drivers/soc/fsl/dpio/qbman-portal.h - linux - Git at Google

 /* SPDX-License-Identifier: (GPL-2.0+ OR BSD-3-Clause) */
 /*
  * Copyright (C) 2014-2016 Freescale Semiconductor, Inc.
  * Copyright 2016-2019 NXP
  *
  */
 #ifndef __FSL_QBMAN_PORTAL_H
 #define __FSL_QBMAN_PORTAL_H

 #include <soc/fsl/dpaa2-fd.h>

 struct dpaa2_dq;
 struct qbman_swp;

 /* qbman software portal descriptor structure */
 struct qbman_swp_desc {
 	void *cena_bar; /* Cache-enabled portal base address */
 	void __iomem *cinh_bar; /* Cache-inhibited portal base address */
 	u32 qman_version;
 };

 #define QBMAN_SWP_INTERRUPT_EQRI 0x01
 #define QBMAN_SWP_INTERRUPT_EQDI 0x02
 #define QBMAN_SWP_INTERRUPT_DQRI 0x04
 #define QBMAN_SWP_INTERRUPT_RCRI 0x08
 #define QBMAN_SWP_INTERRUPT_RCDI 0x10
 #define QBMAN_SWP_INTERRUPT_VDCI 0x20

 /* the structure for pull dequeue descriptor */
 struct qbman_pull_desc {
 	u8 verb;
 	u8 numf;
 	u8 tok;
 	u8 reserved;
 	__le32 dq_src;
 	__le64 rsp_addr;
 	u64 rsp_addr_virt;
 	u8 padding[40];
 };

 enum qbman_pull_type_e {
 	/* dequeue with priority precedence, respect intra-class scheduling */
 	qbman_pull_type_prio = 1,
 	/* dequeue with active FQ precedence, respect ICS */
 	qbman_pull_type_active,
 	/* dequeue with active FQ precedence, no ICS */
 	qbman_pull_type_active_noics
 };

 /* Definitions for parsing dequeue entries */
 #define QBMAN_RESULT_MASK      0x7f
 #define QBMAN_RESULT_DQ        0x60
 #define QBMAN_RESULT_FQRN      0x21
 #define QBMAN_RESULT_FQRNI     0x22
 #define QBMAN_RESULT_FQPN      0x24
 #define QBMAN_RESULT_FQDAN     0x25
 #define QBMAN_RESULT_CDAN      0x26
 #define QBMAN_RESULT_CSCN_MEM  0x27
 #define QBMAN_RESULT_CGCU      0x28
 #define QBMAN_RESULT_BPSCN     0x29
 #define QBMAN_RESULT_CSCN_WQ   0x2a

 /* QBMan FQ management command codes */
 #define QBMAN_FQ_SCHEDULE	0x48
 #define QBMAN_FQ_FORCE		0x49
 #define QBMAN_FQ_XON		0x4d
 #define QBMAN_FQ_XOFF		0x4e

 /* structure of enqueue descriptor */
 struct qbman_eq_desc {
 	u8 verb;
 	u8 dca;
 	__le16 seqnum;
 	__le16 orpid;
 	__le16 reserved1;
 	__le32 tgtid;
 	__le32 tag;
 	__le16 qdbin;
 	u8 qpri;
 	u8 reserved[3];
 	u8 wae;
 	u8 rspid;
 	__le64 rsp_addr;
 	u8 fd[32];
 };

 /* buffer release descriptor */
 struct qbman_release_desc {
 	u8 verb;
 	u8 reserved;
 	__le16 bpid;
 	__le32 reserved2;
 	__le64 buf[7];
 };

 /* Management command result codes */
 #define QBMAN_MC_RSLT_OK      0xf0

 #define CODE_CDAN_WE_EN    0x1
 #define CODE_CDAN_WE_CTX   0x4

 /* portal data structure */
 struct qbman_swp {
 	const struct qbman_swp_desc *desc;
 	void *addr_cena;
 	void __iomem *addr_cinh;

 	/* Management commands */
 	struct {
 		u32 valid_bit; /* 0x00 or 0x80 */
 	} mc;

 	/* Management response */
 	struct {
 		u32 valid_bit; /* 0x00 or 0x80 */
 	} mr;

 	/* Push dequeues */
 	u32 sdq;

