xref: /illumos-gate/usr/src/uts/common/io/qede/579xx/drivers/ecore/ecore_cxt.c (revision 0d7de619)

/*
* CDDL HEADER START
*
* The contents of this file are subject to the terms of the
* Common Development and Distribution License, v.1,  (the "License").
* You may not use this file except in compliance with the License.
*
* You can obtain a copy of the license at usr/src/OPENSOLARIS.LICENSE
* or http://opensource.org/licenses/CDDL-1.0.
* See the License for the specific language governing permissions
* and limitations under the License.
*
* When distributing Covered Code, include this CDDL HEADER in each
* file and include the License file at usr/src/OPENSOLARIS.LICENSE.
* If applicable, add the following below this CDDL HEADER, with the
* fields enclosed by brackets "[]" replaced with your own identifying
* information: Portions Copyright [yyyy] [name of copyright owner]
*
* CDDL HEADER END
*/

/*
* Copyright 2014-2017 Cavium, Inc.
* The contents of this file are subject to the terms of the Common Development
* and Distribution License, v.1,  (the "License").

* You may not use this file except in compliance with the License.

* You can obtain a copy of the License at available
* at http://opensource.org/licenses/CDDL-1.0

* See the License for the specific language governing permissions and
* limitations under the License.
*/

#include "bcm_osal.h"
#include "reg_addr.h"
#include "common_hsi.h"
#include "ecore_hsi_common.h"
#include "ecore_hsi_eth.h"
#include "tcp_common.h"
#include "ecore_hsi_iscsi.h"
#include "ecore_hsi_fcoe.h"
#include "ecore_hsi_roce.h"
#include "ecore_hsi_iwarp.h"
#include "ecore_rt_defs.h"
#include "ecore_status.h"
#include "ecore.h"
#include "ecore_init_ops.h"
#include "ecore_init_fw_funcs.h"
#include "ecore_cxt.h"
#include "ecore_hw.h"
#include "ecore_dev_api.h"
#include "ecore_sriov.h"
#include "ecore_roce.h"
#include "ecore_mcp.h"

/* Max number of connection types in HW (DQ/CDU etc.) */
#define MAX_CONN_TYPES		PROTOCOLID_COMMON
#define NUM_TASK_TYPES		2
#define NUM_TASK_PF_SEGMENTS	4
#define NUM_TASK_VF_SEGMENTS	1

/* Doorbell-Queue constants */
#define DQ_RANGE_SHIFT	4
#define DQ_RANGE_ALIGN	(1 << DQ_RANGE_SHIFT)

/* Searcher constants */
#define SRC_MIN_NUM_ELEMS 256

/* Timers constants */
#define TM_SHIFT	7
#define TM_ALIGN	(1 << TM_SHIFT)
#define TM_ELEM_SIZE	4

/* ILT constants */
/* If for some reason, HW P size is modified to be less than 32K,
 * special handling needs to be made for CDU initialization
 */
#ifdef CONFIG_ECORE_ROCE
/* For RoCE we configure to 64K to cover for RoCE max tasks 256K purpose. Can be
 * optimized with resource management scheme
 */
#define ILT_DEFAULT_HW_P_SIZE	4
#else
#define ILT_DEFAULT_HW_P_SIZE	3
#endif

#define ILT_PAGE_IN_BYTES(hw_p_size)	(1U << ((hw_p_size) + 12))
#define ILT_CFG_REG(cli, reg)		PSWRQ2_REG_##cli##_##reg##_RT_OFFSET

/* ILT entry structure */
#define ILT_ENTRY_PHY_ADDR_MASK		0x000FFFFFFFFFFFULL
#define ILT_ENTRY_PHY_ADDR_SHIFT	0
#define ILT_ENTRY_VALID_MASK		0x1ULL
#define ILT_ENTRY_VALID_SHIFT		52
#define ILT_ENTRY_IN_REGS		2
#define ILT_REG_SIZE_IN_BYTES		4

/* connection context union */
union conn_context {
	struct core_conn_context  core_ctx;
	struct eth_conn_context	  eth_ctx;
	struct iscsi_conn_context iscsi_ctx;
	struct fcoe_conn_context  fcoe_ctx;
	struct roce_conn_context  roce_ctx;
};

/* TYPE-0 task context - iSCSI, FCOE */
union type0_task_context {
	struct iscsi_task_context iscsi_ctx;
	struct fcoe_task_context  fcoe_ctx;
};

/* TYPE-1 task context - ROCE */
union type1_task_context {
	struct rdma_task_context roce_ctx;
};

struct src_ent {
	u8  opaque[56];
	u64 next;
};

#define CDUT_SEG_ALIGNMET 3 /* in 4k chunks */
#define CDUT_SEG_ALIGNMET_IN_BYTES (1 << (CDUT_SEG_ALIGNMET + 12))

#define CONN_CXT_SIZE(p_hwfn) \
	ALIGNED_TYPE_SIZE(union conn_context, p_hwfn)

#define SRQ_CXT_SIZE (sizeof(struct rdma_srq_context))

#define TYPE0_TASK_CXT_SIZE(p_hwfn) \
	ALIGNED_TYPE_SIZE(union type0_task_context, p_hwfn)

/* Alignment is inherent to the type1_task_context structure */
#define TYPE1_TASK_CXT_SIZE(p_hwfn) sizeof(union type1_task_context)

/* PF per protocl configuration object */
#define TASK_SEGMENTS   (NUM_TASK_PF_SEGMENTS + NUM_TASK_VF_SEGMENTS)
#define TASK_SEGMENT_VF (NUM_TASK_PF_SEGMENTS)

struct ecore_tid_seg {
	u32	count;
	u8	type;
	bool	has_fl_mem;
};

struct ecore_conn_type_cfg {
	u32			cid_count;
	u32			cids_per_vf;
	struct ecore_tid_seg	tid_seg[TASK_SEGMENTS];
};

/* ILT Client configuration,
 * Per connection type (protocol) resources (cids, tis, vf cids etc.)
 * 1 - for connection context (CDUC) and for each task context we need two
 * values, for regular task context and for force load memory
 */
#define ILT_CLI_PF_BLOCKS	(1 + NUM_TASK_PF_SEGMENTS * 2)
#define ILT_CLI_VF_BLOCKS	(1 + NUM_TASK_VF_SEGMENTS * 2)
#define CDUC_BLK		(0)
#define SRQ_BLK			(0)
#define CDUT_SEG_BLK(n)		(1 + (u8)(n))
#define CDUT_FL_SEG_BLK(n, X)	(1 + (n) + NUM_TASK_##X##_SEGMENTS)

enum ilt_clients {
	ILT_CLI_CDUC,
	ILT_CLI_CDUT,
	ILT_CLI_QM,
	ILT_CLI_TM,
	ILT_CLI_SRC,
	ILT_CLI_TSDM,
	ILT_CLI_MAX
};

struct ilt_cfg_pair {
	u32 reg;
	u32 val;
};

struct ecore_ilt_cli_blk {
	u32 total_size; /* 0 means not active */
	u32 real_size_in_page;
	u32 start_line;
	u32 dynamic_line_cnt;
};

struct ecore_ilt_client_cfg {
	bool				active;

	/* ILT boundaries */
	struct ilt_cfg_pair		first;
	struct ilt_cfg_pair		last;
	struct ilt_cfg_pair		p_size;

	/* ILT client blocks for PF */
	struct ecore_ilt_cli_blk	pf_blks[ILT_CLI_PF_BLOCKS];
	u32				pf_total_lines;

	/* ILT client blocks for VFs */
	struct ecore_ilt_cli_blk	vf_blks[ILT_CLI_VF_BLOCKS];
	u32				vf_total_lines;
};

/* Per Path -
 *      ILT shadow table
 *      Protocol acquired CID lists
 *      PF start line in ILT
 */
struct ecore_dma_mem {
	dma_addr_t	p_phys;
	void		*p_virt;
	osal_size_t	size;
};

#define MAP_WORD_SIZE		sizeof(unsigned long)
#define BITS_PER_MAP_WORD	(MAP_WORD_SIZE * 8)

struct ecore_cid_acquired_map {
	u32		start_cid;
	u32		max_count;
	unsigned long	*cid_map;
};

struct ecore_cxt_mngr {
	/* Per protocl configuration */
	struct ecore_conn_type_cfg	conn_cfg[MAX_CONN_TYPES];

	/* computed ILT structure */
	struct ecore_ilt_client_cfg	clients[ILT_CLI_MAX];

	/* Task type sizes */
	u32				task_type_size[NUM_TASK_TYPES];

	/* total number of VFs for this hwfn -
	 * ALL VFs are symmetric in terms of HW resources
	 */
	u32				vf_count;

	/* Acquired CIDs */
	struct ecore_cid_acquired_map acquired[MAX_CONN_TYPES];
	/* TBD - do we want this allocated to reserve space? */
	struct ecore_cid_acquired_map acquired_vf[MAX_CONN_TYPES][COMMON_MAX_NUM_VFS];

	/* ILT shadow table */
	struct ecore_dma_mem		*ilt_shadow;
	u32				pf_start_line;

	/* Mutex for a dynamic ILT allocation */
	osal_mutex_t			mutex;

	/* SRC T2 */
	struct ecore_dma_mem		*t2;
	u32				t2_num_pages;
	u64				first_free;
	u64				last_free;

	/* The infrastructure originally was very generic and context/task
	 * oriented - per connection-type we would set how many of those
	 * are needed, and later when determining how much memory we're
	 * needing for a given block we'd iterate over all the relevant
	 * connection-types.
	 * But since then we've had some additional resources, some of which
	 * require memory which is indepent of the general context/task
	 * scheme. We add those here explicitly per-feature.
	 */

	/* total number of SRQ's for this hwfn */
	u32				srq_count;

	/* Maximal number of L2 steering filters */
	u32				arfs_count;

	/* TODO - VF arfs filters ? */
};

/* check if resources/configuration is required according to protocol type */
static bool src_proto(struct ecore_hwfn *p_hwfn,
		      enum protocol_type type)
{
	return	type == PROTOCOLID_ISCSI	||
		type == PROTOCOLID_FCOE		||
		type == PROTOCOLID_TOE		||
		type == PROTOCOLID_IWARP;
}

static bool tm_cid_proto(enum protocol_type type)
{
	return type == PROTOCOLID_ISCSI ||
	       type == PROTOCOLID_FCOE  ||
	       type == PROTOCOLID_ROCE  ||
	       type == PROTOCOLID_IWARP;
}

static bool tm_tid_proto(enum protocol_type type)
{
	return type == PROTOCOLID_FCOE;
}

/* counts the iids for the CDU/CDUC ILT client configuration */
struct ecore_cdu_iids {
	u32 pf_cids;
	u32 per_vf_cids;
};

static void ecore_cxt_cdu_iids(struct ecore_cxt_mngr   *p_mngr,
			       struct ecore_cdu_iids	*iids)
{
	u32 type;

	for (type = 0; type < MAX_CONN_TYPES; type++) {
		iids->pf_cids += p_mngr->conn_cfg[type].cid_count;
		iids->per_vf_cids += p_mngr->conn_cfg[type].cids_per_vf;
	}
}

/* counts the iids for the Searcher block configuration */
struct ecore_src_iids {
	u32			pf_cids;
	u32			per_vf_cids;
};

static void ecore_cxt_src_iids(struct ecore_hwfn *p_hwfn,
			       struct ecore_cxt_mngr *p_mngr,
			       struct ecore_src_iids *iids)
{
	u32 i;

	for (i = 0; i < MAX_CONN_TYPES; i++) {
		if (!src_proto(p_hwfn, i))
			continue;

		iids->pf_cids += p_mngr->conn_cfg[i].cid_count;
		iids->per_vf_cids += p_mngr->conn_cfg[i].cids_per_vf;
	}

	/* Add L2 filtering filters in addition */
	iids->pf_cids += p_mngr->arfs_count;
}

/* counts the iids for the Timers block configuration */
struct ecore_tm_iids {
	u32 pf_cids;
	u32 pf_tids[NUM_TASK_PF_SEGMENTS]; /* per segment */
	u32 pf_tids_total;
	u32 per_vf_cids;
	u32 per_vf_tids;
};

static void ecore_cxt_tm_iids(struct ecore_hwfn *p_hwfn,
			      struct ecore_cxt_mngr *p_mngr,
			      struct ecore_tm_iids *iids)
{
	bool tm_vf_required = false;
	bool tm_required = false;
	int i, j;

	/* Timers is a special case -> we don't count how many cids require
	 * timers but what's the max cid that will be used by the timer block.
	 * therefore we traverse in reverse order, and once we hit a protocol
	 * that requires the timers memory, we'll sum all the protocols up
	 * to that one.
	 */
	for (i = MAX_CONN_TYPES - 1; i >= 0; i--) {
		struct ecore_conn_type_cfg *p_cfg = &p_mngr->conn_cfg[i];

		if (tm_cid_proto(i) || tm_required) {
			if (p_cfg->cid_count)
				tm_required = true;

			iids->pf_cids += p_cfg->cid_count;
		}

		if (tm_cid_proto(i) || tm_vf_required) {
			if (p_cfg->cids_per_vf)
				tm_vf_required = true;

			iids->per_vf_cids += p_cfg->cids_per_vf;
		}

		if (tm_tid_proto(i)) {
			struct ecore_tid_seg *segs = p_cfg->tid_seg;

