Index: head/sys/conf/files.arm64 =================================================================== --- head/sys/conf/files.arm64 (revision 323361) +++ head/sys/conf/files.arm64 (revision 323362) @@ -1,210 +1,212 @@ # $FreeBSD$ cloudabi64_vdso.o optional compat_cloudabi64 \ dependency "$S/contrib/cloudabi/cloudabi_vdso_aarch64.S" \ compile-with "${CC} -x assembler-with-cpp -shared -nostdinc -nostdlib -Wl,-T$S/compat/cloudabi/cloudabi_vdso.lds $S/contrib/cloudabi/cloudabi_vdso_aarch64.S -o ${.TARGET}" \ no-obj no-implicit-rule \ clean "cloudabi64_vdso.o" # cloudabi64_vdso_blob.o optional compat_cloudabi64 \ dependency "cloudabi64_vdso.o" \ compile-with "${OBJCOPY} --input-target binary --output-target elf64-littleaarch64 --binary-architecture aarch64 cloudabi64_vdso.o ${.TARGET}" \ no-implicit-rule \ clean "cloudabi64_vdso_blob.o" # arm/allwinner/a10_ehci.c optional ehci aw_ehci fdt arm/allwinner/a10_gpio.c optional gpio aw_gpio fdt arm/allwinner/a10_mmc.c optional mmc aw_mmc fdt arm/allwinner/a64/a64_padconf.c optional soc_allwinner_a64 fdt arm/allwinner/a64/a64_r_padconf.c optional soc_allwinner_a64 fdt arm/allwinner/aw_ccu.c optional aw_ccu fdt arm/allwinner/aw_nmi.c optional aw_nmi fdt \ compile-with "${NORMAL_C} -I$S/gnu/dts/include" arm/allwinner/aw_reset.c optional aw_ccu fdt arm/allwinner/aw_rsb.c optional aw_rsb fdt arm/allwinner/aw_rtc.c optional aw_rtc fdt arm/allwinner/aw_sid.c optional aw_sid fdt arm/allwinner/aw_thermal.c optional aw_thermal fdt arm/allwinner/aw_usbphy.c optional ehci aw_usbphy fdt arm/allwinner/aw_wdog.c optional aw_wdog fdt arm/allwinner/axp81x.c optional axp81x fdt arm/allwinner/clk/aw_ahbclk.c optional aw_ccu fdt arm/allwinner/clk/aw_apbclk.c optional aw_ccu fdt arm/allwinner/clk/aw_axiclk.c optional aw_ccu fdt arm/allwinner/clk/aw_cpuclk.c optional aw_ccu fdt arm/allwinner/clk/aw_gate.c optional aw_ccu fdt arm/allwinner/clk/aw_modclk.c optional aw_ccu fdt arm/allwinner/clk/aw_pll.c optional aw_ccu fdt \ compile-with "${NORMAL_C} -I$S/gnu/dts/include" arm/allwinner/clk/aw_thsclk.c optional aw_ccu fdt arm/allwinner/clk/aw_usbclk.c optional aw_ccu fdt arm/allwinner/clkng/aw_ccung.c optional aw_ccu fdt arm/allwinner/clkng/aw_clk_nkmp.c optional aw_ccu fdt arm/allwinner/clkng/aw_clk_nm.c optional aw_ccu fdt arm/allwinner/clkng/aw_clk_prediv_mux.c optional aw_ccu fdt arm/allwinner/clkng/ccu_a64.c optional aw_ccu fdt arm/allwinner/clkng/ccu_h3.c optional aw_ccu fdt arm/allwinner/if_awg.c optional awg fdt arm/annapurna/alpine/alpine_ccu.c optional al_ccu fdt arm/annapurna/alpine/alpine_nb_service.c optional al_nb_service fdt arm/annapurna/alpine/alpine_pci.c optional al_pci fdt arm/annapurna/alpine/alpine_pci_msix.c optional al_pci fdt arm/annapurna/alpine/alpine_serdes.c optional al_serdes fdt \ no-depend \ compile-with "${CC} -c -o ${.TARGET} ${CFLAGS} -I$S/contrib/alpine-hal -I$S/contrib/alpine-hal/eth ${PROF} ${.IMPSRC}" arm/arm/generic_timer.c standard arm/arm/gic.c standard arm/arm/gic_fdt.c optional fdt arm/arm/pmu.c standard arm/broadcom/bcm2835/bcm2835_audio.c optional sound vchiq fdt \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" arm/broadcom/bcm2835/bcm2835_bsc.c optional bcm2835_bsc soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_cpufreq.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_dma.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_fbd.c optional vt soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_ft5406.c optional evdev bcm2835_ft5406 soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_gpio.c optional gpio soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_intr.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_mbox.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_rng.c optional random soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_sdhci.c optional sdhci soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_spi.c optional bcm2835_spi soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_vcio.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2835_wdog.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm2836.c optional soc_brcm_bcm2837 fdt arm/broadcom/bcm2835/bcm283x_dwc_fdt.c optional dwcotg fdt soc_brcm_bcm2837 arm/mv/armada38x/armada38x_rtc.c optional mv_rtc fdt arm64/acpica/acpi_machdep.c optional acpi arm64/acpica/OsdEnvironment.c optional acpi arm64/acpica/acpi_wakeup.c optional acpi arm64/acpica/pci_cfgreg.c optional acpi pci arm64/arm64/autoconf.c standard arm64/arm64/bus_machdep.c standard arm64/arm64/bus_space_asm.S standard arm64/arm64/busdma_bounce.c standard arm64/arm64/busdma_machdep.c standard arm64/arm64/bzero.S standard arm64/arm64/clock.c standard arm64/arm64/copyinout.S standard arm64/arm64/copystr.c standard arm64/arm64/cpufunc_asm.S standard arm64/arm64/db_disasm.c optional ddb arm64/arm64/db_interface.c optional ddb arm64/arm64/db_trace.c optional ddb arm64/arm64/debug_monitor.c optional ddb arm64/arm64/disassem.c optional ddb arm64/arm64/dump_machdep.c standard arm64/arm64/elf_machdep.c standard arm64/arm64/exception.S standard arm64/arm64/gicv3_its.c optional intrng fdt arm64/arm64/gic_v3.c standard arm64/arm64/gic_v3_fdt.c optional fdt arm64/arm64/identcpu.c standard arm64/arm64/in_cksum.c optional inet | inet6 arm64/arm64/locore.S standard no-obj arm64/arm64/machdep.c standard arm64/arm64/mem.c standard arm64/arm64/memcpy.S standard arm64/arm64/memmove.S standard arm64/arm64/minidump_machdep.c standard arm64/arm64/mp_machdep.c optional smp arm64/arm64/nexus.c standard arm64/arm64/ofw_machdep.c optional fdt arm64/arm64/pmap.c standard arm64/arm64/stack_machdep.c optional ddb | stack arm64/arm64/support.S standard arm64/arm64/swtch.S standard arm64/arm64/sys_machdep.c standard arm64/arm64/trap.c standard arm64/arm64/uio_machdep.c standard arm64/arm64/uma_machdep.c standard arm64/arm64/unwind.c optional ddb | kdtrace_hooks | stack arm64/arm64/vfp.c standard arm64/arm64/vm_machdep.c standard arm64/cavium/thunder_pcie_fdt.c optional soc_cavm_thunderx pci fdt arm64/cavium/thunder_pcie_pem.c optional soc_cavm_thunderx pci arm64/cavium/thunder_pcie_pem_fdt.c optional soc_cavm_thunderx pci fdt arm64/cavium/thunder_pcie_common.c optional soc_cavm_thunderx pci arm64/cloudabi64/cloudabi64_sysvec.c optional compat_cloudabi64 contrib/vchiq/interface/compat/vchi_bsd.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_2835_arm.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -Wno-unused -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_arm.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -Wno-unused -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_connected.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_core.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_kern_lib.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_kmod.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_shim.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" contrib/vchiq/interface/vchiq_arm/vchiq_util.c optional vchiq soc_brcm_bcm2837 \ compile-with "${NORMAL_C} -DUSE_VCHIQ_ARM -D__VCCOREVER__=0x04000000 -I$S/contrib/vchiq" crypto/armv8/armv8_crypto.c optional armv8crypto armv8_crypto_wrap.o optional armv8crypto \ dependency "$S/crypto/armv8/armv8_crypto_wrap.c" \ compile-with "${CC} -c ${CFLAGS:C/^-O2$/-O3/:N-nostdinc:N-mgeneral-regs-only} ${WERROR} ${NO_WCAST_QUAL} ${PROF} -march=armv8-a+crypto ${.IMPSRC}" \ no-implicit-rule \ clean "armv8_crypto_wrap.o" crypto/blowfish/bf_enc.c optional crypto | ipsec | ipsec_support crypto/des/des_enc.c optional crypto | ipsec | ipsec_support | netsmb dev/acpica/acpi_if.m optional acpi dev/ahci/ahci_generic.c optional ahci dev/axgbe/if_axgbe.c optional axgbe dev/axgbe/xgbe-desc.c optional axgbe dev/axgbe/xgbe-dev.c optional axgbe dev/axgbe/xgbe-drv.c optional axgbe dev/axgbe/xgbe-mdio.c optional axgbe dev/cpufreq/cpufreq_dt.c optional cpufreq fdt dev/iicbus/twsi/a10_twsi.c optional twsi fdt dev/iicbus/twsi/twsi.c optional twsi fdt dev/hwpmc/hwpmc_arm64.c optional hwpmc dev/hwpmc/hwpmc_arm64_md.c optional hwpmc dev/mbox/mbox_if.m optional soc_brcm_bcm2837 dev/mmc/host/dwmmc.c optional dwmmc fdt dev/mmc/host/dwmmc_hisi.c optional dwmmc fdt soc_hisi_hi6220 +dev/neta/if_mvneta_fdt.c optional neta fdt +dev/neta/if_mvneta.c optional neta mdio mii dev/ofw/ofw_cpu.c optional fdt dev/ofw/ofwpci.c optional fdt pci dev/pci/pci_host_generic.c optional pci dev/pci/pci_host_generic_fdt.c optional pci fdt dev/psci/psci.c optional psci dev/psci/psci_arm64.S optional psci dev/uart/uart_cpu_arm64.c optional uart dev/uart/uart_dev_pl011.c optional uart pl011 dev/usb/controller/dwc_otg_hisi.c optional dwcotg fdt soc_hisi_hi6220 dev/usb/controller/ehci_mv.c optional ehci_mv fdt dev/usb/controller/generic_ehci.c optional ehci acpi dev/usb/controller/generic_ohci.c optional ohci fdt dev/usb/controller/generic_usb_if.m optional ohci fdt dev/usb/controller/xhci_mv.c optional xhci_mv fdt dev/vnic/mrml_bridge.c optional vnic fdt dev/vnic/nic_main.c optional vnic pci dev/vnic/nicvf_main.c optional vnic pci pci_iov dev/vnic/nicvf_queues.c optional vnic pci pci_iov dev/vnic/thunder_bgx_fdt.c optional vnic fdt dev/vnic/thunder_bgx.c optional vnic pci dev/vnic/thunder_mdio_fdt.c optional vnic fdt dev/vnic/thunder_mdio.c optional vnic dev/vnic/lmac_if.m optional inet | inet6 | vnic kern/kern_clocksource.c standard kern/msi_if.m optional intrng kern/pic_if.m optional intrng kern/subr_devmap.c standard kern/subr_intr.c optional intrng libkern/bcmp.c standard libkern/ffs.c standard libkern/ffsl.c standard libkern/ffsll.c standard libkern/fls.c standard libkern/flsl.c standard libkern/flsll.c standard libkern/memset.c standard libkern/arm64/crc32c_armv8.S standard cddl/contrib/opensolaris/common/atomic/aarch64/opensolaris_atomic.S optional zfs | dtrace compile-with "${CDDL_C}" cddl/dev/dtrace/aarch64/dtrace_asm.S optional dtrace compile-with "${DTRACE_S}" cddl/dev/dtrace/aarch64/dtrace_subr.c optional dtrace compile-with "${DTRACE_C}" cddl/dev/fbt/aarch64/fbt_isa.c optional dtrace_fbt | dtraceall compile-with "${FBT_C}" Index: head/sys/dev/neta/if_mvneta.c =================================================================== --- head/sys/dev/neta/if_mvneta.c (revision 323361) +++ head/sys/dev/neta/if_mvneta.c (revision 323362) @@ -1,3571 +1,3590 @@ /* * Copyright (c) 2017 Stormshield. * Copyright (c) 2017 Semihalf. * All rights reserved. * * Redistribution and use in source and binary forms, with or without * modification, are permitted provided that the following conditions * are met: * 1. Redistributions of source code must retain the above copyright * notice, this list of conditions and the following disclaimer. * 2. Redistributions in binary form must reproduce the above copyright * notice, this list of conditions and the following disclaimer in the * documentation and/or other materials provided with the distribution. * * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED * WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE * DISCLAIMED. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, * INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR * SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, * STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN * ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE * POSSIBILITY OF SUCH DAMAGE. */ #include "opt_platform.h" #include __FBSDID("$FreeBSD$"); #include #include #include #include #include #include #include #include #include #include #include #include #ifdef MVNETA_KTR #include #endif #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include -#include #include + +#if !defined(__aarch64__) +#include #include +#endif #include "if_mvnetareg.h" #include "if_mvnetavar.h" #include "miibus_if.h" #include "mdio_if.h" #ifdef MVNETA_DEBUG #define STATIC /* nothing */ #else #define STATIC static #endif #define DASSERT(x) KASSERT((x), (#x)) +#define A3700_TCLK_250MHZ 250000000 + +STATIC uint32_t +mvneta_get_clk() +{ +#if defined(__aarch64__) + return (A3700_TCLK_250MHZ); +#else + return (get_tclk()); +#endif +} + /* Device Register Initialization */ STATIC int mvneta_initreg(struct ifnet *); /* Descriptor Ring Control for each of queues */ STATIC int mvneta_ring_alloc_rx_queue(struct mvneta_softc *, int); STATIC int mvneta_ring_alloc_tx_queue(struct mvneta_softc *, int); STATIC void mvneta_ring_dealloc_rx_queue(struct mvneta_softc *, int); STATIC void mvneta_ring_dealloc_tx_queue(struct mvneta_softc *, int); STATIC int mvneta_ring_init_rx_queue(struct mvneta_softc *, int); STATIC int mvneta_ring_init_tx_queue(struct mvneta_softc *, int); STATIC void mvneta_ring_flush_rx_queue(struct mvneta_softc *, int); STATIC void mvneta_ring_flush_tx_queue(struct mvneta_softc *, int); STATIC void mvneta_dmamap_cb(void *, bus_dma_segment_t *, int, int); STATIC int mvneta_dma_create(struct mvneta_softc *); /* Rx/Tx Queue Control */ STATIC int mvneta_rx_queue_init(struct ifnet *, int); STATIC int mvneta_tx_queue_init(struct ifnet *, int); STATIC int mvneta_rx_queue_enable(struct ifnet *, int); STATIC int mvneta_tx_queue_enable(struct ifnet *, int); STATIC void mvneta_rx_lockq(struct mvneta_softc *, int); STATIC void mvneta_rx_unlockq(struct mvneta_softc *, int); STATIC void mvneta_tx_lockq(struct mvneta_softc *, int); STATIC void mvneta_tx_unlockq(struct mvneta_softc *, int); /* Interrupt Handlers */ STATIC void mvneta_disable_intr(struct mvneta_softc *); STATIC void mvneta_enable_intr(struct mvneta_softc *); STATIC void mvneta_rxtxth_intr(void *); STATIC int mvneta_misc_intr(struct mvneta_softc *); STATIC void mvneta_tick(void *); /* struct ifnet and mii callbacks*/ STATIC int mvneta_xmitfast_locked(struct mvneta_softc *, int, struct mbuf **); STATIC int mvneta_xmit_locked(struct mvneta_softc *, int); #ifdef MVNETA_MULTIQUEUE STATIC int mvneta_transmit(struct ifnet *, struct mbuf *); #else /* !MVNETA_MULTIQUEUE */ STATIC void mvneta_start(struct ifnet *); #endif STATIC void mvneta_qflush(struct ifnet *); STATIC void mvneta_tx_task(void *, int); STATIC int mvneta_ioctl(struct ifnet *, u_long, caddr_t); STATIC void mvneta_init(void *); STATIC void mvneta_init_locked(void *); STATIC void mvneta_stop(struct mvneta_softc *); STATIC void mvneta_stop_locked(struct mvneta_softc *); STATIC int mvneta_mediachange(struct ifnet *); STATIC void mvneta_mediastatus(struct ifnet *, struct ifmediareq *); STATIC void mvneta_portup(struct mvneta_softc *); STATIC void mvneta_portdown(struct mvneta_softc *); /* Link State Notify */ STATIC void mvneta_update_autoneg(struct mvneta_softc *, int); STATIC int mvneta_update_media(struct mvneta_softc *, int); STATIC void mvneta_adjust_link(struct mvneta_softc *); STATIC void mvneta_update_eee(struct mvneta_softc *); STATIC void mvneta_update_fc(struct mvneta_softc *); STATIC void mvneta_link_isr(struct mvneta_softc *); STATIC void mvneta_linkupdate(struct mvneta_softc *, boolean_t); STATIC void mvneta_linkup(struct mvneta_softc *); STATIC void mvneta_linkdown(struct mvneta_softc *); STATIC void mvneta_linkreset(struct mvneta_softc *); /* Tx Subroutines */ STATIC int mvneta_tx_queue(struct mvneta_softc *, struct mbuf **, int); STATIC void mvneta_tx_set_csumflag(struct ifnet *, struct mvneta_tx_desc *, struct mbuf *); STATIC void mvneta_tx_queue_complete(struct mvneta_softc *, int); STATIC void mvneta_tx_drain(struct mvneta_softc *); /* Rx Subroutines */ STATIC int mvneta_rx(struct mvneta_softc *, int, int); STATIC void mvneta_rx_queue(struct mvneta_softc *, int, int); STATIC void mvneta_rx_queue_refill(struct mvneta_softc *, int); STATIC void mvneta_rx_set_csumflag(struct ifnet *, struct mvneta_rx_desc *, struct mbuf *); STATIC void mvneta_rx_buf_free(struct mvneta_softc *, struct mvneta_buf *); /* MAC address filter */ STATIC void mvneta_filter_setup(struct mvneta_softc *); /* sysctl(9) */ STATIC int sysctl_read_mib(SYSCTL_HANDLER_ARGS); STATIC int sysctl_clear_mib(SYSCTL_HANDLER_ARGS); STATIC int sysctl_set_queue_rxthtime(SYSCTL_HANDLER_ARGS); STATIC void sysctl_mvneta_init(struct mvneta_softc *); /* MIB */ STATIC void mvneta_clear_mib(struct mvneta_softc *); STATIC void mvneta_update_mib(struct mvneta_softc *); /* Switch */ STATIC boolean_t mvneta_has_switch(device_t); #define mvneta_sc_lock(sc) mtx_lock(&sc->mtx) #define mvneta_sc_unlock(sc) mtx_unlock(&sc->mtx) STATIC struct mtx mii_mutex; STATIC int mii_init = 0; /* Device */ STATIC int mvneta_detach(device_t); /* MII */ STATIC int mvneta_miibus_readreg(device_t, int, int); STATIC int mvneta_miibus_writereg(device_t, int, int, int); static device_method_t mvneta_methods[] = { /* Device interface */ DEVMETHOD(device_detach, mvneta_detach), /* MII interface */ DEVMETHOD(miibus_readreg, mvneta_miibus_readreg), DEVMETHOD(miibus_writereg, mvneta_miibus_writereg), /* MDIO interface */ DEVMETHOD(mdio_readreg, mvneta_miibus_readreg), DEVMETHOD(mdio_writereg, mvneta_miibus_writereg), /* End */ DEVMETHOD_END }; DEFINE_CLASS_0(mvneta, mvneta_driver, mvneta_methods, sizeof(struct mvneta_softc)); DRIVER_MODULE(miibus, mvneta, miibus_driver, miibus_devclass, 0, 0); DRIVER_MODULE(mdio, mvneta, mdio_driver, mdio_devclass, 0, 0); MODULE_DEPEND(mvneta, mdio, 1, 1, 1); MODULE_DEPEND(mvneta, ether, 1, 1, 1); MODULE_DEPEND(mvneta, miibus, 1, 1, 1); MODULE_DEPEND(mvneta, mvxpbm, 1, 1, 1); /* * List of MIB register and names */ enum mvneta_mib_idx { MVNETA_MIB_RX_GOOD_OCT_IDX, MVNETA_MIB_RX_BAD_OCT_IDX, MVNETA_MIB_TX_MAC_TRNS_ERR_IDX, MVNETA_MIB_RX_GOOD_FRAME_IDX, MVNETA_MIB_RX_BAD_FRAME_IDX, MVNETA_MIB_RX_BCAST_FRAME_IDX, MVNETA_MIB_RX_MCAST_FRAME_IDX, MVNETA_MIB_RX_FRAME64_OCT_IDX, MVNETA_MIB_RX_FRAME127_OCT_IDX, MVNETA_MIB_RX_FRAME255_OCT_IDX, MVNETA_MIB_RX_FRAME511_OCT_IDX, MVNETA_MIB_RX_FRAME1023_OCT_IDX, MVNETA_MIB_RX_FRAMEMAX_OCT_IDX, MVNETA_MIB_TX_GOOD_OCT_IDX, MVNETA_MIB_TX_GOOD_FRAME_IDX, MVNETA_MIB_TX_EXCES_COL_IDX, MVNETA_MIB_TX_MCAST_FRAME_IDX, MVNETA_MIB_TX_BCAST_FRAME_IDX, MVNETA_MIB_TX_MAC_CTL_ERR_IDX, MVNETA_MIB_FC_SENT_IDX, MVNETA_MIB_FC_GOOD_IDX, MVNETA_MIB_FC_BAD_IDX, MVNETA_MIB_PKT_UNDERSIZE_IDX, MVNETA_MIB_PKT_FRAGMENT_IDX, MVNETA_MIB_PKT_OVERSIZE_IDX, MVNETA_MIB_PKT_JABBER_IDX, MVNETA_MIB_MAC_RX_ERR_IDX, MVNETA_MIB_MAC_CRC_ERR_IDX, MVNETA_MIB_MAC_COL_IDX, MVNETA_MIB_MAC_LATE_COL_IDX, }; STATIC struct mvneta_mib_def { uint32_t regnum; int reg64; const char *sysctl_name; const char *desc; } mvneta_mib_list[] = { [MVNETA_MIB_RX_GOOD_OCT_IDX] = {MVNETA_MIB_RX_GOOD_OCT, 1, "rx_good_oct", "Good Octets Rx"}, [MVNETA_MIB_RX_BAD_OCT_IDX] = {MVNETA_MIB_RX_BAD_OCT, 0, "rx_bad_oct", "Bad Octets Rx"}, [MVNETA_MIB_TX_MAC_TRNS_ERR_IDX] = {MVNETA_MIB_TX_MAC_TRNS_ERR, 0, "tx_mac_err", "MAC Transmit Error"}, [MVNETA_MIB_RX_GOOD_FRAME_IDX] = {MVNETA_MIB_RX_GOOD_FRAME, 0, "rx_good_frame", "Good Frames Rx"}, [MVNETA_MIB_RX_BAD_FRAME_IDX] = {MVNETA_MIB_RX_BAD_FRAME, 0, "rx_bad_frame", "Bad Frames Rx"}, [MVNETA_MIB_RX_BCAST_FRAME_IDX] = {MVNETA_MIB_RX_BCAST_FRAME, 0, "rx_bcast_frame", "Broadcast Frames Rx"}, [MVNETA_MIB_RX_MCAST_FRAME_IDX] = {MVNETA_MIB_RX_MCAST_FRAME, 0, "rx_mcast_frame", "Multicast Frames Rx"}, [MVNETA_MIB_RX_FRAME64_OCT_IDX] = {MVNETA_MIB_RX_FRAME64_OCT, 0, "rx_frame_1_64", "Frame Size 1 - 64"}, [MVNETA_MIB_RX_FRAME127_OCT_IDX] = {MVNETA_MIB_RX_FRAME127_OCT, 0, "rx_frame_65_127", "Frame Size 65 - 127"}, [MVNETA_MIB_RX_FRAME255_OCT_IDX] = {MVNETA_MIB_RX_FRAME255_OCT, 0, "rx_frame_128_255", "Frame Size 128 - 255"}, [MVNETA_MIB_RX_FRAME511_OCT_IDX] = {MVNETA_MIB_RX_FRAME511_OCT, 0, "rx_frame_256_511", "Frame Size 256 - 511"}, [MVNETA_MIB_RX_FRAME1023_OCT_IDX] = {MVNETA_MIB_RX_FRAME1023_OCT, 0, "rx_frame_512_1023", "Frame Size 512 - 1023"}, [MVNETA_MIB_RX_FRAMEMAX_OCT_IDX] = {MVNETA_MIB_RX_FRAMEMAX_OCT, 0, "rx_fame_1024_max", "Frame Size 1024 - Max"}, [MVNETA_MIB_TX_GOOD_OCT_IDX] = {MVNETA_MIB_TX_GOOD_OCT, 1, "tx_good_oct", "Good Octets Tx"}, [MVNETA_MIB_TX_GOOD_FRAME_IDX] = {MVNETA_MIB_TX_GOOD_FRAME, 0, "tx_good_frame", "Good Frames Tx"}, [MVNETA_MIB_TX_EXCES_COL_IDX] = {MVNETA_MIB_TX_EXCES_COL, 0, "tx_exces_collision", "Excessive Collision"}, [MVNETA_MIB_TX_MCAST_FRAME_IDX] = {MVNETA_MIB_TX_MCAST_FRAME, 0, "tx_mcast_frame", "Multicast Frames Tx"}, [MVNETA_MIB_TX_BCAST_FRAME_IDX] = {MVNETA_MIB_TX_BCAST_FRAME, 0, "tx_bcast_frame", "Broadcast Frames Tx"}, [MVNETA_MIB_TX_MAC_CTL_ERR_IDX] = {MVNETA_MIB_TX_MAC_CTL_ERR, 0, "tx_mac_ctl_err", "Unknown MAC Control"}, [MVNETA_MIB_FC_SENT_IDX] = {MVNETA_MIB_FC_SENT, 0, "fc_tx", "Flow Control Tx"}, [MVNETA_MIB_FC_GOOD_IDX] = {MVNETA_MIB_FC_GOOD, 0, "fc_rx_good", "Good Flow Control Rx"}, [MVNETA_MIB_FC_BAD_IDX] = {MVNETA_MIB_FC_BAD, 0, "fc_rx_bad", "Bad Flow Control Rx"}, [MVNETA_MIB_PKT_UNDERSIZE_IDX] = {MVNETA_MIB_PKT_UNDERSIZE, 0, "pkt_undersize", "Undersized Packets Rx"}, [MVNETA_MIB_PKT_FRAGMENT_IDX] = {MVNETA_MIB_PKT_FRAGMENT, 0, "pkt_fragment", "Fragmented Packets Rx"}, [MVNETA_MIB_PKT_OVERSIZE_IDX] = {MVNETA_MIB_PKT_OVERSIZE, 0, "pkt_oversize", "Oversized Packets Rx"}, [MVNETA_MIB_PKT_JABBER_IDX] = {MVNETA_MIB_PKT_JABBER, 0, "pkt_jabber", "Jabber Packets Rx"}, [MVNETA_MIB_MAC_RX_ERR_IDX] = {MVNETA_MIB_MAC_RX_ERR, 0, "mac_rx_err", "MAC Rx Errors"}, [MVNETA_MIB_MAC_CRC_ERR_IDX] = {MVNETA_MIB_MAC_CRC_ERR, 0, "mac_crc_err", "MAC CRC Errors"}, [MVNETA_MIB_MAC_COL_IDX] = {MVNETA_MIB_MAC_COL, 0, "mac_collision", "MAC Collision"}, [MVNETA_MIB_MAC_LATE_COL_IDX] = {MVNETA_MIB_MAC_LATE_COL, 0, "mac_late_collision", "MAC Late Collision"}, }; static struct resource_spec res_spec[] = { { SYS_RES_MEMORY, 0, RF_ACTIVE }, { SYS_RES_IRQ, 0, RF_ACTIVE }, { -1, 0} }; static struct { driver_intr_t *handler; char * description; } mvneta_intrs[] = { { mvneta_rxtxth_intr, "MVNETA aggregated interrupt" }, }; static int mvneta_set_mac_address(struct mvneta_softc *sc, uint8_t *addr) { unsigned int mac_h; unsigned int mac_l; mac_l = (addr[4] << 8) | (addr[5]); mac_h = (addr[0] << 24) | (addr[1] << 16) | (addr[2] << 8) | (addr[3] << 0); MVNETA_WRITE(sc, MVNETA_MACAL, mac_l); MVNETA_WRITE(sc, MVNETA_MACAH, mac_h); return (0); } static int mvneta_get_mac_address(struct mvneta_softc *sc, uint8_t *addr) { uint32_t mac_l, mac_h; #ifdef FDT if (mvneta_fdt_mac_address(sc, addr) == 0) return (0); #endif /* * Fall back -- use the currently programmed address. */ mac_l = MVNETA_READ(sc, MVNETA_MACAL); mac_h = MVNETA_READ(sc, MVNETA_MACAH); if (mac_l == 0 && mac_h == 0) { /* * Generate pseudo-random MAC. * Set lower part to random number | unit number. */ mac_l = arc4random() & ~0xff; mac_l |= device_get_unit(sc->dev) & 0xff; mac_h = arc4random(); mac_h &= ~(3 << 24); /* Clear multicast and LAA bits */ if (bootverbose) { device_printf(sc->dev, "Could not acquire MAC address. " "Using randomized one.\n"); } } addr[0] = (mac_h & 0xff000000) >> 24; addr[1] = (mac_h & 0x00ff0000) >> 16; addr[2] = (mac_h & 0x0000ff00) >> 8; addr[3] = (mac_h & 0x000000ff); addr[4] = (mac_l & 0x0000ff00) >> 8; addr[5] = (mac_l & 0x000000ff); return (0); } STATIC boolean_t mvneta_has_switch(device_t self) { phandle_t node, switch_node, switch_eth, switch_eth_handle; node = ofw_bus_get_node(self); switch_node = ofw_bus_find_compatible(OF_finddevice("/"), "marvell,dsa"); switch_eth = 0; OF_getencprop(switch_node, "dsa,ethernet", (void*)&switch_eth_handle, sizeof(switch_eth_handle)); if (switch_eth_handle > 0) switch_eth = OF_node_from_xref(switch_eth_handle); /* Return true if dsa,ethernet cell points to us */ return (node == switch_eth); } STATIC int mvneta_dma_create(struct mvneta_softc *sc) { size_t maxsize, maxsegsz; size_t q; int error; /* * Create Tx DMA */ maxsize = maxsegsz = sizeof(struct mvneta_tx_desc) * MVNETA_TX_RING_CNT; error = bus_dma_tag_create( bus_get_dma_tag(sc->dev), /* parent */ 16, 0, /* alignment, boundary */ BUS_SPACE_MAXADDR_32BIT, /* lowaddr */ BUS_SPACE_MAXADDR, /* highaddr */ NULL, NULL, /* filtfunc, filtfuncarg */ maxsize, /* maxsize */ 1, /* nsegments */ maxsegsz, /* maxsegsz */ 0, /* flags */ NULL, NULL, /* lockfunc, lockfuncarg */ &sc->tx_dtag); /* dmat */ if (error != 0) { device_printf(sc->dev, "Failed to create DMA tag for Tx descriptors.\n"); goto fail; } error = bus_dma_tag_create( bus_get_dma_tag(sc->dev), /* parent */ 1, 0, /* alignment, boundary */ BUS_SPACE_MAXADDR_32BIT, /* lowaddr */ BUS_SPACE_MAXADDR, /* highaddr */ NULL, NULL, /* filtfunc, filtfuncarg */ MVNETA_PACKET_SIZE, /* maxsize */ MVNETA_TX_SEGLIMIT, /* nsegments */ MVNETA_PACKET_SIZE, /* maxsegsz */ BUS_DMA_ALLOCNOW, /* flags */ NULL, NULL, /* lockfunc, lockfuncarg */ &sc->txmbuf_dtag); if (error != 0) { device_printf(sc->dev, "Failed to create DMA tag for Tx mbufs.