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freebsd-dev/sys/contrib/alpine-hal/eth/al_hal_eth.h
Zbigniew Bodek 49b49cda41 Import Annapurna Labs Alpine HAL for networking 
Files required for the NIC driver

Import from vendor-sys/alpine-hal/2.7
SVN rev.: 294828
HAL version: 2.7

Obtained from:  Semihalf
Sponsored by:   Annapurna Labs
2016-01-26 15:22:04 +00:00

2382 lines
84 KiB
C
Raw Blame History

/*-
*******************************************************************************
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.
*******************************************************************************/
/**
* @defgroup group_eth_api API
* Ethernet Controller HAL driver API
* @ingroup group_eth
* @{
* @file al_hal_eth.h
*
* @brief Header file for Unified GbE and 10GbE Ethernet Controllers This is a
* common header file that covers both Standard and Advanced Controller
*
*
*/
#ifndef __AL_HAL_ETH_H__
#define __AL_HAL_ETH_H__
#include "al_hal_common.h"
#include "al_hal_udma.h"
#include "al_hal_eth_alu.h"
#ifdef AL_ETH_EX
#include "al_hal_eth_ex.h"
#include "al_hal_eth_ex_internal.h"
#endif
/* *INDENT-OFF* */
#ifdef __cplusplus
extern "C" {
#endif
/* *INDENT-ON* */
#ifndef AL_ETH_PKT_MAX_BUFS
#ifndef AL_ETH_EX
#define AL_ETH_PKT_MAX_BUFS 19
#else
#define AL_ETH_PKT_MAX_BUFS 29
#endif
#endif
#define AL_ETH_UDMA_TX_QUEUES 4
#define AL_ETH_UDMA_RX_QUEUES 4
/* PCI Adapter Device/Revision ID */
#define AL_ETH_DEV_ID_STANDARD 0x0001
#define AL_ETH_DEV_ID_ADVANCED 0x0002
#define AL_ETH_REV_ID_0 0 /* Alpine V1 Rev 0 */
#define AL_ETH_REV_ID_1 1 /* Alpine V1 Rev 1 */
#define AL_ETH_REV_ID_2 2 /* Alpine V2 basic */
#define AL_ETH_REV_ID_3 3 /* Alpine V2 advanced */
/* PCI BARs */
#define AL_ETH_UDMA_BAR 0
#define AL_ETH_EC_BAR 4
#define AL_ETH_MAC_BAR 2
#define AL_ETH_MAX_FRAME_LEN 10000
#define AL_ETH_MIN_FRAME_LEN 60
#define AL_ETH_TSO_MSS_MAX_IDX 8
#define AL_ETH_TSO_MSS_MIN_VAL 1
/*TODO: update with correct value*/
#define AL_ETH_TSO_MSS_MAX_VAL (AL_ETH_MAX_FRAME_LEN - 200)
enum AL_ETH_PROTO_ID {
AL_ETH_PROTO_ID_UNKNOWN = 0,
AL_ETH_PROTO_ID_IPv4 = 8,
AL_ETH_PROTO_ID_IPv6 = 11,
AL_ETH_PROTO_ID_TCP = 12,
AL_ETH_PROTO_ID_UDP = 13,
AL_ETH_PROTO_ID_FCOE = 21,
AL_ETH_PROTO_ID_GRH = 22, /** RoCE l3 header */
AL_ETH_PROTO_ID_BTH = 23, /** RoCE l4 header */
AL_ETH_PROTO_ID_ANY = 32, /**< for sw usage only */
};
#define AL_ETH_PROTOCOLS_NUM (AL_ETH_PROTO_ID_ANY)
enum AL_ETH_TX_TUNNEL_MODE {
AL_ETH_NO_TUNNELING = 0,
AL_ETH_TUNNEL_NO_UDP = 1, /* NVGRE / IP over IP */
AL_ETH_TUNNEL_WITH_UDP = 3, /* VXLAN */
};
#define AL_ETH_RX_THASH_TABLE_SIZE (1 << 8)
#define AL_ETH_RX_FSM_TABLE_SIZE (1 << 7)
#define AL_ETH_RX_CTRL_TABLE_SIZE (1 << 11)
#define AL_ETH_RX_HASH_KEY_NUM 10
#define AL_ETH_FWD_MAC_NUM 32
#define AL_ETH_FWD_MAC_HASH_NUM 256
#define AL_ETH_FWD_PBITS_TABLE_NUM (1 << 3)
#define AL_ETH_FWD_PRIO_TABLE_NUM (1 << 3)
#define AL_ETH_FWD_VID_TABLE_NUM (1 << 12)
#define AL_ETH_FWD_DSCP_TABLE_NUM (1 << 8)
#define AL_ETH_FWD_TC_TABLE_NUM (1 << 8)
/** MAC media mode */
enum al_eth_mac_mode {
AL_ETH_MAC_MODE_RGMII,
AL_ETH_MAC_MODE_SGMII,
AL_ETH_MAC_MODE_SGMII_2_5G,
AL_ETH_MAC_MODE_10GbE_Serial, /**< Applies to XFI and KR modes */
AL_ETH_MAC_MODE_10G_SGMII, /**< SGMII using the 10G MAC, don't use*/
AL_ETH_MAC_MODE_XLG_LL_40G, /**< applies to 40G mode using the 40G low latency (LL) MAC */
AL_ETH_MAC_MODE_KR_LL_25G, /**< applies to 25G mode using the 10/25G low latency (LL) MAC */
AL_ETH_MAC_MODE_XLG_LL_50G /**< applies to 50G mode using the 40/50G low latency (LL) MAC */
};
struct al_eth_capabilities {
al_bool speed_10_HD;
al_bool speed_10_FD;
al_bool speed_100_HD;
al_bool speed_100_FD;
al_bool speed_1000_HD;
al_bool speed_1000_FD;
al_bool speed_10000_HD;
al_bool speed_10000_FD;
al_bool pfc; /**< priority flow control */
al_bool eee; /**< Energy Efficient Ethernet */
};
/** interface type used for MDIO */
enum al_eth_mdio_if {
AL_ETH_MDIO_IF_1G_MAC = 0,
AL_ETH_MDIO_IF_10G_MAC = 1
};
/** MDIO protocol type */
enum al_eth_mdio_type {
AL_ETH_MDIO_TYPE_CLAUSE_22 = 0,
AL_ETH_MDIO_TYPE_CLAUSE_45 = 1
};
/** flow control mode */
enum al_eth_flow_control_type {
AL_ETH_FLOW_CONTROL_TYPE_LINK_PAUSE,
AL_ETH_FLOW_CONTROL_TYPE_PFC
};
/** Tx to Rx switching decision type */
enum al_eth_tx_switch_dec_type {
AL_ETH_TX_SWITCH_TYPE_MAC = 0,
AL_ETH_TX_SWITCH_TYPE_VLAN_TABLE = 1,
AL_ETH_TX_SWITCH_TYPE_VLAN_TABLE_AND_MAC = 2,
AL_ETH_TX_SWITCH_TYPE_BITMAP = 3
};
/** Tx to Rx VLAN ID selection type */
enum al_eth_tx_switch_vid_sel_type {
AL_ETH_TX_SWITCH_VID_SEL_TYPE_VLAN1 = 0,
AL_ETH_TX_SWITCH_VID_SEL_TYPE_VLAN2 = 1,
AL_ETH_TX_SWITCH_VID_SEL_TYPE_NEW_VLAN1 = 2,
AL_ETH_TX_SWITCH_VID_SEL_TYPE_NEW_VLAN2 = 3,
AL_ETH_TX_SWITCH_VID_SEL_TYPE_DEFAULT_VLAN1 = 4,
AL_ETH_TX_SWITCH_VID_SEL_TYPE_FINAL_VLAN1 = 5
};
/** Rx descriptor configurations */
/* Note: when selecting rx descriptor field to inner packet, then that field
* will be set according to inner packet when packet is tunneled, for non-tunneled
* packets, the field will be set according to the packets header */
/** selection of the LRO_context_value result in the Metadata */
enum al_eth_rx_desc_lro_context_val_res {
AL_ETH_LRO_CONTEXT_VALUE = 0, /**< LRO_context_value */
AL_ETH_L4_OFFSET = 1, /**< L4_offset */
};
/** selection of the L4 offset in the Metadata */
enum al_eth_rx_desc_l4_offset_sel {
AL_ETH_L4_OFFSET_OUTER = 0, /**< set L4 offset of the outer packet */
AL_ETH_L4_OFFSET_INNER = 1, /**< set L4 offset of the inner packet */
};
/** selection of the L4 checksum result in the Metadata */
enum al_eth_rx_desc_l4_chk_res_sel {
AL_ETH_L4_INNER_CHK = 0, /**< L4 checksum */
AL_ETH_L4_INNER_OUTER_CHK = 1, /**< Logic AND between outer and inner
L4 checksum result */
};
/** selection of the L3 checksum result in the Metadata */
enum al_eth_rx_desc_l3_chk_res_sel {
AL_ETH_L3_CHK_TYPE_0 = 0, /**< L3 checksum */
AL_ETH_L3_CHK_TYPE_1 = 1, /**< L3 checksum or RoCE/FCoE CRC,
based on outer header */
AL_ETH_L3_CHK_TYPE_2 = 2, /**< If tunnel exist = 0,
L3 checksum or RoCE/FCoE CRC,
based on outer header.
Else,
logic AND between outer L3 checksum
(Ipv4) and inner CRC (RoCE or FcoE) */
AL_ETH_L3_CHK_TYPE_3 = 3, /**< combination of the L3 checksum result and
CRC result,based on the checksum and
RoCE/FCoE CRC input selections. */
};
/** selection of the L3 protocol index in the Metadata */
enum al_eth_rx_desc_l3_proto_idx_sel {
AL_ETH_L3_PROTO_IDX_OUTER = 0, /**< set L3 proto index of the outer packet */
AL_ETH_L3_PROTO_IDX_INNER = 1, /**< set L3 proto index of the inner packet */
};
/** selection of the L3 offset in the Metadata */
enum al_eth_rx_desc_l3_offset_sel {
AL_ETH_L3_OFFSET_OUTER = 0, /**< set L3 offset of the outer packet */
AL_ETH_L3_OFFSET_INNER = 1, /**< set L3 offset of the inner packet */
};
/** selection of the L4 protocol index in the Metadata */
enum al_eth_rx_desc_l4_proto_idx_sel {
AL_ETH_L4_PROTO_IDX_OUTER = 0, /**< set L4 proto index of the outer packet */
AL_ETH_L4_PROTO_IDX_INNER = 1, /**< set L4 proto index of the inner packet */
};
/** selection of the frag indication in the Metadata */
enum al_eth_rx_desc_frag_sel {
AL_ETH_FRAG_OUTER = 0, /**< set frag of the outer packet */
AL_ETH_FRAG_INNER = 1, /**< set frag of the inner packet */
};
/** Ethernet Rx completion descriptor */
typedef struct {
uint32_t ctrl_meta;
uint32_t len;
uint32_t word2;
uint32_t word3;
} al_eth_rx_cdesc;
/** Flow Contol parameters */
struct al_eth_flow_control_params{
enum al_eth_flow_control_type type; /**< flow control type */
al_bool obay_enable; /**< stop tx when pause received */
al_bool gen_enable; /**< generate pause frames */
uint16_t rx_fifo_th_high;
uint16_t rx_fifo_th_low;
uint16_t quanta;
uint16_t quanta_th;
uint8_t prio_q_map[4][8]; /**< for each UDMA, defines the mapping between
* PFC priority and queues(in bit mask).
