MMD_DEV_7));
 	PHY_WRITE(sc, MII_MMDAADR, RGEPHY_F_MMD_EEEAR);
 	PHY_WRITE(sc, MII_MMDACR, MMDACR_FN_DATANPI |
 	    (MMDACR_DADDRMASK & RGEPHY_F_MMD_DEV_7));
 	PHY_WRITE(sc, MII_MMDAADR, 0x0000);
 	PHY_WRITE(sc, MII_MMDACR, 0x0000);
 	/*
 	 * XXX
 	 * Restart auto-negotiation to take changes effect.
 	 * This may result in link establishment.
 	 */
 	anar = BMSR_MEDIA_TO_ANAR(sc->mii_capabilities) | ANAR_CSMA;
 	PHY_WRITE(sc, RGEPHY_MII_ANAR, anar);
 	PHY_WRITE(sc, RGEPHY_MII_1000CTL, RGEPHY_1000CTL_AHD |
 	    RGEPHY_1000CTL_AFD);
 	PHY_WRITE(sc, RGEPHY_MII_BMCR, RGEPHY_BMCR_RESET |
 	    RGEPHY_BMCR_AUTOEN | RGEPHY_BMCR_STARTNEG);
 }
Index: head/sys/dev/mii/rgephyreg.h
===================================================================
--- head/sys/dev/mii/rgephyreg.h	(revision 308120)
+++ head/sys/dev/mii/rgephyreg.h	(revision 308121)
@@ -1,202 +1,205 @@
 /*-
  * Copyright (c) 2003
  *	Bill Paul <wpaul@windriver.com>.  All rights reserved.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  * 3. All advertising materials mentioning features or use of this software
  *    must display the following acknowledgement:
  *	This product includes software developed by Bill Paul.
  * 4. Neither the name of the author nor the names of any co-contributors
  *    may be used to endorse or promote products derived from this software
  *    without specific prior written permission.
  *
  * THIS SOFTWARE IS PROVIDED BY Bill Paul AND CONTRIBUTORS ``AS IS'' AND
  * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
  * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
  * ARE DISCLAIMED.  IN NO EVENT SHALL Bill Paul OR THE VOICES IN HIS HEAD
  * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
  * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
  * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
  * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
  * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
  * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF
  * THE POSSIBILITY OF SUCH DAMAGE.
  *
  * $FreeBSD$
  */
 
 #ifndef _DEV_MII_RGEPHYREG_H_
 #define	_DEV_MII_RGEPHYREG_H_
 
 #define	RGEPHY_8211B		2
 #define	RGEPHY_8211C		3
 #define	RGEPHY_8211F		6
 
 /*
  * RealTek 8169S/8110S gigE PHY registers
  */
 
 #define RGEPHY_MII_BMCR		0x00
 #define RGEPHY_BMCR_RESET	0x8000
 #define RGEPHY_BMCR_LOOP	0x4000
 #define RGEPHY_BMCR_SPD0	0x2000	/* speed select, lower bit */
 #define RGEPHY_BMCR_AUTOEN	0x1000	/* Autoneg enabled */
 #define RGEPHY_BMCR_PDOWN	0x0800	/* Power down */
 #define RGEPHY_BMCR_ISO		0x0400	/* Isolate */
 #define RGEPHY_BMCR_STARTNEG	0x0200	/* Restart autoneg */
 #define RGEPHY_BMCR_FDX		0x0100	/* Duplex mode */
 #define RGEPHY_BMCR_CTEST	0x0080	/* Collision test enable */
 #define RGEPHY_BMCR_SPD1	0x0040	/* Speed select, upper bit */
 
 #define RGEPHY_S1000		RGEPHY_BMCR_SPD1	/* 1000mbps */
 #define RGEPHY_S100		RGEPHY_BMCR_SPD0	/* 100mpbs */
 #define RGEPHY_S10		0			/* 10mbps */
 
 #define RGEPHY_MII_BMSR		0x01
 #define RGEPHY_BMSR_100T4	0x8000	/* 100 base T4 capable */
 #define RGEPHY_BMSR_100TXFDX	0x4000	/* 100 base Tx full duplex capable */
 #define RGEPHY_BMSR_100TXHDX	0x2000	/* 100 base Tx half duplex capable */
 #define RGEPHY_BMSR_10TFDX	0x1000	/* 10 base T full duplex capable */
 #define RGEPHY_BMSR_10THDX	0x0800	/* 10 base T half duplex capable */
 #define RGEPHY_BMSR_100T2FDX	0x0400	/* 100 base T2 full duplex capable */
 #define RGEPHY_BMSR_100T2HDX	0x0200	/* 100 base T2 half duplex capable */
 #define RGEPHY_BMSR_EXTSTS	0x0100	/* Extended status present */
 #define RGEPHY_BMSR_PRESUB	0x0040	/* Preamble surpression */
 #define RGEPHY_BMSR_ACOMP	0x0020	/* Autoneg complete */
 #define RGEPHY_BMSR_RFAULT	0x0010	/* Remote fault condition occurred */
 #define RGEPHY_BMSR_ANEG	0x0008	/* Autoneg capable */
 #define RGEPHY_BMSR_LINK	0x0004	/* Link status */
 #define RGEPHY_BMSR_JABBER	0x0002	/* Jabber detected */
 #define RGEPHY_BMSR_EXT		0x0001	/* Extended capability */
 
 #define RGEPHY_MII_ANAR		0x04
 #define RGEPHY_ANAR_NP		0x8000	/* Next page */
 #define RGEPHY_ANAR_RF		0x2000	/* Remote fault */
 #define RGEPHY_ANAR_ASP		0x0800	/* Asymmetric Pause */
 #define RGEPHY_ANAR_PC		0x0400	/* Pause capable */
 #define RGEPHY_ANAR_T4		0x0200	/* local device supports 100bT4 */
 #define RGEPHY_ANAR_TX_FD	0x0100	/* local device supports 100bTx FD */
 #define RGEPHY_ANAR_TX		0x0080	/* local device supports 100bTx */
 #define RGEPHY_ANAR_10_FD	0x0040	/* local device supports 10bT FD */
 #define RGEPHY_ANAR_10		0x0020	/* local device supports 10bT */
 #define RGEPHY_ANAR_SEL		0x001F	/* selector field, 00001=Ethernet */
 
 #define RGEPHY_MII_ANLPAR	0x05
 #define RGEPHY_ANLPAR_NP	0x8000	/* Next page */
 #define RGEPHY_ANLPAR_RF	0x2000	/* Remote fault */
 #define RGEPHY_ANLPAR_ASP	0x0800	/* Asymmetric Pause */
 #define RGEPHY_ANLPAR_PC	0x0400	/* Pause capable */
 #define RGEPHY_ANLPAR_T4	0x0200	/* link partner supports 100bT4 */
 #define RGEPHY_ANLPAR_TX_FD	0x0100	/* link partner supports 100bTx FD */
 #define RGEPHY_ANLPAR_TX	0x0080	/* link partner supports 100bTx */
 #define RGEPHY_ANLPAR_10_FD	0x0040	/* link partner supports 10bT FD */
 #define RGEPHY_ANLPAR_10	0x0020	/* link partner supports 10bT */
 #define RGEPHY_ANLPAR_SEL	0x001F	/* selector field, 00001=Ethernet */
 
 #define RGEPHY_SEL_TYPE		0x0001	/* ethernet */
 
 #define RGEPHY_MII_ANER		0x06
 #define RGEPHY_ANER_PDF		0x0010	/* Parallel detection fault */
 #define RGEPHY_ANER_LPNP	0x0008	/* Link partner can next page */
 #define RGEPHY_ANER_NP		0x0004	/* Local PHY can next page */
 #define RGEPHY_ANER_RX		0x0002	/* Next page received */
 #define RGEPHY_ANER_LPAN	0x0001 	/* Link partner autoneg capable */
 
 #define RGEPHY_MII_NEXTP	0x07	/* Next page */
 
 #define RGEPHY_MII_NEXTP_LP	0x08	/* Next page of link partner */
 
 #define RGEPHY_MII_1000CTL	0x09	/* 1000baseT control */
 #define RGEPHY_1000CTL_TST	0xE000	/* test modes */
 #define RGEPHY_1000CTL_MSE	0x1000	/* Master/Slave manual enable */
 #define RGEPHY_1000CTL_MSC	0x0800	/* Master/Slave select */
 #define RGEPHY_1000CTL_RD	0x0400	/* Repeater/DTE */
 #define RGEPHY_1000CTL_AFD	0x0200	/* Advertise full duplex */
 #define RGEPHY_1000CTL_AHD	0x0100	/* Advertise half duplex */
 
 #define RGEPHY_TEST_TX_JITTER			0x2000
 #define RGEPHY_TEST_TX_JITTER_MASTER_MODE	0x4000
 #define RGEPHY_TEST_TX_JITTER_SLAVE_MODE	0x6000
 #define RGEPHY_TEST_TX_DISTORTION		0x8000
 
 #define RGEPHY_MII_1000STS	0x0A	/* 1000baseT status */
 #define RGEPHY_1000STS_MSF	0x8000	/* Master/slave fault */
 #define RGEPHY_1000STS_MSR	0x4000	/* Master/slave result */
 #define RGEPHY_1000STS_LRS	0x2000	/* Local receiver status */
 #define RGEPHY_1000STS_RRS	0x1000	/* Remote receiver status */
 #define RGEPHY_1000STS_LPFD	0x0800	/* Link partner can FD */
 #define RGEPHY_1000STS_LPHD	0x0400	/* Link partner can HD */
 #define RGEPHY_1000STS_IEC	0x00FF	/* Idle error count */
 
 #define RGEPHY_MII_EXTSTS	0x0F	/* Extended status */
 #define RGEPHY_EXTSTS_X_FD_CAP	0x8000	/* 1000base-X FD capable */
 #define RGEPHY_EXTSTS_X_HD_CAP	0x4000	/* 1000base-X HD capable */
 #define RGEPHY_EXTSTS_T_FD_CAP	0x2000	/* 1000base-T FD capable */
 #define RGEPHY_EXTSTS_T_HD_CAP	0x1000	/* 1000base-T HD capable */
 
 /* RTL8211B(L)/RTL8211C(L) */
 #define RGEPHY_MII_PCR		0x10	/* PHY Specific control register */
 #define RGEPHY_PCR_ASSERT_CRS	0x0800
 #define RGEPHY_PCR_FORCE_LINK	0x0400
 #define RGEPHY_PCR_MDI_MASK	0x0060
 #define RGEPHY_PCR_MDIX_AUTO	0x0040
 #define RGEPHY_PCR_MDIX_MANUAL	0x0020
 #define RGEPHY_PCR_MDI_MANUAL	0x0000
 #define RGEPHY_PCR_CLK125_DIS	0x0010
 #define RGEPHY_PCR_JABBER_DIS	0x0001
 