			/* for each segment there is at most one
			 * protocol for which count is not 0.
			 */
			for (j = 0; j < NUM_TASK_PF_SEGMENTS; j++)
				iids->pf_tids[j] += segs[j].count;

			/* The last array elelment is for the VFs. As for PF
			 * segments there can be only one protocol for
			 * which this value is not 0.
			 */
			iids->per_vf_tids += segs[NUM_TASK_PF_SEGMENTS].count;
		}
	}

	iids->pf_cids = ROUNDUP(iids->pf_cids, TM_ALIGN);
	iids->per_vf_cids = ROUNDUP(iids->per_vf_cids, TM_ALIGN);
	iids->per_vf_tids = ROUNDUP(iids->per_vf_tids, TM_ALIGN);

	for (iids->pf_tids_total = 0, j = 0; j < NUM_TASK_PF_SEGMENTS; j++) {
		iids->pf_tids[j] = ROUNDUP(iids->pf_tids[j], TM_ALIGN);
		iids->pf_tids_total += iids->pf_tids[j];
	}
}

static void ecore_cxt_qm_iids(struct ecore_hwfn *p_hwfn,
			      struct ecore_qm_iids *iids)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_tid_seg *segs;
	u32 vf_cids = 0, type, j;
	u32 vf_tids = 0;

	for (type = 0; type < MAX_CONN_TYPES; type++) {
		iids->cids += p_mngr->conn_cfg[type].cid_count;
		vf_cids += p_mngr->conn_cfg[type].cids_per_vf;

		segs = p_mngr->conn_cfg[type].tid_seg;
		/* for each segment there is at most one
		 * protocol for which count is not 0.
		 */
		for (j = 0; j < NUM_TASK_PF_SEGMENTS; j++)
			iids->tids += segs[j].count;

		/* The last array elelment is for the VFs. As for PF
		 * segments there can be only one protocol for
		 * which this value is not 0.
		 */
		vf_tids += segs[NUM_TASK_PF_SEGMENTS].count;
	}

	iids->vf_cids += vf_cids * p_mngr->vf_count;
	iids->tids += vf_tids * p_mngr->vf_count;

	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "iids: CIDS %08x vf_cids %08x tids %08x vf_tids %08x\n",
		   iids->cids, iids->vf_cids, iids->tids, vf_tids);
}

static struct ecore_tid_seg *ecore_cxt_tid_seg_info(struct ecore_hwfn   *p_hwfn,
						    u32			seg)
{
	struct ecore_cxt_mngr *p_cfg = p_hwfn->p_cxt_mngr;
	u32 i;

	/* Find the protocol with tid count > 0 for this segment.
	   Note: there can only be one and this is already validated.
	 */
	for (i = 0; i < MAX_CONN_TYPES; i++) {
		if (p_cfg->conn_cfg[i].tid_seg[seg].count)
			return &p_cfg->conn_cfg[i].tid_seg[seg];
	}
	return OSAL_NULL;
}

/* set the iids (cid/tid) count per protocol */
static void ecore_cxt_set_proto_cid_count(struct ecore_hwfn *p_hwfn,
					  enum protocol_type type,
					  u32 cid_count, u32 vf_cid_cnt)
{
	struct ecore_cxt_mngr *p_mgr = p_hwfn->p_cxt_mngr;
	struct ecore_conn_type_cfg *p_conn = &p_mgr->conn_cfg[type];

	p_conn->cid_count = ROUNDUP(cid_count, DQ_RANGE_ALIGN);
	p_conn->cids_per_vf = ROUNDUP(vf_cid_cnt, DQ_RANGE_ALIGN);

	if (type == PROTOCOLID_ROCE) {
		u32 page_sz = p_mgr->clients[ILT_CLI_CDUC].p_size.val;
		u32 cxt_size = CONN_CXT_SIZE(p_hwfn);
		u32 elems_per_page = ILT_PAGE_IN_BYTES(page_sz) / cxt_size;
		u32 align = elems_per_page * DQ_RANGE_ALIGN;

		p_conn->cid_count = ROUNDUP(p_conn->cid_count, align);
	}
}

u32 ecore_cxt_get_proto_cid_count(struct ecore_hwfn	*p_hwfn,
				  enum protocol_type	type,
				  u32			*vf_cid)
{
	if (vf_cid)
		*vf_cid = p_hwfn->p_cxt_mngr->conn_cfg[type].cids_per_vf;

	return p_hwfn->p_cxt_mngr->conn_cfg[type].cid_count;
}

u32 ecore_cxt_get_proto_cid_start(struct ecore_hwfn	*p_hwfn,
				  enum protocol_type	type)
{
	return p_hwfn->p_cxt_mngr->acquired[type].start_cid;
}

u32 ecore_cxt_get_proto_tid_count(struct ecore_hwfn *p_hwfn,
				  enum protocol_type type)
{
	u32 cnt = 0;
	int i;

	for (i = 0; i < TASK_SEGMENTS; i++)
		cnt += p_hwfn->p_cxt_mngr->conn_cfg[type].tid_seg[i].count;

	return cnt;
}

static void ecore_cxt_set_proto_tid_count(struct ecore_hwfn *p_hwfn,
					  enum protocol_type proto,
					  u8 seg,
					  u8 seg_type,
					  u32 count,
					  bool has_fl)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_tid_seg *p_seg = &p_mngr->conn_cfg[proto].tid_seg[seg];

	p_seg->count = count;
	p_seg->has_fl_mem = has_fl;
	p_seg->type = seg_type;
}

/* the *p_line parameter must be either 0 for the first invocation or the
   value returned in the previous invocation.
 */
static void ecore_ilt_cli_blk_fill(struct ecore_ilt_client_cfg	*p_cli,
				   struct ecore_ilt_cli_blk	*p_blk,
				   u32				start_line,
				   u32				total_size,
				   u32				elem_size)
{
	u32 ilt_size = ILT_PAGE_IN_BYTES(p_cli->p_size.val);

	/* verify that it's called once for each block */
	if (p_blk->total_size)
		return;

	p_blk->total_size = total_size;
	p_blk->real_size_in_page = 0;
	if (elem_size)
		p_blk->real_size_in_page = (ilt_size / elem_size) * elem_size;
	p_blk->start_line = start_line;
}

static void ecore_ilt_cli_adv_line(struct ecore_hwfn		*p_hwfn,
				    struct ecore_ilt_client_cfg	*p_cli,
				    struct ecore_ilt_cli_blk	*p_blk,
				    u32				*p_line,
				    enum ilt_clients		client_id)
{
	if (!p_blk->total_size)
		return;

	if (!p_cli->active)
		p_cli->first.val = *p_line;

	p_cli->active = true;
	*p_line += DIV_ROUND_UP(p_blk->total_size, p_blk->real_size_in_page);
	p_cli->last.val = *p_line-1;

	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "ILT[Client %d] - Lines: [%08x - %08x]. Block - Size %08x [Real %08x] Start line %d\n",
		   client_id, p_cli->first.val, p_cli->last.val,
		   p_blk->total_size, p_blk->real_size_in_page,
		   p_blk->start_line);
}

static u32 ecore_ilt_get_dynamic_line_cnt(struct ecore_hwfn *p_hwfn,
					  enum ilt_clients ilt_client)
{
	u32 cid_count = p_hwfn->p_cxt_mngr->conn_cfg[PROTOCOLID_ROCE].cid_count;
	struct ecore_ilt_client_cfg *p_cli;
	u32 lines_to_skip = 0;
	u32 cxts_per_p;

	/* TBD MK: ILT code should be simplified once PROTO enum is changed */

	if (ilt_client == ILT_CLI_CDUC) {
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC];

		cxts_per_p = ILT_PAGE_IN_BYTES(p_cli->p_size.val) /
			     (u32)CONN_CXT_SIZE(p_hwfn);

		lines_to_skip = cid_count / cxts_per_p;
	}

	return lines_to_skip;
}

static struct ecore_ilt_client_cfg *
ecore_cxt_set_cli(struct ecore_ilt_client_cfg *p_cli)
{
	p_cli->active = false;
	p_cli->first.val = 0;
	p_cli->last.val = 0;
	return p_cli;
}

static struct ecore_ilt_cli_blk *
ecore_cxt_set_blk(struct ecore_ilt_cli_blk *p_blk)
{
	p_blk->total_size = 0;
	return p_blk;
}

enum _ecore_status_t ecore_cxt_cfg_ilt_compute(struct ecore_hwfn *p_hwfn,
					       u32 *line_count)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 curr_line, total, i, task_size, line;
	struct ecore_ilt_client_cfg *p_cli;
	struct ecore_ilt_cli_blk *p_blk;
	struct ecore_cdu_iids cdu_iids;
	struct ecore_src_iids src_iids;
	struct ecore_qm_iids qm_iids;
	struct ecore_tm_iids tm_iids;
	struct ecore_tid_seg *p_seg;

	OSAL_MEM_ZERO(&qm_iids, sizeof(qm_iids));
	OSAL_MEM_ZERO(&cdu_iids, sizeof(cdu_iids));
	OSAL_MEM_ZERO(&src_iids, sizeof(src_iids));
	OSAL_MEM_ZERO(&tm_iids, sizeof(tm_iids));

	p_mngr->pf_start_line = RESC_START(p_hwfn, ECORE_ILT);

	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "hwfn [%d] - Set context manager starting line to be 0x%08x\n",
		   p_hwfn->my_id, p_hwfn->p_cxt_mngr->pf_start_line);

	/* CDUC */
	p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_CDUC]);

	curr_line = p_mngr->pf_start_line;

	/* CDUC PF */
	p_cli->pf_total_lines = 0;

	/* get the counters for the CDUC,CDUC and QM clients  */
	ecore_cxt_cdu_iids(p_mngr, &cdu_iids);

	p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[CDUC_BLK]);

	total = cdu_iids.pf_cids * CONN_CXT_SIZE(p_hwfn);

	ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
			       total, CONN_CXT_SIZE(p_hwfn));

	ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line, ILT_CLI_CDUC);
	p_cli->pf_total_lines = curr_line - p_blk->start_line;

	p_blk->dynamic_line_cnt = ecore_ilt_get_dynamic_line_cnt(p_hwfn,
								 ILT_CLI_CDUC);

	/* CDUC VF */
	p_blk = ecore_cxt_set_blk(&p_cli->vf_blks[CDUC_BLK]);
	total = cdu_iids.per_vf_cids * CONN_CXT_SIZE(p_hwfn);

	ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
			       total, CONN_CXT_SIZE(p_hwfn));

	ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line, ILT_CLI_CDUC);
	p_cli->vf_total_lines = curr_line - p_blk->start_line;

	for (i = 1; i < p_mngr->vf_count; i++)
		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_CDUC);

	/* CDUT PF */
	p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_CDUT]);
	p_cli->first.val = curr_line;

	/* first the 'working' task memory */
	for (i = 0; i < NUM_TASK_PF_SEGMENTS; i++) {
		p_seg = ecore_cxt_tid_seg_info(p_hwfn, i);
		if (!p_seg || p_seg->count == 0)
			continue;

		p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[CDUT_SEG_BLK(i)]);
		total = p_seg->count * p_mngr->task_type_size[p_seg->type];
		ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line, total,
				       p_mngr->task_type_size[p_seg->type]);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_CDUT);
	}

	/* next the 'init' task memory (forced load memory) */
	for (i = 0; i < NUM_TASK_PF_SEGMENTS; i++) {
		p_seg = ecore_cxt_tid_seg_info(p_hwfn, i);
		if (!p_seg || p_seg->count == 0)
			continue;

		p_blk = ecore_cxt_set_blk(
				&p_cli->pf_blks[CDUT_FL_SEG_BLK(i, PF)]);

		if (!p_seg->has_fl_mem) {
			/* The segment is active (total size pf 'working'
			 * memory is > 0) but has no FL (forced-load, Init)
			 * memory. Thus:
			 *
			 * 1.   The total-size in the corrsponding FL block of
			 *      the ILT client is set to 0 - No ILT line are
			 *      provisioned and no ILT memory allocated.
			 *
			 * 2.   The start-line of said block is set to the
			 *      start line of the matching working memory
			 *      block in the ILT client. This is later used to
			 *      configure the CDU segment offset registers and
			 *      results in an FL command for TIDs of this
			 *      segement behaves as regular load commands
			 *      (loading TIDs from the working memory).
			 */
			line = p_cli->pf_blks[CDUT_SEG_BLK(i)].start_line;

			ecore_ilt_cli_blk_fill(p_cli, p_blk, line, 0, 0);
			continue;
		}
		total = p_seg->count * p_mngr->task_type_size[p_seg->type];

		ecore_ilt_cli_blk_fill(p_cli, p_blk,
				       curr_line, total,
				       p_mngr->task_type_size[p_seg->type]);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_CDUT);
	}
	p_cli->pf_total_lines = curr_line - p_cli->pf_blks[0].start_line;

	/* CDUT VF */
	p_seg = ecore_cxt_tid_seg_info(p_hwfn, TASK_SEGMENT_VF);
	if (p_seg && p_seg->count) {
		/* Stricly speaking we need to iterate over all VF
		 * task segment types, but a VF has only 1 segment
		 */

