Commit b8f8a0b7 authored by Mark Starovoytov's avatar Mark Starovoytov Committed by David S. Miller

net: atlantic: MACSec ingress offload HW bindings

This patch adds the Atlantic HW-specific bindings for MACSec ingress, e.g.
register addresses / structs, helper function, etc, which will be used by
actual callback implementations.
Signed-off-by: default avatarMark Starovoytov <mstarovoitov@marvell.com>
Signed-off-by: default avatarIgor Russkikh <irusskikh@marvell.com>
Signed-off-by: default avatarDavid S. Miller <davem@davemloft.net>
parent 27736563
/* SPDX-License-Identifier: GPL-2.0-only */
/* Atlantic Network Driver
* Copyright (C) 2020 Marvell International Ltd.
*/
#ifndef MSS_INGRESS_REGS_HEADER
#define MSS_INGRESS_REGS_HEADER
#define MSS_INGRESS_CTL_REGISTER_ADDR 0x0000800E
#define MSS_INGRESS_LUT_ADDR_CTL_REGISTER_ADDR 0x00008080
#define MSS_INGRESS_LUT_CTL_REGISTER_ADDR 0x00008081
#define MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR 0x000080A0
struct mss_ingress_ctl_register {
union {
struct {
unsigned int soft_reset : 1;
unsigned int operation_point_to_point : 1;
unsigned int create_sci : 1;
/* Unused */
unsigned int mask_short_length_error : 1;
unsigned int drop_kay_packet : 1;
unsigned int drop_igprc_miss : 1;
/* Unused */
unsigned int check_icv : 1;
unsigned int clear_global_time : 1;
unsigned int clear_count : 1;
unsigned int high_prio : 1;
unsigned int remove_sectag : 1;
unsigned int global_validate_frames : 2;
unsigned int icv_lsb_8bytes_enabled : 1;
unsigned int reserved0 : 2;
} bits_0;
unsigned short word_0;
};
union {
struct {
unsigned int reserved0 : 16;
} bits_1;
unsigned short word_1;
};
};
struct mss_ingress_lut_addr_ctl_register {
union {
struct {
unsigned int lut_addr : 9;
unsigned int reserved0 : 3;
/* 0x0 : Ingress Pre-Security MAC Control FIlter
* (IGPRCTLF) LUT
* 0x1 : Ingress Pre-Security Classification LUT (IGPRC)
* 0x2 : Ingress Packet Format (IGPFMT) SAKey LUT
* 0x3 : Ingress Packet Format (IGPFMT) SC/SA LUT
* 0x4 : Ingress Post-Security Classification LUT
* (IGPOC)
* 0x5 : Ingress Post-Security MAC Control Filter
* (IGPOCTLF) LUT
* 0x6 : Ingress MIB (IGMIB)
*/
unsigned int lut_select : 4;
} bits_0;
unsigned short word_0;
};
};
struct mss_ingress_lut_ctl_register {
union {
struct {
unsigned int reserved0 : 14;
unsigned int lut_read : 1;
unsigned int lut_write : 1;
} bits_0;
unsigned short word_0;
};
};
#endif /* MSS_INGRESS_REGS_HEADER */
......@@ -5,6 +5,7 @@
#include "macsec_api.h"
#include <linux/mdio.h>
#include "MSS_Ingress_registers.h"
#include "MSS_Egress_registers.h"
#include "aq_phy.h"
......@@ -55,6 +56,115 @@ static int aq_mss_mdio_write(struct aq_hw_s *hw, u16 mmd, u16 addr, u16 data)
* MACSEC config and status
******************************************************************************/
static int set_raw_ingress_record(struct aq_hw_s *hw, u16 *packed_record,
u8 num_words, u8 table_id,
u16 table_index)
{
struct mss_ingress_lut_addr_ctl_register lut_sel_reg;
struct mss_ingress_lut_ctl_register lut_op_reg;
unsigned int i;
/* NOTE: MSS registers must always be read/written as adjacent pairs.
* For instance, to write either or both 1E.80A0 and 80A1, we have to:
* 1. Write 1E.80A0 first
* 2. Then write 1E.80A1
*
* For HHD devices: These writes need to be performed consecutively, and
* to ensure this we use the PIF mailbox to delegate the reads/writes to
* the FW.
*
* For EUR devices: Not need to use the PIF mailbox; it is safe to
* write to the registers directly.
*/
/* Write the packed record words to the data buffer registers. */
for (i = 0; i < num_words; i += 2) {
aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR + i,
packed_record[i]);
aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR + i +
1,
packed_record[i + 1]);
}
/* Clear out the unused data buffer registers. */
for (i = num_words; i < 24; i += 2) {
aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR + i,
0);
aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR + i + 1, 0);
}
/* Select the table and row index to write to */
lut_sel_reg.bits_0.lut_select = table_id;
lut_sel_reg.bits_0.lut_addr = table_index;
lut_op_reg.bits_0.lut_read = 0;
lut_op_reg.bits_0.lut_write = 1;
aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_ADDR_CTL_REGISTER_ADDR,
lut_sel_reg.word_0);
aq_mss_mdio_write(hw, MDIO_MMD_VEND1, MSS_INGRESS_LUT_CTL_REGISTER_ADDR,
lut_op_reg.word_0);
return 0;
}
/*! Read the specified Ingress LUT table row.
* packed_record - [OUT] The table row data (raw).
