Add the 802.1q support for the Marvell e6000 series of ethernet switches.

Tested on:	espressobin, Clearfog, SG-3100 and others
Sponsored by:	Rubicon Communications, LLC (Netgate)
This commit is contained in:
Luiz Otavio O Souza 2019-06-28 22:19:50 +00:00
parent 4e4cedb00b
commit d7cecbd179
2 changed files with 595 additions and 310 deletions

View File

@ -1,6 +1,7 @@
/*-
* Copyright (c) 2015 Semihalf
* Copyright (c) 2015 Stormshield
* Copyright (c) 2018-2019, Rubicon Communications, LLC (Netgate)
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
@ -60,6 +61,15 @@ MALLOC_DEFINE(M_E6000SW, "e6000sw", "e6000sw switch");
#define E6000SW_UNLOCK(_sc) sx_unlock(&(_sc)->sx)
#define E6000SW_LOCK_ASSERT(_sc, _what) sx_assert(&(_sc)->sx, (_what))
#define E6000SW_TRYLOCK(_sc) sx_tryxlock(&(_sc)->sx)
#define E6000SW_WAITREADY(_sc, _reg, _bit) \
e6000sw_waitready((_sc), REG_GLOBAL, (_reg), (_bit))
#define E6000SW_WAITREADY2(_sc, _reg, _bit) \
e6000sw_waitready((_sc), REG_GLOBAL2, (_reg), (_bit))
#define MDIO_READ(dev, addr, reg) \
MDIO_READREG(device_get_parent(dev), (addr), (reg))
#define MDIO_WRITE(dev, addr, reg, val) \
MDIO_WRITEREG(device_get_parent(dev), (addr), (reg), (val))
typedef struct e6000sw_softc {
device_t dev;
@ -71,6 +81,7 @@ typedef struct e6000sw_softc {
device_t miibus[E6000SW_MAX_PORTS];
struct proc *kproc;
int vlans[E6000SW_NUM_VLANS];
uint32_t swid;
uint32_t vlan_mode;
uint32_t cpuports_mask;
@ -80,13 +91,12 @@ typedef struct e6000sw_softc {
int phy_base;
int sw_addr;
int num_ports;
boolean_t multi_chip;
} e6000sw_softc_t;
static etherswitch_info_t etherswitch_info = {
.es_nports = 0,
.es_nvlangroups = 0,
.es_vlan_caps = ETHERSWITCH_VLAN_PORT,
.es_vlan_caps = ETHERSWITCH_VLAN_PORT | ETHERSWITCH_VLAN_DOT1Q,
.es_name = "Marvell 6000 series switch"
};
@ -100,10 +110,12 @@ static int e6000sw_readphy(device_t, int, int);
static int e6000sw_writephy(device_t, int, int, int);
static etherswitch_info_t* e6000sw_getinfo(device_t);
static int e6000sw_getconf(device_t, etherswitch_conf_t *);
static int e6000sw_setconf(device_t, etherswitch_conf_t *);
static void e6000sw_lock(device_t);
static void e6000sw_unlock(device_t);
static int e6000sw_getport(device_t, etherswitch_port_t *);
static int e6000sw_setport(device_t, etherswitch_port_t *);
static int e6000sw_set_vlan_mode(e6000sw_softc_t *, uint32_t);
static int e6000sw_readreg_wrapper(device_t, int);
static int e6000sw_writereg_wrapper(device_t, int, int);
static int e6000sw_readphy_wrapper(device_t, int, int);
@ -113,10 +125,11 @@ static int e6000sw_setvgroup_wrapper(device_t, etherswitch_vlangroup_t *);
static int e6000sw_setvgroup(device_t, etherswitch_vlangroup_t *);
static int e6000sw_getvgroup(device_t, etherswitch_vlangroup_t *);
static void e6000sw_setup(device_t, e6000sw_softc_t *);
static void e6000sw_port_vlan_conf(e6000sw_softc_t *);
static void e6000sw_tick(void *);
static void e6000sw_set_atustat(device_t, e6000sw_softc_t *, int, int);
static int e6000sw_atu_flush(device_t, e6000sw_softc_t *, int);
static int e6000sw_vtu_flush(e6000sw_softc_t *);
static int e6000sw_vtu_update(e6000sw_softc_t *, int, int, int, int, int);
static __inline void e6000sw_writereg(e6000sw_softc_t *, int, int, int);
static __inline uint32_t e6000sw_readreg(e6000sw_softc_t *, int, int);
static int e6000sw_ifmedia_upd(struct ifnet *);
@ -124,7 +137,7 @@ static void e6000sw_ifmedia_sts(struct ifnet *, struct ifmediareq *);
static int e6000sw_atu_mac_table(device_t, e6000sw_softc_t *, struct atu_opt *,
int);
static int e6000sw_get_pvid(e6000sw_softc_t *, int, int *);
static int e6000sw_set_pvid(e6000sw_softc_t *, int, int);
static void e6000sw_set_pvid(e6000sw_softc_t *, int, int);
static __inline bool e6000sw_is_cpuport(e6000sw_softc_t *, int);
static __inline bool e6000sw_is_fixedport(e6000sw_softc_t *, int);
static __inline bool e6000sw_is_fixed25port(e6000sw_softc_t *, int);
@ -150,6 +163,7 @@ static device_method_t e6000sw_methods[] = {
/* etherswitch interface */
DEVMETHOD(etherswitch_getinfo, e6000sw_getinfo),
DEVMETHOD(etherswitch_getconf, e6000sw_getconf),
DEVMETHOD(etherswitch_setconf, e6000sw_setconf),
DEVMETHOD(etherswitch_lock, e6000sw_lock),
DEVMETHOD(etherswitch_unlock, e6000sw_unlock),
DEVMETHOD(etherswitch_getport, e6000sw_getport),
@ -175,16 +189,6 @@ DRIVER_MODULE(etherswitch, e6000sw, etherswitch_driver, etherswitch_devclass, 0,
DRIVER_MODULE(miibus, e6000sw, miibus_driver, miibus_devclass, 0, 0);
MODULE_DEPEND(e6000sw, mdio, 1, 1, 1);
#define SMI_CMD 0
#define SMI_CMD_BUSY (1 << 15)
#define SMI_CMD_OP_READ ((2 << 10) | SMI_CMD_BUSY | (1 << 12))
#define SMI_CMD_OP_WRITE ((1 << 10) | SMI_CMD_BUSY | (1 << 12))
#define SMI_DATA 1
#define MDIO_READ(dev, addr, reg) \
MDIO_READREG(device_get_parent(dev), (addr), (reg))
#define MDIO_WRITE(dev, addr, reg, val) \
MDIO_WRITEREG(device_get_parent(dev), (addr), (reg), (val))
static void
e6000sw_identify(driver_t *driver, device_t parent)
@ -217,14 +221,8 @@ e6000sw_probe(device_t dev)
if (OF_getencprop(sc->node, "reg", &sc->sw_addr,
sizeof(sc->sw_addr)) < 0)
return (ENXIO);
/*
* According to the Linux source code, all of the Switch IDs we support
* are multi_chip capable, and should go into multi-chip mode if the
* sw_addr != 0.