 	/* Volatile dequeues */
 	struct {
 		atomic_t available; /* indicates if a command can be sent */
 		u32 valid_bit; /* 0x00 or 0x80 */
 		struct dpaa2_dq *storage; /* NULL if DQRR */
 	} vdq;

 	/* DQRR */
 	struct {
 		u32 next_idx;
 		u32 valid_bit;
 		u8 dqrr_size;
 		int reset_bug; /* indicates dqrr reset workaround is needed */
 	} dqrr;
 };

 struct qbman_swp *qbman_swp_init(const struct qbman_swp_desc *d);
 void qbman_swp_finish(struct qbman_swp *p);
 u32 qbman_swp_interrupt_read_status(struct qbman_swp *p);
 void qbman_swp_interrupt_clear_status(struct qbman_swp *p, u32 mask);
 u32 qbman_swp_interrupt_get_trigger(struct qbman_swp *p);
 void qbman_swp_interrupt_set_trigger(struct qbman_swp *p, u32 mask);
 int qbman_swp_interrupt_get_inhibit(struct qbman_swp *p);
 void qbman_swp_interrupt_set_inhibit(struct qbman_swp *p, int inhibit);

 void qbman_swp_push_get(struct qbman_swp *p, u8 channel_idx, int *enabled);
 void qbman_swp_push_set(struct qbman_swp *p, u8 channel_idx, int enable);

 void qbman_pull_desc_clear(struct qbman_pull_desc *d);
 void qbman_pull_desc_set_storage(struct qbman_pull_desc *d,
 				 struct dpaa2_dq *storage,
 				 dma_addr_t storage_phys,
 				 int stash);
 void qbman_pull_desc_set_numframes(struct qbman_pull_desc *d, u8 numframes);
 void qbman_pull_desc_set_fq(struct qbman_pull_desc *d, u32 fqid);
 void qbman_pull_desc_set_wq(struct qbman_pull_desc *d, u32 wqid,
 			    enum qbman_pull_type_e dct);
 void qbman_pull_desc_set_channel(struct qbman_pull_desc *d, u32 chid,
 				 enum qbman_pull_type_e dct);

 int qbman_swp_pull(struct qbman_swp *p, struct qbman_pull_desc *d);

 const struct dpaa2_dq *qbman_swp_dqrr_next(struct qbman_swp *s);
 void qbman_swp_dqrr_consume(struct qbman_swp *s, const struct dpaa2_dq *dq);

 int qbman_result_has_new_result(struct qbman_swp *p, const struct dpaa2_dq *dq);

 void qbman_eq_desc_clear(struct qbman_eq_desc *d);
 void qbman_eq_desc_set_no_orp(struct qbman_eq_desc *d, int respond_success);
 void qbman_eq_desc_set_token(struct qbman_eq_desc *d, u8 token);
 void qbman_eq_desc_set_fq(struct qbman_eq_desc *d, u32 fqid);
 void qbman_eq_desc_set_qd(struct qbman_eq_desc *d, u32 qdid,
 			  u32 qd_bin, u32 qd_prio);

 int qbman_swp_enqueue(struct qbman_swp *p, const struct qbman_eq_desc *d,
 		      const struct dpaa2_fd *fd);

 void qbman_release_desc_clear(struct qbman_release_desc *d);
 void qbman_release_desc_set_bpid(struct qbman_release_desc *d, u16 bpid);
 void qbman_release_desc_set_rcdi(struct qbman_release_desc *d, int enable);

 int qbman_swp_release(struct qbman_swp *s, const struct qbman_release_desc *d,
 		      const u64 *buffers, unsigned int num_buffers);
 int qbman_swp_acquire(struct qbman_swp *s, u16 bpid, u64 *buffers,
 		      unsigned int num_buffers);
 int qbman_swp_alt_fq_state(struct qbman_swp *s, u32 fqid,
 			   u8 alt_fq_verb);
 int qbman_swp_CDAN_set(struct qbman_swp *s, u16 channelid,
 		       u8 we_mask, u8 cdan_en,
 		       u64 ctx);

 void *qbman_swp_mc_start(struct qbman_swp *p);
 void qbman_swp_mc_submit(struct qbman_swp *p, void *cmd, u8 cmd_verb);
 void *qbman_swp_mc_result(struct qbman_swp *p);

 /**
  * qbman_result_is_DQ() - check if the dequeue result is a dequeue response
  * @dq: the dequeue result to be checked
  *
  * DQRR entries may contain non-dequeue results, ie. notifications
  */
 static inline int qbman_result_is_DQ(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_DQ);
 }