* same mapping used for obay and generation.
* for example:
* if prio_q_map[1][7] = 0xC, then TX queues 2
* and 3 of UDMA 1 will be stopped when pause
* received with priority 7, also, when RX queues
* 2 and 3 of UDMA 1 become almost full, then
* pause frame with priority 7 will be sent.
*
*note:
* 1) if specific a queue is not used, the caller must
* make set the prio_q_map to 0 otherwise that queue
* will make the controller keep sending PAUSE packets.
* 2) queues of unused UDMA must be treated as above.
* 3) when working in LINK PAUSE mode, only entries at
* priority 0 will be considered.
*/
};
/* Packet Tx flags */
#define AL_ETH_TX_FLAGS_TSO AL_BIT(7) /**< Enable TCP/UDP segmentation offloading */
#define AL_ETH_TX_FLAGS_IPV4_L3_CSUM AL_BIT(13) /**< Enable IPv4 header checksum calculation */
#define AL_ETH_TX_FLAGS_L4_CSUM AL_BIT(14) /**< Enable TCP/UDP checksum calculation */
#define AL_ETH_TX_FLAGS_L4_PARTIAL_CSUM AL_BIT(17) /**< L4 partial checksum calculation */
#define AL_ETH_TX_FLAGS_L2_MACSEC_PKT AL_BIT(16) /**< L2 Packet type 802_3 or 802_3_MACSEC, V2 */
#define AL_ETH_TX_FLAGS_ENCRYPT AL_BIT(16) /**< Enable TX packet encryption, V3 */
#define AL_ETH_TX_FLAGS_L2_DIS_FCS AL_BIT(15) /**< Disable CRC calculation*/
#define AL_ETH_TX_FLAGS_TS AL_BIT(21) /**< Timestamp the packet */
#define AL_ETH_TX_FLAGS_INT AL_M2S_DESC_INT_EN
#define AL_ETH_TX_FLAGS_NO_SNOOP AL_M2S_DESC_NO_SNOOP_H
/** this structure used for tx packet meta data */
struct al_eth_meta_data{
uint8_t store :1; /**< store the meta into the queues cache */
uint8_t words_valid :4; /**< valid bit per word */
uint8_t vlan1_cfi_sel:2;
uint8_t vlan2_vid_sel:2;
uint8_t vlan2_cfi_sel:2;
uint8_t vlan2_pbits_sel:2;
uint8_t vlan2_ether_sel:2;
uint16_t vlan1_new_vid:12;
uint8_t vlan1_new_cfi :1;
uint8_t vlan1_new_pbits :3;
uint16_t vlan2_new_vid:12;
uint8_t vlan2_new_cfi :1;
uint8_t vlan2_new_pbits :3;
uint8_t l3_header_len; /**< in bytes */
uint8_t l3_header_offset;
uint8_t l4_header_len; /**< in words(32-bits) */
/* rev 0 specific */
uint8_t mss_idx_sel:3; /**< for TSO, select the register that holds the MSS */
/* rev 1 specific */
uint8_t ts_index:4; /**< index of regiser where to store the tx timestamp */
uint16_t mss_val :14; /**< for TSO, set the mss value */
uint8_t outer_l3_offset; /**< for tunneling mode. up to 64 bytes */
uint8_t outer_l3_len; /**< for tunneling mode. up to 128 bytes */
};
/* Packet Rx flags when adding buffer to receive queue */
/**<
* VMID to be assigned to the packet descriptors
* Requires VMID in descriptor to be enabled for the specific UDMA
* queue.
*/
#define AL_ETH_RX_FLAGS_VMID_MASK AL_FIELD_MASK(15, 0)
#define AL_ETH_RX_FLAGS_NO_SNOOP AL_M2S_DESC_NO_SNOOP_H
#define AL_ETH_RX_FLAGS_INT AL_M2S_DESC_INT_EN
#define AL_ETH_RX_FLAGS_DUAL_BUF AL_BIT(31)
/* Packet Rx flags set by HW when receiving packet */
#define AL_ETH_RX_ERROR AL_BIT(16) /**< layer 2 errors (FCS, bad len, etc) */
#define AL_ETH_RX_FLAGS_L4_CSUM_ERR AL_BIT(14)
#define AL_ETH_RX_FLAGS_L3_CSUM_ERR AL_BIT(13)
/* Packet Rx flags - word 3 in Rx completion descriptor */
#define AL_ETH_RX_FLAGS_CRC AL_BIT(31)
#define AL_ETH_RX_FLAGS_L3_CSUM_2 AL_BIT(30)
#define AL_ETH_RX_FLAGS_L4_CSUM_2 AL_BIT(29)
#define AL_ETH_RX_FLAGS_SW_SRC_PORT_SHIFT 13
#define AL_ETH_RX_FLAGS_SW_SRC_PORT_MASK AL_FIELD_MASK(15, 13)
#define AL_ETH_RX_FLAGS_LRO_CONTEXT_VAL_SHIFT 3
#define AL_ETH_RX_FLAGS_LRO_CONTEXT_VAL_MASK AL_FIELD_MASK(10, 3)
#define AL_ETH_RX_FLAGS_L4_OFFSET_SHIFT 3
#define AL_ETH_RX_FLAGS_L4_OFFSET_MASK AL_FIELD_MASK(10, 3)
#define AL_ETH_RX_FLAGS_PRIORITY_SHIFT 0
#define AL_ETH_RX_FLAGS_PRIORITY_MASK AL_FIELD_MASK(2, 0)
/** packet structure. used for packet transmission and reception */
struct al_eth_pkt{
uint32_t flags; /**< see flags above, depends on context(tx or rx) */
enum AL_ETH_PROTO_ID l3_proto_idx;
enum AL_ETH_PROTO_ID l4_proto_idx;
uint8_t source_vlan_count:2;
uint8_t vlan_mod_add_count:2;
uint8_t vlan_mod_del_count:2;
uint8_t vlan_mod_v1_ether_sel:2;
uint8_t vlan_mod_v1_vid_sel:2;
uint8_t vlan_mod_v1_pbits_sel:2;
/* rev 1 specific */
enum AL_ETH_TX_TUNNEL_MODE tunnel_mode;
enum AL_ETH_PROTO_ID outer_l3_proto_idx; /**< for tunneling mode */
/**<
* VMID to be assigned to the packet descriptors
* Requires VMID in descriptor to be enabled for the specific UDMA
* queue.
*/
uint16_t vmid;
uint32_t rx_header_len; /**< header buffer length of rx packet, not used */
struct al_eth_meta_data *meta; /**< if null, then no meta added */
#ifdef AL_ETH_RX_DESC_RAW_GET
uint32_t rx_desc_raw[4];
#endif
uint16_t rxhash;
uint16_t l3_offset;
#ifdef AL_ETH_EX
struct al_eth_ext_metadata *ext_meta_data;
#endif
uint8_t num_of_bufs;
struct al_buf bufs[AL_ETH_PKT_MAX_BUFS];
};
struct al_ec_regs;
/** Ethernet Adapter private data structure used by this driver */
struct al_hal_eth_adapter{
uint8_t rev_id; /**<PCI adapter revision ID */
uint8_t udma_id; /**< the id of the UDMA used by this adapter */
struct unit_regs __iomem * unit_regs;
void __iomem *udma_regs_base;
struct al_ec_regs __iomem *ec_regs_base;
void __iomem *ec_ints_base;
struct al_eth_mac_regs __iomem *mac_regs_base;
struct interrupt_controller_ctrl __iomem *mac_ints_base;
char *name; /**< the upper layer must keep the string area */
struct al_udma tx_udma;
/* uint8_t tx_queues;*//* number of tx queues */
struct al_udma rx_udma;
/* uint8_t rx_queues;*//* number of tx queues */
uint8_t enable_rx_parser; /**< config and enable rx parsing */
enum al_eth_flow_control_type fc_type; /**< flow control*/
enum al_eth_mac_mode mac_mode;
enum al_eth_mdio_if mdio_if; /**< which mac mdio interface to use */
enum al_eth_mdio_type mdio_type; /**< mdio protocol type */
al_bool shared_mdio_if; /**< when AL_TRUE, the mdio interface is shared with other controllers.*/
uint8_t curr_lt_unit;
#ifdef AL_ETH_EX
struct al_eth_ex_state ex_state;
#endif
};
/** parameters from upper layer */
struct al_eth_adapter_params{
uint8_t rev_id; /**<PCI adapter revision ID */
uint8_t udma_id; /**< the id of the UDMA used by this adapter */
uint8_t enable_rx_parser; /**< when true, the rx epe parser will be enabled */
void __iomem *udma_regs_base; /**< UDMA register base address */
void __iomem *ec_regs_base; /**< Ethernet controller registers base address
* can be null if the function is virtual
*/
void __iomem *mac_regs_base; /**< Ethernet MAC registers base address
* can be null if the function is virtual
*/
char *name; /**< the upper layer must keep the string area */
};
/* adapter management */
/**
* initialize the ethernet adapter's DMA
* - initialize the adapter data structure
* - initialize the Tx and Rx UDMA
* - enable the Tx and Rx UDMA, the rings will be still disabled at this point.
*
* @param adapter pointer to the private structure
* @param params the parameters passed from upper layer
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_adapter_init(struct al_hal_eth_adapter *adapter, struct al_eth_adapter_params *params);
/**
* stop the DMA of the ethernet adapter
*
* @param adapter pointer to the private structure
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_adapter_stop(struct al_hal_eth_adapter *adapter);
int al_eth_adapter_reset(struct al_hal_eth_adapter *adapter);
/**
* enable the ec and mac interrupts
*
* @param adapter pointer to the private structure
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_ec_mac_ints_config(struct al_hal_eth_adapter *adapter);
/**
* 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);
/* Q management */
/**
* Configure and enable a queue ring
*
* @param adapter pointer to the private structure
* @param type tx or rx
* @param qid queue index
* @param q_params queue parameters
*
* @return 0 on success. otherwise on failure.
*/
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);
/**
* enable a queue if it was previously disabled
*
* @param adapter pointer to the private structure
* @param type tx or rx
* @param qid queue index
*
* @return -EPERM (not implemented yet).
*/
int al_eth_queue_enable(struct al_hal_eth_adapter *adapter, enum al_udma_type type, uint32_t qid);
/**
* disable a queue
* @param adapter pointer to the private structure
* @param type tx or rx
* @param qid queue index
*
* @return -EPERM (not implemented yet).
*/
int al_eth_queue_disable(struct al_hal_eth_adapter *adapter, enum al_udma_type type, uint32_t qid);
/* MAC layer */
/**
* configure the mac media type.
* this function only sets the mode, but not the speed as certain mac modes
* support multiple speeds as will be negotiated by the link layer.