*/
if (!OF_hasprop(sc->node, "single-chip-addressing") && sc->sw_addr != 0)
sc->multi_chip = true;
if (sc->sw_addr < 0 || sc->sw_addr > 32)
return (ENXIO);
/*
* Create temporary lock, just to satisfy assertions,
@ -396,8 +394,14 @@ e6000sw_attach(device_t dev)
err = 0;
sc = device_get_softc(dev);
if (sc->multi_chip)
device_printf(dev, "multi-chip addressing mode\n");
/*
* According to the Linux source code, all of the Switch IDs we support
* are multi_chip capable, and should go into multi-chip mode if the
* sw_addr != 0.
*/
if (MVSWITCH_MULTICHIP(sc))
device_printf(dev, "multi-chip addressing mode (%#x)\n",
sc->sw_addr);
else
device_printf(dev, "single-chip addressing mode\n");
@ -470,7 +474,11 @@ e6000sw_attach(device_t dev)
etherswitch_info.es_nports = sc->num_ports;
/* Default to port vlan. */
e6000sw_port_vlan_conf(sc);
e6000sw_set_vlan_mode(sc, ETHERSWITCH_VLAN_PORT);
reg = e6000sw_readreg(sc, REG_GLOBAL, SWITCH_GLOBAL_STATUS);
if (reg & SWITCH_GLOBAL_STATUS_IR)
device_printf(dev, "switch is ready.\n");
E6000SW_UNLOCK(sc);
bus_generic_probe(dev);
@ -487,21 +495,19 @@ out_fail:
return (err);
}
static __inline int
e6000sw_poll_done(e6000sw_softc_t *sc)
static int
e6000sw_waitready(e6000sw_softc_t *sc, uint32_t phy, uint32_t reg,
uint32_t busybit)
{
int i;
for (i = 0; i < E6000SW_SMI_TIMEOUT; i++) {
if ((e6000sw_readreg(sc, REG_GLOBAL2, SMI_PHY_CMD_REG) &
(1 << PHY_CMD_SMI_BUSY)) == 0)
for (i = 0; i < E6000SW_RETRIES; i++) {
if ((e6000sw_readreg(sc, phy, reg) & busybit) == 0)
return (0);
pause("e6000sw PHY poll", hz/1000);
DELAY(1);
}
return (ETIMEDOUT);
return (1);
}
/*
@ -513,7 +519,6 @@ e6000sw_readphy(device_t dev, int phy, int reg)
{
e6000sw_softc_t *sc;
uint32_t val;
int err;
sc = device_get_softc(dev);
if (!e6000sw_is_phyport(sc, phy) || reg >= E6000SW_NUM_PHY_REGS) {
@ -522,24 +527,17 @@ e6000sw_readphy(device_t dev, int phy, int reg)
}
E6000SW_LOCK_ASSERT(sc, SA_XLOCKED);
err = e6000sw_poll_done(sc);
if (err != 0) {
if (E6000SW_WAITREADY2(sc, SMI_PHY_CMD_REG, SMI_CMD_BUSY)) {
device_printf(dev, "Timeout while waiting for switch\n");
return (err);
return (ETIMEDOUT);
}
val = 1 << PHY_CMD_SMI_BUSY;
val |= PHY_CMD_MODE_MDIO << PHY_CMD_MODE;
val |= PHY_CMD_OPCODE_READ << PHY_CMD_OPCODE;
val |= (reg << PHY_CMD_REG_ADDR) & PHY_CMD_REG_ADDR_MASK;
val |= (phy << PHY_CMD_DEV_ADDR) & PHY_CMD_DEV_ADDR_MASK;
e6000sw_writereg(sc, REG_GLOBAL2, SMI_PHY_CMD_REG, val);
err = e6000sw_poll_done(sc);
if (err != 0) {
e6000sw_writereg(sc, REG_GLOBAL2, SMI_PHY_CMD_REG,
SMI_CMD_OP_C22_READ | (reg & SMI_CMD_REG_ADDR_MASK) |
((phy << SMI_CMD_DEV_ADDR) & SMI_CMD_DEV_ADDR_MASK));
if (E6000SW_WAITREADY2(sc, SMI_PHY_CMD_REG, SMI_CMD_BUSY)) {
device_printf(dev, "Timeout while waiting for switch\n");
return (err);
return (ETIMEDOUT);
}
val = e6000sw_readreg(sc, REG_GLOBAL2, SMI_PHY_DATA_REG);
@ -551,8 +549,6 @@ static int
e6000sw_writephy(device_t dev, int phy, int reg, int data)
{
e6000sw_softc_t *sc;
uint32_t val;
int err;
sc = device_get_softc(dev);
if (!e6000sw_is_phyport(sc, phy) || reg >= E6000SW_NUM_PHY_REGS) {
@ -561,27 +557,18 @@ e6000sw_writephy(device_t dev, int phy, int reg, int data)
}
E6000SW_LOCK_ASSERT(sc, SA_XLOCKED);
err = e6000sw_poll_done(sc);
if (err != 0) {
if (E6000SW_WAITREADY2(sc, SMI_PHY_CMD_REG, SMI_CMD_BUSY)) {
device_printf(dev, "Timeout while waiting for switch\n");
return (err);
return (ETIMEDOUT);
}
val = 1 << PHY_CMD_SMI_BUSY;
val |= PHY_CMD_MODE_MDIO << PHY_CMD_MODE;
val |= PHY_CMD_OPCODE_WRITE << PHY_CMD_OPCODE;
val |= (reg << PHY_CMD_REG_ADDR) & PHY_CMD_REG_ADDR_MASK;
val |= (phy << PHY_CMD_DEV_ADDR) & PHY_CMD_DEV_ADDR_MASK;
e6000sw_writereg(sc, REG_GLOBAL2, SMI_PHY_DATA_REG,
data & PHY_DATA_MASK);
e6000sw_writereg(sc, REG_GLOBAL2, SMI_PHY_CMD_REG, val);
e6000sw_writereg(sc, REG_GLOBAL2, SMI_PHY_CMD_REG,
SMI_CMD_OP_C22_WRITE | (reg & SMI_CMD_REG_ADDR_MASK) |
((phy << SMI_CMD_DEV_ADDR) & SMI_CMD_DEV_ADDR_MASK));
err = e6000sw_poll_done(sc);
if (err != 0)
device_printf(dev, "Timeout while waiting for switch\n");
return (err);
return (0);
}
static int
@ -625,6 +612,22 @@ e6000sw_getconf(device_t dev, etherswitch_conf_t *conf)
return (0);
}
static int
e6000sw_setconf(device_t dev, etherswitch_conf_t *conf)
{
struct e6000sw_softc *sc;
/* Set the VLAN mode. */
sc = device_get_softc(dev);
if (conf->cmd & ETHERSWITCH_CONF_VLAN_MODE) {
E6000SW_LOCK(sc);
e6000sw_set_vlan_mode(sc, conf->vlan_mode);
E6000SW_UNLOCK(sc);
}
return (0);
}
static void
e6000sw_lock(device_t dev)
{
@ -653,6 +656,7 @@ e6000sw_getport(device_t dev, etherswitch_port_t *p)
struct mii_data *mii;
int err;
struct ifmediareq *ifmr;
uint32_t reg;
e6000sw_softc_t *sc = device_get_softc(dev);
E6000SW_LOCK_ASSERT(sc, SA_UNLOCKED);
