xref: /freebsd/sys/contrib/alpine-hal/eth/al_hal_eth_main.c (revision d002f039aeb370370cd2cba63ad55cc4cf16c932)

/*-
*******************************************************************************
Copyright (C) 2015 Annapurna Labs Ltd.

This file may be licensed under the terms of the Annapurna Labs Commercial
License Agreement.

Alternatively, this file can be distributed under the terms of the GNU General
Public License V2 as published by the Free Software Foundation and can be
found at http://www.gnu.org/licenses/gpl-2.0.html

Alternatively, redistribution and use in source and binary forms, with or
without modification, are permitted provided that the following conditions are
met:

    *     Redistributions of source code must retain the above copyright notice,
this list of conditions and the following disclaimer.

    *     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 COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR
ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON
ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

*******************************************************************************/

/**
 *  @{
 * @file   al_hal_eth_main.c
 *
 * @brief  XG Ethernet unit HAL driver for main functions (initialization, data path)
 *
 */

#include "al_hal_eth.h"
#include "al_hal_udma_iofic.h"
#include "al_hal_udma_config.h"
#include "al_hal_eth_ec_regs.h"
#include "al_hal_eth_mac_regs.h"
#include "al_hal_unit_adapter_regs.h"
#ifdef AL_ETH_EX
#include "al_hal_eth_ex_internal.h"
#endif

/* Number of xfi_txclk cycles that accumulate into 100ns */
#define ETH_MAC_KR_10_PCS_CFG_EEE_TIMER_VAL 52
#define ETH_MAC_KR_25_PCS_CFG_EEE_TIMER_VAL 80
#define ETH_MAC_XLG_40_PCS_CFG_EEE_TIMER_VAL 63
#define ETH_MAC_XLG_50_PCS_CFG_EEE_TIMER_VAL 85

#define AL_ETH_TX_PKT_UDMA_FLAGS	(AL_ETH_TX_FLAGS_NO_SNOOP | \
					 AL_ETH_TX_FLAGS_INT)

#define AL_ETH_TX_PKT_META_FLAGS	(AL_ETH_TX_FLAGS_IPV4_L3_CSUM | \
					 AL_ETH_TX_FLAGS_L4_CSUM |	\
					 AL_ETH_TX_FLAGS_L4_PARTIAL_CSUM |	\
					 AL_ETH_TX_FLAGS_L2_MACSEC_PKT | \
					 AL_ETH_TX_FLAGS_L2_DIS_FCS |\
					 AL_ETH_TX_FLAGS_TSO |\
					 AL_ETH_TX_FLAGS_TS)

#define AL_ETH_TX_SRC_VLAN_CNT_MASK	3
#define AL_ETH_TX_SRC_VLAN_CNT_SHIFT	5
#define AL_ETH_TX_L4_PROTO_IDX_MASK	0x1F
#define AL_ETH_TX_L4_PROTO_IDX_SHIFT	8
#define AL_ETH_TX_TUNNEL_MODE_SHIFT		18
#define AL_ETH_TX_OUTER_L3_PROTO_SHIFT		20
#define AL_ETH_TX_VLAN_MOD_ADD_SHIFT		22
#define AL_ETH_TX_VLAN_MOD_DEL_SHIFT		24
#define AL_ETH_TX_VLAN_MOD_E_SEL_SHIFT		26
#define AL_ETH_TX_VLAN_MOD_VID_SEL_SHIFT	28
#define AL_ETH_TX_VLAN_MOD_PBIT_SEL_SHIFT	30

/* tx Meta Descriptor defines */
#define AL_ETH_TX_META_STORE			(1 << 21)
#define AL_ETH_TX_META_L3_LEN_MASK		0xff
#define AL_ETH_TX_META_L3_OFF_MASK		0xff
#define AL_ETH_TX_META_L3_OFF_SHIFT		8
#define AL_ETH_TX_META_MSS_LSB_VAL_SHIFT	22
#define AL_ETH_TX_META_MSS_MSB_TS_VAL_SHIFT	16
#define AL_ETH_TX_META_OUTER_L3_LEN_MASK	0x1f
#define AL_ETH_TX_META_OUTER_L3_LEN_SHIFT	24
#define AL_ETH_TX_META_OUTER_L3_OFF_HIGH_MASK	0x18
#define AL_ETH_TX_META_OUTER_L3_OFF_HIGH_SHIFT	10
#define AL_ETH_TX_META_OUTER_L3_OFF_LOW_MASK	0x07
#define AL_ETH_TX_META_OUTER_L3_OFF_LOW_SHIFT	29

/* tx Meta Descriptor defines - MacSec */
#define AL_ETH_TX_MACSEC_SIGN_SHIFT			  0		/* Sign TX pkt */
#define AL_ETH_TX_MACSEC_ENCRYPT_SHIFT			  1		/* Encrypt TX pkt */
#define AL_ETH_TX_MACSEC_AN_LSB_SHIFT			  2		/* Association Number */
#define AL_ETH_TX_MACSEC_AN_MSB_SHIFT			  3
#define AL_ETH_TX_MACSEC_SC_LSB_SHIFT			  4		/* Secured Channel */
#define AL_ETH_TX_MACSEC_SC_MSB_SHIFT			  9
#define AL_ETH_TX_MACSEC_SECURED_PYLD_LEN_LSB_SHIFT	 10		/* Secure Payload Length (0x3FFF for non-SL packets) */
#define AL_ETH_TX_MACSEC_SECURED_PYLD_LEN_MSB_SHIFT	 23

/* Rx Descriptor defines */
#define AL_ETH_RX_L3_PROTO_IDX_MASK	0x1F
#define AL_ETH_RX_SRC_VLAN_CNT_MASK	3
#define AL_ETH_RX_SRC_VLAN_CNT_SHIFT	5
#define AL_ETH_RX_L4_PROTO_IDX_MASK	0x1F
#define AL_ETH_RX_L4_PROTO_IDX_SHIFT	8

#define AL_ETH_RX_L3_OFFSET_SHIFT	9
#define AL_ETH_RX_L3_OFFSET_MASK	(0x7f << AL_ETH_RX_L3_OFFSET_SHIFT)
#define AL_ETH_RX_HASH_SHIFT		16
#define AL_ETH_RX_HASH_MASK		(0xffff 	<< AL_ETH_RX_HASH_SHIFT)

#define ETH_MAC_GEN_LED_CFG_BLINK_TIMER_VAL 5
#define ETH_MAC_GEN_LED_CFG_ACT_TIMER_VAL 7

/* Tx VID Table*/
#define AL_ETH_TX_VLAN_TABLE_UDMA_MASK		0xF
#define AL_ETH_TX_VLAN_TABLE_FWD_TO_MAC		(1 << 4)

/* tx gpd defines */
#define AL_ETH_TX_GPD_L3_PROTO_MASK		0x1f
#define AL_ETH_TX_GPD_L3_PROTO_SHIFT		0
#define AL_ETH_TX_GPD_L4_PROTO_MASK		0x1f
#define AL_ETH_TX_GPD_L4_PROTO_SHIFT		5
#define AL_ETH_TX_GPD_TUNNEL_CTRL_MASK		0x7
#define AL_ETH_TX_GPD_TUNNEL_CTRL_SHIFT		10
#define AL_ETH_TX_GPD_SRC_VLAN_CNT_MASK		0x3
#define AL_ETH_TX_GPD_SRC_VLAN_CNT_SHIFT	13
#define AL_ETH_TX_GPD_CAM_DATA_2_SHIFT		32
#define AL_ETH_TX_GPD_CAM_MASK_2_SHIFT		32
#define AL_ETH_TX_GPD_CAM_CTRL_VALID_SHIFT	31

/* tx gcp defines */
#define AL_ETH_TX_GCP_POLY_SEL_MASK		0x1
#define AL_ETH_TX_GCP_POLY_SEL_SHIFT		0
#define AL_ETH_TX_GCP_CRC32_BIT_COMP_MASK	0x1
#define AL_ETH_TX_GCP_CRC32_BIT_COMP_SHIFT	1
#define AL_ETH_TX_GCP_CRC32_BIT_SWAP_MASK	0x1
#define AL_ETH_TX_GCP_CRC32_BIT_SWAP_SHIFT	2
#define AL_ETH_TX_GCP_CRC32_BYTE_SWAP_MASK	0x1
#define AL_ETH_TX_GCP_CRC32_BYTE_SWAP_SHIFT	3
#define AL_ETH_TX_GCP_DATA_BIT_SWAP_MASK	0x1
#define AL_ETH_TX_GCP_DATA_BIT_SWAP_SHIFT	4
#define AL_ETH_TX_GCP_DATA_BYTE_SWAP_MASK	0x1
#define AL_ETH_TX_GCP_DATA_BYTE_SWAP_SHIFT	5
#define AL_ETH_TX_GCP_TRAIL_SIZE_MASK		0xF
#define AL_ETH_TX_GCP_TRAIL_SIZE_SHIFT		6
#define AL_ETH_TX_GCP_HEAD_SIZE_MASK		0xFF
#define AL_ETH_TX_GCP_HEAD_SIZE_SHIFT		16
#define AL_ETH_TX_GCP_HEAD_CALC_MASK		0x1
#define AL_ETH_TX_GCP_HEAD_CALC_SHIFT		24
#define AL_ETH_TX_GCP_MASK_POLARITY_MASK	0x1
#define AL_ETH_TX_GCP_MASK_POLARITY_SHIFT	25

#define AL_ETH_TX_GCP_OPCODE_1_MASK		0x3F
#define AL_ETH_TX_GCP_OPCODE_1_SHIFT		0
#define AL_ETH_TX_GCP_OPCODE_2_MASK		0x3F
#define AL_ETH_TX_GCP_OPCODE_2_SHIFT		6
#define AL_ETH_TX_GCP_OPCODE_3_MASK		0x3F
#define AL_ETH_TX_GCP_OPCODE_3_SHIFT		12
#define AL_ETH_TX_GCP_OPSEL_1_MASK		0xF
#define AL_ETH_TX_GCP_OPSEL_1_SHIFT		0
#define AL_ETH_TX_GCP_OPSEL_2_MASK		0xF
#define AL_ETH_TX_GCP_OPSEL_2_SHIFT		4
#define AL_ETH_TX_GCP_OPSEL_3_MASK		0xF
#define AL_ETH_TX_GCP_OPSEL_3_SHIFT		8
#define AL_ETH_TX_GCP_OPSEL_4_MASK		0xF
#define AL_ETH_TX_GCP_OPSEL_4_SHIFT		12

/*  Tx crc_chksum_replace defines */
#define L4_CHECKSUM_DIS_AND_L3_CHECKSUM_DIS     0x00
#define L4_CHECKSUM_DIS_AND_L3_CHECKSUM_EN      0x20
#define L4_CHECKSUM_EN_AND_L3_CHECKSUM_DIS      0x40
#define L4_CHECKSUM_EN_AND_L3_CHECKSUM_EN       0x60

/* rx gpd defines */
#define AL_ETH_RX_GPD_OUTER_L3_PROTO_MASK		0x1f
#define AL_ETH_RX_GPD_OUTER_L3_PROTO_SHIFT		(3 + 0)
#define AL_ETH_RX_GPD_OUTER_L4_PROTO_MASK		0x1f
#define AL_ETH_RX_GPD_OUTER_L4_PROTO_SHIFT		(3 + 8)
#define AL_ETH_RX_GPD_INNER_L3_PROTO_MASK		0x1f
#define AL_ETH_RX_GPD_INNER_L3_PROTO_SHIFT		(3 + 16)
#define AL_ETH_RX_GPD_INNER_L4_PROTO_MASK		0x1f
#define AL_ETH_RX_GPD_INNER_L4_PROTO_SHIFT		(3 + 24)
#define AL_ETH_RX_GPD_OUTER_PARSE_CTRL_MASK		0xFF
#define AL_ETH_RX_GPD_OUTER_PARSE_CTRL_SHIFT	32
#define AL_ETH_RX_GPD_INNER_PARSE_CTRL_MASK		0xFF
#define AL_ETH_RX_GPD_INNER_PARSE_CTRL_SHIFT	40
#define AL_ETH_RX_GPD_L3_PRIORITY_MASK			0xFF
#define AL_ETH_RX_GPD_L3_PRIORITY_SHIFT			48
#define AL_ETH_RX_GPD_L4_DST_PORT_LSB_MASK		0xFF
#define AL_ETH_RX_GPD_L4_DST_PORT_LSB_SHIFT		56
#define AL_ETH_RX_GPD_CAM_DATA_2_SHIFT			32
#define AL_ETH_RX_GPD_CAM_MASK_2_SHIFT			32
#define AL_ETH_RX_GPD_CAM_CTRL_VALID_SHIFT		31

#define AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L3_PROTO_IDX_OFFSET	(106 + 5)
#define AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L4_PROTO_IDX_OFFSET	(106 + 10)
#define AL_ETH_RX_GPD_PARSE_RESULT_INNER_L3_PROTO_IDX_OFFSET	(0 + 5)
#define AL_ETH_RX_GPD_PARSE_RESULT_INNER_L4_PROTO_IDX_OFFSET	(0 + 10)
#define AL_ETH_RX_GPD_PARSE_RESULT_OUTER_PARSE_CTRL			(106 + 4)
#define AL_ETH_RX_GPD_PARSE_RESULT_INNER_PARSE_CTRL			4
#define AL_ETH_RX_GPD_PARSE_RESULT_L3_PRIORITY			(106 + 13)
#define AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L4_DST_PORT_LSB	(106 + 65)

/* rx gcp defines */
#define AL_ETH_RX_GCP_POLY_SEL_MASK		0x1
#define AL_ETH_RX_GCP_POLY_SEL_SHIFT		0
#define AL_ETH_RX_GCP_CRC32_BIT_COMP_MASK	0x1
#define AL_ETH_RX_GCP_CRC32_BIT_COMP_SHIFT	1
#define AL_ETH_RX_GCP_CRC32_BIT_SWAP_MASK	0x1
#define AL_ETH_RX_GCP_CRC32_BIT_SWAP_SHIFT	2
#define AL_ETH_RX_GCP_CRC32_BYTE_SWAP_MASK      0x1
#define AL_ETH_RX_GCP_CRC32_BYTE_SWAP_SHIFT	3
#define AL_ETH_RX_GCP_DATA_BIT_SWAP_MASK	0x1
#define AL_ETH_RX_GCP_DATA_BIT_SWAP_SHIFT	4
#define AL_ETH_RX_GCP_DATA_BYTE_SWAP_MASK       0x1
#define AL_ETH_RX_GCP_DATA_BYTE_SWAP_SHIFT	5
#define AL_ETH_RX_GCP_TRAIL_SIZE_MASK		0xF
#define AL_ETH_RX_GCP_TRAIL_SIZE_SHIFT		6
#define AL_ETH_RX_GCP_HEAD_SIZE_MASK		0xFF
#define AL_ETH_RX_GCP_HEAD_SIZE_SHIFT		16
#define AL_ETH_RX_GCP_HEAD_CALC_MASK		0x1
#define AL_ETH_RX_GCP_HEAD_CALC_SHIFT		24
#define AL_ETH_RX_GCP_MASK_POLARITY_MASK	0x1
#define AL_ETH_RX_GCP_MASK_POLARITY_SHIFT	25

#define AL_ETH_RX_GCP_OPCODE_1_MASK		0x3F
#define AL_ETH_RX_GCP_OPCODE_1_SHIFT		0
#define AL_ETH_RX_GCP_OPCODE_2_MASK		0x3F
#define AL_ETH_RX_GCP_OPCODE_2_SHIFT		6
#define AL_ETH_RX_GCP_OPCODE_3_MASK		0x3F
#define AL_ETH_RX_GCP_OPCODE_3_SHIFT		12
#define AL_ETH_RX_GCP_OPSEL_1_MASK		0xF
#define AL_ETH_RX_GCP_OPSEL_1_SHIFT		0
#define AL_ETH_RX_GCP_OPSEL_2_MASK		0xF
#define AL_ETH_RX_GCP_OPSEL_2_SHIFT		4
#define AL_ETH_RX_GCP_OPSEL_3_MASK		0xF
#define AL_ETH_RX_GCP_OPSEL_3_SHIFT		8
#define AL_ETH_RX_GCP_OPSEL_4_MASK		0xF
#define AL_ETH_RX_GCP_OPSEL_4_SHIFT		12

#define AL_ETH_MDIO_DELAY_PERIOD	1 /* micro seconds to wait when polling mdio status */
#define AL_ETH_MDIO_DELAY_COUNT		150 /* number of times to poll */
#define AL_ETH_S2M_UDMA_COMP_COAL_TIMEOUT	200 /* Rx descriptors coalescing timeout in SB clocks */

#define AL_ETH_EPE_ENTRIES_NUM 26
static struct al_eth_epe_p_reg_entry al_eth_epe_p_regs[AL_ETH_EPE_ENTRIES_NUM] = {
	{ 0x0, 0x0, 0x0 },
	{ 0x0, 0x0, 0x1 },
	{ 0x0, 0x0, 0x2 },
	{ 0x0, 0x0, 0x3 },
	{ 0x18100, 0xFFFFF, 0x80000004 },
	{ 0x188A8, 0xFFFFF, 0x80000005 },
	{ 0x99100, 0xFFFFF, 0x80000006 },
	{ 0x98100, 0xFFFFF, 0x80000007 },
	{ 0x10800, 0x7FFFF, 0x80000008 },
	{ 0x20000, 0x73FFF, 0x80000009 },
	{ 0x20000, 0x70000, 0x8000000A },
	{ 0x186DD, 0x7FFFF, 0x8000000B },
	{ 0x30600, 0x7FF00, 0x8000000C },
	{ 0x31100, 0x7FF00, 0x8000000D },
	{ 0x32F00, 0x7FF00, 0x8000000E },
	{ 0x32900, 0x7FF00, 0x8000000F },
	{ 0x105DC, 0x7FFFF, 0x80010010 },
	{ 0x188E5, 0x7FFFF, 0x80000011 },
	{ 0x72000, 0x72000, 0x80000012 },
	{ 0x70000, 0x72000, 0x80000013 },
	{ 0x46558, 0x7FFFF, 0x80000001 },
	{ 0x18906, 0x7FFFF, 0x80000015 },
	{ 0x18915, 0x7FFFF, 0x80000016 },
	{ 0x31B00, 0x7FF00, 0x80000017 },
	{ 0x30400, 0x7FF00, 0x80000018 },
	{ 0x0, 0x0, 0x8000001F }
};


static struct al_eth_epe_control_entry al_eth_epe_control_table[AL_ETH_EPE_ENTRIES_NUM] = {
	{{ 0x2800000, 0x0, 0x0, 0x0, 0x1, 0x400000 }},
	{{ 0x280004C, 0x746000, 0xA46030, 0xE00000, 0x2, 0x400000 }},
	{{ 0x2800054, 0x746000, 0xA46030, 0x1600000, 0x2, 0x400000 }},
	{{ 0x280005C, 0x746000, 0xA46030, 0x1E00000, 0x2, 0x400000 }},
	{{ 0x2800042, 0xD42000, 0x0, 0x400000, 0x1010412, 0x400000 }},
	{{ 0x2800042, 0xD42000, 0x0, 0x400000, 0x1010412, 0x400000 }},
	{{ 0x2800042, 0xE42000, 0x0, 0x400000, 0x2020002, 0x400000 }},
	{{ 0x2800042, 0xE42000, 0x0, 0x400000, 0x2020002, 0x400000 }},
	{{ 0x280B046, 0x0, 0x6C1008, 0x0, 0x4, 0x406800 }},
	{{ 0x2800049, 0xF44060, 0x1744080, 0x14404, 0x6, 0x400011 }},
	{{ 0x2015049, 0xF44060, 0x1744080, 0x14404, 0x8080007, 0x400011 }},
	{{ 0x280B046, 0xF60040, 0x6C1004, 0x2800000, 0x6, 0x406811 }},
	{{ 0x2815042, 0x1F42000, 0x2042010, 0x1414460, 0x10100009, 0x40B800 }},
	{{ 0x2815042, 0x1F42000, 0x2042010, 0x800000, 0x10100009, 0x40B800 }},
	{{ 0x280B042, 0x0, 0x0, 0x430400, 0x4040009, 0x0 }},
	{{ 0x2815580, 0x0, 0x0, 0x0, 0x4040005, 0x0 }},
	{{ 0x280B000, 0x0, 0x0, 0x0, 0x1, 0x400000 }},
	{{ 0x2800040, 0x174E000, 0x0, 0x0, 0xE, 0x406800 }},
	{{ 0x280B000, 0x0, 0x0, 0x600000, 0x1, 0x406800 }},
	{{ 0x280B000, 0x0, 0x0, 0xE00000, 0x1, 0x406800 }},
	{{ 0x2800000, 0x0, 0x0, 0x0, 0x1, 0x400000 }},
	{{ 0x280B046, 0x0, 0x0, 0x2800000, 0x7, 0x400000 }},
	{{ 0x280B046, 0xF60040, 0x6C1004, 0x2800000, 0x6, 0x406811 }},
	{{ 0x2815042, 0x1F43028, 0x2000000, 0xC00000, 0x10100009, 0x40B800 }},
	{{ 0x2815400, 0x0, 0x0, 0x0, 0x4040005, 0x0 }},
	{{ 0x2800000, 0x0, 0x0, 0x0, 0x1, 0x400000 }}
};


#define AL_ETH_IS_1G_MAC(mac_mode) (((mac_mode) == AL_ETH_MAC_MODE_RGMII) || ((mac_mode) == AL_ETH_MAC_MODE_SGMII))
#define AL_ETH_IS_10G_MAC(mac_mode)	(((mac_mode) == AL_ETH_MAC_MODE_10GbE_Serial) ||	\
					((mac_mode) == AL_ETH_MAC_MODE_10G_SGMII) ||		\
					((mac_mode) == AL_ETH_MAC_MODE_SGMII_2_5G))
#define AL_ETH_IS_25G_MAC(mac_mode) ((mac_mode) == AL_ETH_MAC_MODE_KR_LL_25G)

static const char *al_eth_mac_mode_str(enum al_eth_mac_mode mode)
{
	switch(mode) {
	case AL_ETH_MAC_MODE_RGMII:
		return "RGMII";
	case AL_ETH_MAC_MODE_SGMII:
		return "SGMII";
	case AL_ETH_MAC_MODE_SGMII_2_5G:
		return "SGMII_2_5G";
	case AL_ETH_MAC_MODE_10GbE_Serial:
		return "KR";
        case AL_ETH_MAC_MODE_KR_LL_25G:
		return "KR_LL_25G";
	case AL_ETH_MAC_MODE_10G_SGMII:
		return "10G_SGMII";
	case AL_ETH_MAC_MODE_XLG_LL_40G:
		return "40G_LL";
	case AL_ETH_MAC_MODE_XLG_LL_50G:
		return "50G_LL";
	case AL_ETH_MAC_MODE_XLG_LL_25G:
		return "25G_LL";
	default:
		return "N/A";
	}
}

/**
 * change and wait udma state
 *
 * @param dma the udma to change its state
 * @param new_state
 *
 * @return 0 on success. otherwise on failure.
 */
static int al_udma_state_set_wait(struct al_udma *dma, enum al_udma_state new_state)
{
	enum al_udma_state state;
	enum al_udma_state expected_state = new_state;
	int count = 1000;
	int rc;

	rc = al_udma_state_set(dma, new_state);
	if (rc != 0) {
		al_warn("[%s] warn: failed to change state, error %d\n", dma->name, rc);
		return rc;
	}

	if ((new_state == UDMA_NORMAL) || (new_state == UDMA_DISABLE))
		expected_state = UDMA_IDLE;

	do {
		state = al_udma_state_get(dma);
		if (state == expected_state)
			break;
		al_udelay(1);
		if (count-- == 0) {
			al_warn("[%s] warn: dma state didn't change to %s\n",
				 dma->name, al_udma_states_name[new_state]);
			return -ETIMEDOUT;
		}
	} while (1);
	return 0;
}

static void al_eth_epe_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_epe_p_reg_entry *reg_entry,
		struct al_eth_epe_control_entry *control_entry)
{
	al_reg_write32(&adapter->ec_regs_base->epe_p[idx].comp_data, reg_entry->data);
	al_reg_write32(&adapter->ec_regs_base->epe_p[idx].comp_mask, reg_entry->mask);
	al_reg_write32(&adapter->ec_regs_base->epe_p[idx].comp_ctrl, reg_entry->ctrl);

	al_reg_write32(&adapter->ec_regs_base->msp_c[idx].p_comp_data, reg_entry->data);
	al_reg_write32(&adapter->ec_regs_base->msp_c[idx].p_comp_mask, reg_entry->mask);
	al_reg_write32(&adapter->ec_regs_base->msp_c[idx].p_comp_ctrl, reg_entry->ctrl);

	/*control table  0*/
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_6,
			control_entry->data[5]);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_2,
			control_entry->data[1]);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_3,
			control_entry->data[2]);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_4,
			control_entry->data[3]);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_5,
			control_entry->data[4]);
	al_reg_write32(&adapter->ec_regs_base->epe[0].act_table_data_1,
			control_entry->data[0]);

	/*control table 1*/
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_6,
			control_entry->data[5]);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_2,
			control_entry->data[1]);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_3,
			control_entry->data[2]);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_4,
			control_entry->data[3]);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_5,
			control_entry->data[4]);
	al_reg_write32(&adapter->ec_regs_base->epe[1].act_table_data_1,
			control_entry->data[0]);
}

static void al_eth_epe_init(struct al_hal_eth_adapter *adapter)
{
	int idx;

	if (adapter->enable_rx_parser == 0) {
		al_dbg("eth [%s]: disable rx parser\n", adapter->name);

		al_reg_write32(&adapter->ec_regs_base->epe[0].res_def, 0x08000000);
		al_reg_write32(&adapter->ec_regs_base->epe[0].res_in, 0x7);

		al_reg_write32(&adapter->ec_regs_base->epe[1].res_def, 0x08000000);
		al_reg_write32(&adapter->ec_regs_base->epe[1].res_in, 0x7);

		return;
	}
	al_dbg("eth [%s]: enable rx parser\n", adapter->name);
	for (idx = 0; idx < AL_ETH_EPE_ENTRIES_NUM; idx++)
		al_eth_epe_entry_set(adapter, idx, &al_eth_epe_p_regs[idx], &al_eth_epe_control_table[idx]);

	al_reg_write32(&adapter->ec_regs_base->epe[0].res_def, 0x08000080);
	al_reg_write32(&adapter->ec_regs_base->epe[0].res_in, 0x7);

	al_reg_write32(&adapter->ec_regs_base->epe[1].res_def, 0x08000080);
	al_reg_write32(&adapter->ec_regs_base->epe[1].res_in, 0);

	/* header length as function of 4 bits value, for GRE, when C bit is set, the header len should be increase by 4*/
	al_reg_write32(&adapter->ec_regs_base->epe_h[8].hdr_len, (4 << 16) | 4);

	/* select the outer information when writing the rx descriptor (l3 protocol index etc) */
	al_reg_write32(&adapter->ec_regs_base->rfw.meta, EC_RFW_META_L3_LEN_CALC);

	al_reg_write32(&adapter->ec_regs_base->rfw.checksum, EC_RFW_CHECKSUM_HDR_SEL);
}

/**
 * read 40G MAC registers (indirect access)
 *
 * @param adapter pointer to the private structure
 * @param reg_addr address in the an registers
 *
 * @return the register value
 */
static uint32_t al_eth_40g_mac_reg_read(
			struct al_hal_eth_adapter *adapter,
			uint32_t reg_addr)
{
	uint32_t val;

	/* indirect access */
	al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, reg_addr);
	val = al_reg_read32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data);

	al_dbg("[%s]: %s - reg %d. val 0x%x",
	       adapter->name, __func__, reg_addr, val);

	return val;
}

/**
 * write 40G MAC registers (indirect access)
 *
 * @param adapter pointer to the private structure
 * @param reg_addr address in the an registers
 * @param reg_data value to write to the register
 *
 */
static void al_eth_40g_mac_reg_write(
			struct al_hal_eth_adapter *adapter,
			uint32_t reg_addr,
			uint32_t reg_data)
{
	/* indirect access */
	al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, reg_addr);
	al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data, reg_data);

	al_dbg("[%s]: %s - reg %d. val 0x%x",
	       adapter->name, __func__, reg_addr, reg_data);
}

/**
 * read 40G PCS registers (indirect access)
 *
 * @param adapter pointer to the private structure
 * @param reg_addr address in the an registers
 *
 * @return the register value
 */
static uint32_t al_eth_40g_pcs_reg_read(
			struct al_hal_eth_adapter *adapter,
			uint32_t reg_addr)
{
	uint32_t val;

	/* indirect access */
	al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, reg_addr);
	val = al_reg_read32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data);

	al_dbg("[%s]: %s - reg %d. val 0x%x",
	       adapter->name, __func__, reg_addr, val);

	return val;
}

/**
 * write 40G PCS registers (indirect access)
 *
 * @param adapter pointer to the private structure
 * @param reg_addr address in the an registers
 * @param reg_data value to write to the register
 *
 */
static void al_eth_40g_pcs_reg_write(
			struct al_hal_eth_adapter *adapter,
			uint32_t reg_addr,
			uint32_t reg_data)
{
	/* indirect access */
	al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, reg_addr);
	al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data, reg_data);

	al_dbg("[%s]: %s - reg %d. val 0x%x",
	       adapter->name, __func__, reg_addr, reg_data);
}

/*****************************API Functions  **********************************/
/*adapter management */
/**
 * initialize the ethernet adapter's DMA
 */
int al_eth_adapter_init(struct al_hal_eth_adapter *adapter, struct al_eth_adapter_params *params)
{
	struct al_udma_params udma_params;
	struct al_udma_m2s_pkt_len_conf conf;
	int i;
	uint32_t reg;
	int rc;

	al_dbg("eth [%s]: initialize controller's UDMA. id = %d\n", params->name, params->udma_id);
	al_dbg("eth [%s]: UDMA base regs: %p\n", params->name, params->udma_regs_base);
	al_dbg("eth [%s]: EC base regs: %p\n", params->name, params->ec_regs_base);
	al_dbg("eth [%s]: MAC base regs: %p\n", params->name, params->mac_regs_base);
	al_dbg("eth [%s]: enable_rx_parser: %x\n", params->name, params->enable_rx_parser);

	adapter->name = params->name;
	adapter->rev_id = params->rev_id;
	adapter->udma_id = params->udma_id;
	adapter->udma_regs_base = params->udma_regs_base;
	adapter->ec_regs_base = (struct al_ec_regs __iomem*)params->ec_regs_base;
	adapter->mac_regs_base = (struct al_eth_mac_regs __iomem*)params->mac_regs_base;
	adapter->unit_regs = (struct unit_regs __iomem *)params->udma_regs_base;
	adapter->enable_rx_parser = params->enable_rx_parser;
	adapter->serdes_lane = params->serdes_lane;
	adapter->ec_ints_base = (uint8_t __iomem *)adapter->ec_regs_base + 0x1c00;
	adapter->mac_ints_base = (struct interrupt_controller_ctrl __iomem *)
			((uint8_t __iomem *)adapter->mac_regs_base + 0x800);