* @param adapter pointer to the private structure.
* @param mode media mode
*
* @return 0 on success. negative errno on failure.
*/
int al_eth_mac_config(struct al_hal_eth_adapter *adapter, enum al_eth_mac_mode mode);
/**
* stop the mac tx and rx paths.
* @param adapter pointer to the private structure.
*
* @return 0 on success. negative error on failure.
*/
int al_eth_mac_stop(struct al_hal_eth_adapter *adapter);
/**
* start the mac tx and rx paths.
* @param adapter pointer to the private structure.
*
* @return 0 on success. negative error on failure.
*/
int al_eth_mac_start(struct al_hal_eth_adapter *adapter);
/**
* get the adapter capabilities (speed, duplex,..)
* this function must not be called before configuring the mac mode using al_eth_mac_config()
* @param adapter pointer to the private structure.
* @param caps pointer to structure that will be updated by this function
*
* @return 0 on success. negative errno on failure.
*/
int al_eth_capabilities_get(struct al_hal_eth_adapter *adapter, struct al_eth_capabilities *caps);
/**
* update link auto negotiation speed and duplex mode
* this function assumes the mac mode already set using the al_eth_mac_config()
* function.
*
* @param adapter pointer to the private structure
* @param force_1000_base_x set to AL_TRUE to force the mac to work on 1000baseX
* (not relevant to RGMII)
* @param an_enable set to AL_TRUE to enable auto negotiation
* (not relevant to RGMII)
* @param speed in mega bits, e.g 1000 stands for 1Gbps (relevant only in case
* an_enable is AL_FALSE)
* @param full_duplex set to AL_TRUE to enable full duplex mode (relevant only
* in case an_enable is AL_FALSE)
*
* @return 0 on success. otherwise on failure.
*/
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);
/**
* Enable/Disable Loopback mode
*
* @param adapter pointer to the private structure
* @param enable set to AL_TRUE to enable full duplex mode
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_mac_loopback_config(struct al_hal_eth_adapter *adapter, int enable);
/**
* configure minimum and maximum rx packet length
*
* @param adapter pointer to the private structure
* @param min_rx_len minimum rx packet length
* @param max_rx_len maximum rx packet length
* both length limits in bytes and it includes the MAC Layer header and FCS.
* @return 0 on success, otherwise on failure.
*/
int al_eth_rx_pkt_limit_config(struct al_hal_eth_adapter *adapter, uint32_t min_rx_len, uint32_t max_rx_len);
/* MDIO */
/* Reference clock frequency (platform specific) */
enum al_eth_ref_clk_freq {
AL_ETH_REF_FREQ_375_MHZ = 0,
AL_ETH_REF_FREQ_187_5_MHZ = 1,
AL_ETH_REF_FREQ_250_MHZ = 2,
AL_ETH_REF_FREQ_500_MHZ = 3,
AL_ETH_REF_FREQ_428_MHZ = 4,
};
/**
* configure the MDIO hardware interface
* @param adapter pointer to the private structure
* @param mdio_type clause type
* @param shared_mdio_if set to AL_TRUE if multiple controllers using the same
* @param ref_clk_freq reference clock frequency
* @param mdio_clk_freq_khz the required MDC/MDIO clock frequency [Khz]
* MDIO pins of the chip.
*
* @return 0 on success, otherwise on failure.
*/
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);
/**
* read mdio register
* this function uses polling mode, and as the mdio is slow interface, it might
* block the cpu for long time (milliseconds).
* @param adapter pointer to the private structure
* @param phy_addr address of mdio phy
* @param device address of mdio device (used only in CLAUSE 45)
* @param reg index of the register
* @param val pointer for read value of the register
*
* @return 0 on success, negative errno on failure
*/
int al_eth_mdio_read(struct al_hal_eth_adapter *adapter, uint32_t phy_addr,
uint32_t device, uint32_t reg, uint16_t *val);
/**
* write mdio register
* this function uses polling mode, and as the mdio is slow interface, it might
* block the cpu for long time (milliseconds).
* @param adapter pointer to the private structure
* @param phy_addr address of mdio phy
* @param device address of mdio device (used only in CLAUSE 45)
* @param reg index of the register
* @param val value to write
*
* @return 0 on success, negative errno on failure
*/
int al_eth_mdio_write(struct al_hal_eth_adapter *adapter, uint32_t phy_addr,
uint32_t device, uint32_t reg, uint16_t val);
/* TX */
/**
* get number of free tx descriptors
*
* @param adapter adapter handle
* @param qid queue index
*
* @return num of free descriptors.
*/
static INLINE uint32_t al_eth_tx_available_get(struct al_hal_eth_adapter *adapter,
uint32_t qid)
{
struct al_udma_q *udma_q;
al_udma_q_handle_get(&adapter->tx_udma, qid, &udma_q);
return al_udma_available_get(udma_q);
}
/**
* prepare packet descriptors in tx queue.
*
* This functions prepares the descriptors for the given packet in the tx
* submission ring. the caller must call al_eth_tx_pkt_action() below
* in order to notify the hardware about the new descriptors.
*
* @param tx_dma_q pointer to UDMA tx queue
* @param pkt the packet to transmit
*
* @return number of descriptors used for this packet, 0 if no free
* room in the descriptors ring
*/
int al_eth_tx_pkt_prepare(struct al_udma_q *tx_dma_q, struct al_eth_pkt *pkt);
/**
* Trigger the DMA about previously added tx descriptors.
*
* @param tx_dma_q pointer to UDMA tx queue
* @param tx_descs number of descriptors to notify the DMA about.
* the tx_descs can be sum of descriptor numbers of multiple prepared packets,
* this way the caller can use this function to notify the DMA about multiple
* packets.
*/
void al_eth_tx_dma_action(struct al_udma_q *tx_dma_q, uint32_t tx_descs);
/**
* get number of completed tx descriptors, upper layer should derive from
* this information which packets were completed.
*
* @param tx_dma_q pointer to UDMA tx queue
*
* @return number of completed tx descriptors.
*/
int al_eth_comp_tx_get(struct al_udma_q *tx_dma_q);
/**
* configure a TSO MSS val
*
* the TSO MSS vals are preconfigured values for MSS stored in hardware and the
* packet could use them when not working in MSS explicit mode.
* @param adapter pointer to the private structure
* @param idx the mss index
* @param mss_val the MSS value
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_tso_mss_config(struct al_hal_eth_adapter *adapter, uint8_t idx, uint32_t mss_val);
/* RX */
/**
* Config the RX descriptor fields
*
* @param adapter pointer to the private structure
* @param lro_sel select LRO context or l4 offset
* @param l4_offset_sel select l4 offset source
* @param l4_sel select the l4 checksum result
* @param l3_sel select the l3 checksum result
* @param l3_proto_sel select the l3 protocol index source
* @param l4_proto_sel select the l4 protocol index source
* @param frag_sel select the frag indication source
*/
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);
/**
* Configure RX header split
*
* @param adapter pointer to the private structure
* @param enable header split when AL_TRUE
* @param header_split_len length in bytes of the header split, this value used when
* CTRL TABLE header split len select is set to
* AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_REG, in this case the controller will
* store the first header_split_len bytes into buf2, then the rest (if any) into buf1.
* when CTRL_TABLE header split len select set to other value, then the header_len
* determined according to the parser, and the header_split_len parameter is not
* used.
*
* return 0 on success. otherwise on failure.
*/
int al_eth_rx_header_split_config(struct al_hal_eth_adapter *adapter, al_bool enable, uint32_t header_len);
/**
* enable / disable header split in the udma queue.
* length will be taken from the udma configuration to enable different length per queue.
*
* @param adapter pointer to the private structure
* @param enable header split when AL_TRUE
* @param qid the queue id to enable/disable header split
* @param header_len in what len the udma will cut the header
*
* return 0 on success.
*/
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);
/**
* add buffer to receive queue
*
* @param rx_dma_q pointer to UDMA rx queue
* @param buf pointer to data buffer
* @param flags bitwise of AL_ETH_RX_FLAGS
* @param header_buf this is not used for far and header_buf should be set to
* NULL.
*
* @return 0 on success. otherwise on failure.
*/
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);
/**
* notify the hw engine about rx descriptors that were added to the receive queue
*
* @param rx_dma_q pointer to UDMA rx queue
* @param descs_num number of rx descriptors
*/
void al_eth_rx_buffer_action(struct al_udma_q *rx_dma_q,
uint32_t descs_num);
/**
* get packet from RX completion ring
*
* @param rx_dma_q pointer to UDMA rx queue
* @param pkt pointer to a packet data structure, this function fills this
* structure with the information about the received packet. the buffers
* structures filled only with the length of the data written into the buffer,
* the address fields are not updated as the upper layer can retrieve this
* information by itself because the hardware uses the buffers in the same order
* were those buffers inserted into the ring of the receive queue.
* this structure should be allocated by the caller function.
*
* @return return number of descriptors or 0 if no completed packet found.
*/
uint32_t al_eth_pkt_rx(struct al_udma_q *rx_dma_q, struct al_eth_pkt *pkt);
/* RX parser table */
struct al_eth_epe_p_reg_entry {
uint32_t data;
uint32_t mask;
uint32_t ctrl;
};
struct al_eth_epe_control_entry {
uint32_t data[6];
};
/**
* update rx parser entry
*
* @param adapter pointer to the private structure
* @param idx the protocol index to update
* @param reg_entry contents of parser register entry
* @param control entry contents of control table entry
*
* @return 0 on success. otherwise on failure.
*/
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);
/* Flow Steering and filtering */
int al_eth_thash_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t udma, uint32_t queue);
/* FSM table bits */
/** FSM table has 7 bits input address:
* bits[2:0] are the outer packet's type (IPv4, TCP...)
* bits[5:3] are the inner packet's type
* bit[6] is set when packet is tunneled.