*/
static int get_raw_ingress_record(struct aq_hw_s *hw, u16 *packed_record,
u8 num_words, u8 table_id,
u16 table_index)
{
struct mss_ingress_lut_addr_ctl_register lut_sel_reg;
struct mss_ingress_lut_ctl_register lut_op_reg;
int ret;
unsigned int i;
/* Select the table and row index to read */
lut_sel_reg.bits_0.lut_select = table_id;
lut_sel_reg.bits_0.lut_addr = table_index;
lut_op_reg.bits_0.lut_read = 1;
lut_op_reg.bits_0.lut_write = 0;
ret = aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_ADDR_CTL_REGISTER_ADDR,
lut_sel_reg.word_0);
if (unlikely(ret))
return ret;
ret = aq_mss_mdio_write(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_CTL_REGISTER_ADDR,
lut_op_reg.word_0);
if (unlikely(ret))
return ret;
memset(packed_record, 0, sizeof(u16) * num_words);
for (i = 0; i < num_words; i += 2) {
ret = aq_mss_mdio_read(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR +
i,
&packed_record[i]);
if (unlikely(ret))
return ret;
ret = aq_mss_mdio_read(hw, MDIO_MMD_VEND1,
MSS_INGRESS_LUT_DATA_CTL_REGISTER_ADDR +
i + 1,
&packed_record[i + 1]);
if (unlikely(ret))
return ret;
}
return 0;
}
/*! Write packed_record to the specified Egress LUT table row. */
static int set_raw_egress_record(struct aq_hw_s *hw, u16 *packed_record,
u8 num_words, u8 table_id,
......@@ -148,6 +258,893 @@ static int get_raw_egress_record(struct aq_hw_s *hw, u16 *packed_record,
return 0;
}
static int
set_ingress_prectlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_prectlf_record *rec,
u16 table_index)
{
u16 packed_record[6];
if (table_index >= NUMROWS_INGRESSPRECTLFRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 6);
packed_record[0] = rec->sa_da[0] & 0xFFFF;
packed_record[1] = (rec->sa_da[0] >> 16) & 0xFFFF;
packed_record[2] = rec->sa_da[1] & 0xFFFF;
packed_record[3] = rec->eth_type & 0xFFFF;
packed_record[4] = rec->match_mask & 0xFFFF;
packed_record[5] = rec->match_type & 0xF;
packed_record[5] |= (rec->action & 0x1) << 4;
return set_raw_ingress_record(hw, packed_record, 6, 0,
ROWOFFSET_INGRESSPRECTLFRECORD +
table_index);
}
int aq_mss_set_ingress_prectlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_prectlf_record *rec,
u16 table_index)
{
return AQ_API_CALL_SAFE(set_ingress_prectlf_record, hw, rec,
table_index);
}
static int get_ingress_prectlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_prectlf_record *rec,
u16 table_index)
{
u16 packed_record[6];
int ret;
if (table_index >= NUMROWS_INGRESSPRECTLFRECORD)
return -EINVAL;
/* If the row that we want to read is odd, first read the previous even
* row, throw that value away, and finally read the desired row.
* This is a workaround for EUR devices that allows us to read
* odd-numbered rows. For HHD devices: this workaround will not work,
* so don't bother; odd-numbered rows are not readable.
*/
if ((table_index % 2) > 0) {
ret = get_raw_ingress_record(hw, packed_record, 6, 0,
ROWOFFSET_INGRESSPRECTLFRECORD +
table_index - 1);
if (unlikely(ret))
return ret;
}
ret = get_raw_ingress_record(hw, packed_record, 6, 0,
ROWOFFSET_INGRESSPRECTLFRECORD +
table_index);
if (unlikely(ret))
return ret;
rec->sa_da[0] = packed_record[0];
rec->sa_da[0] |= packed_record[1] << 16;
rec->sa_da[1] = packed_record[2];
rec->eth_type = packed_record[3];
rec->match_mask = packed_record[4];
rec->match_type = packed_record[5] & 0xF;
rec->action = (packed_record[5] >> 4) & 0x1;
return 0;
}
int aq_mss_get_ingress_prectlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_prectlf_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_prectlf_record, hw, rec,
table_index);
}
static int
set_ingress_preclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_preclass_record *rec,
u16 table_index)
{
u16 packed_record[20];
if (table_index >= NUMROWS_INGRESSPRECLASSRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 20);
packed_record[0] = rec->sci[0] & 0xFFFF;
packed_record[1] = (rec->sci[0] >> 16) & 0xFFFF;
packed_record[2] = rec->sci[1] & 0xFFFF;
packed_record[3] = (rec->sci[1] >> 16) & 0xFFFF;
packed_record[4] = rec->tci & 0xFF;
packed_record[4] |= (rec->encr_offset & 0xFF) << 8;
packed_record[5] = rec->eth_type & 0xFFFF;
packed_record[6] = rec->snap[0] & 0xFFFF;
packed_record[7] = (rec->snap[0] >> 16) & 0xFFFF;
packed_record[8] = rec->snap[1] & 0xFF;
packed_record[8] |= (rec->llc & 0xFF) << 8;
packed_record[9] = (rec->llc >> 8) & 0xFFFF;
packed_record[10] = rec->mac_sa[0] & 0xFFFF;
packed_record[11] = (rec->mac_sa[0] >> 16) & 0xFFFF;
packed_record[12] = rec->mac_sa[1] & 0xFFFF;
packed_record[13] = rec->mac_da[0] & 0xFFFF;
packed_record[14] = (rec->mac_da[0] >> 16) & 0xFFFF;
packed_record[15] = rec->mac_da[1] & 0xFFFF;
packed_record[16] = rec->lpbk_packet & 0x1;
packed_record[16] |= (rec->an_mask & 0x3) << 1;
packed_record[16] |= (rec->tci_mask & 0x3F) << 3;
packed_record[16] |= (rec->sci_mask & 0x7F) << 9;
packed_record[17] = (rec->sci_mask >> 7) & 0x1;
packed_record[17] |= (rec->eth_type_mask & 0x3) << 1;
packed_record[17] |= (rec->snap_mask & 0x1F) << 3;
packed_record[17] |= (rec->llc_mask & 0x7) << 8;
packed_record[17] |= (rec->_802_2_encapsulate & 0x1) << 11;
packed_record[17] |= (rec->sa_mask & 0xF) << 12;
packed_record[18] = (rec->sa_mask >> 4) & 0x3;
packed_record[18] |= (rec->da_mask & 0x3F) << 2;
packed_record[18] |= (rec->lpbk_mask & 0x1) << 8;
packed_record[18] |= (rec->sc_idx & 0x1F) << 9;
packed_record[18] |= (rec->proc_dest & 0x1) << 14;
packed_record[18] |= (rec->action & 0x1) << 15;
packed_record[19] = (rec->action >> 1) & 0x1;
packed_record[19] |= (rec->ctrl_unctrl & 0x1) << 1;
packed_record[19] |= (rec->sci_from_table & 0x1) << 2;
packed_record[19] |= (rec->reserved & 0xF) << 3;
packed_record[19] |= (rec->valid & 0x1) << 7;
return set_raw_ingress_record(hw, packed_record, 20, 1,
ROWOFFSET_INGRESSPRECLASSRECORD +
table_index);
}
int aq_mss_set_ingress_preclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_preclass_record *rec,
u16 table_index)
{
int err = AQ_API_CALL_SAFE(set_ingress_preclass_record, hw, rec,
table_index);
WARN_ONCE(err, "%s failed with %d\n", __func__, err);
return err;
}
static int
get_ingress_preclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_preclass_record *rec,
u16 table_index)
{
u16 packed_record[20];
int ret;
if (table_index >= NUMROWS_INGRESSPRECLASSRECORD)
return -EINVAL;
/* If the row that we want to read is odd, first read the previous even
* row, throw that value away, and finally read the desired row.