 /**
  * qbman_result_is_SCN() - Check the dequeue result is notification or not
  * @dq: the dequeue result to be checked
  *
  */
 static inline int qbman_result_is_SCN(const struct dpaa2_dq *dq)
 {
 	return !qbman_result_is_DQ(dq);
 }

 /* FQ Data Availability */
 static inline int qbman_result_is_FQDAN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQDAN);
 }

 /* Channel Data Availability */
 static inline int qbman_result_is_CDAN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CDAN);
 }

 /* Congestion State Change */
 static inline int qbman_result_is_CSCN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CSCN_WQ);
 }

 /* Buffer Pool State Change */
 static inline int qbman_result_is_BPSCN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_BPSCN);
 }

 /* Congestion Group Count Update */
 static inline int qbman_result_is_CGCU(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CGCU);
 }

 /* Retirement */
 static inline int qbman_result_is_FQRN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQRN);
 }

 /* Retirement Immediate */
 static inline int qbman_result_is_FQRNI(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQRNI);
 }

  /* Park */
 static inline int qbman_result_is_FQPN(const struct dpaa2_dq *dq)
 {
 	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQPN);
 }

 /**
  * qbman_result_SCN_state() - Get the state field in State-change notification
  */
 static inline u8 qbman_result_SCN_state(const struct dpaa2_dq *scn)
 {
 	return scn->scn.state;
 }

 #define SCN_RID_MASK 0x00FFFFFF

 /**
  * qbman_result_SCN_rid() - Get the resource id in State-change notification
  */
 static inline u32 qbman_result_SCN_rid(const struct dpaa2_dq *scn)
 {
 	return le32_to_cpu(scn->scn.rid_tok) & SCN_RID_MASK;
 }

 /**
  * qbman_result_SCN_ctx() - Get the context data in State-change notification
  */
 static inline u64 qbman_result_SCN_ctx(const struct dpaa2_dq *scn)
 {
 	return le64_to_cpu(scn->scn.ctx);
 }

 /**
  * qbman_swp_fq_schedule() - Move the fq to the scheduled state
  * @s:    the software portal object
  * @fqid: the index of frame queue to be scheduled
  *
  * There are a couple of different ways that a FQ can end up parked state,
  * This schedules it.
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_fq_schedule(struct qbman_swp *s, u32 fqid)
 {
 	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_SCHEDULE);
 }

 /**
  * qbman_swp_fq_force() - Force the FQ to fully scheduled state
  * @s:    the software portal object
  * @fqid: the index of frame queue to be forced
  *
  * Force eligible will force a tentatively-scheduled FQ to be fully-scheduled
  * and thus be available for selection by any channel-dequeuing behaviour (push
  * or pull). If the FQ is subsequently "dequeued" from the channel and is still
  * empty at the time this happens, the resulting dq_entry will have no FD.
  * (qbman_result_DQ_fd() will return NULL.)
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_fq_force(struct qbman_swp *s, u32 fqid)
 {
 	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_FORCE);
 }

 /**
  * qbman_swp_fq_xon() - sets FQ flow-control to XON
  * @s:    the software portal object
  * @fqid: the index of frame queue
  *
  * This setting doesn't affect enqueues to the FQ, just dequeues.
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_fq_xon(struct qbman_swp *s, u32 fqid)
 {
 	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_XON);
 }

 /**
  * qbman_swp_fq_xoff() - sets FQ flow-control to XOFF
  * @s:    the software portal object
  * @fqid: the index of frame queue
  *
  * This setting doesn't affect enqueues to the FQ, just dequeues.
  * XOFF FQs will remain in the tenatively-scheduled state, even when
  * non-empty, meaning they won't be selected for scheduled dequeuing.
  * If a FQ is changed to XOFF after it had already become truly-scheduled
  * to a channel, and a pull dequeue of that channel occurs that selects
  * that FQ for dequeuing, then the resulting dq_entry will have no FD.
  * (qbman_result_DQ_fd() will return NULL.)
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_fq_xoff(struct qbman_swp *s, u32 fqid)
 {
 	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_XOFF);
 }