 /* RTL8211B(L)/RTL8211C(L) */
 #define RGEPHY_MII_SSR		0x11	/* PHY Specific status register */
 #define	RGEPHY_SSR_S1000	0x8000	/* 1000Mbps */
 #define	RGEPHY_SSR_S100		0x4000	/* 100Mbps */
 #define	RGEPHY_SSR_S10		0x0000	/* 10Mbps */
 #define	RGEPHY_SSR_SPD_MASK	0xc000
 #define	RGEPHY_SSR_FDX		0x2000	/* full duplex */
 #define	RGEPHY_SSR_PAGE_RECEIVED	0x1000	/* new page received */
 #define	RGEPHY_SSR_SPD_DPLX_RESOLVED	0x0800	/* speed/duplex resolved */
 #define	RGEPHY_SSR_LINK		0x0400	/* link up */
 #define	RGEPHY_SSR_MDI_XOVER	0x0040	/* MDI crossover */
 #define	RGEPHY_SSR_ALDPS	0x0008	/* RTL8211C(L) only */
 #define	RGEPHY_SSR_JABBER	0x0001	/* Jabber */
 
 /* RTL8211F */
 #define	RGEPHY_F_MII_PCR1	0x18	/* PHY Specific control register 1 */
 #define	RGEPHY_F_PCR1_MDI_MM	0x0200	/* MDI / MDIX Manual Mode */
 #define	RGEPHY_F_PCR1_MDI_MODE	0x0100	/* MDI Mode (0=MDIX,1=MDI) */
 #define	RGEPHY_F_PCR1_ALDPS_EN	0x0004	/* Link Down Power Saving Enable */
 
 /* RTL8211F */
 #define	RGEPHY_F_MII_SSR	0x1A	/* PHY Specific status register */
 #define	RGEPHY_F_SSR_S1000	0x0020	/* 1000Mbps */
 #define	RGEPHY_F_SSR_S100	0x0010	/* 100Mbps */
 #define	RGEPHY_F_SSR_S10	0x0000	/* 10Mbps */
 #define	RGEPHY_F_SSR_SPD_MASK	0x0030
 #define	RGEPHY_F_SSR_FDX	0x0008	/* full duplex */
 #define	RGEPHY_F_SSR_LINK	0x0004	/* link up */
 #define	RGEPHY_F_SSR_MDI	0x0002	/* MDI/MDIX */
 #define	RGEPHY_F_SSR_JABBER	0x0001	/* Jabber */
 
 /* RTL8211F */
 #define	RGEPHY_F_EPAGSR		0x1F	/* Extension page select register */
 
 /* RTL8211F */
 #define	RGEPHY_F_MMD_DEV_7	0x07
 
 /* RTL8211F MMD device 7 */
 #define	RGEPHY_F_MMD_EEEAR	0x3C	/* EEE advertisement */
 #define	EEEAR_1000T		0x0004	/* adv. 1000baseT EEE */
 #define	EEEAR_100TX		0x0002	/* adv. 100baseTX EEE */
 
 /* RTL8211F MMD device 7 */
 #define	RGEPHY_F_MMD_EEELPAR	0x3D	/* EEE link partner abilities */
 #define	EEELPAR_1000T		0x0004	/* link partner 1000baseT EEE capable */
 #define	EEELPAR_100TX		0x0002	/* link partner 100baseTX EEE capable */
 
+/* RTL8153 */
+#define	URE_GMEDIASTAT		0xe908	/* media status register */
+
 #endif /* _DEV_RGEPHY_MIIREG_H_ */
Index: head/sys/dev/usb/net/if_ure.c
===================================================================
--- head/sys/dev/usb/net/if_ure.c	(revision 308120)
+++ head/sys/dev/usb/net/if_ure.c	(revision 308121)
@@ -1,1070 +1,1257 @@
 /*-
- * Copyright (c) 2015 Kevin Lo <kevlo@FreeBSD.org>
+ * Copyright (c) 2015-2016 Kevin Lo <kevlo@FreeBSD.org>
  * All rights reserved.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  *
  * THIS SOFTWARE IS PROVIDED BY THE AUTHOR AND CONTRIBUTORS ``AS IS'' AND
  * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
  * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
  * ARE DISCLAIMED.  IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE
  * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
  * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
  * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
  * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
  * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
  * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
  * SUCH DAMAGE.
  */
 
 #include <sys/cdefs.h>
 __FBSDID("$FreeBSD$");
 
 #include <sys/param.h>
 #include <sys/systm.h>
 #include <sys/bus.h>
 #include <sys/condvar.h>
 #include <sys/kernel.h>
 #include <sys/lock.h>
 #include <sys/module.h>
 #include <sys/mutex.h>
 #include <sys/socket.h>
 #include <sys/sysctl.h>
 #include <sys/unistd.h>
 
 #include <net/if.h>
 #include <net/if_var.h>
 
 #include <dev/usb/usb.h>
 #include <dev/usb/usbdi.h>
 #include <dev/usb/usbdi_util.h>
 #include "usbdevs.h"
 
 #define USB_DEBUG_VAR	ure_debug
 #include <dev/usb/usb_debug.h>
 #include <dev/usb/usb_process.h>
 
 #include <dev/usb/net/usb_ethernet.h>
 #include <dev/usb/net/if_urereg.h>
 
 #ifdef USB_DEBUG
 static int ure_debug = 0;
 
 static SYSCTL_NODE(_hw_usb, OID_AUTO, ure, CTLFLAG_RW, 0, "USB ure");
 SYSCTL_INT(_hw_usb_ure, OID_AUTO, debug, CTLFLAG_RWTUN, &ure_debug, 0,
     "Debug level");
 #endif
 
 /*
  * Various supported device vendors/products.
  */
 static const STRUCT_USB_HOST_ID ure_devs[] = {
-#define	URE_DEV(v,p)	{ USB_VP(USB_VENDOR_##v, USB_PRODUCT_##v##_##p) }
-	URE_DEV(REALTEK, RTL8152),
+#define	URE_DEV(v,p,i)	{ USB_VPI(USB_VENDOR_##v, USB_PRODUCT_##v##_##p, i) }
+	URE_DEV(REALTEK, RTL8152, URE_FLAG_8152),
+	URE_DEV(REALTEK, RTL8153, 0),
 #undef URE_DEV
 };
 
 static device_probe_t ure_probe;
 static device_attach_t ure_attach;
 static device_detach_t ure_detach;
 
 static usb_callback_t ure_bulk_read_callback;
 static usb_callback_t ure_bulk_write_callback;
 
 static miibus_readreg_t ure_miibus_readreg;
 static miibus_writereg_t ure_miibus_writereg;
 static miibus_statchg_t ure_miibus_statchg;
 
 static uether_fn_t ure_attach_post;
 static uether_fn_t ure_init;
 static uether_fn_t ure_stop;
 static uether_fn_t ure_start;
 static uether_fn_t ure_tick;
-static uether_fn_t ure_setmulti;
-static uether_fn_t ure_setpromisc;
+static uether_fn_t ure_rxfilter;
 
 static int	ure_ctl(struct ure_softc *, uint8_t, uint16_t, uint16_t,
 		    void *, int);
 static int	ure_read_mem(struct ure_softc *, uint16_t, uint16_t, void *,
 		    int);
 static int	ure_write_mem(struct ure_softc *, uint16_t, uint16_t, void *,
 		    int);
 static uint8_t	ure_read_1(struct ure_softc *, uint16_t, uint16_t);
 static uint16_t	ure_read_2(struct ure_softc *, uint16_t, uint16_t);
 static uint32_t	ure_read_4(struct ure_softc *, uint16_t, uint16_t);
 static int	ure_write_1(struct ure_softc *, uint16_t, uint16_t, uint32_t);
 static int	ure_write_2(struct ure_softc *, uint16_t, uint16_t, uint32_t);
 static int	ure_write_4(struct ure_softc *, uint16_t, uint16_t, uint32_t);
 static uint16_t	ure_ocp_reg_read(struct ure_softc *, uint16_t);
 static void	ure_ocp_reg_write(struct ure_softc *, uint16_t, uint16_t);
 
 static void	ure_read_chipver(struct ure_softc *);
 static int	ure_attach_post_sub(struct usb_ether *);
 static void	ure_reset(struct ure_softc *);
 static int	ure_ifmedia_upd(struct ifnet *);
 static void	ure_ifmedia_sts(struct ifnet *, struct ifmediareq *);
 static int	ure_ioctl(struct ifnet *, u_long, caddr_t);
 static void	ure_rtl8152_init(struct ure_softc *);
+static void	ure_rtl8153_init(struct ure_softc *);
 static void	ure_disable_teredo(struct ure_softc *);
 static void	ure_init_fifo(struct ure_softc *);
 
 static const struct usb_config ure_config[URE_N_TRANSFER] = {
 	[URE_BULK_DT_WR] = {
 		.type = UE_BULK,
 		.endpoint = UE_ADDR_ANY,
 		.direction = UE_DIR_OUT,
 		.bufsize = MCLBYTES,
 		.flags = {.pipe_bof = 1,.force_short_xfer = 1,},
 		.callback = ure_bulk_write_callback,
 		.timeout = 10000,	/* 10 seconds */
 	},
 	[URE_BULK_DT_RD] = {
 		.type = UE_BULK,
 		.endpoint = UE_ADDR_ANY,
 		.direction = UE_DIR_IN,
-		.bufsize = MCLBYTES,
+		.bufsize = 16384,
 		.flags = {.pipe_bof = 1,.short_xfer_ok = 1,},
 		.callback = ure_bulk_read_callback,
 		.timeout = 0,	/* no timeout */
 	},
 };
 
 static device_method_t ure_methods[] = {
 	/* Device interface. */
 	DEVMETHOD(device_probe, ure_probe),
 	DEVMETHOD(device_attach, ure_attach),
 	DEVMETHOD(device_detach, ure_detach),
 
 	/* MII interface. */
 	DEVMETHOD(miibus_readreg, ure_miibus_readreg),
 	DEVMETHOD(miibus_writereg, ure_miibus_writereg),
 	DEVMETHOD(miibus_statchg, ure_miibus_statchg),
 
 	DEVMETHOD_END
 };
 
 static driver_t ure_driver = {
 	.name = "ure",
 	.methods = ure_methods,
 	.size = sizeof(struct ure_softc),
 };
 
 static devclass_t ure_devclass;
 