*/
if ((table_index % 2) > 0) {
ret = get_raw_ingress_record(hw, packed_record, 20, 1,
ROWOFFSET_INGRESSPRECLASSRECORD +
table_index - 1);
if (unlikely(ret))
return ret;
}
ret = get_raw_ingress_record(hw, packed_record, 20, 1,
ROWOFFSET_INGRESSPRECLASSRECORD +
table_index);
if (unlikely(ret))
return ret;
rec->sci[0] = packed_record[0];
rec->sci[0] |= packed_record[1] << 16;
rec->sci[1] = packed_record[2];
rec->sci[1] |= packed_record[3] << 16;
rec->tci = packed_record[4] & 0xFF;
rec->encr_offset = (packed_record[4] >> 8) & 0xFF;
rec->eth_type = packed_record[5];
rec->snap[0] = packed_record[6];
rec->snap[0] |= packed_record[7] << 16;
rec->snap[1] = packed_record[8] & 0xFF;
rec->llc = (packed_record[8] >> 8) & 0xFF;
rec->llc = packed_record[9] << 8;
rec->mac_sa[0] = packed_record[10];
rec->mac_sa[0] |= packed_record[11] << 16;
rec->mac_sa[1] = packed_record[12];
rec->mac_da[0] = packed_record[13];
rec->mac_da[0] |= packed_record[14] << 16;
rec->mac_da[1] = packed_record[15];
rec->lpbk_packet = packed_record[16] & 0x1;
rec->an_mask = (packed_record[16] >> 1) & 0x3;
rec->tci_mask = (packed_record[16] >> 3) & 0x3F;
rec->sci_mask = (packed_record[16] >> 9) & 0x7F;
rec->sci_mask |= (packed_record[17] & 0x1) << 7;
rec->eth_type_mask = (packed_record[17] >> 1) & 0x3;
rec->snap_mask = (packed_record[17] >> 3) & 0x1F;
rec->llc_mask = (packed_record[17] >> 8) & 0x7;
rec->_802_2_encapsulate = (packed_record[17] >> 11) & 0x1;
rec->sa_mask = (packed_record[17] >> 12) & 0xF;
rec->sa_mask |= (packed_record[18] & 0x3) << 4;
rec->da_mask = (packed_record[18] >> 2) & 0x3F;
rec->lpbk_mask = (packed_record[18] >> 8) & 0x1;
rec->sc_idx = (packed_record[18] >> 9) & 0x1F;
rec->proc_dest = (packed_record[18] >> 14) & 0x1;
rec->action = (packed_record[18] >> 15) & 0x1;
rec->action |= (packed_record[19] & 0x1) << 1;
rec->ctrl_unctrl = (packed_record[19] >> 1) & 0x1;
rec->sci_from_table = (packed_record[19] >> 2) & 0x1;
rec->reserved = (packed_record[19] >> 3) & 0xF;
rec->valid = (packed_record[19] >> 7) & 0x1;
return 0;
}
int aq_mss_get_ingress_preclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_preclass_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_preclass_record, hw, rec,
table_index);
}
static int set_ingress_sc_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sc_record *rec,
u16 table_index)
{
u16 packed_record[8];
if (table_index >= NUMROWS_INGRESSSCRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 8);
packed_record[0] = rec->stop_time & 0xFFFF;
packed_record[1] = (rec->stop_time >> 16) & 0xFFFF;
packed_record[2] = rec->start_time & 0xFFFF;
packed_record[3] = (rec->start_time >> 16) & 0xFFFF;
packed_record[4] = rec->validate_frames & 0x3;
packed_record[4] |= (rec->replay_protect & 0x1) << 2;
packed_record[4] |= (rec->anti_replay_window & 0x1FFF) << 3;
packed_record[5] = (rec->anti_replay_window >> 13) & 0xFFFF;
packed_record[6] = (rec->anti_replay_window >> 29) & 0x7;
packed_record[6] |= (rec->receiving & 0x1) << 3;
packed_record[6] |= (rec->fresh & 0x1) << 4;
packed_record[6] |= (rec->an_rol & 0x1) << 5;
packed_record[6] |= (rec->reserved & 0x3FF) << 6;
packed_record[7] = (rec->reserved >> 10) & 0x7FFF;
packed_record[7] |= (rec->valid & 0x1) << 15;
return set_raw_ingress_record(hw, packed_record, 8, 3,
ROWOFFSET_INGRESSSCRECORD + table_index);
}
int aq_mss_set_ingress_sc_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sc_record *rec,
u16 table_index)
{
int err = AQ_API_CALL_SAFE(set_ingress_sc_record, hw, rec, table_index);
WARN_ONCE(err, "%s failed with %d\n", __func__, err);
return err;
}
static int get_ingress_sc_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sc_record *rec,
u16 table_index)
{
u16 packed_record[8];
int ret;
if (table_index >= NUMROWS_INGRESSSCRECORD)
return -EINVAL;
ret = get_raw_ingress_record(hw, packed_record, 8, 3,
ROWOFFSET_INGRESSSCRECORD + table_index);
if (unlikely(ret))
return ret;
rec->stop_time = packed_record[0];
rec->stop_time |= packed_record[1] << 16;
rec->start_time = packed_record[2];
rec->start_time |= packed_record[3] << 16;
rec->validate_frames = packed_record[4] & 0x3;
rec->replay_protect = (packed_record[4] >> 2) & 0x1;
rec->anti_replay_window = (packed_record[4] >> 3) & 0x1FFF;
rec->anti_replay_window |= packed_record[5] << 13;
rec->anti_replay_window |= (packed_record[6] & 0x7) << 29;
rec->receiving = (packed_record[6] >> 3) & 0x1;
rec->fresh = (packed_record[6] >> 4) & 0x1;
rec->an_rol = (packed_record[6] >> 5) & 0x1;
rec->reserved = (packed_record[6] >> 6) & 0x3FF;
rec->reserved |= (packed_record[7] & 0x7FFF) << 10;
rec->valid = (packed_record[7] >> 15) & 0x1;
return 0;
}
int aq_mss_get_ingress_sc_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sc_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_sc_record, hw, rec, table_index);
}
static int set_ingress_sa_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sa_record *rec,
u16 table_index)
{
u16 packed_record[8];
if (table_index >= NUMROWS_INGRESSSARECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 8);
packed_record[0] = rec->stop_time & 0xFFFF;
packed_record[1] = (rec->stop_time >> 16) & 0xFFFF;
packed_record[2] = rec->start_time & 0xFFFF;