		/* 'working' memory */
		total = p_seg->count * p_mngr->task_type_size[p_seg->type];

		p_blk = ecore_cxt_set_blk(&p_cli->vf_blks[CDUT_SEG_BLK(0)]);
		ecore_ilt_cli_blk_fill(p_cli, p_blk,
				       curr_line, total,
				       p_mngr->task_type_size[p_seg->type]);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_CDUT);

		/* 'init' memory */
		p_blk = ecore_cxt_set_blk(
				&p_cli->vf_blks[CDUT_FL_SEG_BLK(0, VF)]);
		if (!p_seg->has_fl_mem) {
			/* see comment above */
			line = p_cli->vf_blks[CDUT_SEG_BLK(0)].start_line;
			ecore_ilt_cli_blk_fill(p_cli, p_blk, line, 0, 0);
		} else {
			task_size = p_mngr->task_type_size[p_seg->type];
			ecore_ilt_cli_blk_fill(p_cli, p_blk,
					       curr_line, total,
					       task_size);
			ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
					       ILT_CLI_CDUT);
		}
		p_cli->vf_total_lines = curr_line -
					p_cli->vf_blks[0].start_line;

		/* Now for the rest of the VFs */
		for (i = 1; i < p_mngr->vf_count; i++) {
			/* don't set p_blk i.e. don't clear total_size */
			p_blk = &p_cli->vf_blks[CDUT_SEG_BLK(0)];
			ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
					       ILT_CLI_CDUT);

			/* don't set p_blk i.e. don't clear total_size */
			p_blk = &p_cli->vf_blks[CDUT_FL_SEG_BLK(0, VF)];
			ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
					       ILT_CLI_CDUT);
		}
	}

	/* QM */
	p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_QM]);
	p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[0]);

	ecore_cxt_qm_iids(p_hwfn, &qm_iids);
	total = ecore_qm_pf_mem_size(p_hwfn->rel_pf_id, qm_iids.cids,
				     qm_iids.vf_cids, qm_iids.tids,
				     p_hwfn->qm_info.num_pqs,
				     p_hwfn->qm_info.num_vf_pqs);

	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "QM ILT Info, (cids=%d, vf_cids=%d, tids=%d, num_pqs=%d, num_vf_pqs=%d, memory_size=%d)\n",
		   qm_iids.cids, qm_iids.vf_cids, qm_iids.tids,
		   p_hwfn->qm_info.num_pqs, p_hwfn->qm_info.num_vf_pqs, total);

	ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line, total * 0x1000,
			       QM_PQ_ELEMENT_SIZE);

	ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line, ILT_CLI_QM);
	p_cli->pf_total_lines = curr_line - p_blk->start_line;

	/* SRC */
	p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_SRC]);
	ecore_cxt_src_iids(p_hwfn, p_mngr, &src_iids);

	/* Both the PF and VFs searcher connections are stored in the per PF
	 * database. Thus sum the PF searcher cids and all the VFs searcher
	 * cids.
	 */
	total = src_iids.pf_cids + src_iids.per_vf_cids * p_mngr->vf_count;
	if (total) {
		u32 local_max = OSAL_MAX_T(u32, total,
					   SRC_MIN_NUM_ELEMS);

		total = OSAL_ROUNDUP_POW_OF_TWO(local_max);

		p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[0]);
		ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
				       total * sizeof(struct src_ent),
				       sizeof(struct src_ent));

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_SRC);
		p_cli->pf_total_lines = curr_line - p_blk->start_line;
	}

	/* TM PF */
	p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_TM]);
	ecore_cxt_tm_iids(p_hwfn, p_mngr, &tm_iids);
	total = tm_iids.pf_cids + tm_iids.pf_tids_total;
	if (total) {
		p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[0]);
		ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
				       total * TM_ELEM_SIZE,
				       TM_ELEM_SIZE);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_TM);
		p_cli->pf_total_lines = curr_line - p_blk->start_line;
	}

	/* TM VF */
	total = tm_iids.per_vf_cids + tm_iids.per_vf_tids;
	if (total) {
		p_blk = ecore_cxt_set_blk(&p_cli->vf_blks[0]);
		ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
				       total * TM_ELEM_SIZE,
				       TM_ELEM_SIZE);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_TM);

		p_cli->vf_total_lines = curr_line - p_blk->start_line;
		for (i = 1; i < p_mngr->vf_count; i++) {
			ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
					       ILT_CLI_TM);
		}
	}

	/* TSDM (SRQ CONTEXT) */
	total = ecore_cxt_get_srq_count(p_hwfn);

	if (total) {
		p_cli = ecore_cxt_set_cli(&p_mngr->clients[ILT_CLI_TSDM]);
		p_blk = ecore_cxt_set_blk(&p_cli->pf_blks[SRQ_BLK]);
		ecore_ilt_cli_blk_fill(p_cli, p_blk, curr_line,
				       total * SRQ_CXT_SIZE, SRQ_CXT_SIZE);

		ecore_ilt_cli_adv_line(p_hwfn, p_cli, p_blk, &curr_line,
				       ILT_CLI_TSDM);
		p_cli->pf_total_lines = curr_line - p_blk->start_line;
	}

	*line_count = curr_line - p_hwfn->p_cxt_mngr->pf_start_line;

	if (curr_line - p_hwfn->p_cxt_mngr->pf_start_line >
	    RESC_NUM(p_hwfn, ECORE_ILT)) {
		return ECORE_INVAL;
	}

	return ECORE_SUCCESS;
}

u32 ecore_cxt_cfg_ilt_compute_excess(struct ecore_hwfn *p_hwfn, u32 used_lines)
{
	struct ecore_ilt_client_cfg *p_cli;
	u32 excess_lines, available_lines;
	struct ecore_cxt_mngr *p_mngr;
	u32 ilt_page_size, elem_size;
	struct ecore_tid_seg *p_seg;
	int i;

	available_lines = RESC_NUM(p_hwfn, ECORE_ILT);
	excess_lines = used_lines - available_lines;

	if (!excess_lines)
		return 0;

	if (!ECORE_IS_RDMA_PERSONALITY(p_hwfn))
		return 0;

	p_mngr = p_hwfn->p_cxt_mngr;
	p_cli = &p_mngr->clients[ILT_CLI_CDUT];
	ilt_page_size = ILT_PAGE_IN_BYTES(p_cli->p_size.val);

	for (i = 0; i < NUM_TASK_PF_SEGMENTS; i++) {
		p_seg = ecore_cxt_tid_seg_info(p_hwfn, i);
		if (!p_seg || p_seg->count == 0)
			continue;

		elem_size = p_mngr->task_type_size[p_seg->type];
		if (!elem_size)
			continue;

		return (ilt_page_size / elem_size) * excess_lines;
	}

	DP_ERR(p_hwfn, "failed computing excess ILT lines\n");
	return 0;
}

static void ecore_cxt_src_t2_free(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 i;

	if (!p_mngr->t2)
		return;

	for (i = 0; i < p_mngr->t2_num_pages; i++)
		if (p_mngr->t2[i].p_virt)
			OSAL_DMA_FREE_COHERENT(p_hwfn->p_dev,
					       p_mngr->t2[i].p_virt,
					       p_mngr->t2[i].p_phys,
					       p_mngr->t2[i].size);

	OSAL_FREE(p_hwfn->p_dev, p_mngr->t2);
	p_mngr->t2 = OSAL_NULL;
}

static enum _ecore_status_t ecore_cxt_src_t2_alloc(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr  = p_hwfn->p_cxt_mngr;
	u32 conn_num, total_size, ent_per_page, psz, i;
	struct ecore_ilt_client_cfg *p_src;
	struct ecore_src_iids src_iids;
	struct ecore_dma_mem *p_t2;
	enum _ecore_status_t rc;

	OSAL_MEM_ZERO(&src_iids, sizeof(src_iids));

	/* if the SRC ILT client is inactive - there are no connection
	 * requiring the searcer, leave.
	 */
	p_src = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_SRC];
	if (!p_src->active)
		return ECORE_SUCCESS;

	ecore_cxt_src_iids(p_hwfn, p_mngr, &src_iids);
	conn_num = src_iids.pf_cids + src_iids.per_vf_cids * p_mngr->vf_count;
	total_size = conn_num * sizeof(struct src_ent);

	/* use the same page size as the SRC ILT client */
	psz = ILT_PAGE_IN_BYTES(p_src->p_size.val);
	p_mngr->t2_num_pages = DIV_ROUND_UP(total_size, psz);

	/* allocate t2 */
	p_mngr->t2 = OSAL_ZALLOC(p_hwfn->p_dev, GFP_KERNEL,
				 p_mngr->t2_num_pages *
				 sizeof(struct ecore_dma_mem));
	if (!p_mngr->t2) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate t2 table\n");
		rc = ECORE_NOMEM;
		goto t2_fail;
	}

	/* allocate t2 pages */
	for (i = 0; i < p_mngr->t2_num_pages; i++) {
		u32 size = OSAL_MIN_T(u32, total_size, psz);
		void **p_virt = &p_mngr->t2[i].p_virt;

		*p_virt = OSAL_DMA_ALLOC_COHERENT(p_hwfn->p_dev,
						  &p_mngr->t2[i].p_phys,
						  size);
		if (!p_mngr->t2[i].p_virt) {
			rc = ECORE_NOMEM;
			goto t2_fail;
		}
		OSAL_MEM_ZERO(*p_virt, size);
		p_mngr->t2[i].size = size;
		total_size -= size;
	}

	/* Set the t2 pointers */

	/* entries per page - must be a power of two */
	ent_per_page = psz / sizeof(struct src_ent);

	p_mngr->first_free = (u64)p_mngr->t2[0].p_phys;

	p_t2 = &p_mngr->t2[(conn_num - 1) / ent_per_page];
	p_mngr->last_free = (u64)p_t2->p_phys +
				 ((conn_num - 1) & (ent_per_page - 1)) *
				 sizeof(struct src_ent);

	for (i = 0; i < p_mngr->t2_num_pages; i++) {
		u32 ent_num = OSAL_MIN_T(u32, ent_per_page, conn_num);
		struct src_ent *entries = p_mngr->t2[i].p_virt;
		u64 p_ent_phys = (u64)p_mngr->t2[i].p_phys, val;
		u32 j;

		for (j = 0; j < ent_num - 1; j++) {
			val = p_ent_phys +
			      (j + 1) * sizeof(struct src_ent);
			entries[j].next = OSAL_CPU_TO_BE64(val);
		}

		if (i < p_mngr->t2_num_pages - 1)
			val = (u64)p_mngr->t2[i + 1].p_phys;
		else
			val = 0;
		entries[j].next = OSAL_CPU_TO_BE64(val);

		conn_num -= ent_num;
	}

	return ECORE_SUCCESS;

t2_fail:
	ecore_cxt_src_t2_free(p_hwfn);
	return rc;
}

#define for_each_ilt_valid_client(pos, clients)	\
	for (pos = 0; pos < ILT_CLI_MAX; pos++)	\
		if (!clients[pos].active) {	\
			continue;		\
		} else				\


/* Total number of ILT lines used by this PF */
static u32 ecore_cxt_ilt_shadow_size(struct ecore_ilt_client_cfg *ilt_clients)
{
	u32 size = 0;
	u32 i;

	for_each_ilt_valid_client(i, ilt_clients)
		size += (ilt_clients[i].last.val -
			 ilt_clients[i].first.val + 1);

	return size;
}

static void ecore_ilt_shadow_free(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *p_cli = p_hwfn->p_cxt_mngr->clients;
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 ilt_size, i;

	ilt_size = ecore_cxt_ilt_shadow_size(p_cli);

	for (i = 0; p_mngr->ilt_shadow && i < ilt_size; i++) {
		struct ecore_dma_mem *p_dma = &p_mngr->ilt_shadow[i];

		if (p_dma->p_virt)
			OSAL_DMA_FREE_COHERENT(p_hwfn->p_dev,
					       p_dma->p_virt,
					       p_dma->p_phys,
					       p_dma->size);
		p_dma->p_virt = OSAL_NULL;
	}
	OSAL_FREE(p_hwfn->p_dev, p_mngr->ilt_shadow);
}

static enum _ecore_status_t ecore_ilt_blk_alloc(struct ecore_hwfn *p_hwfn,
						struct ecore_ilt_cli_blk *p_blk,
						enum ilt_clients ilt_client,
						u32 start_line_offset)
{
	struct ecore_dma_mem *ilt_shadow = p_hwfn->p_cxt_mngr->ilt_shadow;
	u32 lines, line, sz_left, lines_to_skip = 0;