*
* The output of each entry:
* bits[1:0] - input selection: selects the input for the thash (2/4 tuple, inner/outer)
* bit[2] - selects whether to use thash output, or default values for the queue and udma
* bits[6:3] default UDMA mask: the UDMAs to select when bit 2 above was unset
* bits[9:5] defualt queue: the queue index to select when bit 2 above was unset
*/
#define AL_ETH_FSM_ENTRY_IPV4_TCP 0
#define AL_ETH_FSM_ENTRY_IPV4_UDP 1
#define AL_ETH_FSM_ENTRY_IPV6_TCP 2
#define AL_ETH_FSM_ENTRY_IPV6_UDP 3
#define AL_ETH_FSM_ENTRY_IPV6_NO_UDP_TCP 4
#define AL_ETH_FSM_ENTRY_IPV4_NO_UDP_TCP 5
#define AL_ETH_FSM_ENTRY_IPV4_FRAGMENTED 6
#define AL_ETH_FSM_ENTRY_NOT_IP 7
#define AL_ETH_FSM_ENTRY_OUTER(idx) ((idx) & 7)
#define AL_ETH_FSM_ENTRY_INNER(idx) (((idx) >> 3) & 7)
#define AL_ETH_FSM_ENTRY_TUNNELED(idx) (((idx) >> 6) & 1)
/* FSM DATA format */
#define AL_ETH_FSM_DATA_OUTER_2_TUPLE 0
#define AL_ETH_FSM_DATA_OUTER_4_TUPLE 1
#define AL_ETH_FSM_DATA_INNER_2_TUPLE 2
#define AL_ETH_FSM_DATA_INNER_4_TUPLE 3
#define AL_ETH_FSM_DATA_HASH_SEL (1 << 2)
#define AL_ETH_FSM_DATA_DEFAULT_Q_SHIFT 5
#define AL_ETH_FSM_DATA_DEFAULT_UDMA_SHIFT 3
/* set fsm table entry */
int al_eth_fsm_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t entry);
enum AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT {
AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT_0 = 0,
AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT_1 = 1,
AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT_ANY = 2,
};
enum AL_ETH_FWD_CTRL_IDX_TUNNEL {
AL_ETH_FWD_CTRL_IDX_TUNNEL_NOT_EXIST = 0,
AL_ETH_FWD_CTRL_IDX_TUNNEL_EXIST = 1,
AL_ETH_FWD_CTRL_IDX_TUNNEL_ANY = 2,
};
enum AL_ETH_FWD_CTRL_IDX_VLAN {
AL_ETH_FWD_CTRL_IDX_VLAN_NOT_EXIST = 0,
AL_ETH_FWD_CTRL_IDX_VLAN_EXIST = 1,
AL_ETH_FWD_CTRL_IDX_VLAN_ANY = 2,
};
enum AL_ETH_FWD_CTRL_IDX_MAC_TABLE {
AL_ETH_FWD_CTRL_IDX_MAC_TABLE_NO_MATCH = 0,
AL_ETH_FWD_CTRL_IDX_MAC_TABLE_MATCH = 1,
AL_ETH_FWD_CTRL_IDX_MAC_TABLE_ANY = 2,
};
enum AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE {
AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE_UC = 0, /**< unicast */
AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE_MC = 1, /**< multicast */
AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE_BC = 2, /**< broadcast */
AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE_ANY = 4, /**< for sw usage */
};
/**
* This structure defines the index or group of indeces within the control table.
* each field has special enum value (with _ANY postfix) that indicates all
* possible values of that field.
*/
struct al_eth_fwd_ctrl_table_index {
enum AL_ETH_FWD_CTRL_IDX_VLAN_TABLE_OUT vlan_table_out;
enum AL_ETH_FWD_CTRL_IDX_TUNNEL tunnel_exist;
enum AL_ETH_FWD_CTRL_IDX_VLAN vlan_exist;
enum AL_ETH_FWD_CTRL_IDX_MAC_TABLE mac_table_match;
enum AL_ETH_PROTO_ID protocol_id;
enum AL_ETH_FWD_CTRL_IDX_MAC_DA_TYPE mac_type;
};
enum AL_ETH_CTRL_TABLE_PRIO_SEL {
AL_ETH_CTRL_TABLE_PRIO_SEL_PBITS_TABLE = 0,
AL_ETH_CTRL_TABLE_PRIO_SEL_DSCP_TABLE = 1,
AL_ETH_CTRL_TABLE_PRIO_SEL_TC_TABLE = 2,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG1 = 3,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG2 = 4,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG3 = 5,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG4 = 6,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG5 = 7,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG6 = 7,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG7 = 9,
AL_ETH_CTRL_TABLE_PRIO_SEL_REG8 = 10,
AL_ETH_CTRL_TABLE_PRIO_SEL_VAL_3 = 11,
AL_ETH_CTRL_TABLE_PRIO_SEL_VAL_0 = 12,
};
/** where to select the initial queue from */
enum AL_ETH_CTRL_TABLE_QUEUE_SEL_1 {
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_PRIO_TABLE = 0,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_THASH_TABLE = 1,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_MAC_TABLE = 2,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_MHASH_TABLE = 3,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_REG1 = 4,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_REG2 = 5,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_REG3 = 6,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_REG4 = 7,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_VAL_3 = 12,
AL_ETH_CTRL_TABLE_QUEUE_SEL_1_VAL_0 = 13,
};
/** target queue will be built up from the priority and initial queue */
enum AL_ETH_CTRL_TABLE_QUEUE_SEL_2 {
AL_ETH_CTRL_TABLE_QUEUE_SEL_2_PRIO_TABLE = 0, /**< target queue is the output of priority table */
AL_ETH_CTRL_TABLE_QUEUE_SEL_2_PRIO = 1, /**< target queue is the priority */
AL_ETH_CTRL_TABLE_QUEUE_SEL_2_PRIO_QUEUE = 2, /**< target queue is initial queue[0], priority[1] */
AL_ETH_CTRL_TABLE_QUEUE_SEL_2_NO_PRIO = 3, /**< target queue is the initial */
};
enum AL_ETH_CTRL_TABLE_UDMA_SEL {
AL_ETH_CTRL_TABLE_UDMA_SEL_THASH_TABLE = 0,
AL_ETH_CTRL_TABLE_UDMA_SEL_THASH_AND_VLAN = 1,
AL_ETH_CTRL_TABLE_UDMA_SEL_VLAN_TABLE = 2,
AL_ETH_CTRL_TABLE_UDMA_SEL_VLAN_AND_MAC = 3,
AL_ETH_CTRL_TABLE_UDMA_SEL_MAC_TABLE = 4,
AL_ETH_CTRL_TABLE_UDMA_SEL_MAC_AND_MHASH = 5,
AL_ETH_CTRL_TABLE_UDMA_SEL_MHASH_TABLE = 6,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG1 = 7,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG2 = 8,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG3 = 9,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG4 = 10,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG5 = 11,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG6 = 12,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG7 = 13,
AL_ETH_CTRL_TABLE_UDMA_SEL_REG8 = 14,
AL_ETH_CTRL_TABLE_UDMA_SEL_VAL_0 = 15,
};
enum AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL {
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_0 = 0,
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_REG = 1, /**< select header len from the hdr_split register (set by al_eth_rx_header_split_config())*/
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_OUTER_L3_OFFSET = 2,
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_OUTER_L4_OFFSET = 3,
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_TUNNEL_START_OFFSET = 4,
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_INNER_L3_OFFSET = 5,
AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL_INNER_L4_OFFSET = 6,
};
struct al_eth_fwd_ctrl_table_entry {
enum AL_ETH_CTRL_TABLE_PRIO_SEL prio_sel;
enum AL_ETH_CTRL_TABLE_QUEUE_SEL_1 queue_sel_1; /**< queue id source */
enum AL_ETH_CTRL_TABLE_QUEUE_SEL_2 queue_sel_2; /**< mix queue id with priority */
enum AL_ETH_CTRL_TABLE_UDMA_SEL udma_sel;
enum AL_ETH_CTRL_TABLE_HDR_SPLIT_LEN_SEL hdr_split_len_sel;
al_bool filter; /**< set to AL_TRUE to enable filtering */
};
/**
* Configure default control table entry
*
* @param adapter pointer to the private structure
* @param use_table set to AL_TRUE if control table is used, when set to AL_FALSE
* then control table will be bypassed and the entry value will be used.
* @param entry defines the value to be used when bypassing control table.
*
* @return 0 on success. otherwise on failure.
*/
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);
/**
* Configure control table entry
*
* @param adapter pointer to the private structure
* @param index the entry index within the control table.
* @param entry the value to write to the control table entry
*
* @return 0 on success. otherwise on failure.
*/
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);
int al_eth_ctrl_table_raw_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t entry);
int al_eth_ctrl_table_def_raw_set(struct al_hal_eth_adapter *adapter, uint32_t val);
/**
* Configure hash key initial registers
* Those registers define the initial key values, those values used for
* the THASH and MHASH hash functions.
*
* @param adapter pointer to the private structure
* @param idx the register index
* @param val the register value
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_hash_key_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t val);
struct al_eth_fwd_mac_table_entry {
uint8_t addr[6]; /**< byte 0 is the first byte seen on the wire */
uint8_t mask[6];
al_bool tx_valid;
uint8_t tx_target;
al_bool rx_valid;
uint8_t udma_mask; /**< target udma */
uint8_t qid; /**< target queue */
al_bool filter; /**< set to AL_TRUE to enable filtering */
};
/**
* Configure mac table entry
* The HW traverse this table and looks for match from lowest index,
* when the packets MAC DA & mask == addr, and the valid bit is set, then match occurs.
*
* @param adapter pointer to the private structure
* @param idx the entry index within the mac table.
* @param entry the contents of the MAC table entry
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_mac_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
struct al_eth_fwd_mac_table_entry *entry);
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);
int al_eth_fwd_mac_ctrl_raw_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint32_t ctrl);
int al_eth_mac_addr_store(void * __iomem ec_base, uint32_t idx, uint8_t *addr);
int al_eth_mac_addr_read(void * __iomem ec_base, uint32_t idx, uint8_t *addr);
/**
* Configure pbits table entry
* The HW uses this table to translate between vlan pbits field to priority.
* The vlan pbits is used as the index of this table.
*
* @param adapter pointer to the private structure
* @param idx the entry index within the table.
* @param prio the priority to set for this entry
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_pbits_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio);
/**
* Configure priority table entry
* The HW uses this table to translate between priority to queue index.
* The priority is used as the index of this table.
*
* @param adapter pointer to the private structure
* @param prio the entry index within the table.
* @param qid the queue index to set for this entry (priority).
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_priority_table_set(struct al_hal_eth_adapter *adapter, uint8_t prio, uint8_t qid);
/**
* Configure DSCP table entry
* The HW uses this table to translate between IPv4 DSCP field to priority.
* The IPv4 byte 1 (DSCP+ECN) used as index to this table.
*
* @param adapter pointer to the private structure
* @param idx the entry index within the table.
* @param prio the queue index to set for this entry (priority).
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_dscp_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio);
/**
* Configure TC table entry
* The HW uses this table to translate between IPv6 TC field to priority.
* The IPv6 TC used as index to this table.
*
* @param adapter pointer to the private structure
* @param idx the entry index within the table.
* @param prio the queue index to set for this entry (priority).
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_tc_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t prio);
/**
* Configure MAC HASH table entry
* The HW uses 8 bits from the hash result on the MAC DA as index to this table.
*
* @param adapter pointer to the private structure
* @param idx the entry index within the table.
* @param udma_mask the target udma to set for this entry.
* @param qid the target queue index to set for this entry.
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_mhash_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx, uint8_t udma_mask, uint8_t qid);
struct al_eth_fwd_vid_table_entry {
uint8_t control:1; /**< used as input for the control table */
uint8_t filter:1; /**< set to 1 to enable filtering */
uint8_t udma_mask:4; /**< target udmas */
};
/**
* Configure default vlan table entry
*
* @param adapter pointer to the private structure
* @param use_table set to AL_TRUE if vlan table is used, when set to AL_FALSE
* then vid table will be bypassed and the default_entry value will be used.
* @param default_entry defines the value to be used when bypassing vid table.
* @param default_vlan defines the value will be used when untagget packet
* received. this value will be used only for steering and filtering control,
* the packet's data will not be changed.
*
* @return 0 on success. otherwise on failure.