packed_record[3] = (rec->start_time >> 16) & 0xFFFF;
packed_record[4] = rec->next_pn & 0xFFFF;
packed_record[5] = (rec->next_pn >> 16) & 0xFFFF;
packed_record[6] = rec->sat_nextpn & 0x1;
packed_record[6] |= (rec->in_use & 0x1) << 1;
packed_record[6] |= (rec->fresh & 0x1) << 2;
packed_record[6] |= (rec->reserved & 0x1FFF) << 3;
packed_record[7] = (rec->reserved >> 13) & 0x7FFF;
packed_record[7] |= (rec->valid & 0x1) << 15;
return set_raw_ingress_record(hw, packed_record, 8, 3,
ROWOFFSET_INGRESSSARECORD + table_index);
}
int aq_mss_set_ingress_sa_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sa_record *rec,
u16 table_index)
{
int err = AQ_API_CALL_SAFE(set_ingress_sa_record, hw, rec, table_index);
WARN_ONCE(err, "%s failed with %d\n", __func__, err);
return err;
}
static int get_ingress_sa_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sa_record *rec,
u16 table_index)
{
u16 packed_record[8];
int ret;
if (table_index >= NUMROWS_INGRESSSARECORD)
return -EINVAL;
ret = get_raw_ingress_record(hw, packed_record, 8, 3,
ROWOFFSET_INGRESSSARECORD + table_index);
if (unlikely(ret))
return ret;
rec->stop_time = packed_record[0];
rec->stop_time |= packed_record[1] << 16;
rec->start_time = packed_record[2];
rec->start_time |= packed_record[3] << 16;
rec->next_pn = packed_record[4];
rec->next_pn |= packed_record[5] << 16;
rec->sat_nextpn = packed_record[6] & 0x1;
rec->in_use = (packed_record[6] >> 1) & 0x1;
rec->fresh = (packed_record[6] >> 2) & 0x1;
rec->reserved = (packed_record[6] >> 3) & 0x1FFF;
rec->reserved |= (packed_record[7] & 0x7FFF) << 13;
rec->valid = (packed_record[7] >> 15) & 0x1;
return 0;
}
int aq_mss_get_ingress_sa_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sa_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_sa_record, hw, rec, table_index);
}
static int
set_ingress_sakey_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sakey_record *rec,
u16 table_index)
{
u16 packed_record[18];
if (table_index >= NUMROWS_INGRESSSAKEYRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 18);
packed_record[0] = rec->key[0] & 0xFFFF;
packed_record[1] = (rec->key[0] >> 16) & 0xFFFF;
packed_record[2] = rec->key[1] & 0xFFFF;
packed_record[3] = (rec->key[1] >> 16) & 0xFFFF;
packed_record[4] = rec->key[2] & 0xFFFF;
packed_record[5] = (rec->key[2] >> 16) & 0xFFFF;
packed_record[6] = rec->key[3] & 0xFFFF;
packed_record[7] = (rec->key[3] >> 16) & 0xFFFF;
packed_record[8] = rec->key[4] & 0xFFFF;
packed_record[9] = (rec->key[4] >> 16) & 0xFFFF;
packed_record[10] = rec->key[5] & 0xFFFF;
packed_record[11] = (rec->key[5] >> 16) & 0xFFFF;
packed_record[12] = rec->key[6] & 0xFFFF;
packed_record[13] = (rec->key[6] >> 16) & 0xFFFF;
packed_record[14] = rec->key[7] & 0xFFFF;
packed_record[15] = (rec->key[7] >> 16) & 0xFFFF;
packed_record[16] = rec->key_len & 0x3;
return set_raw_ingress_record(hw, packed_record, 18, 2,
ROWOFFSET_INGRESSSAKEYRECORD +
table_index);
}
int aq_mss_set_ingress_sakey_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sakey_record *rec,
u16 table_index)
{
int err = AQ_API_CALL_SAFE(set_ingress_sakey_record, hw, rec,
table_index);
WARN_ONCE(err, "%s failed with %d\n", __func__, err);
return err;
}
static int get_ingress_sakey_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sakey_record *rec,
u16 table_index)
{
u16 packed_record[18];
int ret;
if (table_index >= NUMROWS_INGRESSSAKEYRECORD)
return -EINVAL;
ret = get_raw_ingress_record(hw, packed_record, 18, 2,
ROWOFFSET_INGRESSSAKEYRECORD +
table_index);
if (unlikely(ret))
return ret;
rec->key[0] = packed_record[0];
rec->key[0] |= packed_record[1] << 16;
rec->key[1] = packed_record[2];
rec->key[1] |= packed_record[3] << 16;
rec->key[2] = packed_record[4];
rec->key[2] |= packed_record[5] << 16;
rec->key[3] = packed_record[6];
rec->key[3] |= packed_record[7] << 16;
rec->key[4] = packed_record[8];
rec->key[4] |= packed_record[9] << 16;
rec->key[5] = packed_record[10];
rec->key[5] |= packed_record[11] << 16;
rec->key[6] = packed_record[12];
rec->key[6] |= packed_record[13] << 16;
rec->key[7] = packed_record[14];
rec->key[7] |= packed_record[15] << 16;
rec->key_len = (rec->key_len & 0xFFFFFFFC) |
(packed_record[16] & 0x3);
return 0;
}
int aq_mss_get_ingress_sakey_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sakey_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_sakey_record, hw, rec, table_index);
}
static int
set_ingress_postclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postclass_record *rec,
u16 table_index)
{
u16 packed_record[8];
if (table_index >= NUMROWS_INGRESSPOSTCLASSRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 8);
packed_record[0] = rec->byte0 & 0xFF;
packed_record[0] |= (rec->byte1 & 0xFF) << 8;
packed_record[1] = rec->byte2 & 0xFF;
packed_record[1] |= (rec->byte3 & 0xFF) << 8;
packed_record[2] = rec->eth_type & 0xFFFF;
packed_record[3] = rec->eth_type_valid & 0x1;
packed_record[3] |= (rec->vlan_id & 0xFFF) << 1;
packed_record[3] |= (rec->vlan_up & 0x7) << 13;
packed_record[4] = rec->vlan_valid & 0x1;
packed_record[4] |= (rec->sai & 0x1F) << 1;
packed_record[4] |= (rec->sai_hit & 0x1) << 6;
packed_record[4] |= (rec->eth_type_mask & 0xF) << 7;