	/* initialize Tx udma */
	udma_params.udma_regs_base = adapter->unit_regs;
	udma_params.type = UDMA_TX;
	udma_params.num_of_queues = AL_ETH_UDMA_TX_QUEUES;
	udma_params.name = "eth tx";
	rc = al_udma_init(&adapter->tx_udma, &udma_params);

	if (rc != 0) {
		al_err("failed to initialize %s, error %d\n",
			 udma_params.name, rc);
		return rc;
	}
	rc = al_udma_state_set_wait(&adapter->tx_udma, UDMA_NORMAL);
	if (rc != 0) {
		al_err("[%s]: failed to change state, error %d\n",
			 udma_params.name, rc);
		return rc;
	}
	/* initialize Rx udma */
	udma_params.udma_regs_base = adapter->unit_regs;
	udma_params.type = UDMA_RX;
	udma_params.num_of_queues = AL_ETH_UDMA_RX_QUEUES;
	udma_params.name = "eth rx";
	rc = al_udma_init(&adapter->rx_udma, &udma_params);

	if (rc != 0) {
		al_err("failed to initialize %s, error %d\n",
			 udma_params.name, rc);
		return rc;
	}

	rc = al_udma_state_set_wait(&adapter->rx_udma, UDMA_NORMAL);
	if (rc != 0) {
		al_err("[%s]: failed to change state, error %d\n",
			 udma_params.name, rc);
		return rc;
	}
	al_dbg("eth [%s]: controller's UDMA successfully initialized\n",
		 params->name);

	/* set max packet size to 1M (for TSO) */
	conf.encode_64k_as_zero = AL_TRUE;
	conf.max_pkt_size = 0xfffff;
	al_udma_m2s_packet_size_cfg_set(&adapter->tx_udma, &conf);

	/* set m2s (tx) max descriptors to max data buffers number and one for
	 * meta descriptor
	 */
	al_udma_m2s_max_descs_set(&adapter->tx_udma, AL_ETH_PKT_MAX_BUFS + 1);

	/* set s2m (rx) max descriptors to max data buffers */
	al_udma_s2m_max_descs_set(&adapter->rx_udma, AL_ETH_PKT_MAX_BUFS);

	/* set s2m burst lenght when writing completion descriptors to 64 bytes
	 */
	al_udma_s2m_compl_desc_burst_config(&adapter->rx_udma, 64);

	/* if pointer to ec regs provided, then init the tx meta cache of this udma*/
	if (adapter->ec_regs_base != NULL) {
		// INIT TX CACHE TABLE:
		for (i = 0; i < 4; i++) {
			al_reg_write32(&adapter->ec_regs_base->tso.cache_table_addr, i + (adapter->udma_id * 4));
			al_reg_write32(&adapter->ec_regs_base->tso.cache_table_data_1, 0x00000000);
			al_reg_write32(&adapter->ec_regs_base->tso.cache_table_data_2, 0x00000000);
			al_reg_write32(&adapter->ec_regs_base->tso.cache_table_data_3, 0x00000000);
			al_reg_write32(&adapter->ec_regs_base->tso.cache_table_data_4, 0x00000000);
		}
	}
	// only udma 0 allowed to init ec
	if (adapter->udma_id != 0) {
		return 0;
	}
	/* enable Ethernet controller: */
	/* enable internal machines*/
	al_reg_write32(&adapter->ec_regs_base->gen.en, 0xffffffff);
	al_reg_write32(&adapter->ec_regs_base->gen.fifo_en, 0xffffffff);

	if (adapter->rev_id > AL_ETH_REV_ID_0) {
		/* enable A0 descriptor structure */
		al_reg_write32_masked(&adapter->ec_regs_base->gen.en_ext,
				      EC_GEN_EN_EXT_CACHE_WORD_SPLIT,
				      EC_GEN_EN_EXT_CACHE_WORD_SPLIT);

		/* use mss value in the descriptor */
		al_reg_write32(&adapter->ec_regs_base->tso.cfg_add_0,
						EC_TSO_CFG_ADD_0_MSS_SEL);

		/* enable tunnel TSO */
		al_reg_write32(&adapter->ec_regs_base->tso.cfg_tunnel,
						(EC_TSO_CFG_TUNNEL_EN_TUNNEL_TSO |
						 EC_TSO_CFG_TUNNEL_EN_UDP_CHKSUM |
						 EC_TSO_CFG_TUNNEL_EN_UDP_LEN |
						 EC_TSO_CFG_TUNNEL_EN_IPV6_PLEN |
						 EC_TSO_CFG_TUNNEL_EN_IPV4_CHKSUM |
						 EC_TSO_CFG_TUNNEL_EN_IPV4_IDEN |
						 EC_TSO_CFG_TUNNEL_EN_IPV4_TLEN));
	}

	/* swap input byts from MAC RX */
	al_reg_write32(&adapter->ec_regs_base->mac.gen, 0x00000001);
	/* swap output bytes to MAC TX*/
	al_reg_write32(&adapter->ec_regs_base->tmi.tx_cfg, EC_TMI_TX_CFG_EN_FWD_TO_RX|EC_TMI_TX_CFG_SWAP_BYTES);

	/* TODO: check if we need this line*/
	al_reg_write32(&adapter->ec_regs_base->tfw_udma[0].fwd_dec, 0x000003fb);

	/* RFW configuration: default 0 */
	al_reg_write32(&adapter->ec_regs_base->rfw_default[0].opt_1, 0x00000001);

	/* VLAN table address*/
	al_reg_write32(&adapter->ec_regs_base->rfw.vid_table_addr, 0x00000000);
	/* VLAN table data*/
	al_reg_write32(&adapter->ec_regs_base->rfw.vid_table_data, 0x00000000);
	/* HASH config (select toeplitz and bits 7:0 of the thash result, enable
	 * symmetric hash) */
	al_reg_write32(&adapter->ec_regs_base->rfw.thash_cfg_1,
			EC_RFW_THASH_CFG_1_ENABLE_IP_SWAP |
			EC_RFW_THASH_CFG_1_ENABLE_PORT_SWAP);

	al_eth_epe_init(adapter);

	/* disable TSO padding and use mac padding instead */
	reg = al_reg_read32(&adapter->ec_regs_base->tso.in_cfg);
	reg &= ~0x7F00; /*clear bits 14:8 */
	al_reg_write32(&adapter->ec_regs_base->tso.in_cfg, reg);

	return 0;
}

/*****************************API Functions  **********************************/
/*adapter management */
/**
 * enable the ec and mac interrupts
 */
int al_eth_ec_mac_ints_config(struct al_hal_eth_adapter *adapter)
{

	al_dbg("eth [%s]: enable ethernet and mac interrupts\n", adapter->name);

	// only udma 0 allowed to init ec
	if (adapter->udma_id != 0)
		return -EPERM;

	/* enable mac ints */
	al_iofic_config(adapter->ec_ints_base, AL_INT_GROUP_A,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->ec_ints_base, AL_INT_GROUP_B,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->ec_ints_base, AL_INT_GROUP_C,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->ec_ints_base, AL_INT_GROUP_D,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);

	/* unmask MAC int */
	al_iofic_unmask(adapter->ec_ints_base, AL_INT_GROUP_A, 8);

	/* enable ec interrupts */
	al_iofic_config(adapter->mac_ints_base, AL_INT_GROUP_A,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->mac_ints_base, AL_INT_GROUP_B,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->mac_ints_base, AL_INT_GROUP_C,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);
	al_iofic_config(adapter->mac_ints_base, AL_INT_GROUP_D,
		INT_CONTROL_GRP_SET_ON_POSEDGE | INT_CONTROL_GRP_CLEAR_ON_READ);

	/* eee active */
	al_iofic_unmask(adapter->mac_ints_base, AL_INT_GROUP_B, AL_BIT(14));

	al_iofic_unmask(adapter->unit_regs, AL_INT_GROUP_D, AL_BIT(11));
	return 0;
}

/**
 * ec and mac interrupt service routine
 * read and print asserted interrupts
 *
 * @param adapter pointer to the private structure
 *
 * @return 0 on success. otherwise on failure.
 */
int al_eth_ec_mac_isr(struct al_hal_eth_adapter *adapter)
{
	uint32_t cause;
	al_dbg("[%s]: ethernet interrupts handler\n", adapter->name);

	// only udma 0 allowed to init ec
	if (adapter->udma_id != 0)
		return -EPERM;

	/* read ec cause */
	cause = al_iofic_read_cause(adapter->ec_ints_base, AL_INT_GROUP_A);
	al_dbg("[%s]: ethernet group A cause 0x%08x\n", adapter->name, cause);
	if (cause & 1)
	{
		cause = al_iofic_read_cause(adapter->mac_ints_base, AL_INT_GROUP_A);
		al_dbg("[%s]: mac group A cause 0x%08x\n", adapter->name, cause);

		cause = al_iofic_read_cause(adapter->mac_ints_base, AL_INT_GROUP_B);
		al_dbg("[%s]: mac group B cause 0x%08x\n", adapter->name, cause);

		cause = al_iofic_read_cause(adapter->mac_ints_base, AL_INT_GROUP_C);
		al_dbg("[%s]: mac group C cause 0x%08x\n", adapter->name, cause);

		cause = al_iofic_read_cause(adapter->mac_ints_base, AL_INT_GROUP_D);
		al_dbg("[%s]: mac group D cause 0x%08x\n", adapter->name, cause);
	}
	cause = al_iofic_read_cause(adapter->ec_ints_base, AL_INT_GROUP_B);
	al_dbg("[%s]: ethernet group B cause 0x%08x\n", adapter->name, cause);
	cause = al_iofic_read_cause(adapter->ec_ints_base, AL_INT_GROUP_C);
	al_dbg("[%s]: ethernet group C cause 0x%08x\n", adapter->name, cause);
	cause = al_iofic_read_cause(adapter->ec_ints_base, AL_INT_GROUP_D);
	al_dbg("[%s]: ethernet group D cause 0x%08x\n", adapter->name, cause);

	return 0;
}

/**
 * stop the DMA of the ethernet adapter
 */
int al_eth_adapter_stop(struct al_hal_eth_adapter *adapter)
{
	int rc;

	al_dbg("eth [%s]: stop controller's UDMA\n", adapter->name);

	/* disable Tx dma*/
	rc = al_udma_state_set_wait(&adapter->tx_udma, UDMA_DISABLE);
	if (rc != 0) {
		al_warn("[%s] warn: failed to change state, error %d\n",
			 adapter->tx_udma.name, rc);
		return rc;
	}

	al_dbg("eth [%s]: controller's TX UDMA stopped\n",
		 adapter->name);
	/* disable Rx dma*/
	rc = al_udma_state_set_wait(&adapter->rx_udma, UDMA_DISABLE);
	if (rc != 0) {
		al_warn("[%s] warn: failed to change state, error %d\n",
			 adapter->rx_udma.name, rc);
		return rc;
	}

	al_dbg("eth [%s]: controller's RX UDMA stopped\n",
		 adapter->name);
	return 0;
}

int al_eth_adapter_reset(struct al_hal_eth_adapter *adapter)
{
	al_dbg("eth [%s]: reset controller's UDMA\n", adapter->name);

	return -EPERM;
}

/* Q management */
/**
 * Configure and enable a queue ring
 */
int al_eth_queue_config(struct al_hal_eth_adapter *adapter, enum al_udma_type type, uint32_t qid,
			     struct al_udma_q_params *q_params)
{
	struct al_udma *udma;
	int rc;

	al_dbg("eth [%s]: config UDMA %s queue %d\n", adapter->name,
		 type == UDMA_TX ? "Tx" : "Rx", qid);

	if (type == UDMA_TX) {
		udma = &adapter->tx_udma;
	} else {
		udma = &adapter->rx_udma;
	}

	q_params->adapter_rev_id = adapter->rev_id;

	rc = al_udma_q_init(udma, qid, q_params);

	if (rc)
		return rc;

	if (type == UDMA_RX) {
		rc = al_udma_s2m_q_compl_coal_config(&udma->udma_q[qid],
				AL_TRUE, AL_ETH_S2M_UDMA_COMP_COAL_TIMEOUT);

		al_assert(q_params->cdesc_size <= 32);

		if (q_params->cdesc_size > 16)
			al_reg_write32_masked(&adapter->ec_regs_base->rfw.out_cfg,
					EC_RFW_OUT_CFG_META_CNT_MASK, 2);
	}
	return rc;
}

int al_eth_queue_enable(struct al_hal_eth_adapter *adapter __attribute__((__unused__)),
			enum al_udma_type type __attribute__((__unused__)),
			uint32_t qid __attribute__((__unused__)))
{
	return -EPERM;
}
int al_eth_queue_disable(struct al_hal_eth_adapter *adapter __attribute__((__unused__)),
			 enum al_udma_type type __attribute__((__unused__)),
			 uint32_t qid __attribute__((__unused__)))
{
	return -EPERM;
}

/* MAC layer */
int al_eth_rx_pkt_limit_config(struct al_hal_eth_adapter *adapter, uint32_t min_rx_len, uint32_t max_rx_len)
{
	al_assert(max_rx_len <= AL_ETH_MAX_FRAME_LEN);

	/* EC minimum packet length [bytes] in RX */
	al_reg_write32(&adapter->ec_regs_base->mac.min_pkt, min_rx_len);
	/* EC maximum packet length [bytes] in RX */
	al_reg_write32(&adapter->ec_regs_base->mac.max_pkt, max_rx_len);

	if (adapter->rev_id > AL_ETH_REV_ID_2) {
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, min_rx_len);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, max_rx_len);
	}

	/* configure the MAC's max rx length, add 16 bytes so the packet get
	 * trimmed by the EC/Async_fifo rather by the MAC
	*/
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode))
		al_reg_write32(&adapter->mac_regs_base->mac_1g.frm_len, max_rx_len + 16);
	else if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode))
		/* 10G MAC control register  */
		al_reg_write32(&adapter->mac_regs_base->mac_10g.frm_len, (max_rx_len + 16));
	else
		al_eth_40g_mac_reg_write(adapter, ETH_MAC_GEN_V3_MAC_40G_FRM_LENGTH_ADDR, (max_rx_len + 16));

	return 0;
}

/* configure the mac media type. */
int al_eth_mac_config(struct al_hal_eth_adapter *adapter, enum al_eth_mac_mode mode)
{
	switch(mode) {
	case AL_ETH_MAC_MODE_RGMII:
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x40003210);

		/* 1G MAC control register */
		/* bit[0]  - TX_ENA - zeroed by default. Should be asserted by al_eth_mac_start
		 * bit[1]  - RX_ENA - zeroed by default. Should be asserted by al_eth_mac_start
		 * bit[3]  - ETH_SPEED - zeroed to enable 10/100 Mbps Ethernet
		 * bit[4]  - PROMIS_EN - asserted to enable MAC promiscuous mode
		 * bit[23] - CNTL_FRM-ENA - asserted to enable control frames
		 * bit[24] - NO_LGTH_CHECK - asserted to disable length checks, which is done in the controller
		 */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.cmd_cfg, 0x01800010);

		/* RX_SECTION_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_section_empty, 0x00000000);
		/* RX_SECTION_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_section_full, 0x0000000c); /* must be larger than almost empty */
		/* RX_ALMOST_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_almost_empty, 0x00000008);
		/* RX_ALMOST_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_almost_full, 0x00000008);


		/* TX_SECTION_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_section_empty, 0x00000008); /* 8 ? */
		/* TX_SECTION_FULL, 0 - store and forward, */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_section_full, 0x0000000c);
		/* TX_ALMOST_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_almost_empty, 0x00000008);
		/* TX_ALMOST_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_almost_full, 0x00000008);

		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000000);

		/* 1G MACSET 1G */
		/* taking sel_1000/sel_10 inputs from rgmii PHY, and not from register.
		 * disabling magic_packets detection in mac */
		al_reg_write32(&adapter->mac_regs_base->gen.mac_1g_cfg, 0x00000002);
		/* RGMII set 1G */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel, ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00063910);
		al_reg_write32(&adapter->mac_regs_base->gen.rgmii_sel, 0xF);
		break;
	case AL_ETH_MAC_MODE_SGMII:
		if (adapter->rev_id > AL_ETH_REV_ID_2) {
			/* configure and enable the ASYNC FIFO between the MACs and the EC */
			/* TX min packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
			/* TX max packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
			/* TX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
			/* TX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00030020);
			/* TX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000121);
			/* RX min packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
			/* RX max packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
			/* RX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00030020);
			/* RX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
			/* RX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000212);
			/* V3 additional MAC selection */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000001);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000000);
			/* ASYNC FIFO ENABLE */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);
			/* Timestamp_configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.spare,
					ETH_MAC_GEN_V3_SPARE_CHICKEN_DISABLE_TIMESTAMP_STRETCH);
		}

		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x40053210);

		/* 1G MAC control register */
		/* bit[0]  - TX_ENA - zeroed by default. Should be asserted by al_eth_mac_start
		 * bit[1]  - RX_ENA - zeroed by default. Should be asserted by al_eth_mac_start
		 * bit[3]  - ETH_SPEED - zeroed to enable 10/100 Mbps Ethernet
		 * bit[4]  - PROMIS_EN - asserted to enable MAC promiscuous mode
		 * bit[23] - CNTL_FRM-ENA - asserted to enable control frames
		 * bit[24] - NO_LGTH_CHECK - asserted to disable length checks, which is done in the controller
		 */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.cmd_cfg, 0x01800010);

		/* RX_SECTION_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_section_empty, 0x00000000);
		/* RX_SECTION_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_section_full, 0x0000000c); /* must be larger than almost empty */
		/* RX_ALMOST_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_almost_empty, 0x00000008);
		/* RX_ALMOST_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.rx_almost_full, 0x00000008);


		/* TX_SECTION_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_section_empty, 0x00000008); /* 8 ? */
		/* TX_SECTION_FULL, 0 - store and forward, */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_section_full, 0x0000000c);
		/* TX_ALMOST_EMPTY,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_almost_empty, 0x00000008);
		/* TX_ALMOST_FULL,  */
		al_reg_write32(&adapter->mac_regs_base->mac_1g.tx_almost_full, 0x00000008);

		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x000000c0);

		/* 1G MACSET 1G */
		/* taking sel_1000/sel_10 inputs from rgmii_converter, and not from register.
		 * disabling magic_packets detection in mac */
		al_reg_write32(&adapter->mac_regs_base->gen.mac_1g_cfg, 0x00000002);
		/* SerDes configuration */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel, ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00063910);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401);

		// FAST AN -- Testing only
#ifdef AL_HAL_ETH_FAST_AN
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr, 0x00000012);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data, 0x00000040);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr, 0x00000013);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data, 0x00000000);
#endif

		/* Setting PCS i/f mode to SGMII (instead of default 1000Base-X) */
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr, 0x00000014);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data, 0x0000000b);
		/* setting dev_ability to have speed of 1000Mb, [11:10] = 2'b10 */
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr, 0x00000004);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data, 0x000009A0);
		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;

	case AL_ETH_MAC_MODE_SGMII_2_5G:
		if (adapter->rev_id > AL_ETH_REV_ID_2) {
			/* configure and enable the ASYNC FIFO between the MACs and the EC */
			/* TX min packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
			/* TX max packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
			/* TX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
			/* TX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00030020);
			/* TX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
			/* RX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00030020);
			/* RX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
			/* RX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000012);
			/* V3 additional MAC selection */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000050);
			/* ASYNC FIFO ENABLE */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);
		}

		/* MAC register file */
		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022830);
		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000001);
		al_reg_write32(&adapter->mac_regs_base->mac_10g.if_mode, 0x00000028);
		al_reg_write32(&adapter->mac_regs_base->mac_10g.control, 0x00001140);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
				      ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00063910);
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x40003210);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401);

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;

	case AL_ETH_MAC_MODE_10GbE_Serial:
		if (adapter->rev_id > AL_ETH_REV_ID_2) {
			/* configure and enable the ASYNC FIFO between the MACs and the EC */
			/* TX min packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
			/* TX max packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
			/* TX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
			/* TX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00030020);
			/* TX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
			/* RX min packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
			/* RX max packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
			/* RX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00030020);
			/* RX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
			/* RX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000012);
			/* V3 additional MAC selection */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000050);
			/* ASYNC FIFO ENABLE */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);
		}

		/* MAC register file */
		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022810);
		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000005);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_cfg, 0x000001F1);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
					~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00073910);
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10003210);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401);

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;

	case AL_ETH_MAC_MODE_KR_LL_25G:
			/* select 25G SERDES lane 0 and lane 1 */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl, 0x0002110f);

		if (adapter->rev_id > AL_ETH_REV_ID_2) {
			/* configure and enable the ASYNC FIFO between the MACs and the EC */
			/* TX min packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
			/* TX max packet size */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
			/* TX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
			/* TX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00030020);
			/* TX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
			/* RX min packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
			/* RX max packet size */
			/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
			/* RX input bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00030020);
			/* RX output bus configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
			/* RX Valid/ready configuration */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000012);
			/* V3 additional MAC selection */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
			al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x000000a0);
			/* ASYNC FIFO ENABLE */
			al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);
		}

		/* MAC register file */
		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022810);
		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000005);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_cfg, 0x000001F1);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */

		if (adapter->serdes_lane == 0)
			al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
					~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00073910);
		else
			al_reg_write32(&adapter->mac_regs_base->gen.mux_sel, 0x00077910);

		if (adapter->serdes_lane == 0)
			al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10003210);
		else
			al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10000101);

		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401);

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);

		if (adapter->serdes_lane == 1)
			al_reg_write32(&adapter->mac_regs_base->gen.los_sel, 0x101);


		break;

	case AL_ETH_MAC_MODE_10G_SGMII:
		/* MAC register file */
		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022810);

		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000001);

		al_reg_write32(&adapter->mac_regs_base->mac_10g.if_mode, 0x0000002b);
		al_reg_write32(&adapter->mac_regs_base->mac_10g.control, 0x00009140);
		// FAST AN -- Testing only
#ifdef AL_HAL_ETH_FAST_AN
		al_reg_write32(&adapter->mac_regs_base->mac_10g.link_timer_lo, 0x00000040);
		al_reg_write32(&adapter->mac_regs_base->mac_10g.link_timer_hi, 0x00000000);
#endif

		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
					~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00063910);
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x40003210);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401);

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;

	case AL_ETH_MAC_MODE_XLG_LL_40G:
		/* configure and enable the ASYNC FIFO between the MACs and the EC */
		/* TX min packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
		/* TX max packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
		/* TX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
		/* TX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00010040);
		/* TX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
		/* RX min packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
		/* RX max packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
		/* RX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00010040);
		/* RX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
		/* RX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000112);
		/* V3 additional MAC selection */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000010);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000000);
		/* ASYNC FIFO ENABLE */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);

		/* cmd_cfg */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, 0x00000008);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data, 0x01022810);
		/* speed_ability //Read-Only */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, 0x00000008); */
		/* 40G capable */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data, 0x00000002); */

#ifdef AL_HAL_ETH_FAST_AN
		al_eth_40g_pcs_reg_write(adapter, 0x00010004, 1023);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0xA04c);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0x204c);

#endif

		/* XAUI MAC control register */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
					~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x06883910);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x0000040f);

		/* MAC register file */
/*		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022810); */
		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000005);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_cfg, 0x000001F1);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */
/*		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel, ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00073910); *//* XLG_LL_40G change */
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10003210);
/*		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0); *//* XLG_LL_40G change */
/*		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401); *//* XLG_LL_40G change */

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;

	case AL_ETH_MAC_MODE_XLG_LL_25G:
		/* xgmii_mode: 0=xlgmii, 1=xgmii */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, 0x0080);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data, 0x00000001);

		/* configure and enable the ASYNC FIFO between the MACs and the EC */
		/* TX min packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
		/* TX max packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
		/* TX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
		/* TX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00010040);
		/* TX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
		/* RX min packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
		/* RX max packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
		/* RX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00010040);
		/* RX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
		/* RX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000112);
		/* V3 additional MAC selection */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000010);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000000);
		/* ASYNC FIFO ENABLE */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);

		/* cmd_cfg */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, 0x00000008);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data, 0x01022810);
		/* speed_ability //Read-Only */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, 0x00000008); */
		/* 40G capable */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data, 0x00000002); */

		/* select the 25G serdes for lanes 0/1 */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl, 0x0002110f);
		/* configure the PCS to work with 2 lanes */
		/* configure which two of the 4 PCS Lanes (VL) are combined to one RXLAUI lane */
		/* use VL 0-2 for RXLAUI lane 0, use VL 1-3 for RXLAUI lane 1 */
		al_eth_40g_pcs_reg_write(adapter, 0x00010008, 0x0d80);
		/* configure the PCS to work 32 bit interface */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_cfg, 0x00440000);

		/* disable MLD and move to clause 49 PCS: */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, 0xE);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data, 0);

#ifdef AL_HAL_ETH_FAST_AN
		al_eth_40g_pcs_reg_write(adapter, 0x00010004, 1023);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0xA04c);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0x204c);
#endif

		/* XAUI MAC control register */
		if (adapter->serdes_lane == 0)
			al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel,
					      ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x06883910);
		else
			al_reg_write32(&adapter->mac_regs_base->gen.mux_sel, 0x06803950);

		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x0000040f);

		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000005);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_cfg, 0x000001F1);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
		if (adapter->serdes_lane == 0)
			al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10003210);
		else
			al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10000101);

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
					ETH_MAC_GEN_LED_CFG_SEL_MASK,
					ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);

		if (adapter->serdes_lane == 1)
			al_reg_write32(&adapter->mac_regs_base->gen.los_sel, 0x101);

		break;

	case AL_ETH_MAC_MODE_XLG_LL_50G:

		/* configure and enable the ASYNC FIFO between the MACs and the EC */
		/* TX min packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_1, 0x00000010);
		/* TX max packet size */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_2, 0x00002800);
		/* TX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_3, 0x00000080);
		/* TX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_4, 0x00010040);
		/* TX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.tx_afifo_cfg_5, 0x00000023);
		/* RX min packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_1, 0x00000040); */
		/* RX max packet size */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_2, 0x00002800); */
		/* RX input bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_3, 0x00010040);
		/* RX output bus configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_4, 0x00000080);
		/* RX Valid/ready configuration */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.rx_afifo_cfg_5, 0x00000112);
		/* V3 additional MAC selection */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_sel, 0x00000010);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_cfg, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_10g_ll_ctrl, 0x00000000);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg, 0x00000000);
		/* ASYNC FIFO ENABLE */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.afifo_ctrl, 0x00003333);

		/* cmd_cfg */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_addr, 0x00000008);
		al_reg_write32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_data, 0x01022810);
		/* speed_ability //Read-Only */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_addr, 0x00000008); */
		/* 40G capable */
		/* al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_data, 0x00000002); */

		/* select the 25G serdes for lanes 0/1 */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl, 0x0382110F);
		/* configure the PCS to work with 2 lanes */
		/* configure which two of the 4 PCS Lanes (VL) are combined to one RXLAUI lane */
		/* use VL 0-2 for RXLAUI lane 0, use VL 1-3 for RXLAUI lane 1 */
		al_eth_40g_pcs_reg_write(adapter, 0x00010008, 0x0d81);
		/* configure the PCS to work 32 bit interface */
		al_reg_write32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_cfg, 0x00440000);


#ifdef AL_HAL_ETH_FAST_AN
		al_eth_40g_pcs_reg_write(adapter, 0x00010004, 1023);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0xA04c);
		al_eth_40g_pcs_reg_write(adapter, 0x00000000, 0x204c);
#endif

		/* XAUI MAC control register */
		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel, ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x06883910);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x0000040f);

		/* MAC register file */
/*		al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, 0x01022810); */
		/* XAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.cfg, 0x00000005);
		/* RXAUI MAC control register */
		al_reg_write32(&adapter->mac_regs_base->gen.rxaui_cfg, 0x00000007);
		al_reg_write32(&adapter->mac_regs_base->gen.sd_cfg, 0x000001F1);
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_32_64, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_out, 0x00000401); */
		al_reg_write32(&adapter->mac_regs_base->gen.xgmii_dfifo_64_32, 0x00000401);
/*		al_reg_write32(&adapter->mac_regs_base->gen.mac_res_1_in, 0x00000401); */
/*		al_reg_write32_masked(&adapter->mac_regs_base->gen.mux_sel, ~ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, 0x00073910); *//* XLG_LL_40G change */
		al_reg_write32(&adapter->mac_regs_base->gen.clk_cfg, 0x10003210);
/*		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x000004f0); *//* XLG_LL_40G change */
/*		al_reg_write32(&adapter->mac_regs_base->gen.sd_fifo_ctrl, 0x00000401); *//* XLG_LL_40G change */

		al_reg_write32_masked(&adapter->mac_regs_base->gen.led_cfg,
				      ETH_MAC_GEN_LED_CFG_SEL_MASK,
				      ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG);
		break;


	default:
		al_err("Eth: unsupported MAC mode %d", mode);
		return -EPERM;
	}
	adapter->mac_mode = mode;
	al_info("configured MAC to %s mode:\n", al_eth_mac_mode_str(mode));

	return 0;
}

/* start the mac */
int al_eth_mac_start(struct al_hal_eth_adapter *adapter)
{
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode)) {
		/* 1G MAC control register */
		al_reg_write32_masked(&adapter->mac_regs_base->mac_1g.cmd_cfg,
				ETH_1G_MAC_CMD_CFG_TX_ENA | ETH_1G_MAC_CMD_CFG_RX_ENA,
				ETH_1G_MAC_CMD_CFG_TX_ENA | ETH_1G_MAC_CMD_CFG_RX_ENA);
	} else if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
		/* 10G MAC control register  */
		al_reg_write32_masked(&adapter->mac_regs_base->mac_10g.cmd_cfg,
				ETH_10G_MAC_CMD_CFG_TX_ENA | ETH_10G_MAC_CMD_CFG_RX_ENA,
				ETH_10G_MAC_CMD_CFG_TX_ENA | ETH_10G_MAC_CMD_CFG_RX_ENA);
	} else {
		uint32_t cmd_cfg;

		cmd_cfg = al_eth_40g_mac_reg_read(adapter,
				ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR);

		cmd_cfg |= (ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_TX_ENA |
			    ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_RX_ENA);

		al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR,
				cmd_cfg);
	}

	return 0;
}

/* stop the mac */
int al_eth_mac_stop(struct al_hal_eth_adapter *adapter)
{
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode))
		/* 1G MAC control register */
		al_reg_write32_masked(&adapter->mac_regs_base->mac_1g.cmd_cfg,
				ETH_1G_MAC_CMD_CFG_TX_ENA | ETH_1G_MAC_CMD_CFG_RX_ENA,
				0);
	else if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode))
		/* 10G MAC control register  */
		al_reg_write32_masked(&adapter->mac_regs_base->mac_10g.cmd_cfg,
				ETH_10G_MAC_CMD_CFG_TX_ENA | ETH_10G_MAC_CMD_CFG_RX_ENA,
				0);
	else {
		uint32_t cmd_cfg;

		cmd_cfg = al_eth_40g_mac_reg_read(adapter,
				ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR);

		cmd_cfg &= ~(ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_TX_ENA |
			    ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_RX_ENA);

		al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR,
				cmd_cfg);
	}

	return 0;
}

void al_eth_gearbox_reset(struct al_hal_eth_adapter *adapter, al_bool tx_reset, al_bool rx_reset)
{
	uint32_t reg, orig_val;