*/
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);
/**
* Configure vlan table entry
*
* @param adapter pointer to the private structure
* @param idx the entry index within the vlan table. The HW uses the vlan id
* field of the packet when accessing this table.
* @param entry the value to write to the vlan table entry
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_vid_table_set(struct al_hal_eth_adapter *adapter, uint32_t idx,
struct al_eth_fwd_vid_table_entry *entry);
/**
* Configure default UDMA register
* When the control table entry udma selection set to AL_ETH_CTRL_TABLE_UDMA_SEL_REG<n>,
* then the target UDMA will be set according to the register n of the default
* UDMA registers.
*
* @param adapter pointer to the private structure
* @param idx the index of the default register.
* @param udma_mask the value of the register.
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_default_udma_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
uint8_t udma_mask);
/**
* Configure default queue register
* When the control table entry queue selection 1 set to AL_ETH_CTRL_TABLE_QUEUE_SEL_1_REG<n>,
* then the target queue will be set according to the register n of the default
* queue registers.
*
* @param adapter pointer to the private structure
* @param idx the index of the default register.
* @param qid the value of the register.
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_default_queue_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
uint8_t qid);
/**
* Configure default priority register
* When the control table entry queue selection 1 set to AL_ETH_CTRL_TABLE_PRIO_SEL_1_REG<n>,
* then the target priority will be set according to the register n of the default
* priority registers.
*
* @param adapter pointer to the private structure
* @param idx the index of the default register.
* @param prio the value of the register.
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_fwd_default_priority_config(struct al_hal_eth_adapter *adapter, uint32_t idx,
uint8_t prio);
/* filter undetected MAC DA */
#define AL_ETH_RFW_FILTER_UNDET_MAC (1 << 0)
/* filter specific MAC DA based on MAC table output */
#define AL_ETH_RFW_FILTER_DET_MAC (1 << 1)
/* filter all tagged */
#define AL_ETH_RFW_FILTER_TAGGED (1 << 2)
/* filter all untagged */
#define AL_ETH_RFW_FILTER_UNTAGGED (1 << 3)
/* filter all broadcast */
#define AL_ETH_RFW_FILTER_BC (1 << 4)
/* filter all multicast */
#define AL_ETH_RFW_FILTER_MC (1 << 5)
/* filter packet based on parser drop */
#define AL_ETH_RFW_FILTER_PARSE (1 << 6)
/* filter packet based on VLAN table output */
#define AL_ETH_RFW_FILTER_VLAN_VID (1 << 7)
/* filter packet based on control table output */
#define AL_ETH_RFW_FILTER_CTRL_TABLE (1 << 8)
/* filter packet based on protocol index */
#define AL_ETH_RFW_FILTER_PROT_INDEX (1 << 9)
/* filter packet based on WoL decision */
#define AL_ETH_RFW_FILTER_WOL (1 << 10)
struct al_eth_filter_params {
al_bool enable;
uint32_t filters; /**< bitmask of AL_ETH_RFW_FILTER.. for filters to enable */
al_bool filter_proto[AL_ETH_PROTOCOLS_NUM]; /**< set AL_TRUE for protocols to filter */
};
struct al_eth_filter_override_params {
uint32_t filters; /**< bitmask of AL_ETH_RFW_FILTER.. for filters to override */
uint8_t udma; /**< target udma id */
uint8_t qid; /**< target queue id */
};
/**
* Configure the receive filters
* this function enables/disables filtering packets and which filtering
* types to apply.
* filters that indicated in tables (MAC table, VLAN and Control tables)
* are not configured by this function. This functions only enables/disables
* respecting the filter indication from those tables.
*
* @param adapter pointer to the private structure
* @param params the parameters passed from upper layer
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_filter_config(struct al_hal_eth_adapter *adapter, struct al_eth_filter_params *params);
/**
* Configure the receive override filters
* This function controls whither to force forwarding filtered packets
* to a specific UDMA/queue. The override filters apply only for
* filters that enabled by al_eth_filter_config().
*
* @param adapter pointer to the private structure
* @param params override config parameters
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_filter_override_config(struct al_hal_eth_adapter *adapter,
struct al_eth_filter_override_params *params);
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);
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);
int al_eth_flow_control_config(struct al_hal_eth_adapter *adapter, struct al_eth_flow_control_params *params);
struct al_eth_eee_params{
uint8_t enable;
uint32_t tx_eee_timer; /**< time in cycles the interface delays prior to entering eee state */
uint32_t min_interval; /**< minimum interval in cycles between two eee states */
uint32_t stop_cnt; /**< time in cycles to stop Tx mac i/f after getting out of eee state */
};
/**
* configure EEE mode
* @param adapter pointer to the private structure.
* @param params pointer to the eee input parameters.
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_eee_config(struct al_hal_eth_adapter *adapter, struct al_eth_eee_params *params);
/**
* get EEE configuration
* @param adapter pointer to the private structure.
* @param params pointer to the eee output parameters.
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_eee_get(struct al_hal_eth_adapter *adapter, struct al_eth_eee_params *params);
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);
/* Timestamp
* This is a generic time-stamp mechanism that can be used as generic to
* time-stamp every received or transmit packet it can also support IEEE 1588v2
* PTP time synchronization protocol.
* In addition to time-stamp, an internal system time is maintained. For
* further accuracy, the chip support transmit/receive clock synchronization
* including recovery of master clock from one of the ports and distributing it
* to the rest of the ports - that is outside the scope of the Ethernet
* Controller - please refer to Annapurna Labs Alpine Hardware Wiki
*/
/* Timestamp management APIs */
/**
* prepare the adapter for timestamping packets.
* Rx timestamps requires using 8 words (8x4 bytes) rx completion descriptor
* size as the timestamp value added into word 4.
*
* This function should be called after al_eth_mac_config() and before
* enabling the queues.
* @param adapter pointer to the private structure.
* @return 0 on success. otherwise on failure.
*/
int al_eth_ts_init(struct al_hal_eth_adapter *adapter);
/* Timestamp data path APIs */
/*
* This is the size of the on-chip array that keeps the time-stamp of the
* latest transmitted packets
*/
#define AL_ETH_PTH_TX_SAMPLES_NUM 16
/**
* read Timestamp sample value of previously transmitted packet.
*
* The adapter includes AL_ETH_PTH_TX_SAMPLES_NUM timestamp samples for tx
* packets, those samples shared for all the UDMAs and queues. the al_eth_pkt
* data structure includes the index of which sample to use for the packet
* to transmit. It's the caller's responsibility to manage those samples,
* for example, when using an index, the caller must make sure the packet
* is completed and the tx time is sampled before using that index for
* another packet.
*
* This function should be called after the completion indication of the
* tx packet. however, there is a little chance that the timestamp sample
* won't be updated yet, thus this function must be called again when it
* returns -EAGAIN.
* @param adapter pointer to the private structure.
* @param ts_index the index (out of 16) of the timestamp register
* @param timestamp the timestamp value in 2^18 femtoseconds resolution.
* @return -EAGAIN if the sample was not updated yet. 0 when the sample
* was updated and no errors found.
*/
int al_eth_tx_ts_val_get(struct al_hal_eth_adapter *adapter, uint8_t ts_index,
uint32_t *timestamp);
/* Timestamp PTH (PTP Timestamp Handler) control and times management */
/** structure for describing PTH epoch time */
struct al_eth_pth_time {
uint32_t seconds; /**< seconds */
uint64_t femto; /**< femto seconds */
};
/**
* Read the systime value
* This API should not be used to get the timestamp of packets.
* The HW maintains 50 bits for the sub-seconds portion in femto resolution,
* but this function reads only the 32 MSB bits since the LSB provides
* sub-nanoseconds accuracy, which is not needed.
* @param adapter pointer to the private structure.
* @param systime pointer to structure where the time will be stored.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_systime_read(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_time *systime);
/**
* Set the clock period to a given value.
* The systime will be incremented by this value on each posedge of the
* adapters internal clock which driven by the SouthBridge clock.
* @param adapter pointer to the private structure.
* @param clk_period the clock period in femto seconds.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_clk_period_write(struct al_hal_eth_adapter *adapter,
uint64_t clk_period);
/**< enum for methods when updating systime using triggers */
enum al_eth_pth_update_method {
AL_ETH_PTH_UPDATE_METHOD_SET = 0, /**< Set the time in int/ext update time */
AL_ETH_PTH_UPDATE_METHOD_INC = 1, /**< increment */
AL_ETH_PTH_UPDATE_METHOD_DEC = 2, /**< decrement */
AL_ETH_PTH_UPDATE_METHOD_ADD_TO_LAST = 3, /**< Set to last time + int/ext update time.*/
};
/**< systime internal update trigger types */
enum al_eth_pth_int_trig {
AL_ETH_PTH_INT_TRIG_OUT_PULSE_0 = 0, /**< use output pulse as trigger */
AL_ETH_PTH_INT_TRIG_REG_WRITE = 1, /**< use the int update register
* write as a trigger
*/
};
/**< parameters for internal trigger update */
struct al_eth_pth_int_update_params {
al_bool enable; /**< enable internal trigger update */
enum al_eth_pth_update_method method; /**< internal trigger update
* method
*/
enum al_eth_pth_int_trig trigger; /**< which internal trigger to
* use
*/
};
/**
* Configure the systime internal update
*
* @param adapter pointer to the private structure.
* @param params the configuration of the internal update.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_int_update_config(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_int_update_params *params);
/**
* set internal update time
*
* The update time used when updating the systime with
* internal update method.
*
* @param adapter pointer to the private structure.
* @param time the internal update time value
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_int_update_time_set(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_time *time);
/**< parameters for external trigger update */
struct al_eth_pth_ext_update_params {
uint8_t triggers; /**< bitmask of external triggers to enable */
enum al_eth_pth_update_method method; /**< external trigger update
* method
*/
};
/**
* Configure the systime external update.
* external update triggered by external signals such as GPIO or pulses
* from other eth controllers on the SoC.
*
* @param adapter pointer to the private structure.
* @param params the configuration of the external update.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_ext_update_config(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_ext_update_params *params);
/**
* set external update time
*
* The update time used when updating the systime with
* external update method.
* @param adapter pointer to the private structure.
* @param time the external update time value
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_ext_update_time_set(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_time *time);
/**
* set the read compensation delay
*
* When reading the systime, the HW adds this value to compensate
* read latency.
*
* @param adapter pointer to the private structure.
* @param subseconds the read latency delay in femto seconds.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_read_compensation_set(struct al_hal_eth_adapter *adapter,
uint64_t subseconds);
/**
* set the internal write compensation delay
*
* When updating the systime due to an internal trigger's event, the HW adds
* this value to compensate latency.
*
* @param adapter pointer to the private structure.
* @param subseconds the write latency delay in femto seconds.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_int_write_compensation_set(struct al_hal_eth_adapter *adapter,
uint64_t subseconds);
/**
* set the external write compensation delay
*
* When updating the systime due to an external trigger's event, the HW adds
* this value to compensate pulse propagation latency.
*
* @param adapter pointer to the private structure.