 DRIVER_MODULE(ure, uhub, ure_driver, ure_devclass, NULL, NULL);
 DRIVER_MODULE(miibus, ure, miibus_driver, miibus_devclass, NULL, NULL);
 MODULE_DEPEND(ure, uether, 1, 1, 1);
 MODULE_DEPEND(ure, usb, 1, 1, 1);
 MODULE_DEPEND(ure, ether, 1, 1, 1);
 MODULE_DEPEND(ure, miibus, 1, 1, 1);
 MODULE_VERSION(ure, 1);
 
 static const struct usb_ether_methods ure_ue_methods = {
 	.ue_attach_post = ure_attach_post,
 	.ue_attach_post_sub = ure_attach_post_sub,
 	.ue_start = ure_start,
 	.ue_init = ure_init,
 	.ue_stop = ure_stop,
 	.ue_tick = ure_tick,
-	.ue_setmulti = ure_setmulti,
-	.ue_setpromisc = ure_setpromisc,
+	.ue_setmulti = ure_rxfilter,
+	.ue_setpromisc = ure_rxfilter,
 	.ue_mii_upd = ure_ifmedia_upd,
 	.ue_mii_sts = ure_ifmedia_sts,
 };
 
 static int
 ure_ctl(struct ure_softc *sc, uint8_t rw, uint16_t val, uint16_t index,
     void *buf, int len)
 {
 	struct usb_device_request req;
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
 	if (rw == URE_CTL_WRITE)
 		req.bmRequestType = UT_WRITE_VENDOR_DEVICE;
 	else
 		req.bmRequestType = UT_READ_VENDOR_DEVICE;
 	req.bRequest = UR_SET_ADDRESS;
 	USETW(req.wValue, val);
 	USETW(req.wIndex, index);
 	USETW(req.wLength, len);
 
 	return (uether_do_request(&sc->sc_ue, &req, buf, 1000));
 }
 
 static int
 ure_read_mem(struct ure_softc *sc, uint16_t addr, uint16_t index,
     void *buf, int len)
 {
 
 	return (ure_ctl(sc, URE_CTL_READ, addr, index, buf, len));
 }
 
 static int
 ure_write_mem(struct ure_softc *sc, uint16_t addr, uint16_t index,
     void *buf, int len)
 {
 
 	return (ure_ctl(sc, URE_CTL_WRITE, addr, index, buf, len));
 }
 
 static uint8_t
 ure_read_1(struct ure_softc *sc, uint16_t reg, uint16_t index)
 {
 	uint32_t val;
 	uint8_t temp[4];
 	uint8_t shift;
 
 	shift = (reg & 3) << 3;
 	reg &= ~3;
 	
 	ure_read_mem(sc, reg, index, &temp, 4);
 	val = UGETDW(temp);
 	val >>= shift;
 
 	return (val & 0xff);
 }
 
 static uint16_t
 ure_read_2(struct ure_softc *sc, uint16_t reg, uint16_t index)
 {
 	uint32_t val;
 	uint8_t temp[4];
 	uint8_t shift;
 
 	shift = (reg & 2) << 3;
 	reg &= ~3;
 
 	ure_read_mem(sc, reg, index, &temp, 4);
 	val = UGETDW(temp);
 	val >>= shift;
 
 	return (val & 0xffff);
 }
 
 static uint32_t
 ure_read_4(struct ure_softc *sc, uint16_t reg, uint16_t index)
 {
 	uint8_t temp[4];
 
 	ure_read_mem(sc, reg, index, &temp, 4);
 	return (UGETDW(temp));
 }
 
 static int
 ure_write_1(struct ure_softc *sc, uint16_t reg, uint16_t index, uint32_t val)
 {
 	uint16_t byen;
 	uint8_t temp[4];
 	uint8_t shift;
 
 	byen = URE_BYTE_EN_BYTE;
 	shift = reg & 3;
 	val &= 0xff;
 
 	if (reg & 3) {
 		byen <<= shift;
 		val <<= (shift << 3);
 		reg &= ~3;
 	}
 
 	USETDW(temp, val);
 	return (ure_write_mem(sc, reg, index | byen, &temp, 4));
 }
 
 static int
 ure_write_2(struct ure_softc *sc, uint16_t reg, uint16_t index, uint32_t val)
 {
 	uint16_t byen;
 	uint8_t temp[4];
 	uint8_t shift;
 
 	byen = URE_BYTE_EN_WORD;
 	shift = reg & 2;
 	val &= 0xffff;
 
 	if (reg & 2) {
 		byen <<= shift;
 		val <<= (shift << 3);
 		reg &= ~3;
 	}
 
 	USETDW(temp, val);
 	return (ure_write_mem(sc, reg, index | byen, &temp, 4));
 }
 
 static int
 ure_write_4(struct ure_softc *sc, uint16_t reg, uint16_t index, uint32_t val)
 {
 	uint8_t temp[4];
 
 	USETDW(temp, val);
 	return (ure_write_mem(sc, reg, index | URE_BYTE_EN_DWORD, &temp, 4));
 }
 
 static uint16_t
 ure_ocp_reg_read(struct ure_softc *sc, uint16_t addr)
 {
 	uint16_t reg;
 
 	ure_write_2(sc, URE_PLA_OCP_GPHY_BASE, URE_MCU_TYPE_PLA, addr & 0xf000);
 	reg = (addr & 0x0fff) | 0xb000;
 
 	return (ure_read_2(sc, reg, URE_MCU_TYPE_PLA));
 }
 
 static void
 ure_ocp_reg_write(struct ure_softc *sc, uint16_t addr, uint16_t data)
 {
 	uint16_t reg;
 
 	ure_write_2(sc, URE_PLA_OCP_GPHY_BASE, URE_MCU_TYPE_PLA, addr & 0xf000);
 	reg = (addr & 0x0fff) | 0xb000;
 
 	ure_write_2(sc, reg, URE_MCU_TYPE_PLA, data);
 }
 
 static int
 ure_miibus_readreg(device_t dev, int phy, int reg)
 {
 	struct ure_softc *sc;
 	uint16_t val;
 	int locked;
 
 	sc = device_get_softc(dev);
 	locked = mtx_owned(&sc->sc_mtx);
 	if (!locked)
 		URE_LOCK(sc);
 
+	/* Let the rgephy driver read the URE_GMEDIASTAT register. */
+	if (reg == URE_GMEDIASTAT) {
+		if (!locked)
+			URE_UNLOCK(sc);
+		return (ure_read_1(sc, URE_GMEDIASTAT, URE_MCU_TYPE_PLA));
+	}
+
 	val = ure_ocp_reg_read(sc, URE_OCP_BASE_MII + reg * 2);
 
 	if (!locked)
 		URE_UNLOCK(sc);
 	return (val);
 }
 
 static int
 ure_miibus_writereg(device_t dev, int phy, int reg, int val)
 {
 	struct ure_softc *sc;
 	int locked;
 
 	sc = device_get_softc(dev);
 	if (sc->sc_phyno != phy)
 		return (0);
 
 	locked = mtx_owned(&sc->sc_mtx);
 	if (!locked)
 		URE_LOCK(sc);
 	
 	ure_ocp_reg_write(sc, URE_OCP_BASE_MII + reg * 2, val);
 
 	if (!locked)
 		URE_UNLOCK(sc);
 	return (0);
 }
 
 static void
 ure_miibus_statchg(device_t dev)
 {
 	struct ure_softc *sc;
 	struct mii_data *mii;
 	struct ifnet *ifp;
 	int locked;
 
 	sc = device_get_softc(dev);
 	mii = GET_MII(sc);
 	locked = mtx_owned(&sc->sc_mtx);
 	if (!locked)
 		URE_LOCK(sc);
 
 	ifp = uether_getifp(&sc->sc_ue);
 	if (mii == NULL || ifp == NULL ||
 	    (ifp->if_drv_flags & IFF_DRV_RUNNING) == 0)
 		goto done;
 
 	sc->sc_flags &= ~URE_FLAG_LINK;
 	if ((mii->mii_media_status & (IFM_ACTIVE | IFM_AVALID)) ==
 	    (IFM_ACTIVE | IFM_AVALID)) {
 		switch (IFM_SUBTYPE(mii->mii_media_active)) {
 		case IFM_10_T:
 		case IFM_100_TX:
 			sc->sc_flags |= URE_FLAG_LINK;
 			break;
+		case IFM_1000_T:
+			if ((sc->sc_flags & URE_FLAG_8152) != 0)
+				break;
+			sc->sc_flags |= URE_FLAG_LINK;
+			break;
 		default:
 			break;
 		}
 	}
 
 	/* Lost link, do nothing. */
 	if ((sc->sc_flags & URE_FLAG_LINK) == 0)
 		goto done;
 done:
 	if (!locked)
 		URE_UNLOCK(sc);
 }
 
 /*
- * Probe for a RTL8152 chip.
+ * Probe for a RTL8152/RTL8153 chip.
  */
 static int
 ure_probe(device_t dev)
 {
 	struct usb_attach_arg *uaa;
 
 	uaa = device_get_ivars(dev);
 	if (uaa->usb_mode != USB_MODE_HOST)
 		return (ENXIO);
 	if (uaa->info.bConfigIndex != URE_CONFIG_IDX)
 		return (ENXIO);
 	if (uaa->info.bIfaceIndex != URE_IFACE_IDX)
 		return (ENXIO);
 
 	return (usbd_lookup_id_by_uaa(ure_devs, sizeof(ure_devs), uaa));
 }
 
 /*
  * Attach the interface. Allocate softc structures, do ifmedia
  * setup and ethernet/BPF attach.
  */
 static int
 ure_attach(device_t dev)
 {
 	struct usb_attach_arg *uaa = device_get_ivars(dev);
 	struct ure_softc *sc = device_get_softc(dev);
 	struct usb_ether *ue = &sc->sc_ue;
 	uint8_t iface_index;
 	int error;
 
+	sc->sc_flags = USB_GET_DRIVER_INFO(uaa);
 	device_set_usb_desc(dev);
 	mtx_init(&sc->sc_mtx, device_get_nameunit(dev), NULL, MTX_DEF);
 
 	iface_index = URE_IFACE_IDX;
 	error = usbd_transfer_setup(uaa->device, &iface_index, sc->sc_xfer,
 	    ure_config, URE_N_TRANSFER, sc, &sc->sc_mtx);
 	if (error != 0) {
 		device_printf(dev, "allocating USB transfers failed\n");
 		goto detach;
 	}
 
 	ue->ue_sc = sc;
 	ue->ue_dev = dev;
 	ue->ue_udev = uaa->device;
 	ue->ue_mtx = &sc->sc_mtx;
 	ue->ue_methods = &ure_ue_methods;
 
 	error = uether_ifattach(ue);
 	if (error != 0) {
 		device_printf(dev, "could not attach interface\n");
 		goto detach;
 	}
 	return (0);			/* success */
 
 detach:
 	ure_detach(dev);
 	return (ENXIO);			/* failure */
 }
 
 static int
 ure_detach(device_t dev)
 {
 	struct ure_softc *sc = device_get_softc(dev);
 	struct usb_ether *ue = &sc->sc_ue;
 
 	usbd_transfer_unsetup(sc->sc_xfer, URE_N_TRANSFER);
 	uether_ifdetach(ue);
 	mtx_destroy(&sc->sc_mtx);
 
 	return (0);
 }
 
 static void
 ure_bulk_read_callback(struct usb_xfer *xfer, usb_error_t error)
 {
 	struct ure_softc *sc = usbd_xfer_softc(xfer);
 	struct usb_ether *ue = &sc->sc_ue;
 	struct ifnet *ifp = uether_getifp(ue);
 	struct usb_page_cache *pc;
 	struct ure_rxpkt pkt;
 	int actlen, len;
 
 	usbd_xfer_status(xfer, &actlen, NULL, NULL, NULL);
 