 /* If the user has been allocated a channel object that is going to generate
  * CDANs to another channel, then the qbman_swp_CDAN* functions will be
  * necessary.
  *
  * CDAN-enabled channels only generate a single CDAN notification, after which
  * they need to be reenabled before they'll generate another. The idea is
  * that pull dequeuing will occur in reaction to the CDAN, followed by a
  * reenable step. Each function generates a distinct command to hardware, so a
  * combination function is provided if the user wishes to modify the "context"
  * (which shows up in each CDAN message) each time they reenable, as a single
  * command to hardware.
  */

 /**
  * qbman_swp_CDAN_set_context() - Set CDAN context
  * @s:         the software portal object
  * @channelid: the channel index
  * @ctx:       the context to be set in CDAN
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_CDAN_set_context(struct qbman_swp *s, u16 channelid,
 					     u64 ctx)
 {
 	return qbman_swp_CDAN_set(s, channelid,
 				  CODE_CDAN_WE_CTX,
 				  0, ctx);
 }

 /**
  * qbman_swp_CDAN_enable() - Enable CDAN for the channel
  * @s:         the software portal object
  * @channelid: the index of the channel to generate CDAN
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_CDAN_enable(struct qbman_swp *s, u16 channelid)
 {
 	return qbman_swp_CDAN_set(s, channelid,
 				  CODE_CDAN_WE_EN,
 				  1, 0);
 }

 /**
  * qbman_swp_CDAN_disable() - disable CDAN for the channel
  * @s:         the software portal object
  * @channelid: the index of the channel to generate CDAN
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_CDAN_disable(struct qbman_swp *s, u16 channelid)
 {
 	return qbman_swp_CDAN_set(s, channelid,
 				  CODE_CDAN_WE_EN,
 				  0, 0);
 }

 /**
  * qbman_swp_CDAN_set_context_enable() - Set CDAN contest and enable CDAN
  * @s:         the software portal object
  * @channelid: the index of the channel to generate CDAN
  * @ctx:i      the context set in CDAN
  *
  * Return 0 for success, or negative error code for failure.
  */
 static inline int qbman_swp_CDAN_set_context_enable(struct qbman_swp *s,
 						    u16 channelid,
 						    u64 ctx)
 {
 	return qbman_swp_CDAN_set(s, channelid,
 				  CODE_CDAN_WE_EN | CODE_CDAN_WE_CTX,
 				  1, ctx);
 }

 /* Wraps up submit + poll-for-result */
 static inline void *qbman_swp_mc_complete(struct qbman_swp *swp, void *cmd,
 					  u8 cmd_verb)
 {
 	int loopvar = 2000;

 	qbman_swp_mc_submit(swp, cmd, cmd_verb);

 	do {
 		cmd = qbman_swp_mc_result(swp);
 	} while (!cmd && loopvar--);

 	WARN_ON(!loopvar);

 	return cmd;
 }

 /* Query APIs */
 struct qbman_fq_query_np_rslt {
 	u8 verb;
 	u8 rslt;
 	u8 st1;
 	u8 st2;
 	u8 reserved[2];
 	__le16 od1_sfdr;
 	__le16 od2_sfdr;
 	__le16 od3_sfdr;
 	__le16 ra1_sfdr;
 	__le16 ra2_sfdr;
 	__le32 pfdr_hptr;
 	__le32 pfdr_tptr;
 	__le32 frm_cnt;
 	__le32 byte_cnt;
 	__le16 ics_surp;
 	u8 is;
 	u8 reserved2[29];
 };

 int qbman_fq_query_state(struct qbman_swp *s, u32 fqid,
 			 struct qbman_fq_query_np_rslt *r);
 u32 qbman_fq_state_frame_count(const struct qbman_fq_query_np_rslt *r);
 u32 qbman_fq_state_byte_count(const struct qbman_fq_query_np_rslt *r);

 struct qbman_bp_query_rslt {
 	u8 verb;
 	u8 rslt;
 	u8 reserved[4];
 	u8 bdi;
 	u8 state;
 	__le32 fill;
 	__le32 hdotr;
 	__le16 swdet;
 	__le16 swdxt;
 	__le16 hwdet;
 	__le16 hwdxt;
 	__le16 swset;
 	__le16 swsxt;
 	__le16 vbpid;
 	__le16 icid;
 	__le64 bpscn_addr;
 	__le64 bpscn_ctx;
 	__le16 hw_targ;
 	u8 dbe;
 	u8 reserved2;
 	u8 sdcnt;
 	u8 hdcnt;
 	u8 sscnt;
 	u8 reserved3[9];
 };

 int qbman_bp_query(struct qbman_swp *s, u16 bpid,
 		   struct qbman_bp_query_rslt *r);

 u32 qbman_bp_info_num_free_bufs(struct qbman_bp_query_rslt *a);