packed_record[4] |= (rec->byte3_location & 0x1F) << 11;
packed_record[5] = (rec->byte3_location >> 5) & 0x1;
packed_record[5] |= (rec->byte3_mask & 0x3) << 1;
packed_record[5] |= (rec->byte2_location & 0x3F) << 3;
packed_record[5] |= (rec->byte2_mask & 0x3) << 9;
packed_record[5] |= (rec->byte1_location & 0x1F) << 11;
packed_record[6] = (rec->byte1_location >> 5) & 0x1;
packed_record[6] |= (rec->byte1_mask & 0x3) << 1;
packed_record[6] |= (rec->byte0_location & 0x3F) << 3;
packed_record[6] |= (rec->byte0_mask & 0x3) << 9;
packed_record[6] |= (rec->eth_type_valid_mask & 0x3) << 11;
packed_record[6] |= (rec->vlan_id_mask & 0x7) << 13;
packed_record[7] = (rec->vlan_id_mask >> 3) & 0x1;
packed_record[7] |= (rec->vlan_up_mask & 0x3) << 1;
packed_record[7] |= (rec->vlan_valid_mask & 0x3) << 3;
packed_record[7] |= (rec->sai_mask & 0x3) << 5;
packed_record[7] |= (rec->sai_hit_mask & 0x3) << 7;
packed_record[7] |= (rec->firstlevel_actions & 0x1) << 9;
packed_record[7] |= (rec->secondlevel_actions & 0x1) << 10;
packed_record[7] |= (rec->reserved & 0xF) << 11;
packed_record[7] |= (rec->valid & 0x1) << 15;
return set_raw_ingress_record(hw, packed_record, 8, 4,
ROWOFFSET_INGRESSPOSTCLASSRECORD +
table_index);
}
int aq_mss_set_ingress_postclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postclass_record *rec,
u16 table_index)
{
return AQ_API_CALL_SAFE(set_ingress_postclass_record, hw, rec,
table_index);
}
static int
get_ingress_postclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postclass_record *rec,
u16 table_index)
{
u16 packed_record[8];
int ret;
if (table_index >= NUMROWS_INGRESSPOSTCLASSRECORD)
return -EINVAL;
/* If the row that we want to read is odd, first read the previous even
* row, throw that value away, and finally read the desired row.
*/
if ((table_index % 2) > 0) {
ret = get_raw_ingress_record(hw, packed_record, 8, 4,
ROWOFFSET_INGRESSPOSTCLASSRECORD +
table_index - 1);
if (unlikely(ret))
return ret;
}
ret = get_raw_ingress_record(hw, packed_record, 8, 4,
ROWOFFSET_INGRESSPOSTCLASSRECORD +
table_index);
if (unlikely(ret))
return ret;
rec->byte0 = packed_record[0] & 0xFF;
rec->byte1 = (packed_record[0] >> 8) & 0xFF;
rec->byte2 = packed_record[1] & 0xFF;
rec->byte3 = (packed_record[1] >> 8) & 0xFF;
rec->eth_type = packed_record[2];
rec->eth_type_valid = packed_record[3] & 0x1;
rec->vlan_id = (packed_record[3] >> 1) & 0xFFF;
rec->vlan_up = (packed_record[3] >> 13) & 0x7;
rec->vlan_valid = packed_record[4] & 0x1;
rec->sai = (packed_record[4] >> 1) & 0x1F;
rec->sai_hit = (packed_record[4] >> 6) & 0x1;
rec->eth_type_mask = (packed_record[4] >> 7) & 0xF;
rec->byte3_location = (packed_record[4] >> 11) & 0x1F;
rec->byte3_location |= (packed_record[5] & 0x1) << 5;
rec->byte3_mask = (packed_record[5] >> 1) & 0x3;
rec->byte2_location = (packed_record[5] >> 3) & 0x3F;
rec->byte2_mask = (packed_record[5] >> 9) & 0x3;
rec->byte1_location = (packed_record[5] >> 11) & 0x1F;
rec->byte1_location |= (packed_record[6] & 0x1) << 5;
rec->byte1_mask = (packed_record[6] >> 1) & 0x3;
rec->byte0_location = (packed_record[6] >> 3) & 0x3F;
rec->byte0_mask = (packed_record[6] >> 9) & 0x3;
rec->eth_type_valid_mask = (packed_record[6] >> 11) & 0x3;
rec->vlan_id_mask = (packed_record[6] >> 13) & 0x7;
rec->vlan_id_mask |= (packed_record[7] & 0x1) << 3;
rec->vlan_up_mask = (packed_record[7] >> 1) & 0x3;
rec->vlan_valid_mask = (packed_record[7] >> 3) & 0x3;
rec->sai_mask = (packed_record[7] >> 5) & 0x3;
rec->sai_hit_mask = (packed_record[7] >> 7) & 0x3;
rec->firstlevel_actions = (packed_record[7] >> 9) & 0x1;
rec->secondlevel_actions = (packed_record[7] >> 10) & 0x1;
rec->reserved = (packed_record[7] >> 11) & 0xF;
rec->valid = (packed_record[7] >> 15) & 0x1;
return 0;
}
int aq_mss_get_ingress_postclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postclass_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_postclass_record, hw, rec,
table_index);
}
static int
set_ingress_postctlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postctlf_record *rec,
u16 table_index)
{
u16 packed_record[6];
if (table_index >= NUMROWS_INGRESSPOSTCTLFRECORD)
return -EINVAL;
memset(packed_record, 0, sizeof(u16) * 6);
packed_record[0] = rec->sa_da[0] & 0xFFFF;
packed_record[1] = (rec->sa_da[0] >> 16) & 0xFFFF;
packed_record[2] = rec->sa_da[1] & 0xFFFF;
packed_record[3] = rec->eth_type & 0xFFFF;
packed_record[4] = rec->match_mask & 0xFFFF;
packed_record[5] = rec->match_type & 0xF;
packed_record[5] |= (rec->action & 0x1) << 4;
return set_raw_ingress_record(hw, packed_record, 6, 5,
ROWOFFSET_INGRESSPOSTCTLFRECORD +
table_index);
}
int aq_mss_set_ingress_postctlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postctlf_record *rec,
u16 table_index)
{
return AQ_API_CALL_SAFE(set_ingress_postctlf_record, hw, rec,
table_index);
}
static int
get_ingress_postctlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postctlf_record *rec,
u16 table_index)
{
u16 packed_record[6];
int ret;
if (table_index >= NUMROWS_INGRESSPOSTCTLFRECORD)
return -EINVAL;
/* If the row that we want to read is odd, first read the previous even
* row, throw that value away, and finally read the desired row.