	/* Special handling for RoCE that supports dynamic allocation */
	if (ECORE_IS_RDMA_PERSONALITY(p_hwfn) &&
	    ((ilt_client == ILT_CLI_CDUT) || ilt_client == ILT_CLI_TSDM))
		return ECORE_SUCCESS;

	lines_to_skip = p_blk->dynamic_line_cnt;

	if (!p_blk->total_size)
		return ECORE_SUCCESS;

	sz_left = p_blk->total_size;
	lines = DIV_ROUND_UP(sz_left, p_blk->real_size_in_page) -
		lines_to_skip;
	line = p_blk->start_line + start_line_offset -
	       p_hwfn->p_cxt_mngr->pf_start_line + lines_to_skip;

	for (; lines; lines--) {
		dma_addr_t p_phys;
		void *p_virt;
		u32 size;

		size = OSAL_MIN_T(u32, sz_left, p_blk->real_size_in_page);
		p_virt = OSAL_DMA_ALLOC_COHERENT(p_hwfn->p_dev,
						 &p_phys, size);
		if (!p_virt)
			return ECORE_NOMEM;
		OSAL_MEM_ZERO(p_virt, size);

		ilt_shadow[line].p_phys = p_phys;
		ilt_shadow[line].p_virt = p_virt;
		ilt_shadow[line].size = size;

		DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
			   "ILT shadow: Line [%d] Physical 0x%llx Virtual %p Size %d\n",
			   line, (u64)p_phys, p_virt, size);

		sz_left -= size;
		line++;
	}

	return ECORE_SUCCESS;
}

static enum _ecore_status_t ecore_ilt_shadow_alloc(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr  = p_hwfn->p_cxt_mngr;
	struct ecore_ilt_client_cfg *clients = p_mngr->clients;
	struct ecore_ilt_cli_blk *p_blk;
	u32 size, i, j, k;
	enum _ecore_status_t rc;

	size = ecore_cxt_ilt_shadow_size(clients);
	p_mngr->ilt_shadow = OSAL_ZALLOC(p_hwfn->p_dev, GFP_KERNEL,
					 size * sizeof(struct ecore_dma_mem));

	if (!p_mngr->ilt_shadow) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate ilt shadow table\n");
		rc = ECORE_NOMEM;
		goto ilt_shadow_fail;
	}

	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "Allocated 0x%x bytes for ilt shadow\n",
		   (u32)(size * sizeof(struct ecore_dma_mem)));

	for_each_ilt_valid_client(i, clients) {
		for (j = 0; j < ILT_CLI_PF_BLOCKS; j++) {
			p_blk = &clients[i].pf_blks[j];
			rc = ecore_ilt_blk_alloc(p_hwfn, p_blk, i, 0);
			if (rc != ECORE_SUCCESS)
				goto ilt_shadow_fail;
		}
		for (k = 0; k < p_mngr->vf_count; k++) {
			for (j = 0; j < ILT_CLI_VF_BLOCKS; j++) {
				u32 lines = clients[i].vf_total_lines * k;

				p_blk = &clients[i].vf_blks[j];
				rc = ecore_ilt_blk_alloc(p_hwfn, p_blk,
							 i, lines);
				if (rc != ECORE_SUCCESS)
					goto ilt_shadow_fail;
			}
		}
	}

	return ECORE_SUCCESS;

ilt_shadow_fail:
	ecore_ilt_shadow_free(p_hwfn);
	return rc;
}

static void ecore_cid_map_free(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 type, vf;

	for (type = 0; type < MAX_CONN_TYPES; type++) {
		OSAL_FREE(p_hwfn->p_dev, p_mngr->acquired[type].cid_map);
		p_mngr->acquired[type].max_count = 0;
		p_mngr->acquired[type].start_cid = 0;

		for (vf = 0; vf < COMMON_MAX_NUM_VFS; vf++) {
			OSAL_FREE(p_hwfn->p_dev,
				  p_mngr->acquired_vf[type][vf].cid_map);
			p_mngr->acquired_vf[type][vf].max_count = 0;
			p_mngr->acquired_vf[type][vf].start_cid = 0;
		}
	}
}

static enum _ecore_status_t
ecore_cid_map_alloc_single(struct ecore_hwfn *p_hwfn, u32 type,
			   u32 cid_start, u32 cid_count,
			   struct ecore_cid_acquired_map *p_map)
{
	u32 size;

	if (!cid_count)
		return ECORE_SUCCESS;

	size = MAP_WORD_SIZE * DIV_ROUND_UP(cid_count, BITS_PER_MAP_WORD);
	p_map->cid_map = OSAL_ZALLOC(p_hwfn->p_dev, GFP_KERNEL, size);
	if (p_map->cid_map == OSAL_NULL)
		return ECORE_NOMEM;

	p_map->max_count = cid_count;
	p_map->start_cid = cid_start;

	DP_VERBOSE(p_hwfn, ECORE_MSG_CXT,
		   "Type %08x start: %08x count %08x\n",
		   type, p_map->start_cid, p_map->max_count);

	return ECORE_SUCCESS;
}

static enum _ecore_status_t ecore_cid_map_alloc(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 start_cid = 0, vf_start_cid = 0;
	u32 type, vf;

	for (type = 0; type < MAX_CONN_TYPES; type++) {
		struct ecore_conn_type_cfg *p_cfg = &p_mngr->conn_cfg[type];
		struct ecore_cid_acquired_map *p_map;

		/* Handle PF maps */
		p_map = &p_mngr->acquired[type];
		if (ecore_cid_map_alloc_single(p_hwfn, type, start_cid,
					       p_cfg->cid_count, p_map))
			goto cid_map_fail;

		/* Handle VF maps */
		for (vf = 0; vf < COMMON_MAX_NUM_VFS; vf++) {
			p_map = &p_mngr->acquired_vf[type][vf];
			if (ecore_cid_map_alloc_single(p_hwfn, type,
						       vf_start_cid,
						       p_cfg->cids_per_vf,
						       p_map))
				goto cid_map_fail;
		}

		start_cid += p_cfg->cid_count;
		vf_start_cid += p_cfg->cids_per_vf;
	}

	return ECORE_SUCCESS;

cid_map_fail:
	ecore_cid_map_free(p_hwfn);
	return ECORE_NOMEM;
}

enum _ecore_status_t ecore_cxt_mngr_alloc(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *clients;
	struct ecore_cxt_mngr *p_mngr;
	u32 i;

	p_mngr = OSAL_ZALLOC(p_hwfn->p_dev, GFP_KERNEL, sizeof(*p_mngr));
	if (!p_mngr) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate `struct ecore_cxt_mngr'\n");
		return ECORE_NOMEM;
	}

	/* Initialize ILT client registers */
	clients = p_mngr->clients;
	clients[ILT_CLI_CDUC].first.reg = ILT_CFG_REG(CDUC, FIRST_ILT);
	clients[ILT_CLI_CDUC].last.reg  = ILT_CFG_REG(CDUC, LAST_ILT);
	clients[ILT_CLI_CDUC].p_size.reg = ILT_CFG_REG(CDUC, P_SIZE);

	clients[ILT_CLI_QM].first.reg   = ILT_CFG_REG(QM, FIRST_ILT);
	clients[ILT_CLI_QM].last.reg    = ILT_CFG_REG(QM, LAST_ILT);
	clients[ILT_CLI_QM].p_size.reg  = ILT_CFG_REG(QM, P_SIZE);

	clients[ILT_CLI_TM].first.reg   = ILT_CFG_REG(TM, FIRST_ILT);
	clients[ILT_CLI_TM].last.reg    = ILT_CFG_REG(TM, LAST_ILT);
	clients[ILT_CLI_TM].p_size.reg  = ILT_CFG_REG(TM, P_SIZE);

	clients[ILT_CLI_SRC].first.reg  = ILT_CFG_REG(SRC, FIRST_ILT);
	clients[ILT_CLI_SRC].last.reg   = ILT_CFG_REG(SRC, LAST_ILT);
	clients[ILT_CLI_SRC].p_size.reg = ILT_CFG_REG(SRC, P_SIZE);

	clients[ILT_CLI_CDUT].first.reg = ILT_CFG_REG(CDUT, FIRST_ILT);
	clients[ILT_CLI_CDUT].last.reg  = ILT_CFG_REG(CDUT, LAST_ILT);
	clients[ILT_CLI_CDUT].p_size.reg = ILT_CFG_REG(CDUT, P_SIZE);

	clients[ILT_CLI_TSDM].first.reg = ILT_CFG_REG(TSDM, FIRST_ILT);
	clients[ILT_CLI_TSDM].last.reg  = ILT_CFG_REG(TSDM, LAST_ILT);
	clients[ILT_CLI_TSDM].p_size.reg = ILT_CFG_REG(TSDM, P_SIZE);

	/* default ILT page size for all clients is 32K */
	for (i = 0; i < ILT_CLI_MAX; i++)
		p_mngr->clients[i].p_size.val = ILT_DEFAULT_HW_P_SIZE;

	/* Initialize task sizes */
	p_mngr->task_type_size[0] = TYPE0_TASK_CXT_SIZE(p_hwfn);
	p_mngr->task_type_size[1] = TYPE1_TASK_CXT_SIZE(p_hwfn);

	if (p_hwfn->p_dev->p_iov_info)
		p_mngr->vf_count = p_hwfn->p_dev->p_iov_info->total_vfs;

	/* Initialize the dynamic ILT allocation mutex */
	OSAL_MUTEX_ALLOC(p_hwfn, &p_mngr->mutex);
	OSAL_MUTEX_INIT(&p_mngr->mutex);

	/* Set the cxt mangr pointer priori to further allocations */
	p_hwfn->p_cxt_mngr = p_mngr;

	return ECORE_SUCCESS;
}

enum _ecore_status_t ecore_cxt_tables_alloc(struct ecore_hwfn *p_hwfn)
{
	enum _ecore_status_t    rc;

	/* Allocate the ILT shadow table */
	rc = ecore_ilt_shadow_alloc(p_hwfn);
	if (rc) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate ilt memory\n");
		goto tables_alloc_fail;
	}

	/* Allocate the T2  table */
	rc = ecore_cxt_src_t2_alloc(p_hwfn);
	if (rc) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate T2 memory\n");
		goto tables_alloc_fail;
	}

	/* Allocate and initalize the acquired cids bitmaps */
	rc = ecore_cid_map_alloc(p_hwfn);
	if (rc) {
		DP_NOTICE(p_hwfn, true, "Failed to allocate cid maps\n");
		goto tables_alloc_fail;
	}

	return ECORE_SUCCESS;

tables_alloc_fail:
	ecore_cxt_mngr_free(p_hwfn);
	return rc;
}
void ecore_cxt_mngr_free(struct ecore_hwfn *p_hwfn)
{
	if (!p_hwfn->p_cxt_mngr)
		return;

	ecore_cid_map_free(p_hwfn);
	ecore_cxt_src_t2_free(p_hwfn);
	ecore_ilt_shadow_free(p_hwfn);
	OSAL_MUTEX_DEALLOC(&p_hwfn->p_cxt_mngr->mutex);
	OSAL_FREE(p_hwfn->p_dev, p_hwfn->p_cxt_mngr);

	p_hwfn->p_cxt_mngr = OSAL_NULL;
}

void ecore_cxt_mngr_setup(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_cid_acquired_map *p_map;
	struct ecore_conn_type_cfg *p_cfg;
	int type;
	u32 len;

	/* Reset acquired cids */
	for (type = 0; type < MAX_CONN_TYPES; type++) {
		u32 vf;

		p_cfg = &p_mngr->conn_cfg[type];
		if (p_cfg->cid_count) {
			p_map = &p_mngr->acquired[type];
			len = DIV_ROUND_UP(p_map->max_count,
					   BITS_PER_MAP_WORD) *
			      MAP_WORD_SIZE;
			OSAL_MEM_ZERO(p_map->cid_map, len);
		}

		if (!p_cfg->cids_per_vf)
			continue;

		for (vf = 0; vf < COMMON_MAX_NUM_VFS; vf++) {
			p_map = &p_mngr->acquired_vf[type][vf];
			len = DIV_ROUND_UP(p_map->max_count,
					   BITS_PER_MAP_WORD) *
			      MAP_WORD_SIZE;
			OSAL_MEM_ZERO(p_map->cid_map, len);
		}
	}
}

/* HW initialization helper (per Block, per phase) */

/* CDU Common */
#define CDUC_CXT_SIZE_SHIFT						\
	CDU_REG_CID_ADDR_PARAMS_CONTEXT_SIZE_SHIFT

#define CDUC_CXT_SIZE_MASK						\
	(CDU_REG_CID_ADDR_PARAMS_CONTEXT_SIZE >> CDUC_CXT_SIZE_SHIFT)

#define CDUC_BLOCK_WASTE_SHIFT						\
	CDU_REG_CID_ADDR_PARAMS_BLOCK_WASTE_SHIFT

#define CDUC_BLOCK_WASTE_MASK						\
	(CDU_REG_CID_ADDR_PARAMS_BLOCK_WASTE >> CDUC_BLOCK_WASTE_SHIFT)

#define CDUC_NCIB_SHIFT							\
	CDU_REG_CID_ADDR_PARAMS_NCIB_SHIFT

#define CDUC_NCIB_MASK							\
	(CDU_REG_CID_ADDR_PARAMS_NCIB >> CDUC_NCIB_SHIFT)

#define CDUT_TYPE0_CXT_SIZE_SHIFT					\
	CDU_REG_SEGMENT0_PARAMS_T0_TID_SIZE_SHIFT

#define CDUT_TYPE0_CXT_SIZE_MASK					\
	(CDU_REG_SEGMENT0_PARAMS_T0_TID_SIZE >>				\
	CDUT_TYPE0_CXT_SIZE_SHIFT)