@ -662,10 +666,17 @@ e6000sw_getport(device_t dev, etherswitch_port_t *p)
if (!e6000sw_is_portenabled(sc, p->es_port))
return (0);
err = 0;
E6000SW_LOCK(sc);
e6000sw_get_pvid(sc, p->es_port, &p->es_pvid);
/* Port flags. */
reg = e6000sw_readreg(sc, REG_PORT(p->es_port), PORT_CONTROL2);
if (reg & PORT_CONTROL2_DISC_TAGGED)
p->es_flags |= ETHERSWITCH_PORT_DROPTAGGED;
if (reg & PORT_CONTROL2_DISC_UNTAGGED)
p->es_flags |= ETHERSWITCH_PORT_DROPUNTAGGED;
err = 0;
if (e6000sw_is_fixedport(sc, p->es_port)) {
if (e6000sw_is_cpuport(sc, p->es_port))
p->es_flags |= ETHERSWITCH_PORT_CPU;
@ -695,6 +706,7 @@ e6000sw_setport(device_t dev, etherswitch_port_t *p)
e6000sw_softc_t *sc;
int err;
struct mii_data *mii;
uint32_t reg;
sc = device_get_softc(dev);
E6000SW_LOCK_ASSERT(sc, SA_UNLOCKED);
@ -704,6 +716,18 @@ e6000sw_setport(device_t dev, etherswitch_port_t *p)
if (!e6000sw_is_portenabled(sc, p->es_port))
return (0);
/* Port flags. */
reg = e6000sw_readreg(sc, REG_PORT(p->es_port), PORT_CONTROL2);
if (p->es_flags & ETHERSWITCH_PORT_DROPTAGGED)
reg |= PORT_CONTROL2_DISC_TAGGED;
else
reg &= ~PORT_CONTROL2_DISC_TAGGED;
if (p->es_flags & ETHERSWITCH_PORT_DROPUNTAGGED)
reg |= PORT_CONTROL2_DISC_UNTAGGED;
else
reg &= ~PORT_CONTROL2_DISC_UNTAGGED;
e6000sw_writereg(sc, REG_PORT(p->es_port), PORT_CONTROL2, reg);
err = 0;
E6000SW_LOCK(sc);
if (p->es_pvid != 0)
@ -718,6 +742,128 @@ e6000sw_setport(device_t dev, etherswitch_port_t *p)
return (err);
}
static __inline void
e6000sw_port_vlan_assign(e6000sw_softc_t *sc, int port, uint32_t fid,
uint32_t members)
{
uint32_t reg;
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_VLAN_MAP);
reg &= ~(PORT_MASK(sc) | PORT_VLAN_MAP_FID_MASK);
reg |= members & PORT_MASK(sc) & ~(1 << port);
reg |= (fid << PORT_VLAN_MAP_FID) & PORT_VLAN_MAP_FID_MASK;
e6000sw_writereg(sc, REG_PORT(port), PORT_VLAN_MAP, reg);
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL1);
reg &= ~PORT_CONTROL1_FID_MASK;
reg |= (fid >> 4) & PORT_CONTROL1_FID_MASK;
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL1, reg);
}
static int
e6000sw_init_vlan(struct e6000sw_softc *sc)
{
int i, port, ret;
uint32_t members;
/* Disable all ports */
for (port = 0; port < sc->num_ports; port++) {
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL);
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL,
(ret & ~PORT_CONTROL_ENABLE));
}
/* Flush VTU. */
e6000sw_vtu_flush(sc);
for (port = 0; port < sc->num_ports; port++) {
/* Reset the egress and frame mode. */
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL);
ret &= ~(PORT_CONTROL_EGRESS | PORT_CONTROL_FRAME);
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL, ret);
/* Set the the 802.1q mode. */
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL2);
ret &= ~PORT_CONTROL2_DOT1Q;
if (sc->vlan_mode == ETHERSWITCH_VLAN_DOT1Q)
ret |= PORT_CONTROL2_DOT1Q;
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL2, ret);
}
for (port = 0; port < sc->num_ports; port++) {
if (!e6000sw_is_portenabled(sc, port))
continue;
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_VID);
/* Set port priority */
ret &= ~PORT_VID_PRIORITY_MASK;
/* Set VID map */
ret &= ~PORT_VID_DEF_VID_MASK;
if (sc->vlan_mode == ETHERSWITCH_VLAN_DOT1Q)
ret |= 1;
else
ret |= (port + 1);
e6000sw_writereg(sc, REG_PORT(port), PORT_VID, ret);
}
/* Assign the member ports to each origin port. */
for (port = 0; port < sc->num_ports; port++) {
members = 0;
if (e6000sw_is_portenabled(sc, port)) {
for (i = 0; i < sc->num_ports; i++) {
if (i == port || !e6000sw_is_portenabled(sc, i))
continue;
members |= (1 << i);
}
}
/* Default to FID 0. */
e6000sw_port_vlan_assign(sc, port, 0, members);
}
/* Reset internal VLAN table. */
for (i = 0; i < nitems(sc->vlans); i++)
sc->vlans[i] = 0;
/* Create default VLAN (1). */
if (sc->vlan_mode == ETHERSWITCH_VLAN_DOT1Q) {
sc->vlans[0] = 1;
e6000sw_vtu_update(sc, 0, sc->vlans[0], 1, 0, sc->ports_mask);
}
/* Enable all ports */
for (port = 0; port < sc->num_ports; port++) {
if (!e6000sw_is_portenabled(sc, port))
continue;
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL);
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL,
(ret | PORT_CONTROL_ENABLE));
}
return (0);
}
static int
e6000sw_set_vlan_mode(struct e6000sw_softc *sc, uint32_t mode)
{
E6000SW_LOCK_ASSERT(sc, SA_XLOCKED);
switch (mode) {
case ETHERSWITCH_VLAN_PORT:
sc->vlan_mode = ETHERSWITCH_VLAN_PORT;
etherswitch_info.es_nvlangroups = sc->num_ports;
return (e6000sw_init_vlan(sc));
break;
case ETHERSWITCH_VLAN_DOT1Q:
sc->vlan_mode = ETHERSWITCH_VLAN_DOT1Q;
etherswitch_info.es_nvlangroups = E6000SW_NUM_VLANS;
return (e6000sw_init_vlan(sc));
break;
default:
return (EINVAL);
}
}
/*