*/
if ((table_index % 2) > 0) {
ret = get_raw_ingress_record(hw, packed_record, 6, 5,
ROWOFFSET_INGRESSPOSTCTLFRECORD +
table_index - 1);
if (unlikely(ret))
return ret;
}
ret = get_raw_ingress_record(hw, packed_record, 6, 5,
ROWOFFSET_INGRESSPOSTCTLFRECORD +
table_index);
if (unlikely(ret))
return ret;
rec->sa_da[0] = packed_record[0];
rec->sa_da[0] |= packed_record[1] << 16;
rec->sa_da[1] = packed_record[2];
rec->eth_type = packed_record[3];
rec->match_mask = packed_record[4];
rec->match_type = packed_record[5] & 0xF;
rec->action = (packed_record[5] >> 4) & 0x1;
return 0;
}
int aq_mss_get_ingress_postctlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postctlf_record *rec,
u16 table_index)
{
memset(rec, 0, sizeof(*rec));
return AQ_API_CALL_SAFE(get_ingress_postctlf_record, hw, rec,
table_index);
}
static int set_egress_ctlf_record(struct aq_hw_s *hw,
const struct aq_mss_egress_ctlf_record *rec,
u16 table_index)
......
......@@ -9,6 +9,27 @@
#include "aq_hw.h"
#include "macsec_struct.h"
#define NUMROWS_INGRESSPRECTLFRECORD 24
#define ROWOFFSET_INGRESSPRECTLFRECORD 0
#define NUMROWS_INGRESSPRECLASSRECORD 48
#define ROWOFFSET_INGRESSPRECLASSRECORD 0
#define NUMROWS_INGRESSPOSTCLASSRECORD 48
#define ROWOFFSET_INGRESSPOSTCLASSRECORD 0
#define NUMROWS_INGRESSSCRECORD 32
#define ROWOFFSET_INGRESSSCRECORD 0
#define NUMROWS_INGRESSSARECORD 32
#define ROWOFFSET_INGRESSSARECORD 32
#define NUMROWS_INGRESSSAKEYRECORD 32
#define ROWOFFSET_INGRESSSAKEYRECORD 0
#define NUMROWS_INGRESSPOSTCTLFRECORD 24
#define ROWOFFSET_INGRESSPOSTCTLFRECORD 0
#define NUMROWS_EGRESSCTLFRECORD 24
#define ROWOFFSET_EGRESSCTLFRECORD 0
......@@ -114,6 +135,133 @@ int aq_mss_set_egress_sakey_record(struct aq_hw_s *hw,
const struct aq_mss_egress_sakey_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress
* Pre-MACSec CTL Filter table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 23).
*/
int aq_mss_get_ingress_prectlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_prectlf_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress Pre-MACSec CTL Filter table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 23).
*/
int aq_mss_set_ingress_prectlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_prectlf_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress
* Pre-MACSec Packet Classifier table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 47).
*/
int aq_mss_get_ingress_preclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_preclass_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress Pre-MACSec Packet Classifier table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 47).
*/
int aq_mss_set_ingress_preclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_preclass_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress SC
* Lookup table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 31).
*/
int aq_mss_get_ingress_sc_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sc_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress SC Lookup table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 31).
*/
int aq_mss_set_ingress_sc_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sc_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress SA
* Lookup table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 31).
*/
int aq_mss_get_ingress_sa_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sa_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress SA Lookup table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 31).
*/
int aq_mss_set_ingress_sa_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sa_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress SA
* Key Lookup table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 31).
*/
int aq_mss_get_ingress_sakey_record(struct aq_hw_s *hw,
struct aq_mss_ingress_sakey_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress SA Key Lookup table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 31).
*/
int aq_mss_set_ingress_sakey_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_sakey_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress
* Post-MACSec Packet Classifier table, and unpack it into the
* fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 48).
*/
int aq_mss_get_ingress_postclass_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postclass_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress Post-MACSec Packet Classifier table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 48).
*/
int aq_mss_set_ingress_postclass_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postclass_record *rec,
u16 table_index);
/*! Read the raw table data from the specified row of the Ingress
* Post-MACSec CTL Filter table, and unpack it into the fields of rec.
* rec - [OUT] The raw table row data will be unpacked into the fields of rec.
* table_index - The table row to read (max 23).
*/
int aq_mss_get_ingress_postctlf_record(struct aq_hw_s *hw,
struct aq_mss_ingress_postctlf_record *rec,
u16 table_index);
/*! Pack the fields of rec, and write the packed data into the
* specified row of the Ingress Post-MACSec CTL Filter table.
* rec - [IN] The bitfield values to write to the table row.
* table_index - The table row to write(max 23).
*/
int aq_mss_set_ingress_postctlf_record(struct aq_hw_s *hw,
const struct aq_mss_ingress_postctlf_record *rec,
u16 table_index);
/*! Get Egress SA expired. */
int aq_mss_get_egress_sa_expired(struct aq_hw_s *hw, u32 *expired);
/*! Get Egress SA threshold expired. */
......
......@@ -314,4 +314,387 @@ struct aq_mss_egress_sakey_record {
u32 key[8];
};
/*! Represents the bitfields of a single row in the Ingress Pre-MACSec
* CTL Filter table.