	/* Gearbox is exist only from revision 3 */
	al_assert(adapter->rev_id > AL_ETH_REV_ID_2);

	orig_val = al_reg_read32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl);
	reg = orig_val;

	if (tx_reset) {
		reg |= (ETH_MAC_GEN_V3_EXT_SERDES_CTRL_LANE_0_TX_25_GS_SW_RESET |
			ETH_MAC_GEN_V3_EXT_SERDES_CTRL_LANE_1_TX_25_GS_SW_RESET);
	}

	if (rx_reset) {
		reg |= (ETH_MAC_GEN_V3_EXT_SERDES_CTRL_LANE_0_RX_25_GS_SW_RESET |
			ETH_MAC_GEN_V3_EXT_SERDES_CTRL_LANE_1_RX_25_GS_SW_RESET);
	}

	al_dbg("%s: perform gearbox reset (Tx %d, Rx %d) \n", __func__, tx_reset, rx_reset);
	al_reg_write32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl, reg);

	al_udelay(10);

	al_reg_write32(&adapter->mac_regs_base->gen_v3.ext_serdes_ctrl, orig_val);
}

int al_eth_fec_enable(struct al_hal_eth_adapter *adapter, al_bool enable)
{
	if (adapter->rev_id <= AL_ETH_REV_ID_2)
		return -1;

	if (enable)
		al_reg_write32_masked(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg,
					(ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_RX |
					 ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_TX),
					(ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_RX |
					 ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_TX));
	else
		al_reg_write32_masked(&adapter->mac_regs_base->gen_v3.pcs_10g_ll_cfg,
					(ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_RX |
					 ETH_MAC_GEN_V3_PCS_10G_LL_CFG_FEC_EN_TX),
					0);
	return 0;
}

int al_eth_fec_stats_get(struct al_hal_eth_adapter *adapter,
			uint32_t *corrected, uint32_t *uncorrectable)
{
	if (adapter->rev_id <= AL_ETH_REV_ID_2)
		return -1;

	*corrected = al_reg_read32(&adapter->mac_regs_base->stat.v3_pcs_10g_ll_cerr);
	*uncorrectable = al_reg_read32(&adapter->mac_regs_base->stat.v3_pcs_10g_ll_ncerr);

	return 0;
}


int al_eth_capabilities_get(struct al_hal_eth_adapter *adapter, struct al_eth_capabilities *caps)
{
	al_assert(caps);

	caps->speed_10_HD = AL_FALSE;
	caps->speed_10_FD = AL_FALSE;
	caps->speed_100_HD = AL_FALSE;
	caps->speed_100_FD = AL_FALSE;
	caps->speed_1000_HD = AL_FALSE;
	caps->speed_1000_FD = AL_FALSE;
	caps->speed_10000_HD = AL_FALSE;
	caps->speed_10000_FD = AL_FALSE;
	caps->pfc = AL_FALSE;
	caps->eee = AL_FALSE;

	switch (adapter->mac_mode) {
		case AL_ETH_MAC_MODE_RGMII:
		case AL_ETH_MAC_MODE_SGMII:
			caps->speed_10_HD = AL_TRUE;
			caps->speed_10_FD = AL_TRUE;
			caps->speed_100_HD = AL_TRUE;
			caps->speed_100_FD = AL_TRUE;
			caps->speed_1000_FD = AL_TRUE;
			caps->eee = AL_TRUE;
			break;
		case AL_ETH_MAC_MODE_10GbE_Serial:
			caps->speed_10000_FD = AL_TRUE;
			caps->pfc = AL_TRUE;
			break;
		default:
		al_err("Eth: unsupported MAC mode %d", adapter->mac_mode);
		return -EPERM;
	}
	return 0;
}

static void al_eth_mac_link_config_1g_mac(
				struct al_hal_eth_adapter *adapter,
				al_bool force_1000_base_x,
				al_bool an_enable,
				uint32_t speed,
				al_bool full_duplex)
{
	uint32_t mac_ctrl;
	uint32_t sgmii_ctrl = 0;
	uint32_t sgmii_if_mode = 0;
	uint32_t rgmii_ctrl = 0;

	mac_ctrl = al_reg_read32(&adapter->mac_regs_base->mac_1g.cmd_cfg);

	if (adapter->mac_mode == AL_ETH_MAC_MODE_SGMII) {
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr,
			       ETH_MAC_SGMII_REG_ADDR_CTRL_REG);
		sgmii_ctrl = al_reg_read32(&adapter->mac_regs_base->sgmii.reg_data);
		/*
		 * in case bit 0 is off in sgmii_if_mode register all the other
		 * bits are ignored.
		 */
		if (force_1000_base_x == AL_FALSE)
			sgmii_if_mode = ETH_MAC_SGMII_REG_DATA_IF_MODE_SGMII_EN;

		if (an_enable == AL_TRUE) {
			sgmii_if_mode |= ETH_MAC_SGMII_REG_DATA_IF_MODE_SGMII_AN;
			sgmii_ctrl |= ETH_MAC_SGMII_REG_DATA_CTRL_AN_ENABLE;
		} else {
			sgmii_ctrl &= ~(ETH_MAC_SGMII_REG_DATA_CTRL_AN_ENABLE);
		}
	}

	if (adapter->mac_mode == AL_ETH_MAC_MODE_RGMII) {
		/*
		 * Use the speed provided by the MAC instead of the PHY
		 */
		rgmii_ctrl = al_reg_read32(&adapter->mac_regs_base->gen.rgmii_cfg);

		AL_REG_MASK_CLEAR(rgmii_ctrl, ETH_MAC_GEN_RGMII_CFG_ENA_AUTO);
		AL_REG_MASK_CLEAR(rgmii_ctrl, ETH_MAC_GEN_RGMII_CFG_SET_1000_SEL);
		AL_REG_MASK_CLEAR(rgmii_ctrl, ETH_MAC_GEN_RGMII_CFG_SET_10_SEL);

		al_reg_write32(&adapter->mac_regs_base->gen.rgmii_cfg, rgmii_ctrl);
	}

	if (full_duplex == AL_TRUE) {
		AL_REG_MASK_CLEAR(mac_ctrl, ETH_1G_MAC_CMD_CFG_HD_EN);
	} else {
		AL_REG_MASK_SET(mac_ctrl, ETH_1G_MAC_CMD_CFG_HD_EN);
		sgmii_if_mode |= ETH_MAC_SGMII_REG_DATA_IF_MODE_SGMII_DUPLEX;
	}

	if (speed == 1000) {
		AL_REG_MASK_SET(mac_ctrl, ETH_1G_MAC_CMD_CFG_1G_SPD);
		sgmii_if_mode |= ETH_MAC_SGMII_REG_DATA_IF_MODE_SGMII_SPEED_1000;
	} else {
		AL_REG_MASK_CLEAR(mac_ctrl, ETH_1G_MAC_CMD_CFG_1G_SPD);
		if (speed == 10) {
			AL_REG_MASK_SET(mac_ctrl, ETH_1G_MAC_CMD_CFG_10M_SPD);
		} else {
			sgmii_if_mode |= ETH_MAC_SGMII_REG_DATA_IF_MODE_SGMII_SPEED_100;
			AL_REG_MASK_CLEAR(mac_ctrl, ETH_1G_MAC_CMD_CFG_10M_SPD);
		}
	}

	if (adapter->mac_mode == AL_ETH_MAC_MODE_SGMII) {
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr,
			       ETH_MAC_SGMII_REG_ADDR_IF_MODE_REG);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data,
			       sgmii_if_mode);

		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr,
			       ETH_MAC_SGMII_REG_ADDR_CTRL_REG);
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_data,
			       sgmii_ctrl);
	}

	al_reg_write32(&adapter->mac_regs_base->mac_1g.cmd_cfg, mac_ctrl);
}

static void al_eth_mac_link_config_10g_mac(
				struct al_hal_eth_adapter *adapter,
				al_bool force_1000_base_x,
				al_bool an_enable,
				uint32_t speed,
				al_bool full_duplex)
{
	uint32_t if_mode;
	uint32_t val;

	if_mode = al_reg_read32(&adapter->mac_regs_base->mac_10g.if_mode);

	if (force_1000_base_x) {
		uint32_t control;

		AL_REG_MASK_CLEAR(if_mode, ETH_10G_MAC_IF_MODE_SGMII_EN_MASK);

		control = al_reg_read32(&adapter->mac_regs_base->mac_10g.control);

		if (an_enable)
			AL_REG_MASK_SET(control, ETH_10G_MAC_CONTROL_AN_EN_MASK);
		else
			AL_REG_MASK_CLEAR(control, ETH_10G_MAC_CONTROL_AN_EN_MASK);

		al_reg_write32(&adapter->mac_regs_base->mac_10g.control, control);

	} else {
		AL_REG_MASK_SET(if_mode, ETH_10G_MAC_IF_MODE_SGMII_EN_MASK);
		if (an_enable) {
			AL_REG_MASK_SET(if_mode, ETH_10G_MAC_IF_MODE_SGMII_AN_MASK);
		} else {
			AL_REG_MASK_CLEAR(if_mode, ETH_10G_MAC_IF_MODE_SGMII_AN_MASK);

			if (speed == 1000)
				val = ETH_10G_MAC_IF_MODE_SGMII_SPEED_1G;
			else if (speed == 100)
				val = ETH_10G_MAC_IF_MODE_SGMII_SPEED_100M;
			else
				val = ETH_10G_MAC_IF_MODE_SGMII_SPEED_10M;

			AL_REG_FIELD_SET(if_mode,
					 ETH_10G_MAC_IF_MODE_SGMII_SPEED_MASK,
					 ETH_10G_MAC_IF_MODE_SGMII_SPEED_SHIFT,
					 val);

			AL_REG_FIELD_SET(if_mode,
					 ETH_10G_MAC_IF_MODE_SGMII_DUPLEX_MASK,
					 ETH_10G_MAC_IF_MODE_SGMII_DUPLEX_SHIFT,
					 ((full_duplex) ?
						ETH_10G_MAC_IF_MODE_SGMII_DUPLEX_FULL :
						ETH_10G_MAC_IF_MODE_SGMII_DUPLEX_HALF));
		}
	}

	al_reg_write32(&adapter->mac_regs_base->mac_10g.if_mode, if_mode);
}

/* update link speed and duplex mode */
int al_eth_mac_link_config(struct al_hal_eth_adapter *adapter,
			   al_bool force_1000_base_x,
			   al_bool an_enable,
			   uint32_t speed,
			   al_bool full_duplex)
{
	if ((!AL_ETH_IS_1G_MAC(adapter->mac_mode)) &&
		(adapter->mac_mode != AL_ETH_MAC_MODE_SGMII_2_5G)) {
		al_err("eth [%s]: this function not supported in this mac mode.\n",
			       adapter->name);
		return -EINVAL;
	}

	if ((adapter->mac_mode != AL_ETH_MAC_MODE_RGMII) && (an_enable)) {
		/*
		 * an_enable is not relevant to RGMII mode.
		 * in AN mode speed and duplex aren't relevant.
		 */
		al_info("eth [%s]: set auto negotiation to enable\n", adapter->name);
	} else {
		al_info("eth [%s]: set link speed to %dMbps. %s duplex.\n", adapter->name,
			speed, full_duplex == AL_TRUE ? "full" : "half");

		if ((speed != 10) && (speed != 100) && (speed != 1000)) {
			al_err("eth [%s]: bad speed parameter (%d).\n",
				       adapter->name, speed);
			return -EINVAL;
		}
		if ((speed == 1000) && (full_duplex == AL_FALSE)) {
			al_err("eth [%s]: half duplex in 1Gbps is not supported.\n",
				       adapter->name);
			return -EINVAL;
		}
	}

	if (AL_ETH_IS_1G_MAC(adapter->mac_mode))
		al_eth_mac_link_config_1g_mac(adapter,
					      force_1000_base_x,
					      an_enable,
					      speed,
					      full_duplex);
	else
		al_eth_mac_link_config_10g_mac(adapter,
					       force_1000_base_x,
					       an_enable,
					       speed,
					       full_duplex);

	return 0;
}

int al_eth_mac_loopback_config(struct al_hal_eth_adapter *adapter, int enable)
{
	const char *state = (enable) ? "enable" : "disable";

	al_dbg("eth [%s]: loopback %s\n", adapter->name, state);
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode)) {
		uint32_t reg;
		reg = al_reg_read32(&adapter->mac_regs_base->mac_1g.cmd_cfg);
		if (enable)
			reg |= AL_BIT(15);
		else
			reg &= ~AL_BIT(15);
		al_reg_write32(&adapter->mac_regs_base->mac_1g.cmd_cfg, reg);
	} else if ((AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode))
			&& (adapter->rev_id == AL_ETH_REV_ID_3)) {
		uint32_t reg;
		al_reg_write16(
			(uint16_t *)&adapter->mac_regs_base->kr.pcs_addr, ETH_MAC_KR_PCS_CONTROL_1_ADDR);
		reg = al_reg_read16(
			(uint16_t *)&adapter->mac_regs_base->kr.pcs_data);
		if (enable)
			reg |= AL_BIT(14);
		else
			reg &= ~AL_BIT(14);
		al_reg_write16(
			(uint16_t *)&adapter->mac_regs_base->kr.pcs_addr, ETH_MAC_KR_PCS_CONTROL_1_ADDR);
		al_reg_write16(
			(uint16_t *)&adapter->mac_regs_base->kr.pcs_data, reg);
	} else if (adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_40G ||
			(adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_50G)) {
		uint32_t reg;
		reg = al_eth_40g_pcs_reg_read(adapter, ETH_MAC_GEN_V3_PCS_40G_CONTROL_STATUS_ADDR);
		if (enable)
			reg |= AL_BIT(14);
		else
			reg &= ~AL_BIT(14);
		al_eth_40g_pcs_reg_write(adapter, ETH_MAC_GEN_V3_PCS_40G_CONTROL_STATUS_ADDR, reg);
	} else {
		al_err("Eth: mac loopback not supported in this mode %d", adapter->mac_mode);
		return -EPERM;
	}
	return 0;
}

/* MDIO */
int al_eth_mdio_config(
	struct al_hal_eth_adapter	*adapter,
	enum al_eth_mdio_type		mdio_type,
	al_bool				shared_mdio_if,
	enum al_eth_ref_clk_freq	ref_clk_freq,
	unsigned int			mdio_clk_freq_khz)
{
	enum al_eth_mdio_if mdio_if = AL_ETH_MDIO_IF_10G_MAC;
	const char *if_name = (mdio_if == AL_ETH_MDIO_IF_1G_MAC) ? "10/100/1G MAC" : "10G MAC";
	const char *type_name = (mdio_type == AL_ETH_MDIO_TYPE_CLAUSE_22) ? "Clause 22" : "Clause 45";
	const char *shared_name = (shared_mdio_if == AL_TRUE) ? "Yes" : "No";

	unsigned int ref_clk_freq_khz;
	uint32_t val;

	al_dbg("eth [%s]: mdio config: interface %s. type %s. shared: %s\n", adapter->name, if_name, type_name, shared_name);
	adapter->shared_mdio_if = shared_mdio_if;

	val = al_reg_read32(&adapter->mac_regs_base->gen.cfg);
	al_dbg("eth [%s]: mdio config: 10G mac \n", adapter->name);

	switch(mdio_if)
	{
		case AL_ETH_MDIO_IF_1G_MAC:
			val &= ~AL_BIT(10);
			break;
		case AL_ETH_MDIO_IF_10G_MAC:
			val |= AL_BIT(10);
			break;
	}
	al_reg_write32(&adapter->mac_regs_base->gen.cfg, val);
	adapter->mdio_if = mdio_if;


	if (mdio_if == AL_ETH_MDIO_IF_10G_MAC)
	{
		val = al_reg_read32(&adapter->mac_regs_base->mac_10g.mdio_cfg_status);
		switch(mdio_type)
		{
			case AL_ETH_MDIO_TYPE_CLAUSE_22:
				val &= ~AL_BIT(6);
				break;
			case AL_ETH_MDIO_TYPE_CLAUSE_45:
				val |= AL_BIT(6);
				break;
		}

		/* set clock div to get 'mdio_clk_freq_khz' */
		switch (ref_clk_freq) {
		default:
			al_err("eth [%s]: %s: invalid reference clock frequency"
				" (%d)\n",
				adapter->name, __func__, ref_clk_freq);
		case AL_ETH_REF_FREQ_375_MHZ:
			ref_clk_freq_khz = 375000;
			break;
		case AL_ETH_REF_FREQ_187_5_MHZ:
			ref_clk_freq_khz = 187500;
			break;
		case AL_ETH_REF_FREQ_250_MHZ:
			ref_clk_freq_khz = 250000;
			break;
		case AL_ETH_REF_FREQ_500_MHZ:
			ref_clk_freq_khz = 500000;
			break;
                case AL_ETH_REF_FREQ_428_MHZ:
                        ref_clk_freq_khz = 428000;
                        break;
		};

		val &= ~(0x1FF << 7);
		val |= (ref_clk_freq_khz / (2 * mdio_clk_freq_khz)) << 7;
		AL_REG_FIELD_SET(val, ETH_10G_MAC_MDIO_CFG_HOLD_TIME_MASK,
				 ETH_10G_MAC_MDIO_CFG_HOLD_TIME_SHIFT,
				 ETH_10G_MAC_MDIO_CFG_HOLD_TIME_7_CLK);
		al_reg_write32(&adapter->mac_regs_base->mac_10g.mdio_cfg_status, val);
	}else{
		if(mdio_type != AL_ETH_MDIO_TYPE_CLAUSE_22) {
			al_err("eth [%s] mdio type not supported for this interface\n",
				 adapter->name);
			return -EINVAL;
		}
	}
	adapter->mdio_type = mdio_type;

	return 0;
}

static int al_eth_mdio_1g_mac_read(struct al_hal_eth_adapter *adapter,
			    uint32_t phy_addr __attribute__((__unused__)),
			    uint32_t reg, uint16_t *val)
{
	*val = al_reg_read32(
		&adapter->mac_regs_base->mac_1g.phy_regs_base + reg);
	return 0;
}

static int al_eth_mdio_1g_mac_write(struct al_hal_eth_adapter *adapter,
			     uint32_t phy_addr __attribute__((__unused__)),
			     uint32_t reg, uint16_t val)
{
	al_reg_write32(
		&adapter->mac_regs_base->mac_1g.phy_regs_base + reg, val);
	return 0;
}

static int al_eth_mdio_10g_mac_wait_busy(struct al_hal_eth_adapter *adapter)
{
	int	count = 0;
	uint32_t mdio_cfg_status;

	do {
		mdio_cfg_status = al_reg_read32(&adapter->mac_regs_base->mac_10g.mdio_cfg_status);
/*
		if (mdio_cfg_status & AL_BIT(1)){ //error
			al_err(" %s mdio read failed on error. phy_addr 0x%x reg 0x%x\n",
				udma_params.name, phy_addr, reg);
			return -EIO;
		}*/
		if (mdio_cfg_status & AL_BIT(0)){
			if (count > 0)
				al_dbg("eth [%s] mdio: still busy!\n", adapter->name);
		}else{
			return 0;
		}
		al_udelay(AL_ETH_MDIO_DELAY_PERIOD);
	}while(count++ < AL_ETH_MDIO_DELAY_COUNT);

	return -ETIMEDOUT;
}

static int al_eth_mdio_10g_mac_type22(
	struct al_hal_eth_adapter *adapter,
	int read, uint32_t phy_addr, uint32_t reg, uint16_t *val)
{
	int rc;
	const char *op = (read == 1) ? "read":"write";
	uint32_t mdio_cfg_status;
	uint16_t mdio_cmd;

	//wait if the HW is busy
	rc = al_eth_mdio_10g_mac_wait_busy(adapter);
	if (rc) {
		al_err(" eth [%s] mdio %s failed. HW is busy\n", adapter->name, op);
		return rc;
	}

	mdio_cmd = (uint16_t)(0x1F & reg);
	mdio_cmd |= (0x1F & phy_addr) << 5;

	if (read)
		mdio_cmd |= AL_BIT(15); //READ command

	al_reg_write16(&adapter->mac_regs_base->mac_10g.mdio_cmd,
			mdio_cmd);
	if (!read)
		al_reg_write16(&adapter->mac_regs_base->mac_10g.mdio_data,
				*val);

	//wait for the busy to clear
	rc = al_eth_mdio_10g_mac_wait_busy(adapter);
	if (rc != 0) {
		al_err(" %s mdio %s failed on timeout\n", adapter->name, op);
		return -ETIMEDOUT;
	}

	mdio_cfg_status = al_reg_read32(&adapter->mac_regs_base->mac_10g.mdio_cfg_status);

	if (mdio_cfg_status & AL_BIT(1)){ //error
		al_err(" %s mdio %s failed on error. phy_addr 0x%x reg 0x%x\n",
			adapter->name, op, phy_addr, reg);
			return -EIO;
	}
	if (read)
		*val = al_reg_read16(
			(uint16_t *)&adapter->mac_regs_base->mac_10g.mdio_data);
	return 0;
}

static int al_eth_mdio_10g_mac_type45(
	struct al_hal_eth_adapter *adapter,
	int read, uint32_t port_addr, uint32_t device, uint32_t reg, uint16_t *val)
{
	int rc;
	const char *op = (read == 1) ? "read":"write";
	uint32_t mdio_cfg_status;
	uint16_t mdio_cmd;

	//wait if the HW is busy
	rc = al_eth_mdio_10g_mac_wait_busy(adapter);
	if (rc) {
		al_err(" %s mdio %s failed. HW is busy\n", adapter->name, op);
		return rc;
	}
	// set command register
	mdio_cmd = (uint16_t)(0x1F & device);
	mdio_cmd |= (0x1F & port_addr) << 5;
	al_reg_write16(&adapter->mac_regs_base->mac_10g.mdio_cmd,
			mdio_cmd);

	// send address frame
	al_reg_write16(&adapter->mac_regs_base->mac_10g.mdio_regaddr, reg);
	//wait for the busy to clear
	rc = al_eth_mdio_10g_mac_wait_busy(adapter);
	if (rc) {
		al_err(" %s mdio %s (address frame) failed on timeout\n", adapter->name, op);
		return rc;
	}

	// if read, write again to the command register with READ bit set
	if (read) {
		mdio_cmd |= AL_BIT(15); //READ command
		al_reg_write16(
			(uint16_t *)&adapter->mac_regs_base->mac_10g.mdio_cmd,
			mdio_cmd);
	} else {
		al_reg_write16(
			(uint16_t *)&adapter->mac_regs_base->mac_10g.mdio_data,
			*val);
	}
	//wait for the busy to clear
	rc = al_eth_mdio_10g_mac_wait_busy(adapter);
	if (rc) {
		al_err(" %s mdio %s failed on timeout\n", adapter->name, op);
		return rc;
	}

	mdio_cfg_status = al_reg_read32(&adapter->mac_regs_base->mac_10g.mdio_cfg_status);

	if (mdio_cfg_status & AL_BIT(1)){ //error
		al_err(" %s mdio %s failed on error. port 0x%x, device 0x%x reg 0x%x\n",
			adapter->name, op, port_addr, device, reg);
			return -EIO;
	}
	if (read)
		*val = al_reg_read16(
			(uint16_t *)&adapter->mac_regs_base->mac_10g.mdio_data);
	return 0;
}

/**
 * acquire mdio interface ownership
 * when mdio interface shared between multiple eth controllers, this function waits until the ownership granted for this controller.
 * this function does nothing when the mdio interface is used only by this controller.
 *
 * @param adapter
 * @return 0 on success, -ETIMEDOUT  on timeout.
 */
static int al_eth_mdio_lock(struct al_hal_eth_adapter *adapter)
{
	int	count = 0;
	uint32_t mdio_ctrl_1;

	if (adapter->shared_mdio_if == AL_FALSE)
		return 0; /* nothing to do when interface is not shared */

	do {
		mdio_ctrl_1 = al_reg_read32(&adapter->mac_regs_base->gen.mdio_ctrl_1);
/*
		if (mdio_cfg_status & AL_BIT(1)){ //error
			al_err(" %s mdio read failed on error. phy_addr 0x%x reg 0x%x\n",
				udma_params.name, phy_addr, reg);
			return -EIO;
		}*/
		if (mdio_ctrl_1 & AL_BIT(0)){
			if (count > 0)
				al_dbg("eth %s mdio interface still busy!\n", adapter->name);
		}else{
			return 0;
		}
		al_udelay(AL_ETH_MDIO_DELAY_PERIOD);
	}while(count++ < (AL_ETH_MDIO_DELAY_COUNT * 4));
	al_err(" %s mdio failed to take ownership. MDIO info reg: 0x%08x\n",
		adapter->name, al_reg_read32(&adapter->mac_regs_base->gen.mdio_1));

	return -ETIMEDOUT;
}

/**
 * free mdio interface ownership
 * when mdio interface shared between multiple eth controllers, this function releases the ownership granted for this controller.
 * this function does nothing when the mdio interface is used only by this controller.
 *
 * @param adapter
 * @return 0.
 */
static int al_eth_mdio_free(struct al_hal_eth_adapter *adapter)
{
	if (adapter->shared_mdio_if == AL_FALSE)
		return 0; /* nothing to do when interface is not shared */

	al_reg_write32(&adapter->mac_regs_base->gen.mdio_ctrl_1, 0);

	/*
	 * Addressing RMN: 2917
	 *
	 * RMN description:
	 * The HW spin-lock is stateless and doesn't maintain any scheduling
	 * policy.
	 *
	 * Software flow:
	 * After getting the lock wait 2 times the delay period in order to give
	 * the other port chance to take the lock and prevent starvation.
	 * This is not scalable to more than two ports.
	 */
	al_udelay(2 * AL_ETH_MDIO_DELAY_PERIOD);

	return 0;
}

int al_eth_mdio_read(struct al_hal_eth_adapter *adapter, uint32_t phy_addr, uint32_t device, uint32_t reg, uint16_t *val)
{
	int rc;
	rc = al_eth_mdio_lock(adapter);

	/*"interface ownership taken"*/
	if (rc)
		return rc;

	if (adapter->mdio_if == AL_ETH_MDIO_IF_1G_MAC)
		rc = al_eth_mdio_1g_mac_read(adapter, phy_addr, reg, val);
	else
		if (adapter->mdio_type == AL_ETH_MDIO_TYPE_CLAUSE_22)
			rc = al_eth_mdio_10g_mac_type22(adapter, 1, phy_addr, reg, val);
		else
			rc = al_eth_mdio_10g_mac_type45(adapter, 1, phy_addr, device, reg, val);

	al_eth_mdio_free(adapter);
	al_dbg("eth mdio read: phy_addr %x, device %x, reg %x val %x\n", phy_addr, device, reg, *val);
	return rc;
}

int al_eth_mdio_write(struct al_hal_eth_adapter *adapter, uint32_t phy_addr, uint32_t device, uint32_t reg, uint16_t val)
{
	int rc;
	al_dbg("eth mdio write: phy_addr %x, device %x, reg %x, val %x\n", phy_addr, device, reg, val);
	rc = al_eth_mdio_lock(adapter);
	/* interface ownership taken */
	if (rc)
		return rc;

	if (adapter->mdio_if == AL_ETH_MDIO_IF_1G_MAC)
		rc = al_eth_mdio_1g_mac_write(adapter, phy_addr, reg, val);
	else
		if (adapter->mdio_type == AL_ETH_MDIO_TYPE_CLAUSE_22)
			rc = al_eth_mdio_10g_mac_type22(adapter, 0, phy_addr, reg, &val);
		else
			rc = al_eth_mdio_10g_mac_type45(adapter, 0, phy_addr, device, reg, &val);

	al_eth_mdio_free(adapter);
	return rc;
}

static void al_dump_tx_desc(union al_udma_desc *tx_desc)
{
	uint32_t *ptr = (uint32_t *)tx_desc;
	al_dbg("eth tx desc:\n");
	al_dbg("0x%08x\n", *(ptr++));
	al_dbg("0x%08x\n", *(ptr++));
	al_dbg("0x%08x\n", *(ptr++));
	al_dbg("0x%08x\n", *(ptr++));
}

static void
al_dump_tx_pkt(struct al_udma_q *tx_dma_q, struct al_eth_pkt *pkt)
{
	const char *tso = (pkt->flags & AL_ETH_TX_FLAGS_TSO) ? "TSO" : "";
	const char *l3_csum = (pkt->flags & AL_ETH_TX_FLAGS_IPV4_L3_CSUM) ? "L3 CSUM" : "";
	const char *l4_csum = (pkt->flags & AL_ETH_TX_FLAGS_L4_CSUM) ?
	  ((pkt->flags & AL_ETH_TX_FLAGS_L4_PARTIAL_CSUM) ? "L4 PARTIAL CSUM" : "L4 FULL CSUM") : "";
	const char *fcs = (pkt->flags & AL_ETH_TX_FLAGS_L2_DIS_FCS) ? "Disable FCS" : "";
	const char *ptp = (pkt->flags & AL_ETH_TX_FLAGS_TS) ? "TX_PTP" : "";
	const char *l3_proto_name = "unknown";
	const char *l4_proto_name = "unknown";
	const char *outer_l3_proto_name = "N/A";
	const char *tunnel_mode = (((pkt->tunnel_mode &
				AL_ETH_TUNNEL_WITH_UDP) == AL_ETH_TUNNEL_WITH_UDP) ?
				"TUNNEL_WITH_UDP" :
				(((pkt->tunnel_mode &
				AL_ETH_TUNNEL_NO_UDP) == AL_ETH_TUNNEL_NO_UDP) ?
				"TUNNEL_NO_UDP" : ""));
	uint32_t total_len = 0;
	int i;

	al_dbg("[%s %d]: flags: %s %s %s %s %s %s\n", tx_dma_q->udma->name, tx_dma_q->qid,
		 tso, l3_csum, l4_csum, fcs, ptp, tunnel_mode);

	switch (pkt->l3_proto_idx) {
	case AL_ETH_PROTO_ID_IPv4:
		l3_proto_name = "IPv4";
		break;
	case AL_ETH_PROTO_ID_IPv6:
		l3_proto_name = "IPv6";
		break;
	default:
		l3_proto_name = "unknown";
		break;
	}

	switch (pkt->l4_proto_idx) {
	case AL_ETH_PROTO_ID_TCP:
		l4_proto_name = "TCP";
		break;
	case AL_ETH_PROTO_ID_UDP:
		l4_proto_name = "UDP";
		break;
	default:
		l4_proto_name = "unknown";
		break;
	}

	switch (pkt->outer_l3_proto_idx) {
	case AL_ETH_PROTO_ID_IPv4:
		outer_l3_proto_name = "IPv4";
		break;
	case AL_ETH_PROTO_ID_IPv6:
		outer_l3_proto_name = "IPv6";
		break;
	default:
		outer_l3_proto_name = "N/A";
		break;
	}

	al_dbg("[%s %d]: L3 proto: %d (%s). L4 proto: %d (%s). Outer_L3 proto: %d (%s). vlan source count %d. mod add %d. mod del %d\n",
			tx_dma_q->udma->name, tx_dma_q->qid, pkt->l3_proto_idx,
			l3_proto_name, pkt->l4_proto_idx, l4_proto_name,
			pkt->outer_l3_proto_idx, outer_l3_proto_name,
			pkt->source_vlan_count, pkt->vlan_mod_add_count,
			pkt->vlan_mod_del_count);

	if (pkt->meta) {
		const char * store = pkt->meta->store ? "Yes" : "No";
		const char *ptp_val = (pkt->flags & AL_ETH_TX_FLAGS_TS) ? "Yes" : "No";

		al_dbg("[%s %d]: tx pkt with meta data. words valid %x\n",
			tx_dma_q->udma->name, tx_dma_q->qid,
			pkt->meta->words_valid);
		al_dbg("[%s %d]: meta: store to cache %s. l3 hdr len %d. l3 hdr offset %d. "
			"l4 hdr len %d. mss val %d ts_index %d ts_val:%s\n"
			, tx_dma_q->udma->name, tx_dma_q->qid, store,
			pkt->meta->l3_header_len, pkt->meta->l3_header_offset,
			pkt->meta->l4_header_len, pkt->meta->mss_val,
			pkt->meta->ts_index, ptp_val);
		al_dbg("outer_l3_hdr_offset %d. outer_l3_len %d.\n",
			pkt->meta->outer_l3_offset, pkt->meta->outer_l3_len);
	}

	al_dbg("[%s %d]: num of bufs: %d\n", tx_dma_q->udma->name, tx_dma_q->qid,
		pkt->num_of_bufs);
	for (i = 0; i < pkt->num_of_bufs; i++) {
		al_dbg("eth [%s %d]: buf[%d]: len 0x%08x. address 0x%016llx\n", tx_dma_q->udma->name, tx_dma_q->qid,
			i, pkt->bufs[i].len, (unsigned long long)pkt->bufs[i].addr);
		total_len += pkt->bufs[i].len;
	}
	al_dbg("[%s %d]: total len: 0x%08x\n", tx_dma_q->udma->name, tx_dma_q->qid, total_len);