* @param subseconds the write latency delay in femto seconds.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_ext_write_compensation_set(struct al_hal_eth_adapter *adapter,
uint64_t subseconds);
/**
* set the sync compensation delay
*
* When the adapter passes systime from PTH to MAC to do the packets
* timestamping, the sync compensation delay is added to systime value to
* compensate the latency between the PTH and the MAC.
*
* @param adapter pointer to the private structure.
* @param subseconds the sync latency delay in femto seconds.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_sync_compensation_set(struct al_hal_eth_adapter *adapter,
uint64_t subseconds);
#define AL_ETH_PTH_PULSE_OUT_NUM 8
struct al_eth_pth_pulse_out_params {
uint8_t index; /**< id of the pulse (0..7) */
al_bool enable;
al_bool periodic; /**< when true, generate periodic pulse (PPS) */
uint8_t period_sec; /**< for periodic pulse, this is seconds
* portion of the period time
*/
uint32_t period_us; /**< this is microseconds portion of the
* period
*/
struct al_eth_pth_time start_time; /**< when to start pulse triggering */
uint64_t pulse_width; /**< pulse width in femto seconds */
};
/**
* Configure an output pulse
* This function configures an output pulse coming from the internal System
* Time. This is typically a 1Hhz pulse that is used to synchronize the
* rest of the components of the system. This API configure the Ethernet
* Controller pulse. An additional set up is required to configure the chip
* General Purpose I/O (GPIO) to enable the chip output pin.
*
* @param adapter pointer to the private structure.
* @param params output pulse configuration.
* @return 0 on success. otherwise on failure.
*/
int al_eth_pth_pulse_out_config(struct al_hal_eth_adapter *adapter,
struct al_eth_pth_pulse_out_params *params);
/* link */
struct al_eth_link_status {
al_bool link_up;
};
/**
* get link status
*
* this function should be used when no external phy is used to get
* information about the link
*
* @param adapter pointer to the private structure.
* @param status pointer to struct where to set link information
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_link_status_get(struct al_hal_eth_adapter *adapter, struct al_eth_link_status *status);
/**
* Set LEDs to represent link status.
*
* @param adapter pointer to the private structure.
* @param link_is_up boolean indicating current link status.
* In case link is down the leds will be turned off.
* In case link is up the leds will be turned on, that means
* leds will be blinking on traffic and will be constantly lighting
* on inactive link
* @return return 0 on success. otherwise on failure.
*/
int al_eth_led_set(struct al_hal_eth_adapter *adapter, al_bool link_is_up);
/* get statistics */
struct al_eth_mac_stats{
/* sum the data and padding octets (i.e. without header and FCS) received with a valid frame. */
uint64_t aOctetsReceivedOK;
/* sum of Payload and padding octets of frames transmitted without error*/
uint64_t aOctetsTransmittedOK;
/* total number of packets received. Good and bad packets */
uint32_t etherStatsPkts;
/* number of received unicast packets */
uint32_t ifInUcastPkts;
/* number of received multicast packets */
uint32_t ifInMulticastPkts;
/* number of received broadcast packets */
uint32_t ifInBroadcastPkts;
/* Number of frames received with FIFO Overflow, CRC, Payload Length, Jabber and Oversized, Alignment or PHY/PCS error indication */
uint32_t ifInErrors;
/* number of transmitted unicast packets */
uint32_t ifOutUcastPkts;
/* number of transmitted multicast packets */
uint32_t ifOutMulticastPkts;
/* number of transmitted broadcast packets */
uint32_t ifOutBroadcastPkts;
/* number of frames transmitted with FIFO Overflow, FIFO Underflow or Controller indicated error */
uint32_t ifOutErrors;
/* number of Frame received without error (Including Pause Frames). */
uint32_t aFramesReceivedOK;
/* number of Frames transmitter without error (Including Pause Frames) */
uint32_t aFramesTransmittedOK;
/* number of packets received with less than 64 octets */
uint32_t etherStatsUndersizePkts;
/* Too short frames with CRC error, available only for RGMII and 1G Serial modes */
uint32_t etherStatsFragments;
/* Too long frames with CRC error */
uint32_t etherStatsJabbers;
/* packet that exceeds the valid maximum programmed frame length */
uint32_t etherStatsOversizePkts;
/* number of frames received with a CRC error */
uint32_t aFrameCheckSequenceErrors;
/* number of frames received with alignment error */
uint32_t aAlignmentErrors;
/* number of dropped packets due to FIFO overflow */
uint32_t etherStatsDropEvents;
/* number of transmitted pause frames. */
uint32_t aPAUSEMACCtrlFramesTransmitted;
/* number of received pause frames. */
uint32_t aPAUSEMACCtrlFramesReceived;
/* frame received exceeded the maximum length programmed with register FRM_LGTH, available only for 10G modes */
uint32_t aFrameTooLongErrors;
/* received frame with bad length/type (between 46 and 0x600 or less
* than 46 for packets longer than 64), available only for 10G modes */
uint32_t aInRangeLengthErrors;
/* Valid VLAN tagged frames transmitted */
uint32_t VLANTransmittedOK;
/* Valid VLAN tagged frames received */
uint32_t VLANReceivedOK;
/* Total number of octets received. Good and bad packets */
uint32_t etherStatsOctets;
/* packets of 64 octets length is received (good and bad frames are counted) */
uint32_t etherStatsPkts64Octets;
/* Frames (good and bad) with 65 to 127 octets */
uint32_t etherStatsPkts65to127Octets;
/* Frames (good and bad) with 128 to 255 octets */
uint32_t etherStatsPkts128to255Octets;
/* Frames (good and bad) with 256 to 511 octets */
uint32_t etherStatsPkts256to511Octets;
/* Frames (good and bad) with 512 to 1023 octets */
uint32_t etherStatsPkts512to1023Octets;
/* Frames (good and bad) with 1024 to 1518 octets */
uint32_t etherStatsPkts1024to1518Octets;
/* frames with 1519 bytes to the maximum length programmed in the register FRAME_LENGTH. */
uint32_t etherStatsPkts1519toX;
uint32_t eee_in;
uint32_t eee_out;
};
/**
* get mac statistics
* @param adapter pointer to the private structure.
* @param stats pointer to structure that will be filled with statistics.
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_mac_stats_get(struct al_hal_eth_adapter *adapter, struct al_eth_mac_stats *stats);
struct al_eth_ec_stats{
/* Rx Frequency adjust FIFO input packets */
uint32_t faf_in_rx_pkt;
/* Rx Frequency adjust FIFO input short error packets */
uint32_t faf_in_rx_short;
/* Rx Frequency adjust FIFO input long error packets */
uint32_t faf_in_rx_long;
/* Rx Frequency adjust FIFO output packets */
uint32_t faf_out_rx_pkt;
/* Rx Frequency adjust FIFO output short error packets */
uint32_t faf_out_rx_short;
/* Rx Frequency adjust FIFO output long error packets */
uint32_t faf_out_rx_long;
/* Rx Frequency adjust FIFO output drop packets */
uint32_t faf_out_drop;
/* Number of packets written into the Rx FIFO (without FIFO error indication) */
uint32_t rxf_in_rx_pkt;
/* Number of error packets written into the Rx FIFO (with FIFO error indication, */
/* FIFO full indication during packet reception) */
uint32_t rxf_in_fifo_err;
/* Number of packets read from Rx FIFO 1 */
uint32_t lbf_in_rx_pkt;
/* Number of packets read from Rx FIFO 2 (loopback FIFO) */
uint32_t lbf_in_fifo_err;
/* Rx FIFO output drop packets from FIFO 1 */
uint32_t rxf_out_rx_1_pkt;
/* Rx FIFO output drop packets from FIFO 2 (loop back) */
uint32_t rxf_out_rx_2_pkt;
/* Rx FIFO output drop packets from FIFO 1 */
uint32_t rxf_out_drop_1_pkt;
/* Rx FIFO output drop packets from FIFO 2 (loop back) */
uint32_t rxf_out_drop_2_pkt;
/* Rx Parser 1, input packet counter */
uint32_t rpe_1_in_rx_pkt;
/* Rx Parser 1, output packet counter */
uint32_t rpe_1_out_rx_pkt;
/* Rx Parser 2, input packet counter */
uint32_t rpe_2_in_rx_pkt;
/* Rx Parser 2, output packet counter */
uint32_t rpe_2_out_rx_pkt;
/* Rx Parser 3 (MACsec), input packet counter */
uint32_t rpe_3_in_rx_pkt;
/* Rx Parser 3 (MACsec), output packet counter */
uint32_t rpe_3_out_rx_pkt;
/* Tx parser, input packet counter */
uint32_t tpe_in_tx_pkt;
/* Tx parser, output packet counter */
uint32_t tpe_out_tx_pkt;
/* Tx packet modification, input packet counter */
uint32_t tpm_tx_pkt;
/* Tx forwarding input packet counter */
uint32_t tfw_in_tx_pkt;
/* Tx forwarding input packet counter */
uint32_t tfw_out_tx_pkt;
/* Rx forwarding input packet counter */
uint32_t rfw_in_rx_pkt;
/* Rx Forwarding, packet with VLAN command drop indication */
uint32_t rfw_in_vlan_drop;
/* Rx Forwarding, packets with parse drop indication */
uint32_t rfw_in_parse_drop;
/* Rx Forwarding, multicast packets */
uint32_t rfw_in_mc;
/* Rx Forwarding, broadcast packets */
uint32_t rfw_in_bc;
/* Rx Forwarding, tagged packets */
uint32_t rfw_in_vlan_exist;
/* Rx Forwarding, untagged packets */
uint32_t rfw_in_vlan_nexist;
/* Rx Forwarding, packets with MAC address drop indication (from the MAC address table) */
uint32_t rfw_in_mac_drop;
/* Rx Forwarding, packets with undetected MAC address */
uint32_t rfw_in_mac_ndet_drop;
/* Rx Forwarding, packets with drop indication from the control table */
uint32_t rfw_in_ctrl_drop;
/* Rx Forwarding, packets with L3_protocol_index drop indication */
uint32_t rfw_in_prot_i_drop;
/* EEE, number of times the system went into EEE state */
uint32_t eee_in;
};
/**
* get ec statistics
* @param adapter pointer to the private structure.
* @param stats pointer to structure that will be filled with statistics.