* Registers in this switch are divided into sections, specified in
* documentation. So as to access any of them, section index and reg index
@ -825,24 +971,6 @@ e6000sw_getvgroup_wrapper(device_t dev, etherswitch_vlangroup_t *vg)
return (ret);
}
static __inline void
e6000sw_port_vlan_assign(e6000sw_softc_t *sc, int port, uint32_t fid,
uint32_t members)
{
uint32_t reg;
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_VLAN_MAP);
reg &= ~PORT_VLAN_MAP_TABLE_MASK;
reg &= ~PORT_VLAN_MAP_FID_MASK;
reg |= members & PORT_VLAN_MAP_TABLE_MASK & ~(1 << port);
reg |= (fid << PORT_VLAN_MAP_FID) & PORT_VLAN_MAP_FID_MASK;
e6000sw_writereg(sc, REG_PORT(port), PORT_VLAN_MAP, reg);
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL_1);
reg &= ~PORT_CONTROL_1_FID_MASK;
reg |= (fid >> 4) & PORT_CONTROL_1_FID_MASK;
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL_1, reg);
}
static int
e6000sw_set_port_vlan(e6000sw_softc_t *sc, etherswitch_vlangroup_t *vg)
{
@ -857,12 +985,40 @@ e6000sw_set_port_vlan(e6000sw_softc_t *sc, etherswitch_vlangroup_t *vg)
return (EINVAL);
}
e6000sw_port_vlan_assign(sc, port, port + 1, vg->es_untagged_ports);
e6000sw_port_vlan_assign(sc, port, 0, vg->es_untagged_ports);
vg->es_vid = port | ETHERSWITCH_VID_VALID;
return (0);
}
static int
e6000sw_set_dot1q_vlan(e6000sw_softc_t *sc, etherswitch_vlangroup_t *vg)
{
int i, vlan;
vlan = vg->es_vid & ETHERSWITCH_VID_MASK;
/* Set VLAN to '0' removes it from table. */
if (vlan == 0) {
e6000sw_vtu_update(sc, VTU_PURGE,
sc->vlans[vg->es_vlangroup], 0, 0, 0);
sc->vlans[vg->es_vlangroup] = 0;
return (0);
}
/* Is this VLAN already in table ? */
for (i = 0; i < etherswitch_info.es_nvlangroups; i++)
if (i != vg->es_vlangroup && vlan == sc->vlans[i])
return (EINVAL);
sc->vlans[vg->es_vlangroup] = vlan;
e6000sw_vtu_update(sc, 0, vlan, vg->es_vlangroup + 1,
vg->es_member_ports & sc->ports_mask,
vg->es_untagged_ports & sc->ports_mask);
return (0);
}
static int
e6000sw_setvgroup(device_t dev, etherswitch_vlangroup_t *vg)
{
@ -873,6 +1029,8 @@ e6000sw_setvgroup(device_t dev, etherswitch_vlangroup_t *vg)
if (sc->vlan_mode == ETHERSWITCH_VLAN_PORT)
return (e6000sw_set_port_vlan(sc, vg));
else if (sc->vlan_mode == ETHERSWITCH_VLAN_DOT1Q)
return (e6000sw_set_dot1q_vlan(sc, vg));
return (EINVAL);
}
@ -892,12 +1050,61 @@ e6000sw_get_port_vlan(e6000sw_softc_t *sc, etherswitch_vlangroup_t *vg)
}
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_VLAN_MAP);
vg->es_untagged_ports = vg->es_member_ports =
reg & PORT_VLAN_MAP_TABLE_MASK;
vg->es_untagged_ports = vg->es_member_ports = reg & PORT_MASK(sc);
vg->es_vid = port | ETHERSWITCH_VID_VALID;
vg->es_fid = (reg & PORT_VLAN_MAP_FID_MASK) >> PORT_VLAN_MAP_FID;
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL_1);
vg->es_fid |= (reg & PORT_CONTROL_1_FID_MASK) << 4;
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL1);
vg->es_fid |= (reg & PORT_CONTROL1_FID_MASK) << 4;
return (0);
}
static int
e6000sw_get_dot1q_vlan(e6000sw_softc_t *sc, etherswitch_vlangroup_t *vg)
{
int i, port;
uint32_t reg;
vg->es_fid = 0;
vg->es_vid = sc->vlans[vg->es_vlangroup];
vg->es_untagged_ports = vg->es_member_ports = 0;
if (vg->es_vid == 0)
return (0);
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "VTU unit is busy, cannot access\n");
return (EBUSY);
}
e6000sw_writereg(sc, REG_GLOBAL, VTU_VID, vg->es_vid - 1);
reg = e6000sw_readreg(sc, REG_GLOBAL, VTU_OPERATION);
reg &= ~VTU_OP_MASK;
reg |= VTU_GET_NEXT | VTU_BUSY;
e6000sw_writereg(sc, REG_GLOBAL, VTU_OPERATION, reg);
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "Timeout while reading\n");
return (EBUSY);
}
reg = e6000sw_readreg(sc, REG_GLOBAL, VTU_VID);
if (reg == VTU_VID_MASK || (reg & VTU_VID_VALID) == 0)
return (EINVAL);
if ((reg & VTU_VID_MASK) != vg->es_vid)
return (EINVAL);
vg->es_vid |= ETHERSWITCH_VID_VALID;
reg = e6000sw_readreg(sc, REG_GLOBAL, VTU_DATA);
for (i = 0; i < sc->num_ports; i++) {
if (i == VTU_PPREG(sc))
reg = e6000sw_readreg(sc, REG_GLOBAL, VTU_DATA2);
port = (reg >> VTU_PORT(sc, i)) & VTU_PORT_MASK;
if (port == VTU_PORT_UNTAGGED) {
vg->es_untagged_ports |= (1 << i);
vg->es_member_ports |= (1 << i);
} else if (port == VTU_PORT_TAGGED)
vg->es_member_ports |= (1 << i);
}
return (0);
}
@ -912,6 +1119,8 @@ e6000sw_getvgroup(device_t dev, etherswitch_vlangroup_t *vg)
if (sc->vlan_mode == ETHERSWITCH_VLAN_PORT)
return (e6000sw_get_port_vlan(sc, vg));
else if (sc->vlan_mode == ETHERSWITCH_VLAN_DOT1Q)
return (e6000sw_get_dot1q_vlan(sc, vg));
return (EINVAL);
}
@ -978,7 +1187,7 @@ e6000sw_readreg(e6000sw_softc_t *sc, int addr, int reg)
E6000SW_LOCK_ASSERT(sc, SA_XLOCKED);
if (!sc->multi_chip)
if (!MVSWITCH_MULTICHIP(sc))
return (MDIO_READ(sc->dev, addr, reg) & 0xffff);
