linux-stable/drivers/infiniband/hw/hfi1/trace_tid.h

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/* SPDX-License-Identifier: (GPL-2.0 OR BSD-3-Clause) */
/*
* Copyright(c) 2018 Intel Corporation.
*
*/
#if !defined(__HFI1_TRACE_TID_H) || defined(TRACE_HEADER_MULTI_READ)
#define __HFI1_TRACE_TID_H
#include <linux/tracepoint.h>
#include <linux/trace_seq.h>
#include "hfi.h"
#define tidtype_name(type) { PT_##type, #type }
#define show_tidtype(type) \
__print_symbolic(type, \
tidtype_name(EXPECTED), \
tidtype_name(EAGER), \
tidtype_name(INVALID)) \
#undef TRACE_SYSTEM
#define TRACE_SYSTEM hfi1_tid
u8 hfi1_trace_get_tid_ctrl(u32 ent);
u16 hfi1_trace_get_tid_len(u32 ent);
u16 hfi1_trace_get_tid_idx(u32 ent);
#define OPFN_PARAM_PRN "[%s] qpn 0x%x %s OPFN: qp 0x%x, max read %u, " \
"max write %u, max length %u, jkey 0x%x timeout %u " \
"urg %u"
#define TID_FLOW_PRN "[%s] qpn 0x%x flow %d: idx %d resp_ib_psn 0x%x " \
"generation 0x%x fpsn 0x%x-%x r_next_psn 0x%x " \
"ib_psn 0x%x-%x npagesets %u tnode_cnt %u " \
"tidcnt %u tid_idx %u tid_offset %u length %u sent %u"
#define TID_NODE_PRN "[%s] qpn 0x%x %s idx %u grp base 0x%x map 0x%x " \
"used %u cnt %u"
#define RSP_INFO_PRN "[%s] qpn 0x%x state 0x%x s_state 0x%x psn 0x%x " \
"r_psn 0x%x r_state 0x%x r_flags 0x%x " \
"r_head_ack_queue %u s_tail_ack_queue %u " \
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
"s_acked_ack_queue %u s_ack_state 0x%x " \
"s_nak_state 0x%x s_flags 0x%x ps_flags 0x%x " \
"iow_flags 0x%lx"
#define SENDER_INFO_PRN "[%s] qpn 0x%x state 0x%x s_cur %u s_tail %u " \
"s_head %u s_acked %u s_last %u s_psn 0x%x " \
"s_last_psn 0x%x s_flags 0x%x ps_flags 0x%x " \
"iow_flags 0x%lx s_state 0x%x s_num_rd %u s_retry %u"
#define TID_READ_SENDER_PRN "[%s] qpn 0x%x newreq %u tid_r_reqs %u " \
"tid_r_comp %u pending_tid_r_segs %u " \
"s_flags 0x%x ps_flags 0x%x iow_flags 0x%lx " \
"s_state 0x%x hw_flow_index %u generation 0x%x " \
"fpsn 0x%x"
#define TID_REQ_PRN "[%s] qpn 0x%x newreq %u opcode 0x%x psn 0x%x lpsn 0x%x " \
"cur_seg %u comp_seg %u ack_seg %u alloc_seg %u " \
"total_segs %u setup_head %u clear_tail %u flow_idx %u " \
"acked_tail %u state %u r_ack_psn 0x%x r_flow_psn 0x%x " \
"r_last_ackd 0x%x s_next_psn 0x%x"
#define RCV_ERR_PRN "[%s] qpn 0x%x s_flags 0x%x state 0x%x " \
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
"s_acked_ack_queue %u s_tail_ack_queue %u " \
"r_head_ack_queue %u opcode 0x%x psn 0x%x r_psn 0x%x " \
" diff %d"
#define TID_WRITE_RSPDR_PRN "[%s] qpn 0x%x r_tid_head %u r_tid_tail %u " \
"r_tid_ack %u r_tid_alloc %u alloc_w_segs %u " \
"pending_tid_w_segs %u sync_pt %s " \
"ps_nak_psn 0x%x ps_nak_state 0x%x " \
"prnr_nak_state 0x%x hw_flow_index %u generation "\
"0x%x fpsn 0x%x resync %s" \
"r_next_psn_kdeth 0x%x"
#define TID_WRITE_SENDER_PRN "[%s] qpn 0x%x newreq %u s_tid_cur %u " \
"s_tid_tail %u s_tid_head %u " \
"pending_tid_w_resp %u n_requests %u " \
"n_tid_requests %u s_flags 0x%x ps_flags 0x%x "\
"iow_flags 0x%lx s_state 0x%x s_retry %u"
#define KDETH_EFLAGS_ERR_PRN "[%s] qpn 0x%x TID ERR: RcvType 0x%x " \
"RcvTypeError 0x%x PSN 0x%x"
DECLARE_EVENT_CLASS(/* class */
hfi1_exp_tid_reg_unreg,
TP_PROTO(unsigned int ctxt, u16 subctxt, u32 rarr, u32 npages,
unsigned long va, unsigned long pa, dma_addr_t dma),
TP_ARGS(ctxt, subctxt, rarr, npages, va, pa, dma),
TP_STRUCT__entry(/* entry */
__field(unsigned int, ctxt)
__field(u16, subctxt)
__field(u32, rarr)
__field(u32, npages)
__field(unsigned long, va)
__field(unsigned long, pa)
__field(dma_addr_t, dma)
),
TP_fast_assign(/* assign */
__entry->ctxt = ctxt;
__entry->subctxt = subctxt;
__entry->rarr = rarr;
__entry->npages = npages;
__entry->va = va;
__entry->pa = pa;
__entry->dma = dma;
),
TP_printk("[%u:%u] entry:%u, %u pages @ 0x%lx, va:0x%lx dma:0x%llx",
__entry->ctxt,
__entry->subctxt,
__entry->rarr,
__entry->npages,
__entry->pa,
__entry->va,
__entry->dma
)
);
DEFINE_EVENT(/* exp_tid_unreg */
hfi1_exp_tid_reg_unreg, hfi1_exp_tid_unreg,
TP_PROTO(unsigned int ctxt, u16 subctxt, u32 rarr, u32 npages,
unsigned long va, unsigned long pa, dma_addr_t dma),
TP_ARGS(ctxt, subctxt, rarr, npages, va, pa, dma)
);
DEFINE_EVENT(/* exp_tid_reg */
hfi1_exp_tid_reg_unreg, hfi1_exp_tid_reg,
TP_PROTO(unsigned int ctxt, u16 subctxt, u32 rarr, u32 npages,
unsigned long va, unsigned long pa, dma_addr_t dma),