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_ec_stats_get(struct al_hal_eth_adapter *adapter, struct al_eth_ec_stats *stats);
struct al_eth_ec_stat_udma{
/* Rx forwarding output packet counter */
uint32_t rfw_out_rx_pkt;
/* Rx forwarding output drop packet counter */
uint32_t rfw_out_drop;
/* Multi-stream write, number of Rx packets */
uint32_t msw_in_rx_pkt;
/* Multi-stream write, number of dropped packets at SOP, Q full indication */
uint32_t msw_drop_q_full;
/* Multi-stream write, number of dropped packets at SOP */
uint32_t msw_drop_sop;
/* Multi-stream write, number of dropped packets at EOP, */
/*EOP was written with error indication (not all packet data was written) */
uint32_t msw_drop_eop;
/* Multi-stream write, number of packets written to the stream FIFO with EOP and without packet loss */
uint32_t msw_wr_eop;
/* Multi-stream write, number of packets read from the FIFO into the stream */
uint32_t msw_out_rx_pkt;
/* Number of transmitted packets without TSO enabled */
uint32_t tso_no_tso_pkt;
/* Number of transmitted packets with TSO enabled */
uint32_t tso_tso_pkt;
/* Number of TSO segments that were generated */
uint32_t tso_seg_pkt;
/* Number of TSO segments that required padding */
uint32_t tso_pad_pkt;
/* Tx Packet modification, MAC SA spoof error */
uint32_t tpm_tx_spoof;
/* Tx MAC interface, input packet counter */
uint32_t tmi_in_tx_pkt;
/* Tx MAC interface, number of packets forwarded to the MAC */
uint32_t tmi_out_to_mac;
/* Tx MAC interface, number of packets forwarded to the Rx data path */
uint32_t tmi_out_to_rx;
/* Tx MAC interface, number of transmitted bytes */
uint32_t tx_q0_bytes;
/* Tx MAC interface, number of transmitted bytes */
uint32_t tx_q1_bytes;
/* Tx MAC interface, number of transmitted bytes */
uint32_t tx_q2_bytes;
/* Tx MAC interface, number of transmitted bytes */
uint32_t tx_q3_bytes;
/* Tx MAC interface, number of transmitted packets */
uint32_t tx_q0_pkts;
/* Tx MAC interface, number of transmitted packets */
uint32_t tx_q1_pkts;
/* Tx MAC interface, number of transmitted packets */
uint32_t tx_q2_pkts;
/* Tx MAC interface, number of transmitted packets */
uint32_t tx_q3_pkts;
};
/**
* get per_udma statistics
* @param adapter pointer to the private structure.
* @param idx udma_id value
* @param stats pointer to structure that will be filled with statistics.
*
* @return return 0 on success. otherwise on failure.
*/
int al_eth_ec_stat_udma_get(struct al_hal_eth_adapter *adapter, uint8_t idx, struct al_eth_ec_stat_udma *stats);
/* trafic control */
/**
* perform Function Level Reset RMN
*
* Addressing RMN: 714
*
* @param pci_read_config_u32 pointer to function that reads register from pci header
* @param pci_write_config_u32 pointer to function that writes register from pci header
* @param handle pointer passes to the above functions as first parameter
* @param mac_base base address of the MAC registers
*
* @return 0.
*/
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);
/**
* perform Function Level Reset RMN but restore registers that contain board specific data
*
* the data that save and restored is the board params and mac addresses
*
* @param pci_read_config_u32 pointer to function that reads register from pci header
* @param pci_write_config_u32 pointer to function that writes register from pci header
* @param handle pointer passes to the above functions as first parameter
* @param mac_base base address of the MAC registers
* @param ec_base base address of the Ethernet Controller registers
* @param mac_addresses_num number of mac addresses to restore
*
* @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);
/* board specific information (media type, phy address, etc.. */
enum al_eth_board_media_type {
AL_ETH_BOARD_MEDIA_TYPE_AUTO_DETECT = 0,
AL_ETH_BOARD_MEDIA_TYPE_RGMII = 1,
AL_ETH_BOARD_MEDIA_TYPE_10GBASE_SR = 2,
AL_ETH_BOARD_MEDIA_TYPE_SGMII = 3,
AL_ETH_BOARD_MEDIA_TYPE_1000BASE_X = 4,
AL_ETH_BOARD_MEDIA_TYPE_AUTO_DETECT_AUTO_SPEED = 5,
AL_ETH_BOARD_MEDIA_TYPE_SGMII_2_5G = 6,
AL_ETH_BOARD_MEDIA_TYPE_NBASE_T = 7,
};
enum al_eth_board_mdio_freq {
AL_ETH_BOARD_MDIO_FREQ_2_5_MHZ = 0,
AL_ETH_BOARD_MDIO_FREQ_1_MHZ = 1,
};
enum al_eth_board_ext_phy_if {
AL_ETH_BOARD_PHY_IF_MDIO = 0,
AL_ETH_BOARD_PHY_IF_XMDIO = 1,
AL_ETH_BOARD_PHY_IF_I2C = 2,
};
enum al_eth_board_auto_neg_mode {
AL_ETH_BOARD_AUTONEG_OUT_OF_BAND = 0,
AL_ETH_BOARD_AUTONEG_IN_BAND = 1,
};
/* declare the 1G mac active speed when auto negotiation disabled */
enum al_eth_board_1g_speed {
AL_ETH_BOARD_1G_SPEED_1000M = 0,
AL_ETH_BOARD_1G_SPEED_100M = 1,
AL_ETH_BOARD_1G_SPEED_10M = 2,
};
enum al_eth_retimer_channel {
AL_ETH_RETIMER_CHANNEL_A = 0,
AL_ETH_RETIMER_CHANNEL_B = 1,
AL_ETH_RETIMER_CHANNEL_C = 2,
AL_ETH_RETIMER_CHANNEL_D = 3,
AL_ETH_RETIMER_CHANNEL_MAX = 4
};
/* list of supported retimers */
enum al_eth_retimer_type {
AL_ETH_RETIMER_BR_210 = 0,
AL_ETH_RETIMER_BR_410 = 1,
AL_ETH_RETIMER_TYPE_MAX = 4,
};
/** structure represents the board information. this info set by boot loader
* and read by OS driver.
*/
struct al_eth_board_params {
enum al_eth_board_media_type media_type;
al_bool phy_exist; /**< external phy exist */
uint8_t phy_mdio_addr; /**< mdio address of external phy */
al_bool sfp_plus_module_exist; /**< SFP+ module connected */
al_bool autoneg_enable; /**< enable Auto-Negotiation */
al_bool kr_lt_enable; /**< enable KR Link-Training */
al_bool kr_fec_enable; /**< enable KR FEC */
enum al_eth_board_mdio_freq mdio_freq; /**< MDIO frequency */
uint8_t i2c_adapter_id; /**< identifier for the i2c adapter to use to access SFP+ module */
enum al_eth_board_ext_phy_if phy_if; /**< phy interface */
enum al_eth_board_auto_neg_mode an_mode; /**< auto-negotiation mode (in-band / out-of-band) */
uint8_t serdes_grp; /**< serdes's group id */
uint8_t serdes_lane; /**< serdes's lane id */
enum al_eth_ref_clk_freq ref_clk_freq; /**< reference clock frequency */
al_bool dont_override_serdes; /**< prevent override serdes parameters */
al_bool force_1000_base_x; /**< set mac to 1000 base-x mode (instead sgmii) */
al_bool an_disable; /**< disable auto negotiation */
enum al_eth_board_1g_speed speed; /**< port speed if AN disabled */
al_bool half_duplex; /**< force half duplex if AN disabled */
al_bool fc_disable; /**< disable flow control */
al_bool retimer_exist; /**< retimer is exist on the board */
uint8_t retimer_bus_id; /**< in what i2c bus the retimer is on */
uint8_t retimer_i2c_addr; /**< i2c address of the retimer */
enum al_eth_retimer_channel retimer_channel; /**< what channel connected to this port */
al_bool dac; /**< assume direct attached cable is connected if auto detect is off or failed */
uint8_t dac_len; /**< assume this cable length if auto detect is off or failed */
enum al_eth_retimer_type retimer_type; /**< the type of the specific retimer */
};
/**
* set board parameter of the eth port
* this function used to set the board parameters into scratchpad
* registers. those paramters can be read later by OS driver.
*
* @param mac_base the virtual address of the mac registers (PCI BAR 2)
* @param params pointer to structure the includes the paramters
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_board_params_set(void * __iomem mac_base, struct al_eth_board_params *params);
/**
* get board parameter of the eth port
* this function used to get the board parameters from scratchpad
* registers.
*
* @param mac_base the virtual address of the mac registers (PCI BAR 2)
* @param params pointer to structure where the parameters will be stored.
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_board_params_get(void * __iomem mac_base, struct al_eth_board_params *params);
/*
* Wake-On-Lan (WoL)
*
* The following few functions configure the Wake-On-Lan packet detection
* inside the Integrated Ethernet MAC.
*
* There are other alternative ways to set WoL, such using the
* external 1000Base-T transceiver to set WoL mode.
*
* These APIs do not set the system-wide power-state, nor responsible on the
* transition from Sleep to Normal power state.
*
* For system level considerations, please refer to Annapurna Labs Alpine Wiki.
*/
/* Interrupt enable WoL MAC DA Unicast detected packet */
#define AL_ETH_WOL_INT_UNICAST AL_BIT(0)
/* Interrupt enable WoL L2 Multicast detected packet */
#define AL_ETH_WOL_INT_MULTICAST AL_BIT(1)
/* Interrupt enable WoL L2 Broadcast detected packet */
#define AL_ETH_WOL_INT_BROADCAST AL_BIT(2)
/* Interrupt enable WoL IPv4 detected packet */
#define AL_ETH_WOL_INT_IPV4 AL_BIT(3)
/* Interrupt enable WoL IPv6 detected packet */
#define AL_ETH_WOL_INT_IPV6 AL_BIT(4)
/* Interrupt enable WoL EtherType+MAC DA detected packet */
#define AL_ETH_WOL_INT_ETHERTYPE_DA AL_BIT(5)
/* Interrupt enable WoL EtherType+L2 Broadcast detected packet */
#define AL_ETH_WOL_INT_ETHERTYPE_BC AL_BIT(6)
/* Interrupt enable WoL parser detected packet */
#define AL_ETH_WOL_INT_PARSER AL_BIT(7)
/* Interrupt enable WoL magic detected packet */
#define AL_ETH_WOL_INT_MAGIC AL_BIT(8)
/* Interrupt enable WoL magic+password detected packet */
#define AL_ETH_WOL_INT_MAGIC_PSWD AL_BIT(9)
/* Forward enable WoL MAC DA Unicast detected packet */
#define AL_ETH_WOL_FWRD_UNICAST AL_BIT(0)
/* Forward enable WoL L2 Multicast detected packet */
#define AL_ETH_WOL_FWRD_MULTICAST AL_BIT(1)
/* Forward enable WoL L2 Broadcast detected packet */
#define AL_ETH_WOL_FWRD_BROADCAST AL_BIT(2)
/* Forward enable WoL IPv4 detected packet */
#define AL_ETH_WOL_FWRD_IPV4 AL_BIT(3)
/* Forward enable WoL IPv6 detected packet */
#define AL_ETH_WOL_FWRD_IPV6 AL_BIT(4)
/* Forward enable WoL EtherType+MAC DA detected packet */
#define AL_ETH_WOL_FWRD_ETHERTYPE_DA AL_BIT(5)
/* Forward enable WoL EtherType+L2 Broadcast detected packet */
#define AL_ETH_WOL_FWRD_ETHERTYPE_BC AL_BIT(6)
/* Forward enable WoL parser detected packet */
#define AL_ETH_WOL_FWRD_PARSER AL_BIT(7)
struct al_eth_wol_params {
uint8_t *dest_addr; /**< 6 bytes array of destanation address for
magic packet detection */
uint8_t *pswd; /**< 6 bytes array of the password to use */
uint8_t *ipv4; /**< 4 bytes array of the ipv4 to use.
example: for ip = 192.168.1.2
ipv4[0]=2, ipv4[1]=1, ipv4[2]=168, ipv4[3]=192 */
uint8_t *ipv6; /** 16 bytes array of the ipv6 to use.
example: ip = 2607:f0d0:1002:0051:0000:0000:5231:1234
ipv6[0]=34, ipv6[1]=12, ipv6[2]=31 .. */
uint16_t ethr_type1; /**< first ethertype to use */
uint16_t ethr_type2; /**< secound ethertype to use */
uint16_t forward_mask; /**< bitmask of AL_ETH_WOL_FWRD_* of the packet
types needed to be forward. */
uint16_t int_mask; /**< bitmask of AL_ETH_WOL_INT_* of the packet types
that will send interrupt to wake the system. */
};
/**
* enable the wol mechanism
* set what type of packets will wake up the system and what type of packets
* neet to forward after the system is up
*
* beside this function wol filter also need to be set by
* calling al_eth_filter_config with AL_ETH_RFW_FILTER_WOL
*
* @param adapter pointer to the private structure
* @param wol the parameters needed to configure the wol
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_wol_enable(
struct al_hal_eth_adapter *adapter,
struct al_eth_wol_params *wol);
/**
* Disable the WoL mechnism.