*/
struct aq_mss_ingress_prectlf_record {
/*! This is used to store the 48 bit value used to compare SA, DA
* or halfDA+half SA value.
*/
u32 sa_da[2];
/*! This is used to store the 16 bit ethertype value used for
* comparison.
*/
u32 eth_type;
/*! The match mask is per-nibble. 0 means don't care, i.e. every
* value will match successfully. The total data is 64 bit, i.e.
* 16 nibbles masks.
*/
u32 match_mask;
/*! 0: No compare, i.e. This entry is not used
* 1: compare DA only
* 2: compare SA only
* 3: compare half DA + half SA
* 4: compare ether type only
* 5: compare DA + ethertype
* 6: compare SA + ethertype
* 7: compare DA+ range.
*/
u32 match_type;
/*! 0: Bypass the remaining modules if matched.
* 1: Forward to next module for more classifications.
*/
u32 action;
};
/*! Represents the bitfields of a single row in the Ingress Pre-MACSec
* Packet Classifier table.
*/
struct aq_mss_ingress_preclass_record {
/*! The 64 bit SCI field used to compare with extracted value.
* Should have SCI value in case TCI[SCI_SEND] == 0. This will be
* used for ICV calculation.
*/
u32 sci[2];
/*! The 8 bit TCI field used to compare with extracted value. */
u32 tci;
/*! 8 bit encryption offset. */
u32 encr_offset;
/*! The 16 bit Ethertype (in the clear) field used to compare with
* extracted value.
*/
u32 eth_type;
/*! This is to specify the 40bit SNAP header if the SNAP header's
* mask is enabled.
*/
u32 snap[2];
/*! This is to specify the 24bit LLC header if the LLC header's
* mask is enabled.
*/
u32 llc;
/*! The 48 bit MAC_SA field used to compare with extracted value. */
u32 mac_sa[2];
/*! The 48 bit MAC_DA field used to compare with extracted value. */
u32 mac_da[2];
/*! 0: this is to compare with non-LPBK packet
* 1: this is to compare with LPBK packet.
* This value is used to compare with a controlled-tag which goes
* with the packet when looped back from Egress port.
*/
u32 lpbk_packet;
/*! The value of this bit mask will affects how the SC index and SA
* index created.
* 2'b00: 1 SC has 4 SA.
* SC index is equivalent to {SC_Index[4:2], 1'b0}.
* SA index is equivalent to {SC_Index[4:2], SECTAG's AN[1:0]}
* Here AN bits are not compared.
* 2'b10: 1 SC has 2 SA.
* SC index is equivalent to SC_Index[4:1]
* SA index is equivalent to {SC_Index[4:1], SECTAG's AN[0]}
* Compare AN[1] field only
* 2'b11: 1 SC has 1 SA. No SC entry exists for the specific SA.
* SA index is equivalent to SC_Index[4:0]
* AN[1:0] bits are compared.
* NOTE: This design is to supports different usage of AN. User
* can either ping-pong buffer 2 SA by using only the AN[0] bit.
* Or use 4 SA per SC by use AN[1:0] bits. Or even treat each SA
* as independent. i.e. AN[1:0] is just another matching pointer
* to select SA.
*/
u32 an_mask;
/*! This is bit mask to enable comparison the upper 6 bits TCI
* field, which does not include the AN field.
* 0: don't compare
* 1: enable comparison of the bits.
*/
u32 tci_mask;
/*! 0: don't care
* 1: enable comparison of SCI.
*/
u32 sci_mask;
/*! Mask is per-byte.
* 0: don't care
* 1: enable comparison of Ethertype.
*/
u32 eth_type_mask;
/*! Mask is per-byte.
* 0: don't care and no SNAP header exist.
* 1: compare the SNAP header.
* If this bit is set to 1, the extracted filed will assume the
* SNAP header exist as encapsulated in 802.3 (RFC 1042). I.E. the
* next 5 bytes after the the LLC header is SNAP header.
*/
u32 snap_mask;
/*! Mask is per-byte.
* 0: don't care and no LLC header exist.
* 1: compare the LLC header.
* If this bit is set to 1, the extracted filed will assume the
* LLC header exist as encapsulated in 802.3 (RFC 1042). I.E. the
* next three bytes after the 802.3MAC header is LLC header.
*/
u32 llc_mask;
/*! Reserved. This bit should be always 0. */
u32 _802_2_encapsulate;
/*! Mask is per-byte.
* 0: don't care
* 1: enable comparison of MAC_SA.
*/
u32 sa_mask;
/*! Mask is per-byte.
* 0: don't care
* 1: enable comparison of MAC_DA.
*/
u32 da_mask;
/*! 0: don't care
* 1: enable checking if this is loopback packet or not.
*/
u32 lpbk_mask;
/*! If packet matches and tagged as controlled-packet. This SC/SA
* index is used for later SC and SA table lookup.
*/
u32 sc_idx;
/*! 0: the packets will be sent to MAC FIFO
* 1: The packets will be sent to Debug/Loopback FIFO.
* If the above's action is drop. This bit has no meaning.
*/
u32 proc_dest;
/*! 0: Process: Forward to next two modules for 802.1AE decryption.
* 1: Process but keep SECTAG: Forward to next two modules for
* 802.1AE decryption but keep the MACSEC header with added error
* code information. ICV will be stripped for all control packets.
* 2: Bypass: Bypass the next two decryption modules but processed
* by post-classification.
* 3: Drop: drop this packet and update counts accordingly.
*/
u32 action;
/*! 0: This is a controlled-port packet if matched.
* 1: This is an uncontrolled-port packet if matched.
*/
u32 ctrl_unctrl;
/*! Use the SCI value from the Table if 'SC' bit of the input
* packet is not present.
*/
u32 sci_from_table;
/*! Reserved. */
u32 reserved;
/*! 0: Not valid entry. This entry is not used
* 1: valid entry.
*/
u32 valid;
};
/*! Represents the bitfields of a single row in the Ingress SC Lookup table. */
struct aq_mss_ingress_sc_record {
/*! This is to specify when the SC was first used. Set by HW. */
u32 stop_time;
/*! This is to specify when the SC was first used. Set by HW. */
u32 start_time;
/*! 0: Strict
* 1: Check
* 2: Disabled.
*/
u32 validate_frames;
/*! 1: Replay control enabled.
* 0: replay control disabled.