 #endif /* __FSL_QBMAN_PORTAL_H */
	/* SPDX-License-Identifier: (GPL-2.0+ OR BSD-3-Clause) */
	/*
	* Copyright (C) 2014-2016 Freescale Semiconductor, Inc.
	* Copyright 2016-2019 NXP
	*
	*/
	#ifndef __FSL_QBMAN_PORTAL_H
	#define __FSL_QBMAN_PORTAL_H

	#include <soc/fsl/dpaa2-fd.h>

	struct dpaa2_dq;
	struct qbman_swp;

	/* qbman software portal descriptor structure */
	struct qbman_swp_desc {
	void cena_bar; / Cache-enabled portal base address */
	void __iomem cinh_bar; / Cache-inhibited portal base address */
	u32 qman_version;
	};

	#define QBMAN_SWP_INTERRUPT_EQRI 0x01
	#define QBMAN_SWP_INTERRUPT_EQDI 0x02
	#define QBMAN_SWP_INTERRUPT_DQRI 0x04
	#define QBMAN_SWP_INTERRUPT_RCRI 0x08
	#define QBMAN_SWP_INTERRUPT_RCDI 0x10
	#define QBMAN_SWP_INTERRUPT_VDCI 0x20

	/* the structure for pull dequeue descriptor */
	struct qbman_pull_desc {
	u8 verb;
	u8 numf;
	u8 tok;
	u8 reserved;
	__le32 dq_src;
	__le64 rsp_addr;
	u64 rsp_addr_virt;
	u8 padding[40];
	};

	enum qbman_pull_type_e {
	/* dequeue with priority precedence, respect intra-class scheduling */
	qbman_pull_type_prio = 1,
	/* dequeue with active FQ precedence, respect ICS */
	qbman_pull_type_active,
	/* dequeue with active FQ precedence, no ICS */
	qbman_pull_type_active_noics
	};

	/* Definitions for parsing dequeue entries */
	#define QBMAN_RESULT_MASK 0x7f
	#define QBMAN_RESULT_DQ 0x60
	#define QBMAN_RESULT_FQRN 0x21
	#define QBMAN_RESULT_FQRNI 0x22
	#define QBMAN_RESULT_FQPN 0x24
	#define QBMAN_RESULT_FQDAN 0x25
	#define QBMAN_RESULT_CDAN 0x26
	#define QBMAN_RESULT_CSCN_MEM 0x27
	#define QBMAN_RESULT_CGCU 0x28
	#define QBMAN_RESULT_BPSCN 0x29
	#define QBMAN_RESULT_CSCN_WQ 0x2a

	/* QBMan FQ management command codes */
	#define QBMAN_FQ_SCHEDULE 0x48
	#define QBMAN_FQ_FORCE 0x49
	#define QBMAN_FQ_XON 0x4d
	#define QBMAN_FQ_XOFF 0x4e

	/* structure of enqueue descriptor */
	struct qbman_eq_desc {
	u8 verb;
	u8 dca;
	__le16 seqnum;
	__le16 orpid;
	__le16 reserved1;
	__le32 tgtid;
	__le32 tag;
	__le16 qdbin;
	u8 qpri;
	u8 reserved[3];
	u8 wae;
	u8 rspid;
	__le64 rsp_addr;
	u8 fd[32];
	};

	/* buffer release descriptor */
	struct qbman_release_desc {
	u8 verb;
	u8 reserved;
	__le16 bpid;
	__le32 reserved2;
	__le64 buf[7];
	};

	/* Management command result codes */
	#define QBMAN_MC_RSLT_OK 0xf0

	#define CODE_CDAN_WE_EN 0x1
	#define CODE_CDAN_WE_CTX 0x4

	/* portal data structure */
	struct qbman_swp {
	const struct qbman_swp_desc *desc;
	void *addr_cena;
	void __iomem *addr_cinh;

	/* Management commands */
	struct {
	u32 valid_bit; /* 0x00 or 0x80 */
	} mc;

	/* Management response */
	struct {
	u32 valid_bit; /* 0x00 or 0x80 */
	} mr;

	/* Push dequeues */
	u32 sdq;

	/* Volatile dequeues */
	struct {
	atomic_t available; /* indicates if a command can be sent */
	u32 valid_bit; /* 0x00 or 0x80 */
	struct dpaa2_dq storage; / NULL if DQRR */
	} vdq;