#define CDUT_TYPE0_BLOCK_WASTE_SHIFT					\
	CDU_REG_SEGMENT0_PARAMS_T0_TID_BLOCK_WASTE_SHIFT

#define CDUT_TYPE0_BLOCK_WASTE_MASK					\
	(CDU_REG_SEGMENT0_PARAMS_T0_TID_BLOCK_WASTE >>			\
	CDUT_TYPE0_BLOCK_WASTE_SHIFT)

#define CDUT_TYPE0_NCIB_SHIFT						\
	CDU_REG_SEGMENT0_PARAMS_T0_NUM_TIDS_IN_BLOCK_SHIFT

#define CDUT_TYPE0_NCIB_MASK						\
	(CDU_REG_SEGMENT0_PARAMS_T0_NUM_TIDS_IN_BLOCK >>		\
	CDUT_TYPE0_NCIB_SHIFT)

#define CDUT_TYPE1_CXT_SIZE_SHIFT					\
	CDU_REG_SEGMENT1_PARAMS_T1_TID_SIZE_SHIFT

#define CDUT_TYPE1_CXT_SIZE_MASK					\
	(CDU_REG_SEGMENT1_PARAMS_T1_TID_SIZE >>				\
	CDUT_TYPE1_CXT_SIZE_SHIFT)

#define CDUT_TYPE1_BLOCK_WASTE_SHIFT					\
	CDU_REG_SEGMENT1_PARAMS_T1_TID_BLOCK_WASTE_SHIFT

#define CDUT_TYPE1_BLOCK_WASTE_MASK					\
	(CDU_REG_SEGMENT1_PARAMS_T1_TID_BLOCK_WASTE >>			\
	CDUT_TYPE1_BLOCK_WASTE_SHIFT)

#define CDUT_TYPE1_NCIB_SHIFT						\
	CDU_REG_SEGMENT1_PARAMS_T1_NUM_TIDS_IN_BLOCK_SHIFT

#define CDUT_TYPE1_NCIB_MASK						\
	(CDU_REG_SEGMENT1_PARAMS_T1_NUM_TIDS_IN_BLOCK >>		\
	CDUT_TYPE1_NCIB_SHIFT)

static void ecore_cdu_init_common(struct ecore_hwfn *p_hwfn)
{
	u32 page_sz, elems_per_page, block_waste,  cxt_size, cdu_params = 0;

	/* CDUC - connection configuration */
	page_sz = p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC].p_size.val;
	cxt_size = CONN_CXT_SIZE(p_hwfn);
	elems_per_page = ILT_PAGE_IN_BYTES(page_sz) / cxt_size;
	block_waste = ILT_PAGE_IN_BYTES(page_sz) - elems_per_page * cxt_size;

	SET_FIELD(cdu_params, CDUC_CXT_SIZE, cxt_size);
	SET_FIELD(cdu_params, CDUC_BLOCK_WASTE, block_waste);
	SET_FIELD(cdu_params, CDUC_NCIB, elems_per_page);
	STORE_RT_REG(p_hwfn, CDU_REG_CID_ADDR_PARAMS_RT_OFFSET, cdu_params);

	/* CDUT - type-0 tasks configuration */
	page_sz = p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUT].p_size.val;
	cxt_size = p_hwfn->p_cxt_mngr->task_type_size[0];
	elems_per_page = ILT_PAGE_IN_BYTES(page_sz) / cxt_size;
	block_waste = ILT_PAGE_IN_BYTES(page_sz) - elems_per_page * cxt_size;

	/* cxt size and block-waste are multipes of 8 */
	cdu_params = 0;
	SET_FIELD(cdu_params, CDUT_TYPE0_CXT_SIZE, (cxt_size >> 3));
	SET_FIELD(cdu_params, CDUT_TYPE0_BLOCK_WASTE, (block_waste >> 3));
	SET_FIELD(cdu_params, CDUT_TYPE0_NCIB, elems_per_page);
	STORE_RT_REG(p_hwfn, CDU_REG_SEGMENT0_PARAMS_RT_OFFSET, cdu_params);

	/* CDUT - type-1 tasks configuration */
	cxt_size = p_hwfn->p_cxt_mngr->task_type_size[1];
	elems_per_page = ILT_PAGE_IN_BYTES(page_sz) / cxt_size;
	block_waste = ILT_PAGE_IN_BYTES(page_sz) - elems_per_page * cxt_size;

	/* cxt size and block-waste are multipes of 8 */
	cdu_params = 0;
	SET_FIELD(cdu_params, CDUT_TYPE1_CXT_SIZE, (cxt_size >> 3));
	SET_FIELD(cdu_params, CDUT_TYPE1_BLOCK_WASTE, (block_waste >> 3));
	SET_FIELD(cdu_params, CDUT_TYPE1_NCIB, elems_per_page);
	STORE_RT_REG(p_hwfn, CDU_REG_SEGMENT1_PARAMS_RT_OFFSET, cdu_params);
}

/* CDU PF */
#define CDU_SEG_REG_TYPE_SHIFT		CDU_SEG_TYPE_OFFSET_REG_TYPE_SHIFT
#define CDU_SEG_REG_TYPE_MASK		0x1
#define CDU_SEG_REG_OFFSET_SHIFT	0
#define CDU_SEG_REG_OFFSET_MASK		CDU_SEG_TYPE_OFFSET_REG_OFFSET_MASK

static void ecore_cdu_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *p_cli;
	struct ecore_tid_seg *p_seg;
	u32 cdu_seg_params, offset;
	int i;

	static const u32 rt_type_offset_arr[] = {
		CDU_REG_PF_SEG0_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_SEG1_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_SEG2_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_SEG3_TYPE_OFFSET_RT_OFFSET
	};

	static const u32 rt_type_offset_fl_arr[] = {
		CDU_REG_PF_FL_SEG0_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_FL_SEG1_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_FL_SEG2_TYPE_OFFSET_RT_OFFSET,
		CDU_REG_PF_FL_SEG3_TYPE_OFFSET_RT_OFFSET
	};

	p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUT];

	/* There are initializations only for CDUT during pf Phase */
	for (i = 0; i < NUM_TASK_PF_SEGMENTS; i++) {
		/* Segment 0*/
		p_seg = ecore_cxt_tid_seg_info(p_hwfn, i);
		if (!p_seg)
			continue;

		/* Note: start_line is already adjusted for the CDU
		 * segment register granularity, so we just need to
		 * divide. Adjustment is implicit as we assume ILT
		 * Page size is larger than 32K!
		 */
		offset = (ILT_PAGE_IN_BYTES(p_cli->p_size.val) *
			 (p_cli->pf_blks[CDUT_SEG_BLK(i)].start_line -
			  p_cli->first.val)) / CDUT_SEG_ALIGNMET_IN_BYTES;

		cdu_seg_params = 0;
		SET_FIELD(cdu_seg_params, CDU_SEG_REG_TYPE, p_seg->type);
		SET_FIELD(cdu_seg_params, CDU_SEG_REG_OFFSET, offset);
		STORE_RT_REG(p_hwfn, rt_type_offset_arr[i],
			     cdu_seg_params);

		offset = (ILT_PAGE_IN_BYTES(p_cli->p_size.val) *
			 (p_cli->pf_blks[CDUT_FL_SEG_BLK(i, PF)].start_line -
			  p_cli->first.val)) / CDUT_SEG_ALIGNMET_IN_BYTES;

		cdu_seg_params = 0;
		SET_FIELD(cdu_seg_params, CDU_SEG_REG_TYPE, p_seg->type);
		SET_FIELD(cdu_seg_params, CDU_SEG_REG_OFFSET, offset);
		STORE_RT_REG(p_hwfn, rt_type_offset_fl_arr[i],
			     cdu_seg_params);

	}
}

void ecore_qm_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_qm_info *qm_info = &p_hwfn->qm_info;
	struct ecore_qm_iids iids;

	OSAL_MEM_ZERO(&iids, sizeof(iids));
	ecore_cxt_qm_iids(p_hwfn, &iids);

	ecore_qm_pf_rt_init(p_hwfn, p_hwfn->p_main_ptt, p_hwfn->port_id,
			    p_hwfn->rel_pf_id, qm_info->max_phys_tcs_per_port,
			    p_hwfn->first_on_engine,
			    iids.cids, iids.vf_cids, iids.tids,
			    qm_info->start_pq,
			    qm_info->num_pqs - qm_info->num_vf_pqs,
			    qm_info->num_vf_pqs,
			    qm_info->start_vport,
			    qm_info->num_vports, qm_info->pf_wfq, qm_info->pf_rl,
			    p_hwfn->qm_info.qm_pq_params,
			    p_hwfn->qm_info.qm_vport_params);
}

/* CM PF */
void ecore_cm_init_pf(struct ecore_hwfn *p_hwfn)
{
	STORE_RT_REG(p_hwfn, XCM_REG_CON_PHY_Q3_RT_OFFSET, ecore_get_cm_pq_idx(p_hwfn, PQ_FLAGS_LB));
}

/* DQ PF */
static void ecore_dq_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 dq_pf_max_cid = 0, dq_vf_max_cid = 0;

	dq_pf_max_cid += (p_mngr->conn_cfg[0].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_0_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[0].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_0_RT_OFFSET, dq_vf_max_cid);

	dq_pf_max_cid += (p_mngr->conn_cfg[1].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_1_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[1].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_1_RT_OFFSET, dq_vf_max_cid);

	dq_pf_max_cid += (p_mngr->conn_cfg[2].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_2_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[2].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_2_RT_OFFSET, dq_vf_max_cid);

	dq_pf_max_cid += (p_mngr->conn_cfg[3].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_3_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[3].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_3_RT_OFFSET, dq_vf_max_cid);

	dq_pf_max_cid += (p_mngr->conn_cfg[4].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_4_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[4].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_4_RT_OFFSET, dq_vf_max_cid);

	dq_pf_max_cid += (p_mngr->conn_cfg[5].cid_count >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_5_RT_OFFSET, dq_pf_max_cid);

	dq_vf_max_cid += (p_mngr->conn_cfg[5].cids_per_vf >> DQ_RANGE_SHIFT);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_5_RT_OFFSET, dq_vf_max_cid);

	/* Connection types 6 & 7 are not in use, yet they must be configured
	 * as the highest possible connection. Not configuring them means the
	 * defaults will be  used, and with a large number of cids a bug may
	 * occur, if the defaults will be smaller than dq_pf_max_cid /
	 * dq_vf_max_cid.
	 */
	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_6_RT_OFFSET, dq_pf_max_cid);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_6_RT_OFFSET, dq_vf_max_cid);

	STORE_RT_REG(p_hwfn, DORQ_REG_PF_MAX_ICID_7_RT_OFFSET, dq_pf_max_cid);
	STORE_RT_REG(p_hwfn, DORQ_REG_VF_MAX_ICID_7_RT_OFFSET, dq_vf_max_cid);
}

static void ecore_ilt_bounds_init(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *ilt_clients;
	int i;

	ilt_clients = p_hwfn->p_cxt_mngr->clients;
	for_each_ilt_valid_client(i, ilt_clients) {
		STORE_RT_REG(p_hwfn,
			     ilt_clients[i].first.reg,
			     ilt_clients[i].first.val);
		STORE_RT_REG(p_hwfn,
			     ilt_clients[i].last.reg,
			     ilt_clients[i].last.val);
		STORE_RT_REG(p_hwfn,
			     ilt_clients[i].p_size.reg,
			     ilt_clients[i].p_size.val);
	}
}

static void ecore_ilt_vf_bounds_init(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *p_cli;
	u32 blk_factor;

	/* For simplicty  we set the 'block' to be an ILT page */
	if (p_hwfn->p_dev->p_iov_info) {
		struct ecore_hw_sriov_info *p_iov = p_hwfn->p_dev->p_iov_info;

		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_VF_BASE_RT_OFFSET,
			     p_iov->first_vf_in_pf);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_VF_LAST_ILT_RT_OFFSET,
			     p_iov->first_vf_in_pf + p_iov->total_vfs);
	}

	p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC];
	blk_factor = OSAL_LOG2(ILT_PAGE_IN_BYTES(p_cli->p_size.val) >> 10);
	if (p_cli->active) {
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUC_BLOCKS_FACTOR_RT_OFFSET,
			     blk_factor);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUC_NUMBER_OF_PF_BLOCKS_RT_OFFSET,
			     p_cli->pf_total_lines);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUC_VF_BLOCKS_RT_OFFSET,
			     p_cli->vf_total_lines);
	}

	p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUT];
	blk_factor = OSAL_LOG2(ILT_PAGE_IN_BYTES(p_cli->p_size.val) >> 10);
	if (p_cli->active) {
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUT_BLOCKS_FACTOR_RT_OFFSET,
			     blk_factor);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUT_NUMBER_OF_PF_BLOCKS_RT_OFFSET,
			     p_cli->pf_total_lines);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_CDUT_VF_BLOCKS_RT_OFFSET,
			     p_cli->vf_total_lines);
	}

	p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_TM];
	blk_factor = OSAL_LOG2(ILT_PAGE_IN_BYTES(p_cli->p_size.val) >> 10);
	if (p_cli->active) {
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_TM_BLOCKS_FACTOR_RT_OFFSET,
			     blk_factor);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_TM_NUMBER_OF_PF_BLOCKS_RT_OFFSET,
			     p_cli->pf_total_lines);
		STORE_RT_REG(p_hwfn,
			     PSWRQ2_REG_TM_VF_BLOCKS_RT_OFFSET,
			     p_cli->vf_total_lines);
	}
}