*/
u32 replay_protect;
/*! This is to specify the window range for anti-replay. Default is 0.
* 0: is strict order enforcement.
*/
u32 anti_replay_window;
/*! 0: when none of the SA related to SC has inUse set.
* 1: when either of the SA related to the SC has inUse set.
* This bit is set by HW.
*/
u32 receiving;
/*! 0: when hardware processed the SC for the first time, it clears
* this bit
* 1: This bit is set by SW, when it sets up the SC.
*/
u32 fresh;
/*! 0: The AN number will not automatically roll over if Next_PN is
* saturated.
* 1: The AN number will automatically roll over if Next_PN is
* saturated.
* Rollover is valid only after expiry. Normal roll over between
* SA's should be normal process.
*/
u32 an_rol;
/*! Reserved. */
u32 reserved;
/*! 0: Invalid SC
* 1: Valid SC.
*/
u32 valid;
};
/*! Represents the bitfields of a single row in the Ingress SA Lookup table. */
struct aq_mss_ingress_sa_record {
/*! This is to specify when the SC was first used. Set by HW. */
u32 stop_time;
/*! This is to specify when the SC was first used. Set by HW. */
u32 start_time;
/*! This is updated by HW to store the expected NextPN number for
* anti-replay.
*/
u32 next_pn;
/*! The Next_PN number is going to wrapped around from 0XFFFF_FFFF
* to 0. set by HW.
*/
u32 sat_nextpn;
/*! 0: This SA is not yet used.
* 1: This SA is inUse.
*/
u32 in_use;
/*! 0: when hardware processed the SC for the first time, it clears
* this timer
* 1: This bit is set by SW, when it sets up the SC.
*/
u32 fresh;
/*! Reserved. */
u32 reserved;
/*! 0: Invalid SA.
* 1: Valid SA.
*/
u32 valid;
};
/*! Represents the bitfields of a single row in the Ingress SA Key
* Lookup table.
*/
struct aq_mss_ingress_sakey_record {
/*! Key for AES-GCM processing. */
u32 key[8];
/*! AES key size
* 00 - 128bits
* 01 - 192bits
* 10 - 256bits
* 11 - reserved.
*/
u32 key_len;
};
/*! Represents the bitfields of a single row in the Ingress Post-
* MACSec Packet Classifier table.
*/
struct aq_mss_ingress_postclass_record {
/*! The 8 bit value used to compare with extracted value for byte 0. */
u32 byte0;
/*! The 8 bit value used to compare with extracted value for byte 1. */
u32 byte1;
/*! The 8 bit value used to compare with extracted value for byte 2. */
u32 byte2;
/*! The 8 bit value used to compare with extracted value for byte 3. */
u32 byte3;
/*! Ethertype in the packet. */
u32 eth_type;
/*! Ether Type value > 1500 (0x5dc). */
u32 eth_type_valid;
/*! VLAN ID after parsing. */
u32 vlan_id;
/*! VLAN priority after parsing. */
u32 vlan_up;
/*! Valid VLAN coding. */
u32 vlan_valid;
/*! SA index. */
u32 sai;
/*! SAI hit, i.e. controlled packet. */
u32 sai_hit;
/*! Mask for payload ethertype field. */
u32 eth_type_mask;
/*! 0~63: byte location used extracted by packets comparator, which
* can be anything from the first 64 bytes of the MAC packets.
* This byte location counted from MAC' DA address. i.e. set to 0
* will point to byte 0 of DA address.
*/
u32 byte3_location;
/*! Mask for Byte Offset 3. */
u32 byte3_mask;
/*! 0~63: byte location used extracted by packets comparator, which
* can be anything from the first 64 bytes of the MAC packets.
* This byte location counted from MAC' DA address. i.e. set to 0
* will point to byte 0 of DA address.
*/
u32 byte2_location;
/*! Mask for Byte Offset 2. */
u32 byte2_mask;
/*! 0~63: byte location used extracted by packets comparator, which
* can be anything from the first 64 bytes of the MAC packets.
* This byte location counted from MAC' DA address. i.e. set to 0
* will point to byte 0 of DA address.
*/
u32 byte1_location;
/*! Mask for Byte Offset 1. */
u32 byte1_mask;
/*! 0~63: byte location used extracted by packets comparator, which
* can be anything from the first 64 bytes of the MAC packets.
* This byte location counted from MAC' DA address. i.e. set to 0
* will point to byte 0 of DA address.
*/
u32 byte0_location;
/*! Mask for Byte Offset 0. */
u32 byte0_mask;
/*! Mask for Ethertype valid field. Indicates 802.3 vs. Other. */
u32 eth_type_valid_mask;
/*! Mask for VLAN ID field. */
u32 vlan_id_mask;
/*! Mask for VLAN UP field. */
u32 vlan_up_mask;
/*! Mask for VLAN valid field. */
u32 vlan_valid_mask;
/*! Mask for SAI. */
u32 sai_mask;
/*! Mask for SAI_HIT. */
u32 sai_hit_mask;
/*! Action if only first level matches and second level does not.
* 0: pass
* 1: drop (fail).
*/
u32 firstlevel_actions;
/*! Action if both first and second level matched.
* 0: pass
* 1: drop (fail).
*/
u32 secondlevel_actions;
/*! Reserved. */
u32 reserved;
/*! 0: Not valid entry. This entry is not used
* 1: valid entry.
*/
u32 valid;
};
/*! Represents the bitfields of a single row in the Ingress Post-
* MACSec CTL Filter table.
*/
struct aq_mss_ingress_postctlf_record {
/*! This is used to store the 48 bit value used to compare SA, DA
* or halfDA+half SA value.
*/
u32 sa_da[2];
/*! This is used to store the 16 bit ethertype value used for
* comparison.
*/
u32 eth_type;
/*! The match mask is per-nibble. 0 means don't care, i.e. every
* value will match successfully. The total data is 64 bit, i.e.
* 16 nibbles masks.
*/
u32 match_mask;
/*! 0: No compare, i.e. This entry is not used
* 1: compare DA only
* 2: compare SA only
* 3: compare half DA + half SA
* 4: compare ether type only
* 5: compare DA + ethertype
* 6: compare SA + ethertype
* 7: compare DA+ range.
*/
u32 match_type;
/*! 0: Bypass the remaining modules if matched.
* 1: Forward to next module for more classifications.
*/
u32 action;
};
#endif
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