	/* DQRR */
	struct {
	u32 next_idx;
	u32 valid_bit;
	u8 dqrr_size;
	int reset_bug; /* indicates dqrr reset workaround is needed */
	} dqrr;
	};

	struct qbman_swp qbman_swp_init(const struct qbman_swp_desc d);
	void qbman_swp_finish(struct qbman_swp *p);
	u32 qbman_swp_interrupt_read_status(struct qbman_swp *p);
	void qbman_swp_interrupt_clear_status(struct qbman_swp *p, u32 mask);
	u32 qbman_swp_interrupt_get_trigger(struct qbman_swp *p);
	void qbman_swp_interrupt_set_trigger(struct qbman_swp *p, u32 mask);
	int qbman_swp_interrupt_get_inhibit(struct qbman_swp *p);
	void qbman_swp_interrupt_set_inhibit(struct qbman_swp *p, int inhibit);

	void qbman_swp_push_get(struct qbman_swp p, u8 channel_idx, int enabled);
	void qbman_swp_push_set(struct qbman_swp *p, u8 channel_idx, int enable);

	void qbman_pull_desc_clear(struct qbman_pull_desc *d);
	void qbman_pull_desc_set_storage(struct qbman_pull_desc *d,
	struct dpaa2_dq *storage,
	dma_addr_t storage_phys,
	int stash);
	void qbman_pull_desc_set_numframes(struct qbman_pull_desc *d, u8 numframes);
	void qbman_pull_desc_set_fq(struct qbman_pull_desc *d, u32 fqid);
	void qbman_pull_desc_set_wq(struct qbman_pull_desc *d, u32 wqid,
	enum qbman_pull_type_e dct);
	void qbman_pull_desc_set_channel(struct qbman_pull_desc *d, u32 chid,
	enum qbman_pull_type_e dct);

	int qbman_swp_pull(struct qbman_swp p, struct qbman_pull_desc d);

	const struct dpaa2_dq qbman_swp_dqrr_next(struct qbman_swp s);
	void qbman_swp_dqrr_consume(struct qbman_swp s, const struct dpaa2_dq dq);

	int qbman_result_has_new_result(struct qbman_swp p, const struct dpaa2_dq dq);

	void qbman_eq_desc_clear(struct qbman_eq_desc *d);
	void qbman_eq_desc_set_no_orp(struct qbman_eq_desc *d, int respond_success);
	void qbman_eq_desc_set_token(struct qbman_eq_desc *d, u8 token);
	void qbman_eq_desc_set_fq(struct qbman_eq_desc *d, u32 fqid);
	void qbman_eq_desc_set_qd(struct qbman_eq_desc *d, u32 qdid,
	u32 qd_bin, u32 qd_prio);

	int qbman_swp_enqueue(struct qbman_swp p, const struct qbman_eq_desc d,
	const struct dpaa2_fd *fd);

	void qbman_release_desc_clear(struct qbman_release_desc *d);
	void qbman_release_desc_set_bpid(struct qbman_release_desc *d, u16 bpid);
	void qbman_release_desc_set_rcdi(struct qbman_release_desc *d, int enable);

	int qbman_swp_release(struct qbman_swp s, const struct qbman_release_desc d,
	const u64 *buffers, unsigned int num_buffers);
	int qbman_swp_acquire(struct qbman_swp s, u16 bpid, u64 buffers,
	unsigned int num_buffers);
	int qbman_swp_alt_fq_state(struct qbman_swp *s, u32 fqid,
	u8 alt_fq_verb);
	int qbman_swp_CDAN_set(struct qbman_swp *s, u16 channelid,
	u8 we_mask, u8 cdan_en,
	u64 ctx);

	void qbman_swp_mc_start(struct qbman_swp p);
	void qbman_swp_mc_submit(struct qbman_swp p, void cmd, u8 cmd_verb);
	void qbman_swp_mc_result(struct qbman_swp p);

	/**
	* qbman_result_is_DQ() - check if the dequeue result is a dequeue response
	* @dq: the dequeue result to be checked
	*
	* DQRR entries may contain non-dequeue results, ie. notifications
	*/
	static inline int qbman_result_is_DQ(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_DQ);
	}