/* ILT (PSWRQ2) PF */
static void ecore_ilt_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_ilt_client_cfg *clients;
	struct ecore_cxt_mngr *p_mngr;
	struct ecore_dma_mem *p_shdw;
	u32 line, rt_offst, i;

	ecore_ilt_bounds_init(p_hwfn);
	ecore_ilt_vf_bounds_init(p_hwfn);

	p_mngr  = p_hwfn->p_cxt_mngr;
	p_shdw  = p_mngr->ilt_shadow;
	clients = p_hwfn->p_cxt_mngr->clients;

	for_each_ilt_valid_client(i, clients) {
		/* Client's 1st val and RT array are absolute, ILT shadows'
		 * lines are relative.
		 */
		line = clients[i].first.val - p_mngr->pf_start_line;
		rt_offst = PSWRQ2_REG_ILT_MEMORY_RT_OFFSET +
			   clients[i].first.val * ILT_ENTRY_IN_REGS;

		for (; line <= clients[i].last.val - p_mngr->pf_start_line;
		     line++, rt_offst += ILT_ENTRY_IN_REGS) {
			u64 ilt_hw_entry = 0;

			/** p_virt could be OSAL_NULL incase of dynamic
			 *  allocation
			 */
			if (p_shdw[line].p_virt != OSAL_NULL) {
				SET_FIELD(ilt_hw_entry, ILT_ENTRY_VALID, 1ULL);
				SET_FIELD(ilt_hw_entry, ILT_ENTRY_PHY_ADDR,
					  (p_shdw[line].p_phys >> 12));

				DP_VERBOSE(
					p_hwfn, ECORE_MSG_ILT,
					"Setting RT[0x%08x] from ILT[0x%08x] [Client is %d] to Physical addr: 0x%llx\n",
					rt_offst, line, i,
					(u64)(p_shdw[line].p_phys >> 12));
			}

			STORE_RT_REG_AGG(p_hwfn, rt_offst, ilt_hw_entry);
		}
	}
}

/* SRC (Searcher) PF */
static void ecore_src_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 rounded_conn_num, conn_num, conn_max;
	struct ecore_src_iids src_iids;

	OSAL_MEM_ZERO(&src_iids, sizeof(src_iids));
	ecore_cxt_src_iids(p_hwfn, p_mngr, &src_iids);
	conn_num = src_iids.pf_cids + src_iids.per_vf_cids * p_mngr->vf_count;
	if (!conn_num)
		return;

	conn_max = OSAL_MAX_T(u32, conn_num, SRC_MIN_NUM_ELEMS);
	rounded_conn_num = OSAL_ROUNDUP_POW_OF_TWO(conn_max);

	STORE_RT_REG(p_hwfn, SRC_REG_COUNTFREE_RT_OFFSET, conn_num);
	STORE_RT_REG(p_hwfn, SRC_REG_NUMBER_HASH_BITS_RT_OFFSET,
		     OSAL_LOG2(rounded_conn_num));

	STORE_RT_REG_AGG(p_hwfn, SRC_REG_FIRSTFREE_RT_OFFSET,
			 p_hwfn->p_cxt_mngr->first_free);
	STORE_RT_REG_AGG(p_hwfn, SRC_REG_LASTFREE_RT_OFFSET,
			 p_hwfn->p_cxt_mngr->last_free);
	DP_VERBOSE(p_hwfn, ECORE_MSG_ILT,
		   "Configured SEARCHER for 0x%08x connections\n",
		   conn_num);
}

/* Timers PF */
#define TM_CFG_NUM_IDS_SHIFT		0
#define TM_CFG_NUM_IDS_MASK		0xFFFFULL
#define TM_CFG_PRE_SCAN_OFFSET_SHIFT	16
#define TM_CFG_PRE_SCAN_OFFSET_MASK	0x1FFULL
#define TM_CFG_PARENT_PF_SHIFT		25
#define TM_CFG_PARENT_PF_MASK		0x7ULL

#define TM_CFG_CID_PRE_SCAN_ROWS_SHIFT	30
#define TM_CFG_CID_PRE_SCAN_ROWS_MASK	0x1FFULL

#define TM_CFG_TID_OFFSET_SHIFT		30
#define TM_CFG_TID_OFFSET_MASK		0x7FFFFULL
#define TM_CFG_TID_PRE_SCAN_ROWS_SHIFT	49
#define TM_CFG_TID_PRE_SCAN_ROWS_MASK	0x1FFULL

static void ecore_tm_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 active_seg_mask = 0, tm_offset, rt_reg;
	struct ecore_tm_iids tm_iids;
	u64 cfg_word;
	u8 i;

	OSAL_MEM_ZERO(&tm_iids, sizeof(tm_iids));
	ecore_cxt_tm_iids(p_hwfn, p_mngr, &tm_iids);

	/* @@@TBD No pre-scan for now */

	/* Note: We assume consecutive VFs for a PF */
	for (i = 0; i < p_mngr->vf_count; i++) {
		cfg_word = 0;
		SET_FIELD(cfg_word, TM_CFG_NUM_IDS, tm_iids.per_vf_cids);
		SET_FIELD(cfg_word, TM_CFG_PRE_SCAN_OFFSET, 0);
		SET_FIELD(cfg_word, TM_CFG_PARENT_PF, p_hwfn->rel_pf_id);
		SET_FIELD(cfg_word, TM_CFG_CID_PRE_SCAN_ROWS, 0); /* scan all */

		rt_reg = TM_REG_CONFIG_CONN_MEM_RT_OFFSET +
			 (sizeof(cfg_word) / sizeof(u32)) *
			 (p_hwfn->p_dev->p_iov_info->first_vf_in_pf + i);
		STORE_RT_REG_AGG(p_hwfn, rt_reg, cfg_word);
	}

	cfg_word = 0;
	SET_FIELD(cfg_word, TM_CFG_NUM_IDS, tm_iids.pf_cids);
	SET_FIELD(cfg_word, TM_CFG_PRE_SCAN_OFFSET, 0);
	SET_FIELD(cfg_word, TM_CFG_PARENT_PF, 0);	  /* n/a for PF */
	SET_FIELD(cfg_word, TM_CFG_CID_PRE_SCAN_ROWS, 0); /* scan all   */

	rt_reg = TM_REG_CONFIG_CONN_MEM_RT_OFFSET +
		 (sizeof(cfg_word) / sizeof(u32)) *
		 (NUM_OF_VFS(p_hwfn->p_dev) + p_hwfn->rel_pf_id);
	STORE_RT_REG_AGG(p_hwfn, rt_reg, cfg_word);

	/* enale scan */
	STORE_RT_REG(p_hwfn, TM_REG_PF_ENABLE_CONN_RT_OFFSET,
		     tm_iids.pf_cids  ? 0x1 : 0x0);

	/* @@@TBD how to enable the scan for the VFs */

	tm_offset = tm_iids.per_vf_cids;

	/* Note: We assume consecutive VFs for a PF */
	for (i = 0; i < p_mngr->vf_count; i++) {
		cfg_word = 0;
		SET_FIELD(cfg_word, TM_CFG_NUM_IDS, tm_iids.per_vf_tids);
		SET_FIELD(cfg_word, TM_CFG_PRE_SCAN_OFFSET, 0);
		SET_FIELD(cfg_word, TM_CFG_PARENT_PF, p_hwfn->rel_pf_id);
		SET_FIELD(cfg_word, TM_CFG_TID_OFFSET, tm_offset);
		SET_FIELD(cfg_word, TM_CFG_TID_PRE_SCAN_ROWS, (u64)0);

		rt_reg = TM_REG_CONFIG_TASK_MEM_RT_OFFSET +
			 (sizeof(cfg_word) / sizeof(u32)) *
			 (p_hwfn->p_dev->p_iov_info->first_vf_in_pf + i);

		STORE_RT_REG_AGG(p_hwfn, rt_reg, cfg_word);
	}

	tm_offset = tm_iids.pf_cids;
	for (i = 0; i < NUM_TASK_PF_SEGMENTS; i++) {
		cfg_word = 0;
		SET_FIELD(cfg_word, TM_CFG_NUM_IDS, tm_iids.pf_tids[i]);
		SET_FIELD(cfg_word, TM_CFG_PRE_SCAN_OFFSET, 0);
		SET_FIELD(cfg_word, TM_CFG_PARENT_PF, 0);
		SET_FIELD(cfg_word, TM_CFG_TID_OFFSET, tm_offset);
		SET_FIELD(cfg_word, TM_CFG_TID_PRE_SCAN_ROWS, (u64)0);

		rt_reg = TM_REG_CONFIG_TASK_MEM_RT_OFFSET +
			 (sizeof(cfg_word) / sizeof(u32)) *
			 (NUM_OF_VFS(p_hwfn->p_dev) +
			 p_hwfn->rel_pf_id * NUM_TASK_PF_SEGMENTS + i);

		STORE_RT_REG_AGG(p_hwfn, rt_reg, cfg_word);
		active_seg_mask |= (tm_iids.pf_tids[i] ? (1 << i) : 0);

		tm_offset += tm_iids.pf_tids[i];
	}

	if (ECORE_IS_RDMA_PERSONALITY(p_hwfn))
		active_seg_mask = 0;

	STORE_RT_REG(p_hwfn, TM_REG_PF_ENABLE_TASK_RT_OFFSET, active_seg_mask);

	/* @@@TBD how to enable the scan for the VFs */
}

static void ecore_prs_init_common(struct ecore_hwfn *p_hwfn)
{
	if ((p_hwfn->hw_info.personality == ECORE_PCI_FCOE) &&
	    p_hwfn->pf_params.fcoe_pf_params.is_target)
		STORE_RT_REG(p_hwfn, PRS_REG_SEARCH_RESP_INITIATOR_TYPE_RT_OFFSET, 0);
}

static void ecore_prs_init_pf(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_conn_type_cfg *p_fcoe = &p_mngr->conn_cfg[PROTOCOLID_FCOE];
	struct ecore_tid_seg *p_tid;

	/* If FCoE is active set the MAX OX_ID (tid) in the Parser */
	if (!p_fcoe->cid_count)
		return;

	p_tid = &p_fcoe->tid_seg[ECORE_CXT_FCOE_TID_SEG];
	if (p_hwfn->pf_params.fcoe_pf_params.is_target) {
		STORE_RT_REG_AGG(p_hwfn,
				 PRS_REG_TASK_ID_MAX_TARGET_PF_RT_OFFSET,
				 p_tid->count);
	} else {
		STORE_RT_REG_AGG(p_hwfn,
				PRS_REG_TASK_ID_MAX_INITIATOR_PF_RT_OFFSET,
				p_tid->count);
	}
}

void ecore_cxt_hw_init_common(struct ecore_hwfn *p_hwfn)
{
	/* CDU configuration */
	ecore_cdu_init_common(p_hwfn);
	ecore_prs_init_common(p_hwfn);
}

void ecore_cxt_hw_init_pf(struct ecore_hwfn *p_hwfn)
{
	ecore_qm_init_pf(p_hwfn);
	ecore_cm_init_pf(p_hwfn);
	ecore_dq_init_pf(p_hwfn);
	ecore_cdu_init_pf(p_hwfn);
	ecore_ilt_init_pf(p_hwfn);
	ecore_src_init_pf(p_hwfn);
	ecore_tm_init_pf(p_hwfn);
	ecore_prs_init_pf(p_hwfn);
}

enum _ecore_status_t _ecore_cxt_acquire_cid(struct ecore_hwfn *p_hwfn,
					    enum protocol_type type,
					    u32 *p_cid, u8 vfid)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_cid_acquired_map *p_map;
	u32 rel_cid;

	if (type >= MAX_CONN_TYPES) {
		DP_NOTICE(p_hwfn, true, "Invalid protocol type %d", type);
		return ECORE_INVAL;
	}

	if (vfid >= COMMON_MAX_NUM_VFS && vfid != ECORE_CXT_PF_CID) {
		DP_NOTICE(p_hwfn, true, "VF [%02x] is out of range\n", vfid);
		return ECORE_INVAL;
	}

	/* Determine the right map to take this CID from */
	if (vfid == ECORE_CXT_PF_CID)
		p_map = &p_mngr->acquired[type];
	else
		p_map = &p_mngr->acquired_vf[type][vfid];

	if (p_map->cid_map == OSAL_NULL) {
		DP_NOTICE(p_hwfn, true, "Invalid protocol type %d", type);
		return ECORE_INVAL;
	}

	rel_cid = OSAL_FIND_FIRST_ZERO_BIT(p_map->cid_map,
					   p_map->max_count);

	if (rel_cid >= p_map->max_count) {
		DP_NOTICE(p_hwfn, false, "no CID available for protocol %d\n",
			  type);
		return ECORE_NORESOURCES;
	}

	OSAL_SET_BIT(rel_cid, p_map->cid_map);

	*p_cid = rel_cid + p_map->start_cid;