}

/* TX */
/**
 * add packet to transmission queue
 */
int al_eth_tx_pkt_prepare(struct al_udma_q *tx_dma_q, struct al_eth_pkt *pkt)
{
	union al_udma_desc *tx_desc;
	uint32_t tx_descs;
	uint32_t flags = AL_M2S_DESC_FIRST |
			AL_M2S_DESC_CONCAT |
			(pkt->flags & AL_ETH_TX_FLAGS_INT);
	uint64_t tgtid = ((uint64_t)pkt->tgtid) << AL_UDMA_DESC_TGTID_SHIFT;
	uint32_t meta_ctrl;
	uint32_t ring_id;
	int buf_idx;

	al_dbg("[%s %d]: new tx pkt\n", tx_dma_q->udma->name, tx_dma_q->qid);

	al_dump_tx_pkt(tx_dma_q, pkt);

	tx_descs = pkt->num_of_bufs;
	if (pkt->meta) {
		tx_descs += 1;
	}
#ifdef AL_ETH_EX
	al_assert((pkt->ext_meta_data == NULL) || (tx_dma_q->adapter_rev_id > AL_ETH_REV_ID_2));

	tx_descs += al_eth_ext_metadata_needed_descs(pkt->ext_meta_data);
	al_dbg("[%s %d]: %d Descriptors: ext_meta (%d). meta (%d). buffer (%d) ",
			tx_dma_q->udma->name, tx_dma_q->qid, tx_descs,
			al_eth_ext_metadata_needed_descs(pkt->ext_meta_data),
			(pkt->meta != NULL), pkt->num_of_bufs);
#endif

	if (unlikely(al_udma_available_get(tx_dma_q) < tx_descs)) {
		al_dbg("[%s %d]: failed to allocate (%d) descriptors",
			 tx_dma_q->udma->name, tx_dma_q->qid, tx_descs);
		return 0;
	}

#ifdef AL_ETH_EX
	if (pkt->ext_meta_data != NULL) {
		al_eth_ext_metadata_create(tx_dma_q, &flags, pkt->ext_meta_data);
		flags &= ~(AL_M2S_DESC_FIRST | AL_ETH_TX_FLAGS_INT);
	}
#endif

	if (pkt->meta) {
		uint32_t meta_word_0 = 0;
		uint32_t meta_word_1 = 0;
		uint32_t meta_word_2 = 0;
		uint32_t meta_word_3 = 0;

		meta_word_0 |= flags | AL_M2S_DESC_META_DATA;
		meta_word_0 &=  ~AL_M2S_DESC_CONCAT;
		flags &= ~(AL_M2S_DESC_FIRST | AL_ETH_TX_FLAGS_INT);

		tx_desc = al_udma_desc_get(tx_dma_q);
		/* get ring id, and clear FIRST and Int flags */
		ring_id = al_udma_ring_id_get(tx_dma_q) <<
			AL_M2S_DESC_RING_ID_SHIFT;

		meta_word_0 |= ring_id;
		meta_word_0 |= pkt->meta->words_valid << 12;

		if (pkt->meta->store)
			meta_word_0 |= AL_ETH_TX_META_STORE;

		if (pkt->meta->words_valid & 1) {
			meta_word_0 |= pkt->meta->vlan1_cfi_sel;
			meta_word_0 |= pkt->meta->vlan2_vid_sel << 2;
			meta_word_0 |= pkt->meta->vlan2_cfi_sel << 4;
			meta_word_0 |= pkt->meta->vlan2_pbits_sel << 6;
			meta_word_0 |= pkt->meta->vlan2_ether_sel << 8;
		}

		if (pkt->meta->words_valid & 2) {
			meta_word_1 = pkt->meta->vlan1_new_vid;
			meta_word_1 |= pkt->meta->vlan1_new_cfi << 12;
			meta_word_1 |= pkt->meta->vlan1_new_pbits << 13;
			meta_word_1 |= pkt->meta->vlan2_new_vid << 16;
			meta_word_1 |= pkt->meta->vlan2_new_cfi << 28;
			meta_word_1 |= pkt->meta->vlan2_new_pbits << 29;
		}

		if (pkt->meta->words_valid & 4) {
			uint32_t l3_offset;

			meta_word_2 = pkt->meta->l3_header_len & AL_ETH_TX_META_L3_LEN_MASK;
			meta_word_2 |= (pkt->meta->l3_header_offset & AL_ETH_TX_META_L3_OFF_MASK) <<
				AL_ETH_TX_META_L3_OFF_SHIFT;
			meta_word_2 |= (pkt->meta->l4_header_len & 0x3f) << 16;

			if (unlikely(pkt->flags & AL_ETH_TX_FLAGS_TS))
				meta_word_0 |= pkt->meta->ts_index <<
					AL_ETH_TX_META_MSS_MSB_TS_VAL_SHIFT;
			else
				meta_word_0 |= (((pkt->meta->mss_val & 0x3c00) >> 10)
						<< AL_ETH_TX_META_MSS_MSB_TS_VAL_SHIFT);
			meta_word_2 |= ((pkt->meta->mss_val & 0x03ff)
					<< AL_ETH_TX_META_MSS_LSB_VAL_SHIFT);

			/*
			 * move from bytes to multiplication of 2 as the HW
			 * expect to get it
			 */
			l3_offset = (pkt->meta->outer_l3_offset >> 1);

			meta_word_0 |=
				(((l3_offset &
				   AL_ETH_TX_META_OUTER_L3_OFF_HIGH_MASK) >> 3)
				   << AL_ETH_TX_META_OUTER_L3_OFF_HIGH_SHIFT);

			meta_word_3 |=
				((l3_offset &
				   AL_ETH_TX_META_OUTER_L3_OFF_LOW_MASK)
				   << AL_ETH_TX_META_OUTER_L3_OFF_LOW_SHIFT);

			/*
			 * shift right 2 bits to work in multiplication of 4
			 * as the HW expect to get it
			 */
			meta_word_3 |=
				(((pkt->meta->outer_l3_len >> 2) &
				   AL_ETH_TX_META_OUTER_L3_LEN_MASK)
				   << AL_ETH_TX_META_OUTER_L3_LEN_SHIFT);
		}

		tx_desc->tx_meta.len_ctrl = swap32_to_le(meta_word_0);
		tx_desc->tx_meta.meta_ctrl = swap32_to_le(meta_word_1);
		tx_desc->tx_meta.meta1 = swap32_to_le(meta_word_2);
		tx_desc->tx_meta.meta2 = swap32_to_le(meta_word_3);
		al_dump_tx_desc(tx_desc);
	}

	meta_ctrl = pkt->flags & AL_ETH_TX_PKT_META_FLAGS;

	/* L4_PARTIAL_CSUM without L4_CSUM is invalid option  */
	al_assert((pkt->flags & (AL_ETH_TX_FLAGS_L4_CSUM|AL_ETH_TX_FLAGS_L4_PARTIAL_CSUM)) !=
		  AL_ETH_TX_FLAGS_L4_PARTIAL_CSUM);

	/* TSO packets can't have Timestamp enabled */
	al_assert((pkt->flags & (AL_ETH_TX_FLAGS_TSO|AL_ETH_TX_FLAGS_TS)) !=
		  (AL_ETH_TX_FLAGS_TSO|AL_ETH_TX_FLAGS_TS));

	meta_ctrl |= pkt->l3_proto_idx;
	meta_ctrl |= pkt->l4_proto_idx << AL_ETH_TX_L4_PROTO_IDX_SHIFT;
	meta_ctrl |= pkt->source_vlan_count << AL_ETH_TX_SRC_VLAN_CNT_SHIFT;
	meta_ctrl |= pkt->vlan_mod_add_count << AL_ETH_TX_VLAN_MOD_ADD_SHIFT;
	meta_ctrl |= pkt->vlan_mod_del_count << AL_ETH_TX_VLAN_MOD_DEL_SHIFT;
	meta_ctrl |= pkt->vlan_mod_v1_ether_sel << AL_ETH_TX_VLAN_MOD_E_SEL_SHIFT;
	meta_ctrl |= pkt->vlan_mod_v1_vid_sel << AL_ETH_TX_VLAN_MOD_VID_SEL_SHIFT;
	meta_ctrl |= pkt->vlan_mod_v1_pbits_sel << AL_ETH_TX_VLAN_MOD_PBIT_SEL_SHIFT;

#ifdef AL_ETH_EX
	if ((pkt->ext_meta_data != NULL) && (pkt->ext_meta_data->tx_crypto_data != NULL))
		meta_ctrl |= AL_ETH_TX_FLAGS_ENCRYPT;
#endif

	meta_ctrl |= pkt->tunnel_mode << AL_ETH_TX_TUNNEL_MODE_SHIFT;
	if (pkt->outer_l3_proto_idx == AL_ETH_PROTO_ID_IPv4)
		meta_ctrl |= 1 << AL_ETH_TX_OUTER_L3_PROTO_SHIFT;

	flags |= pkt->flags & AL_ETH_TX_PKT_UDMA_FLAGS;
	for(buf_idx = 0; buf_idx < pkt->num_of_bufs; buf_idx++ ) {
		uint32_t flags_len = flags;

		tx_desc = al_udma_desc_get(tx_dma_q);
		/* get ring id, and clear FIRST and Int flags */
		ring_id = al_udma_ring_id_get(tx_dma_q) <<
			AL_M2S_DESC_RING_ID_SHIFT;

		flags_len |= ring_id;

		if (buf_idx == (pkt->num_of_bufs - 1))
			flags_len |= AL_M2S_DESC_LAST;

		/* clear First and Int flags */
		flags &= AL_ETH_TX_FLAGS_NO_SNOOP;
		flags |= AL_M2S_DESC_CONCAT;

		flags_len |= pkt->bufs[buf_idx].len & AL_M2S_DESC_LEN_MASK;
		tx_desc->tx.len_ctrl = swap32_to_le(flags_len);
		if (buf_idx == 0)
			tx_desc->tx.meta_ctrl = swap32_to_le(meta_ctrl);
		tx_desc->tx.buf_ptr = swap64_to_le(
			pkt->bufs[buf_idx].addr | tgtid);
		al_dump_tx_desc(tx_desc);
	}

	al_dbg("[%s %d]: pkt descriptors written into the tx queue. descs num (%d)\n",
		tx_dma_q->udma->name, tx_dma_q->qid, tx_descs);

	return tx_descs;
}


void al_eth_tx_dma_action(struct al_udma_q *tx_dma_q, uint32_t tx_descs)
{
	/* add tx descriptors */
	al_udma_desc_action_add(tx_dma_q, tx_descs);
}

/**
 * get number of completed tx descriptors, upper layer should derive from
 */
int al_eth_comp_tx_get(struct al_udma_q *tx_dma_q)
{
	int rc;

	rc = al_udma_cdesc_get_all(tx_dma_q, NULL);
	if (rc != 0) {
		al_udma_cdesc_ack(tx_dma_q, rc);
		al_dbg("[%s %d]: tx completion: descs (%d)\n",
			 tx_dma_q->udma->name, tx_dma_q->qid, rc);
	}

	return rc;
}

/**
 * configure the TSO MSS val
 */
int al_eth_tso_mss_config(struct al_hal_eth_adapter *adapter, uint8_t idx, uint32_t mss_val)
{

	al_assert(idx <= 8); /*valid MSS index*/
	al_assert(mss_val <= AL_ETH_TSO_MSS_MAX_VAL); /*valid MSS val*/
	al_assert(mss_val >= AL_ETH_TSO_MSS_MIN_VAL); /*valid MSS val*/

	al_reg_write32(&adapter->ec_regs_base->tso_sel[idx].mss, mss_val);
	return 0;
}


/* RX */
/**
 * config the rx descriptor fields
 */
void al_eth_rx_desc_config(
			struct al_hal_eth_adapter *adapter,
			enum al_eth_rx_desc_lro_context_val_res lro_sel,
			enum al_eth_rx_desc_l4_offset_sel l4_offset_sel,
			enum al_eth_rx_desc_l3_offset_sel l3_offset_sel,
			enum al_eth_rx_desc_l4_chk_res_sel l4_sel,
			enum al_eth_rx_desc_l3_chk_res_sel l3_sel,
			enum al_eth_rx_desc_l3_proto_idx_sel l3_proto_sel,
			enum al_eth_rx_desc_l4_proto_idx_sel l4_proto_sel,
			enum al_eth_rx_desc_frag_sel frag_sel)
{
	uint32_t reg_val = 0;

	reg_val |= (lro_sel == AL_ETH_L4_OFFSET) ?
			EC_RFW_CFG_A_0_LRO_CONTEXT_SEL : 0;

	reg_val |= (l4_sel == AL_ETH_L4_INNER_OUTER_CHK) ?
			EC_RFW_CFG_A_0_META_L4_CHK_RES_SEL : 0;

	reg_val |= l3_sel << EC_RFW_CFG_A_0_META_L3_CHK_RES_SEL_SHIFT;

	al_reg_write32(&adapter->ec_regs_base->rfw.cfg_a_0, reg_val);

	reg_val = al_reg_read32(&adapter->ec_regs_base->rfw.meta);
	if (l3_proto_sel == AL_ETH_L3_PROTO_IDX_INNER)
		reg_val |= EC_RFW_META_L3_PROT_SEL;
	else
		reg_val &= ~EC_RFW_META_L3_PROT_SEL;

	if (l4_proto_sel == AL_ETH_L4_PROTO_IDX_INNER)
		reg_val |= EC_RFW_META_L4_PROT_SEL;
	else
		reg_val &= ~EC_RFW_META_L4_PROT_SEL;

	if (l4_offset_sel == AL_ETH_L4_OFFSET_INNER)
		reg_val |= EC_RFW_META_L4_OFFSET_SEL;
	else
		reg_val &= ~EC_RFW_META_L4_OFFSET_SEL;

	if (l3_offset_sel == AL_ETH_L3_OFFSET_INNER)
		reg_val |= EC_RFW_META_L3_OFFSET_SEL;
	else
		reg_val &= ~EC_RFW_META_L3_OFFSET_SEL;

	if (frag_sel == AL_ETH_FRAG_INNER)
		reg_val |= EC_RFW_META_FRAG_SEL;
	else
		reg_val &= ~EC_RFW_META_FRAG_SEL;


	al_reg_write32(&adapter->ec_regs_base->rfw.meta, reg_val);
}

/**
 * Configure RX header split
 */
int al_eth_rx_header_split_config(struct al_hal_eth_adapter *adapter, al_bool enable, uint32_t header_len)
{
	uint32_t	reg;

	reg = al_reg_read32(&adapter->ec_regs_base->rfw.hdr_split);
	if (enable == AL_TRUE)
		reg |= EC_RFW_HDR_SPLIT_EN;
	else
		reg &= ~EC_RFW_HDR_SPLIT_EN;

	AL_REG_FIELD_SET(reg, EC_RFW_HDR_SPLIT_DEF_LEN_MASK, EC_RFW_HDR_SPLIT_DEF_LEN_SHIFT, header_len);
	al_reg_write32(&adapter->ec_regs_base->rfw.hdr_split, reg);
	return 0;
}


/**
 * enable / disable header split in the udma queue.
 * length will be taken from the udma configuration to enable different length per queue.
 */
int al_eth_rx_header_split_force_len_config(struct al_hal_eth_adapter *adapter,
					al_bool enable,
					uint32_t qid,
					uint32_t header_len)
{
	al_udma_s2m_q_compl_hdr_split_config(&(adapter->rx_udma.udma_q[qid]), enable,
					     AL_TRUE, header_len);

	return 0;
}


/**
 * add buffer to receive queue
 */
int al_eth_rx_buffer_add(struct al_udma_q *rx_dma_q,
			      struct al_buf *buf, uint32_t flags,
			      struct al_buf *header_buf)
{
	uint64_t tgtid = ((uint64_t)flags & AL_ETH_RX_FLAGS_TGTID_MASK) <<
		AL_UDMA_DESC_TGTID_SHIFT;
	uint32_t flags_len = flags & ~AL_ETH_RX_FLAGS_TGTID_MASK;
	union al_udma_desc *rx_desc;

	al_dbg("[%s %d]: add rx buffer.\n", rx_dma_q->udma->name, rx_dma_q->qid);

#if 1
	if (unlikely(al_udma_available_get(rx_dma_q) < 1)) {
		al_dbg("[%s]: rx q (%d) has no enough free descriptor",
			 rx_dma_q->udma->name, rx_dma_q->qid);
		return -ENOSPC;
	}
#endif
	rx_desc = al_udma_desc_get(rx_dma_q);

	flags_len |= al_udma_ring_id_get(rx_dma_q) << AL_S2M_DESC_RING_ID_SHIFT;
	flags_len |= buf->len & AL_S2M_DESC_LEN_MASK;

	if (flags & AL_S2M_DESC_DUAL_BUF) {
		al_assert(header_buf != NULL); /*header valid in dual buf */
		al_assert((rx_dma_q->udma->rev_id >= AL_UDMA_REV_ID_2) ||
			(AL_ADDR_HIGH(buf->addr) == AL_ADDR_HIGH(header_buf->addr)));

		flags_len |= ((header_buf->len >> AL_S2M_DESC_LEN2_GRANULARITY_SHIFT)
			<< AL_S2M_DESC_LEN2_SHIFT) & AL_S2M_DESC_LEN2_MASK;
		rx_desc->rx.buf2_ptr_lo = swap32_to_le(AL_ADDR_LOW(header_buf->addr));
	}
	rx_desc->rx.len_ctrl = swap32_to_le(flags_len);
	rx_desc->rx.buf1_ptr = swap64_to_le(buf->addr | tgtid);

	return 0;
}

/**
 * notify the hw engine about rx descriptors that were added to the receive queue
 */
void al_eth_rx_buffer_action(struct al_udma_q *rx_dma_q, uint32_t descs_num)
{
	al_dbg("[%s]: update the rx engine tail pointer: queue %d. descs %d\n",
		 rx_dma_q->udma->name, rx_dma_q->qid, descs_num);

	/* add rx descriptor */
	al_udma_desc_action_add(rx_dma_q, descs_num);
}

/**
 * get packet from RX completion ring
 */
uint32_t al_eth_pkt_rx(struct al_udma_q *rx_dma_q,
			      struct al_eth_pkt *pkt)
{
	volatile union al_udma_cdesc *cdesc;
	volatile al_eth_rx_cdesc *rx_desc;
	uint32_t i;
	uint32_t rc;

	rc = al_udma_cdesc_packet_get(rx_dma_q, &cdesc);
	if (rc == 0)
		return 0;

	al_assert(rc <= AL_ETH_PKT_MAX_BUFS);

	al_dbg("[%s]: fetch rx packet: queue %d.\n",
		 rx_dma_q->udma->name, rx_dma_q->qid);

	pkt->rx_header_len = 0;
	for (i = 0; i < rc; i++) {
		uint32_t buf1_len, buf2_len;

		/* get next descriptor */
		rx_desc = (volatile al_eth_rx_cdesc *)al_cdesc_next(rx_dma_q, cdesc, i);

		buf1_len = swap32_from_le(rx_desc->len);

		if ((i == 0) && (swap32_from_le(rx_desc->word2) &
			AL_UDMA_CDESC_BUF2_USED)) {
			buf2_len = swap32_from_le(rx_desc->word2);
			pkt->rx_header_len = (buf2_len & AL_S2M_DESC_LEN2_MASK) >>
			AL_S2M_DESC_LEN2_SHIFT;
			}
		if ((swap32_from_le(rx_desc->ctrl_meta) & AL_UDMA_CDESC_BUF1_USED) &&
			((swap32_from_le(rx_desc->ctrl_meta) & AL_UDMA_CDESC_DDP) == 0))
			pkt->bufs[i].len = buf1_len & AL_S2M_DESC_LEN_MASK;
		else
			pkt->bufs[i].len = 0;
	}
	/* get flags from last desc */
	pkt->flags = swap32_from_le(rx_desc->ctrl_meta);
#ifdef AL_ETH_RX_DESC_RAW_GET
	pkt->rx_desc_raw[0] = pkt->flags;
	pkt->rx_desc_raw[1] = swap32_from_le(rx_desc->len);
	pkt->rx_desc_raw[2] = swap32_from_le(rx_desc->word2);
	pkt->rx_desc_raw[3] = swap32_from_le(rx_desc->word3);
#endif
	/* update L3/L4 proto index */
	pkt->l3_proto_idx = pkt->flags & AL_ETH_RX_L3_PROTO_IDX_MASK;
	pkt->l4_proto_idx = (pkt->flags >> AL_ETH_RX_L4_PROTO_IDX_SHIFT) &
				AL_ETH_RX_L4_PROTO_IDX_MASK;
	pkt->rxhash = (swap32_from_le(rx_desc->len) & AL_ETH_RX_HASH_MASK) >>
			AL_ETH_RX_HASH_SHIFT;
	pkt->l3_offset = (swap32_from_le(rx_desc->word2) & AL_ETH_RX_L3_OFFSET_MASK) >> AL_ETH_RX_L3_OFFSET_SHIFT;

	al_udma_cdesc_ack(rx_dma_q, rc);
	return rc;
}


int al_eth_rx_parser_entry_update(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_epe_p_reg_entry *reg_entry,
		struct al_eth_epe_control_entry *control_entry)
{
	al_eth_epe_entry_set(adapter, idx, reg_entry, control_entry);
	return 0;
}

#define AL_ETH_THASH_UDMA_SHIFT		0
#define AL_ETH_THASH_UDMA_MASK		(0xF << AL_ETH_THASH_UDMA_SHIFT)

#define AL_ETH_THASH_Q_SHIFT		4
#define AL_ETH_THASH_Q_MASK		(0x3 << AL_ETH_THASH_Q_SHIFT)

int al_eth_thash_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t udma, uint32_t queue)
{
	uint32_t entry;
	al_assert(idx < AL_ETH_RX_THASH_TABLE_SIZE); /*valid THASH index*/

	entry = (udma << AL_ETH_THASH_UDMA_SHIFT) & AL_ETH_THASH_UDMA_MASK;
	entry |= (queue << AL_ETH_THASH_Q_SHIFT) & AL_ETH_THASH_Q_MASK;

	al_reg_write32(&adapter->ec_regs_base->rfw.thash_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.thash_table_data, entry);
	return 0;
}

int al_eth_fsm_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t entry)
{

	al_assert(idx < AL_ETH_RX_FSM_TABLE_SIZE); /*valid FSM index*/


	al_reg_write32(&adapter->ec_regs_base->rfw.fsm_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.fsm_table_data, entry);
	return 0;
}

static uint32_t	al_eth_fwd_ctrl_entry_to_val(struct al_eth_fwd_ctrl_table_entry *entry)
{
	uint32_t val = 0;
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(3,0), 0, entry->prio_sel);
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(7,4), 4, entry->queue_sel_1);
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(9,8), 8, entry->queue_sel_2);
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(13,10), 10, entry->udma_sel);
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(17,15), 15, entry->hdr_split_len_sel);
	if (entry->hdr_split_len_sel != AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_0)
		val |= AL_BIT(18);
	AL_REG_BIT_VAL_SET(val, 19, !!(entry->filter == AL_TRUE));

	return val;
}

static int al_eth_ctrl_index_match(struct al_eth_fwd_ctrl_table_index *index, uint32_t i) {
	if ((index->vlan_table_out != AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT_ANY)
		&& (index->vlan_table_out != AL_REG_BIT_GET(i, 0)))
		return 0;
	if ((index->tunnel_exist != AL_ETH_FWD_CTRL_IDX_TUNNEL_ANY)
		&& (index->tunnel_exist != AL_REG_BIT_GET(i, 1)))
		return 0;
	if ((index->vlan_exist != AL_ETH_FWD_CTRL_IDX_VLAN_ANY)
		&& (index->vlan_exist != AL_REG_BIT_GET(i, 2)))
		return 0;
	if ((index->mac_table_match != AL_ETH_FWD_CTRL_IDX_MAC_TABLE_ANY)
		&& (index->mac_table_match != AL_REG_BIT_GET(i, 3)))
		return 0;
	if ((index->protocol_id != AL_ETH_PROTO_ID_ANY)
		&& (index->protocol_id != AL_REG_FIELD_GET(i, AL_FIELD_MASK(8,4),4)))
		return 0;
	if ((index->mac_type != AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE_ANY)
		&& (index->mac_type != AL_REG_FIELD_GET(i, AL_FIELD_MASK(10,9),9)))
		return 0;
	return 1;
}

int al_eth_ctrl_table_set(struct al_hal_eth_adapter *adapter,
			  struct al_eth_fwd_ctrl_table_index *index,
			  struct al_eth_fwd_ctrl_table_entry *entry)
{
	uint32_t val = al_eth_fwd_ctrl_entry_to_val(entry);
	uint32_t i;

	for (i = 0; i < AL_ETH_RX_CTRL_TABLE_SIZE; i++) {
		if (al_eth_ctrl_index_match(index, i)) {
			al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_addr, i);
			al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_data, val);
		}
	}
	return 0;
}

int al_eth_ctrl_table_def_set(struct al_hal_eth_adapter *adapter,
			      al_bool use_table,
			      struct al_eth_fwd_ctrl_table_entry *entry)
{
	uint32_t val = al_eth_fwd_ctrl_entry_to_val(entry);

	if (use_table)
		val |= EC_RFW_CTRL_TABLE_DEF_SEL;

	al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_def, val);

	return 0;
}

int al_eth_ctrl_table_raw_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t entry)
{

	al_assert(idx < AL_ETH_RX_CTRL_TABLE_SIZE); /* valid CTRL index */


	al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_data, entry);
	return 0;
}

int al_eth_ctrl_table_def_raw_set(struct al_hal_eth_adapter *adapter, uint32_t val)
{
	al_reg_write32(&adapter->ec_regs_base->rfw.ctrl_table_def, val);

	return 0;
}

int al_eth_hash_key_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t val)
{

	al_assert(idx < AL_ETH_RX_HASH_KEY_NUM); /*valid CTRL index*/

	al_reg_write32(&adapter->ec_regs_base->rfw_hash[idx].key, val);

	return 0;
}

static uint32_t	al_eth_fwd_mac_table_entry_to_val(struct al_eth_fwd_mac_table_entry *entry)
{
	uint32_t val = 0;

	val |= (entry->filter == AL_TRUE) ? EC_FWD_MAC_CTRL_RX_VAL_DROP : 0;
	val |= ((entry->udma_mask << EC_FWD_MAC_CTRL_RX_VAL_UDMA_SHIFT) &
					EC_FWD_MAC_CTRL_RX_VAL_UDMA_MASK);

	val |= ((entry->qid << EC_FWD_MAC_CTRL_RX_VAL_QID_SHIFT) &
					EC_FWD_MAC_CTRL_RX_VAL_QID_MASK);

	val |= (entry->rx_valid == AL_TRUE) ? EC_FWD_MAC_CTRL_RX_VALID : 0;

	val |= ((entry->tx_target << EC_FWD_MAC_CTRL_TX_VAL_SHIFT) &
					EC_FWD_MAC_CTRL_TX_VAL_MASK);

	val |= (entry->tx_valid == AL_TRUE) ? EC_FWD_MAC_CTRL_TX_VALID : 0;

	return val;
}

int al_eth_fwd_mac_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
			     struct al_eth_fwd_mac_table_entry *entry)
{
	uint32_t val;

	al_assert(idx < AL_ETH_FWD_MAC_NUM); /*valid FWD MAC index */

	val = (entry->addr[2] << 24) | (entry->addr[3] << 16) |
	      (entry->addr[4] << 8) | entry->addr[5];
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].data_l, val);
	val = (entry->addr[0] << 8) | entry->addr[1];
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].data_h, val);
	val = (entry->mask[2] << 24) | (entry->mask[3] << 16) |
	      (entry->mask[4] << 8) | entry->mask[5];
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].mask_l, val);
	val = (entry->mask[0] << 8) | entry->mask[1];
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].mask_h, val);

	val = al_eth_fwd_mac_table_entry_to_val(entry);
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].ctrl, val);
	return 0;
}



int al_eth_fwd_mac_addr_raw_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t addr_lo, uint32_t addr_hi, uint32_t mask_lo, uint32_t mask_hi)
{
	al_assert(idx < AL_ETH_FWD_MAC_NUM); /*valid FWD MAC index */