\n"); goto fail; } for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { error = mvneta_ring_alloc_tx_queue(sc, q); if (error != 0) { device_printf(sc->dev, - "Failed to allocate DMA safe memory for TxQ: %d\n", q); + "Failed to allocate DMA safe memory for TxQ: %zu\n", q); goto fail; } } /* * Create Rx DMA. */ /* Create tag for Rx descripors */ error = bus_dma_tag_create( bus_get_dma_tag(sc->dev), /* parent */ 32, 0, /* alignment, boundary */ BUS_SPACE_MAXADDR_32BIT, /* lowaddr */ BUS_SPACE_MAXADDR, /* highaddr */ NULL, NULL, /* filtfunc, filtfuncarg */ sizeof(struct mvneta_rx_desc) * MVNETA_RX_RING_CNT, /* maxsize */ 1, /* nsegments */ sizeof(struct mvneta_rx_desc) * MVNETA_RX_RING_CNT, /* maxsegsz */ 0, /* flags */ NULL, NULL, /* lockfunc, lockfuncarg */ &sc->rx_dtag); /* dmat */ if (error != 0) { device_printf(sc->dev, "Failed to create DMA tag for Rx descriptors.\n"); goto fail; } /* Create tag for Rx buffers */ error = bus_dma_tag_create( bus_get_dma_tag(sc->dev), /* parent */ 32, 0, /* alignment, boundary */ BUS_SPACE_MAXADDR_32BIT, /* lowaddr */ BUS_SPACE_MAXADDR, /* highaddr */ NULL, NULL, /* filtfunc, filtfuncarg */ MVNETA_PACKET_SIZE, 1, /* maxsize, nsegments */ MVNETA_PACKET_SIZE, /* maxsegsz */ 0, /* flags */ NULL, NULL, /* lockfunc, lockfuncarg */ &sc->rxbuf_dtag); /* dmat */ if (error != 0) { device_printf(sc->dev, "Failed to create DMA tag for Rx buffers.\n"); goto fail; } for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { if (mvneta_ring_alloc_rx_queue(sc, q) != 0) { device_printf(sc->dev, - "Failed to allocate DMA safe memory for RxQ: %d\n", q); + "Failed to allocate DMA safe memory for RxQ: %zu\n", q); goto fail; } } return (0); fail: mvneta_detach(sc->dev); return (error); } /* ARGSUSED */ int mvneta_attach(device_t self) { struct mvneta_softc *sc; struct ifnet *ifp; device_t child; int ifm_target; int q, error; +#if !defined(__aarch64__) uint32_t reg; +#endif sc = device_get_softc(self); sc->dev = self; mtx_init(&sc->mtx, "mvneta_sc", NULL, MTX_DEF); error = bus_alloc_resources(self, res_spec, sc->res); if (error) { device_printf(self, "could not allocate resources\n"); return (ENXIO); } sc->version = MVNETA_READ(sc, MVNETA_PV); device_printf(self, "version is %x\n", sc->version); callout_init(&sc->tick_ch, 0); /* * make sure DMA engines are in reset state */ MVNETA_WRITE(sc, MVNETA_PRXINIT, 0x00000001); MVNETA_WRITE(sc, MVNETA_PTXINIT, 0x00000001); +#if !defined(__aarch64__) /* * Disable port snoop for buffers and descriptors * to avoid L2 caching of both without DRAM copy. * Obtain coherency settings from the first MBUS * window attribute. */ if ((MVNETA_READ(sc, MV_WIN_NETA_BASE(0)) & IO_WIN_COH_ATTR_MASK) == 0) { reg = MVNETA_READ(sc, MVNETA_PSNPCFG); reg &= ~MVNETA_PSNPCFG_DESCSNP_MASK; reg &= ~MVNETA_PSNPCFG_BUFSNP_MASK; MVNETA_WRITE(sc, MVNETA_PSNPCFG, reg); } +#endif /* * MAC address */ if (mvneta_get_mac_address(sc, sc->enaddr)) { device_printf(self, "no mac address.\n"); return (ENXIO); } mvneta_set_mac_address(sc, sc->enaddr); mvneta_disable_intr(sc); /* Allocate network interface */ ifp = sc->ifp = if_alloc(IFT_ETHER); if (ifp == NULL) { device_printf(self, "if_alloc() failed\n"); mvneta_detach(self); return (ENOMEM); } if_initname(ifp, device_get_name(self), device_get_unit(self)); /* * We can support 802.1Q VLAN-sized frames and jumbo * Ethernet frames. */ ifp->if_capabilities |= IFCAP_VLAN_MTU | IFCAP_JUMBO_MTU; ifp->if_softc = sc; ifp->if_flags = IFF_BROADCAST | IFF_SIMPLEX | IFF_MULTICAST; #ifdef MVNETA_MULTIQUEUE ifp->if_transmit = mvneta_transmit; ifp->if_qflush = mvneta_qflush; #else /* !MVNETA_MULTIQUEUE */ ifp->if_start = mvneta_start; ifp->if_snd.ifq_drv_maxlen = MVNETA_TX_RING_CNT - 1; IFQ_SET_MAXLEN(&ifp->if_snd, ifp->if_snd.ifq_drv_maxlen); IFQ_SET_READY(&ifp->if_snd); #endif ifp->if_init = mvneta_init; ifp->if_ioctl = mvneta_ioctl; /* * We can do IPv4/TCPv4/UDPv4/TCPv6/UDPv6 checksums in hardware. */ ifp->if_capabilities |= IFCAP_HWCSUM; /* * As VLAN hardware tagging is not supported * but is necessary to perform VLAN hardware checksums, * it is done in the driver */ ifp->if_capabilities |= IFCAP_VLAN_HWTAGGING | IFCAP_VLAN_HWCSUM; /* * Currently IPv6 HW checksum is broken, so make sure it is disabled. */ ifp->if_capabilities &= ~IFCAP_HWCSUM_IPV6; ifp->if_capenable = ifp->if_capabilities; /* * Disabled option(s): * - Support for Large Receive Offload */ ifp->if_capabilities |= IFCAP_LRO; ifp->if_hwassist = CSUM_IP | CSUM_TCP | CSUM_UDP; /* * Device DMA Buffer allocation. * Handles resource deallocation in case of failure. */ error = mvneta_dma_create(sc); if (error != 0) { mvneta_detach(self); return (error); } /* Initialize queues */ for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { error = mvneta_ring_init_tx_queue(sc, q); if (error != 0) { mvneta_detach(self); return (error); } } for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { error = mvneta_ring_init_rx_queue(sc, q); if (error != 0) { mvneta_detach(self); return (error); } } ether_ifattach(ifp, sc->enaddr); /* * Enable DMA engines and Initialize Device Registers. */ MVNETA_WRITE(sc, MVNETA_PRXINIT, 0x00000000); MVNETA_WRITE(sc, MVNETA_PTXINIT, 0x00000000); MVNETA_WRITE(sc, MVNETA_PACC, MVNETA_PACC_ACCELERATIONMODE_EDM); mvneta_sc_lock(sc); mvneta_filter_setup(sc); mvneta_sc_unlock(sc); mvneta_initreg(ifp); /* * Now MAC is working, setup MII. */ if (mii_init == 0) { /* * MII bus is shared by all MACs and all PHYs in SoC. * serializing the bus access should be safe. */ mtx_init(&mii_mutex, "mvneta_mii", NULL, MTX_DEF); mii_init = 1; } /* Attach PHY(s) */ if ((sc->phy_addr != MII_PHY_ANY) && (!sc->use_inband_status)) { error = mii_attach(self, &sc->miibus, ifp, mvneta_mediachange, mvneta_mediastatus, BMSR_DEFCAPMASK, sc->phy_addr, MII_OFFSET_ANY, 0); if (error != 0) { if (bootverbose) { device_printf(self, "MII attach failed, error: %d\n", error); } ether_ifdetach(sc->ifp); mvneta_detach(self); return (error); } sc->mii = device_get_softc(sc->miibus); sc->phy_attached = 1; /* Disable auto-negotiation in MAC - rely on PHY layer */ mvneta_update_autoneg(sc, FALSE); } else if (sc->use_inband_status == TRUE) { /* In-band link status */ ifmedia_init(&sc->mvneta_ifmedia, 0, mvneta_mediachange, mvneta_mediastatus); /* Configure media */ ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_1000_T | IFM_FDX, 0, NULL); ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_100_TX, 0, NULL); ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_100_TX | IFM_FDX, 0, NULL); ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_10_T, 0, NULL); ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_10_T | IFM_FDX, 0, NULL); ifmedia_add(&sc->mvneta_ifmedia, IFM_ETHER | IFM_AUTO, 0, NULL); ifmedia_set(&sc->mvneta_ifmedia, IFM_ETHER | IFM_AUTO); /* Enable auto-negotiation */ mvneta_update_autoneg(sc, TRUE); mvneta_sc_lock(sc); if (MVNETA_IS_LINKUP(sc)) mvneta_linkup(sc); else mvneta_linkdown(sc); mvneta_sc_unlock(sc); } else { /* Fixed-link, use predefined values */ ifmedia_init(&sc->mvneta_ifmedia, 0, mvneta_mediachange, mvneta_mediastatus); ifm_target = IFM_ETHER; switch (sc->phy_speed) { case 2500: if (sc->phy_mode != MVNETA_PHY_SGMII && sc->phy_mode != MVNETA_PHY_QSGMII) { device_printf(self, "2.5G speed can work only in (Q)SGMII mode\n"); ether_ifdetach(sc->ifp); mvneta_detach(self); return (ENXIO); } ifm_target |= IFM_2500_T; break; case 1000: ifm_target |= IFM_1000_T; break; case 100: ifm_target |= IFM_100_TX; break; case 10: ifm_target |= IFM_10_T; break; default: ether_ifdetach(sc->ifp); mvneta_detach(self); return (ENXIO); } if (sc->phy_fdx) ifm_target |= IFM_FDX; else ifm_target |= IFM_HDX; ifmedia_add(&sc->mvneta_ifmedia, ifm_target, 0, NULL); ifmedia_set(&sc->mvneta_ifmedia, ifm_target); if_link_state_change(sc->ifp, LINK_STATE_UP); if (mvneta_has_switch(self)) { child = device_add_child(sc->dev, "mdio", -1); if (child == NULL) { ether_ifdetach(sc->ifp); mvneta_detach(self); return (ENXIO); } bus_generic_attach(sc->dev); bus_generic_attach(child); } /* Configure MAC media */ mvneta_update_media(sc, ifm_target); } sysctl_mvneta_init(sc); callout_reset(&sc->tick_ch, 0, mvneta_tick, sc); error = bus_setup_intr(self, sc->res[1], INTR_TYPE_NET | INTR_MPSAFE, NULL, mvneta_intrs[0].handler, sc, &sc->ih_cookie[0]); if (error) { device_printf(self, "could not setup %s\n", mvneta_intrs[0].description); ether_ifdetach(sc->ifp); mvneta_detach(self); return (error); } return (0); } STATIC int mvneta_detach(device_t dev) { struct mvneta_softc *sc; struct ifnet *ifp; int q; sc = device_get_softc(dev); ifp = sc->ifp; mvneta_stop(sc); /* Detach network interface */ if (sc->ifp) if_free(sc->ifp); for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) mvneta_ring_dealloc_rx_queue(sc, q); for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) mvneta_ring_dealloc_tx_queue(sc, q); if (sc->tx_dtag != NULL) bus_dma_tag_destroy(sc->tx_dtag); if (sc->rx_dtag != NULL) bus_dma_tag_destroy(sc->rx_dtag); if (sc->txmbuf_dtag != NULL) bus_dma_tag_destroy(sc->txmbuf_dtag); bus_release_resources(dev, res_spec, sc->res); return (0); } /* * MII */ STATIC int mvneta_miibus_readreg(device_t dev, int phy, int reg) { struct mvneta_softc *sc; struct ifnet *ifp; uint32_t smi, val; int i; sc = device_get_softc(dev); ifp = sc->ifp; mtx_lock(&mii_mutex); for (i = 0; i < MVNETA_PHY_TIMEOUT; i++) { if ((MVNETA_READ(sc, MVNETA_SMI) & MVNETA_SMI_BUSY) == 0) break; DELAY(1); } if (i == MVNETA_PHY_TIMEOUT) { if_printf(ifp, "SMI busy timeout\n"); mtx_unlock(&mii_mutex); return (-1); } smi = MVNETA_SMI_PHYAD(phy) | MVNETA_SMI_REGAD(reg) | MVNETA_SMI_OPCODE_READ; MVNETA_WRITE(sc, MVNETA_SMI, smi); for (i = 0; i < MVNETA_PHY_TIMEOUT; i++) { if ((MVNETA_READ(sc, MVNETA_SMI) & MVNETA_SMI_BUSY) == 0) break; DELAY(1); } if (i == MVNETA_PHY_TIMEOUT) { if_printf(ifp, "SMI busy timeout\n"); mtx_unlock(&mii_mutex); return (-1); } for (i = 0; i < MVNETA_PHY_TIMEOUT; i++) { smi = MVNETA_READ(sc, MVNETA_SMI); if (smi & MVNETA_SMI_READVALID) break; DELAY(1); } if (i == MVNETA_PHY_TIMEOUT) { if_printf(ifp, "SMI busy timeout\n"); mtx_unlock(&mii_mutex); return (-1); } mtx_unlock(&mii_mutex); #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s i=%d, timeout=%d\n", ifp->if_xname, i, MVNETA_PHY_TIMEOUT); #endif val = smi & MVNETA_SMI_DATA_MASK; #ifdef MVNETA_KTR CTR4(KTR_SPARE2, "%s phy=%d, reg=%#x, val=%#x\n", ifp->if_xname, phy, reg, val); #endif return (val); } STATIC int mvneta_miibus_writereg(device_t dev, int phy, int reg, int val) { struct mvneta_softc *sc; struct ifnet *ifp; uint32_t smi; int i; sc = device_get_softc(dev); ifp = sc->ifp; #ifdef MVNETA_KTR CTR4(KTR_SPARE2, "%s phy=%d, reg=%#x, val=%#x\n", ifp->if_xname, phy, reg, val); #endif mtx_lock(&mii_mutex); for (i = 0; i < MVNETA_PHY_TIMEOUT; i++) { if ((MVNETA_READ(sc, MVNETA_SMI) & MVNETA_SMI_BUSY) == 0) break; DELAY(1); } if (i == MVNETA_PHY_TIMEOUT) { if_printf(ifp, "SMI busy timeout\n"); mtx_unlock(&mii_mutex); return (0); } smi = MVNETA_SMI_PHYAD(phy) | MVNETA_SMI_REGAD(reg) | MVNETA_SMI_OPCODE_WRITE | (val & MVNETA_SMI_DATA_MASK); MVNETA_WRITE(sc, MVNETA_SMI, smi); for (i = 0; i < MVNETA_PHY_TIMEOUT; i++) { if ((MVNETA_READ(sc, MVNETA_SMI) & MVNETA_SMI_BUSY) == 0) break; DELAY(1); } mtx_unlock(&mii_mutex); if (i == MVNETA_PHY_TIMEOUT) if_printf(ifp, "phy write timed out\n"); return (0); } STATIC void mvneta_portup(struct mvneta_softc *sc) { int q; for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { mvneta_rx_lockq(sc, q); mvneta_rx_queue_enable(sc->ifp, q); mvneta_rx_unlockq(sc, q); } for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { mvneta_tx_lockq(sc, q); mvneta_tx_queue_enable(sc->ifp, q); mvneta_tx_unlockq(sc, q); } } STATIC void mvneta_portdown(struct mvneta_softc *sc) { struct mvneta_rx_ring *rx; struct mvneta_tx_ring *tx; int q, cnt; uint32_t reg; for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { rx = MVNETA_RX_RING(sc, q); mvneta_rx_lockq(sc, q); rx->queue_status = MVNETA_QUEUE_DISABLED; mvneta_rx_unlockq(sc, q); } for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { tx = MVNETA_TX_RING(sc, q); mvneta_tx_lockq(sc, q); tx->queue_status = MVNETA_QUEUE_DISABLED; mvneta_tx_unlockq(sc, q); } /* Wait for all Rx activity to terminate. */ reg = MVNETA_READ(sc, MVNETA_RQC) & MVNETA_RQC_EN_MASK; reg = MVNETA_RQC_DIS(reg); MVNETA_WRITE(sc, MVNETA_RQC, reg); cnt = 0; do { if (cnt >= RX_DISABLE_TIMEOUT) { if_printf(sc->ifp, "timeout for RX stopped. rqc 0x%x\n", reg); break; } cnt++; reg = MVNETA_READ(sc, MVNETA_RQC); } while ((reg & MVNETA_RQC_EN_MASK) != 0); /* Wait for all Tx activity to terminate. */ reg = MVNETA_READ(sc, MVNETA_PIE); reg &= ~MVNETA_PIE_TXPKTINTRPTENB_MASK; MVNETA_WRITE(sc, MVNETA_PIE, reg); reg = MVNETA_READ(sc, MVNETA_PRXTXTIM); reg &= ~MVNETA_PRXTXTI_TBTCQ_MASK; MVNETA_WRITE(sc, MVNETA_PRXTXTIM, reg); reg = MVNETA_READ(sc, MVNETA_TQC) & MVNETA_TQC_EN_MASK; reg = MVNETA_TQC_DIS(reg); MVNETA_WRITE(sc, MVNETA_TQC, reg); cnt = 0; do { if (cnt >= TX_DISABLE_TIMEOUT) { if_printf(sc->ifp, "timeout for TX stopped. tqc 0x%x\n", reg); break; } cnt++; reg = MVNETA_READ(sc, MVNETA_TQC); } while ((reg & MVNETA_TQC_EN_MASK) != 0); /* Wait for all Tx FIFO is empty */ cnt = 0; do { if (cnt >= TX_FIFO_EMPTY_TIMEOUT) { if_printf(sc->ifp, "timeout for TX FIFO drained. ps0 0x%x\n", reg); break; } cnt++; reg = MVNETA_READ(sc, MVNETA_PS0); } while (((reg & MVNETA_PS0_TXFIFOEMP) == 0) && ((reg & MVNETA_PS0_TXINPROG) != 0)); } /* * Device Register Initialization * reset device registers to device driver default value. * the device is not enabled here. */ STATIC int mvneta_initreg(struct ifnet *ifp) { struct mvneta_softc *sc; int q, i; uint32_t reg; sc = ifp->if_softc; #ifdef MVNETA_KTR CTR1(KTR_SPARE2, "%s initializing device register", ifp->if_xname); #endif /* Disable Legacy WRR, Disable EJP, Release from reset. */ MVNETA_WRITE(sc, MVNETA_TQC_1, 0); /* Enable mbus retry. */ MVNETA_WRITE(sc, MVNETA_MBUS_CONF, MVNETA_MBUS_RETRY_EN); /* Init TX/RX Queue Registers */ for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { mvneta_rx_lockq(sc, q); if (mvneta_rx_queue_init(ifp, q) != 0) { device_printf(sc->dev, "initialization failed: cannot initialize queue\n"); mvneta_rx_unlockq(sc, q); return (ENOBUFS); } mvneta_rx_unlockq(sc, q); } for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { mvneta_tx_lockq(sc, q); if (mvneta_tx_queue_init(ifp, q) != 0) { device_printf(sc->dev, "initialization failed: cannot initialize queue\n"); mvneta_tx_unlockq(sc, q); return (ENOBUFS); } mvneta_tx_unlockq(sc, q); } /* * Ethernet Unit Control - disable automatic PHY management by HW. * In case the port uses SMI-controlled PHY, poll its status with * mii_tick() and update MAC settings accordingly. */ reg = MVNETA_READ(sc, MVNETA_EUC); reg &= ~MVNETA_EUC_POLLING; MVNETA_WRITE(sc, MVNETA_EUC, reg); /* EEE: Low Power Idle */ reg = MVNETA_LPIC0_LILIMIT(MVNETA_LPI_LI); reg |= MVNETA_LPIC0_TSLIMIT(MVNETA_LPI_TS); MVNETA_WRITE(sc, MVNETA_LPIC0, reg); reg = MVNETA_LPIC1_TWLIMIT(MVNETA_LPI_TW); MVNETA_WRITE(sc, MVNETA_LPIC1, reg); reg = MVNETA_LPIC2_MUSTSET; MVNETA_WRITE(sc, MVNETA_LPIC2, reg); /* Port MAC Control set 0 */ reg = MVNETA_PMACC0_MUSTSET; /* must write 0x1 */ reg &= ~MVNETA_PMACC0_PORTEN; /* port is still disabled */ reg |= MVNETA_PMACC0_FRAMESIZELIMIT(MVNETA_MAX_FRAME); MVNETA_WRITE(sc, MVNETA_PMACC0, reg); /* Port MAC Control set 2 */ reg = MVNETA_READ(sc, MVNETA_PMACC2); switch (sc->phy_mode) { case MVNETA_PHY_QSGMII: reg |= (MVNETA_PMACC2_PCSEN | MVNETA_PMACC2_RGMIIEN); MVNETA_WRITE(sc, MVNETA_PSERDESCFG, MVNETA_PSERDESCFG_QSGMII); break; case MVNETA_PHY_SGMII: reg |= (MVNETA_PMACC2_PCSEN | MVNETA_PMACC2_RGMIIEN); MVNETA_WRITE(sc, MVNETA_PSERDESCFG, MVNETA_PSERDESCFG_SGMII); break; case MVNETA_PHY_RGMII: case MVNETA_PHY_RGMII_ID: reg |= MVNETA_PMACC2_RGMIIEN; break; } reg |= MVNETA_PMACC2_MUSTSET; reg &= ~MVNETA_PMACC2_PORTMACRESET; MVNETA_WRITE(sc, MVNETA_PMACC2, reg); /* Port Configuration Extended: enable Tx CRC generation */ reg = MVNETA_READ(sc, MVNETA_PXCX); reg &= ~MVNETA_PXCX_TXCRCDIS; MVNETA_WRITE(sc, MVNETA_PXCX, reg); /* clear MIB counter registers(clear by read) */ for (i = 0; i < nitems(mvneta_mib_list); i++) { if (mvneta_mib_list[i].reg64) MVNETA_READ_MIB_8(sc, mvneta_mib_list[i].regnum); else MVNETA_READ_MIB_4(sc, mvneta_mib_list[i].regnum); } MVNETA_READ(sc, MVNETA_PDFC); MVNETA_READ(sc, MVNETA_POFC); /* Set SDC register except IPGINT bits */ reg = MVNETA_SDC_RXBSZ_16_64BITWORDS; reg |= MVNETA_SDC_TXBSZ_16_64BITWORDS; reg |= MVNETA_SDC_BLMR; reg |= MVNETA_SDC_BLMT; MVNETA_WRITE(sc, MVNETA_SDC, reg); return (0); } STATIC void mvneta_dmamap_cb(void *arg, bus_dma_segment_t * segs, int nseg, int error) { if (error != 0) return; *(bus_addr_t *)arg = segs->ds_addr; } STATIC int mvneta_ring_alloc_rx_queue(struct mvneta_softc *sc, int q) { struct mvneta_rx_ring *rx; struct mvneta_buf *rxbuf; bus_dmamap_t dmap; int i, error; if (q >= MVNETA_RX_QNUM_MAX) return (EINVAL); rx = MVNETA_RX_RING(sc, q); mtx_init(&rx->ring_mtx, "mvneta_rx", NULL, MTX_DEF); /* Allocate DMA memory for Rx descriptors */ error = bus_dmamem_alloc(sc->rx_dtag, (void**)&(rx->desc), BUS_DMA_NOWAIT | BUS_DMA_ZERO, &rx->desc_map); if (error != 0 || rx->desc == NULL) goto fail; error = bus_dmamap_load(sc->rx_dtag, rx->desc_map, rx->desc, sizeof(struct mvneta_rx_desc) * MVNETA_RX_RING_CNT, mvneta_dmamap_cb, &rx->desc_pa, BUS_DMA_NOWAIT); if (error != 0) goto fail; for (i = 0; i < MVNETA_RX_RING_CNT; i++) { error = bus_dmamap_create(sc->rxbuf_dtag, 0, &dmap); if (error != 0) { device_printf(sc->dev, "Failed to create DMA map for Rx buffer num: %d\n", i); goto fail; } rxbuf = &rx->rxbuf[i]; rxbuf->dmap = dmap; rxbuf->m = NULL; } return (0); fail: mvneta_ring_dealloc_rx_queue(sc, q); device_printf(sc->dev, "DMA Ring buffer allocation failure.\n"); return (error); } STATIC int mvneta_ring_alloc_tx_queue(struct mvneta_softc *sc, int q) { struct mvneta_tx_ring *tx; int error; if (q >= MVNETA_TX_QNUM_MAX) return (EINVAL); tx = MVNETA_TX_RING(sc, q); mtx_init(&tx->ring_mtx, "mvneta_tx", NULL, MTX_DEF); error = bus_dmamem_alloc(sc->tx_dtag, (void**)&(tx->desc), BUS_DMA_NOWAIT | BUS_DMA_ZERO, &tx->desc_map); if (error != 0 || tx->desc == NULL) goto fail; error = bus_dmamap_load(sc->tx_dtag, tx->desc_map, tx->desc, sizeof(struct mvneta_tx_desc) * MVNETA_TX_RING_CNT, mvneta_dmamap_cb, &tx->desc_pa, BUS_DMA_NOWAIT); if (error != 0) goto fail; #ifdef MVNETA_MULTIQUEUE tx->br = buf_ring_alloc(MVNETA_BUFRING_SIZE, M_DEVBUF, M_NOWAIT, &tx->ring_mtx); if (tx->br == NULL) { device_printf(sc->dev, "Could not setup buffer ring for TxQ(%d)\n", q); error = ENOMEM; goto fail; } #endif return (0); fail: mvneta_ring_dealloc_tx_queue(sc, q); device_printf(sc->dev, "DMA Ring buffer allocation failure.\n"); return (error); } STATIC void mvneta_ring_dealloc_tx_queue(struct mvneta_softc *sc, int q) { struct mvneta_tx_ring *tx; struct mvneta_buf *txbuf; void *kva; int error; int i; if (q >= MVNETA_TX_QNUM_MAX) return; tx = MVNETA_TX_RING(sc, q); if (tx->taskq != NULL) { /* Remove task */ while (taskqueue_cancel(tx->taskq, &tx->task, NULL) != 0) taskqueue_drain(tx->taskq, &tx->task); } #ifdef MVNETA_MULTIQUEUE if (tx->br != NULL) drbr_free(tx->br, M_DEVBUF); #endif if (sc->txmbuf_dtag != NULL) { if (mtx_name(&tx->ring_mtx) != NULL) { /* * It is assumed that maps are being loaded after mutex * is initialized. Therefore we can skip unloading maps * when mutex is empty. */ mvneta_tx_lockq(sc, q); mvneta_ring_flush_tx_queue(sc, q); mvneta_tx_unlockq(sc, q); } for (i = 0; i < MVNETA_TX_RING_CNT; i++) { txbuf = &tx->txbuf[i]; if (txbuf->dmap != NULL) { error = bus_dmamap_destroy(sc->txmbuf_dtag, txbuf->dmap); if (error != 0) { panic("%s: map busy for Tx descriptor (Q%d, %d)", __func__, q, i); } } } } if (tx->desc_pa != 0) bus_dmamap_unload(sc->tx_dtag, tx->desc_map); kva = (void *)tx->desc; if (kva != NULL) bus_dmamem_free(sc->tx_dtag, tx->desc, tx->desc_map); if (mtx_name(&tx->ring_mtx) != NULL) mtx_destroy(&tx->ring_mtx); memset(tx, 0, sizeof(*tx)); } STATIC void mvneta_ring_dealloc_rx_queue(struct mvneta_softc *sc, int q) { struct mvneta_rx_ring *rx; struct lro_ctrl *lro; void *kva; if (q >= MVNETA_RX_QNUM_MAX) return; rx = MVNETA_RX_RING(sc, q); mvneta_ring_flush_rx_queue(sc, q); if (rx->desc_pa != 0) bus_dmamap_unload(sc->rx_dtag, rx->desc_map); kva = (void *)rx->desc; if (kva != NULL) bus_dmamem_free(sc->rx_dtag, rx->desc, rx->desc_map); lro = &rx->lro; tcp_lro_free(lro); if (mtx_name(&rx->ring_mtx) != NULL) mtx_destroy(&rx->ring_mtx); memset(rx, 0, sizeof(*rx)); } STATIC int mvneta_ring_init_rx_queue(struct mvneta_softc *sc, int q) { struct mvneta_rx_ring *rx; struct lro_ctrl *lro; int error; if (q >= MVNETA_RX_QNUM_MAX) return (0); rx = MVNETA_RX_RING(sc, q); rx->dma = rx->cpu = 0; rx->queue_th_received = MVNETA_RXTH_COUNT; - rx->queue_th_time = (get_tclk() / 1000) / 10; /* 0.1 [ms] */ + rx->queue_th_time = (mvneta_get_clk() / 1000) / 10; /* 0.1 [ms] */ /* Initialize LRO */ rx->lro_enabled = FALSE; if ((sc->ifp->if_capenable & IFCAP_LRO) != 0) { lro = &rx->lro; error = tcp_lro_init(lro); if (error != 0) device_printf(sc->dev, "LRO Initialization failed!\n"); else { rx->lro_enabled = TRUE; lro->ifp = sc->ifp; } } return (0); } STATIC int mvneta_ring_init_tx_queue(struct mvneta_softc *sc, int q) { struct mvneta_tx_ring *tx; struct mvneta_buf *txbuf; int i, error; if (q >= MVNETA_TX_QNUM_MAX) return (0); tx = MVNETA_TX_RING(sc, q); /* Tx handle */ for (i = 0; i < MVNETA_TX_RING_CNT; i++) { txbuf = &tx->txbuf[i]; txbuf->m = NULL; /* Tx handle needs DMA map for busdma_load_mbuf() */ error = bus_dmamap_create(sc->txmbuf_dtag, 0, &txbuf->dmap); if (error != 0) { device_printf(sc->dev, "can't create dma map (tx ring %d)\n", i); return (error); } } tx->dma = tx->cpu = 0; tx->used = 0; tx->drv_error = 0; tx->queue_status = MVNETA_QUEUE_DISABLED; tx->queue_hung = FALSE; tx->ifp = sc->ifp; tx->qidx = q; TASK_INIT(&tx->task, 0, mvneta_tx_task, tx); tx->taskq = taskqueue_create_fast("mvneta_tx_taskq", M_WAITOK, taskqueue_thread_enqueue, &tx->taskq); taskqueue_start_threads(&tx->taskq, 1, PI_NET, "%s: tx_taskq(%d)", device_get_nameunit(sc->dev), q); return (0); } STATIC void mvneta_ring_flush_tx_queue(struct mvneta_softc *sc, int q) { struct mvneta_tx_ring *tx; struct mvneta_buf *txbuf; int i; tx = MVNETA_TX_RING(sc, q); KASSERT_TX_MTX(sc, q); /* Tx handle */ for (i = 0; i < MVNETA_TX_RING_CNT; i++) { txbuf = &tx->txbuf[i]; bus_dmamap_unload(sc->txmbuf_dtag, txbuf->dmap); if (txbuf->m != NULL) { m_freem(txbuf->m); txbuf->m = NULL; } } tx->dma = tx->cpu = 0; tx->used = 0; } STATIC void mvneta_ring_flush_rx_queue(struct mvneta_softc *sc, int q) { struct mvneta_rx_ring *rx; struct mvneta_buf *rxbuf; int i; rx = MVNETA_RX_RING(sc, q); KASSERT_RX_MTX(sc, q); /* Rx handle */ for (i = 0; i < MVNETA_RX_RING_CNT; i++) { rxbuf = &rx->rxbuf[i]; mvneta_rx_buf_free(sc, rxbuf); } rx->dma = rx->cpu = 0; } /* * Rx/Tx Queue Control */ STATIC int mvneta_rx_queue_init(struct ifnet *ifp, int q) { struct mvneta_softc *sc; struct mvneta_rx_ring *rx; uint32_t reg; sc = ifp->if_softc; KASSERT_RX_MTX(sc, q); rx = MVNETA_RX_RING(sc, q); DASSERT(rx->desc_pa != 0); /* descriptor address */ MVNETA_WRITE(sc, MVNETA_PRXDQA(q), rx->desc_pa); /* Rx buffer size and descriptor ring size */ reg = MVNETA_PRXDQS_BUFFERSIZE(MVNETA_PACKET_SIZE >> 3); reg |= MVNETA_PRXDQS_DESCRIPTORSQUEUESIZE(MVNETA_RX_RING_CNT); MVNETA_WRITE(sc, MVNETA_PRXDQS(q), reg); #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s PRXDQS(%d): %#x", ifp->if_xname, q, MVNETA_READ(sc, MVNETA_PRXDQS(q))); #endif /* Rx packet offset address */ reg = MVNETA_PRXC_PACKETOFFSET(MVNETA_PACKET_OFFSET >> 3); MVNETA_WRITE(sc, MVNETA_PRXC(q), reg); #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s PRXC(%d): %#x", ifp->if_xname, q, MVNETA_READ(sc, MVNETA_PRXC(q))); #endif /* if DMA is not working, register is not updated */ DASSERT(MVNETA_READ(sc, MVNETA_PRXDQA(q)) == rx->desc_pa); return (0); } STATIC int mvneta_tx_queue_init(struct ifnet *ifp, int q) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; uint32_t reg; sc = ifp->if_softc; KASSERT_TX_MTX(sc, q); tx = MVNETA_TX_RING(sc, q); DASSERT(tx->desc_pa != 0); /* descriptor address */ MVNETA_WRITE(sc, MVNETA_PTXDQA(q), tx->desc_pa); /* descriptor ring size */ reg = MVNETA_PTXDQS_DQS(MVNETA_TX_RING_CNT); MVNETA_WRITE(sc, MVNETA_PTXDQS(q), reg); /* if DMA is not working, register is not updated */ DASSERT(MVNETA_READ(sc, MVNETA_PTXDQA(q)) == tx->desc_pa); return (0); } STATIC int mvneta_rx_queue_enable(struct ifnet *ifp, int q) { struct mvneta_softc *sc; struct mvneta_rx_ring *rx; uint32_t reg; sc = ifp->if_softc; rx = MVNETA_RX_RING(sc, q); KASSERT_RX_MTX(sc, q); /* Set Rx interrupt threshold */ reg = MVNETA_PRXDQTH_ODT(rx->queue_th_received); MVNETA_WRITE(sc, MVNETA_PRXDQTH(q), reg); reg = MVNETA_PRXITTH_RITT(rx->queue_th_time); MVNETA_WRITE(sc, MVNETA_PRXITTH(q), reg); /* Unmask RXTX_TH Intr. */ reg = MVNETA_READ(sc, MVNETA_PRXTXTIM); reg |= MVNETA_PRXTXTI_RBICTAPQ(q); /* Rx Buffer Interrupt Coalese */ MVNETA_WRITE(sc, MVNETA_PRXTXTIM, reg); /* Enable Rx queue */ reg = MVNETA_READ(sc, MVNETA_RQC) & MVNETA_RQC_EN_MASK; reg |= MVNETA_RQC_ENQ(q); MVNETA_WRITE(sc, MVNETA_RQC, reg); rx->queue_status = MVNETA_QUEUE_WORKING; return (0); } STATIC int mvneta_tx_queue_enable(struct ifnet *ifp, int q) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; sc = ifp->if_softc; tx = MVNETA_TX_RING(sc, q); KASSERT_TX_MTX(sc, q); /* Enable Tx queue */ MVNETA_WRITE(sc, MVNETA_TQC, MVNETA_TQC_ENQ(q)); tx->queue_status = MVNETA_QUEUE_IDLE; tx->queue_hung = FALSE; return (0); } STATIC __inline void mvneta_rx_lockq(struct mvneta_softc *sc, int q) { DASSERT(q >= 0); DASSERT(q < MVNETA_RX_QNUM_MAX); mtx_lock(&sc->rx_ring[q].ring_mtx); } STATIC __inline void mvneta_rx_unlockq(struct mvneta_softc *sc, int q) { DASSERT(q >= 0); DASSERT(q < MVNETA_RX_QNUM_MAX); mtx_unlock(&sc->rx_ring[q].ring_mtx); } STATIC __inline int __unused mvneta_tx_trylockq(struct mvneta_softc *sc, int q) { DASSERT(q >= 0); DASSERT(q < MVNETA_TX_QNUM_MAX); return (mtx_trylock(&sc->tx_ring[q].ring_mtx)); } STATIC __inline void mvneta_tx_lockq(struct mvneta_softc *sc, int q) { DASSERT(q >= 0); DASSERT(q < MVNETA_TX_QNUM_MAX); mtx_lock(&sc->tx_ring[q].ring_mtx); } STATIC __inline void mvneta_tx_unlockq(struct mvneta_softc *sc, int q) { DASSERT(q >= 0); DASSERT(q < MVNETA_TX_QNUM_MAX); mtx_unlock(&sc->tx_ring[q].ring_mtx); } /* * Interrupt Handlers */ STATIC void mvneta_disable_intr(struct mvneta_softc *sc) { MVNETA_WRITE(sc, MVNETA_EUIM, 0); MVNETA_WRITE(sc, MVNETA_EUIC, 0); MVNETA_WRITE(sc, MVNETA_PRXTXTIM, 0); MVNETA_WRITE(sc, MVNETA_PRXTXTIC, 0); MVNETA_WRITE(sc, MVNETA_PRXTXIM, 0); MVNETA_WRITE(sc, MVNETA_PRXTXIC, 0); MVNETA_WRITE(sc, MVNETA_PMIM, 0); MVNETA_WRITE(sc, MVNETA_PMIC, 0); MVNETA_WRITE(sc, MVNETA_PIE, 0); } STATIC void mvneta_enable_intr(struct mvneta_softc *sc) { uint32_t reg; /* Enable Summary Bit to check all interrupt cause. */ reg = MVNETA_READ(sc, MVNETA_PRXTXTIM); reg |= MVNETA_PRXTXTI_PMISCICSUMMARY; MVNETA_WRITE(sc, MVNETA_PRXTXTIM, reg); if (sc->use_inband_status) { /* Enable Port MISC Intr. (via RXTX_TH_Summary bit) */ MVNETA_WRITE(sc, MVNETA_PMIM, MVNETA_PMI_PHYSTATUSCHNG | MVNETA_PMI_LINKCHANGE | MVNETA_PMI_PSCSYNCCHANGE); } /* Enable All Queue Interrupt */ reg = MVNETA_READ(sc, MVNETA_PIE); reg |= MVNETA_PIE_RXPKTINTRPTENB_MASK; reg |= MVNETA_PIE_TXPKTINTRPTENB_MASK; MVNETA_WRITE(sc, MVNETA_PIE, reg); } STATIC void mvneta_rxtxth_intr(void *arg) { struct mvneta_softc *sc; struct ifnet *ifp; uint32_t ic, queues; sc = arg; ifp = sc->ifp; #ifdef MVNETA_KTR CTR1(KTR_SPARE2, "%s got RXTX_TH_Intr", ifp->if_xname); #endif ic = MVNETA_READ(sc, MVNETA_PRXTXTIC); if (ic == 0) return; MVNETA_WRITE(sc, MVNETA_PRXTXTIC, ~ic); /* Ack maintance interrupt first */ if (__predict_false((ic & MVNETA_PRXTXTI_PMISCICSUMMARY) && sc->use_inband_status)) { mvneta_sc_lock(sc); mvneta_misc_intr(sc); mvneta_sc_unlock(sc); } if (__predict_false(!(ifp->if_drv_flags & IFF_DRV_RUNNING))) return; /* RxTxTH interrupt */ queues = MVNETA_PRXTXTI_GET_RBICTAPQ(ic); if (__predict_true(queues)) { #ifdef MVNETA_KTR CTR1(KTR_SPARE2, "%s got PRXTXTIC: +RXEOF", ifp->if_xname); #endif /* At the moment the driver support only one RX queue. */ DASSERT(MVNETA_IS_QUEUE_SET(queues, 0)); mvneta_rx(sc, 0, 0); } } STATIC int mvneta_misc_intr(struct mvneta_softc *sc) { uint32_t ic; int claimed = 0; #ifdef MVNETA_KTR CTR1(KTR_SPARE2, "%s got MISC_INTR", sc->ifp->if_xname); #endif KASSERT_SC_MTX(sc); for (;;) { ic = MVNETA_READ(sc, MVNETA_PMIC); ic &= MVNETA_READ(sc, MVNETA_PMIM); if (ic == 0) break; MVNETA_WRITE(sc, MVNETA_PMIC, ~ic); claimed = 1; if (ic & (MVNETA_PMI_PHYSTATUSCHNG | MVNETA_PMI_LINKCHANGE | MVNETA_PMI_PSCSYNCCHANGE)) mvneta_link_isr(sc); } return (claimed); } STATIC void mvneta_tick(void *arg) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; struct mvneta_rx_ring *rx; int q; uint32_t fc_prev, fc_curr; sc = arg; /* * This is done before mib update to get the right stats * for this tick. */ mvneta_tx_drain(sc); /* Extract previous flow-control frame received counter. */ fc_prev = sc->sysctl_mib[MVNETA_MIB_FC_GOOD_IDX].counter; /* Read mib registers (clear by read). */ mvneta_update_mib(sc); /* Extract current flow-control frame received counter. */ fc_curr = sc->sysctl_mib[MVNETA_MIB_FC_GOOD_IDX].counter; if (sc->phy_attached && sc->ifp->if_flags & IFF_UP) { mvneta_sc_lock(sc); mii_tick(sc->mii); /* Adjust MAC settings */ mvneta_adjust_link(sc); mvneta_sc_unlock(sc); } /* * We were unable to refill the rx queue and left the rx func, leaving * the ring without mbuf and no way to call the refill func. */ for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { rx = MVNETA_RX_RING(sc, q); if (rx->needs_refill == TRUE) { mvneta_rx_lockq(sc, q); mvneta_rx_queue_refill(sc, q); mvneta_rx_unlockq(sc, q); } } /* * Watchdog: * - check if queue is mark as hung. * - ignore hung status if we received some pause frame * as hardware may have paused packet transmit. */ for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { /* * We should take queue lock, but as we only read * queue status we can do it without lock, we may * only missdetect queue status for one tick. */ tx = MVNETA_TX_RING(sc, q); if (tx->queue_hung && (fc_curr - fc_prev) == 0) goto timeout; } callout_schedule(&sc->tick_ch, hz); return; timeout: if_printf(sc->ifp, "watchdog timeout\n"); mvneta_sc_lock(sc); sc->counter_watchdog++; sc->counter_watchdog_mib++; /* Trigger reinitialize sequence. */ mvneta_stop_locked(sc); mvneta_init_locked(sc); mvneta_sc_unlock(sc); } STATIC void mvneta_qflush(struct ifnet *ifp) { #ifdef MVNETA_MULTIQUEUE struct mvneta_softc *sc; struct mvneta_tx_ring *tx; struct mbuf *m; size_t q; sc = ifp->if_softc; for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { tx = MVNETA_TX_RING(sc, q); mvneta_tx_lockq(sc, q); while ((m = buf_ring_dequeue_sc(tx->br)) != NULL) m_freem(m); mvneta_tx_unlockq(sc, q); } #endif if_qflush(ifp); } STATIC void mvneta_tx_task(void *arg, int pending) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; struct ifnet *ifp; int error; tx = arg; ifp = tx->ifp; sc = ifp->if_softc; mvneta_tx_lockq(sc, tx->qidx); error = mvneta_xmit_locked(sc, tx->qidx); mvneta_tx_unlockq(sc, tx->qidx); /* Try again */ if (__predict_false(error != 0 && error != ENETDOWN)) { pause("mvneta_tx_task_sleep", 1); taskqueue_enqueue(tx->taskq, &tx->task); } } STATIC int mvneta_xmitfast_locked(struct mvneta_softc *sc, int q, struct mbuf **m) { struct mvneta_tx_ring *tx; struct ifnet *ifp; int error; KASSERT_TX_MTX(sc, q); tx = MVNETA_TX_RING(sc, q); error = 0; ifp = sc->ifp; /* Dont enqueue packet if the queue is disabled. */ if (__predict_false(tx->queue_status == MVNETA_QUEUE_DISABLED)) { m_freem(*m); *m = NULL; return (ENETDOWN); } /* Reclaim mbuf if above threshold. */ if (__predict_true(tx->used > MVNETA_TX_RECLAIM_COUNT)) mvneta_tx_queue_complete(sc, q); /* Do not call transmit path if queue is already too full. */ if (__predict_false(tx->used > MVNETA_TX_RING_CNT - MVNETA_TX_SEGLIMIT)) return (ENOBUFS); error = mvneta_tx_queue(sc, m, q); if (__predict_false(error != 0)) return (error); /* Send a copy of the frame to the BPF listener */ ETHER_BPF_MTAP(ifp, *m); /* Set watchdog on */ tx->watchdog_time = ticks; tx->queue_status = MVNETA_QUEUE_WORKING; return (error); } #ifdef MVNETA_MULTIQUEUE STATIC int mvneta_transmit(struct ifnet *ifp, struct mbuf *m) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; int error; int q; sc = ifp->if_softc; /* Use default queue if there is no flow id as thread can migrate. */ if (__predict_true(M_HASHTYPE_GET(m) != M_HASHTYPE_NONE)) q = m->m_pkthdr.flowid % MVNETA_TX_QNUM_MAX; else q = 0; tx = MVNETA_TX_RING(sc, q); /* If buf_ring is full start transmit immediatly. */ if (buf_ring_full(tx->br)) { mvneta_tx_lockq(sc, q); mvneta_xmit_locked(sc, q); mvneta_tx_unlockq(sc, q); } /* * If the buf_ring is empty we will not reorder packets. * If the lock is available transmit without using buf_ring. */ if (buf_ring_empty(tx->br) && mvneta_tx_trylockq(sc, q) != 0) { error = mvneta_xmitfast_locked(sc, q, &m); mvneta_tx_unlockq(sc, q); if (__predict_true(error == 0)) return (0); /* Transmit can fail in fastpath. */ if (__predict_false(m == NULL)) return (error); } /* Enqueue then schedule taskqueue. */ error = drbr_enqueue(ifp, tx->br, m); if (__predict_false(error != 0)) return (error); taskqueue_enqueue(tx->taskq, &tx->task); return (0); } STATIC int mvneta_xmit_locked(struct mvneta_softc *sc, int q) { struct ifnet *ifp; struct mvneta_tx_ring *tx; struct mbuf *m; int error; KASSERT_TX_MTX(sc, q); ifp = sc->ifp; tx = MVNETA_TX_RING(sc, q); error = 0; while ((m = drbr_peek(ifp, tx->br)) != NULL) { error = mvneta_xmitfast_locked(sc, q, &m); if (__predict_false(error != 0)) { if (m != NULL) drbr_putback(ifp, tx->br, m); else drbr_advance(ifp, tx->br); break; } drbr_advance(ifp, tx->br); } return (error); } #else /* !MVNETA_MULTIQUEUE */ STATIC void mvneta_start(struct ifnet *ifp) { struct mvneta_softc *sc; struct mvneta_tx_ring *tx; int error; sc = ifp->if_softc; tx = MVNETA_TX_RING(sc, 0); mvneta_tx_lockq(sc, 0); error = mvneta_xmit_locked(sc, 0); mvneta_tx_unlockq(sc, 0); /* Handle retransmit in the background taskq. */ if (__predict_false(error != 0 && error != ENETDOWN)) taskqueue_enqueue(tx->taskq, &tx->task); } STATIC int mvneta_xmit_locked(struct mvneta_softc *sc, int q) { struct ifnet *ifp; struct mvneta_tx_ring *tx; struct mbuf *m; int error; KASSERT_TX_MTX(sc, q); ifp = sc->ifp; tx = MVNETA_TX_RING(sc, 0); error = 0; while (!IFQ_DRV_IS_EMPTY(&ifp->if_snd)) { IFQ_DRV_DEQUEUE(&ifp->if_snd, m); if (m == NULL) break; error = mvneta_xmitfast_locked(sc, q, &m); if (__predict_false(error != 0)) { if (m != NULL) IFQ_DRV_PREPEND(&ifp->if_snd, m); break; } } return (error); } #endif STATIC int mvneta_ioctl(struct ifnet *ifp, u_long cmd, caddr_t data) { struct mvneta_softc *sc; struct mvneta_rx_ring *rx; struct ifreq *ifr; int error, mask; uint32_t flags; int q; error = 0; sc = ifp->if_softc; ifr = (struct ifreq *)data; switch (cmd) { case SIOCSIFFLAGS: mvneta_sc_lock(sc); if (ifp->if_flags & IFF_UP) { if (ifp->if_drv_flags & IFF_DRV_RUNNING) { flags = ifp->if_flags ^ sc->mvneta_if_flags; if (flags != 0) sc->mvneta_if_flags = ifp->if_flags; if ((flags & IFF_PROMISC) != 0) mvneta_filter_setup(sc); } else { mvneta_init_locked(sc); sc->mvneta_if_flags = ifp->if_flags; if (sc->phy_attached) mii_mediachg(sc->mii); mvneta_sc_unlock(sc); break; } } else if (ifp->if_drv_flags & IFF_DRV_RUNNING) mvneta_stop_locked(sc); sc->mvneta_if_flags = ifp->if_flags; mvneta_sc_unlock(sc); break; case SIOCSIFCAP: if (ifp->if_mtu > MVNETA_MAX_CSUM_MTU && ifr->ifr_reqcap & IFCAP_TXCSUM) ifr->ifr_reqcap &= ~IFCAP_TXCSUM; mask = ifp->if_capenable ^ ifr->ifr_reqcap; if (mask & IFCAP_HWCSUM) { ifp->if_capenable &= ~IFCAP_HWCSUM; ifp->if_capenable |= IFCAP_HWCSUM & ifr->ifr_reqcap; if (ifp->if_capenable & IFCAP_TXCSUM) ifp->if_hwassist = CSUM_IP | CSUM_TCP | CSUM_UDP; else ifp->if_hwassist = 0; } if (mask & IFCAP_LRO) { mvneta_sc_lock(sc); ifp->if_capenable ^= IFCAP_LRO; if ((ifp->if_drv_flags & IFF_DRV_RUNNING) != 0) { for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { rx = MVNETA_RX_RING(sc, q); rx->lro_enabled = !rx->lro_enabled; } } mvneta_sc_unlock(sc); } VLAN_CAPABILITIES(ifp); break; case SIOCSIFMEDIA: if ((IFM_SUBTYPE(ifr->ifr_media) == IFM_1000_T || IFM_SUBTYPE(ifr->ifr_media) == IFM_2500_T) && (ifr->ifr_media & IFM_FDX) == 0) { device_printf(sc->dev, "%s half-duplex unsupported\n", IFM_SUBTYPE(ifr->ifr_media) == IFM_1000_T ? "1000Base-T" : "2500Base-T"); error = EINVAL; break; } case SIOCGIFMEDIA: /* FALLTHROUGH */ case SIOCGIFXMEDIA: if (!sc->phy_attached) error = ifmedia_ioctl(ifp, ifr, &sc->mvneta_ifmedia, cmd); else error = ifmedia_ioctl(ifp, ifr, &sc->mii->mii_media, cmd); break; case SIOCSIFMTU: if (ifr->ifr_mtu < 68 || ifr->ifr_mtu > MVNETA_MAX_FRAME - MVNETA_ETHER_SIZE) { error = EINVAL; } else { ifp->if_mtu = ifr->ifr_mtu; mvneta_sc_lock(sc); if (ifp->if_mtu > MVNETA_MAX_CSUM_MTU) { ifp->if_capenable &= ~IFCAP_TXCSUM; ifp->if_hwassist = 0; } else { ifp->if_capenable |= IFCAP_TXCSUM; ifp->if_hwassist = CSUM_IP | CSUM_TCP | CSUM_UDP; } if (ifp->if_drv_flags & IFF_DRV_RUNNING) { /* Trigger reinitialize sequence */ mvneta_stop_locked(sc); mvneta_init_locked(sc); } mvneta_sc_unlock(sc); } break; default: error = ether_ioctl(ifp, cmd, data); break; } return (error); } STATIC void mvneta_init_locked(void *arg) { struct mvneta_softc *sc; struct ifnet *ifp; uint32_t reg; int q, cpu; sc = arg; ifp = sc->ifp; if (!device_is_attached(sc->dev) || (ifp->if_drv_flags & IFF_DRV_RUNNING) != 0) return; mvneta_disable_intr(sc); callout_stop(&sc->tick_ch); /* Get the latest mac address */ bcopy(IF_LLADDR(ifp), sc->enaddr, ETHER_ADDR_LEN); mvneta_set_mac_address(sc, sc->enaddr); mvneta_filter_setup(sc); /* Start DMA Engine */ MVNETA_WRITE(sc, MVNETA_PRXINIT, 0x00000000); MVNETA_WRITE(sc, MVNETA_PTXINIT, 0x00000000); MVNETA_WRITE(sc, MVNETA_PACC, MVNETA_PACC_ACCELERATIONMODE_EDM); /* Enable port */ reg = MVNETA_READ(sc, MVNETA_PMACC0); reg |= MVNETA_PMACC0_PORTEN; MVNETA_WRITE(sc, MVNETA_PMACC0, reg); /* Allow access to each TXQ/RXQ from both CPU's */ for (cpu = 0; cpu < mp_ncpus; ++cpu) MVNETA_WRITE(sc, MVNETA_PCP2Q(cpu), MVNETA_PCP2Q_TXQEN_MASK | MVNETA_PCP2Q_RXQEN_MASK); for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { mvneta_rx_lockq(sc, q); mvneta_rx_queue_refill(sc, q); mvneta_rx_unlockq(sc, q); } if (!sc->phy_attached) mvneta_linkup(sc); /* Enable interrupt */ mvneta_enable_intr(sc); /* Set Counter */ callout_schedule(&sc->tick_ch, hz); ifp->if_drv_flags |= IFF_DRV_RUNNING; } STATIC void mvneta_init(void *arg) { struct mvneta_softc *sc; sc = arg; mvneta_sc_lock(sc); mvneta_init_locked(sc); if (sc->phy_attached) mii_mediachg(sc->mii); mvneta_sc_unlock(sc); } /* ARGSUSED */ STATIC void mvneta_stop_locked(struct mvneta_softc *sc) { struct ifnet *ifp; struct mvneta_rx_ring *rx; struct mvneta_tx_ring *tx; uint32_t reg; int q; ifp = sc->ifp; if (ifp == NULL || (ifp->if_drv_flags & IFF_DRV_RUNNING) == 0) return; mvneta_disable_intr(sc); callout_stop(&sc->tick_ch); ifp->if_drv_flags &= ~IFF_DRV_RUNNING; /* Link down */ if (sc->linkup == TRUE) mvneta_linkdown(sc); /* Reset the MAC Port Enable bit */ reg = MVNETA_READ(sc, MVNETA_PMACC0); reg &= ~MVNETA_PMACC0_PORTEN; MVNETA_WRITE(sc, MVNETA_PMACC0, reg); /* Disable each of queue */ for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { rx = MVNETA_RX_RING(sc, q); mvneta_rx_lockq(sc, q); mvneta_ring_flush_rx_queue(sc, q); mvneta_rx_unlockq(sc, q); } /* * Hold Reset state of DMA Engine * (must write 0x0 to restart it) */ MVNETA_WRITE(sc, MVNETA_PRXINIT, 0x00000001); MVNETA_WRITE(sc, MVNETA_PTXINIT, 0x00000001); for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { tx = MVNETA_TX_RING(sc, q); mvneta_tx_lockq(sc, q); mvneta_ring_flush_tx_queue(sc, q); mvneta_tx_unlockq(sc, q); } } STATIC void mvneta_stop(struct mvneta_softc *sc) { mvneta_sc_lock(sc); mvneta_stop_locked(sc); mvneta_sc_unlock(sc); } STATIC int mvneta_mediachange(struct ifnet *ifp) { struct mvneta_softc *sc; sc = ifp->if_softc; if (!sc->phy_attached && !sc->use_inband_status) { /* We shouldn't be here */ if_printf(ifp, "Cannot change media in fixed-link mode!\n"); return (0); } if (sc->use_inband_status) { mvneta_update_media(sc, sc->mvneta_ifmedia.ifm_media); return (0); } mvneta_sc_lock(sc); /* Update PHY */ mii_mediachg(sc->mii); mvneta_sc_unlock(sc); return (0); } STATIC void mvneta_get_media(struct mvneta_softc *sc, struct ifmediareq *ifmr) { uint32_t psr; psr = MVNETA_READ(sc, MVNETA_PSR); /* Speed */ if (psr & MVNETA_PSR_GMIISPEED) ifmr->ifm_active = IFM_ETHER_SUBTYPE_SET(IFM_1000_T); else if (psr & MVNETA_PSR_MIISPEED) ifmr->ifm_active = IFM_ETHER_SUBTYPE_SET(IFM_100_TX); else if (psr & MVNETA_PSR_LINKUP) ifmr->ifm_active = IFM_ETHER_SUBTYPE_SET(IFM_10_T); /* Duplex */ if (psr & MVNETA_PSR_FULLDX) ifmr->ifm_active |= IFM_FDX; /* Link */ ifmr->ifm_status = IFM_AVALID; if (psr & MVNETA_PSR_LINKUP) ifmr->ifm_status |= IFM_ACTIVE; } STATIC void mvneta_mediastatus(struct ifnet *ifp, struct ifmediareq *ifmr) { struct mvneta_softc *sc; struct mii_data *mii; sc = ifp->if_softc; if (!sc->phy_attached && !sc->use_inband_status) { ifmr->ifm_status = IFM_AVALID | IFM_ACTIVE; return; } mvneta_sc_lock(sc); if (sc->use_inband_status) { mvneta_get_media(sc, ifmr); mvneta_sc_unlock(sc); return; } mii = sc->mii; mii_pollstat(mii); ifmr->ifm_active = mii->mii_media_active; ifmr->ifm_status = mii->mii_media_status; mvneta_sc_unlock(sc); } /* * Link State Notify */ STATIC void mvneta_update_autoneg(struct mvneta_softc *sc, int enable) { int reg; if (enable) { reg = MVNETA_READ(sc, MVNETA_PANC); reg &= ~(MVNETA_PANC_FORCELINKFAIL | MVNETA_PANC_FORCELINKPASS | MVNETA_PANC_ANFCEN); reg |= MVNETA_PANC_ANDUPLEXEN | MVNETA_PANC_ANSPEEDEN | MVNETA_PANC_INBANDANEN; MVNETA_WRITE(sc, MVNETA_PANC, reg); reg = MVNETA_READ(sc, MVNETA_PMACC2); reg |= MVNETA_PMACC2_INBANDANMODE; MVNETA_WRITE(sc, MVNETA_PMACC2, reg); reg = MVNETA_READ(sc, MVNETA_PSOMSCD); reg |= MVNETA_PSOMSCD_ENABLE; MVNETA_WRITE(sc, MVNETA_PSOMSCD, reg); } else { reg = MVNETA_READ(sc, MVNETA_PANC); reg &= ~(MVNETA_PANC_FORCELINKFAIL | MVNETA_PANC_FORCELINKPASS | MVNETA_PANC_ANDUPLEXEN | MVNETA_PANC_ANSPEEDEN | MVNETA_PANC_INBANDANEN); MVNETA_WRITE(sc, MVNETA_PANC, reg); reg = MVNETA_READ(sc, MVNETA_PMACC2); reg &= ~MVNETA_PMACC2_INBANDANMODE; MVNETA_WRITE(sc, MVNETA_PMACC2, reg); reg = MVNETA_READ(sc, MVNETA_PSOMSCD); reg &= ~MVNETA_PSOMSCD_ENABLE; MVNETA_WRITE(sc, MVNETA_PSOMSCD, reg); } } STATIC int mvneta_update_media(struct mvneta_softc *sc, int media) { int reg, err; boolean_t running; err = 0; mvneta_sc_lock(sc); mvneta_linkreset(sc); running = (sc->ifp->if_drv_flags & IFF_DRV_RUNNING) != 0; if (running) mvneta_stop_locked(sc); sc->autoneg = (IFM_SUBTYPE(media) == IFM_AUTO); if (sc->use_inband_status) mvneta_update_autoneg(sc, IFM_SUBTYPE(media) == IFM_AUTO); mvneta_update_eee(sc); mvneta_update_fc(sc); if (IFM_SUBTYPE(media) != IFM_AUTO) { reg = MVNETA_READ(sc, MVNETA_PANC); reg &= ~(MVNETA_PANC_SETGMIISPEED | MVNETA_PANC_SETMIISPEED | MVNETA_PANC_SETFULLDX); if (IFM_SUBTYPE(media) == IFM_1000_T || IFM_SUBTYPE(media) == IFM_2500_T) { if ((media & IFM_FDX) == 0) { device_printf(sc->dev, "%s half-duplex unsupported\n", IFM_SUBTYPE(media) == IFM_1000_T ? "1000Base-T" : "2500Base-T"); err = EINVAL; goto out; } reg |= MVNETA_PANC_SETGMIISPEED; } else if (IFM_SUBTYPE(media) == IFM_100_TX) reg |= MVNETA_PANC_SETMIISPEED; if (media & IFM_FDX) reg |= MVNETA_PANC_SETFULLDX; MVNETA_WRITE(sc, MVNETA_PANC, reg); } out: if (running) mvneta_init_locked(sc); mvneta_sc_unlock(sc); return (err); } STATIC void mvneta_adjust_link(struct mvneta_softc *sc) { boolean_t phy_linkup; int reg; /* Update eee/fc */ mvneta_update_eee(sc); mvneta_update_fc(sc); /* Check for link change */ phy_linkup = (sc->mii->mii_media_status & (IFM_AVALID | IFM_ACTIVE)) == (IFM_AVALID | IFM_ACTIVE); if (sc->linkup != phy_linkup) mvneta_linkupdate(sc, phy_linkup); /* Don't update media on disabled link */ if (!phy_linkup) return; /* Check for media type change */ if (sc->mvneta_media != sc->mii->mii_media_active) { sc->mvneta_media = sc->mii->mii_media_active; reg = MVNETA_READ(sc, MVNETA_PANC); reg &= ~(MVNETA_PANC_SETGMIISPEED | MVNETA_PANC_SETMIISPEED | MVNETA_PANC_SETFULLDX); if (IFM_SUBTYPE(sc->mvneta_media) == IFM_1000_T || IFM_SUBTYPE(sc->mvneta_media) == IFM_2500_T) { reg |= MVNETA_PANC_SETGMIISPEED; } else if (IFM_SUBTYPE(sc->mvneta_media) == IFM_100_TX) reg |= MVNETA_PANC_SETMIISPEED; if (sc->mvneta_media & IFM_FDX) reg |= MVNETA_PANC_SETFULLDX; MVNETA_WRITE(sc, MVNETA_PANC, reg); } } STATIC void mvneta_link_isr(struct mvneta_softc *sc) { int linkup; KASSERT_SC_MTX(sc); linkup = MVNETA_IS_LINKUP(sc) ? TRUE : FALSE; if (sc->linkup == linkup) return; if (linkup == TRUE) mvneta_linkup(sc); else mvneta_linkdown(sc); #ifdef DEBUG log(LOG_DEBUG, "%s: link %s\n", device_xname(sc->dev), linkup ? "up" : "down"); #endif } STATIC void mvneta_linkupdate(struct mvneta_softc *sc, boolean_t linkup) { KASSERT_SC_MTX(sc); if (linkup == TRUE) mvneta_linkup(sc); else mvneta_linkdown(sc); #ifdef DEBUG log(LOG_DEBUG, "%s: link %s\n", device_xname(sc->dev), linkup ? "up" : "down"); #endif } STATIC void mvneta_update_eee(struct mvneta_softc *sc) { uint32_t reg; KASSERT_SC_MTX(sc); /* set EEE parameters */ reg = MVNETA_READ(sc, MVNETA_LPIC1); if (sc->cf_lpi) reg |= MVNETA_LPIC1_LPIRE; else reg &= ~MVNETA_LPIC1_LPIRE; MVNETA_WRITE(sc, MVNETA_LPIC1, reg); } STATIC void mvneta_update_fc(struct mvneta_softc *sc) { uint32_t reg; KASSERT_SC_MTX(sc); reg = MVNETA_READ(sc, MVNETA_PANC); if (sc->cf_fc) { /* Flow control negotiation */ reg |= MVNETA_PANC_PAUSEADV; reg |= MVNETA_PANC_ANFCEN; } else { /* Disable flow control negotiation */ reg &= ~MVNETA_PANC_PAUSEADV; reg &= ~MVNETA_PANC_ANFCEN; } MVNETA_WRITE(sc, MVNETA_PANC, reg); } STATIC void mvneta_linkup(struct mvneta_softc *sc) { uint32_t reg; KASSERT_SC_MTX(sc); if (!sc->use_inband_status) { reg = MVNETA_READ(sc, MVNETA_PANC); reg |= MVNETA_PANC_FORCELINKPASS; reg &= ~MVNETA_PANC_FORCELINKFAIL; MVNETA_WRITE(sc, MVNETA_PANC, reg); } mvneta_qflush(sc->ifp); mvneta_portup(sc); sc->linkup = TRUE; if_link_state_change(sc->ifp, LINK_STATE_UP); } STATIC void mvneta_linkdown(struct mvneta_softc *sc) { uint32_t reg; KASSERT_SC_MTX(sc); if (!sc->use_inband_status) { reg = MVNETA_READ(sc, MVNETA_PANC); reg &= ~MVNETA_PANC_FORCELINKPASS; reg |= MVNETA_PANC_FORCELINKFAIL; MVNETA_WRITE(sc, MVNETA_PANC, reg); } mvneta_portdown(sc); mvneta_qflush(sc->ifp); sc->linkup = FALSE; if_link_state_change(sc->ifp, LINK_STATE_DOWN); } STATIC void mvneta_linkreset(struct mvneta_softc *sc) { struct mii_softc *mii; if (sc->phy_attached) { /* Force reset PHY */ mii = LIST_FIRST(&sc->mii->mii_phys); if (mii) mii_phy_reset(mii); } } /* * Tx Subroutines */ STATIC int mvneta_tx_queue(struct mvneta_softc *sc, struct mbuf **mbufp, int q) { struct ifnet *ifp; bus_dma_segment_t txsegs[MVNETA_TX_SEGLIMIT]; struct mbuf *mtmp, *mbuf; struct mvneta_tx_ring *tx; struct mvneta_buf *txbuf; struct mvneta_tx_desc *t; uint32_t ptxsu; int start, used, error, i, txnsegs; mbuf = *mbufp; tx = MVNETA_TX_RING(sc, q); DASSERT(tx->used >= 0); DASSERT(tx->used <= MVNETA_TX_RING_CNT); t = NULL; ifp = sc->ifp; if (__predict_false(mbuf->m_flags & M_VLANTAG)) { mbuf = ether_vlanencap(mbuf, mbuf->m_pkthdr.ether_vtag); if (mbuf == NULL) { tx->drv_error++; *mbufp = NULL; return (ENOBUFS); } mbuf->m_flags &= ~M_VLANTAG; *mbufp = mbuf; } if (__predict_false(mbuf->m_next != NULL && (mbuf->m_pkthdr.csum_flags & (CSUM_IP | CSUM_TCP | CSUM_UDP)) != 0)) { if (M_WRITABLE(mbuf) == 0) { mtmp = m_dup(mbuf, M_NOWAIT); m_freem(mbuf); if (mtmp == NULL) { tx->drv_error++; *mbufp = NULL; return (ENOBUFS); } *mbufp = mbuf = mtmp; } } /* load mbuf using dmamap of 1st descriptor */ txbuf = &tx->txbuf[tx->cpu]; error = bus_dmamap_load_mbuf_sg(sc->txmbuf_dtag, txbuf->dmap, mbuf, txsegs, &txnsegs, BUS_DMA_NOWAIT); if (__predict_false(error != 0)) { #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s:%u bus_dmamap_load_mbuf_sg error=%d", ifp->if_xname, q, error); #endif /* This is the only recoverable error (except EFBIG). */ if (error != ENOMEM) { tx->drv_error++; m_freem(mbuf); *mbufp = NULL; return (ENOBUFS); } return (error); } if (__predict_false(txnsegs <= 0 || (txnsegs + tx->used) > MVNETA_TX_RING_CNT)) { /* we have no enough descriptors or mbuf is broken */ #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s:%u not enough descriptors txnsegs=%d", ifp->if_xname, q, txnsegs); #endif bus_dmamap_unload(sc->txmbuf_dtag, txbuf->dmap); return (ENOBUFS); } DASSERT(txbuf->m == NULL); /* remember mbuf using 1st descriptor */ txbuf->m = mbuf; bus_dmamap_sync(sc->txmbuf_dtag, txbuf->dmap, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE); /* load to tx descriptors */ start = tx->cpu; used = 0; for (i = 0; i < txnsegs; i++) { t = &tx->desc[tx->cpu]; t->command = 0; t->l4ichk = 0; t->flags = 0; if (__predict_true(i == 0)) { /* 1st descriptor */ t->command |= MVNETA_TX_CMD_W_PACKET_OFFSET(0); t->command |= MVNETA_TX_CMD_F; mvneta_tx_set_csumflag(ifp, t, mbuf); } t->bufptr_pa = txsegs[i].ds_addr; t->bytecnt = txsegs[i].ds_len; tx->cpu = tx_counter_adv(tx->cpu, 1); tx->used++; used++; } /* t is last descriptor here */ DASSERT(t != NULL); t->command |= MVNETA_TX_CMD_L|MVNETA_TX_CMD_PADDING; bus_dmamap_sync(sc->tx_dtag, tx->desc_map, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE); while (__predict_false(used > 255)) { ptxsu = MVNETA_PTXSU_NOWD(255); MVNETA_WRITE(sc, MVNETA_PTXSU(q), ptxsu); used -= 255; } if (__predict_true(used > 0)) { ptxsu = MVNETA_PTXSU_NOWD(used); MVNETA_WRITE(sc, MVNETA_PTXSU(q), ptxsu); } return (0); } STATIC void mvneta_tx_set_csumflag(struct ifnet *ifp, struct mvneta_tx_desc *t, struct mbuf *m) { struct ether_header *eh; int csum_flags; uint32_t iphl, ipoff; struct ip *ip; iphl = ipoff = 0; csum_flags = ifp->if_hwassist & m->m_pkthdr.csum_flags; eh = mtod(m, struct ether_header *); switch (ntohs(eh->ether_type)) { case ETHERTYPE_IP: ipoff = ETHER_HDR_LEN; break; case ETHERTYPE_IPV6: return; case ETHERTYPE_VLAN: ipoff = ETHER_HDR_LEN + ETHER_VLAN_ENCAP_LEN; break; } if (__predict_true(csum_flags & (CSUM_IP|CSUM_IP_TCP|CSUM_IP_UDP))) { ip = (struct ip *)(m->m_data + ipoff); iphl = ip->ip_hl<<2; t->command |= MVNETA_TX_CMD_L3_IP4; } else { t->command |= MVNETA_TX_CMD_L4_CHECKSUM_NONE; return; } /* L3 */ if (csum_flags & CSUM_IP) { t->command |= MVNETA_TX_CMD_IP4_CHECKSUM; } /* L4 */ if (csum_flags & CSUM_IP_TCP) { t->command |= MVNETA_TX_CMD_L4_CHECKSUM_NOFRAG; t->command |= MVNETA_TX_CMD_L4_TCP; } else if (csum_flags & CSUM_IP_UDP) { t->command |= MVNETA_TX_CMD_L4_CHECKSUM_NOFRAG; t->command |= MVNETA_TX_CMD_L4_UDP; } else t->command |= MVNETA_TX_CMD_L4_CHECKSUM_NONE; t->l4ichk = 0; t->command |= MVNETA_TX_CMD_IP_HEADER_LEN(iphl >> 2); t->command |= MVNETA_TX_CMD_L3_OFFSET(ipoff); } STATIC void mvneta_tx_queue_complete(struct mvneta_softc *sc, int q) { struct mvneta_tx_ring *tx; struct mvneta_buf *txbuf; struct mvneta_tx_desc *t; uint32_t ptxs, ptxsu, ndesc; int i; KASSERT_TX_MTX(sc, q); tx = MVNETA_TX_RING(sc, q); if (__predict_false(tx->queue_status == MVNETA_QUEUE_DISABLED)) return; ptxs = MVNETA_READ(sc, MVNETA_PTXS(q)); ndesc = MVNETA_PTXS_GET_TBC(ptxs); if (__predict_false(ndesc == 0)) { if (tx->used == 0) tx->queue_status = MVNETA_QUEUE_IDLE; else if (tx->queue_status == MVNETA_QUEUE_WORKING && ((ticks - tx->watchdog_time) > MVNETA_WATCHDOG)) tx->queue_hung = TRUE; return; } #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s:%u tx_complete begin ndesc=%u", sc->ifp->if_xname, q, ndesc); #endif bus_dmamap_sync(sc->tx_dtag, tx->desc_map, BUS_DMASYNC_POSTREAD|BUS_DMASYNC_POSTWRITE); for (i = 0; i < ndesc; i++) { t = &tx->desc[tx->dma]; #ifdef MVNETA_KTR if (t->flags & MVNETA_TX_F_ES) CTR3(KTR_SPARE2, "%s tx error queue %d desc %d", sc->ifp->if_xname, q, tx->dma); #endif txbuf = &tx->txbuf[tx->dma]; if (__predict_true(txbuf->m != NULL)) { DASSERT((t->command & MVNETA_TX_CMD_F) != 0); bus_dmamap_unload(sc->txmbuf_dtag, txbuf->dmap); m_freem(txbuf->m); txbuf->m = NULL; } else DASSERT((t->flags & MVNETA_TX_CMD_F) == 0); tx->dma = tx_counter_adv(tx->dma, 1); tx->used--; } DASSERT(tx->used >= 0); DASSERT(tx->used <= MVNETA_TX_RING_CNT); while (__predict_false(ndesc > 255)) { ptxsu = MVNETA_PTXSU_NORB(255); MVNETA_WRITE(sc, MVNETA_PTXSU(q), ptxsu); ndesc -= 255; } if (__predict_true(ndesc > 0)) { ptxsu = MVNETA_PTXSU_NORB(ndesc); MVNETA_WRITE(sc, MVNETA_PTXSU(q), ptxsu); } #ifdef MVNETA_KTR CTR5(KTR_SPARE2, "%s:%u tx_complete tx_cpu=%d tx_dma=%d tx_used=%d", sc->ifp->if_xname, q, tx->cpu, tx->dma, tx->used); #endif tx->watchdog_time = ticks; if (tx->used == 0) tx->queue_status = MVNETA_QUEUE_IDLE; } /* * Do a final TX complete when TX is idle. */ STATIC void mvneta_tx_drain(struct mvneta_softc *sc) { struct mvneta_tx_ring *tx; int q; /* * Handle trailing mbuf on TX queue. * Check is done lockess to avoid TX path contention. */ for (q = 0; q < MVNETA_TX_QNUM_MAX; q++) { tx = MVNETA_TX_RING(sc, q); if ((ticks - tx->watchdog_time) > MVNETA_WATCHDOG_TXCOMP && tx->used > 0) { mvneta_tx_lockq(sc, q); mvneta_tx_queue_complete(sc, q); mvneta_tx_unlockq(sc, q); } } } /* * Rx Subroutines */ STATIC int mvneta_rx(struct mvneta_softc *sc, int q, int count) { uint32_t prxs, npkt; int more; more = 0; mvneta_rx_lockq(sc, q); prxs = MVNETA_READ(sc, MVNETA_PRXS(q)); npkt = MVNETA_PRXS_GET_ODC(prxs); if (__predict_false(npkt == 0)) goto out; if (count > 0 && npkt > count) { more = 1; npkt = count; } mvneta_rx_queue(sc, q, npkt); out: mvneta_rx_unlockq(sc, q); return more; } /* * Helper routine for updating PRXSU register of a given queue. * Handles number of processed descriptors bigger than maximum acceptable value. */ STATIC __inline void mvneta_prxsu_update(struct mvneta_softc *sc, int q, int processed) { uint32_t prxsu; while (__predict_false(processed > 255)) { prxsu = MVNETA_PRXSU_NOOFPROCESSEDDESCRIPTORS(255); MVNETA_WRITE(sc, MVNETA_PRXSU(q), prxsu); processed -= 255; } prxsu = MVNETA_PRXSU_NOOFPROCESSEDDESCRIPTORS(processed); MVNETA_WRITE(sc, MVNETA_PRXSU(q), prxsu); } static __inline void mvneta_prefetch(void *p) { __builtin_prefetch(p); } STATIC void mvneta_rx_queue(struct mvneta_softc *sc, int q, int npkt) { struct ifnet *ifp; struct mvneta_rx_ring *rx; struct mvneta_rx_desc *r; struct mvneta_buf *rxbuf; struct mbuf *m; struct lro_ctrl *lro; struct lro_entry *queued; void *pktbuf; int i, pktlen, processed, ndma; KASSERT_RX_MTX(sc, q); ifp = sc->ifp; rx = MVNETA_RX_RING(sc, q); processed = 0; if (__predict_false(rx->queue_status == MVNETA_QUEUE_DISABLED)) return; bus_dmamap_sync(sc->rx_dtag, rx->desc_map, BUS_DMASYNC_POSTREAD|BUS_DMASYNC_POSTWRITE); for (i = 0; i < npkt; i++) { /* Prefetch next desc, rxbuf. */ ndma = rx_counter_adv(rx->dma, 1); mvneta_prefetch(&rx->desc[ndma]); mvneta_prefetch(&rx->rxbuf[ndma]); /* get descriptor and packet */ r = &rx->desc[rx->dma]; rxbuf = &rx->rxbuf[rx->dma]; m = rxbuf->m; rxbuf->m = NULL; DASSERT(m != NULL); bus_dmamap_sync(sc->rxbuf_dtag, rxbuf->dmap, BUS_DMASYNC_POSTREAD); bus_dmamap_unload(sc->rxbuf_dtag, rxbuf->dmap); /* Prefetch mbuf header. */ mvneta_prefetch(m); processed++; /* Drop desc with error status or not in a single buffer. */ DASSERT((r->status & (MVNETA_RX_F|MVNETA_RX_L)) == (MVNETA_RX_F|MVNETA_RX_L)); if (__predict_false((r->status & MVNETA_RX_ES) || (r->status & (MVNETA_RX_F|MVNETA_RX_L)) != (MVNETA_RX_F|MVNETA_RX_L))) goto rx_error; /* * [ OFF | MH | PKT | CRC ] * bytecnt cover MH, PKT, CRC */ pktlen = r->bytecnt - ETHER_CRC_LEN - MVNETA_HWHEADER_SIZE; pktbuf = (uint8_t *)rx->rxbuf_virt_addr[rx->dma] + MVNETA_PACKET_OFFSET + MVNETA_HWHEADER_SIZE; /* Prefetch mbuf data. */ mvneta_prefetch(pktbuf); /* Write value to mbuf (avoid read). */ m->m_data = pktbuf; m->m_len = m->m_pkthdr.len = pktlen; m->m_pkthdr.rcvif = ifp; mvneta_rx_set_csumflag(ifp, r, m); /* Increase rx_dma before releasing the lock. */ rx->dma = ndma; if (__predict_false(rx->lro_enabled && ((r->status & MVNETA_RX_L3_IP) != 0) && ((r->status & MVNETA_RX_L4_MASK) == MVNETA_RX_L4_TCP) && (m->m_pkthdr.csum_flags & (CSUM_DATA_VALID | CSUM_PSEUDO_HDR)) == (CSUM_DATA_VALID | CSUM_PSEUDO_HDR))) { if (rx->lro.lro_cnt != 0) { if (tcp_lro_rx(&rx->lro, m, 0) == 0) goto rx_done; } } mvneta_rx_unlockq(sc, q); (*ifp->if_input)(ifp, m); mvneta_rx_lockq(sc, q); /* * Check whether this queue has been disabled in the * meantime. If yes, then clear LRO and exit. */ if(__predict_false(rx->queue_status == MVNETA_QUEUE_DISABLED)) goto rx_lro; rx_done: /* Refresh receive ring to avoid stall and minimize jitter. */ if (processed >= MVNETA_RX_REFILL_COUNT) { mvneta_prxsu_update(sc, q, processed); mvneta_rx_queue_refill(sc, q); processed = 0; } continue; rx_error: m_freem(m); rx->dma = ndma; /* Refresh receive ring to avoid stall and minimize jitter. */ if (processed >= MVNETA_RX_REFILL_COUNT) { mvneta_prxsu_update(sc, q, processed); mvneta_rx_queue_refill(sc, q); processed = 0; } } #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s:%u %u packets received", ifp->if_xname, q, npkt); #endif /* DMA status update */ mvneta_prxsu_update(sc, q, processed); /* Refill the rest of buffers if there are any to refill */ mvneta_rx_queue_refill(sc, q); rx_lro: /* * Flush any outstanding LRO work */ lro = &rx->lro; while (__predict_false((queued = LIST_FIRST(&lro->lro_active)) != NULL)) { LIST_REMOVE(LIST_FIRST((&lro->lro_active)), next); tcp_lro_flush(lro, queued); } } STATIC void mvneta_rx_buf_free(struct mvneta_softc *sc, struct mvneta_buf *rxbuf) { bus_dmamap_unload(sc->rxbuf_dtag, rxbuf->dmap); /* This will remove all data at once */ m_freem(rxbuf->m); } STATIC void mvneta_rx_queue_refill(struct mvneta_softc *sc, int q) { struct mvneta_rx_ring *rx; struct mvneta_rx_desc *r; struct mvneta_buf *rxbuf; bus_dma_segment_t segs; struct mbuf *m; uint32_t prxs, prxsu, ndesc; int npkt, refill, nsegs, error; KASSERT_RX_MTX(sc, q); rx = MVNETA_RX_RING(sc, q); prxs = MVNETA_READ(sc, MVNETA_PRXS(q)); ndesc = MVNETA_PRXS_GET_NODC(prxs) + MVNETA_PRXS_GET_ODC(prxs); refill = MVNETA_RX_RING_CNT - ndesc; #ifdef MVNETA_KTR CTR3(KTR_SPARE2, "%s:%u refill %u packets", sc->ifp->if_xname, q, refill); #endif if (__predict_false(refill <= 0)) return; for (npkt = 0; npkt < refill; npkt++) { rxbuf = &rx->rxbuf[rx->cpu]; m = m_getcl(M_NOWAIT, MT_DATA, M_PKTHDR); if (__predict_false(m == NULL)) { error = ENOBUFS; break; } m->m_len = m->m_pkthdr.len = m->m_ext.ext_size; error = bus_dmamap_load_mbuf_sg(sc->rxbuf_dtag, rxbuf->dmap, m, &segs, &nsegs, BUS_DMA_NOWAIT); if (__predict_false(error != 0 || nsegs != 1)) { KASSERT(1, ("Failed to load Rx mbuf DMA map")); m_freem(m); break; } /* Add the packet to the ring */ rxbuf->m = m; r = &rx->desc[rx->cpu]; r->bufptr_pa = segs.ds_addr; rx->rxbuf_virt_addr[rx->cpu] = m->m_data; rx->cpu = rx_counter_adv(rx->cpu, 1); } if (npkt == 0) { if (refill == MVNETA_RX_RING_CNT) rx->needs_refill = TRUE; return; } rx->needs_refill = FALSE; bus_dmamap_sync(sc->rx_dtag, rx->desc_map, BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE); while (__predict_false(npkt > 255)) { prxsu = MVNETA_PRXSU_NOOFNEWDESCRIPTORS(255); MVNETA_WRITE(sc, MVNETA_PRXSU(q), prxsu); npkt -= 255; } if (__predict_true(npkt > 0)) { prxsu = MVNETA_PRXSU_NOOFNEWDESCRIPTORS(npkt); MVNETA_WRITE(sc, MVNETA_PRXSU(q), prxsu); } } STATIC __inline void mvneta_rx_set_csumflag(struct ifnet *ifp, struct mvneta_rx_desc *r, struct mbuf *m) { uint32_t csum_flags; csum_flags = 0; if (__predict_false((r->status & (MVNETA_RX_IP_HEADER_OK|MVNETA_RX_L3_IP)) == 0)) return; /* not a IP packet */ /* L3 */ if (__predict_true((r->status & MVNETA_RX_IP_HEADER_OK) == MVNETA_RX_IP_HEADER_OK)) csum_flags |= CSUM_L3_CALC|CSUM_L3_VALID; if (__predict_true((r->status & (MVNETA_RX_IP_HEADER_OK|MVNETA_RX_L3_IP)) == (MVNETA_RX_IP_HEADER_OK|MVNETA_RX_L3_IP))) { /* L4 */ switch (r->status & MVNETA_RX_L4_MASK) { case MVNETA_RX_L4_TCP: case MVNETA_RX_L4_UDP: csum_flags |= CSUM_L4_CALC; if (__predict_true((r->status & MVNETA_RX_L4_CHECKSUM_OK) == MVNETA_RX_L4_CHECKSUM_OK)) { csum_flags |= CSUM_L4_VALID; m->m_pkthdr.csum_data = htons(0xffff); } break; case MVNETA_RX_L4_OTH: default: break; } } m->m_pkthdr.csum_flags = csum_flags; } /* * MAC address filter */ STATIC void mvneta_filter_setup(struct mvneta_softc *sc) { struct ifnet *ifp; uint32_t dfut[MVNETA_NDFUT], dfsmt[MVNETA_NDFSMT], dfomt[MVNETA_NDFOMT]; uint32_t pxc; int i; KASSERT_SC_MTX(sc); memset(dfut, 0, sizeof(dfut)); memset(dfsmt, 0, sizeof(dfsmt)); memset(dfomt, 0, sizeof(dfomt)); ifp = sc->ifp; ifp->if_flags |= IFF_ALLMULTI; if (ifp->if_flags & (IFF_ALLMULTI|IFF_PROMISC)) { for (i = 0; i < MVNETA_NDFSMT; i++) { dfsmt[i] = dfomt[i] = MVNETA_DF(0, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(1, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(2, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(3, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS); } } pxc = MVNETA_READ(sc, MVNETA_PXC); pxc &= ~(MVNETA_PXC_UPM | MVNETA_PXC_RXQ_MASK | MVNETA_PXC_RXQARP_MASK | MVNETA_PXC_TCPQ_MASK | MVNETA_PXC_UDPQ_MASK | MVNETA_PXC_BPDUQ_MASK); pxc |= MVNETA_PXC_RXQ(MVNETA_RX_QNUM_MAX-1); pxc |= MVNETA_PXC_RXQARP(MVNETA_RX_QNUM_MAX-1); pxc |= MVNETA_PXC_TCPQ(MVNETA_RX_QNUM_MAX-1); pxc |= MVNETA_PXC_UDPQ(MVNETA_RX_QNUM_MAX-1); pxc |= MVNETA_PXC_BPDUQ(MVNETA_RX_QNUM_MAX-1); pxc |= MVNETA_PXC_RB | MVNETA_PXC_RBIP | MVNETA_PXC_RBARP; if (ifp->if_flags & IFF_BROADCAST) { pxc &= ~(MVNETA_PXC_RB | MVNETA_PXC_RBIP | MVNETA_PXC_RBARP); } if (ifp->if_flags & IFF_PROMISC) { pxc |= MVNETA_PXC_UPM; } MVNETA_WRITE(sc, MVNETA_PXC, pxc); /* Set Destination Address Filter Unicast Table */ if (ifp->if_flags & IFF_PROMISC) { /* pass all unicast addresses */ for (i = 0; i < MVNETA_NDFUT; i++) { dfut[i] = MVNETA_DF(0, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(1, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(2, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS) | MVNETA_DF(3, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS); } } else { i = sc->enaddr[5] & 0xf; /* last nibble */ dfut[i>>2] = MVNETA_DF(i&3, MVNETA_DF_QUEUE(0) | MVNETA_DF_PASS); } MVNETA_WRITE_REGION(sc, MVNETA_DFUT(0), dfut, MVNETA_NDFUT); /* Set Destination Address Filter Multicast Tables */ MVNETA_WRITE_REGION(sc, MVNETA_DFSMT(0), dfsmt, MVNETA_NDFSMT); MVNETA_WRITE_REGION(sc, MVNETA_DFOMT(0), dfomt, MVNETA_NDFOMT); } /* * sysctl(9) */ STATIC int sysctl_read_mib(SYSCTL_HANDLER_ARGS) { struct mvneta_sysctl_mib *arg; struct mvneta_softc *sc; uint64_t val; arg = (struct mvneta_sysctl_mib *)arg1; if (arg == NULL) return (EINVAL); sc = arg->sc; if (sc == NULL) return (EINVAL); if (arg->index < 0 || arg->index > MVNETA_PORTMIB_NOCOUNTER) return (EINVAL); mvneta_sc_lock(sc); val = arg->counter; mvneta_sc_unlock(sc); return sysctl_handle_64(oidp, &val, 0, req); } STATIC int sysctl_clear_mib(SYSCTL_HANDLER_ARGS) { struct mvneta_softc *sc; int err, val; val = 0; sc = (struct mvneta_softc *)arg1; if (sc == NULL) return (EINVAL); err = sysctl_handle_int(oidp, &val, 0, req); if (err != 0) return (err); if (val < 0 || val > 1) return (EINVAL); if (val == 1) { mvneta_sc_lock(sc); mvneta_clear_mib(sc); mvneta_sc_unlock(sc); } return (0); } STATIC int sysctl_set_queue_rxthtime(SYSCTL_HANDLER_ARGS) { struct mvneta_sysctl_queue *arg; struct mvneta_rx_ring *rx; struct mvneta_softc *sc; uint32_t reg, time_mvtclk; int err, time_us; rx = NULL; arg = (struct mvneta_sysctl_queue *)arg1; if (arg == NULL) return (EINVAL); if (arg->queue < 0 || arg->queue > MVNETA_RX_RING_CNT) return (EINVAL); if (arg->rxtx != MVNETA_SYSCTL_RX) return (EINVAL); sc = arg->sc; if (sc == NULL) return (EINVAL); /* read queue length */ mvneta_sc_lock(sc); mvneta_rx_lockq(sc, arg->queue); rx = MVNETA_RX_RING(sc, arg->queue); time_mvtclk = rx->queue_th_time; - time_us = ((uint64_t)time_mvtclk * 1000ULL * 1000ULL) / get_tclk(); + time_us = ((uint64_t)time_mvtclk * 1000ULL * 1000ULL) / mvneta_get_clk(); mvneta_rx_unlockq(sc, arg->queue); mvneta_sc_unlock(sc); err = sysctl_handle_int(oidp, &time_us, 0, req); if (err != 0) return (err); mvneta_sc_lock(sc); mvneta_rx_lockq(sc, arg->queue); /* update queue length (0[sec] - 1[sec]) */ if (time_us < 0 || time_us > (1000 * 1000)) { mvneta_rx_unlockq(sc, arg->queue); mvneta_sc_unlock(sc); return (EINVAL); } time_mvtclk = - (uint64_t)get_tclk() * (uint64_t)time_us / (1000ULL * 1000ULL); + (uint64_t)mvneta_get_clk() * (uint64_t)time_us / (1000ULL * 1000ULL); rx->queue_th_time = time_mvtclk; reg = MVNETA_PRXITTH_RITT(rx->queue_th_time); MVNETA_WRITE(sc, MVNETA_PRXITTH(arg->queue), reg); mvneta_rx_unlockq(sc, arg->queue); mvneta_sc_unlock(sc); return (0); } STATIC void sysctl_mvneta_init(struct mvneta_softc *sc) { struct sysctl_ctx_list *ctx; struct sysctl_oid_list *children; struct sysctl_oid_list *rxchildren; struct sysctl_oid_list *qchildren, *mchildren; struct sysctl_oid *tree; int i, q; struct mvneta_sysctl_queue *rxarg; #define MVNETA_SYSCTL_NAME(num) "queue" # num static const char *sysctl_queue_names[] = { MVNETA_SYSCTL_NAME(0), MVNETA_SYSCTL_NAME(1), MVNETA_SYSCTL_NAME(2), MVNETA_SYSCTL_NAME(3), MVNETA_SYSCTL_NAME(4), MVNETA_SYSCTL_NAME(5), MVNETA_SYSCTL_NAME(6), MVNETA_SYSCTL_NAME(7), }; #undef MVNETA_SYSCTL_NAME #define MVNETA_SYSCTL_DESCR(num) "configuration parameters for queue " # num static const char *sysctl_queue_descrs[] = { MVNETA_SYSCTL_DESCR(0), MVNETA_SYSCTL_DESCR(1), MVNETA_SYSCTL_DESCR(2), MVNETA_SYSCTL_DESCR(3), MVNETA_SYSCTL_DESCR(4), MVNETA_SYSCTL_DESCR(5), MVNETA_SYSCTL_DESCR(6), MVNETA_SYSCTL_DESCR(7), }; #undef MVNETA_SYSCTL_DESCR ctx = device_get_sysctl_ctx(sc->dev); children = SYSCTL_CHILDREN(device_get_sysctl_tree(sc->dev)); tree = SYSCTL_ADD_NODE(ctx, children, OID_AUTO, "rx", CTLFLAG_RD, 0, "NETA RX"); rxchildren = SYSCTL_CHILDREN(tree); tree = SYSCTL_ADD_NODE(ctx, children, OID_AUTO, "mib", CTLFLAG_RD, 0, "NETA MIB"); mchildren = SYSCTL_CHILDREN(tree); SYSCTL_ADD_INT(ctx, children, OID_AUTO, "flow_control", CTLFLAG_RW, &sc->cf_fc, 0, "flow control"); SYSCTL_ADD_INT(ctx, children, OID_AUTO, "lpi", CTLFLAG_RW, &sc->cf_lpi, 0, "Low Power Idle"); /* * MIB access */ /* dev.mvneta.[unit].mib. */ for (i = 0; i < MVNETA_PORTMIB_NOCOUNTER; i++) { const char *name = mvneta_mib_list[i].sysctl_name; const char *desc = mvneta_mib_list[i].desc; struct mvneta_sysctl_mib *mib_arg = &sc->sysctl_mib[i]; mib_arg->sc = sc; mib_arg->index = i; SYSCTL_ADD_PROC(ctx, mchildren, OID_AUTO, name, CTLTYPE_U64|CTLFLAG_RD, (void *)mib_arg, 0, sysctl_read_mib, "I", desc); } SYSCTL_ADD_UQUAD(ctx, mchildren, OID_AUTO, "rx_discard", CTLFLAG_RD, &sc->counter_pdfc, "Port Rx Discard Frame Counter"); SYSCTL_ADD_UQUAD(ctx, mchildren, OID_AUTO, "overrun", CTLFLAG_RD, &sc->counter_pofc, "Port Overrun Frame Counter"); SYSCTL_ADD_UINT(ctx, mchildren, OID_AUTO, "watchdog", CTLFLAG_RD, &sc->counter_watchdog, 0, "TX Watchdog Counter"); SYSCTL_ADD_PROC(ctx, mchildren, OID_AUTO, "reset", CTLTYPE_INT|CTLFLAG_RW, (void *)sc, 0, sysctl_clear_mib, "I", "Reset MIB counters"); for (q = 0; q < MVNETA_RX_QNUM_MAX; q++) { rxarg = &sc->sysctl_rx_queue[q]; rxarg->sc = sc; rxarg->queue = q; rxarg->rxtx = MVNETA_SYSCTL_RX; /* hw.mvneta.mvneta[unit].rx.[queue] */ tree = SYSCTL_ADD_NODE(ctx, rxchildren, OID_AUTO, sysctl_queue_names[q], CTLFLAG_RD, 0, sysctl_queue_descrs[q]); qchildren = SYSCTL_CHILDREN(tree); /* hw.mvneta.mvneta[unit].rx.[queue].threshold_timer_us */ SYSCTL_ADD_PROC(ctx, qchildren, OID_AUTO, "threshold_timer_us", CTLTYPE_UINT | CTLFLAG_RW, rxarg, 0, sysctl_set_queue_rxthtime, "I", "interrupt coalescing threshold timer [us]"); } } /* * MIB */ STATIC void mvneta_clear_mib(struct mvneta_softc *sc) { int i; KASSERT_SC_MTX(sc); for (i = 0; i < nitems(mvneta_mib_list); i++) { if (mvneta_mib_list[i].reg64) MVNETA_READ_MIB_8(sc, mvneta_mib_list[i].regnum); else MVNETA_READ_MIB_4(sc, mvneta_mib_list[i].regnum); sc->sysctl_mib[i].counter = 0; } MVNETA_READ(sc, MVNETA_PDFC); sc->counter_pdfc = 0; MVNETA_READ(sc, MVNETA_POFC); sc->counter_pofc = 0; sc->counter_watchdog = 0; } STATIC void mvneta_update_mib(struct mvneta_softc *sc) { struct mvneta_tx_ring *tx; int i; uint64_t val; uint32_t reg; for (i = 0; i < nitems(mvneta_mib_list); i++) { if (mvneta_mib_list[i].reg64) val = MVNETA_READ_MIB_8(sc, mvneta_mib_list[i].regnum); else val = MVNETA_READ_MIB_4(sc, mvneta_mib_list[i].regnum); if (val == 0) continue; sc->sysctl_mib[i].counter += val; switch (mvneta_mib_list[i].regnum) { case MVNETA_MIB_RX_GOOD_OCT: if_inc_counter(sc->ifp, IFCOUNTER_IBYTES, val); break; case MVNETA_MIB_RX_BAD_FRAME: if_inc_counter(sc->ifp, IFCOUNTER_IERRORS, val); break; case MVNETA_MIB_RX_GOOD_FRAME: if_inc_counter(sc->ifp, IFCOUNTER_IPACKETS, val); break; case MVNETA_MIB_RX_MCAST_FRAME: if_inc_counter(sc->ifp, IFCOUNTER_IMCASTS, val); break; case MVNETA_MIB_TX_GOOD_OCT: if_inc_counter(sc->ifp, IFCOUNTER_OBYTES, val); break; case MVNETA_MIB_TX_GOOD_FRAME: if_inc_counter(sc->ifp, IFCOUNTER_OPACKETS, val); break; case MVNETA_MIB_TX_MCAST_FRAME: if_inc_counter(sc->ifp, IFCOUNTER_OMCASTS, val); break; case MVNETA_MIB_MAC_COL: if_inc_counter(sc->ifp, IFCOUNTER_COLLISIONS, val); break; case MVNETA_MIB_TX_MAC_TRNS_ERR: case MVNETA_MIB_TX_EXCES_COL: case MVNETA_MIB_MAC_LATE_COL: if_inc_counter(sc->ifp, IFCOUNTER_OERRORS, val); break; } } reg = MVNETA_READ(sc, MVNETA_PDFC); sc->counter_pdfc += reg; if_inc_counter(sc->ifp, IFCOUNTER_IQDROPS, reg); reg = MVNETA_READ(sc, MVNETA_POFC); sc->counter_pofc += reg; if_inc_counter(sc->ifp, IFCOUNTER_IQDROPS, reg); /* TX watchdog. */ if (sc->counter_watchdog_mib > 0) { if_inc_counter(sc->ifp, IFCOUNTER_OERRORS, sc->counter_watchdog_mib); sc->counter_watchdog_mib = 0; } /* * TX driver errors: * We do not take queue locks to not disrupt TX path. * We may only miss one drv error which will be fixed at * next mib update. We may also clear counter when TX path * is incrementing it but we only do it if counter was not zero * thus we may only loose one error. */ for (i = 0; i < MVNETA_TX_QNUM_MAX; i++) { tx = MVNETA_TX_RING(sc, i); if (tx->drv_error > 0) { if_inc_counter(sc->ifp, IFCOUNTER_OERRORS, tx->drv_error); tx->drv_error = 0; } } } Index: head/sys/dev/neta/if_mvneta_fdt.c =================================================================== --- head/sys/dev/neta/if_mvneta_fdt.c (revision 323361) +++ head/sys/dev/neta/if_mvneta_fdt.c (revision 323362) @@ -1,225 +1,231 @@ /* * Copyright (c) 2017 Stormshield. * Copyright (c) 2017 Semihalf. * 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 ``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 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 "opt_platform.h" #include __FBSDID("$FreeBSD$"); #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include "if_mvnetareg.h" #include "if_mvnetavar.h" #define PHY_MODE_MAXLEN 10 #define INBAND_STATUS_MAXLEN 16 static int mvneta_fdt_probe(device_t); static int mvneta_fdt_attach(device_t); static device_method_t mvneta_fdt_methods[] = { /* Device interface */ DEVMETHOD(device_probe, mvneta_fdt_probe), DEVMETHOD(device_attach, mvneta_fdt_attach), /* End */ DEVMETHOD_END }; DEFINE_CLASS_1(mvneta, mvneta_fdt_driver, mvneta_fdt_methods, sizeof(struct mvneta_softc), mvneta_driver); static devclass_t mvneta_fdt_devclass; DRIVER_MODULE(mvneta, ofwbus, mvneta_fdt_driver, mvneta_fdt_devclass, 0, 0); DRIVER_MODULE(mvneta, simplebus, mvneta_fdt_driver, mvneta_fdt_devclass, 0, 0); static int mvneta_fdt_phy_acquire(device_t); +static struct ofw_compat_data compat_data[] = { + {"marvell,armada-370-neta", true}, + {"marvell,armada-3700-neta", true}, + {NULL, false} +}; + static int mvneta_fdt_probe(device_t dev) { if (!ofw_bus_status_okay(dev)) return (ENXIO); - if (!ofw_bus_is_compatible(dev, "marvell,armada-370-neta")) + if (!ofw_bus_search_compatible(dev, compat_data)->ocd_data) return (ENXIO); device_set_desc(dev, "NETA controller"); return (BUS_PROBE_DEFAULT); } static int mvneta_fdt_attach(device_t dev) { int err; /* Try to fetch PHY information from FDT */ err = mvneta_fdt_phy_acquire(dev); if (err != 0) return (err); return (mvneta_attach(dev)); } static int mvneta_fdt_phy_acquire(device_t dev) { struct mvneta_softc *sc; phandle_t node, child, phy_handle; char phymode[PHY_MODE_MAXLEN]; char managed[INBAND_STATUS_MAXLEN]; char *name; sc = device_get_softc(dev); node = ofw_bus_get_node(dev); /* PHY mode is crucial */ if (OF_getprop(node, "phy-mode", phymode, sizeof(phymode)) <= 0) { device_printf(dev, "Failed to acquire PHY mode from FDT.\n"); return (ENXIO); } if (strncmp(phymode, "rgmii-id", 8) == 0) sc->phy_mode = MVNETA_PHY_RGMII_ID; else if (strncmp(phymode, "rgmii", 5) == 0) sc->phy_mode = MVNETA_PHY_RGMII; else if (strncmp(phymode, "sgmii", 5) == 0) sc->phy_mode = MVNETA_PHY_SGMII; else if (strncmp(phymode, "qsgmii", 6) == 0) sc->phy_mode = MVNETA_PHY_QSGMII; else sc->phy_mode = MVNETA_PHY_SGMII; /* Check if in-band link status will be used */ if (OF_getprop(node, "managed", managed, sizeof(managed)) > 0) { if (strncmp(managed, "in-band-status", 14) == 0) { sc->use_inband_status = TRUE; device_printf(dev, "Use in-band link status.\n"); return (0); } } if (OF_getencprop(node, "phy", (void *)&phy_handle, sizeof(phy_handle)) <= 0) { /* Test for fixed-link (present i.e. in 388-gp) */ for (child = OF_child(node); child != 0; child = OF_peer(child)) { if (OF_getprop_alloc(child, "name", 1, (void **)&name) <= 0) { continue; } if (strncmp(name, "fixed-link", 10) == 0) { free(name, M_OFWPROP); if (OF_getencprop(child, "speed", &sc->phy_speed, sizeof(sc->phy_speed)) <= 0) { if (bootverbose) { device_printf(dev, "No PHY information.\n"); } return (ENXIO); } if (OF_hasprop(child, "full-duplex")) sc->phy_fdx = TRUE; else sc->phy_fdx = FALSE; /* Keep this flag just for the record */ sc->phy_addr = MII_PHY_ANY; return (0); } free(name, M_OFWPROP); } if (bootverbose) { device_printf(dev, "Could not find PHY information in FDT.\n"); } return (ENXIO); } else { phy_handle = OF_instance_to_package(phy_handle); if (OF_getencprop(phy_handle, "reg", &sc->phy_addr, sizeof(sc->phy_addr)) <= 0) { device_printf(dev, "Could not find PHY address in FDT.\n"); return (ENXIO); } } return (0); } int mvneta_fdt_mac_address(struct mvneta_softc *sc, uint8_t *addr) { phandle_t node; uint8_t lmac[ETHER_ADDR_LEN]; uint8_t zeromac[] = {[0 ... (ETHER_ADDR_LEN - 1)] = 0}; int len; /* * Retrieve hw address from the device tree. */ node = ofw_bus_get_node(sc->dev); if (node == 0) return (ENXIO); len = OF_getprop(node, "local-mac-address", (void *)lmac, sizeof(lmac)); if (len != ETHER_ADDR_LEN) return (ENOENT); if (memcmp(lmac, zeromac, ETHER_ADDR_LEN) == 0) { /* Invalid MAC address (all zeros) */ return (EINVAL); } memcpy(addr, lmac, ETHER_ADDR_LEN); return (0); }