	/**
	* qbman_result_is_SCN() - Check the dequeue result is notification or not
	* @dq: the dequeue result to be checked
	*
	*/
	static inline int qbman_result_is_SCN(const struct dpaa2_dq *dq)
	{
	return !qbman_result_is_DQ(dq);
	}

	/* FQ Data Availability */
	static inline int qbman_result_is_FQDAN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQDAN);
	}

	/* Channel Data Availability */
	static inline int qbman_result_is_CDAN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CDAN);
	}

	/* Congestion State Change */
	static inline int qbman_result_is_CSCN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CSCN_WQ);
	}

	/* Buffer Pool State Change */
	static inline int qbman_result_is_BPSCN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_BPSCN);
	}

	/* Congestion Group Count Update */
	static inline int qbman_result_is_CGCU(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_CGCU);
	}

	/* Retirement */
	static inline int qbman_result_is_FQRN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQRN);
	}

	/* Retirement Immediate */
	static inline int qbman_result_is_FQRNI(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQRNI);
	}

	/* Park */
	static inline int qbman_result_is_FQPN(const struct dpaa2_dq *dq)
	{
	return ((dq->dq.verb & QBMAN_RESULT_MASK) == QBMAN_RESULT_FQPN);
	}

	/**
	* qbman_result_SCN_state() - Get the state field in State-change notification
	*/
	static inline u8 qbman_result_SCN_state(const struct dpaa2_dq *scn)
	{
	return scn->scn.state;
	}

	#define SCN_RID_MASK 0x00FFFFFF

	/**
	* qbman_result_SCN_rid() - Get the resource id in State-change notification
	*/
	static inline u32 qbman_result_SCN_rid(const struct dpaa2_dq *scn)
	{
	return le32_to_cpu(scn->scn.rid_tok) & SCN_RID_MASK;
	}

	/**
	* qbman_result_SCN_ctx() - Get the context data in State-change notification
	*/
	static inline u64 qbman_result_SCN_ctx(const struct dpaa2_dq *scn)
	{
	return le64_to_cpu(scn->scn.ctx);
	}

	/**
	* qbman_swp_fq_schedule() - Move the fq to the scheduled state
	* @s: the software portal object
	* @fqid: the index of frame queue to be scheduled
	*
	* There are a couple of different ways that a FQ can end up parked state,
	* This schedules it.
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_fq_schedule(struct qbman_swp *s, u32 fqid)
	{
	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_SCHEDULE);
	}

	/**
	* qbman_swp_fq_force() - Force the FQ to fully scheduled state
	* @s: the software portal object
	* @fqid: the index of frame queue to be forced
	*
	* Force eligible will force a tentatively-scheduled FQ to be fully-scheduled
	* and thus be available for selection by any channel-dequeuing behaviour (push
	* or pull). If the FQ is subsequently "dequeued" from the channel and is still
	* empty at the time this happens, the resulting dq_entry will have no FD.
	* (qbman_result_DQ_fd() will return NULL.)
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_fq_force(struct qbman_swp *s, u32 fqid)
	{
	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_FORCE);
	}

	/**
	* qbman_swp_fq_xon() - sets FQ flow-control to XON
	* @s: the software portal object
	* @fqid: the index of frame queue
	*
	* This setting doesn't affect enqueues to the FQ, just dequeues.
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_fq_xon(struct qbman_swp *s, u32 fqid)
	{
	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_XON);
	}

	/**
	* qbman_swp_fq_xoff() - sets FQ flow-control to XOFF
	* @s: the software portal object
	* @fqid: the index of frame queue
	*
	* This setting doesn't affect enqueues to the FQ, just dequeues.
	* XOFF FQs will remain in the tenatively-scheduled state, even when
	* non-empty, meaning they won't be selected for scheduled dequeuing.
	* If a FQ is changed to XOFF after it had already become truly-scheduled
	* to a channel, and a pull dequeue of that channel occurs that selects
	* that FQ for dequeuing, then the resulting dq_entry will have no FD.
	* (qbman_result_DQ_fd() will return NULL.)
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_fq_xoff(struct qbman_swp *s, u32 fqid)
	{
	return qbman_swp_alt_fq_state(s, fqid, QBMAN_FQ_XOFF);
	}