	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].data_l, addr_lo);
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].data_h, addr_hi);
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].mask_l, mask_lo);
	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].mask_h, mask_hi);

	return 0;
}

int al_eth_fwd_mac_ctrl_raw_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t ctrl)
{
	al_assert(idx < AL_ETH_FWD_MAC_NUM); /*valid FWD MAC index */

	al_reg_write32(&adapter->ec_regs_base->fwd_mac[idx].ctrl, ctrl);

	return 0;
}

int al_eth_mac_addr_store(void * __iomem ec_base, uint32_t idx, uint8_t *addr)
{
	struct al_ec_regs __iomem *ec_regs_base = (struct al_ec_regs __iomem*)ec_base;
	uint32_t val;

	al_assert(idx < AL_ETH_FWD_MAC_NUM); /*valid FWD MAC index */

	val = (addr[2] << 24) | (addr[3] << 16) | (addr[4] << 8) | addr[5];
	al_reg_write32(&ec_regs_base->fwd_mac[idx].data_l, val);
	val = (addr[0] << 8) | addr[1];
	al_reg_write32(&ec_regs_base->fwd_mac[idx].data_h, val);
	return 0;
}

int al_eth_mac_addr_read(void * __iomem ec_base, uint32_t idx, uint8_t *addr)
{
	struct al_ec_regs __iomem *ec_regs_base = (struct al_ec_regs __iomem*)ec_base;
	uint32_t addr_lo = al_reg_read32(&ec_regs_base->fwd_mac[idx].data_l);
	uint16_t addr_hi = al_reg_read32(&ec_regs_base->fwd_mac[idx].data_h);

	addr[5] = addr_lo & 0xff;
	addr[4] = (addr_lo >> 8) & 0xff;
	addr[3] = (addr_lo >> 16) & 0xff;
	addr[2] = (addr_lo >> 24) & 0xff;
	addr[1] = addr_hi & 0xff;
	addr[0] = (addr_hi >> 8) & 0xff;
	return 0;
}

int al_eth_fwd_mhash_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t udma_mask, uint8_t qid)
{
	uint32_t val = 0;
	al_assert(idx < AL_ETH_FWD_MAC_HASH_NUM); /* valid MHASH index */

	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(3,0), 0, udma_mask);
	AL_REG_FIELD_SET(val,  AL_FIELD_MASK(5,4), 4, qid);

	al_reg_write32(&adapter->ec_regs_base->rfw.mhash_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.mhash_table_data, val);
	return 0;
}
static uint32_t	al_eth_fwd_vid_entry_to_val(struct al_eth_fwd_vid_table_entry *entry)
{
	uint32_t val = 0;
	AL_REG_BIT_VAL_SET(val, 0, entry->control);
	AL_REG_BIT_VAL_SET(val, 1, entry->filter);
	AL_REG_FIELD_SET(val, AL_FIELD_MASK(5,2), 2, entry->udma_mask);

	return val;
}

int al_eth_fwd_vid_config_set(struct al_hal_eth_adapter *adapter, al_bool use_table,
			      struct al_eth_fwd_vid_table_entry *default_entry,
			      uint32_t default_vlan)
{
	uint32_t reg;

	reg = al_eth_fwd_vid_entry_to_val(default_entry);
	if (use_table)
		reg |= EC_RFW_VID_TABLE_DEF_SEL;
	else
		reg &= ~EC_RFW_VID_TABLE_DEF_SEL;
	al_reg_write32(&adapter->ec_regs_base->rfw.vid_table_def, reg);
	al_reg_write32(&adapter->ec_regs_base->rfw.default_vlan, default_vlan);

	return 0;
}

int al_eth_fwd_vid_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
			     struct al_eth_fwd_vid_table_entry *entry)
{
	uint32_t val;
	al_assert(idx < AL_ETH_FWD_VID_TABLE_NUM); /* valid VID index */

	val = al_eth_fwd_vid_entry_to_val(entry);
	al_reg_write32(&adapter->ec_regs_base->rfw.vid_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.vid_table_data, val);
	return 0;
}

int al_eth_fwd_pbits_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio)
{

	al_assert(idx < AL_ETH_FWD_PBITS_TABLE_NUM); /* valid PBIT index */
	al_assert(prio < AL_ETH_FWD_PRIO_TABLE_NUM); /* valid PRIO index */
	al_reg_write32(&adapter->ec_regs_base->rfw.pbits_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.pbits_table_data, prio);
	return 0;
}

int al_eth_fwd_priority_table_set(struct al_hal_eth_adapter *adapter, uint8_t prio, uint8_t qid)
{
	al_assert(prio < AL_ETH_FWD_PRIO_TABLE_NUM); /* valid PRIO index */

	al_reg_write32(&adapter->ec_regs_base->rfw_priority[prio].queue, qid);
	return 0;
}


int al_eth_fwd_dscp_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio)
{

	al_assert(idx < AL_ETH_FWD_DSCP_TABLE_NUM); /* valid DSCP index */


	al_reg_write32(&adapter->ec_regs_base->rfw.dscp_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.dscp_table_data, prio);
	return 0;
}

int al_eth_fwd_tc_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio)
{

	al_assert(idx < AL_ETH_FWD_TC_TABLE_NUM); /* valid TC index */


	al_reg_write32(&adapter->ec_regs_base->rfw.tc_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw.tc_table_data, prio);
	return 0;
}

/** Configure default UDMA register */
int al_eth_fwd_default_udma_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
				   uint8_t udma_mask)
{
	al_reg_write32_masked(&adapter->ec_regs_base->rfw_default[idx].opt_1,
			       EC_RFW_DEFAULT_OPT_1_UDMA_MASK,
			       udma_mask << EC_RFW_DEFAULT_OPT_1_UDMA_SHIFT);
	return 0;
}

/** Configure default queue register */
int al_eth_fwd_default_queue_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
				   uint8_t qid)
{
	al_reg_write32_masked(&adapter->ec_regs_base->rfw_default[idx].opt_1,
			       EC_RFW_DEFAULT_OPT_1_QUEUE_MASK,
			       qid << EC_RFW_DEFAULT_OPT_1_QUEUE_SHIFT);
	return 0;
}

/** Configure default priority register */
int al_eth_fwd_default_priority_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
				   uint8_t prio)
{
	al_reg_write32_masked(&adapter->ec_regs_base->rfw_default[idx].opt_1,
			       EC_RFW_DEFAULT_OPT_1_PRIORITY_MASK,
			       prio << EC_RFW_DEFAULT_OPT_1_PRIORITY_SHIFT);
	return 0;
}

int al_eth_switching_config_set(struct al_hal_eth_adapter *adapter, uint8_t udma_id, uint8_t forward_all_to_mac, uint8_t enable_int_switching,
					enum al_eth_tx_switch_vid_sel_type vid_sel_type,
					enum al_eth_tx_switch_dec_type uc_dec,
					enum al_eth_tx_switch_dec_type mc_dec,
					enum al_eth_tx_switch_dec_type bc_dec)
{
	uint32_t reg;

	if (udma_id == 0) {
		reg = al_reg_read32(&adapter->ec_regs_base->tfw.tx_gen);
		if (forward_all_to_mac)
			reg |= EC_TFW_TX_GEN_FWD_ALL_TO_MAC;
		else
			reg &= ~EC_TFW_TX_GEN_FWD_ALL_TO_MAC;
		al_reg_write32(&adapter->ec_regs_base->tfw.tx_gen, reg);
	}

	reg = enable_int_switching;
	reg |= (vid_sel_type & 7) << 1;
	reg |= (bc_dec & 3) << 4;
	reg |= (mc_dec & 3) << 6;
	reg |= (uc_dec & 3) << 8;
	al_reg_write32(&adapter->ec_regs_base->tfw_udma[udma_id].fwd_dec, reg);

	return 0;
}

#define AL_ETH_RFW_FILTER_SUPPORTED(rev_id)	\
	(AL_ETH_RFW_FILTER_UNDET_MAC | \
	AL_ETH_RFW_FILTER_DET_MAC | \
	AL_ETH_RFW_FILTER_TAGGED | \
	AL_ETH_RFW_FILTER_UNTAGGED | \
	AL_ETH_RFW_FILTER_BC | \
	AL_ETH_RFW_FILTER_MC | \
	AL_ETH_RFW_FILTER_VLAN_VID | \
	AL_ETH_RFW_FILTER_CTRL_TABLE | \
	AL_ETH_RFW_FILTER_PROT_INDEX | \
	AL_ETH_RFW_FILTER_WOL | \
	AL_ETH_RFW_FILTER_PARSE)

/* Configure the receive filters */
int al_eth_filter_config(struct al_hal_eth_adapter *adapter, struct al_eth_filter_params *params)
{
	uint32_t reg;

	al_assert(params); /* valid params pointer */

	if (params->filters & ~(AL_ETH_RFW_FILTER_SUPPORTED(adapter->rev_id))) {
		al_err("[%s]: unsupported filter options (0x%08x)\n", adapter->name, params->filters);
		return -EINVAL;
	}

	reg = al_reg_read32(&adapter->ec_regs_base->rfw.out_cfg);
	if (params->enable == AL_TRUE)
		AL_REG_MASK_SET(reg, EC_RFW_OUT_CFG_DROP_EN);
	else
		AL_REG_MASK_CLEAR(reg, EC_RFW_OUT_CFG_DROP_EN);
	al_reg_write32(&adapter->ec_regs_base->rfw.out_cfg, reg);

	al_reg_write32_masked(
		&adapter->ec_regs_base->rfw.filter,
		AL_ETH_RFW_FILTER_SUPPORTED(adapter->rev_id),
		params->filters);
	if (params->filters & AL_ETH_RFW_FILTER_PROT_INDEX) {
		int i;
		for (i = 0; i < AL_ETH_PROTOCOLS_NUM; i++) {
			reg = al_reg_read32(&adapter->ec_regs_base->epe_a[i].prot_act);
			if (params->filter_proto[i] == AL_TRUE)
				AL_REG_MASK_SET(reg, EC_EPE_A_PROT_ACT_DROP);
			else
				AL_REG_MASK_CLEAR(reg, EC_EPE_A_PROT_ACT_DROP);
			al_reg_write32(&adapter->ec_regs_base->epe_a[i].prot_act, reg);
		}
	}
	return 0;
}

/* Configure the receive override filters */
int al_eth_filter_override_config(struct al_hal_eth_adapter *adapter,
				  struct al_eth_filter_override_params *params)
{
	uint32_t reg;

	al_assert(params); /* valid params pointer */

	if (params->filters & ~(AL_ETH_RFW_FILTER_SUPPORTED(adapter->rev_id))) {
		al_err("[%s]: unsupported override filter options (0x%08x)\n", adapter->name, params->filters);
		return -EINVAL;
	}

	al_reg_write32_masked(
		&adapter->ec_regs_base->rfw.filter,
		AL_ETH_RFW_FILTER_SUPPORTED(adapter->rev_id) << 16,
		params->filters << 16);

	reg = al_reg_read32(&adapter->ec_regs_base->rfw.default_or);
	AL_REG_FIELD_SET(reg, EC_RFW_DEFAULT_OR_UDMA_MASK, EC_RFW_DEFAULT_OR_UDMA_SHIFT, params->udma);
	AL_REG_FIELD_SET(reg, EC_RFW_DEFAULT_OR_QUEUE_MASK, EC_RFW_DEFAULT_OR_QUEUE_SHIFT, params->qid);
	al_reg_write32(&adapter->ec_regs_base->rfw.default_or, reg);
	return 0;
}



int al_eth_switching_default_bitmap_set(struct al_hal_eth_adapter *adapter, uint8_t udma_id, uint8_t udma_uc_bitmask,
						uint8_t udma_mc_bitmask,uint8_t udma_bc_bitmask)
{
	al_reg_write32(&adapter->ec_regs_base->tfw_udma[udma_id].uc_udma, udma_uc_bitmask);
	al_reg_write32(&adapter->ec_regs_base->tfw_udma[udma_id].mc_udma, udma_mc_bitmask);
	al_reg_write32(&adapter->ec_regs_base->tfw_udma[udma_id].bc_udma, udma_bc_bitmask);

	return 0;
}

int al_eth_flow_control_config(struct al_hal_eth_adapter *adapter, struct al_eth_flow_control_params *params)
{
	uint32_t reg;
	int i;
	al_assert(params); /* valid params pointer */

	switch(params->type){
	case AL_ETH_FLOW_CONTROL_TYPE_LINK_PAUSE:
		al_dbg("[%s]: config flow control to link pause mode.\n", adapter->name);

		/* config the mac */
		if (AL_ETH_IS_1G_MAC(adapter->mac_mode)) {
			/* set quanta value */
			al_reg_write32(
				&adapter->mac_regs_base->mac_1g.pause_quant,
				params->quanta);
			al_reg_write32(
				&adapter->ec_regs_base->efc.xoff_timer_1g,
				params->quanta_th);

		} else if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
			/* set quanta value */
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl01_pause_quanta,
				params->quanta);
			/* set quanta threshold value */
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl01_quanta_thresh,
				params->quanta_th);
		} else {
			/* set quanta value */
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL01_PAUSE_QUANTA_ADDR,
				params->quanta);
			/* set quanta threshold value */
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL01_QUANTA_THRESH_ADDR,
				params->quanta_th);
		}

		if (params->obay_enable == AL_TRUE)
			/* Tx path FIFO, unmask pause_on from MAC when PAUSE packet received */
			al_reg_write32(&adapter->ec_regs_base->efc.ec_pause, 1);
		else
			al_reg_write32(&adapter->ec_regs_base->efc.ec_pause, 0);


		/* Rx path */
		if (params->gen_enable == AL_TRUE)
			/* enable generating xoff from ec fifo almost full indication in hysteresis mode */
			al_reg_write32(&adapter->ec_regs_base->efc.ec_xoff, 1 << EC_EFC_EC_XOFF_MASK_2_SHIFT);
		else
			al_reg_write32(&adapter->ec_regs_base->efc.ec_xoff, 0);

		if (AL_ETH_IS_1G_MAC(adapter->mac_mode))
			/* in 1G mode, enable generating xon from ec fifo in hysteresis mode*/
			al_reg_write32(&adapter->ec_regs_base->efc.xon, EC_EFC_XON_MASK_2 | EC_EFC_XON_MASK_1);

		/* set hysteresis mode thresholds */
		al_reg_write32(&adapter->ec_regs_base->efc.rx_fifo_hyst, params->rx_fifo_th_low | (params->rx_fifo_th_high << EC_EFC_RX_FIFO_HYST_TH_HIGH_SHIFT));

		for (i = 0; i < 4; i++) {
			if (params->obay_enable == AL_TRUE)
				/* Tx path UDMA, unmask pause_on for all queues */
				al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_pause_0,
						params->prio_q_map[i][0]);
			else
				al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_pause_0, 0);

			if (params->gen_enable == AL_TRUE)
				/* Rx path UDMA, enable generating xoff from UDMA queue almost full indication */
				al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_xoff_0, params->prio_q_map[i][0]);
			else
				al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_xoff_0, 0);
		}
	break;
	case AL_ETH_FLOW_CONTROL_TYPE_PFC:
		al_dbg("[%s]: config flow control to PFC mode.\n", adapter->name);
		al_assert(!AL_ETH_IS_1G_MAC(adapter->mac_mode)); /* pfc not available for RGMII mode */;

		for (i = 0; i < 4; i++) {
			int prio;
			for (prio = 0; prio < 8; prio++) {
				if (params->obay_enable == AL_TRUE)
					/* Tx path UDMA, unmask pause_on for all queues */
					al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_pause_0 + prio,
							params->prio_q_map[i][prio]);
				else
					al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_pause_0 + prio,
							0);

				if (params->gen_enable == AL_TRUE)
					al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_xoff_0 + prio,
							params->prio_q_map[i][prio]);
				else
					al_reg_write32(&adapter->ec_regs_base->fc_udma[i].q_xoff_0 + prio,
							0);
			}
		}

		/* Rx path */
		/* enable generating xoff from ec fifo almost full indication in hysteresis mode */
		if (params->gen_enable == AL_TRUE)
			al_reg_write32(&adapter->ec_regs_base->efc.ec_xoff, 0xFF << EC_EFC_EC_XOFF_MASK_2_SHIFT);
		else
			al_reg_write32(&adapter->ec_regs_base->efc.ec_xoff, 0);

		/* set hysteresis mode thresholds */
		al_reg_write32(&adapter->ec_regs_base->efc.rx_fifo_hyst, params->rx_fifo_th_low | (params->rx_fifo_th_high << EC_EFC_RX_FIFO_HYST_TH_HIGH_SHIFT));

		if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
			/* config the 10g_mac */
			/* set quanta value (same value for all prios) */
			reg = params->quanta | (params->quanta << 16);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl01_pause_quanta, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl23_pause_quanta, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl45_pause_quanta, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl67_pause_quanta, reg);
			/* set quanta threshold value (same value for all prios) */
			reg = params->quanta_th | (params->quanta_th << 16);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl01_quanta_thresh, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl23_quanta_thresh, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl45_quanta_thresh, reg);
			al_reg_write32(
				&adapter->mac_regs_base->mac_10g.cl67_quanta_thresh, reg);

			/* enable PFC in the 10g_MAC */
			reg = al_reg_read32(&adapter->mac_regs_base->mac_10g.cmd_cfg);
			reg |= 1 << 19;
			al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, reg);
		} else {
			/* config the 40g_mac */
			/* set quanta value (same value for all prios) */
			reg = params->quanta | (params->quanta << 16);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL01_PAUSE_QUANTA_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL23_PAUSE_QUANTA_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL45_PAUSE_QUANTA_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL67_PAUSE_QUANTA_ADDR, reg);
			/* set quanta threshold value (same value for all prios) */
			reg = params->quanta_th | (params->quanta_th << 16);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL01_QUANTA_THRESH_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL23_QUANTA_THRESH_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL45_QUANTA_THRESH_ADDR, reg);
			al_eth_40g_mac_reg_write(adapter,
				ETH_MAC_GEN_V3_MAC_40G_CL67_QUANTA_THRESH_ADDR, reg);

			/* enable PFC in the 40g_MAC */
			reg = al_reg_read32(&adapter->mac_regs_base->mac_10g.cmd_cfg);
			reg |= 1 << 19;
			al_reg_write32(&adapter->mac_regs_base->mac_10g.cmd_cfg, reg);
			reg = al_eth_40g_mac_reg_read(adapter, ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR);

			reg |= ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_PFC_MODE;

			al_eth_40g_mac_reg_write(adapter, ETH_MAC_GEN_V3_MAC_40G_COMMAND_CONFIG_ADDR, reg);
		}

	break;
	default:
		al_err("[%s]: unsupported flow control type %d\n", adapter->name, params->type);
		return -EINVAL;

	}
	return 0;
}

int al_eth_vlan_mod_config(struct al_hal_eth_adapter *adapter, uint8_t udma_id, uint16_t udma_etype, uint16_t vlan1_data, uint16_t vlan2_data)
{
	al_dbg("[%s]: config vlan modification registers. udma id %d.\n", adapter->name, udma_id);

	al_reg_write32(&adapter->ec_regs_base->tpm_sel[udma_id].etype, udma_etype);
	al_reg_write32(&adapter->ec_regs_base->tpm_udma[udma_id].vlan_data, vlan1_data | (vlan2_data << 16));

	return 0;
}

int al_eth_eee_get(struct al_hal_eth_adapter *adapter, struct al_eth_eee_params *params)
{
	uint32_t reg;

	al_dbg("[%s]: getting eee.\n", adapter->name);

	reg = al_reg_read32(&adapter->ec_regs_base->eee.cfg_e);
	params->enable = (reg & EC_EEE_CFG_E_ENABLE) ? AL_TRUE : AL_FALSE;

	params->tx_eee_timer = al_reg_read32(&adapter->ec_regs_base->eee.pre_cnt);
	params->min_interval = al_reg_read32(&adapter->ec_regs_base->eee.post_cnt);
	params->stop_cnt = al_reg_read32(&adapter->ec_regs_base->eee.stop_cnt);

	return 0;
}


int al_eth_eee_config(struct al_hal_eth_adapter *adapter, struct al_eth_eee_params *params)
{
	uint32_t reg;
	al_dbg("[%s]: config eee.\n", adapter->name);

	if (params->enable == 0) {
		al_dbg("[%s]: disable eee.\n", adapter->name);
		al_reg_write32(&adapter->ec_regs_base->eee.cfg_e, 0);
		return 0;
	}
	if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
		al_reg_write32_masked(
			&adapter->mac_regs_base->kr.pcs_cfg,
			ETH_MAC_KR_PCS_CFG_EEE_TIMER_VAL_MASK,
			((AL_ETH_IS_10G_MAC(adapter->mac_mode)) ?
			ETH_MAC_KR_10_PCS_CFG_EEE_TIMER_VAL :
			ETH_MAC_KR_25_PCS_CFG_EEE_TIMER_VAL) <<
			ETH_MAC_KR_PCS_CFG_EEE_TIMER_VAL_SHIFT);
	}
	if ((adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_40G) ||
		(adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_50G)) {
		al_reg_write32_masked(
			&adapter->mac_regs_base->gen_v3.pcs_40g_ll_eee_cfg,
			ETH_MAC_GEN_V3_PCS_40G_LL_EEE_CFG_TIMER_VAL_MASK,
			((adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_40G) ?
			ETH_MAC_XLG_40_PCS_CFG_EEE_TIMER_VAL :
			ETH_MAC_XLG_50_PCS_CFG_EEE_TIMER_VAL) <<
			ETH_MAC_GEN_V3_PCS_40G_LL_EEE_CFG_TIMER_VAL_SHIFT);
		/* set Deep sleep mode as the LPI function (instead of Fast wake mode) */
		al_eth_40g_pcs_reg_write(adapter, ETH_MAC_GEN_V3_PCS_40G_EEE_CONTROL_ADDR,
			params->fast_wake ? 1 : 0);
	}

	al_reg_write32(&adapter->ec_regs_base->eee.pre_cnt, params->tx_eee_timer);
	al_reg_write32(&adapter->ec_regs_base->eee.post_cnt, params->min_interval);
	al_reg_write32(&adapter->ec_regs_base->eee.stop_cnt, params->stop_cnt);

	reg = EC_EEE_CFG_E_MASK_EC_TMI_STOP | EC_EEE_CFG_E_MASK_MAC_EEE |
	       EC_EEE_CFG_E_ENABLE |
	       EC_EEE_CFG_E_USE_EC_TX_FIFO | EC_EEE_CFG_E_USE_EC_RX_FIFO;

	/*
	 * Addressing RMN: 3732
	 *
	 * RMN description:
	 * When the HW get into eee mode, it can't transmit any pause packet
	 * (when flow control policy is enabled).
	 * In such case, the HW has no way to handle extreme pushback from
	 * the Rx_path fifos.
	 *
	 * Software flow:
	 * Configure RX_FIFO empty as eee mode term.
	 * That way, nothing will prevent pause packet transmittion in
	 * case of extreme pushback from the Rx_path fifos.
	 *
	 */

	al_reg_write32(&adapter->ec_regs_base->eee.cfg_e, reg);

	return 0;
}

/* Timestamp */
/* prepare the adapter for doing Timestamps for Rx packets. */
int al_eth_ts_init(struct al_hal_eth_adapter *adapter)
{
	uint32_t reg;

	/*TODO:
	 * return error when:
	 * - working in 1G mode and MACSEC enabled
	 * - RX completion descriptor is not 8 words
	 */
	reg = al_reg_read32(&adapter->ec_regs_base->gen.en_ext);
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode))
		reg &= ~EC_GEN_EN_EXT_PTH_1_10_SEL;
	else
		reg |= EC_GEN_EN_EXT_PTH_1_10_SEL;
	/*
	 * set completion bypass so tx timestamps won't be inserted to tx cmpl
	 * (in order to disable unverified flow)
	 */
	reg |= EC_GEN_EN_EXT_PTH_COMPLETION_BYPASS;
	al_reg_write32(&adapter->ec_regs_base->gen.en_ext, reg);

	/*TODO: add the following when we have updated regs file:
	 * reg_rfw_out_cfg_timestamp_sample_out
		0 (default) – use the timestamp from the SOP info (10G MAC)
		1 – use the timestamp from the EOP (1G MAC) (noly when MACSEC is disabled)
	 */
	return 0;
}

/* read Timestamp sample value of previously transmitted packet. */
int al_eth_tx_ts_val_get(struct al_hal_eth_adapter *adapter, uint8_t ts_index,
			 uint32_t *timestamp)
{
	al_assert(ts_index < AL_ETH_PTH_TX_SAMPLES_NUM);

	/* in 1G mode, only indexes 1-7 are allowed*/
	if (AL_ETH_IS_1G_MAC(adapter->mac_mode)) {
		al_assert(ts_index <= 7);
		al_assert(ts_index >= 1);
	}

	/*TODO: check if sample is valid */
	*timestamp = al_reg_read32(&adapter->ec_regs_base->pth_db[ts_index].ts);
	return 0;
}

/* Read the systime value */
int al_eth_pth_systime_read(struct al_hal_eth_adapter *adapter,
			    struct al_eth_pth_time *systime)
{
	uint32_t reg;

	/* first we must read the subseconds MSB so the seconds register will be
	 * shadowed
	 */
	reg = al_reg_read32(&adapter->ec_regs_base->pth.system_time_subseconds_msb);
	systime->femto = (uint64_t)reg << 18;
	reg = al_reg_read32(&adapter->ec_regs_base->pth.system_time_seconds);
	systime->seconds = reg;

	return 0;
}

/* Set the clock period to a given value. */
int al_eth_pth_clk_period_write(struct al_hal_eth_adapter *adapter,
				uint64_t clk_period)
{
	uint32_t reg;
	/* first write the LSB so it will be shadowed */
	/* bits 31:14 of the clock period lsb register contains bits 17:0 of the
	 * period.
	 */
	reg = (clk_period & AL_BIT_MASK(18)) << EC_PTH_CLOCK_PERIOD_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.clock_period_lsb, reg);
	reg = clk_period >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.clock_period_msb, reg);

	return 0;
}

/* Configure the systime internal update */
int al_eth_pth_int_update_config(struct al_hal_eth_adapter *adapter,
				 struct al_eth_pth_int_update_params *params)
{
	uint32_t reg;

	reg = al_reg_read32(&adapter->ec_regs_base->pth.int_update_ctrl);
	if (params->enable == AL_FALSE) {
		reg &= ~EC_PTH_INT_UPDATE_CTRL_INT_TRIG_EN;
	} else {
		reg |= EC_PTH_INT_UPDATE_CTRL_INT_TRIG_EN;
		AL_REG_FIELD_SET(reg, EC_PTH_INT_UPDATE_CTRL_UPDATE_METHOD_MASK,
				 EC_PTH_INT_UPDATE_CTRL_UPDATE_METHOD_SHIFT,
				 params->method);
		if (params->trigger == AL_ETH_PTH_INT_TRIG_REG_WRITE)
			reg |= EC_PTH_INT_UPDATE_CTRL_UPDATE_TRIG;
		else
			reg &= ~EC_PTH_INT_UPDATE_CTRL_UPDATE_TRIG;
	}
	al_reg_write32(&adapter->ec_regs_base->pth.int_update_ctrl, reg);
	return 0;
}
/* set internal update time */
int al_eth_pth_int_update_time_set(struct al_hal_eth_adapter *adapter,
				   struct al_eth_pth_time *time)
{
	uint32_t reg;

	al_reg_write32(&adapter->ec_regs_base->pth.int_update_seconds,
		       time->seconds);
	reg = time->femto & AL_BIT_MASK(18);
	reg = reg << EC_PTH_INT_UPDATE_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.int_update_subseconds_lsb,
		       reg);
	reg = time->femto >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.int_update_subseconds_msb,
		       reg);

	return 0;
}

/* Configure the systime external update */
int al_eth_pth_ext_update_config(struct al_hal_eth_adapter *adapter,
				 struct al_eth_pth_ext_update_params * params)
{
	uint32_t reg;

	reg = al_reg_read32(&adapter->ec_regs_base->pth.int_update_ctrl);
	AL_REG_FIELD_SET(reg, EC_PTH_INT_UPDATE_CTRL_UPDATE_METHOD_MASK,
			 EC_PTH_INT_UPDATE_CTRL_UPDATE_METHOD_SHIFT,
			 params->method);

	AL_REG_FIELD_SET(reg, EC_PTH_EXT_UPDATE_CTRL_EXT_TRIG_EN_MASK,
			 EC_PTH_EXT_UPDATE_CTRL_EXT_TRIG_EN_SHIFT,
			 params->triggers);
	al_reg_write32(&adapter->ec_regs_base->pth.int_update_ctrl, reg);
	return 0;
}

/* set external update time */
int al_eth_pth_ext_update_time_set(struct al_hal_eth_adapter *adapter,
				   struct al_eth_pth_time *time)
{
	uint32_t reg;

	al_reg_write32(&adapter->ec_regs_base->pth.ext_update_seconds,
		       time->seconds);
	reg = time->femto & AL_BIT_MASK(18);
	reg = reg << EC_PTH_EXT_UPDATE_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.ext_update_subseconds_lsb,
		       reg);
	reg = time->femto >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.ext_update_subseconds_msb,
		       reg);

	return 0;
};

/* set the read compensation delay */
int al_eth_pth_read_compensation_set(struct al_hal_eth_adapter *adapter,
				     uint64_t subseconds)
{
	uint32_t reg;

	/* first write to lsb to ensure atomicity */
	reg = (subseconds & AL_BIT_MASK(18)) << EC_PTH_READ_COMPENSATION_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.read_compensation_subseconds_lsb, reg);

	reg = subseconds >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.read_compensation_subseconds_msb, reg);
	return 0;
}

/* set the internal write compensation delay */
int al_eth_pth_int_write_compensation_set(struct al_hal_eth_adapter *adapter,
					  uint64_t subseconds)
{
	uint32_t reg;

	/* first write to lsb to ensure atomicity */
	reg = (subseconds & AL_BIT_MASK(18)) << EC_PTH_INT_WRITE_COMPENSATION_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.int_write_compensation_subseconds_lsb, reg);

	reg = subseconds >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.int_write_compensation_subseconds_msb, reg);
	return 0;
}