	DP_VERBOSE(p_hwfn, ECORE_MSG_CXT,
		   "Acquired cid 0x%08x [rel. %08x] vfid %02x type %d\n",
		   *p_cid, rel_cid, vfid, type);

	return ECORE_SUCCESS;
}

enum _ecore_status_t ecore_cxt_acquire_cid(struct ecore_hwfn *p_hwfn,
					   enum protocol_type type,
					   u32 *p_cid)
{
	return _ecore_cxt_acquire_cid(p_hwfn, type, p_cid, ECORE_CXT_PF_CID);
}

static bool ecore_cxt_test_cid_acquired(struct ecore_hwfn *p_hwfn,
					u32 cid, u8 vfid,
					enum protocol_type *p_type,
					struct ecore_cid_acquired_map **pp_map)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 rel_cid;

	/* Iterate over protocols and find matching cid range */
	for (*p_type = 0; *p_type < MAX_CONN_TYPES; (*p_type)++) {
		if (vfid == ECORE_CXT_PF_CID)
			*pp_map = &p_mngr->acquired[*p_type];
		else
			*pp_map = &p_mngr->acquired_vf[*p_type][vfid];

		if (!((*pp_map)->cid_map))
			continue;
		if (cid >= (*pp_map)->start_cid &&
		    cid < (*pp_map)->start_cid + (*pp_map)->max_count) {
			break;
		}
	}

	if (*p_type == MAX_CONN_TYPES) {
		DP_NOTICE(p_hwfn, true, "Invalid CID %d vfid %02x", cid, vfid);
		goto fail;
	}

	rel_cid = cid - (*pp_map)->start_cid;
	if (!OSAL_TEST_BIT(rel_cid, (*pp_map)->cid_map)) {
		DP_NOTICE(p_hwfn, true,
			  "CID %d [vifd %02x] not acquired", cid, vfid);
		goto fail;
	}

	return true;
fail:
	*p_type = MAX_CONN_TYPES;
	*pp_map = OSAL_NULL;
	return false;
}

void _ecore_cxt_release_cid(struct ecore_hwfn *p_hwfn, u32 cid, u8 vfid)
{
	struct ecore_cid_acquired_map *p_map = OSAL_NULL;
	enum protocol_type type;
	bool b_acquired;
	u32 rel_cid;

	if (vfid != ECORE_CXT_PF_CID && vfid > COMMON_MAX_NUM_VFS) {
		DP_NOTICE(p_hwfn, true,
			  "Trying to return incorrect CID belonging to VF %02x\n",
			  vfid);
		return;
	}

	/* Test acquired and find matching per-protocol map */
	b_acquired = ecore_cxt_test_cid_acquired(p_hwfn, cid, vfid,
						 &type, &p_map);

	if (!b_acquired)
		return;

	rel_cid = cid - p_map->start_cid;
	OSAL_CLEAR_BIT(rel_cid, p_map->cid_map);

	DP_VERBOSE(p_hwfn, ECORE_MSG_CXT,
		   "Released CID 0x%08x [rel. %08x] vfid %02x type %d\n",
		   cid, rel_cid, vfid, type);
}

void ecore_cxt_release_cid(struct ecore_hwfn *p_hwfn, u32 cid)
{
	_ecore_cxt_release_cid(p_hwfn, cid, ECORE_CXT_PF_CID);
}

enum _ecore_status_t ecore_cxt_get_cid_info(struct ecore_hwfn *p_hwfn,
					    struct ecore_cxt_info *p_info)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_cid_acquired_map *p_map = OSAL_NULL;
	u32 conn_cxt_size, hw_p_size, cxts_per_p, line;
	enum protocol_type type;
	bool b_acquired;

	/* Test acquired and find matching per-protocol map */
	b_acquired = ecore_cxt_test_cid_acquired(p_hwfn, p_info->iid,
						 ECORE_CXT_PF_CID,
						 &type, &p_map);

	if (!b_acquired)
		return ECORE_INVAL;

	/* set the protocl type */
	p_info->type = type;

	/* compute context virtual pointer */
	hw_p_size = p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC].p_size.val;

	conn_cxt_size = CONN_CXT_SIZE(p_hwfn);
	cxts_per_p = ILT_PAGE_IN_BYTES(hw_p_size) / conn_cxt_size;
	line = p_info->iid / cxts_per_p;

	/* Make sure context is allocated (dynamic allocation) */
	if (!p_mngr->ilt_shadow[line].p_virt)
		return ECORE_INVAL;

	p_info->p_cxt = (u8 *)p_mngr->ilt_shadow[line].p_virt +
			      p_info->iid % cxts_per_p * conn_cxt_size;

	DP_VERBOSE(p_hwfn, (ECORE_MSG_ILT | ECORE_MSG_CXT),
		   "Accessing ILT shadow[%d]: CXT pointer is at %p (for iid %d)\n",
		   (p_info->iid / cxts_per_p), p_info->p_cxt, p_info->iid);

	return ECORE_SUCCESS;
}

static void ecore_cxt_set_srq_count(struct ecore_hwfn *p_hwfn, u32 num_srqs)
{
	struct ecore_cxt_mngr *p_mgr = p_hwfn->p_cxt_mngr;

	p_mgr->srq_count = num_srqs;
}

u32 ecore_cxt_get_srq_count(struct ecore_hwfn *p_hwfn)
{
	struct ecore_cxt_mngr *p_mgr = p_hwfn->p_cxt_mngr;

	return p_mgr->srq_count;
}

static void ecore_rdma_set_pf_params(struct ecore_hwfn *p_hwfn,
				     struct ecore_rdma_pf_params *p_params,
				     u32 num_tasks)
{
	u32 num_cons, num_qps, num_srqs;
	enum protocol_type proto;

	/* Override personality with rdma flavor */
	num_srqs = OSAL_MIN_T(u32, ECORE_RDMA_MAX_SRQS, p_params->num_srqs);

	/* The only case RDMA personality can be overriden is if NVRAM is
	 * configured with ETH_RDMA or if no rdma protocol was requested
	 */
	switch (p_params->rdma_protocol) {
	case ECORE_RDMA_PROTOCOL_DEFAULT:
		if (p_hwfn->mcp_info->func_info.protocol ==
		    ECORE_PCI_ETH_RDMA) {
			DP_NOTICE(p_hwfn, false,
				  "Current day drivers don't support RoCE & iWARP. Default to RoCE-only\n");
			p_hwfn->hw_info.personality = ECORE_PCI_ETH_ROCE;
		}
		break;
	case ECORE_RDMA_PROTOCOL_NONE:
		p_hwfn->hw_info.personality = ECORE_PCI_ETH;
		return; /* intentional... nothing left to do... */
	case ECORE_RDMA_PROTOCOL_ROCE:
		if (p_hwfn->mcp_info->func_info.protocol == ECORE_PCI_ETH_RDMA)
			p_hwfn->hw_info.personality = ECORE_PCI_ETH_ROCE;
		break;
	case ECORE_RDMA_PROTOCOL_IWARP:
		if (p_hwfn->mcp_info->func_info.protocol == ECORE_PCI_ETH_RDMA)
			p_hwfn->hw_info.personality = ECORE_PCI_ETH_IWARP;
		break;
	}

	switch (p_hwfn->hw_info.personality) {
	case ECORE_PCI_ETH_IWARP:
		/* Each QP requires one connection */
		num_cons = OSAL_MIN_T(u32, IWARP_MAX_QPS, p_params->num_qps);
#ifdef CONFIG_ECORE_IWARP /* required for the define */
		/* additional connections required for passive tcp handling */
		num_cons += ECORE_IWARP_PREALLOC_CNT;
#endif
		proto = PROTOCOLID_IWARP;
		p_params->roce_edpm_mode = false;
		break;
	case ECORE_PCI_ETH_ROCE:
		num_qps = OSAL_MIN_T(u32, ROCE_MAX_QPS, p_params->num_qps);
		num_cons = num_qps * 2; /* each QP requires two connections */
		proto = PROTOCOLID_ROCE;
		break;
	default:
		return;
	}

	if (num_cons && num_tasks) {
		ecore_cxt_set_proto_cid_count(p_hwfn, proto,
					      num_cons, 0);

		/* Deliberatly passing ROCE for tasks id. This is because
		 * iWARP / RoCE share the task id.
		 */
		ecore_cxt_set_proto_tid_count(p_hwfn, PROTOCOLID_ROCE,
					      ECORE_CXT_ROCE_TID_SEG,
					      1, /* RoCE segment type */
					      num_tasks,
					      false); /* !force load */
		ecore_cxt_set_srq_count(p_hwfn, num_srqs);

	} else {
		DP_INFO(p_hwfn->p_dev,
			"RDMA personality used without setting params!\n");
	}
}

enum _ecore_status_t ecore_cxt_set_pf_params(struct ecore_hwfn *p_hwfn,
					     u32 rdma_tasks)
{
	/* Set the number of required CORE connections */
	u32 core_cids = 1; /* SPQ */

	if (p_hwfn->using_ll2)
		core_cids += 4; /* @@@TBD Use the proper #define */

	ecore_cxt_set_proto_cid_count(p_hwfn, PROTOCOLID_CORE, core_cids, 0);

	switch (p_hwfn->hw_info.personality) {
	case ECORE_PCI_ETH_RDMA:
	case ECORE_PCI_ETH_IWARP:
	case ECORE_PCI_ETH_ROCE:
		ecore_rdma_set_pf_params(p_hwfn,
					 &p_hwfn->pf_params.rdma_pf_params,
					 rdma_tasks);

		/* no need for break since RoCE coexist with Ethernet */
		/* FALLTHROUGH */
	case ECORE_PCI_ETH:
	{
		struct ecore_eth_pf_params *p_params =
					&p_hwfn->pf_params.eth_pf_params;

		if (!p_params->num_vf_cons)
			p_params->num_vf_cons = ETH_PF_PARAMS_VF_CONS_DEFAULT;
		ecore_cxt_set_proto_cid_count(p_hwfn, PROTOCOLID_ETH,
					      p_params->num_cons,
					      p_params->num_vf_cons);
		p_hwfn->p_cxt_mngr->arfs_count = p_params->num_arfs_filters;

		break;
	}
	case ECORE_PCI_FCOE:
	{
		struct ecore_fcoe_pf_params *p_params;

		p_params = &p_hwfn->pf_params.fcoe_pf_params;

		if (p_params->num_cons && p_params->num_tasks) {
			ecore_cxt_set_proto_cid_count(p_hwfn, PROTOCOLID_FCOE,
						      p_params->num_cons, 0);

			ecore_cxt_set_proto_tid_count(p_hwfn, PROTOCOLID_FCOE,
						      ECORE_CXT_FCOE_TID_SEG,
						      0, /* segment type */
						      p_params->num_tasks,
						      true);
		} else {
			DP_INFO(p_hwfn->p_dev,
				"Fcoe personality used without setting params!\n");
		}
		break;
	}
	case ECORE_PCI_ISCSI:
	{
		struct ecore_iscsi_pf_params *p_params;

		p_params = &p_hwfn->pf_params.iscsi_pf_params;

		if (p_params->num_cons && p_params->num_tasks) {
			ecore_cxt_set_proto_cid_count(p_hwfn, PROTOCOLID_ISCSI,
						      p_params->num_cons, 0);

			ecore_cxt_set_proto_tid_count(p_hwfn, PROTOCOLID_ISCSI,
						      ECORE_CXT_ISCSI_TID_SEG,
						      0, /* segment type */
						      p_params->num_tasks,
						      true);
		} else {
			DP_INFO(p_hwfn->p_dev,
				"Iscsi personality used without setting params!\n");
		}
		break;
	}
	default:
		return ECORE_INVAL;
	}

	return ECORE_SUCCESS;
}

enum _ecore_status_t ecore_cxt_get_tid_mem_info(struct ecore_hwfn *p_hwfn,
						struct ecore_tid_mem *p_info)
{
	struct ecore_cxt_mngr *p_mngr = p_hwfn->p_cxt_mngr;
	u32 proto, seg, total_lines, i, shadow_line;
	struct ecore_ilt_client_cfg *p_cli;
	struct ecore_ilt_cli_blk *p_fl_seg;
	struct ecore_tid_seg *p_seg_info;