 	switch (USB_GET_STATE(xfer)) {
 	case USB_ST_TRANSFERRED:
 		if (actlen < (int)(sizeof(pkt))) {
 			if_inc_counter(ifp, IFCOUNTER_IERRORS, 1);
 			goto tr_setup;
 		}
 		pc = usbd_xfer_get_frame(xfer, 0);
 		usbd_copy_out(pc, 0, &pkt, sizeof(pkt));
 		len = le32toh(pkt.ure_pktlen) & URE_RXPKT_LEN_MASK;
 		len -= ETHER_CRC_LEN;
 		if (actlen < (int)(len + sizeof(pkt))) {
 			if_inc_counter(ifp, IFCOUNTER_IERRORS, 1);
 			goto tr_setup;
 		}
 
 		uether_rxbuf(ue, pc, sizeof(pkt), len);
 		/* FALLTHROUGH */
 	case USB_ST_SETUP:
 tr_setup:
 		usbd_xfer_set_frame_len(xfer, 0, usbd_xfer_max_len(xfer));
 		usbd_transfer_submit(xfer);
 		uether_rxflush(ue);
 		return;
 
 	default:			/* Error */
 		DPRINTF("bulk read error, %s\n",
 		    usbd_errstr(error));
 
 		if (error != USB_ERR_CANCELLED) {
 			/* try to clear stall first */
 			usbd_xfer_set_stall(xfer);
 			goto tr_setup;
 		}
 		return;
 	}
 }
 
 static void
 ure_bulk_write_callback(struct usb_xfer *xfer, usb_error_t error)
 {
 	struct ure_softc *sc = usbd_xfer_softc(xfer);
 	struct ifnet *ifp = uether_getifp(&sc->sc_ue);
 	struct usb_page_cache *pc;
 	struct mbuf *m;
 	struct ure_txpkt txpkt;
 	int len, pos;
 
 	switch (USB_GET_STATE(xfer)) {
 	case USB_ST_TRANSFERRED:
 		DPRINTFN(11, "transfer complete\n");
 		ifp->if_drv_flags &= ~IFF_DRV_OACTIVE;
 		/* FALLTHROUGH */
 	case USB_ST_SETUP:
 tr_setup:
 		if ((sc->sc_flags & URE_FLAG_LINK) == 0 ||
 		    (ifp->if_drv_flags & IFF_DRV_OACTIVE) != 0) {
 			/*
 			 * don't send anything if there is no link !
 			 */
 			return;
 		}
 		IFQ_DRV_DEQUEUE(&ifp->if_snd, m);
 		if (m == NULL)
 			break;
 		pos = 0;
 		len = m->m_pkthdr.len;
 		pc = usbd_xfer_get_frame(xfer, 0);
 		memset(&txpkt, 0, sizeof(txpkt));
 		txpkt.ure_pktlen = htole32((len & URE_TXPKT_LEN_MASK) |
 		    URE_TKPKT_TX_FS | URE_TKPKT_TX_LS);
 		usbd_copy_in(pc, pos, &txpkt, sizeof(txpkt));
 		pos += sizeof(txpkt);
 		usbd_m_copy_in(pc, pos, m, 0, m->m_pkthdr.len);
 		pos += m->m_pkthdr.len;
 
 		if_inc_counter(ifp, IFCOUNTER_OPACKETS, 1);
 
 		/*
 		 * If there's a BPF listener, bounce a copy
 		 * of this frame to him.
 		 */
 		BPF_MTAP(ifp, m);
 
 		m_freem(m);
 
 		/* Set frame length. */
 		usbd_xfer_set_frame_len(xfer, 0, pos);
 
 		usbd_transfer_submit(xfer);
 		ifp->if_drv_flags |= IFF_DRV_OACTIVE;
 		return;
 	default:			/* Error */
 		DPRINTFN(11, "transfer error, %s\n",
 		    usbd_errstr(error));
 
 		if_inc_counter(ifp, IFCOUNTER_OERRORS, 1);
 		ifp->if_drv_flags &= ~IFF_DRV_OACTIVE;
 
 		if (error != USB_ERR_CANCELLED) {
 			/* try to clear stall first */
 			usbd_xfer_set_stall(xfer);
 			goto tr_setup;
 		}
 		return;
 	}
 }
 
 static void
 ure_read_chipver(struct ure_softc *sc)
 {
 	uint16_t ver;
 
 	ver = ure_read_2(sc, URE_PLA_TCR1, URE_MCU_TYPE_PLA) & URE_VERSION_MASK;
 	switch (ver) {
 	case 0x4c00:
 		sc->sc_chip |= URE_CHIP_VER_4C00;
 		break;
 	case 0x4c10:
 		sc->sc_chip |= URE_CHIP_VER_4C10;
 		break;
+	case 0x5c00:
+		sc->sc_chip |= URE_CHIP_VER_5C00;
+		break;
+	case 0x5c10:
+		sc->sc_chip |= URE_CHIP_VER_5C10;
+		break;
+	case 0x5c20:
+		sc->sc_chip |= URE_CHIP_VER_5C20;
+		break;
+	case 0x5c30:
+		sc->sc_chip |= URE_CHIP_VER_5C30;
+		break;
 	default:
 		device_printf(sc->sc_ue.ue_dev,
 		    "unknown version 0x%04x\n", ver);
 		break;
 	}
 }
 
 static void
 ure_attach_post(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 
 	sc->sc_phyno = 0;
 
 	/* Determine the chip version. */
 	ure_read_chipver(sc);
 
 	/* Initialize controller and get station address. */
-	ure_rtl8152_init(sc);
+	if (sc->sc_flags & URE_FLAG_8152)
+		ure_rtl8152_init(sc);
+	else
+		ure_rtl8153_init(sc);
 
 	if (sc->sc_chip & URE_CHIP_VER_4C00)
 		ure_read_mem(sc, URE_PLA_IDR, URE_MCU_TYPE_PLA,
 		    ue->ue_eaddr, 8);
 	else
 		ure_read_mem(sc, URE_PLA_BACKUP, URE_MCU_TYPE_PLA,
 		    ue->ue_eaddr, 8);
 }
 
 static int
 ure_attach_post_sub(struct usb_ether *ue)
 {
 	struct ure_softc *sc;
 	struct ifnet *ifp;
 	int error;
 
 	sc = uether_getsc(ue);
 	ifp = ue->ue_ifp;
 	ifp->if_flags = IFF_BROADCAST | IFF_SIMPLEX | IFF_MULTICAST;
 	ifp->if_start = uether_start;
 	ifp->if_ioctl = ure_ioctl;
 	ifp->if_init = uether_init;
 	IFQ_SET_MAXLEN(&ifp->if_snd, ifqmaxlen);
 	ifp->if_snd.ifq_drv_maxlen = ifqmaxlen;
 	IFQ_SET_READY(&ifp->if_snd);
 
 	mtx_lock(&Giant);
 	error = mii_attach(ue->ue_dev, &ue->ue_miibus, ifp,
 	    uether_ifmedia_upd, ue->ue_methods->ue_mii_sts,
 	    BMSR_DEFCAPMASK, sc->sc_phyno, MII_OFFSET_ANY, 0);
 	mtx_unlock(&Giant);
 
 	return (error);
 }
 
 static void
 ure_init(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 	struct ifnet *ifp = uether_getifp(ue);
-	uint32_t rxmode;
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
 	if ((ifp->if_drv_flags & IFF_DRV_RUNNING) != 0)
 		return;
 
 	/* Cancel pending I/O. */
 	ure_stop(ue);
 
 	ure_reset(sc);
 
 	/* Set MAC address. */
 	ure_write_mem(sc, URE_PLA_IDR, URE_MCU_TYPE_PLA | URE_BYTE_EN_SIX_BYTES,
 	    IF_LLADDR(ifp), 8);
 
 	/* Reset the packet filter. */
 	ure_write_2(sc, URE_PLA_FMC, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_FMC, URE_MCU_TYPE_PLA) &
 	    ~URE_FMC_FCR_MCU_EN);
 	ure_write_2(sc, URE_PLA_FMC, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_FMC, URE_MCU_TYPE_PLA) |
 	    URE_FMC_FCR_MCU_EN);
 	    
 	/* Enable transmit and receive. */
 	ure_write_1(sc, URE_PLA_CR, URE_MCU_TYPE_PLA,
 	    ure_read_1(sc, URE_PLA_CR, URE_MCU_TYPE_PLA) | URE_CR_RE |
 	    URE_CR_TE);
 
 	ure_write_2(sc, URE_PLA_MISC_1, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_MISC_1, URE_MCU_TYPE_PLA) &
 	    ~URE_RXDY_GATED_EN);
 
-	/* Set Rx mode. */
-	rxmode = URE_RCR_APM;
+	/*  Configure RX filters. */
+	ure_rxfilter(ue);
 
-	/* If we want promiscuous mode, set the allframes bit. */
-	if (ifp->if_flags & IFF_PROMISC)
-		rxmode |= URE_RCR_AAP;
-
-	if (ifp->if_flags & IFF_BROADCAST)
-		rxmode |= URE_RCR_AB;
-
-	ure_write_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA, rxmode);
-
-	/* Load the multicast filter. */
-	ure_setmulti(ue);
-
 	usbd_xfer_set_stall(sc->sc_xfer[URE_BULK_DT_WR]);
 
 	/* Indicate we are up and running. */
 	ifp->if_drv_flags |= IFF_DRV_RUNNING;
 
 	/* Switch to selected media. */
 	ure_ifmedia_upd(ifp);
 }
 
 static void
 ure_tick(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 	struct mii_data *mii = GET_MII(sc);
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
 	mii_tick(mii);
 	if ((sc->sc_flags & URE_FLAG_LINK) == 0
 	    && mii->mii_media_status & IFM_ACTIVE &&
 	    IFM_SUBTYPE(mii->mii_media_active) != IFM_NONE) {
 		sc->sc_flags |= URE_FLAG_LINK;
 		ure_start(ue);
 	}
 }
 
-static void
-ure_setpromisc(struct usb_ether *ue)
-{
-	struct ure_softc *sc = uether_getsc(ue);
-	struct ifnet *ifp = uether_getifp(ue);
-	uint32_t rxmode;
-
-	rxmode = ure_read_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA);
-
-	if (ifp->if_flags & IFF_PROMISC)
-		rxmode |= URE_RCR_AAP;
-	else
-		rxmode &= ~URE_RCR_AAP;
-
-	ure_write_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA, rxmode);
-
-	ure_setmulti(ue);
-}
-
 /*
  * Program the 64-bit multicast hash filter.
  */
 static void
-ure_setmulti(struct usb_ether *ue)
+ure_rxfilter(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 	struct ifnet *ifp = uether_getifp(ue);
 	struct ifmultiaddr *ifma;
 	uint32_t h, rxmode;
 	uint32_t hashes[2] = { 0, 0 };
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
-	rxmode = ure_read_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA);
+	rxmode = URE_RCR_APM;
+	if (ifp->if_flags & IFF_BROADCAST)
+		 rxmode |= URE_RCR_AB;
 	if (ifp->if_flags & (IFF_ALLMULTI | IFF_PROMISC)) {
 		if (ifp->if_flags & IFF_PROMISC)
 			rxmode |= URE_RCR_AAP;
 		rxmode |= URE_RCR_AM;
 		hashes[0] = hashes[1] = 0xffffffff;
 		goto done;
 	}
 