/* set the external write compensation delay */
int al_eth_pth_ext_write_compensation_set(struct al_hal_eth_adapter *adapter,
					  uint64_t subseconds)
{
	uint32_t reg;

	/* first write to lsb to ensure atomicity */
	reg = (subseconds & AL_BIT_MASK(18)) << EC_PTH_EXT_WRITE_COMPENSATION_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.ext_write_compensation_subseconds_lsb, reg);

	reg = subseconds >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.ext_write_compensation_subseconds_msb, reg);
	return 0;
}

/* set the sync compensation delay */
int al_eth_pth_sync_compensation_set(struct al_hal_eth_adapter *adapter,
				     uint64_t subseconds)
{
	uint32_t reg;

	/* first write to lsb to ensure atomicity */
	reg = (subseconds & AL_BIT_MASK(18)) << EC_PTH_SYNC_COMPENSATION_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth.sync_compensation_subseconds_lsb, reg);

	reg = subseconds >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth.sync_compensation_subseconds_msb, reg);
	return 0;
}

/* Configure an output pulse */
int al_eth_pth_pulse_out_config(struct al_hal_eth_adapter *adapter,
				struct al_eth_pth_pulse_out_params *params)
{
	uint32_t reg;

	if (params->index >= AL_ETH_PTH_PULSE_OUT_NUM) {
		al_err("eth [%s] PTH out pulse index out of range\n",
				 adapter->name);
		return -EINVAL;
	}
	reg = al_reg_read32(&adapter->ec_regs_base->pth_egress[params->index].trigger_ctrl);
	if (params->enable == AL_FALSE) {
		reg &= ~EC_PTH_EGRESS_TRIGGER_CTRL_EN;
	} else {
		reg |= EC_PTH_EGRESS_TRIGGER_CTRL_EN;
		if (params->periodic == AL_FALSE)
			reg &= ~EC_PTH_EGRESS_TRIGGER_CTRL_PERIODIC;
		else
			reg |= EC_PTH_EGRESS_TRIGGER_CTRL_PERIODIC;

		AL_REG_FIELD_SET(reg, EC_PTH_EGRESS_TRIGGER_CTRL_PERIOD_SUBSEC_MASK,
				 EC_PTH_EGRESS_TRIGGER_CTRL_PERIOD_SUBSEC_SHIFT,
				 params->period_us);
		AL_REG_FIELD_SET(reg, EC_PTH_EGRESS_TRIGGER_CTRL_PERIOD_SEC_MASK,
				 EC_PTH_EGRESS_TRIGGER_CTRL_PERIOD_SEC_SHIFT,
				 params->period_sec);
	}
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].trigger_ctrl, reg);

	/* set trigger time */
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].trigger_seconds,
		       params->start_time.seconds);
	reg = params->start_time.femto & AL_BIT_MASK(18);
	reg = reg << EC_PTH_EGRESS_TRIGGER_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].trigger_subseconds_lsb,
		       reg);
	reg = params->start_time.femto >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].trigger_subseconds_msb,
		       reg);

	/* set pulse width */
	reg = params->pulse_width & AL_BIT_MASK(18);
	reg = reg << EC_PTH_EGRESS_PULSE_WIDTH_SUBSECONDS_LSB_VAL_SHIFT;
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].pulse_width_subseconds_lsb, reg);

	reg = params->pulse_width  >> 18;
	al_reg_write32(&adapter->ec_regs_base->pth_egress[params->index].pulse_width_subseconds_msb, reg);

	return 0;
}

/** get link status */
int al_eth_link_status_get(struct al_hal_eth_adapter *adapter,
			   struct al_eth_link_status *status)
{
	uint32_t reg;

	if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
		status->link_up = AL_FALSE;
		status->local_fault = AL_TRUE;
		status->remote_fault = AL_TRUE;

		al_reg_write32(&adapter->mac_regs_base->kr.pcs_addr, ETH_MAC_KR_PCS_BASE_R_STATUS2);
		reg = al_reg_read32(&adapter->mac_regs_base->kr.pcs_data);

		if (reg & AL_BIT(15)) {
			reg = al_reg_read32(&adapter->mac_regs_base->mac_10g.status);

			status->remote_fault = ((reg & ETH_MAC_GEN_MAC_10G_STAT_REM_FAULT) ?
							AL_TRUE : AL_FALSE);
			status->local_fault = ((reg & ETH_MAC_GEN_MAC_10G_STAT_LOC_FAULT) ?
							AL_TRUE : AL_FALSE);

			status->link_up = ((status->remote_fault == AL_FALSE) &&
					   (status->local_fault == AL_FALSE));
		}

	} else if (adapter->mac_mode == AL_ETH_MAC_MODE_SGMII) {
		al_reg_write32(&adapter->mac_regs_base->sgmii.reg_addr, 1);
		/*
		 * This register is latched low so need to read twice to get
		 * the current link status
		 */
		reg = al_reg_read32(&adapter->mac_regs_base->sgmii.reg_data);
		reg = al_reg_read32(&adapter->mac_regs_base->sgmii.reg_data);

		status->link_up = AL_FALSE;

		if (reg & AL_BIT(2))
			status->link_up = AL_TRUE;

		reg = al_reg_read32(&adapter->mac_regs_base->sgmii.link_stat);

		if ((reg & AL_BIT(3)) == 0)
			status->link_up = AL_FALSE;

	} else if (adapter->mac_mode == AL_ETH_MAC_MODE_RGMII) {
		reg = al_reg_read32(&adapter->mac_regs_base->gen.rgmii_stat);

		status->link_up = AL_FALSE;

		if (reg & AL_BIT(4))
			status->link_up = AL_TRUE;

	} else if (adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_25G) {
		status->link_up = AL_FALSE;
		status->local_fault = AL_TRUE;
		status->remote_fault = AL_TRUE;

		reg = al_reg_read32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_status);

		status->link_up = AL_FALSE;

		if ((reg & 0xF) == 0xF) {
			reg = al_reg_read32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_status);

			status->remote_fault = ((reg & ETH_MAC_GEN_V3_MAC_40G_LL_STATUS_REM_FAULT) ?
							AL_TRUE : AL_FALSE);
			status->local_fault = ((reg & ETH_MAC_GEN_V3_MAC_40G_LL_STATUS_LOC_FAULT) ?
							AL_TRUE : AL_FALSE);

			status->link_up = ((status->remote_fault == AL_FALSE) &&
					   (status->local_fault == AL_FALSE));
		}

	} else if ((adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_40G) ||
			(adapter->mac_mode == AL_ETH_MAC_MODE_XLG_LL_50G)) {
		reg = al_reg_read32(&adapter->mac_regs_base->gen_v3.pcs_40g_ll_status);

		status->link_up = AL_FALSE;

		if ((reg & 0x1F) == 0x1F) {
			reg = al_reg_read32(&adapter->mac_regs_base->gen_v3.mac_40g_ll_status);
			if ((reg & (ETH_MAC_GEN_V3_MAC_40G_LL_STATUS_REM_FAULT |
					ETH_MAC_GEN_V3_MAC_40G_LL_STATUS_LOC_FAULT)) == 0)
				status->link_up = AL_TRUE;
		}

	} else {
		/* not implemented yet */
		return -EPERM;
	}

	al_dbg("[%s]: mac %s port. link_status: %s.\n", adapter->name,
		al_eth_mac_mode_str(adapter->mac_mode),
		(status->link_up == AL_TRUE) ? "LINK_UP" : "LINK_DOWN");

	return 0;
}

int al_eth_link_status_clear(struct al_hal_eth_adapter *adapter)
{
	int status = 0;

	if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
		al_reg_write32(&adapter->mac_regs_base->kr.pcs_addr, ETH_MAC_KR_PCS_BASE_R_STATUS2);
		al_reg_read32(&adapter->mac_regs_base->kr.pcs_data);

		al_reg_read32(&adapter->mac_regs_base->mac_10g.status);
	} else {
		status = -1;
	}

	return status;
}

/** set LED mode and value */
int al_eth_led_set(struct al_hal_eth_adapter *adapter, al_bool link_is_up)
{
	uint32_t reg = 0;
	uint32_t mode  = ETH_MAC_GEN_LED_CFG_SEL_DEFAULT_REG;

	if (link_is_up)
		mode = ETH_MAC_GEN_LED_CFG_SEL_LINK_ACTIVITY;

	AL_REG_FIELD_SET(reg,  ETH_MAC_GEN_LED_CFG_SEL_MASK,
			 ETH_MAC_GEN_LED_CFG_SEL_SHIFT, mode);

	AL_REG_FIELD_SET(reg, ETH_MAC_GEN_LED_CFG_BLINK_TIMER_MASK,
			 ETH_MAC_GEN_LED_CFG_BLINK_TIMER_SHIFT,
			 ETH_MAC_GEN_LED_CFG_BLINK_TIMER_VAL);

	AL_REG_FIELD_SET(reg, ETH_MAC_GEN_LED_CFG_ACT_TIMER_MASK,
			 ETH_MAC_GEN_LED_CFG_ACT_TIMER_SHIFT,
			 ETH_MAC_GEN_LED_CFG_ACT_TIMER_VAL);

	al_reg_write32(&adapter->mac_regs_base->gen.led_cfg, reg);

	return 0;
}

/* get statistics */
int al_eth_mac_stats_get(struct al_hal_eth_adapter *adapter, struct al_eth_mac_stats *stats)
{
	al_assert(stats);

	al_memset(stats, 0, sizeof(struct al_eth_mac_stats));

	if (AL_ETH_IS_1G_MAC(adapter->mac_mode)) {
		struct al_eth_mac_1g_stats __iomem *reg_stats =
			&adapter->mac_regs_base->mac_1g.stats;

		stats->ifInUcastPkts = al_reg_read32(&reg_stats->ifInUcastPkts);
		stats->ifInMulticastPkts = al_reg_read32(&reg_stats->ifInMulticastPkts);
		stats->ifInBroadcastPkts = al_reg_read32(&reg_stats->ifInBroadcastPkts);
		stats->etherStatsPkts = al_reg_read32(&reg_stats->etherStatsPkts);
		stats->ifOutUcastPkts = al_reg_read32(&reg_stats->ifOutUcastPkts);
		stats->ifOutMulticastPkts = al_reg_read32(&reg_stats->ifOutMulticastPkts);
		stats->ifOutBroadcastPkts = al_reg_read32(&reg_stats->ifOutBroadcastPkts);
		stats->ifInErrors = al_reg_read32(&reg_stats->ifInErrors);
		stats->ifOutErrors = al_reg_read32(&reg_stats->ifOutErrors);
		stats->aFramesReceivedOK = al_reg_read32(&reg_stats->aFramesReceivedOK);
		stats->aFramesTransmittedOK = al_reg_read32(&reg_stats->aFramesTransmittedOK);
		stats->aOctetsReceivedOK = al_reg_read32(&reg_stats->aOctetsReceivedOK);
		stats->aOctetsTransmittedOK = al_reg_read32(&reg_stats->aOctetsTransmittedOK);
		stats->etherStatsUndersizePkts = al_reg_read32(&reg_stats->etherStatsUndersizePkts);
		stats->etherStatsFragments = al_reg_read32(&reg_stats->etherStatsFragments);
		stats->etherStatsJabbers = al_reg_read32(&reg_stats->etherStatsJabbers);
		stats->etherStatsOversizePkts = al_reg_read32(&reg_stats->etherStatsOversizePkts);
		stats->aFrameCheckSequenceErrors =
			al_reg_read32(&reg_stats->aFrameCheckSequenceErrors);
		stats->aAlignmentErrors = al_reg_read32(&reg_stats->aAlignmentErrors);
		stats->etherStatsDropEvents = al_reg_read32(&reg_stats->etherStatsDropEvents);
		stats->aPAUSEMACCtrlFramesTransmitted =
			al_reg_read32(&reg_stats->aPAUSEMACCtrlFramesTransmitted);
		stats->aPAUSEMACCtrlFramesReceived =
			al_reg_read32(&reg_stats->aPAUSEMACCtrlFramesReceived);
		stats->aFrameTooLongErrors = 0; /* N/A */
		stats->aInRangeLengthErrors = 0; /* N/A */
		stats->VLANTransmittedOK = 0; /* N/A */
		stats->VLANReceivedOK = 0; /* N/A */
		stats->etherStatsOctets = al_reg_read32(&reg_stats->etherStatsOctets);
		stats->etherStatsPkts64Octets = al_reg_read32(&reg_stats->etherStatsPkts64Octets);
		stats->etherStatsPkts65to127Octets =
			al_reg_read32(&reg_stats->etherStatsPkts65to127Octets);
		stats->etherStatsPkts128to255Octets =
			al_reg_read32(&reg_stats->etherStatsPkts128to255Octets);
		stats->etherStatsPkts256to511Octets =
			al_reg_read32(&reg_stats->etherStatsPkts256to511Octets);
		stats->etherStatsPkts512to1023Octets =
			al_reg_read32(&reg_stats->etherStatsPkts512to1023Octets);
		stats->etherStatsPkts1024to1518Octets =
			al_reg_read32(&reg_stats->etherStatsPkts1024to1518Octets);
		stats->etherStatsPkts1519toX = al_reg_read32(&reg_stats->etherStatsPkts1519toX);
	} else if (AL_ETH_IS_10G_MAC(adapter->mac_mode) || AL_ETH_IS_25G_MAC(adapter->mac_mode)) {
		if (adapter->rev_id < AL_ETH_REV_ID_3) {
			struct al_eth_mac_10g_stats_v2 __iomem *reg_stats =
				&adapter->mac_regs_base->mac_10g.stats.v2;
			uint64_t octets;

			stats->ifInUcastPkts = al_reg_read32(&reg_stats->ifInUcastPkts);
			stats->ifInMulticastPkts = al_reg_read32(&reg_stats->ifInMulticastPkts);
			stats->ifInBroadcastPkts = al_reg_read32(&reg_stats->ifInBroadcastPkts);
			stats->etherStatsPkts = al_reg_read32(&reg_stats->etherStatsPkts);
			stats->ifOutUcastPkts = al_reg_read32(&reg_stats->ifOutUcastPkts);
			stats->ifOutMulticastPkts = al_reg_read32(&reg_stats->ifOutMulticastPkts);
			stats->ifOutBroadcastPkts = al_reg_read32(&reg_stats->ifOutBroadcastPkts);
			stats->ifInErrors = al_reg_read32(&reg_stats->ifInErrors);
			stats->ifOutErrors = al_reg_read32(&reg_stats->ifOutErrors);
			stats->aFramesReceivedOK = al_reg_read32(&reg_stats->aFramesReceivedOK);
			stats->aFramesTransmittedOK = al_reg_read32(&reg_stats->aFramesTransmittedOK);

			/* aOctetsReceivedOK = ifInOctets - 18 * aFramesReceivedOK - 4 * VLANReceivedOK */
			octets = al_reg_read32(&reg_stats->ifInOctetsL);
			octets |= (uint64_t)(al_reg_read32(&reg_stats->ifInOctetsH)) << 32;
			octets -= 18 * stats->aFramesReceivedOK;
			octets -= 4 * al_reg_read32(&reg_stats->VLANReceivedOK);
			stats->aOctetsReceivedOK = octets;

			/* aOctetsTransmittedOK = ifOutOctets - 18 * aFramesTransmittedOK - 4 * VLANTransmittedOK */
			octets = al_reg_read32(&reg_stats->ifOutOctetsL);
			octets |= (uint64_t)(al_reg_read32(&reg_stats->ifOutOctetsH)) << 32;
			octets -= 18 * stats->aFramesTransmittedOK;
			octets -= 4 * al_reg_read32(&reg_stats->VLANTransmittedOK);
			stats->aOctetsTransmittedOK = octets;

			stats->etherStatsUndersizePkts = al_reg_read32(&reg_stats->etherStatsUndersizePkts);
			stats->etherStatsFragments = al_reg_read32(&reg_stats->etherStatsFragments);
			stats->etherStatsJabbers = al_reg_read32(&reg_stats->etherStatsJabbers);
			stats->etherStatsOversizePkts = al_reg_read32(&reg_stats->etherStatsOversizePkts);
			stats->aFrameCheckSequenceErrors = al_reg_read32(&reg_stats->aFrameCheckSequenceErrors);
			stats->aAlignmentErrors = al_reg_read32(&reg_stats->aAlignmentErrors);
			stats->etherStatsDropEvents = al_reg_read32(&reg_stats->etherStatsDropEvents);
			stats->aPAUSEMACCtrlFramesTransmitted = al_reg_read32(&reg_stats->aPAUSEMACCtrlFramesTransmitted);
			stats->aPAUSEMACCtrlFramesReceived = al_reg_read32(&reg_stats->aPAUSEMACCtrlFramesReceived);
			stats->aFrameTooLongErrors = al_reg_read32(&reg_stats->aFrameTooLongErrors);
			stats->aInRangeLengthErrors = al_reg_read32(&reg_stats->aInRangeLengthErrors);
			stats->VLANTransmittedOK = al_reg_read32(&reg_stats->VLANTransmittedOK);
			stats->VLANReceivedOK = al_reg_read32(&reg_stats->VLANReceivedOK);
			stats->etherStatsOctets = al_reg_read32(&reg_stats->etherStatsOctets);
			stats->etherStatsPkts64Octets = al_reg_read32(&reg_stats->etherStatsPkts64Octets);
			stats->etherStatsPkts65to127Octets = al_reg_read32(&reg_stats->etherStatsPkts65to127Octets);
			stats->etherStatsPkts128to255Octets = al_reg_read32(&reg_stats->etherStatsPkts128to255Octets);
			stats->etherStatsPkts256to511Octets = al_reg_read32(&reg_stats->etherStatsPkts256to511Octets);
			stats->etherStatsPkts512to1023Octets = al_reg_read32(&reg_stats->etherStatsPkts512to1023Octets);
			stats->etherStatsPkts1024to1518Octets = al_reg_read32(&reg_stats->etherStatsPkts1024to1518Octets);
			stats->etherStatsPkts1519toX = al_reg_read32(&reg_stats->etherStatsPkts1519toX);
		} else {
			struct al_eth_mac_10g_stats_v3_rx __iomem *reg_rx_stats =
				&adapter->mac_regs_base->mac_10g.stats.v3.rx;
			struct al_eth_mac_10g_stats_v3_tx __iomem *reg_tx_stats =
				&adapter->mac_regs_base->mac_10g.stats.v3.tx;
			uint64_t octets;

			stats->ifInUcastPkts = al_reg_read32(&reg_rx_stats->ifInUcastPkts);
			stats->ifInMulticastPkts = al_reg_read32(&reg_rx_stats->ifInMulticastPkts);
			stats->ifInBroadcastPkts = al_reg_read32(&reg_rx_stats->ifInBroadcastPkts);
			stats->etherStatsPkts = al_reg_read32(&reg_rx_stats->etherStatsPkts);
			stats->ifOutUcastPkts = al_reg_read32(&reg_tx_stats->ifUcastPkts);
			stats->ifOutMulticastPkts = al_reg_read32(&reg_tx_stats->ifMulticastPkts);
			stats->ifOutBroadcastPkts = al_reg_read32(&reg_tx_stats->ifBroadcastPkts);
			stats->ifInErrors = al_reg_read32(&reg_rx_stats->ifInErrors);
			stats->ifOutErrors = al_reg_read32(&reg_tx_stats->ifOutErrors);
			stats->aFramesReceivedOK = al_reg_read32(&reg_rx_stats->FramesOK);
			stats->aFramesTransmittedOK = al_reg_read32(&reg_tx_stats->FramesOK);

			/* aOctetsReceivedOK = ifInOctets - 18 * aFramesReceivedOK - 4 * VLANReceivedOK */
			octets = al_reg_read32(&reg_rx_stats->ifOctetsL);
			octets |= (uint64_t)(al_reg_read32(&reg_rx_stats->ifOctetsH)) << 32;
			octets -= 18 * stats->aFramesReceivedOK;
			octets -= 4 * al_reg_read32(&reg_rx_stats->VLANOK);
			stats->aOctetsReceivedOK = octets;

			/* aOctetsTransmittedOK = ifOutOctets - 18 * aFramesTransmittedOK - 4 * VLANTransmittedOK */
			octets = al_reg_read32(&reg_tx_stats->ifOctetsL);
			octets |= (uint64_t)(al_reg_read32(&reg_tx_stats->ifOctetsH)) << 32;
			octets -= 18 * stats->aFramesTransmittedOK;
			octets -= 4 * al_reg_read32(&reg_tx_stats->VLANOK);
			stats->aOctetsTransmittedOK = octets;

			stats->etherStatsUndersizePkts = al_reg_read32(&reg_rx_stats->etherStatsUndersizePkts);
			stats->etherStatsFragments = al_reg_read32(&reg_rx_stats->etherStatsFragments);
			stats->etherStatsJabbers = al_reg_read32(&reg_rx_stats->etherStatsJabbers);
			stats->etherStatsOversizePkts = al_reg_read32(&reg_rx_stats->etherStatsOversizePkts);
			stats->aFrameCheckSequenceErrors = al_reg_read32(&reg_rx_stats->CRCErrors);
			stats->aAlignmentErrors = al_reg_read32(&reg_rx_stats->aAlignmentErrors);
			stats->etherStatsDropEvents = al_reg_read32(&reg_rx_stats->etherStatsDropEvents);
			stats->aPAUSEMACCtrlFramesTransmitted = al_reg_read32(&reg_tx_stats->aPAUSEMACCtrlFrames);
			stats->aPAUSEMACCtrlFramesReceived = al_reg_read32(&reg_rx_stats->aPAUSEMACCtrlFrames);
			stats->aFrameTooLongErrors = al_reg_read32(&reg_rx_stats->aFrameTooLong);
			stats->aInRangeLengthErrors = al_reg_read32(&reg_rx_stats->aInRangeLengthErrors);
			stats->VLANTransmittedOK = al_reg_read32(&reg_tx_stats->VLANOK);
			stats->VLANReceivedOK = al_reg_read32(&reg_rx_stats->VLANOK);
			stats->etherStatsOctets = al_reg_read32(&reg_rx_stats->etherStatsOctets);
			stats->etherStatsPkts64Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts64Octets);
			stats->etherStatsPkts65to127Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts65to127Octets);
			stats->etherStatsPkts128to255Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts128to255Octets);
			stats->etherStatsPkts256to511Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts256to511Octets);
			stats->etherStatsPkts512to1023Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts512to1023Octets);
			stats->etherStatsPkts1024to1518Octets = al_reg_read32(&reg_rx_stats->etherStatsPkts1024to1518Octets);
			stats->etherStatsPkts1519toX = al_reg_read32(&reg_rx_stats->etherStatsPkts1519toMax);
		}
	} else {
		struct al_eth_mac_10g_stats_v3_rx __iomem *reg_rx_stats =
			&adapter->mac_regs_base->mac_10g.stats.v3.rx;
		struct al_eth_mac_10g_stats_v3_tx __iomem *reg_tx_stats =
			&adapter->mac_regs_base->mac_10g.stats.v3.tx;
		uint64_t octets;

		/* 40G MAC statistics registers are the same, only read indirectly */
		#define _40g_mac_reg_read32(field)	al_eth_40g_mac_reg_read(adapter,	\
			((uint8_t *)(field)) - ((uint8_t *)&adapter->mac_regs_base->mac_10g))

		stats->ifInUcastPkts = _40g_mac_reg_read32(&reg_rx_stats->ifInUcastPkts);
		stats->ifInMulticastPkts = _40g_mac_reg_read32(&reg_rx_stats->ifInMulticastPkts);
		stats->ifInBroadcastPkts = _40g_mac_reg_read32(&reg_rx_stats->ifInBroadcastPkts);
		stats->etherStatsPkts = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts);
		stats->ifOutUcastPkts = _40g_mac_reg_read32(&reg_tx_stats->ifUcastPkts);
		stats->ifOutMulticastPkts = _40g_mac_reg_read32(&reg_tx_stats->ifMulticastPkts);
		stats->ifOutBroadcastPkts = _40g_mac_reg_read32(&reg_tx_stats->ifBroadcastPkts);
		stats->ifInErrors = _40g_mac_reg_read32(&reg_rx_stats->ifInErrors);
		stats->ifOutErrors = _40g_mac_reg_read32(&reg_tx_stats->ifOutErrors);
		stats->aFramesReceivedOK = _40g_mac_reg_read32(&reg_rx_stats->FramesOK);
		stats->aFramesTransmittedOK = _40g_mac_reg_read32(&reg_tx_stats->FramesOK);

		/* aOctetsReceivedOK = ifInOctets - 18 * aFramesReceivedOK - 4 * VLANReceivedOK */
		octets = _40g_mac_reg_read32(&reg_rx_stats->ifOctetsL);
		octets |= (uint64_t)(_40g_mac_reg_read32(&reg_rx_stats->ifOctetsH)) << 32;
		octets -= 18 * stats->aFramesReceivedOK;
		octets -= 4 * _40g_mac_reg_read32(&reg_rx_stats->VLANOK);
		stats->aOctetsReceivedOK = octets;

		/* aOctetsTransmittedOK = ifOutOctets - 18 * aFramesTransmittedOK - 4 * VLANTransmittedOK */
		octets = _40g_mac_reg_read32(&reg_tx_stats->ifOctetsL);
		octets |= (uint64_t)(_40g_mac_reg_read32(&reg_tx_stats->ifOctetsH)) << 32;
		octets -= 18 * stats->aFramesTransmittedOK;
		octets -= 4 * _40g_mac_reg_read32(&reg_tx_stats->VLANOK);
		stats->aOctetsTransmittedOK = octets;

		stats->etherStatsUndersizePkts = _40g_mac_reg_read32(&reg_rx_stats->etherStatsUndersizePkts);
		stats->etherStatsFragments = _40g_mac_reg_read32(&reg_rx_stats->etherStatsFragments);
		stats->etherStatsJabbers = _40g_mac_reg_read32(&reg_rx_stats->etherStatsJabbers);
		stats->etherStatsOversizePkts = _40g_mac_reg_read32(&reg_rx_stats->etherStatsOversizePkts);
		stats->aFrameCheckSequenceErrors = _40g_mac_reg_read32(&reg_rx_stats->CRCErrors);
		stats->aAlignmentErrors = _40g_mac_reg_read32(&reg_rx_stats->aAlignmentErrors);
		stats->etherStatsDropEvents = _40g_mac_reg_read32(&reg_rx_stats->etherStatsDropEvents);
		stats->aPAUSEMACCtrlFramesTransmitted = _40g_mac_reg_read32(&reg_tx_stats->aPAUSEMACCtrlFrames);
		stats->aPAUSEMACCtrlFramesReceived = _40g_mac_reg_read32(&reg_rx_stats->aPAUSEMACCtrlFrames);
		stats->aFrameTooLongErrors = _40g_mac_reg_read32(&reg_rx_stats->aFrameTooLong);
		stats->aInRangeLengthErrors = _40g_mac_reg_read32(&reg_rx_stats->aInRangeLengthErrors);
		stats->VLANTransmittedOK = _40g_mac_reg_read32(&reg_tx_stats->VLANOK);
		stats->VLANReceivedOK = _40g_mac_reg_read32(&reg_rx_stats->VLANOK);
		stats->etherStatsOctets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsOctets);
		stats->etherStatsPkts64Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts64Octets);
		stats->etherStatsPkts65to127Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts65to127Octets);
		stats->etherStatsPkts128to255Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts128to255Octets);
		stats->etherStatsPkts256to511Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts256to511Octets);
		stats->etherStatsPkts512to1023Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts512to1023Octets);
		stats->etherStatsPkts1024to1518Octets = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts1024to1518Octets);
		stats->etherStatsPkts1519toX = _40g_mac_reg_read32(&reg_rx_stats->etherStatsPkts1519toMax);
	}

	stats->eee_in = al_reg_read32(&adapter->mac_regs_base->stat.eee_in);
	stats->eee_out = al_reg_read32(&adapter->mac_regs_base->stat.eee_out);

/*	stats->etherStatsPkts = 1; */
	return 0;
}

/**
* read ec_stat_counters
*/
int al_eth_ec_stats_get(struct al_hal_eth_adapter *adapter, struct al_eth_ec_stats *stats)
{
	al_assert(stats);
	stats->faf_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.faf_in_rx_pkt);
	stats->faf_in_rx_short = al_reg_read32(&adapter->ec_regs_base->stat.faf_in_rx_short);
	stats->faf_in_rx_long = al_reg_read32(&adapter->ec_regs_base->stat.faf_in_rx_long);
	stats->faf_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.faf_out_rx_pkt);
	stats->faf_out_rx_short = al_reg_read32(&adapter->ec_regs_base->stat.faf_out_rx_short);
	stats->faf_out_rx_long = al_reg_read32(&adapter->ec_regs_base->stat.faf_out_rx_long);
	stats->faf_out_drop = al_reg_read32(&adapter->ec_regs_base->stat.faf_out_drop);
	stats->rxf_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rxf_in_rx_pkt);
	stats->rxf_in_fifo_err = al_reg_read32(&adapter->ec_regs_base->stat.rxf_in_fifo_err);
	stats->lbf_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.lbf_in_rx_pkt);
	stats->lbf_in_fifo_err = al_reg_read32(&adapter->ec_regs_base->stat.lbf_in_fifo_err);
	stats->rxf_out_rx_1_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rxf_out_rx_1_pkt);
	stats->rxf_out_rx_2_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rxf_out_rx_2_pkt);
	stats->rxf_out_drop_1_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rxf_out_drop_1_pkt);
	stats->rxf_out_drop_2_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rxf_out_drop_2_pkt);
	stats->rpe_1_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_1_in_rx_pkt);
	stats->rpe_1_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_1_out_rx_pkt);
	stats->rpe_2_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_2_in_rx_pkt);
	stats->rpe_2_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_2_out_rx_pkt);
	stats->rpe_3_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_3_in_rx_pkt);
	stats->rpe_3_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rpe_3_out_rx_pkt);
	stats->tpe_in_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.tpe_in_tx_pkt);
	stats->tpe_out_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.tpe_out_tx_pkt);
	stats->tpm_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.tpm_tx_pkt);
	stats->tfw_in_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.tfw_in_tx_pkt);
	stats->tfw_out_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.tfw_out_tx_pkt);
	stats->rfw_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_rx_pkt);
	stats->rfw_in_vlan_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_vlan_drop);
	stats->rfw_in_parse_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_parse_drop);
	stats->rfw_in_mc = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_mc);
	stats->rfw_in_bc = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_bc);
	stats->rfw_in_vlan_exist = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_vlan_exist);
	stats->rfw_in_vlan_nexist = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_vlan_nexist);
	stats->rfw_in_mac_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_mac_drop);
	stats->rfw_in_mac_ndet_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_mac_ndet_drop);
	stats->rfw_in_ctrl_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_ctrl_drop);
	stats->rfw_in_prot_i_drop = al_reg_read32(&adapter->ec_regs_base->stat.rfw_in_prot_i_drop);
	stats->eee_in = al_reg_read32(&adapter->ec_regs_base->stat.eee_in);
	return 0;
}