	/* Verify the personality */
	switch (p_hwfn->hw_info.personality) {
	case ECORE_PCI_FCOE:
		proto = PROTOCOLID_FCOE;
		seg = ECORE_CXT_FCOE_TID_SEG;
		break;
	case ECORE_PCI_ISCSI:
		proto = PROTOCOLID_ISCSI;
		seg = ECORE_CXT_ISCSI_TID_SEG;
		break;
	default:
		return ECORE_INVAL;
	}

	p_cli = &p_mngr->clients[ILT_CLI_CDUT];
	if (!p_cli->active) {
		return ECORE_INVAL;
	}

	p_seg_info = &p_mngr->conn_cfg[proto].tid_seg[seg];
	if (!p_seg_info->has_fl_mem)
		return ECORE_INVAL;

	p_fl_seg = &p_cli->pf_blks[CDUT_FL_SEG_BLK(seg, PF)];
	total_lines = DIV_ROUND_UP(p_fl_seg->total_size,
				   p_fl_seg->real_size_in_page);

	for (i = 0; i < total_lines; i++) {
		shadow_line = i + p_fl_seg->start_line -
			      p_hwfn->p_cxt_mngr->pf_start_line;
		p_info->blocks[i] = p_mngr->ilt_shadow[shadow_line].p_virt;
	}
	p_info->waste = ILT_PAGE_IN_BYTES(p_cli->p_size.val) -
			p_fl_seg->real_size_in_page;
	p_info->tid_size = p_mngr->task_type_size[p_seg_info->type];
	p_info->num_tids_per_block = p_fl_seg->real_size_in_page /
				     p_info->tid_size;

	return ECORE_SUCCESS;
}

/* This function is very RoCE oriented, if another protocol in the future
 * will want this feature we'll need to modify the function to be more generic
 */
enum _ecore_status_t
ecore_cxt_dynamic_ilt_alloc(struct ecore_hwfn *p_hwfn,
			    enum ecore_cxt_elem_type elem_type,
			    u32 iid)
{
	u32 reg_offset, shadow_line, elem_size, hw_p_size, elems_per_p, line;
	struct ecore_ilt_client_cfg *p_cli;
	struct ecore_ilt_cli_blk *p_blk;
	struct ecore_ptt *p_ptt;
	dma_addr_t p_phys;
	u64 ilt_hw_entry;
	void *p_virt;
	enum _ecore_status_t rc = ECORE_SUCCESS;

	switch (elem_type) {
	case ECORE_ELEM_CXT:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC];
		elem_size = CONN_CXT_SIZE(p_hwfn);
		p_blk = &p_cli->pf_blks[CDUC_BLK];
		break;
	case ECORE_ELEM_SRQ:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_TSDM];
		elem_size = SRQ_CXT_SIZE;
		p_blk = &p_cli->pf_blks[SRQ_BLK];
		break;
	case ECORE_ELEM_TASK:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUT];
		elem_size = TYPE1_TASK_CXT_SIZE(p_hwfn);
		p_blk = &p_cli->pf_blks[CDUT_SEG_BLK(ECORE_CXT_ROCE_TID_SEG)];
		break;
	default:
		DP_NOTICE(p_hwfn, false,
			  "ECORE_INVALID elem type = %d", elem_type);
		return ECORE_INVAL;
	}

	/* Calculate line in ilt */
	hw_p_size = p_cli->p_size.val;
	elems_per_p = ILT_PAGE_IN_BYTES(hw_p_size) / elem_size;
	line = p_blk->start_line + (iid / elems_per_p);
	shadow_line = line - p_hwfn->p_cxt_mngr->pf_start_line;

	/* If line is already allocated, do nothing, otherwise allocate it and
	 * write it to the PSWRQ2 registers.
	 * This section can be run in parallel from different contexts and thus
	 * a mutex protection is needed.
	 */

	OSAL_MUTEX_ACQUIRE(&p_hwfn->p_cxt_mngr->mutex);

	if (p_hwfn->p_cxt_mngr->ilt_shadow[shadow_line].p_virt)
		goto out0;

	p_ptt = ecore_ptt_acquire(p_hwfn);
	if (!p_ptt) {
		DP_NOTICE(p_hwfn, false,
			  "ECORE_TIME_OUT on ptt acquire - dynamic allocation");
		rc = ECORE_TIMEOUT;
		goto out0;
	}

	p_virt = OSAL_DMA_ALLOC_COHERENT(p_hwfn->p_dev,
					 &p_phys,
					 p_blk->real_size_in_page);
	if (!p_virt) {
		rc = ECORE_NOMEM;
		goto out1;
	}
	OSAL_MEM_ZERO(p_virt, p_blk->real_size_in_page);

	/* configuration of refTagMask to 0xF is required for RoCE DIF MR only,
	 * to compensate for a HW bug, but it is configured even if DIF is not
	 * enabled. This is harmless and allows us to avoid a dedicated API. We
	 * configure the field for all of the contexts on the newly allocated
	 * page.
	 */
	if (elem_type == ECORE_ELEM_TASK) {
		u32 elem_i;
		u8 *elem_start = (u8 *)p_virt;
		union type1_task_context *elem;

		for (elem_i = 0; elem_i < elems_per_p; elem_i++) {
			elem = (union type1_task_context *)elem_start;
			SET_FIELD(elem->roce_ctx.tdif_context.flags1,
				  TDIF_TASK_CONTEXT_REFTAGMASK , 0xf);
			elem_start += TYPE1_TASK_CXT_SIZE(p_hwfn);
		}
	}

	p_hwfn->p_cxt_mngr->ilt_shadow[shadow_line].p_virt = p_virt;
	p_hwfn->p_cxt_mngr->ilt_shadow[shadow_line].p_phys = p_phys;
	p_hwfn->p_cxt_mngr->ilt_shadow[shadow_line].size =
		p_blk->real_size_in_page;

	/* compute absolute offset */
	reg_offset = PSWRQ2_REG_ILT_MEMORY +
		     (line * ILT_REG_SIZE_IN_BYTES * ILT_ENTRY_IN_REGS);

	ilt_hw_entry = 0;
	SET_FIELD(ilt_hw_entry, ILT_ENTRY_VALID, 1ULL);
	SET_FIELD(ilt_hw_entry,
		  ILT_ENTRY_PHY_ADDR,
		  (p_hwfn->p_cxt_mngr->ilt_shadow[shadow_line].p_phys >> 12));

	/* Write via DMAE since the PSWRQ2_REG_ILT_MEMORY line is a wide-bus */
	ecore_dmae_host2grc(p_hwfn, p_ptt, (u64)(osal_uintptr_t)&ilt_hw_entry,
			    reg_offset, sizeof(ilt_hw_entry) / sizeof(u32),
			    0 /* no flags */);

	if (elem_type == ECORE_ELEM_CXT) {
		u32 last_cid_allocated = (1 + (iid / elems_per_p)) *
					 elems_per_p;

		/* Update the relevant register in the parser */
		ecore_wr(p_hwfn, p_ptt, PRS_REG_ROCE_DEST_QP_MAX_PF,
			 last_cid_allocated - 1);

		/* RoCE w/a -> we don't write to the prs search reg until first
		 * cid is allocated. This is because the prs checks
		 * last_cid-1 >=0 making 0 a valid value... this will cause
		 * the a context load to occur on a RoCE packet received with
		 * cid=0 even before context was initialized, can happen with a
		 * stray packet from switch or a packet with crc-error
		 */

		if (!p_hwfn->b_rdma_enabled_in_prs) {
			/* Enable Rdma search */
			ecore_wr(p_hwfn, p_ptt, p_hwfn->rdma_prs_search_reg, 1);
			p_hwfn->b_rdma_enabled_in_prs = true;
		}
	}

out1:
	ecore_ptt_release(p_hwfn, p_ptt);
out0:
	OSAL_MUTEX_RELEASE(&p_hwfn->p_cxt_mngr->mutex);

	return rc;
}

/* This function is very RoCE oriented, if another protocol in the future
 * will want this feature we'll need to modify the function to be more generic
 */
enum _ecore_status_t
ecore_cxt_free_ilt_range(struct ecore_hwfn *p_hwfn,
			 enum ecore_cxt_elem_type elem_type,
			 u32 start_iid, u32 count)
{
	u32 start_line, end_line, shadow_start_line, shadow_end_line;
	u32 reg_offset, elem_size, hw_p_size, elems_per_p;
	struct ecore_ilt_client_cfg *p_cli;
	struct ecore_ilt_cli_blk *p_blk;
	u32 end_iid = start_iid + count;
	struct ecore_ptt *p_ptt;
	u64 ilt_hw_entry = 0;
	u32 i;

	switch (elem_type) {
	case ECORE_ELEM_CXT:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUC];
		elem_size = CONN_CXT_SIZE(p_hwfn);
		p_blk = &p_cli->pf_blks[CDUC_BLK];
		break;
	case ECORE_ELEM_SRQ:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_TSDM];
		elem_size = SRQ_CXT_SIZE;
		p_blk = &p_cli->pf_blks[SRQ_BLK];
		break;
	case ECORE_ELEM_TASK:
		p_cli = &p_hwfn->p_cxt_mngr->clients[ILT_CLI_CDUT];
		elem_size = TYPE1_TASK_CXT_SIZE(p_hwfn);
		p_blk = &p_cli->pf_blks[CDUT_SEG_BLK(ECORE_CXT_ROCE_TID_SEG)];
		break;
	default:
		DP_NOTICE(p_hwfn, false,
			  "ECORE_INVALID elem type = %d", elem_type);
		return ECORE_INVAL;
	}

	/* Calculate line in ilt */
	hw_p_size = p_cli->p_size.val;
	elems_per_p = ILT_PAGE_IN_BYTES(hw_p_size) / elem_size;
	start_line = p_blk->start_line + (start_iid / elems_per_p);
	end_line = p_blk->start_line + (end_iid / elems_per_p);
	if (((end_iid + 1) / elems_per_p) != (end_iid / elems_per_p))
		end_line--;

	shadow_start_line = start_line - p_hwfn->p_cxt_mngr->pf_start_line;
	shadow_end_line = end_line - p_hwfn->p_cxt_mngr->pf_start_line;

	p_ptt = ecore_ptt_acquire(p_hwfn);
	if (!p_ptt) {
		DP_NOTICE(p_hwfn, false, "ECORE_TIME_OUT on ptt acquire - dynamic allocation");
		return ECORE_TIMEOUT;
	}

	for (i = shadow_start_line; i < shadow_end_line; i++) {
		if (!p_hwfn->p_cxt_mngr->ilt_shadow[i].p_virt)
			continue;

		OSAL_DMA_FREE_COHERENT(p_hwfn->p_dev,
				       p_hwfn->p_cxt_mngr->ilt_shadow[i].p_virt,
				       p_hwfn->p_cxt_mngr->ilt_shadow[i].p_phys,
				       p_hwfn->p_cxt_mngr->ilt_shadow[i].size);

		p_hwfn->p_cxt_mngr->ilt_shadow[i].p_virt = OSAL_NULL;
		p_hwfn->p_cxt_mngr->ilt_shadow[i].p_phys = 0;
		p_hwfn->p_cxt_mngr->ilt_shadow[i].size = 0;

		/* compute absolute offset */
		reg_offset = PSWRQ2_REG_ILT_MEMORY +
			     ((start_line++) * ILT_REG_SIZE_IN_BYTES *
			      ILT_ENTRY_IN_REGS);

		/* Write via DMAE since the PSWRQ2_REG_ILT_MEMORY line is a
		 * wide-bus.
		 */
		ecore_dmae_host2grc(p_hwfn, p_ptt,
				    (u64)(osal_uintptr_t)&ilt_hw_entry,
				    reg_offset,
				    sizeof(ilt_hw_entry) / sizeof(u32),
				    0 /* no flags */);
	}

	ecore_ptt_release(p_hwfn, p_ptt);

	return ECORE_SUCCESS;
}

enum _ecore_status_t ecore_cxt_get_task_ctx(struct ecore_hwfn *p_hwfn,
					    u32 tid,
					    u8 ctx_type,
					    void **pp_task_ctx)
{
	struct ecore_cxt_mngr		*p_mngr = p_hwfn->p_cxt_mngr;
	struct ecore_ilt_client_cfg     *p_cli;
	struct ecore_ilt_cli_blk	*p_seg;
	struct ecore_tid_seg		*p_seg_info;
	u32				proto, seg;
	u32				total_lines;
	u32				tid_size, ilt_idx;
	u32				num_tids_per_block;

	/* Verify the personality */
	switch (p_hwfn->hw_info.personality) {
	case ECORE_PCI_FCOE:
		proto = PROTOCOLID_FCOE;
		seg = ECORE_CXT_FCOE_TID_SEG;
		break;
	case ECORE_PCI_ISCSI:
		proto = PROTOCOLID_ISCSI;
		seg = ECORE_CXT_ISCSI_TID_SEG;
		break;
	default:
		return ECORE_INVAL;
	}

	p_cli = &p_mngr->clients[ILT_CLI_CDUT];
	if (!p_cli->active) {
		return ECORE_INVAL;
	}

	p_seg_info = &p_mngr->conn_cfg[proto].tid_seg[seg];

	if (ctx_type == ECORE_CTX_WORKING_MEM) {
		p_seg = &p_cli->pf_blks[CDUT_SEG_BLK(seg)];
	} else if (ctx_type == ECORE_CTX_FL_MEM) {
		if (!p_seg_info->has_fl_mem) {
			return ECORE_INVAL;
		}
		p_seg = &p_cli->pf_blks[CDUT_FL_SEG_BLK(seg, PF)];
	} else {
		return ECORE_INVAL;
	}
	total_lines = DIV_ROUND_UP(p_seg->total_size,
				   p_seg->real_size_in_page);
	tid_size = p_mngr->task_type_size[p_seg_info->type];
	num_tids_per_block = p_seg->real_size_in_page / tid_size;

	if (total_lines < tid/num_tids_per_block)
		return ECORE_INVAL;

	ilt_idx = tid / num_tids_per_block + p_seg->start_line -
		  p_mngr->pf_start_line;
	*pp_task_ctx = (u8 *)p_mngr->ilt_shadow[ilt_idx].p_virt +
			     (tid % num_tids_per_block) * tid_size;

	return ECORE_SUCCESS;
}