+	rxmode |= URE_RCR_AM;
 	if_maddr_rlock(ifp);
 	TAILQ_FOREACH(ifma, &ifp->if_multiaddrs, ifma_link) {
 		if (ifma->ifma_addr->sa_family != AF_LINK)
 			continue;
 		h = ether_crc32_be(LLADDR((struct sockaddr_dl *)
 		ifma->ifma_addr), ETHER_ADDR_LEN) >> 26;
 		if (h < 32)
 			hashes[0] |= (1 << h);
 		else
 			hashes[1] |= (1 << (h - 32));
 	}
 	if_maddr_runlock(ifp);
 
 	h = bswap32(hashes[0]);
 	hashes[0] = bswap32(hashes[1]);
 	hashes[1] = h;
 	rxmode |= URE_RCR_AM;
 
 done:
 	ure_write_4(sc, URE_PLA_MAR0, URE_MCU_TYPE_PLA, hashes[0]);
 	ure_write_4(sc, URE_PLA_MAR4, URE_MCU_TYPE_PLA, hashes[1]);
 	ure_write_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA, rxmode);
 }
 
 static void
 ure_start(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 
 	/*
 	 * start the USB transfers, if not already started:
 	 */
 	usbd_transfer_start(sc->sc_xfer[URE_BULK_DT_RD]);
 	usbd_transfer_start(sc->sc_xfer[URE_BULK_DT_WR]);
 }
 
 static void
 ure_reset(struct ure_softc *sc)
 {
 	int i;
 
 	ure_write_1(sc, URE_PLA_CR, URE_MCU_TYPE_PLA, URE_CR_RST);
 
 	for (i = 0; i < URE_TIMEOUT; i++) {
 		if (!(ure_read_1(sc, URE_PLA_CR, URE_MCU_TYPE_PLA) &
 		    URE_CR_RST))
 			break;
 		uether_pause(&sc->sc_ue, hz / 100);
 	}
 	if (i == URE_TIMEOUT)
 		device_printf(sc->sc_ue.ue_dev, "reset never completed\n");
 }
 
 /*
  * Set media options.
  */
 static int
 ure_ifmedia_upd(struct ifnet *ifp)
 {
 	struct ure_softc *sc = ifp->if_softc;
 	struct mii_data *mii = GET_MII(sc);
 	struct mii_softc *miisc;
 	int error;
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
 	LIST_FOREACH(miisc, &mii->mii_phys, mii_list)
 		PHY_RESET(miisc);
 	error = mii_mediachg(mii);
 	return (error);
 }
 
 /*
  * Report current media status.
  */
 static void
 ure_ifmedia_sts(struct ifnet *ifp, struct ifmediareq *ifmr)
 {
 	struct ure_softc *sc;
 	struct mii_data *mii;
 
 	sc = ifp->if_softc;
 	mii = GET_MII(sc);
 
 	URE_LOCK(sc);
 	mii_pollstat(mii);
 	ifmr->ifm_active = mii->mii_media_active;
 	ifmr->ifm_status = mii->mii_media_status;
 	URE_UNLOCK(sc);
 }
 
 static int
 ure_ioctl(struct ifnet *ifp, u_long cmd, caddr_t data)
 {
 	struct usb_ether *ue = ifp->if_softc;
 	struct ure_softc *sc;
 	struct ifreq *ifr;
 	int error, mask, reinit;
 
 	sc = uether_getsc(ue);
 	ifr = (struct ifreq *)data;
 	error = 0;
 	reinit = 0;
 	if (cmd == SIOCSIFCAP) {
 		URE_LOCK(sc);
 		mask = ifr->ifr_reqcap ^ ifp->if_capenable;
 		if (reinit > 0 && ifp->if_drv_flags & IFF_DRV_RUNNING)
 			ifp->if_drv_flags &= ~IFF_DRV_RUNNING;
 		else
 			reinit = 0;
 		URE_UNLOCK(sc);
 		if (reinit > 0)
 			uether_init(ue);
 	} else
 		error = uether_ioctl(ifp, cmd, data);
 
 	return (error);
 }
 
 static void
 ure_rtl8152_init(struct ure_softc *sc)
 {
 	uint32_t pwrctrl;
 
 	/* Disable ALDPS. */
 	ure_ocp_reg_write(sc, URE_OCP_ALDPS_CONFIG, URE_ENPDNPS | URE_LINKENA |
 	    URE_DIS_SDSAVE);
 	uether_pause(&sc->sc_ue, hz / 50);
 
 	if (sc->sc_chip & URE_CHIP_VER_4C00) {
 		ure_write_2(sc, URE_PLA_LED_FEATURE, URE_MCU_TYPE_PLA,
 		    ure_read_2(sc, URE_PLA_LED_FEATURE, URE_MCU_TYPE_PLA) &
 		    ~URE_LED_MODE_MASK);
 	}
 
 	ure_write_2(sc, URE_USB_UPS_CTRL, URE_MCU_TYPE_USB,
 	    ure_read_2(sc, URE_USB_UPS_CTRL, URE_MCU_TYPE_USB) &
 	    ~URE_POWER_CUT);
 	ure_write_2(sc, URE_USB_PM_CTRL_STATUS, URE_MCU_TYPE_USB,
 	    ure_read_2(sc, URE_USB_PM_CTRL_STATUS, URE_MCU_TYPE_USB) &
 	    ~URE_RESUME_INDICATE);
 
 	ure_write_2(sc, URE_PLA_PHY_PWR, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_PHY_PWR, URE_MCU_TYPE_PLA) |
 	    URE_TX_10M_IDLE_EN | URE_PFM_PWM_SWITCH);
 	pwrctrl = ure_read_4(sc, URE_PLA_MAC_PWR_CTRL, URE_MCU_TYPE_PLA);
 	pwrctrl &= ~URE_MCU_CLK_RATIO_MASK;
 	pwrctrl |= URE_MCU_CLK_RATIO | URE_D3_CLK_GATED_EN;
 	ure_write_4(sc, URE_PLA_MAC_PWR_CTRL, URE_MCU_TYPE_PLA, pwrctrl);
 	ure_write_2(sc, URE_PLA_GPHY_INTR_IMR, URE_MCU_TYPE_PLA,
 	    URE_GPHY_STS_MSK | URE_SPEED_DOWN_MSK | URE_SPDWN_RXDV_MSK |
 	    URE_SPDWN_LINKCHG_MSK);
 
 	/* Disable Rx aggregation. */
 	ure_write_2(sc, URE_USB_USB_CTRL, URE_MCU_TYPE_USB,
 	    ure_read_2(sc, URE_USB_USB_CTRL, URE_MCU_TYPE_USB) |
 	    URE_RX_AGG_DISABLE);
 
         /* Disable ALDPS. */
 	ure_ocp_reg_write(sc, URE_OCP_ALDPS_CONFIG, URE_ENPDNPS | URE_LINKENA |
 	    URE_DIS_SDSAVE);
 	uether_pause(&sc->sc_ue, hz / 50);
 
 	ure_init_fifo(sc);
 
 	ure_write_1(sc, URE_USB_TX_AGG, URE_MCU_TYPE_USB,
 	    URE_TX_AGG_MAX_THRESHOLD);
 	ure_write_4(sc, URE_USB_RX_BUF_TH, URE_MCU_TYPE_USB, URE_RX_THR_HIGH);
 	ure_write_4(sc, URE_USB_TX_DMA, URE_MCU_TYPE_USB,
 	    URE_TEST_MODE_DISABLE | URE_TX_SIZE_ADJUST1);
 }
 