if (e6000sw_smi_waitready(sc, sc->sw_addr)) {
@ -986,7 +1195,8 @@ e6000sw_readreg(e6000sw_softc_t *sc, int addr, int reg)
return (0xffff);
}
MDIO_WRITE(sc->dev, sc->sw_addr, SMI_CMD,
SMI_CMD_OP_READ | (addr << 5) | reg);
SMI_CMD_OP_C22_READ | (reg & SMI_CMD_REG_ADDR_MASK) |
((addr << SMI_CMD_DEV_ADDR) & SMI_CMD_DEV_ADDR_MASK));
if (e6000sw_smi_waitready(sc, sc->sw_addr)) {
printf("e6000sw: readreg timeout\n");
return (0xffff);
@ -1001,7 +1211,7 @@ e6000sw_writereg(e6000sw_softc_t *sc, int addr, int reg, int val)
E6000SW_LOCK_ASSERT(sc, SA_XLOCKED);
if (!sc->multi_chip) {
if (!MVSWITCH_MULTICHIP(sc)) {
MDIO_WRITE(sc->dev, addr, reg, val);
return;
}
@ -1012,11 +1222,8 @@ e6000sw_writereg(e6000sw_softc_t *sc, int addr, int reg, int val)
}
MDIO_WRITE(sc->dev, sc->sw_addr, SMI_DATA, val);
MDIO_WRITE(sc->dev, sc->sw_addr, SMI_CMD,
SMI_CMD_OP_WRITE | (addr << 5) | reg);
if (e6000sw_smi_waitready(sc, sc->sw_addr)) {
printf("e6000sw: readreg timeout\n");
return;
}
SMI_CMD_OP_C22_WRITE | (reg & SMI_CMD_REG_ADDR_MASK) |
((addr << SMI_CMD_DEV_ADDR) & SMI_CMD_DEV_ADDR_MASK));
}
static __inline bool
@ -1056,14 +1263,15 @@ e6000sw_is_portenabled(e6000sw_softc_t *sc, int port)
return ((sc->ports_mask & (1 << port)) ? true : false);
}
static __inline int
static __inline void
e6000sw_set_pvid(e6000sw_softc_t *sc, int port, int pvid)
{
uint32_t reg;
e6000sw_writereg(sc, REG_PORT(port), PORT_VID, pvid &
PORT_VID_DEF_VID_MASK);
return (0);
reg = e6000sw_readreg(sc, REG_PORT(port), PORT_VID);
reg &= ~PORT_VID_DEF_VID_MASK;
reg |= (pvid & PORT_VID_DEF_VID_MASK);
e6000sw_writereg(sc, REG_PORT(port), PORT_VID, reg);
}
static __inline int
@ -1114,7 +1322,7 @@ e6000sw_update_ifmedia(uint16_t portstatus, u_int *media_status, u_int *media_ac
}
static void
e6000sw_tick (void *arg)
e6000sw_tick(void *arg)
{
e6000sw_softc_t *sc;
struct mii_data *mii;
@ -1159,12 +1367,13 @@ e6000sw_tick (void *arg)
static void
e6000sw_setup(device_t dev, e6000sw_softc_t *sc)
{
uint16_t atu_ctrl, atu_age;
uint32_t atu_ctrl;
/* Set aging time */
e6000sw_writereg(sc, REG_GLOBAL, ATU_CONTROL,
(E6000SW_DEFAULT_AGETIME << ATU_CONTROL_AGETIME) |
(1 << ATU_CONTROL_LEARN2ALL));
/* Set aging time. */
atu_ctrl = e6000sw_readreg(sc, REG_GLOBAL, ATU_CONTROL);
atu_ctrl &= ~ATU_CONTROL_AGETIME_MASK;
atu_ctrl |= E6000SW_DEFAULT_AGETIME << ATU_CONTROL_AGETIME;
e6000sw_writereg(sc, REG_GLOBAL, ATU_CONTROL, atu_ctrl);
/* Send all with specific mac address to cpu port */
e6000sw_writereg(sc, REG_GLOBAL2, MGMT_EN_2x, MGMT_EN_ALL);
@ -1183,73 +1392,6 @@ e6000sw_setup(device_t dev, e6000sw_softc_t *sc)
e6000sw_atu_flush(dev, sc, NO_OPERATION);
e6000sw_atu_mac_table(dev, sc, NULL, NO_OPERATION);
e6000sw_set_atustat(dev, sc, 0, COUNT_ALL);
/* Set ATU AgeTime to 15 seconds */
atu_age = 1;
atu_ctrl = e6000sw_readreg(sc, REG_GLOBAL, ATU_CONTROL);
/* Set new AgeTime field */
atu_ctrl &= ~ATU_CONTROL_AGETIME_MASK;
e6000sw_writereg(sc, REG_GLOBAL, ATU_CONTROL, atu_ctrl |
(atu_age << ATU_CONTROL_AGETIME));
}
static void
e6000sw_port_vlan_conf(e6000sw_softc_t *sc)
{
int i, port, ret;
uint32_t members;
/* Disable all ports */
for (port = 0; port < sc->num_ports; port++) {
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL);
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL,
(ret & ~PORT_CONTROL_ENABLE));
}
/* Set port priority */
for (port = 0; port < sc->num_ports; port++) {
if (!e6000sw_is_portenabled(sc, port))
continue;
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_VID);
ret &= ~PORT_VID_PRIORITY_MASK;
e6000sw_writereg(sc, REG_PORT(port), PORT_VID, ret);
}
/* Set VID map */
for (port = 0; port < sc->num_ports; port++) {
if (!e6000sw_is_portenabled(sc, port))
continue;
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_VID);
ret &= ~PORT_VID_DEF_VID_MASK;
ret |= (port + 1);
e6000sw_writereg(sc, REG_PORT(port), PORT_VID, ret);
}
/* Enable all ports */
for (port = 0; port < sc->num_ports; port++) {
if (!e6000sw_is_portenabled(sc, port))
continue;
ret = e6000sw_readreg(sc, REG_PORT(port), PORT_CONTROL);
e6000sw_writereg(sc, REG_PORT(port), PORT_CONTROL,
(ret | PORT_CONTROL_ENABLE));
}
/* Set VLAN mode. */
sc->vlan_mode = ETHERSWITCH_VLAN_PORT;
etherswitch_info.es_nvlangroups = sc->num_ports;
for (port = 0; port < sc->num_ports; port++) {
members = 0;
if (e6000sw_is_portenabled(sc, port)) {
for (i = 0; i < sc->num_ports; i++) {
if (i == port || !e6000sw_is_portenabled(sc, i))
continue;
members |= (1 << i);
}
}
e6000sw_port_vlan_assign(sc, port, port + 1, members);
}
}
static void
@ -1268,7 +1410,6 @@ e6000sw_atu_mac_table(device_t dev, e6000sw_softc_t *sc, struct atu_opt *atu,
{
uint16_t ret_opt;
uint16_t ret_data;
int retries;
if (flag == NO_OPERATION)