	/* If the user has been allocated a channel object that is going to generate
	* CDANs to another channel, then the qbman_swp_CDAN* functions will be
	* necessary.
	*
	* CDAN-enabled channels only generate a single CDAN notification, after which
	* they need to be reenabled before they'll generate another. The idea is
	* that pull dequeuing will occur in reaction to the CDAN, followed by a
	* reenable step. Each function generates a distinct command to hardware, so a
	* combination function is provided if the user wishes to modify the "context"
	* (which shows up in each CDAN message) each time they reenable, as a single
	* command to hardware.
	*/

	/**
	* qbman_swp_CDAN_set_context() - Set CDAN context
	* @s: the software portal object
	* @channelid: the channel index
	* @ctx: the context to be set in CDAN
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_CDAN_set_context(struct qbman_swp *s, u16 channelid,
	u64 ctx)
	{
	return qbman_swp_CDAN_set(s, channelid,
	CODE_CDAN_WE_CTX,
	0, ctx);
	}

	/**
	* qbman_swp_CDAN_enable() - Enable CDAN for the channel
	* @s: the software portal object
	* @channelid: the index of the channel to generate CDAN
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_CDAN_enable(struct qbman_swp *s, u16 channelid)
	{
	return qbman_swp_CDAN_set(s, channelid,
	CODE_CDAN_WE_EN,
	1, 0);
	}

	/**
	* qbman_swp_CDAN_disable() - disable CDAN for the channel
	* @s: the software portal object
	* @channelid: the index of the channel to generate CDAN
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_CDAN_disable(struct qbman_swp *s, u16 channelid)
	{
	return qbman_swp_CDAN_set(s, channelid,
	CODE_CDAN_WE_EN,
	0, 0);
	}

	/**
	* qbman_swp_CDAN_set_context_enable() - Set CDAN contest and enable CDAN
	* @s: the software portal object
	* @channelid: the index of the channel to generate CDAN
	* @ctx:i the context set in CDAN
	*
	* Return 0 for success, or negative error code for failure.
	*/
	static inline int qbman_swp_CDAN_set_context_enable(struct qbman_swp *s,
	u16 channelid,
	u64 ctx)
	{
	return qbman_swp_CDAN_set(s, channelid,
	CODE_CDAN_WE_EN \| CODE_CDAN_WE_CTX,
	1, ctx);
	}

	/* Wraps up submit + poll-for-result */
	static inline void qbman_swp_mc_complete(struct qbman_swp swp, void *cmd,
	u8 cmd_verb)
	{
	int loopvar = 2000;

	qbman_swp_mc_submit(swp, cmd, cmd_verb);

	do {
	cmd = qbman_swp_mc_result(swp);
	} while (!cmd && loopvar--);

	WARN_ON(!loopvar);

	return cmd;
	}

	/* Query APIs */
	struct qbman_fq_query_np_rslt {
	u8 verb;
	u8 rslt;
	u8 st1;
	u8 st2;
	u8 reserved[2];
	__le16 od1_sfdr;
	__le16 od2_sfdr;
	__le16 od3_sfdr;
	__le16 ra1_sfdr;
	__le16 ra2_sfdr;
	__le32 pfdr_hptr;
	__le32 pfdr_tptr;
	__le32 frm_cnt;
	__le32 byte_cnt;
	__le16 ics_surp;
	u8 is;
	u8 reserved2[29];
	};

	int qbman_fq_query_state(struct qbman_swp *s, u32 fqid,
	struct qbman_fq_query_np_rslt *r);
	u32 qbman_fq_state_frame_count(const struct qbman_fq_query_np_rslt *r);
	u32 qbman_fq_state_byte_count(const struct qbman_fq_query_np_rslt *r);

	struct qbman_bp_query_rslt {
	u8 verb;
	u8 rslt;
	u8 reserved[4];
	u8 bdi;
	u8 state;
	__le32 fill;
	__le32 hdotr;
	__le16 swdet;
	__le16 swdxt;
	__le16 hwdet;
	__le16 hwdxt;
	__le16 swset;
	__le16 swsxt;
	__le16 vbpid;
	__le16 icid;
	__le64 bpscn_addr;
	__le64 bpscn_ctx;
	__le16 hw_targ;
	u8 dbe;
	u8 reserved2;
	u8 sdcnt;
	u8 hdcnt;
	u8 sscnt;
	u8 reserved3[9];
	};

	int qbman_bp_query(struct qbman_swp *s, u16 bpid,
	struct qbman_bp_query_rslt *r);

	u32 qbman_bp_info_num_free_bufs(struct qbman_bp_query_rslt *a);

	#endif /* __FSL_QBMAN_PORTAL_H */