 static void
+ure_rtl8153_init(struct ure_softc *sc)
+{
+	uint16_t val;
+	uint8_t u1u2[8];
+	int i;
+
+	/* Disable ALDPS. */
+	ure_ocp_reg_write(sc, URE_OCP_POWER_CFG,
+	    ure_ocp_reg_read(sc, URE_OCP_POWER_CFG) & ~URE_EN_ALDPS);
+	uether_pause(&sc->sc_ue, hz / 50);
+
+	memset(u1u2, 0x00, sizeof(u1u2));
+	ure_write_mem(sc, URE_USB_TOLERANCE,
+	    URE_MCU_TYPE_USB | URE_BYTE_EN_SIX_BYTES, u1u2, sizeof(u1u2));
+
+        for (i = 0; i < URE_TIMEOUT; i++) {
+		if (ure_read_2(sc, URE_PLA_BOOT_CTRL, URE_MCU_TYPE_PLA) &
+		    URE_AUTOLOAD_DONE)
+			break;
+		uether_pause(&sc->sc_ue, hz / 100);
+	}
+	if (i == URE_TIMEOUT)
+		device_printf(sc->sc_ue.ue_dev,
+		    "timeout waiting for chip autoload\n");
+
+        for (i = 0; i < URE_TIMEOUT; i++) {
+		val = ure_ocp_reg_read(sc, URE_OCP_PHY_STATUS) &
+		    URE_PHY_STAT_MASK;
+		if (val == URE_PHY_STAT_LAN_ON || val == URE_PHY_STAT_PWRDN)
+			break;
+		uether_pause(&sc->sc_ue, hz / 100);
+	}
+	if (i == URE_TIMEOUT)
+		device_printf(sc->sc_ue.ue_dev,
+		    "timeout waiting for phy to stabilize\n");
+	
+	ure_write_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB,
+	    ure_read_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB) &
+	    ~URE_U2P3_ENABLE);
+
+	if (sc->sc_chip & URE_CHIP_VER_5C10) {
+		val = ure_read_2(sc, URE_USB_SSPHYLINK2, URE_MCU_TYPE_USB);
+		val &= ~URE_PWD_DN_SCALE_MASK;
+		val |= URE_PWD_DN_SCALE(96);
+		ure_write_2(sc, URE_USB_SSPHYLINK2, URE_MCU_TYPE_USB, val);
+
+		ure_write_1(sc, URE_USB_USB2PHY, URE_MCU_TYPE_USB,
+		    ure_read_1(sc, URE_USB_USB2PHY, URE_MCU_TYPE_USB) |
+		    URE_USB2PHY_L1 | URE_USB2PHY_SUSPEND);
+	} else if (sc->sc_chip & URE_CHIP_VER_5C20) {
+		ure_write_1(sc, URE_PLA_DMY_REG0, URE_MCU_TYPE_PLA,
+		    ure_read_1(sc, URE_PLA_DMY_REG0, URE_MCU_TYPE_PLA) &
+		    ~URE_ECM_ALDPS);
+	}
+	if (sc->sc_chip & (URE_CHIP_VER_5C20 | URE_CHIP_VER_5C30)) {
+		val = ure_read_1(sc, URE_USB_CSR_DUMMY1, URE_MCU_TYPE_USB);
+		if (ure_read_2(sc, URE_USB_BURST_SIZE, URE_MCU_TYPE_USB) ==
+		    0)
+			val &= ~URE_DYNAMIC_BURST;
+		else
+			val |= URE_DYNAMIC_BURST;
+		ure_write_1(sc, URE_USB_CSR_DUMMY1, URE_MCU_TYPE_USB, val);
+	}
+
+	ure_write_1(sc, URE_USB_CSR_DUMMY2, URE_MCU_TYPE_USB,
+	    ure_read_1(sc, URE_USB_CSR_DUMMY2, URE_MCU_TYPE_USB) |
+	    URE_EP4_FULL_FC);
+	
+	ure_write_2(sc, URE_USB_WDT11_CTRL, URE_MCU_TYPE_USB,
+	    ure_read_2(sc, URE_USB_WDT11_CTRL, URE_MCU_TYPE_USB) &
+	    ~URE_TIMER11_EN);
+
+	ure_write_2(sc, URE_PLA_LED_FEATURE, URE_MCU_TYPE_PLA,
+	    ure_read_2(sc, URE_PLA_LED_FEATURE, URE_MCU_TYPE_PLA) &
+	    ~URE_LED_MODE_MASK);
+	    
+	if ((sc->sc_chip & URE_CHIP_VER_5C10) &&
+	    usbd_get_speed(sc->sc_ue.ue_udev) != USB_SPEED_SUPER)
+		val = URE_LPM_TIMER_500MS;
+	else
+		val = URE_LPM_TIMER_500US;
+	ure_write_1(sc, URE_USB_LPM_CTRL, URE_MCU_TYPE_USB,
+	    val | URE_FIFO_EMPTY_1FB | URE_ROK_EXIT_LPM);
+
+	val = ure_read_2(sc, URE_USB_AFE_CTRL2, URE_MCU_TYPE_USB);
+	val &= ~URE_SEN_VAL_MASK;
+	val |= URE_SEN_VAL_NORMAL | URE_SEL_RXIDLE;
+	ure_write_2(sc, URE_USB_AFE_CTRL2, URE_MCU_TYPE_USB, val);
+
+	ure_write_2(sc, URE_USB_CONNECT_TIMER, URE_MCU_TYPE_USB, 0x0001);
+
+	ure_write_2(sc, URE_USB_POWER_CUT, URE_MCU_TYPE_USB,
+	    ure_read_2(sc, URE_USB_POWER_CUT, URE_MCU_TYPE_USB) &
+	    ~(URE_PWR_EN | URE_PHASE2_EN));
+	ure_write_2(sc, URE_USB_MISC_0, URE_MCU_TYPE_USB,
+	    ure_read_2(sc, URE_USB_MISC_0, URE_MCU_TYPE_USB) &
+	    ~URE_PCUT_STATUS);
+
+	memset(u1u2, 0xff, sizeof(u1u2));
+	ure_write_mem(sc, URE_USB_TOLERANCE,
+	    URE_MCU_TYPE_USB | URE_BYTE_EN_SIX_BYTES, u1u2, sizeof(u1u2));
+
+	ure_write_2(sc, URE_PLA_MAC_PWR_CTRL, URE_MCU_TYPE_PLA,
+	    URE_ALDPS_SPDWN_RATIO);
+	ure_write_2(sc, URE_PLA_MAC_PWR_CTRL2, URE_MCU_TYPE_PLA,
+	    URE_EEE_SPDWN_RATIO);
+	ure_write_2(sc, URE_PLA_MAC_PWR_CTRL3, URE_MCU_TYPE_PLA,
+	    URE_PKT_AVAIL_SPDWN_EN | URE_SUSPEND_SPDWN_EN |
+	    URE_U1U2_SPDWN_EN | URE_L1_SPDWN_EN);
+	ure_write_2(sc, URE_PLA_MAC_PWR_CTRL4, URE_MCU_TYPE_PLA,
+	    URE_PWRSAVE_SPDWN_EN | URE_RXDV_SPDWN_EN | URE_TX10MIDLE_EN |
+	    URE_TP100_SPDWN_EN | URE_TP500_SPDWN_EN | URE_TP1000_SPDWN_EN |
+	    URE_EEE_SPDWN_EN);
+
+	val = ure_read_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB);
+	if (!(sc->sc_chip & (URE_CHIP_VER_5C00 | URE_CHIP_VER_5C10)))
+		val |= URE_U2P3_ENABLE;
+	else
+		val &= ~URE_U2P3_ENABLE;
+	ure_write_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB, val);
+
+	memset(u1u2, 0x00, sizeof(u1u2));
+        ure_write_mem(sc, URE_USB_TOLERANCE,
+	    URE_MCU_TYPE_USB | URE_BYTE_EN_SIX_BYTES, u1u2, sizeof(u1u2));
+
+	/* Disable ALDPS. */
+	ure_ocp_reg_write(sc, URE_OCP_POWER_CFG,
+	    ure_ocp_reg_read(sc, URE_OCP_POWER_CFG) & ~URE_EN_ALDPS);
+	uether_pause(&sc->sc_ue, hz / 50);
+
+	ure_init_fifo(sc);
+
+	/* Disable Rx aggregation. */
+	ure_write_2(sc, URE_USB_USB_CTRL, URE_MCU_TYPE_USB,
+	    ure_read_2(sc, URE_USB_USB_CTRL, URE_MCU_TYPE_USB) |
+	    URE_RX_AGG_DISABLE);
+
+	val = ure_read_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB);
+	if (!(sc->sc_chip & (URE_CHIP_VER_5C00 | URE_CHIP_VER_5C10)))
+		val |= URE_U2P3_ENABLE;
+	else
+		val &= ~URE_U2P3_ENABLE;
+	ure_write_2(sc, URE_USB_U2P3_CTRL, URE_MCU_TYPE_USB, val);
+
+	memset(u1u2, 0xff, sizeof(u1u2));
+	ure_write_mem(sc, URE_USB_TOLERANCE,
+	    URE_MCU_TYPE_USB | URE_BYTE_EN_SIX_BYTES, u1u2, sizeof(u1u2));
+}
+
+static void
 ure_stop(struct usb_ether *ue)
 {
 	struct ure_softc *sc = uether_getsc(ue);
 	struct ifnet *ifp = uether_getifp(ue);
 
 	URE_LOCK_ASSERT(sc, MA_OWNED);
 
 	ifp->if_drv_flags &= ~(IFF_DRV_RUNNING | IFF_DRV_OACTIVE);
 	sc->sc_flags &= ~URE_FLAG_LINK;
 
 	/*
 	 * stop all the transfers, if not already stopped:
 	 */
 	usbd_transfer_stop(sc->sc_xfer[URE_BULK_DT_WR]);
 	usbd_transfer_stop(sc->sc_xfer[URE_BULK_DT_RD]);
 }
 
 static void
 ure_disable_teredo(struct ure_softc *sc)
 {
 
 	ure_write_4(sc, URE_PLA_TEREDO_CFG, URE_MCU_TYPE_PLA,
 	    ure_read_4(sc, URE_PLA_TEREDO_CFG, URE_MCU_TYPE_PLA) & 
 	    ~(URE_TEREDO_SEL | URE_TEREDO_RS_EVENT_MASK | URE_OOB_TEREDO_EN));
 	ure_write_2(sc, URE_PLA_WDT6_CTRL, URE_MCU_TYPE_PLA,
 	    URE_WDT6_SET_MODE);
 	ure_write_2(sc, URE_PLA_REALWOW_TIMER, URE_MCU_TYPE_PLA, 0);
 	ure_write_4(sc, URE_PLA_TEREDO_TIMER, URE_MCU_TYPE_PLA, 0);
 }
 
 static void
 ure_init_fifo(struct ure_softc *sc)
 {
 	uint32_t rx_fifo1, rx_fifo2;
 	int i;
 
 	ure_write_2(sc, URE_PLA_MISC_1, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_MISC_1, URE_MCU_TYPE_PLA) |
 	    URE_RXDY_GATED_EN);
 
 	ure_disable_teredo(sc);
 
 	ure_write_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA,
 	    ure_read_4(sc, URE_PLA_RCR, URE_MCU_TYPE_PLA) &
 	    ~URE_RCR_ACPT_ALL);
+
+	if (!(sc->sc_flags & URE_FLAG_8152)) {
+		if (sc->sc_chip & (URE_CHIP_VER_5C00 | URE_CHIP_VER_5C10 |
+		    URE_CHIP_VER_5C20)) {
+				ure_ocp_reg_write(sc, URE_OCP_ADC_CFG,
+				    URE_CKADSEL_L | URE_ADC_EN | URE_EN_EMI_L);
+		}
+		if (sc->sc_chip & URE_CHIP_VER_5C00) {
+			ure_ocp_reg_write(sc, URE_OCP_EEE_CFG,
+			    ure_ocp_reg_read(sc, URE_OCP_EEE_CFG) & 
+			    ~URE_CTAP_SHORT_EN);
+		}
+		ure_ocp_reg_write(sc, URE_OCP_POWER_CFG,
+		    ure_ocp_reg_read(sc, URE_OCP_POWER_CFG) |
+		    URE_EEE_CLKDIV_EN);
+		ure_ocp_reg_write(sc, URE_OCP_DOWN_SPEED,
+		    ure_ocp_reg_read(sc, URE_OCP_DOWN_SPEED) |
+		    URE_EN_10M_BGOFF);
+		ure_ocp_reg_write(sc, URE_OCP_POWER_CFG,
+		    ure_ocp_reg_read(sc, URE_OCP_POWER_CFG) |
+		    URE_EN_10M_PLLOFF);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_ADDR, URE_SRAM_IMPEDANCE);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_DATA, 0x0b13);
+		ure_write_2(sc, URE_PLA_PHY_PWR, URE_MCU_TYPE_PLA,
+		    ure_read_2(sc, URE_PLA_PHY_PWR, URE_MCU_TYPE_PLA) |
+		    URE_PFM_PWM_SWITCH);
+
+		/* Enable LPF corner auto tune. */
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_ADDR, URE_SRAM_LPF_CFG);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_DATA, 0xf70f);
+
+		/* Adjust 10M amplitude. */
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_ADDR, URE_SRAM_10M_AMP1);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_DATA, 0x00af);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_ADDR, URE_SRAM_10M_AMP2);
+		ure_ocp_reg_write(sc, URE_OCP_SRAM_DATA, 0x0208);
+	}
 
 	ure_reset(sc);
 
 	ure_write_1(sc, URE_PLA_CR, URE_MCU_TYPE_PLA, 0);
 
 	ure_write_1(sc, URE_PLA_OOB_CTRL, URE_MCU_TYPE_PLA,
 	    ure_read_1(sc, URE_PLA_OOB_CTRL, URE_MCU_TYPE_PLA) &
 	    ~URE_NOW_IS_OOB);
 
 	ure_write_2(sc, URE_PLA_SFF_STS_7, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_SFF_STS_7, URE_MCU_TYPE_PLA) &
 	    ~URE_MCU_BORW_EN);
 	for (i = 0; i < URE_TIMEOUT; i++) {
 		if (ure_read_1(sc, URE_PLA_OOB_CTRL, URE_MCU_TYPE_PLA) &
 		    URE_LINK_LIST_READY)
 			break;
 		uether_pause(&sc->sc_ue, hz / 100);
 	}
 	if (i == URE_TIMEOUT)
 		device_printf(sc->sc_ue.ue_dev,
 		    "timeout waiting for OOB control\n");
 	ure_write_2(sc, URE_PLA_SFF_STS_7, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_SFF_STS_7, URE_MCU_TYPE_PLA) |
 	    URE_RE_INIT_LL);
 	for (i = 0; i < URE_TIMEOUT; i++) {
 		if (ure_read_1(sc, URE_PLA_OOB_CTRL, URE_MCU_TYPE_PLA) &
 		    URE_LINK_LIST_READY)
 			break;
 		uether_pause(&sc->sc_ue, hz / 100);
 	}
 	if (i == URE_TIMEOUT)
 		device_printf(sc->sc_ue.ue_dev,
 		    "timeout waiting for OOB control\n");
 
 	ure_write_2(sc, URE_PLA_CPCR, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_CPCR, URE_MCU_TYPE_PLA) &
 	    ~URE_CPCR_RX_VLAN);
 	ure_write_2(sc, URE_PLA_TCR0, URE_MCU_TYPE_PLA,
 	    ure_read_2(sc, URE_PLA_TCR0, URE_MCU_TYPE_PLA) |
 	    URE_TCR0_AUTO_FIFO);
 