*
* @param adapter pointer to the private structure
*
* @return 0 on success. otherwise on failure.
*/
int al_eth_wol_disable(
struct al_hal_eth_adapter *adapter);
/**
* Configure tx fwd vlan table entry
*
* @param adapter pointer to the private structure
* @param idx the entry index within the vlan table. The HW uses the vlan id
* field of the packet when accessing this table.
* @param udma_mask vlan table value that indicates that the packet should be forward back to
* the udmas, through the Rx path (udma_mask is one-hot representation)
* @param fwd_to_mac vlan table value that indicates that the packet should be forward to mac
*
* @return 0 on success. otherwise on failure.
*/
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);
/** Tx Generic protocol detect Cam compare table entry */
struct al_eth_tx_gpd_cam_entry {
enum AL_ETH_PROTO_ID l3_proto_idx;
enum AL_ETH_PROTO_ID l4_proto_idx;
enum AL_ETH_TX_TUNNEL_MODE tunnel_control;
uint8_t source_vlan_count:2;
uint8_t tx_gpd_cam_ctrl:1;
uint8_t l3_proto_idx_mask:5;
uint8_t l4_proto_idx_mask:5;
uint8_t tunnel_control_mask:3;
uint8_t source_vlan_count_mask:2;
};
/** Rx Generic protocol detect Cam compare table entry */
struct al_eth_rx_gpd_cam_entry {
enum AL_ETH_PROTO_ID outer_l3_proto_idx;
enum AL_ETH_PROTO_ID outer_l4_proto_idx;
enum AL_ETH_PROTO_ID inner_l3_proto_idx;
enum AL_ETH_PROTO_ID inner_l4_proto_idx;
uint8_t parse_ctrl;
uint8_t outer_l3_len;
uint8_t l3_priority;
uint8_t l4_dst_port_lsb;
uint8_t rx_gpd_cam_ctrl:1;
uint8_t outer_l3_proto_idx_mask:5;
uint8_t outer_l4_proto_idx_mask:5;
uint8_t inner_l3_proto_idx_mask:5;
uint8_t inner_l4_proto_idx_mask:5;
uint8_t parse_ctrl_mask;
uint8_t outer_l3_len_mask;
uint8_t l3_priority_mask;
uint8_t l4_dst_port_lsb_mask;
};
enum AL_ETH_TX_GCP_ALU_OPSEL {
AL_ETH_TX_GCP_ALU_L3_OFFSET = 0,
AL_ETH_TX_GCP_ALU_OUTER_L3_OFFSET = 1,
AL_ETH_TX_GCP_ALU_L3_LEN = 2,
AL_ETH_TX_GCP_ALU_OUTER_L3_LEN = 3,
AL_ETH_TX_GCP_ALU_L4_OFFSET = 4,
AL_ETH_TX_GCP_ALU_L4_LEN = 5,
AL_ETH_TX_GCP_ALU_TABLE_VAL = 10
};
enum AL_ETH_RX_GCP_ALU_OPSEL {
AL_ETH_RX_GCP_ALU_OUTER_L3_OFFSET = 0,
AL_ETH_RX_GCP_ALU_INNER_L3_OFFSET = 1,
AL_ETH_RX_GCP_ALU_OUTER_L4_OFFSET = 2,
AL_ETH_RX_GCP_ALU_INNER_L4_OFFSET = 3,
AL_ETH_RX_GCP_ALU_OUTER_L3_HDR_LEN_LAT = 4,
AL_ETH_RX_GCP_ALU_INNER_L3_HDR_LEN_LAT = 5,
AL_ETH_RX_GCP_ALU_OUTER_L3_HDR_LEN_SEL = 6,
AL_ETH_RX_GCP_ALU_INNER_L3_HDR_LEN_SEL = 7,
AL_ETH_RX_GCP_ALU_PARSE_RESULT_VECTOR_OFFSET_1 = 8,
AL_ETH_RX_GCP_ALU_PARSE_RESULT_VECTOR_OFFSET_2 = 9,
AL_ETH_RX_GCP_ALU_TABLE_VAL = 10
};
/** Tx Generic crc prameters table entry */
struct al_eth_tx_gcp_table_entry {
uint8_t poly_sel:1;
uint8_t crc32_bit_comp:1;
uint8_t crc32_bit_swap:1;
uint8_t crc32_byte_swap:1;
uint8_t data_bit_swap:1;
uint8_t data_byte_swap:1;
uint8_t trail_size:4;
uint8_t head_size:8;
uint8_t head_calc:1;
uint8_t mask_polarity:1;
enum AL_ETH_ALU_OPCODE tx_alu_opcode_1;
enum AL_ETH_ALU_OPCODE tx_alu_opcode_2;
enum AL_ETH_ALU_OPCODE tx_alu_opcode_3;
enum AL_ETH_TX_GCP_ALU_OPSEL tx_alu_opsel_1;
enum AL_ETH_TX_GCP_ALU_OPSEL tx_alu_opsel_2;
enum AL_ETH_TX_GCP_ALU_OPSEL tx_alu_opsel_3;
enum AL_ETH_TX_GCP_ALU_OPSEL tx_alu_opsel_4;
uint32_t gcp_mask[6];
uint32_t crc_init;
uint8_t gcp_table_res:7;
uint16_t alu_val:9;
};
/** Rx Generic crc prameters table entry */
struct al_eth_rx_gcp_table_entry {
uint8_t poly_sel:1;
uint8_t crc32_bit_comp:1;
uint8_t crc32_bit_swap:1;
uint8_t crc32_byte_swap:1;
uint8_t data_bit_swap:1;
uint8_t data_byte_swap:1;
uint8_t trail_size:4;
uint8_t head_size:8;
uint8_t head_calc:1;
uint8_t mask_polarity:1;
enum AL_ETH_ALU_OPCODE rx_alu_opcode_1;
enum AL_ETH_ALU_OPCODE rx_alu_opcode_2;
enum AL_ETH_ALU_OPCODE rx_alu_opcode_3;
enum AL_ETH_RX_GCP_ALU_OPSEL rx_alu_opsel_1;
enum AL_ETH_RX_GCP_ALU_OPSEL rx_alu_opsel_2;
enum AL_ETH_RX_GCP_ALU_OPSEL rx_alu_opsel_3;
enum AL_ETH_RX_GCP_ALU_OPSEL rx_alu_opsel_4;
uint32_t gcp_mask[6];
uint32_t crc_init;
uint32_t gcp_table_res:27;
uint16_t alu_val:9;
};
/** Tx per_protocol_number crc & l3_checksum & l4_checksum command table entry */
struct al_eth_tx_crc_chksum_replace_cmd_for_protocol_num_entry {
al_bool crc_en_00; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 0 */
al_bool crc_en_01; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 1 */
al_bool crc_en_10; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 0 */
al_bool crc_en_11; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 1 */
al_bool l4_csum_en_00; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 0 */
al_bool l4_csum_en_01; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 1 */
al_bool l4_csum_en_10; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 0 */
al_bool l4_csum_en_11; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 1 */
al_bool l3_csum_en_00; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 0 */
al_bool l3_csum_en_01; /*from Tx_buffer_descriptor: enable_l4_checksum is 0 ,enable_l3_checksum is 1 */
al_bool l3_csum_en_10; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 0 */
al_bool l3_csum_en_11; /*from Tx_buffer_descriptor: enable_l4_checksum is 1 ,enable_l3_checksum is 1 */
};
/**
* Configure tx_gpd_entry
*
* @param adapter pointer to the private structure
* @param idx the entry index
* @param tx_gpd_entry entry data for the Tx protocol detect Cam compare table
*
* @return 0 on success. otherwise on failure.
*
*/
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);
/**
* Configure tx_gcp_entry
*
* @param adapter pointer to the private structure
* @param idx the entry index
* @param tx_gcp_entry entry data for the Tx Generic crc prameters table
*
* @return 0 on success. otherwise on failure.
*
*/
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);
/**
* Configure tx_crc_chksum_replace_cmd_entry
*
* @param adapter pointer to the private structure
* @param idx the entry index
* @param tx_replace_entry entry data for the Tx crc_&_l3_checksum_&_l4_checksum replace command table
*
* @return 0 on success. otherwise on failure.
*
*/
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);
/**
* Configure rx_gpd_entry
*
* @param adapter pointer to the private structure
* @param idx the entry index
* @param rx_gpd_entry entry data for the Tx protocol detect Cam compare table
*
* @return 0 on success. otherwise on failure.
*
*/
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);
/**
* Configure rx_gcp_entry
*
* @param adapter pointer to the private structure
* @param idx the entry index
* @param rx_gpd_entry entry data for the Tx protocol detect Cam compare table
* @param rx_gcp_entry entry data for the Tx Generic crc prameters table
*
* @return 0 on success. otherwise on failure.
*
*/
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);
/**
* Configure tx_gpd_table and regs
*
* @param adapter pointer to the private structure
*
*/
int al_eth_tx_protocol_detect_table_init(struct al_hal_eth_adapter *adapter);
/**
* Configure crc_chksum_replace_cmd_table
*
* @param adapter pointer to the private structure
*
*/
int al_eth_tx_crc_chksum_replace_cmd_init(struct al_hal_eth_adapter *adapter);
/**
* Configure tx_gcp_table and regs
*
* @param adapter pointer to the private structure
*
*/
int al_eth_tx_generic_crc_table_init(struct al_hal_eth_adapter *adapter);
/**
* Configure rx_gpd_table and regs
*
* @param adapter pointer to the private structure
*
*/
int al_eth_rx_protocol_detect_table_init(struct al_hal_eth_adapter *adapter);
/**
* Configure rx_gcp_table and regs
*
* @param adapter pointer to the private structure
*
*/
int al_eth_rx_generic_crc_table_init(struct al_hal_eth_adapter *adapter);
#ifdef __cplusplus
}
#endif
/* *INDENT-ON* */
#endif /* __AL_HAL_ETH_H__ */
/** @} end of Ethernet group */
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