return (0);
@ -1278,41 +1419,34 @@ e6000sw_atu_mac_table(device_t dev, e6000sw_softc_t *sc, struct atu_opt *atu,
return (EINVAL);
}
ret_opt = e6000sw_readreg(sc, REG_GLOBAL, ATU_OPERATION);
if (ret_opt & ATU_UNIT_BUSY) {
device_printf(dev, "ATU unit is busy, cannot access"
"register\n");
if (E6000SW_WAITREADY(sc, ATU_OPERATION, ATU_UNIT_BUSY)) {
device_printf(dev, "ATU unit is busy, cannot access\n");
return (EBUSY);
} else {
if(flag & LOAD_FROM_FIB) {
ret_data = e6000sw_readreg(sc, REG_GLOBAL, ATU_DATA);
e6000sw_writereg(sc, REG_GLOBAL2, ATU_DATA, (ret_data &
~ENTRY_STATE));
}
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR01, atu->mac_01);
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR23, atu->mac_23);
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR45, atu->mac_45);
e6000sw_writereg(sc, REG_GLOBAL, ATU_FID, atu->fid);
}
e6000sw_writereg(sc, REG_GLOBAL, ATU_OPERATION, (ret_opt |
ATU_UNIT_BUSY | flag));
ret_opt = e6000sw_readreg(sc, REG_GLOBAL, ATU_OPERATION);
if (flag & LOAD_FROM_FIB) {
ret_data = e6000sw_readreg(sc, REG_GLOBAL, ATU_DATA);
e6000sw_writereg(sc, REG_GLOBAL2, ATU_DATA, (ret_data &
~ENTRY_STATE));
}
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR01, atu->mac_01);
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR23, atu->mac_23);
e6000sw_writereg(sc, REG_GLOBAL, ATU_MAC_ADDR45, atu->mac_45);
e6000sw_writereg(sc, REG_GLOBAL, ATU_FID, atu->fid);
retries = E6000SW_RETRIES;
while (--retries & (e6000sw_readreg(sc, REG_GLOBAL,
ATU_OPERATION) & ATU_UNIT_BUSY))
DELAY(1);
e6000sw_writereg(sc, REG_GLOBAL, ATU_OPERATION,
(ret_opt | ATU_UNIT_BUSY | flag));
if (retries == 0)
device_printf(dev, "Timeout while flushing\n");
else if (flag & GET_NEXT_IN_FIB) {
atu->mac_01 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR01);
atu->mac_23 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR23);
atu->mac_45 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR45);
}
if (E6000SW_WAITREADY(sc, ATU_OPERATION, ATU_UNIT_BUSY))
device_printf(dev, "Timeout while waiting ATU\n");
else if (flag & GET_NEXT_IN_FIB) {
atu->mac_01 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR01);
atu->mac_23 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR23);
atu->mac_45 = e6000sw_readreg(sc, REG_GLOBAL,
ATU_MAC_ADDR45);
}
return (0);
@ -1321,26 +1455,85 @@ e6000sw_atu_mac_table(device_t dev, e6000sw_softc_t *sc, struct atu_opt *atu,
static int
e6000sw_atu_flush(device_t dev, e6000sw_softc_t *sc, int flag)
{
uint16_t ret;
int retries;
uint32_t reg;
if (flag == NO_OPERATION)
return (0);
ret = e6000sw_readreg(sc, REG_GLOBAL, ATU_OPERATION);
if (ret & ATU_UNIT_BUSY) {
device_printf(dev, "Atu unit is busy, cannot flush\n");
if (E6000SW_WAITREADY(sc, ATU_OPERATION, ATU_UNIT_BUSY)) {
device_printf(dev, "ATU unit is busy, cannot access\n");
return (EBUSY);
} else {
e6000sw_writereg(sc, REG_GLOBAL, ATU_OPERATION, (ret |
ATU_UNIT_BUSY | flag));
retries = E6000SW_RETRIES;
while (--retries & (e6000sw_readreg(sc, REG_GLOBAL,
ATU_OPERATION) & ATU_UNIT_BUSY))
DELAY(1);
}
reg = e6000sw_readreg(sc, REG_GLOBAL, ATU_OPERATION);
e6000sw_writereg(sc, REG_GLOBAL, ATU_OPERATION,
(reg | ATU_UNIT_BUSY | flag));
if (E6000SW_WAITREADY(sc, ATU_OPERATION, ATU_UNIT_BUSY))
device_printf(dev, "Timeout while flushing ATU\n");
if (retries == 0)
device_printf(dev, "Timeout while flushing\n");
return (0);
}
static int
e6000sw_vtu_flush(e6000sw_softc_t *sc)
{
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "VTU unit is busy, cannot access\n");
return (EBUSY);
}
e6000sw_writereg(sc, REG_GLOBAL, VTU_OPERATION, VTU_FLUSH | VTU_BUSY);
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "Timeout while flushing VTU\n");
return (ETIMEDOUT);
}
return (0);
}
static int
e6000sw_vtu_update(e6000sw_softc_t *sc, int purge, int vid, int fid,
int members, int untagged)
{
int i, op;
uint32_t data[2];
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "VTU unit is busy, cannot access\n");
return (EBUSY);
}
*data = (vid & VTU_VID_MASK);
if (purge == 0)
*data |= VTU_VID_VALID;
e6000sw_writereg(sc, REG_GLOBAL, VTU_VID, *data);
if (purge == 0) {
data[0] = 0;
data[1] = 0;
for (i = 0; i < sc->num_ports; i++) {
if ((untagged & (1 << i)) != 0)
data[i / VTU_PPREG(sc)] |=
VTU_PORT_UNTAGGED << VTU_PORT(sc, i);
else if ((members & (1 << i)) != 0)
data[i / VTU_PPREG(sc)] |=
VTU_PORT_TAGGED << VTU_PORT(sc, i);
else
data[i / VTU_PPREG(sc)] |=
VTU_PORT_DISCARD << VTU_PORT(sc, i);
}
e6000sw_writereg(sc, REG_GLOBAL, VTU_DATA, data[0]);
e6000sw_writereg(sc, REG_GLOBAL, VTU_DATA2, data[1]);
e6000sw_writereg(sc, REG_GLOBAL, VTU_FID,
fid & VTU_FID_MASK(sc));
op = VTU_LOAD;
} else
op = VTU_PURGE;
e6000sw_writereg(sc, REG_GLOBAL, VTU_OPERATION, op | VTU_BUSY);