 	/* Configure Rx FIFO threshold. */
 	ure_write_4(sc, URE_PLA_RXFIFO_CTRL0, URE_MCU_TYPE_PLA,
 	    URE_RXFIFO_THR1_NORMAL);
 	if (usbd_get_speed(sc->sc_ue.ue_udev) == USB_SPEED_FULL) {
 		rx_fifo1 = URE_RXFIFO_THR2_FULL;
 		rx_fifo2 = URE_RXFIFO_THR3_FULL;
 	} else {
 		rx_fifo1 = URE_RXFIFO_THR2_HIGH;
 		rx_fifo2 = URE_RXFIFO_THR3_HIGH;
 	}
 	ure_write_4(sc, URE_PLA_RXFIFO_CTRL1, URE_MCU_TYPE_PLA, rx_fifo1);
 	ure_write_4(sc, URE_PLA_RXFIFO_CTRL2, URE_MCU_TYPE_PLA, rx_fifo2);
 
 	/* Configure Tx FIFO threshold. */
 	ure_write_4(sc, URE_PLA_TXFIFO_CTRL, URE_MCU_TYPE_PLA,
 	    URE_TXFIFO_THR_NORMAL);
 }
Index: head/sys/dev/usb/net/if_urereg.h
===================================================================
--- head/sys/dev/usb/net/if_urereg.h	(revision 308120)
+++ head/sys/dev/usb/net/if_urereg.h	(revision 308121)
@@ -1,435 +1,440 @@
 /*-
- * Copyright (c) 2015 Kevin Lo <kevlo@FreeBSD.org>
+ * Copyright (c) 2015-2016 Kevin Lo <kevlo@FreeBSD.org>
  * All rights reserved.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  *
  * THIS SOFTWARE IS PROVIDED BY THE AUTHOR AND CONTRIBUTORS ``AS IS'' AND
  * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
  * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
  * ARE DISCLAIMED.  IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE
  * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
  * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
  * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
  * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
  * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
  * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
  * SUCH DAMAGE.
  *
  * $FreeBSD$
  */
 
 #define	URE_CONFIG_IDX		0	/* config number 1 */
 #define	URE_IFACE_IDX		0
 
 #define	URE_CTL_READ		0x01
 #define	URE_CTL_WRITE		0x02
 
 #define	URE_TIMEOUT		1000
 #define	URE_PHY_TIMEOUT		2000
 
 #define	URE_BYTE_EN_DWORD	0xff
 #define	URE_BYTE_EN_WORD	0x33
 #define	URE_BYTE_EN_BYTE	0x11
 #define	URE_BYTE_EN_SIX_BYTES	0x3f
 
 #define	URE_MAX_FRAMELEN	(ETHER_MAX_LEN + ETHER_VLAN_ENCAP_LEN)
 
 #define	URE_PLA_IDR		0xc000
 #define	URE_PLA_RCR		0xc010
 #define	URE_PLA_RMS		0xc016
 #define	URE_PLA_RXFIFO_CTRL0	0xc0a0
 #define	URE_PLA_RXFIFO_CTRL1	0xc0a4
 #define	URE_PLA_RXFIFO_CTRL2	0xc0a8
 #define	URE_PLA_DMY_REG0	0xc0b0
 #define	URE_PLA_FMC		0xc0b4
 #define	URE_PLA_CFG_WOL		0xc0b6
 #define	URE_PLA_TEREDO_CFG	0xc0bc
 #define	URE_PLA_MAR0		0xcd00
 #define	URE_PLA_MAR4		0xcd04
 #define	URE_PLA_BACKUP		0xd000
 #define	URE_PAL_BDC_CR		0xd1a0
 #define	URE_PLA_TEREDO_TIMER	0xd2cc
 #define	URE_PLA_REALWOW_TIMER	0xd2e8
 #define	URE_PLA_LEDSEL		0xdd90
 #define	URE_PLA_LED_FEATURE	0xdd92
 #define	URE_PLA_PHYAR		0xde00
 #define	URE_PLA_BOOT_CTRL	0xe004
 #define	URE_PLA_GPHY_INTR_IMR	0xe022
 #define	URE_PLA_EEE_CR		0xe040
 #define	URE_PLA_EEEP_CR		0xe080
 #define	URE_PLA_MAC_PWR_CTRL	0xe0c0
 #define	URE_PLA_MAC_PWR_CTRL2	0xe0ca
 #define	URE_PLA_MAC_PWR_CTRL3	0xe0cc
 #define	URE_PLA_MAC_PWR_CTRL4	0xe0ce
 #define	URE_PLA_WDT6_CTRL	0xe428
 #define	URE_PLA_TCR0		0xe610
 #define	URE_PLA_TCR1		0xe612
 #define	URE_PLA_MTPS		0xe615
 #define	URE_PLA_TXFIFO_CTRL	0xe618
 #define	URE_PLA_RSTTELLY	0xe800
 #define	URE_PLA_CR		0xe813
 #define	URE_PLA_CRWECR		0xe81c
 #define	URE_PLA_CONFIG5		0xe822
 #define	URE_PLA_PHY_PWR		0xe84c
 #define	URE_PLA_OOB_CTRL	0xe84f
 #define	URE_PLA_CPCR		0xe854
 #define	URE_PLA_MISC_0		0xe858
 #define	URE_PLA_MISC_1		0xe85a
 #define	URE_PLA_OCP_GPHY_BASE	0xe86c
 #define	URE_PLA_TELLYCNT	0xe890
 #define	URE_PLA_SFF_STS_7	0xe8de
-#define	URE_PLA_PHYSTATUS	0xe908
+#define	URE_GMEDIASTAT		0xe908
 
 #define	URE_USB_USB2PHY		0xb41e
 #define	URE_USB_SSPHYLINK2	0xb428
 #define	URE_USB_U2P3_CTRL	0xb460
 #define	URE_USB_CSR_DUMMY1	0xb464
 #define	URE_USB_CSR_DUMMY2	0xb466
 #define	URE_USB_DEV_STAT	0xb808
 #define	URE_USB_CONNECT_TIMER	0xcbf8
 #define	URE_USB_BURST_SIZE	0xcfc0
 #define	URE_USB_USB_CTRL	0xd406
 #define	URE_USB_PHY_CTRL	0xd408
 #define	URE_USB_TX_AGG		0xd40a
 #define	URE_USB_RX_BUF_TH	0xd40c
 #define	URE_USB_USB_TIMER	0xd428
 #define	URE_USB_RX_EARLY_AGG	0xd42c
 #define	URE_USB_PM_CTRL_STATUS	0xd432
 #define	URE_USB_TX_DMA		0xd434
 #define	URE_USB_TOLERANCE	0xd490
 #define	URE_USB_LPM_CTRL	0xd41a
 #define	URE_USB_UPS_CTRL	0xd800
 #define	URE_USB_MISC_0		0xd81a
 #define	URE_USB_POWER_CUT	0xd80a
 #define	URE_USB_AFE_CTRL2	0xd824
 #define	URE_USB_WDT11_CTRL	0xe43c
 
 /* OCP Registers. */
 #define	URE_OCP_ALDPS_CONFIG	0x2010
 #define	URE_OCP_EEE_CONFIG1	0x2080
 #define	URE_OCP_EEE_CONFIG2	0x2092
 #define	URE_OCP_EEE_CONFIG3	0x2094
 #define	URE_OCP_BASE_MII	0xa400
 #define	URE_OCP_EEE_AR		0xa41a
 #define	URE_OCP_EEE_DATA	0xa41c
 #define	URE_OCP_PHY_STATUS	0xa420
 #define	URE_OCP_POWER_CFG	0xa430
 #define	URE_OCP_EEE_CFG		0xa432
 #define	URE_OCP_SRAM_ADDR	0xa436
 #define	URE_OCP_SRAM_DATA	0xa438
 #define	URE_OCP_DOWN_SPEED	0xa442
 #define	URE_OCP_EEE_ABLE	0xa5c4
 #define	URE_OCP_EEE_ADV		0xa5d0
 #define	URE_OCP_EEE_LPABLE	0xa5d2
 #define	URE_OCP_PHY_STATE	0xa708
 #define	URE_OCP_ADC_CFG		0xbc06
 
 /* SRAM Register. */
 #define	URE_SRAM_LPF_CFG	0x8012
 #define	URE_SRAM_10M_AMP1	0x8080
 #define	URE_SRAM_10M_AMP2	0x8082
 #define	URE_SRAM_IMPEDANCE	0x8084
 
 /* PLA_RCR */
 #define	URE_RCR_AAP		0x00000001
 #define	URE_RCR_APM		0x00000002
 #define	URE_RCR_AM		0x00000004
 #define	URE_RCR_AB		0x00000008
 #define	URE_RCR_ACPT_ALL	\
 	(URE_RCR_AAP | URE_RCR_APM | URE_RCR_AM | URE_RCR_AB)
 
 /* PLA_RXFIFO_CTRL0 */
 #define	URE_RXFIFO_THR1_NORMAL	0x00080002
 #define	URE_RXFIFO_THR1_OOB	0x01800003
 
 /* PLA_RXFIFO_CTRL1 */
 #define	URE_RXFIFO_THR2_FULL	0x00000060
 #define	URE_RXFIFO_THR2_HIGH	0x00000038
 #define	URE_RXFIFO_THR2_OOB	0x0000004a
 #define	URE_RXFIFO_THR2_NORMAL	0x00a0
 
 /* PLA_RXFIFO_CTRL2 */
 #define	URE_RXFIFO_THR3_FULL	0x00000078
 #define	URE_RXFIFO_THR3_HIGH	0x00000048
 #define	URE_RXFIFO_THR3_OOB	0x0000005a
 #define	URE_RXFIFO_THR3_NORMAL	0x0110
 
 /* PLA_TXFIFO_CTRL */
 #define	URE_TXFIFO_THR_NORMAL	0x00400008
 #define	URE_TXFIFO_THR_NORMAL2	0x01000008
 
 /* PLA_DMY_REG0 */
 #define	URE_ECM_ALDPS		0x0002
 
 /* PLA_FMC */
 #define	URE_FMC_FCR_MCU_EN	0x0001
 
 /* PLA_EEEP_CR */
 #define	URE_EEEP_CR_EEEP_TX	0x0002
 
 /* PLA_WDT6_CTRL */
 #define	URE_WDT6_SET_MODE	0x001
 
 /* PLA_TCR0 */
 #define	URE_TCR0_TX_EMPTY	0x0800
 #define	URE_TCR0_AUTO_FIFO	0x0080
 