/**
 * read per_udma_counters
 */
int al_eth_ec_stat_udma_get(struct al_hal_eth_adapter *adapter, uint8_t idx, struct al_eth_ec_stat_udma *stats)
{

	al_assert(idx <= 3); /*valid udma_id*/
	al_assert(stats);
	stats->rfw_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].rfw_out_rx_pkt);
	stats->rfw_out_drop = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].rfw_out_drop);
	stats->msw_in_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_in_rx_pkt);
	stats->msw_drop_q_full = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_drop_q_full);
	stats->msw_drop_sop = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_drop_sop);
	stats->msw_drop_eop = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_drop_eop);
	stats->msw_wr_eop = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_wr_eop);
	stats->msw_out_rx_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].msw_out_rx_pkt);
	stats->tso_no_tso_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tso_no_tso_pkt);
	stats->tso_tso_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tso_tso_pkt);
	stats->tso_seg_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tso_seg_pkt);
	stats->tso_pad_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tso_pad_pkt);
	stats->tpm_tx_spoof = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tpm_tx_spoof);
	stats->tmi_in_tx_pkt = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tmi_in_tx_pkt);
	stats->tmi_out_to_mac = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tmi_out_to_mac);
	stats->tmi_out_to_rx = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tmi_out_to_rx);
	stats->tx_q0_bytes = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q0_bytes);
	stats->tx_q1_bytes = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q1_bytes);
	stats->tx_q2_bytes = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q2_bytes);
	stats->tx_q3_bytes = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q3_bytes);
	stats->tx_q0_pkts = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q0_pkts);
	stats->tx_q1_pkts = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q1_pkts);
	stats->tx_q2_pkts = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q2_pkts);
	stats->tx_q3_pkts = al_reg_read32(&adapter->ec_regs_base->stat_udma[idx].tx_q3_pkts);
	return 0;
}

/* Traffic control */


int al_eth_flr_rmn(int (* pci_read_config_u32)(void *handle, int where, uint32_t *val),
		   int (* pci_write_config_u32)(void *handle, int where, uint32_t val),
		   void *handle,
		   void __iomem	*mac_base)
{
	struct al_eth_mac_regs __iomem *mac_regs_base =
		(struct	al_eth_mac_regs __iomem *)mac_base;
	uint32_t cfg_reg_store[6];
	uint32_t reg;
	uint32_t mux_sel;
	int i = 0;

	(*pci_read_config_u32)(handle, AL_ADAPTER_GENERIC_CONTROL_0, &reg);

	/* reset 1G mac */
	AL_REG_MASK_SET(reg, AL_ADAPTER_GENERIC_CONTROL_0_ETH_RESET_1GMAC);
	(*pci_write_config_u32)(handle, AL_ADAPTER_GENERIC_CONTROL_0, reg);
	al_udelay(1000);
	/* don't reset 1G mac */
	AL_REG_MASK_CLEAR(reg, AL_ADAPTER_GENERIC_CONTROL_0_ETH_RESET_1GMAC);
	/* prevent 1G mac reset on FLR */
	AL_REG_MASK_CLEAR(reg, AL_ADAPTER_GENERIC_CONTROL_0_ETH_RESET_1GMAC_ON_FLR);
	/* prevent adapter reset */
	(*pci_write_config_u32)(handle, AL_ADAPTER_GENERIC_CONTROL_0, reg);

	mux_sel = al_reg_read32(&mac_regs_base->gen.mux_sel);

	/* save pci register that get reset due to flr*/
	(*pci_read_config_u32)(handle, AL_PCI_COMMAND, &cfg_reg_store[i++]);
	(*pci_read_config_u32)(handle, 0xC, &cfg_reg_store[i++]);
	(*pci_read_config_u32)(handle, 0x10, &cfg_reg_store[i++]);
	(*pci_read_config_u32)(handle, 0x18, &cfg_reg_store[i++]);
	(*pci_read_config_u32)(handle, 0x20, &cfg_reg_store[i++]);
	(*pci_read_config_u32)(handle, 0x110, &cfg_reg_store[i++]);

	/* do flr */
	(*pci_write_config_u32)(handle, AL_PCI_EXP_CAP_BASE + AL_PCI_EXP_DEVCTL, AL_PCI_EXP_DEVCTL_BCR_FLR);
	al_udelay(1000);
	/* restore command */
	i = 0;
	(*pci_write_config_u32)(handle, AL_PCI_COMMAND, cfg_reg_store[i++]);
	(*pci_write_config_u32)(handle, 0xC, cfg_reg_store[i++]);
	(*pci_write_config_u32)(handle, 0x10, cfg_reg_store[i++]);
	(*pci_write_config_u32)(handle, 0x18, cfg_reg_store[i++]);
	(*pci_write_config_u32)(handle, 0x20, cfg_reg_store[i++]);
	(*pci_write_config_u32)(handle, 0x110, cfg_reg_store[i++]);

	al_reg_write32_masked(&mac_regs_base->gen.mux_sel, ETH_MAC_GEN_MUX_SEL_KR_IN_MASK, mux_sel);

	/* set SGMII clock to 125MHz */
	al_reg_write32(&mac_regs_base->sgmii.clk_div, 0x03320501);

	/* reset 1G mac */
	AL_REG_MASK_SET(reg, AL_ADAPTER_GENERIC_CONTROL_0_ETH_RESET_1GMAC);
	(*pci_write_config_u32)(handle, AL_ADAPTER_GENERIC_CONTROL_0, reg);

	al_udelay(1000);

	/* clear 1G mac reset */
	AL_REG_MASK_CLEAR(reg, AL_ADAPTER_GENERIC_CONTROL_0_ETH_RESET_1GMAC);
	(*pci_write_config_u32)(handle, AL_ADAPTER_GENERIC_CONTROL_0, reg);

	/* reset SGMII mac clock to default */
	al_reg_write32(&mac_regs_base->sgmii.clk_div, 0x00320501);
	al_udelay(1000);
	/* reset async fifo */
	reg = al_reg_read32(&mac_regs_base->gen.sd_fifo_ctrl);
	AL_REG_MASK_SET(reg, 0xF0);
	al_reg_write32(&mac_regs_base->gen.sd_fifo_ctrl, reg);
	reg = al_reg_read32(&mac_regs_base->gen.sd_fifo_ctrl);
	AL_REG_MASK_CLEAR(reg, 0xF0);
	al_reg_write32(&mac_regs_base->gen.sd_fifo_ctrl, reg);

	return 0;
}

int al_eth_flr_rmn_restore_params(int (* pci_read_config_u32)(void *handle, int where, uint32_t *val),
		int (* pci_write_config_u32)(void *handle, int where, uint32_t val),
		void *handle,
		void __iomem    *mac_base,
		void __iomem    *ec_base,
		int     mac_addresses_num
		)
{
	struct al_eth_board_params params = { .media_type = 0 };
	uint8_t mac_addr[6];
	int rc;

	/* not implemented yet */
	if (mac_addresses_num > 1)
		return -EPERM;

	/* save board params so we restore it after reset */
	al_eth_board_params_get(mac_base, &params);
	al_eth_mac_addr_read(ec_base, 0, mac_addr);

	rc = al_eth_flr_rmn(pci_read_config_u32, pci_write_config_u32, handle, mac_base);
	al_eth_board_params_set(mac_base, &params);
	al_eth_mac_addr_store(ec_base, 0, mac_addr);

	return rc;
}

/* board params register 1 */
#define AL_HAL_ETH_MEDIA_TYPE_MASK	(AL_FIELD_MASK(3, 0))
#define AL_HAL_ETH_MEDIA_TYPE_SHIFT	0
#define AL_HAL_ETH_EXT_PHY_SHIFT	4
#define AL_HAL_ETH_PHY_ADDR_MASK	(AL_FIELD_MASK(9, 5))
#define AL_HAL_ETH_PHY_ADDR_SHIFT	5
#define AL_HAL_ETH_SFP_EXIST_SHIFT	10
#define AL_HAL_ETH_AN_ENABLE_SHIFT	11
#define AL_HAL_ETH_KR_LT_ENABLE_SHIFT	12
#define AL_HAL_ETH_KR_FEC_ENABLE_SHIFT	13
#define AL_HAL_ETH_MDIO_FREQ_MASK	(AL_FIELD_MASK(15, 14))
#define AL_HAL_ETH_MDIO_FREQ_SHIFT	14
#define AL_HAL_ETH_I2C_ADAPTER_ID_MASK	(AL_FIELD_MASK(19, 16))
#define AL_HAL_ETH_I2C_ADAPTER_ID_SHIFT	16
#define AL_HAL_ETH_EXT_PHY_IF_MASK	(AL_FIELD_MASK(21, 20))
#define AL_HAL_ETH_EXT_PHY_IF_SHIFT	20
#define AL_HAL_ETH_AUTO_NEG_MODE_SHIFT	22
#define AL_HAL_ETH_SERDES_GRP_2_SHIFT	23
#define AL_HAL_ETH_SERDES_GRP_MASK	(AL_FIELD_MASK(26, 25))
#define AL_HAL_ETH_SERDES_GRP_SHIFT	25
#define AL_HAL_ETH_SERDES_LANE_MASK	(AL_FIELD_MASK(28, 27))
#define AL_HAL_ETH_SERDES_LANE_SHIFT	27
#define AL_HAL_ETH_REF_CLK_FREQ_MASK	(AL_FIELD_MASK(31, 29))
#define AL_HAL_ETH_REF_CLK_FREQ_SHIFT	29

/* board params register 2 */
#define AL_HAL_ETH_DONT_OVERRIDE_SERDES_SHIFT	0
#define AL_HAL_ETH_1000_BASE_X_SHIFT		1
#define AL_HAL_ETH_1G_AN_DISABLE_SHIFT		2
#define AL_HAL_ETH_1G_SPEED_MASK		(AL_FIELD_MASK(4, 3))
#define AL_HAL_ETH_1G_SPEED_SHIFT		3
#define AL_HAL_ETH_1G_HALF_DUPLEX_SHIFT		5
#define AL_HAL_ETH_1G_FC_DISABLE_SHIFT		6
#define AL_HAL_ETH_RETIMER_EXIST_SHIFT		7
#define AL_HAL_ETH_RETIMER_BUS_ID_MASK		(AL_FIELD_MASK(11, 8))
#define AL_HAL_ETH_RETIMER_BUS_ID_SHIFT		8
#define AL_HAL_ETH_RETIMER_I2C_ADDR_MASK	(AL_FIELD_MASK(18, 12))
#define AL_HAL_ETH_RETIMER_I2C_ADDR_SHIFT	12
#define AL_HAL_ETH_RETIMER_CHANNEL_SHIFT	19
#define AL_HAL_ETH_DAC_LENGTH_MASK		(AL_FIELD_MASK(23, 20))
#define AL_HAL_ETH_DAC_LENGTH_SHIFT		20
#define AL_HAL_ETH_DAC_SHIFT			24
#define AL_HAL_ETH_RETIMER_TYPE_MASK		(AL_FIELD_MASK(26, 25))
#define AL_HAL_ETH_RETIMER_TYPE_SHIFT		25
#define AL_HAL_ETH_RETIMER_CHANNEL_2_MASK	(AL_FIELD_MASK(28, 27))
#define AL_HAL_ETH_RETIMER_CHANNEL_2_SHIFT	27
#define AL_HAL_ETH_RETIMER_TX_CHANNEL_MASK	(AL_FIELD_MASK(31, 29))
#define AL_HAL_ETH_RETIMER_TX_CHANNEL_SHIFT	29

/* board params register 3 */
#define AL_HAL_ETH_GPIO_SFP_PRESENT_MASK	(AL_FIELD_MASK(5, 0))
#define AL_HAL_ETH_GPIO_SFP_PRESENT_SHIFT	0

int al_eth_board_params_set(void * __iomem mac_base, struct al_eth_board_params *params)
{
	struct al_eth_mac_regs __iomem *mac_regs_base =
		(struct	al_eth_mac_regs __iomem *)mac_base;
	uint32_t	reg = 0;

	/* ************* Setting Board params register 1 **************** */
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_MEDIA_TYPE_MASK,
			 AL_HAL_ETH_MEDIA_TYPE_SHIFT, params->media_type);
	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_EXT_PHY_SHIFT, params->phy_exist == AL_TRUE);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_PHY_ADDR_MASK,
			 AL_HAL_ETH_PHY_ADDR_SHIFT, params->phy_mdio_addr);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_SFP_EXIST_SHIFT, params->sfp_plus_module_exist == AL_TRUE);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_AN_ENABLE_SHIFT, params->autoneg_enable == AL_TRUE);
	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_KR_LT_ENABLE_SHIFT, params->kr_lt_enable == AL_TRUE);
	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_KR_FEC_ENABLE_SHIFT, params->kr_fec_enable == AL_TRUE);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_MDIO_FREQ_MASK,
			 AL_HAL_ETH_MDIO_FREQ_SHIFT, params->mdio_freq);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_I2C_ADAPTER_ID_MASK,
			 AL_HAL_ETH_I2C_ADAPTER_ID_SHIFT, params->i2c_adapter_id);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_EXT_PHY_IF_MASK,
			 AL_HAL_ETH_EXT_PHY_IF_SHIFT, params->phy_if);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_AUTO_NEG_MODE_SHIFT,
			   params->an_mode == AL_ETH_BOARD_AUTONEG_IN_BAND);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_SERDES_GRP_MASK,
			 AL_HAL_ETH_SERDES_GRP_SHIFT, params->serdes_grp);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_SERDES_GRP_2_SHIFT,
			(params->serdes_grp & AL_BIT(2)) ? 1 : 0);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_SERDES_LANE_MASK,
			 AL_HAL_ETH_SERDES_LANE_SHIFT, params->serdes_lane);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_REF_CLK_FREQ_MASK,
			 AL_HAL_ETH_REF_CLK_FREQ_SHIFT, params->ref_clk_freq);

	al_assert(reg != 0);

	al_reg_write32(&mac_regs_base->mac_1g.scratch, reg);

	/* ************* Setting Board params register 2 **************** */
	reg = 0;
	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_DONT_OVERRIDE_SERDES_SHIFT,
			   params->dont_override_serdes == AL_TRUE);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_1000_BASE_X_SHIFT,
			   params->force_1000_base_x == AL_TRUE);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_1G_AN_DISABLE_SHIFT,
			   params->an_disable == AL_TRUE);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_1G_SPEED_MASK,
			 AL_HAL_ETH_1G_SPEED_SHIFT, params->speed);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_1G_HALF_DUPLEX_SHIFT,
			   params->half_duplex == AL_TRUE);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_1G_FC_DISABLE_SHIFT,
			   params->fc_disable == AL_TRUE);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_RETIMER_EXIST_SHIFT, params->retimer_exist == AL_TRUE);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_RETIMER_BUS_ID_MASK,
			 AL_HAL_ETH_RETIMER_BUS_ID_SHIFT, params->retimer_bus_id);
	AL_REG_FIELD_SET(reg, AL_HAL_ETH_RETIMER_I2C_ADDR_MASK,
			 AL_HAL_ETH_RETIMER_I2C_ADDR_SHIFT, params->retimer_i2c_addr);

	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_RETIMER_CHANNEL_SHIFT,
				(params->retimer_channel & AL_BIT(0)));

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_RETIMER_CHANNEL_2_MASK,
			 AL_HAL_ETH_RETIMER_CHANNEL_2_SHIFT,
			 (AL_REG_FIELD_GET(params->retimer_channel, 0x6, 1)));

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_DAC_LENGTH_MASK,
			 AL_HAL_ETH_DAC_LENGTH_SHIFT, params->dac_len);
	AL_REG_BIT_VAL_SET(reg, AL_HAL_ETH_DAC_SHIFT, params->dac);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_RETIMER_TYPE_MASK,
			 AL_HAL_ETH_RETIMER_TYPE_SHIFT, params->retimer_type);

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_RETIMER_TX_CHANNEL_MASK,
			 AL_HAL_ETH_RETIMER_TX_CHANNEL_SHIFT,
			 params->retimer_tx_channel);

	al_reg_write32(&mac_regs_base->mac_10g.scratch, reg);

	/* ************* Setting Board params register 3 **************** */
	reg = 0;

	AL_REG_FIELD_SET(reg, AL_HAL_ETH_GPIO_SFP_PRESENT_MASK,
			 AL_HAL_ETH_GPIO_SFP_PRESENT_SHIFT,
			 params->gpio_sfp_present);

	al_reg_write32(&mac_regs_base->mac_1g.mac_0, reg);

	return 0;
}

int al_eth_board_params_get(void * __iomem mac_base, struct al_eth_board_params *params)
{
	struct al_eth_mac_regs __iomem *mac_regs_base =
		(struct	al_eth_mac_regs __iomem *)mac_base;
	uint32_t	reg = al_reg_read32(&mac_regs_base->mac_1g.scratch);

	/* check if the register was initialized, 0 is not a valid value */
	if (reg == 0)
		return -ENOENT;

	/* ************* Getting Board params register 1 **************** */
	params->media_type = AL_REG_FIELD_GET(reg, AL_HAL_ETH_MEDIA_TYPE_MASK,
					      AL_HAL_ETH_MEDIA_TYPE_SHIFT);
	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_EXT_PHY_SHIFT))
		params->phy_exist = AL_TRUE;
	else
		params->phy_exist = AL_FALSE;

	params->phy_mdio_addr = AL_REG_FIELD_GET(reg, AL_HAL_ETH_PHY_ADDR_MASK,
						 AL_HAL_ETH_PHY_ADDR_SHIFT);

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_SFP_EXIST_SHIFT))
		params->sfp_plus_module_exist = AL_TRUE;
	else
		params->sfp_plus_module_exist = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_AN_ENABLE_SHIFT))
		params->autoneg_enable = AL_TRUE;
	else
		params->autoneg_enable = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_KR_LT_ENABLE_SHIFT))
		params->kr_lt_enable = AL_TRUE;
	else
		params->kr_lt_enable = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_KR_FEC_ENABLE_SHIFT))
		params->kr_fec_enable = AL_TRUE;
	else
		params->kr_fec_enable = AL_FALSE;

	params->mdio_freq = AL_REG_FIELD_GET(reg,
					     AL_HAL_ETH_MDIO_FREQ_MASK,
					     AL_HAL_ETH_MDIO_FREQ_SHIFT);

	params->i2c_adapter_id = AL_REG_FIELD_GET(reg,
						  AL_HAL_ETH_I2C_ADAPTER_ID_MASK,
						  AL_HAL_ETH_I2C_ADAPTER_ID_SHIFT);

	params->phy_if = AL_REG_FIELD_GET(reg,
					  AL_HAL_ETH_EXT_PHY_IF_MASK,
					  AL_HAL_ETH_EXT_PHY_IF_SHIFT);

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_AUTO_NEG_MODE_SHIFT))
		params->an_mode = AL_TRUE;
	else
		params->an_mode = AL_FALSE;

	params->serdes_grp = AL_REG_FIELD_GET(reg,
					      AL_HAL_ETH_SERDES_GRP_MASK,
					      AL_HAL_ETH_SERDES_GRP_SHIFT);

	params->serdes_grp |= (AL_REG_BIT_GET(reg, AL_HAL_ETH_SERDES_GRP_2_SHIFT) ? AL_BIT(2) : 0);

	params->serdes_lane = AL_REG_FIELD_GET(reg,
					       AL_HAL_ETH_SERDES_LANE_MASK,
					       AL_HAL_ETH_SERDES_LANE_SHIFT);

	params->ref_clk_freq = AL_REG_FIELD_GET(reg,
						AL_HAL_ETH_REF_CLK_FREQ_MASK,
						AL_HAL_ETH_REF_CLK_FREQ_SHIFT);

	/* ************* Getting Board params register 2 **************** */
	reg = al_reg_read32(&mac_regs_base->mac_10g.scratch);
	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_DONT_OVERRIDE_SERDES_SHIFT))
		params->dont_override_serdes = AL_TRUE;
	else
		params->dont_override_serdes = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_1000_BASE_X_SHIFT))
		params->force_1000_base_x = AL_TRUE;
	else
		params->force_1000_base_x = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_1G_AN_DISABLE_SHIFT))
		params->an_disable = AL_TRUE;
	else
		params->an_disable = AL_FALSE;

	params->speed = AL_REG_FIELD_GET(reg,
					 AL_HAL_ETH_1G_SPEED_MASK,
					 AL_HAL_ETH_1G_SPEED_SHIFT);

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_1G_HALF_DUPLEX_SHIFT))
		params->half_duplex = AL_TRUE;
	else
		params->half_duplex = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_1G_FC_DISABLE_SHIFT))
		params->fc_disable = AL_TRUE;
	else
		params->fc_disable = AL_FALSE;

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_RETIMER_EXIST_SHIFT))
		params->retimer_exist = AL_TRUE;
	else
		params->retimer_exist = AL_FALSE;

	params->retimer_bus_id = AL_REG_FIELD_GET(reg,
					       AL_HAL_ETH_RETIMER_BUS_ID_MASK,
					       AL_HAL_ETH_RETIMER_BUS_ID_SHIFT);
	params->retimer_i2c_addr = AL_REG_FIELD_GET(reg,
					       AL_HAL_ETH_RETIMER_I2C_ADDR_MASK,
					       AL_HAL_ETH_RETIMER_I2C_ADDR_SHIFT);

	params->retimer_channel =
		((AL_REG_BIT_GET(reg, AL_HAL_ETH_RETIMER_CHANNEL_SHIFT)) |
		 (AL_REG_FIELD_GET(reg, AL_HAL_ETH_RETIMER_CHANNEL_2_MASK,
				   AL_HAL_ETH_RETIMER_CHANNEL_2_SHIFT) << 1));

	params->dac_len = AL_REG_FIELD_GET(reg,
					   AL_HAL_ETH_DAC_LENGTH_MASK,
					   AL_HAL_ETH_DAC_LENGTH_SHIFT);

	if (AL_REG_BIT_GET(reg, AL_HAL_ETH_DAC_SHIFT))
		params->dac = AL_TRUE;
	else
		params->dac = AL_FALSE;

	params->retimer_type = AL_REG_FIELD_GET(reg,
					   AL_HAL_ETH_RETIMER_TYPE_MASK,
					   AL_HAL_ETH_RETIMER_TYPE_SHIFT);

	params->retimer_tx_channel = AL_REG_FIELD_GET(reg,
					   AL_HAL_ETH_RETIMER_TX_CHANNEL_MASK,
					   AL_HAL_ETH_RETIMER_TX_CHANNEL_SHIFT);

	/* ************* Getting Board params register 3 **************** */
	reg = al_reg_read32(&mac_regs_base->mac_1g.mac_0);

	params->gpio_sfp_present = AL_REG_FIELD_GET(reg,
					AL_HAL_ETH_GPIO_SFP_PRESENT_MASK,
					AL_HAL_ETH_GPIO_SFP_PRESENT_SHIFT);

	return 0;
}

/* Wake-On-Lan (WoL) */
static inline void al_eth_byte_arr_to_reg(
		uint32_t *reg, uint8_t *arr, unsigned int num_bytes)
{
	uint32_t mask = 0xff;
	unsigned int i;

	al_assert(num_bytes <= 4);

	*reg = 0;

	for (i = 0 ; i < num_bytes ; i++) {
		AL_REG_FIELD_SET(*reg, mask, (sizeof(uint8_t) * i), arr[i]);
		mask = mask << sizeof(uint8_t);
	}
}

int al_eth_wol_enable(
		struct al_hal_eth_adapter *adapter,
		struct al_eth_wol_params *wol)
{
	uint32_t reg = 0;

	if (wol->int_mask & AL_ETH_WOL_INT_MAGIC_PSWD) {
		al_assert(wol->pswd != NULL);

		al_eth_byte_arr_to_reg(&reg, &wol->pswd[0], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.magic_pswd_l, reg);

		al_eth_byte_arr_to_reg(&reg, &wol->pswd[4], 2);
		al_reg_write32(&adapter->ec_regs_base->wol.magic_pswd_h, reg);
	}

	if (wol->int_mask & AL_ETH_WOL_INT_IPV4) {
		al_assert(wol->ipv4 != NULL);

		al_eth_byte_arr_to_reg(&reg, &wol->ipv4[0], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.ipv4_dip, reg);
	}

	if (wol->int_mask & AL_ETH_WOL_INT_IPV6) {
		al_assert(wol->ipv6 != NULL);

		al_eth_byte_arr_to_reg(&reg, &wol->ipv6[0], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.ipv6_dip_word0, reg);

		al_eth_byte_arr_to_reg(&reg, &wol->ipv6[4], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.ipv6_dip_word1, reg);

		al_eth_byte_arr_to_reg(&reg, &wol->ipv6[8], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.ipv6_dip_word2, reg);

		al_eth_byte_arr_to_reg(&reg, &wol->ipv6[12], 4);
		al_reg_write32(&adapter->ec_regs_base->wol.ipv6_dip_word3, reg);
	}

	if (wol->int_mask &
		(AL_ETH_WOL_INT_ETHERTYPE_BC | AL_ETH_WOL_INT_ETHERTYPE_DA)) {

		reg = ((uint32_t)wol->ethr_type2 << 16);
		reg |= wol->ethr_type1;

		al_reg_write32(&adapter->ec_regs_base->wol.ethertype, reg);
	}

	/* make sure we dont forwarding packets without interrupt */
	al_assert((wol->forward_mask | wol->int_mask) == wol->int_mask);

	reg = ((uint32_t)wol->forward_mask << 16);
	reg |= wol->int_mask;
	al_reg_write32(&adapter->ec_regs_base->wol.wol_en, reg);

	return 0;
}

int al_eth_wol_disable(
		struct al_hal_eth_adapter *adapter)
{
	al_reg_write32(&adapter->ec_regs_base->wol.wol_en, 0);

	return 0;
}

int al_eth_tx_fwd_vid_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
				uint8_t udma_mask, al_bool fwd_to_mac)
{
	uint32_t	val = 0;
	al_assert(idx < AL_ETH_FWD_VID_TABLE_NUM); /* valid VID index */
	AL_REG_FIELD_SET(val,  AL_ETH_TX_VLAN_TABLE_UDMA_MASK, 0, udma_mask);
	AL_REG_FIELD_SET(val,  AL_ETH_TX_VLAN_TABLE_FWD_TO_MAC, 4, fwd_to_mac);

	al_reg_write32(&adapter->ec_regs_base->tfw.tx_vid_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->tfw.tx_vid_table_data, val);
	return 0;
}

int al_eth_tx_protocol_detect_table_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_tx_gpd_cam_entry *tx_gpd_entry)
{
	uint64_t gpd_data;
	uint64_t gpd_mask;

	gpd_data = ((uint64_t)tx_gpd_entry->l3_proto_idx & AL_ETH_TX_GPD_L3_PROTO_MASK) <<
		AL_ETH_TX_GPD_L3_PROTO_SHIFT;
	gpd_data |= ((uint64_t)tx_gpd_entry->l4_proto_idx & AL_ETH_TX_GPD_L4_PROTO_MASK) <<
		AL_ETH_TX_GPD_L4_PROTO_SHIFT;
	gpd_data |= ((uint64_t)tx_gpd_entry->tunnel_control & AL_ETH_TX_GPD_TUNNEL_CTRL_MASK) <<
		AL_ETH_TX_GPD_TUNNEL_CTRL_SHIFT;
	gpd_data |= ((uint64_t)tx_gpd_entry->source_vlan_count & AL_ETH_TX_GPD_SRC_VLAN_CNT_MASK) <<
		AL_ETH_TX_GPD_SRC_VLAN_CNT_SHIFT;
	gpd_mask  = ((uint64_t)tx_gpd_entry->l3_proto_idx_mask & AL_ETH_TX_GPD_L3_PROTO_MASK) <<
		AL_ETH_TX_GPD_L3_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)tx_gpd_entry->l4_proto_idx_mask & AL_ETH_TX_GPD_L4_PROTO_MASK) <<
		AL_ETH_TX_GPD_L4_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)tx_gpd_entry->tunnel_control_mask & AL_ETH_TX_GPD_TUNNEL_CTRL_MASK) <<
		AL_ETH_TX_GPD_TUNNEL_CTRL_SHIFT;
	gpd_mask |= ((uint64_t)tx_gpd_entry->source_vlan_count_mask & AL_ETH_TX_GPD_SRC_VLAN_CNT_MASK) <<
		AL_ETH_TX_GPD_SRC_VLAN_CNT_SHIFT;