if (E6000SW_WAITREADY(sc, VTU_OPERATION, VTU_BUSY)) {
device_printf(sc->dev, "Timeout while flushing VTU\n");
return (ETIMEDOUT);
}
return (0);

View File

@ -29,7 +29,7 @@
*/
#ifndef _E6000SWREG_H_
#define _E6000SWREG_H_
#define _E6000SWREG_H_
struct atu_opt {
uint16_t mac_01;
@ -50,20 +50,21 @@ struct atu_opt {
#define MV88E6176 0x1760
#define MVSWITCH(_sc, id) ((_sc)->swid == (id))
#define MVSWITCH_MULTICHIP(_sc) ((_sc)->sw_addr != 0)
/*
* Switch Registers
*/
#define REG_GLOBAL 0x1b
#define REG_GLOBAL2 0x1c
#define REG_PORT(p) (0x10 + (p))
#define REG_GLOBAL 0x1b
#define REG_GLOBAL2 0x1c
#define REG_PORT(p) (0x10 + (p))
#define REG_NUM_MAX 31
#define REG_NUM_MAX 31
/*
* Per-Port Switch Registers
*/
#define PORT_STATUS 0x0
#define PORT_STATUS 0x0
#define PORT_STATUS_SPEED_MASK 0x300
#define PORT_STATUS_SPEED_10 0
#define PORT_STATUS_SPEED_100 1
@ -72,7 +73,7 @@ struct atu_opt {
#define PORT_STATUS_LINK_MASK (1 << 11)
#define PORT_STATUS_PHY_DETECT_MASK (1 << 12)
#define PSC_CONTROL 0x1
#define PSC_CONTROL 0x1
#define PSC_CONTROL_FORCED_SPD (1 << 13)
#define PSC_CONTROL_ALT_SPD (1 << 12)
#define PSC_CONTROL_EEE_ON (1 << 9)
@ -83,130 +84,221 @@ struct atu_opt {
#define PSC_CONTROL_FORCED_LINK (1 << 4)
#define PSC_CONTROL_FULLDPX (1 << 3)
#define PSC_CONTROL_FORCED_DPX (1 << 2)
#define PSC_CONTROL_SPD2500 0x3
#define PSC_CONTROL_SPD10G 0x3
#define PSC_CONTROL_SPD2500 PSC_CONTROL_SPD10G
#define PSC_CONTROL_SPD1000 0x2
#define SWITCH_ID 0x3
#define PORT_CONTROL 0x4
#define PORT_CONTROL_1 0x5
#define PORT_CONTROL_1_FID_MASK 0xf
#define PORT_VLAN_MAP 0x6
#define PORT_VID 0x7
#define PORT_ASSOCIATION_VECTOR 0xb
#define PORT_ATU_CTRL 0xc
#define RX_COUNTER 0x12
#define TX_COUNTER 0x13
#define SWITCH_ID 0x3
#define PORT_CONTROL 0x4
#define PORT_CONTROL1 0x5
#define PORT_CONTROL1_LAG_PORT (1 << 14)
#define PORT_CONTROL1_LAG_ID_MASK 0xf
#define PORT_CONTROL1_LAG_ID_SHIFT 8
#define PORT_CONTROL1_FID_MASK 0xf
#define PORT_VLAN_MAP 0x6
#define PORT_VID 0x7
#define PORT_CONTROL2 0x8
#define PORT_ASSOCIATION_VECTOR 0xb
#define PORT_ATU_CTRL 0xc
#define RX_COUNTER 0x12
#define TX_COUNTER 0x13
#define PORT_VID_DEF_VID 0
#define PORT_VID_DEF_VID_MASK 0xfff
#define PORT_VID_PRIORITY_MASK 0xc00
#define PORT_MASK(_sc) 0x7f
#define PORT_VID_DEF_VID 0
#define PORT_VID_DEF_VID_MASK 0xfff
#define PORT_VID_PRIORITY_MASK 0xc00
#define PORT_CONTROL_ENABLE 0x3
#define PORT_CONTROL_DISABLED 0
#define PORT_CONTROL_BLOCKING 1
#define PORT_CONTROL_LEARNING 2
#define PORT_CONTROL_FORWARDING 3
#define PORT_CONTROL_ENABLE 3
#define PORT_CONTROL_FRAME 0x0300
#define PORT_CONTROL_EGRESS 0x3000
#define PORT_CONTROL2_DOT1Q 0x0c00
#define PORT_CONTROL2_DISC_TAGGED (1 << 9)
#define PORT_CONTROL2_DISC_UNTAGGED (1 << 8)
/* PORT_VLAN fields */
#define PORT_VLAN_MAP_TABLE_MASK 0x7f
#define PORT_VLAN_MAP_FID 12
#define PORT_VLAN_MAP_FID_MASK 0xf000
#define PORT_VLAN_MAP_FID 12
#define PORT_VLAN_MAP_FID_MASK 0xf000
/*
* Switch Global Register 1 accessed via REG_GLOBAL_ADDR
*/
#define SWITCH_GLOBAL_STATUS 0
#define SWITCH_GLOBAL_CONTROL 4
#define SWITCH_GLOBAL_CONTROL2 28
#define SWITCH_GLOBAL_STATUS 0
#define SWITCH_GLOBAL_STATUS_IR (1 << 11)
#define SWITCH_GLOBAL_CONTROL 4
#define SWITCH_GLOBAL_CONTROL2 28
#define MONITOR_CONTROL 26
#define MONITOR_CONTROL 26
/* VTU operation */
#define VTU_FID 2
#define VTU_OPERATION 5
#define VTU_VID 6
#define VTU_DATA 7
#define VTU_DATA2 8
#define VTU_FID_MASK(_sc) 0xff
#define VTU_FID_POLICY (1 << 12)
#define VTU_PORT_UNMODIFIED 0
#define VTU_PORT_UNTAGGED 1
#define VTU_PORT_TAGGED 2
#define VTU_PORT_DISCARD 3
#define VTU_PPREG(_sc) 4
#define VTU_PORT(_sc, p) (((p) % VTU_PPREG(_sc)) * (16 / VTU_PPREG(_sc)))
#define VTU_PORT_MASK 3
#define VTU_BUSY (1 << 15)
#define VTU_VID_VALID (1 << 12)
#define VTU_VID_MASK 0xfff
/* VTU opcodes */
#define VTU_OP_MASK (7 << 12)
#define VTU_NOP (0 << 12)
#define VTU_FLUSH (1 << 12)
#define VTU_LOAD (3 << 12)
#define VTU_PURGE (3 << 12)
#define VTU_GET_NEXT (4 << 12)
#define STU_LOAD (5 << 12)
#define STU_PURGE (5 << 12)
#define STU_GET_NEXT (6 << 12)
#define VTU_GET_VIOLATION_DATA (7 << 12)
#define VTU_CLEAR_VIOLATION_DATA (7 << 12)
/* ATU operation */
#define ATU_FID 1
#define ATU_CONTROL 10
#define ATU_OPERATION 11
#define ATU_DATA 12
#define ATU_MAC_ADDR01 13
#define ATU_MAC_ADDR23 14
#define ATU_MAC_ADDR45 15
#define ATU_FID 1
#define ATU_CONTROL 10
#define ATU_OPERATION 11
#define ATU_DATA 12
#define ATU_MAC_ADDR01 13
#define ATU_MAC_ADDR23 14
#define ATU_MAC_ADDR45 15
#define ATU_UNIT_BUSY (1 << 15)
#define ENTRY_STATE 0xf
#define ATU_DATA_LAG (1 << 15)
#define ATU_PORT_MASK(_sc) 0xff0
#define ATU_PORT_SHIFT 4
#define ATU_LAG_MASK 0xf0