 /* PLA_TCR1 */
 #define	URE_VERSION_MASK	0x7cf0
 
 /* PLA_CR */
 #define	URE_CR_RST		0x10
 #define	URE_CR_RE		0x08
 #define	URE_CR_TE		0x04
 
 /* PLA_CRWECR */
 #define	URE_CRWECR_NORAML	0x00
 #define	URE_CRWECR_CONFIG	0xc0
 
 /* PLA_OOB_CTRL */
 #define	URE_NOW_IS_OOB		0x80    
 #define	URE_TXFIFO_EMPTY	0x20    
 #define	URE_RXFIFO_EMPTY	0x10    
 #define	URE_LINK_LIST_READY	0x02    
 #define	URE_DIS_MCU_CLROOB	0x01    
 #define	URE_FIFO_EMPTY		(URE_TXFIFO_EMPTY | URE_RXFIFO_EMPTY)
 
 /* PLA_MISC_1 */
 #define	URE_RXDY_GATED_EN	0x0008  
 
 /* PLA_SFF_STS_7 */
 #define	URE_RE_INIT_LL		0x8000  
 #define	URE_MCU_BORW_EN		0x4000  
 
 /* PLA_CPCR */
 #define	URE_CPCR_RX_VLAN	0x0040
 
 /* PLA_TEREDO_CFG */
 #define	URE_TEREDO_SEL			0x8000
 #define	URE_TEREDO_WAKE_MASK		0x7f00
 #define	URE_TEREDO_RS_EVENT_MASK	0x00fe
 #define	URE_OOB_TEREDO_EN		0x0001
 
 /* PAL_BDC_CR */
 #define	URE_ALDPS_PROXY_MODE	0x0001
 
 /* PLA_CONFIG5 */
 #define	URE_LAN_WAKE_EN		0x0002
 
 /* PLA_LED_FEATURE */
 #define	URE_LED_MODE_MASK	0x0700
 
 /* PLA_PHY_PWR */
 #define	URE_TX_10M_IDLE_EN	0x0080
 #define	URE_PFM_PWM_SWITCH	0x0040
 
 /* PLA_MAC_PWR_CTRL */
 #define	URE_D3_CLK_GATED_EN	0x00004000
 #define	URE_MCU_CLK_RATIO	0x07010f07
 #define	URE_MCU_CLK_RATIO_MASK	0x0f0f0f0f
 #define	URE_ALDPS_SPDWN_RATIO	0x0f87
 
 /* PLA_MAC_PWR_CTRL2 */
 #define	URE_EEE_SPDWN_RATIO	0x8007
 
 /* PLA_MAC_PWR_CTRL3 */
 #define	URE_PKT_AVAIL_SPDWN_EN	0x0100
 #define	URE_SUSPEND_SPDWN_EN	0x0004
 #define	URE_U1U2_SPDWN_EN	0x0002
 #define	URE_L1_SPDWN_EN		0x0001
 
 /* PLA_MAC_PWR_CTRL4 */
 #define	URE_PWRSAVE_SPDWN_EN	0x1000
 #define	URE_RXDV_SPDWN_EN	0x0800
 #define	URE_TX10MIDLE_EN	0x0100
 #define	URE_TP100_SPDWN_EN	0x0020
 #define	URE_TP500_SPDWN_EN	0x0010
 #define	URE_TP1000_SPDWN_EN	0x0008
 #define	URE_EEE_SPDWN_EN	0x0001
 
 /* PLA_GPHY_INTR_IMR */
 #define	URE_GPHY_STS_MSK	0x0001
 #define	URE_SPEED_DOWN_MSK	0x0002
 #define	URE_SPDWN_RXDV_MSK	0x0004
 #define	URE_SPDWN_LINKCHG_MSK	0x0008
 
 /* PLA_PHYAR */
 #define	URE_PHYAR_PHYDATA	0x0000ffff
 #define	URE_PHYAR_BUSY		0x80000000
 
 /* PLA_EEE_CR */
 #define	URE_EEE_RX_EN		0x0001
 #define	URE_EEE_TX_EN		0x0002
 
 /* PLA_BOOT_CTRL */
 #define	URE_AUTOLOAD_DONE	0x0002
 
 /* USB_USB2PHY */
 #define	URE_USB2PHY_SUSPEND	0x0001
 #define	URE_USB2PHY_L1		0x0002
 
 /* USB_SSPHYLINK2 */
 #define	URE_PWD_DN_SCALE_MASK	0x3ffe
 #define	URE_PWD_DN_SCALE(x)	((x) << 1)
 
 /* USB_CSR_DUMMY1 */
 #define	URE_DYNAMIC_BURST	0x0001
 
 /* USB_CSR_DUMMY2 */
 #define	URE_EP4_FULL_FC		0x0001
 
 /* USB_DEV_STAT */
 #define	URE_STAT_SPEED_MASK	0x0006
 #define	URE_STAT_SPEED_HIGH	0x0000
 #define	URE_STAT_SPEED_FULL	0x0001
 
 /* USB_TX_AGG */
 #define	URE_TX_AGG_MAX_THRESHOLD	0x03
 
 /* USB_RX_BUF_TH */
 #define	URE_RX_THR_SUPER	0x0c350180
 #define	URE_RX_THR_HIGH		0x7a120180
 #define	URE_RX_THR_SLOW		0xffff0180
 
 /* USB_TX_DMA */
 #define	URE_TEST_MODE_DISABLE	0x00000001
 #define	URE_TX_SIZE_ADJUST1	0x00000100
 
 /* USB_UPS_CTRL */
 #define	URE_POWER_CUT		0x0100
 
 /* USB_PM_CTRL_STATUS */
 #define	URE_RESUME_INDICATE	0x0001
 
 /* USB_USB_CTRL */
 #define	URE_RX_AGG_DISABLE	0x0010
 #define	URE_RX_ZERO_EN		0x0080
 
 /* USB_U2P3_CTRL */
 #define	URE_U2P3_ENABLE		0x0001
 
 /* USB_POWER_CUT */
 #define	URE_PWR_EN		0x0001
 #define	URE_PHASE2_EN		0x0008
 
 /* USB_MISC_0 */
 #define	URE_PCUT_STATUS		0x0001
 
 /* USB_RX_EARLY_TIMEOUT */
 #define	URE_COALESCE_SUPER	85000U
 #define	URE_COALESCE_HIGH	250000U
 #define	URE_COALESCE_SLOW	524280U
 
 /* USB_WDT11_CTRL */
 #define	URE_TIMER11_EN		0x0001
 
 /* USB_LPM_CTRL */
 #define	URE_FIFO_EMPTY_1FB	0x30
 #define	URE_LPM_TIMER_MASK	0x0c
 #define	URE_LPM_TIMER_500MS	0x04
 #define	URE_LPM_TIMER_500US	0x0c
 #define	URE_ROK_EXIT_LPM	0x02
 
 /* USB_AFE_CTRL2 */
 #define	URE_SEN_VAL_MASK	0xf800
 #define	URE_SEN_VAL_NORMAL	0xa000
 #define	URE_SEL_RXIDLE		0x0100
 
 /* OCP_ALDPS_CONFIG */
 #define	URE_ENPWRSAVE		0x8000  
 #define	URE_ENPDNPS		0x0200  
 #define	URE_LINKENA		0x0100  
 #define	URE_DIS_SDSAVE		0x0010
 
 /* OCP_PHY_STATUS */
 #define	URE_PHY_STAT_MASK	0x0007
 #define	URE_PHY_STAT_LAN_ON	3	
 #define	URE_PHY_STAT_PWRDN	5
 
 /* OCP_POWER_CFG */
 #define	URE_EEE_CLKDIV_EN	0x8000
 #define	URE_EN_ALDPS		0x0004
 #define	URE_EN_10M_PLLOFF	0x0001
 
 /* OCP_EEE_CFG */
 #define	URE_CTAP_SHORT_EN	0x0040
 #define	URE_EEE10_EN		0x0010
 
 /* OCP_DOWN_SPEED */
 #define	URE_EN_10M_BGOFF	0x0080
 
 /* OCP_PHY_STATE */
 #define	URE_TXDIS_STATE		0x01
 #define	URE_ABD_STATE		0x02
 
 /* OCP_ADC_CFG */
 #define	URE_CKADSEL_L		0x0100
 #define	URE_ADC_EN		0x0080
 #define	URE_EN_EMI_L		0x0040
 
 #define	URE_MCU_TYPE_PLA	0x0100
 #define	URE_MCU_TYPE_USB	0x0000
 
 #define	GET_MII(sc)		uether_getmii(&(sc)->sc_ue)
 
 struct ure_intrpkt {
 	uint8_t	ure_tsr;
 	uint8_t	ure_rsr;
 	uint8_t	ure_gep_msr;
 	uint8_t	ure_waksr;
 	uint8_t	ure_txok_cnt;
 	uint8_t	ure_rxlost_cnt;
 	uint8_t	ure_crcerr_cnt;
 	uint8_t	ure_col_cnt;
 } __packed;
 
 struct ure_rxpkt {
 	uint32_t ure_pktlen;
 #define	URE_RXPKT_LEN_MASK	0x7fff
 	uint32_t ure_rsvd0;
 	uint32_t ure_rsvd1;
 	uint32_t ure_rsvd2;
 	uint32_t ure_rsvd3;
 	uint32_t ure_rsvd4;
 } __packed;
 
 struct ure_txpkt {
 	uint32_t ure_pktlen;
 #define	URE_TKPKT_TX_FS		(1 << 31)
 #define	URE_TKPKT_TX_LS		(1 << 30)
 #define	URE_TXPKT_LEN_MASK	0xffff
 	uint32_t ure_rsvd0;
 } __packed;
 
 enum {
 	URE_BULK_DT_WR,
 	URE_BULK_DT_RD,
 	URE_N_TRANSFER,
 };
 
 struct ure_softc {
 	struct usb_ether	sc_ue;
 	struct mtx		sc_mtx;
 	struct usb_xfer		*sc_xfer[URE_N_TRANSFER];
 
 	int			sc_phyno;
 
 	u_int			sc_flags;
 #define	URE_FLAG_LINK		0x0001
+#define	URE_FLAG_8152		0x1000	/* RTL8152 */
 
 	u_int			sc_chip;
 #define	URE_CHIP_VER_4C00	0x01
 #define	URE_CHIP_VER_4C10	0x02
+#define	URE_CHIP_VER_5C00	0x04
+#define	URE_CHIP_VER_5C10	0x08
+#define	URE_CHIP_VER_5C20	0x10
+#define	URE_CHIP_VER_5C30	0x20
 };
 
 #define	URE_LOCK(_sc)		mtx_lock(&(_sc)->sc_mtx)
 #define	URE_UNLOCK(_sc)		mtx_unlock(&(_sc)->sc_mtx)
 #define	URE_LOCK_ASSERT(_sc, t)	mtx_assert(&(_sc)->sc_mtx, t)