	/* Tx Generic protocol detect Cam compare table */
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_ctrl,
			(uint32_t)((tx_gpd_entry->tx_gpd_cam_ctrl) << AL_ETH_TX_GPD_CAM_CTRL_VALID_SHIFT));
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], tx_gpd_cam_ctrl: %#x", idx, tx_gpd_entry->tx_gpd_cam_ctrl);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_mask_2,
			(uint32_t)(gpd_mask >> AL_ETH_TX_GPD_CAM_MASK_2_SHIFT));
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], tx_gpd_cam_mask_2: %#x", idx, (uint32_t)(gpd_mask >> AL_ETH_TX_GPD_CAM_MASK_2_SHIFT));
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_mask_1,
			(uint32_t)(gpd_mask));
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], tx_gpd_cam_mask_1: %#x", idx, (uint32_t)(gpd_mask));
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_data_2,
			(uint32_t)(gpd_data >> AL_ETH_TX_GPD_CAM_DATA_2_SHIFT));
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], tx_gpd_cam_data_2: %#x", idx, (uint32_t)(gpd_data >> AL_ETH_TX_GPD_CAM_DATA_2_SHIFT));
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gpd_cam_data_1,
			(uint32_t)(gpd_data));
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], tx_gpd_cam_data_1: %#x", idx, (uint32_t)(gpd_data));
	return 0;
}

int al_eth_tx_generic_crc_table_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_tx_gcp_table_entry *tx_gcp_entry)
{
	uint32_t gcp_table_gen;
	uint32_t tx_alu_opcode;
	uint32_t tx_alu_opsel;

	gcp_table_gen  = (tx_gcp_entry->poly_sel & AL_ETH_TX_GCP_POLY_SEL_MASK) <<
		AL_ETH_TX_GCP_POLY_SEL_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->crc32_bit_comp & AL_ETH_TX_GCP_CRC32_BIT_COMP_MASK) <<
		AL_ETH_TX_GCP_CRC32_BIT_COMP_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->crc32_bit_swap & AL_ETH_TX_GCP_CRC32_BIT_SWAP_MASK) <<
		AL_ETH_TX_GCP_CRC32_BIT_SWAP_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->crc32_byte_swap & AL_ETH_TX_GCP_CRC32_BYTE_SWAP_MASK) <<
		AL_ETH_TX_GCP_CRC32_BYTE_SWAP_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->data_bit_swap & AL_ETH_TX_GCP_DATA_BIT_SWAP_MASK) <<
		AL_ETH_TX_GCP_DATA_BIT_SWAP_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->data_byte_swap & AL_ETH_TX_GCP_DATA_BYTE_SWAP_MASK) <<
		AL_ETH_TX_GCP_DATA_BYTE_SWAP_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->trail_size & AL_ETH_TX_GCP_TRAIL_SIZE_MASK) <<
		AL_ETH_TX_GCP_TRAIL_SIZE_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->head_size & AL_ETH_TX_GCP_HEAD_SIZE_MASK) <<
		AL_ETH_TX_GCP_HEAD_SIZE_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->head_calc & AL_ETH_TX_GCP_HEAD_CALC_MASK) <<
		AL_ETH_TX_GCP_HEAD_CALC_SHIFT;
	gcp_table_gen |= (tx_gcp_entry->mask_polarity & AL_ETH_TX_GCP_MASK_POLARITY_MASK) <<
		AL_ETH_TX_GCP_MASK_POLARITY_SHIFT;
	al_dbg("al_eth_tx_generic_crc_entry_set, line [%d], gcp_table_gen: %#x", idx, gcp_table_gen);

	tx_alu_opcode  = (tx_gcp_entry->tx_alu_opcode_1 & AL_ETH_TX_GCP_OPCODE_1_MASK) <<
		AL_ETH_TX_GCP_OPCODE_1_SHIFT;
	tx_alu_opcode |= (tx_gcp_entry->tx_alu_opcode_2 & AL_ETH_TX_GCP_OPCODE_2_MASK) <<
		AL_ETH_TX_GCP_OPCODE_2_SHIFT;
	tx_alu_opcode |= (tx_gcp_entry->tx_alu_opcode_3 & AL_ETH_TX_GCP_OPCODE_3_MASK) <<
		AL_ETH_TX_GCP_OPCODE_3_SHIFT;
	tx_alu_opsel  = (tx_gcp_entry->tx_alu_opsel_1 & AL_ETH_TX_GCP_OPSEL_1_MASK) <<
		AL_ETH_TX_GCP_OPSEL_1_SHIFT;
	tx_alu_opsel |= (tx_gcp_entry->tx_alu_opsel_2 & AL_ETH_TX_GCP_OPSEL_2_MASK) <<
		AL_ETH_TX_GCP_OPSEL_2_SHIFT;
	tx_alu_opsel |= (tx_gcp_entry->tx_alu_opsel_3 & AL_ETH_TX_GCP_OPSEL_3_MASK) <<
		AL_ETH_TX_GCP_OPSEL_3_SHIFT;
	tx_alu_opsel |= (tx_gcp_entry->tx_alu_opsel_4 & AL_ETH_TX_GCP_OPSEL_4_MASK) <<
		AL_ETH_TX_GCP_OPSEL_4_SHIFT;

	/*  Tx Generic crc prameters table general */
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_gen,
			gcp_table_gen);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_1,
			tx_gcp_entry->gcp_mask[0]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_2,
			tx_gcp_entry->gcp_mask[1]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_3,
			tx_gcp_entry->gcp_mask[2]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_4,
			tx_gcp_entry->gcp_mask[3]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_5,
			tx_gcp_entry->gcp_mask[4]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_mask_6,
			tx_gcp_entry->gcp_mask[5]);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_crc_init,
			tx_gcp_entry->crc_init);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_res,
			tx_gcp_entry->gcp_table_res);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_alu_opcode,
			tx_alu_opcode);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_alu_opsel,
			tx_alu_opsel);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_table_alu_val,
			tx_gcp_entry->alu_val);
	return 0;
}

int al_eth_tx_crc_chksum_replace_cmd_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_tx_crc_chksum_replace_cmd_for_protocol_num_entry *tx_replace_entry)
{
	uint32_t replace_table_address;
	uint32_t tx_replace_cmd;

	/*  Tx crc_chksum_replace_cmd */
	replace_table_address = L4_CHECKSUM_DIS_AND_L3_CHECKSUM_DIS | idx;
	tx_replace_cmd  = (uint32_t)(tx_replace_entry->l3_csum_en_00) << 0;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->l4_csum_en_00) << 1;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->crc_en_00)     << 2;
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table_addr, replace_table_address);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table,
			tx_replace_cmd);
	replace_table_address = L4_CHECKSUM_DIS_AND_L3_CHECKSUM_EN | idx;
	tx_replace_cmd  = (uint32_t)(tx_replace_entry->l3_csum_en_01) << 0;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->l4_csum_en_01) << 1;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->crc_en_01)     << 2;
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table_addr, replace_table_address);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table,
			tx_replace_cmd);
	replace_table_address = L4_CHECKSUM_EN_AND_L3_CHECKSUM_DIS | idx;
	tx_replace_cmd  = (uint32_t)(tx_replace_entry->l3_csum_en_10) << 0;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->l4_csum_en_10) << 1;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->crc_en_10)     << 2;
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table_addr, replace_table_address);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table,
			tx_replace_cmd);
	replace_table_address = L4_CHECKSUM_EN_AND_L3_CHECKSUM_EN | idx;
	tx_replace_cmd  = (uint32_t)(tx_replace_entry->l3_csum_en_11) << 0;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->l4_csum_en_11) << 1;
	tx_replace_cmd |= (uint32_t)(tx_replace_entry->crc_en_11)     << 2;
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table_addr, replace_table_address);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace_table,
			tx_replace_cmd);

	return 0;
}

int al_eth_rx_protocol_detect_table_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_rx_gpd_cam_entry *rx_gpd_entry)
{
	uint64_t gpd_data;
	uint64_t gpd_mask;

	gpd_data  = ((uint64_t)rx_gpd_entry->outer_l3_proto_idx & AL_ETH_RX_GPD_OUTER_L3_PROTO_MASK) <<
		AL_ETH_RX_GPD_OUTER_L3_PROTO_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->outer_l4_proto_idx & AL_ETH_RX_GPD_OUTER_L4_PROTO_MASK) <<
		AL_ETH_RX_GPD_OUTER_L4_PROTO_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->inner_l3_proto_idx & AL_ETH_RX_GPD_INNER_L3_PROTO_MASK) <<
		AL_ETH_RX_GPD_INNER_L3_PROTO_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->inner_l4_proto_idx & AL_ETH_RX_GPD_INNER_L4_PROTO_MASK) <<
		AL_ETH_RX_GPD_INNER_L4_PROTO_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->parse_ctrl & AL_ETH_RX_GPD_OUTER_PARSE_CTRL_MASK) <<
		AL_ETH_RX_GPD_OUTER_PARSE_CTRL_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->outer_l3_len & AL_ETH_RX_GPD_INNER_PARSE_CTRL_MASK) <<
		AL_ETH_RX_GPD_INNER_PARSE_CTRL_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->l3_priority & AL_ETH_RX_GPD_L3_PRIORITY_MASK) <<
		AL_ETH_RX_GPD_L3_PRIORITY_SHIFT;
	gpd_data |= ((uint64_t)rx_gpd_entry->l4_dst_port_lsb & AL_ETH_RX_GPD_L4_DST_PORT_LSB_MASK) <<
		AL_ETH_RX_GPD_L4_DST_PORT_LSB_SHIFT;

	gpd_mask  = ((uint64_t)rx_gpd_entry->outer_l3_proto_idx_mask & AL_ETH_RX_GPD_OUTER_L3_PROTO_MASK) <<
		AL_ETH_RX_GPD_OUTER_L3_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->outer_l4_proto_idx_mask & AL_ETH_RX_GPD_OUTER_L4_PROTO_MASK) <<
		AL_ETH_RX_GPD_OUTER_L4_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->inner_l3_proto_idx_mask & AL_ETH_RX_GPD_INNER_L3_PROTO_MASK) <<
		AL_ETH_RX_GPD_INNER_L3_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->inner_l4_proto_idx_mask & AL_ETH_RX_GPD_INNER_L4_PROTO_MASK) <<
		AL_ETH_RX_GPD_INNER_L4_PROTO_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->parse_ctrl_mask & AL_ETH_RX_GPD_OUTER_PARSE_CTRL_MASK) <<
		AL_ETH_RX_GPD_OUTER_PARSE_CTRL_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->outer_l3_len_mask & AL_ETH_RX_GPD_INNER_PARSE_CTRL_MASK) <<
		AL_ETH_RX_GPD_INNER_PARSE_CTRL_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->l3_priority_mask & AL_ETH_RX_GPD_L3_PRIORITY_MASK) <<
		AL_ETH_RX_GPD_L3_PRIORITY_SHIFT;
	gpd_mask |= ((uint64_t)rx_gpd_entry->l4_dst_port_lsb_mask & AL_ETH_RX_GPD_L4_DST_PORT_LSB_MASK) <<
		AL_ETH_RX_GPD_L4_DST_PORT_LSB_SHIFT;

	/* Rx Generic protocol detect Cam compare table */
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_ctrl,
			(uint32_t)((rx_gpd_entry->rx_gpd_cam_ctrl) << AL_ETH_RX_GPD_CAM_CTRL_VALID_SHIFT));
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_mask_2,
			(uint32_t)(gpd_mask >> AL_ETH_RX_GPD_CAM_MASK_2_SHIFT));
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_mask_1,
			(uint32_t)(gpd_mask));
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_data_2,
			(uint32_t)(gpd_data >> AL_ETH_RX_GPD_CAM_DATA_2_SHIFT));
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gpd_cam_data_1,
			(uint32_t)(gpd_data));
	return 0;
}

int al_eth_rx_generic_crc_table_entry_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
		struct al_eth_rx_gcp_table_entry *rx_gcp_entry)
{
	uint32_t gcp_table_gen;
	uint32_t rx_alu_opcode;
	uint32_t rx_alu_opsel;

	gcp_table_gen  = (rx_gcp_entry->poly_sel & AL_ETH_RX_GCP_POLY_SEL_MASK) <<
		AL_ETH_RX_GCP_POLY_SEL_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->crc32_bit_comp & AL_ETH_RX_GCP_CRC32_BIT_COMP_MASK) <<
		AL_ETH_RX_GCP_CRC32_BIT_COMP_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->crc32_bit_swap & AL_ETH_RX_GCP_CRC32_BIT_SWAP_MASK) <<
		AL_ETH_RX_GCP_CRC32_BIT_SWAP_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->crc32_byte_swap & AL_ETH_RX_GCP_CRC32_BYTE_SWAP_MASK) <<
		AL_ETH_RX_GCP_CRC32_BYTE_SWAP_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->data_bit_swap & AL_ETH_RX_GCP_DATA_BIT_SWAP_MASK) <<
		AL_ETH_RX_GCP_DATA_BIT_SWAP_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->data_byte_swap & AL_ETH_RX_GCP_DATA_BYTE_SWAP_MASK) <<
		AL_ETH_RX_GCP_DATA_BYTE_SWAP_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->trail_size & AL_ETH_RX_GCP_TRAIL_SIZE_MASK) <<
		AL_ETH_RX_GCP_TRAIL_SIZE_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->head_size & AL_ETH_RX_GCP_HEAD_SIZE_MASK) <<
		AL_ETH_RX_GCP_HEAD_SIZE_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->head_calc & AL_ETH_RX_GCP_HEAD_CALC_MASK) <<
		AL_ETH_RX_GCP_HEAD_CALC_SHIFT;
	gcp_table_gen |= (rx_gcp_entry->mask_polarity & AL_ETH_RX_GCP_MASK_POLARITY_MASK) <<
		AL_ETH_RX_GCP_MASK_POLARITY_SHIFT;

	rx_alu_opcode  = (rx_gcp_entry->rx_alu_opcode_1 & AL_ETH_RX_GCP_OPCODE_1_MASK) <<
		AL_ETH_RX_GCP_OPCODE_1_SHIFT;
	rx_alu_opcode |= (rx_gcp_entry->rx_alu_opcode_2 & AL_ETH_RX_GCP_OPCODE_2_MASK) <<
		AL_ETH_RX_GCP_OPCODE_2_SHIFT;
	rx_alu_opcode |= (rx_gcp_entry->rx_alu_opcode_3 & AL_ETH_RX_GCP_OPCODE_3_MASK) <<
		AL_ETH_RX_GCP_OPCODE_3_SHIFT;
	rx_alu_opsel  = (rx_gcp_entry->rx_alu_opsel_1 & AL_ETH_RX_GCP_OPSEL_1_MASK) <<
		AL_ETH_RX_GCP_OPSEL_1_SHIFT;
	rx_alu_opsel |= (rx_gcp_entry->rx_alu_opsel_2 & AL_ETH_RX_GCP_OPSEL_2_MASK) <<
		AL_ETH_RX_GCP_OPSEL_2_SHIFT;
	rx_alu_opsel |= (rx_gcp_entry->rx_alu_opsel_3 & AL_ETH_RX_GCP_OPSEL_3_MASK) <<
		AL_ETH_RX_GCP_OPSEL_3_SHIFT;
	rx_alu_opsel |= (rx_gcp_entry->rx_alu_opsel_4 & AL_ETH_RX_GCP_OPSEL_4_MASK) <<
		AL_ETH_RX_GCP_OPSEL_4_SHIFT;

	/*  Rx Generic crc prameters table general */
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_addr, idx);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_gen,
			gcp_table_gen);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_1,
			rx_gcp_entry->gcp_mask[0]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_2,
			rx_gcp_entry->gcp_mask[1]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_3,
			rx_gcp_entry->gcp_mask[2]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_4,
			rx_gcp_entry->gcp_mask[3]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_5,
			rx_gcp_entry->gcp_mask[4]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_mask_6,
			rx_gcp_entry->gcp_mask[5]);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_crc_init,
			rx_gcp_entry->crc_init);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_res,
			rx_gcp_entry->gcp_table_res);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_alu_opcode,
			rx_alu_opcode);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_alu_opsel,
			rx_alu_opsel);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_table_alu_val,
			rx_gcp_entry->alu_val);
	return 0;
}


#define AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM 9
#define AL_ETH_RX_PROTOCOL_DETECT_ENTRIES_NUM 32

static struct al_eth_tx_gpd_cam_entry
al_eth_generic_tx_crc_gpd[AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM] = {

	/* [0] roce (with grh, bth) */
	{22,		0,		0,		0,		1,
	 0x1f,		0x0,		0x0,		0x0,		},
	/* [1] fcoe */
	{21,		0,		0,		0,		1,
	 0x1f,		0x0,		0x0,		0x0,		},
	/* [2] routable_roce that is refered as l4_protocol, over IPV4 (and udp) */
	{8,		23,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,		},
	/* [3] routable_roce that is refered as l4_protocol, over IPV6 (and udp) */
	{11,		23,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,		},
	/* [4] routable_roce that is refered as tunneled_packet, over outer IPV4 and udp */
	{23,		0,		5,		0,		1,
	 0x1f,		0x0,		0x5,		0x0,		},
	/* [5] routable_roce that is refered as tunneled_packet, over outer IPV6 and udp */
	{23,		0,		3,		0,		1,
	 0x1f,		0x0,		0x5,		0x0		},
	/* [6] GENERIC_STORAGE_READ over IPV4 (and udp) */
	{8,		2,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,		},
	/* [7] GENERIC_STORAGE_READ over IPV6 (and udp) */
	{11,		2,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,		},
	/* [8] default match */
	{0,		0,		0,		0,		1,
	 0x0,		0x0,		0x0,		0x0		}
};

static struct al_eth_tx_gcp_table_entry
al_eth_generic_tx_crc_gcp[AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM] = {

	/* [0] roce (with grh, bth) */
	{0,		1,		1,		0,		1,
	 0,		4,		8,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0xffff7f03,	0x00000000,	0x00000000,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 0},
	/* [1] fcoe */
	{0,		1,		0,		0,		1,
	 0,		8,		14,		1,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 0},
	/* [2] routable_roce that is refered as l4_protocol, over IPV4 (and udp) */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 0},
	/* [3] routable_roce that is refered as l4_protocol, over IPV6 (and udp) */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 0},
	/* [4] routable_roce that is refered as tunneled_packet, over outer IPV4 and udp */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 2,		0,		0,		0,		10,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 28},
	/* [5] routable_roce that is refered as tunneled_packet, over outer IPV6 and udp */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 2,		0,		0,		0,		10,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 48},
	/* [6] GENERIC_STORAGE_READ over IPV4 (and udp) */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 1,		0,		1,		0,		2,
	 10,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 8},
	/* [7] GENERIC_STORAGE_READ over IPV6 (and udp) */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 1,		0,		1,		0,		2,
	 10,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0,
	 8},
	/* [8] default match */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	  0x00000000},	0x00000000,	0x0,
	 0}
};

static struct al_eth_tx_crc_chksum_replace_cmd_for_protocol_num_entry
al_eth_tx_crc_chksum_replace_cmd[AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM] = {

	/* [0] roce (with grh, bth) */
	{0,1,0,1,		0,0,0,0,		0,0,0,0},
	/* [1] fcoe */
	{0,1,0,1,		0,0,0,0,		0,0,0,0},
	/* [2] routable_roce that is refered as l4_protocol, over IPV4 (and udp) */
	{0,0,1,1,		0,0,0,0,		0,1,0,1},
	/* [3] routable_roce that is refered as l4_protocol, over IPV6 (and udp) */
	{0,0,1,1,		0,0,0,0,		0,0,0,0},
	/* [4] routable_roce that is refered as tunneled_packet, over outer IPV4 and udp */
	{0,1,0,1,		0,0,0,0,		0,0,0,0},
	/* [5] routable_roce that is refered as tunneled_packet, over outer IPV6 and udp */
	{0,1,0,1,		0,0,0,0,		0,0,0,0},
	/* [6] GENERIC_STORAGE_READ over IPV4 (and udp) */
	{0,0,1,1,		0,0,0,0,		0,1,0,1},
	/* [7] GENERIC_STORAGE_READ over IPV6 (and udp) */
	{0,0,1,1,		0,0,0,0,		0,0,0,0},
	/* [8] default match */
	{0,0,0,0,		0,0,1,1,		0,1,0,1}
};

static struct al_eth_rx_gpd_cam_entry
al_eth_generic_rx_crc_gpd[AL_ETH_RX_PROTOCOL_DETECT_ENTRIES_NUM] = {

	/* [0] roce (with grh, bth) */
	{22,		0,		0,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x0,		0x0,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [1] fcoe */
	{21,		0,		0,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x0,		0x0,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [2] routable_roce that is refered as l4_protocol, over IPV4 (and udp) */
	{8,		23,		0,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [3] routable_roce that is refered as l4_protocol, over IPV6 (and udp) */
	{11,		23,		0,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x1f,		0x0,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [4] routable_roce that is refered as tunneled_packet, over outer IPV4 and udp */
	{8,		13,		23,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x1f,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [5] routable_roce that is refered as tunneled_packet, over outer IPV6 and udp */
	{11,		13,		23,		0,
	 0,		0,		0,		0,		1,
	 0x1f,		0x1f,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [6] tunneled roce (with grh, bth) over GRE over IPV4 */
	{8,		0,		22,		0,
	 4,		0,		0,		0,		1,
	 0x1f,		0x0,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [7] tunneled roce (with grh, bth) over GRE over IPV6 */
	{11,		0,		22,		0,
	 4,		0,		0,		0,		1,
	 0x1f,		0x0,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [8] tunneled fcoe over IPV4 */
	{8,		0,		21,		0,
	 4,		0,		0,		0,		1,
	 0x1f,		0x0,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
        /* [9] tunneled fcoe over IPV6 */
        {11,		0,		21,		0,
	 4,		0,		0,		0,		1,
         0x1f,		0x0,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [10] tunneled routable_roce that is refered as l4_protocol, over IPV4 (and udp) over IPV4 */
	{8,             0,              8,              23,
	 4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	 0x4,		0x0,		0x0,		0x0},
	/* [11] tunneled routable_roce that is refered as l4_protocol, over IPV4 (and udp) over IPV6 */
	{11,		0,		8,		23,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [12] tunneled routable_roce that is refered as l4_protocol, over IPV6 (and udp) over IPV4 */
	{8,		0,		11,		23,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [13] tunneled routable_roce that is refered as l4_protocol, over IPV6 (and udp) over IPV6 */
	{11,		0,		11,		23,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [14] l3_pkt - IPV4 */
	{8,		0,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1f,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [15] l4_hdr over IPV4 */
	{8,		12,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1e,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [16] l3_pkt - IPV6 */
	{11,		0,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1f,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [17] l4_hdr over IPV6 */
	{11,		12,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1e,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [18] IPV4 over IPV4 */
	{8,		0,		8,		0,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [19] l4_hdr over IPV4 over IPV4 */
	{8,		0,		8,		12,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1e,
	0x4,		0x0,		0x0,		0x0},
	/* [20] IPV4 over IPV6 */
	{11,		0,		8,		0,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [21] l4_hdr over IPV4 over IPV6 */
	{11,		0,		8,		12,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1e,
	0x4,		0x0,		0x0,		0x0},
	/* [22] IPV6 over IPV4 */
	{8,		0,		11,		0,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [23] l4_hdr over IPV6 over IPV4 */
	{8,		0,		11,		12,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1e,
	0x4,		0x0,		0x0,		0x0},
	/* [24] IPV6 over IPV6 */
	{11,		0,		11,		0,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [25] l4_hdr over IPV6 over IPV6 */
	{11,		0,		11,		12,
	4,		0,		0,		0,		1,
	0x1f,		0x0,		0x1f,		0x1e,
	0x4,		0x0,		0x0,		0x0},
	/* [26] GENERIC_STORAGE_READ, over IPV4 (and udp) */
	{8,		2,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1f,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [27] GENERIC_STORAGE_READ, over IPV6 (and udp) */
	{11,		2,		0,		0,
	0,		0,		0,		0,		1,
	0x1f,		0x1f,		0x0,		0x0,
	0x4,		0x0,		0x0,		0x0},
	/* [28] tunneled GENERIC_STORAGE_READ over IPV4 (and udp) over IPV4/IPV6 */
	{8,		0,		8,		2,
	4,		0,		0,		0,		1,
	0x18,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [29] tunneled GENERIC_STORAGE_READ over IPV6 (and udp)  over IPV4/IPV6 */
	{8,		0,		11,		2,
	4,		0,		0,		0,		1,
	0x18,		0x0,		0x1f,		0x1f,
	0x4,		0x0,		0x0,		0x0},
	/* [30] tunneled L2 over GRE over IPV4 */
	{8,		0,		0,		0,
	 4,		0,		0,		0,		1,
	 0x1f,		0x0,		0x1f,		0x0,
	 0x4,		0x0,		0x0,		0x0},
	/* [31] default match */
	{0,		0,		0,		0,
	 0,		0,		0,		0,		1,
	 0x0,		0x0,		0x0,		0x0,
	 0x0,		0x0,		0x0,		0x0}
};

static struct al_eth_rx_gcp_table_entry
al_eth_generic_rx_crc_gcp[AL_ETH_RX_PROTOCOL_DETECT_ENTRIES_NUM] = {

	/* [0] roce (with grh, bth) */
	{0,		 1,		1,		0,		1,
	 0,		4,		8,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0xffff7f03,	0x00000000,	0x00000000,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [1] fcoe */
	{0,		1,		0,		0,		1,
	 0,		8,		14,		1,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [2] routable_roce that is refered as l4_protocol, over IPV4 (and udp) */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000011,
	 0},
	/* [3] routable_roce that is refered as l4_protocol, over IPV6 (and udp) */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [4] routable_roce that is refered as tunneled_packet, over outer IPV4 and udp */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 2,		0,		0,		0,		10,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x0302201c,
	 28},
	/* [5] routable_roce that is refered as tunneled_packet, over outer IPV6 and udp */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 2,		0,		0,		0,		10,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03002018,
	 48},
	/* [6] tunneled roce (with grh, bth) over IPV4 */
	{0,		1,		1,		0,		1,
	 0,		4,		8,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0xffff7f03,	0x00000000,	0x00000000,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03020014,
	 0},
	/* [7] tunneled roce (with grh, bth) over IPV6 */
	{0,		1,		1,		0,		1,
	 0,		4,		8,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0xffff7f03,	0x00000000,	0x00000000,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [8] tunneled fcoe over IPV4 */
	{0,		1,		0,		0,		1,
	 0,		8,		14,		1,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03020014,
	 0},
	/* [9] tunneled fcoe over IPV6 */
	{0,		1,		0,		0,		1,
	 0,		8,		14,		1,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [10] tunneled routable_roce that is refered as l4_protocol, over IPV4 (and udp) over IPV4 */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03020015,
	 0},
	/* [11] tunneled routable_roce that is refered as l4_protocol, over IPV4 (and udp) over IPV6 */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x3000cf00,	0x00000f00,	0xc0000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000011,
	 0},
	/* [12] tunneled routable_roce that is refered as l4_protocol, over IPV6 (and udp) over IPV4 */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03020014,
	 0},
	/* [13] tunneled routable_roce that is refered as l4_protocol, over IPV6 (and udp) over IPV6 */
	{0,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		1,		0,
	 0,		0,		{0x7f030000,	0x00000000,	0x00000003,
	 0x00c00000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [14] l3_pkt - IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000001,
	 0},
	/* [15] l4_hdr over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000003,
	 0},
	/* [16] l3_pkt - IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000000,
	 0},
	/* [17] l4_hdr over IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000002,
	 0},
	/* [18] IPV4 over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00020005,
	 0},
	/* [19] l4_hdr over IPV4 over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00020007,
	 0},
	/* [20] IPV4 over IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000001,
	 0},
	/* [21] l4_hdr over IPV4 over IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000003,
	 0},
	/* [22] IPV6 over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00020004,
	 0},
	/* [23] l4_hdr over IPV6 over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00020006,
	 0},
	/* [24] IPV6 over IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000000,
	 0},
	/* [25] l4_hdr over IPV6 over IPV6 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00000002,
	 0},
	/* [26] GENERIC_STORAGE_READ, over IPV4 (and udp) */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		2,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000011,
	 0},
	/* [27] GENERIC_STORAGE_READ, over IPV6 (and udp) */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		2,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [28] tunneled GENERIC_STORAGE_READ over IPV4 (and udp) over IPV4/IPV6 */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		3,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000011,
	 0},
	/* [29] tunneled GENERIC_STORAGE_READ over IPV6 (and udp)  over IPV4/IPV6 */
	{1,		1,		1,		0,		1,
	 0,		4,		0,		0,		1,
	 0,		0,		0,		3,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0xffffffff,	0x03000010,
	 0},
	/* [30] tunneled L2 over GRE over IPV4 */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x00020004,
	 0},
	/* [31] default match */
	{0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		0,		0,		0,
	 0,		0,		{0x00000000,	0x00000000,	0x00000000,
	 0x00000000,	0x00000000,	0x00000000},	0x00000000,	0x0,
	 0}
};

int al_eth_tx_protocol_detect_table_init(struct al_hal_eth_adapter *adapter)
{
	int idx;
	al_assert((adapter->rev_id > AL_ETH_REV_ID_2));

	for (idx = 0; idx < AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM; idx++)
		al_eth_tx_protocol_detect_table_entry_set(adapter, idx,
				&al_eth_generic_tx_crc_gpd[idx]);

	return 0;
}

int al_eth_tx_generic_crc_table_init(struct al_hal_eth_adapter *adapter)
{
	int idx;
	al_assert((adapter->rev_id > AL_ETH_REV_ID_2));

	al_dbg("eth [%s]: enable tx_generic_crc\n", adapter->name);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.tx_gcp_legacy, 0x0);
	al_reg_write32(&adapter->ec_regs_base->tfw_v3.crc_csum_replace, 0x0);
	for (idx = 0; idx < AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM; idx++)
		al_eth_tx_generic_crc_table_entry_set(adapter, idx,
				&al_eth_generic_tx_crc_gcp[idx]);

	return 0;
}

int al_eth_tx_crc_chksum_replace_cmd_init(struct al_hal_eth_adapter *adapter)
{
	int idx;
	al_assert((adapter->rev_id > AL_ETH_REV_ID_2));

	for (idx = 0; idx < AL_ETH_TX_GENERIC_CRC_ENTRIES_NUM; idx++)
		al_eth_tx_crc_chksum_replace_cmd_entry_set(adapter, idx,
				&al_eth_tx_crc_chksum_replace_cmd[idx]);

	return 0;
}

int al_eth_rx_protocol_detect_table_init(struct al_hal_eth_adapter *adapter)
{
	int idx;
	al_assert((adapter->rev_id > AL_ETH_REV_ID_2));
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p1,
			AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L3_PROTO_IDX_OFFSET);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p2,
			AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L4_PROTO_IDX_OFFSET);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p3,
			AL_ETH_RX_GPD_PARSE_RESULT_INNER_L3_PROTO_IDX_OFFSET);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p4,
			AL_ETH_RX_GPD_PARSE_RESULT_INNER_L4_PROTO_IDX_OFFSET);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p5,
			AL_ETH_RX_GPD_PARSE_RESULT_OUTER_PARSE_CTRL);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p6,
			AL_ETH_RX_GPD_PARSE_RESULT_INNER_PARSE_CTRL);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p7,
			AL_ETH_RX_GPD_PARSE_RESULT_L3_PRIORITY);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.gpd_p8,
			AL_ETH_RX_GPD_PARSE_RESULT_OUTER_L4_DST_PORT_LSB);

	for (idx = 0; idx < AL_ETH_RX_PROTOCOL_DETECT_ENTRIES_NUM; idx++)
		al_eth_rx_protocol_detect_table_entry_set(adapter, idx,
				&al_eth_generic_rx_crc_gpd[idx]);
	return 0;
}

int al_eth_rx_generic_crc_table_init(struct al_hal_eth_adapter *adapter)
	{
	int idx;
	uint32_t val;

	al_assert((adapter->rev_id > AL_ETH_REV_ID_2));

	al_dbg("eth [%s]: enable rx_generic_crc\n", adapter->name);
	al_reg_write32(&adapter->ec_regs_base->rfw_v3.rx_gcp_legacy, 0x0);

	for (idx = 0; idx < AL_ETH_RX_PROTOCOL_DETECT_ENTRIES_NUM; idx++)
		al_eth_rx_generic_crc_table_entry_set(adapter, idx,
				&al_eth_generic_rx_crc_gcp[idx]);

	val = EC_GEN_V3_RX_COMP_DESC_W3_DEC_STAT_15_CRC_RES_SEL |
			EC_GEN_V3_RX_COMP_DESC_W3_DEC_STAT_14_L3_CKS_RES_SEL |
			EC_GEN_V3_RX_COMP_DESC_W3_DEC_STAT_13_L4_CKS_RES_SEL |
			EC_GEN_V3_RX_COMP_DESC_W0_L3_CKS_RES_SEL;
	al_reg_write32_masked(&adapter->ec_regs_base->gen_v3.rx_comp_desc,
			val, val);
	return 0;
}

/** @} end of Ethernet group */