#define ATU_LAG_SHIFT 4
#define ATU_STATE_MASK 0xf
#define ATU_UNIT_BUSY (1 << 15)
#define ENTRY_STATE 0xf
/* ATU_CONTROL fields */
#define ATU_CONTROL_AGETIME 4
#define ATU_CONTROL_AGETIME_MASK 0xff0
#define ATU_CONTROL_LEARN2ALL 3
#define ATU_CONTROL_AGETIME 4
#define ATU_CONTROL_AGETIME_MASK 0xff0
#define ATU_CONTROL_LEARN2ALL 3
/* ATU opcode */
#define NO_OPERATION (0 << 0)
#define FLUSH_ALL (1 << 0)
#define FLUSH_NON_STATIC (1 << 1)
#define LOAD_FROM_FIB (3 << 0)
#define PURGE_FROM_FIB (3 << 0)
#define GET_NEXT_IN_FIB (1 << 2)
#define FLUSH_ALL_IN_FIB (5 << 0)
#define FLUSH_NON_STATIC_IN_FIB (3 << 1)
#define GET_VIOLATION_DATA (7 << 0)
#define CLEAR_VIOLATION_DATA (7 << 0)
#define ATU_OP_MASK (7 << 12)
#define NO_OPERATION (0 << 12)
#define FLUSH_ALL (1 << 12)
#define FLUSH_NON_STATIC (2 << 12)
#define LOAD_FROM_FIB (3 << 12)
#define PURGE_FROM_FIB (3 << 12)
#define GET_NEXT_IN_FIB (4 << 12)
#define FLUSH_ALL_IN_FIB (5 << 12)
#define FLUSH_NON_STATIC_IN_FIB (6 << 12)
#define GET_VIOLATION_DATA (7 << 12)
#define CLEAR_VIOLATION_DATA (7 << 12)
/* ATU Stats */
#define COUNT_ALL (0 << 0)
#define COUNT_ALL (0 << 0)
/*
* Switch Global Register 2 accessed via REG_GLOBAL2_ADDR
*/
#define MGMT_EN_2x 2
#define MGMT_EN_0x 3
#define SWITCH_MGMT 5
#define ATU_STATS 14
#define MGMT_EN_2x 2
#define MGMT_EN_0x 3
#define SWITCH_MGMT 5
#define LAG_MASK 7
#define LAG_MAPPING 8
#define ATU_STATS 14
#define MGMT_EN_ALL 0xffff
#define MGMT_EN_ALL 0xffff
#define LAG_UPDATE (1 << 15)
#define LAG_MASKNUM_SHIFT 12
#define LAGID_SHIFT 11
/* SWITCH_MGMT fields */
#define SWITCH_MGMT_PRI 0
#define SWITCH_MGMT_PRI_MASK 7
#define SWITCH_MGMT_PRI 0
#define SWITCH_MGMT_PRI_MASK 7
#define SWITCH_MGMT_RSVD2CPU 3
#define SWITCH_MGMT_FC_PRI 4
#define SWITCH_MGMT_FC_PRI_MASK (7 << 4)
#define SWITCH_MGMT_FORCEFLOW 7
#define SWITCH_MGMT_FC_PRI 4
#define SWITCH_MGMT_FC_PRI_MASK (7 << 4)
#define SWITCH_MGMT_FORCEFLOW 7
/* ATU_STATS fields */
#define ATU_STATS_BIN 14
#define ATU_STATS_FLAG 12
#define ATU_STATS_BIN 14
#define ATU_STATS_FLAG 12
/* Offset of SMI registers in multi-chip setup. */
#define SMI_CMD 0
#define SMI_DATA 1
/*
* PHY registers accessed via 'Switch Global Registers' (REG_GLOBAL2).
* 'Switch Global Registers 2' (REG_GLOBAL2).
*/
#define SMI_PHY_CMD_REG 0x18
#define SMI_PHY_DATA_REG 0x19
#define PHY_DATA_MASK 0xffff
/* EEPROM registers */
#define EEPROM_CMD 0x14
#define EEPROM_BUSY (1 << 15)
#define EEPROM_READ_CMD (4 << 12)
#define EEPROM_WRITE_CMD (3 << 12)
#define EEPROM_WRITE_EN (1 << 10)
#define EEPROM_DATA_MASK 0xff
#define EEPROM_ADDR 0x15
#define PHY_CMD_SMI_BUSY 15
#define PHY_CMD_MODE 12
#define PHY_CMD_MODE_MDIO 1
#define PHY_CMD_MODE_XMDIO 0
#define PHY_CMD_OPCODE 10
#define PHY_CMD_OPCODE_WRITE 1
#define PHY_CMD_OPCODE_READ 2
#define PHY_CMD_DEV_ADDR 5
#define PHY_CMD_DEV_ADDR_MASK 0x3e0
#define PHY_CMD_REG_ADDR 0
#define PHY_CMD_REG_ADDR_MASK 0x1f
/* PHY registers */
#define SMI_PHY_CMD_REG 0x18
#define SMI_CMD_BUSY (1 << 15)
#define SMI_CMD_MODE_C22 (1 << 12)
#define SMI_CMD_C22_WRITE (1 << 10)
#define SMI_CMD_C22_READ (2 << 10)
#define SMI_CMD_OP_C22_WRITE \
(SMI_CMD_C22_WRITE | SMI_CMD_BUSY | SMI_CMD_MODE_C22)
#define SMI_CMD_OP_C22_READ \
(SMI_CMD_C22_READ | SMI_CMD_BUSY | SMI_CMD_MODE_C22)
#define SMI_CMD_C45 (0 << 12)
#define SMI_CMD_C45_ADDR (0 << 10)
#define SMI_CMD_C45_WRITE (1 << 10)
#define SMI_CMD_C45_READ (3 << 10)
#define SMI_CMD_OP_C45_ADDR \
(SMI_CMD_C45_ADDR | SMI_CMD_BUSY | SMI_CMD_C45)
#define SMI_CMD_OP_C45_WRITE \
(SMI_CMD_C45_WRITE | SMI_CMD_BUSY | SMI_CMD_C45)
#define SMI_CMD_OP_C45_READ \
(SMI_CMD_C45_READ | SMI_CMD_BUSY | SMI_CMD_C45)
#define SMI_CMD_DEV_ADDR 5
#define SMI_CMD_DEV_ADDR_MASK 0x3e0
#define SMI_CMD_REG_ADDR_MASK 0x1f
#define SMI_PHY_DATA_REG 0x19
#define PHY_DATA_MASK 0xffff
#define PHY_PAGE_REG 22
#define PHY_PAGE_REG 22
/*
* Scratch and Misc register accessed via
* 'Switch Global Registers' (REG_GLOBAL2)
*/
#define SCR_AND_MISC_REG 0x1a
#define SCR_AND_MISC_REG 0x1a
#define SCR_AND_MISC_PTR_CFG 0x7000
#define SCR_AND_MISC_DATA_CFG_MASK 0xf0
#define SCR_AND_MISC_PTR_CFG 0x7000
#define SCR_AND_MISC_DATA_CFG_MASK 0xf0
#define E6000SW_NUM_PHY_REGS 29
#define E6000SW_MAX_PORTS 8
#define E6000SW_DEFAULT_AGETIME 20
#define E6000SW_RETRIES 100
#define E6000SW_SMI_TIMEOUT 16
/* SERDES registers. */
#define E6000SW_SERDES_DEV 4
#define E6000SW_SERDES_PCS_CTL1 0x1000
#define E6000SW_SERDES_SGMII_CTL 0x2000
#define E6000SW_SERDES_PDOWN (1 << 11)
#define E6000SW_NUM_VLANS 128
#define E6000SW_NUM_LAGMASK 8
#define E6000SW_NUM_PHY_REGS 29
#define E6000SW_MAX_PORTS 11
#define E6000SW_DEFAULT_AGETIME 20
#define E6000SW_RETRIES 100
#define E6000SW_SMI_TIMEOUT 16
#endif /* _E6000SWREG_H_ */