TP_ARGS(ctxt, subctxt, rarr, npages, va, pa, dma)
);
TRACE_EVENT(/* put_tid */
hfi1_put_tid,
TP_PROTO(struct hfi1_devdata *dd,
u32 index, u32 type, unsigned long pa, u16 order),
TP_ARGS(dd, index, type, pa, order),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd)
ftrace: Rework event_create_dir() Rework event_create_dir() to use an array of static data instead of function pointers where possible. The problem is that it would call the function pointer on module load before parse_args(), possibly even before jump_labels were initialized. Luckily the generated functions don't use jump_labels but it still seems fragile. It also gets in the way of changing when we make the module map executable. The generated function are basically calling trace_define_field() with a bunch of static arguments. So instead of a function, capture these arguments in a static array, avoiding the function call. Now there are a number of cases where the fields are dynamic (syscall arguments, kprobes and uprobes), in which case a static array does not work, for these we preserve the function call. Luckily all these cases are not related to modules and so we can retain the function call for them. Also fix up all broken tracepoint definitions that now generate a compile error. Tested-by: Alexei Starovoitov <ast@kernel.org> Tested-by: Steven Rostedt (VMware) <rostedt@goodmis.org> Signed-off-by: Peter Zijlstra (Intel) <peterz@infradead.org> Reviewed-by: Steven Rostedt (VMware) <rostedt@goodmis.org> Acked-by: Alexei Starovoitov <ast@kernel.org> Cc: Andy Lutomirski <luto@kernel.org> Cc: Borislav Petkov <bp@alien8.de> Cc: Brian Gerst <brgerst@gmail.com> Cc: Denys Vlasenko <dvlasenk@redhat.com> Cc: H. Peter Anvin <hpa@zytor.com> Cc: Linus Torvalds <torvalds@linux-foundation.org> Cc: Peter Zijlstra <peterz@infradead.org> Cc: Steven Rostedt <rostedt@goodmis.org> Cc: Thomas Gleixner <tglx@linutronix.de> Link: https://lkml.kernel.org/r/20191111132458.342979914@infradead.org Signed-off-by: Ingo Molnar <mingo@kernel.org>
2019-10-24 20:26:59 +00:00
__field(unsigned long, pa)
__field(u32, index)
__field(u32, type)
__field(u16, order)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd);
__entry->pa = pa;
__entry->index = index;
__entry->type = type;
__entry->order = order;
),
TP_printk("[%s] type %s pa %lx index %u order %u",
__get_str(dev),
show_tidtype(__entry->type),
__entry->pa,
__entry->index,
__entry->order
)
);
TRACE_EVENT(/* exp_tid_inval */
hfi1_exp_tid_inval,
TP_PROTO(unsigned int ctxt, u16 subctxt, unsigned long va, u32 rarr,
u32 npages, dma_addr_t dma),
TP_ARGS(ctxt, subctxt, va, rarr, npages, dma),
TP_STRUCT__entry(/* entry */
__field(unsigned int, ctxt)
__field(u16, subctxt)
__field(unsigned long, va)
__field(u32, rarr)
__field(u32, npages)
__field(dma_addr_t, dma)
),
TP_fast_assign(/* assign */
__entry->ctxt = ctxt;
__entry->subctxt = subctxt;
__entry->va = va;
__entry->rarr = rarr;
__entry->npages = npages;
__entry->dma = dma;
),
TP_printk("[%u:%u] entry:%u, %u pages @ 0x%lx dma: 0x%llx",
__entry->ctxt,
__entry->subctxt,
__entry->rarr,
__entry->npages,
__entry->va,
__entry->dma
)
);
DECLARE_EVENT_CLASS(/* opfn_state */
hfi1_opfn_state_template,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u16, requested)
__field(u16, completed)
__field(u8, curr)
),
TP_fast_assign(/* assign */
struct hfi1_qp_priv *priv = qp->priv;
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->requested = priv->opfn.requested;
__entry->completed = priv->opfn.completed;
__entry->curr = priv->opfn.curr;
),
TP_printk(/* print */
"[%s] qpn 0x%x requested 0x%x completed 0x%x curr 0x%x",
__get_str(dev),
__entry->qpn,
__entry->requested,
__entry->completed,
__entry->curr
)
);
DEFINE_EVENT(/* event */
hfi1_opfn_state_template, hfi1_opfn_state_conn_request,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_opfn_state_template, hfi1_opfn_state_sched_conn_request,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_opfn_state_template, hfi1_opfn_state_conn_response,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_opfn_state_template, hfi1_opfn_state_conn_reply,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_opfn_state_template, hfi1_opfn_state_conn_error,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DECLARE_EVENT_CLASS(/* opfn_data */
hfi1_opfn_data_template,
TP_PROTO(struct rvt_qp *qp, u8 capcode, u64 data),
TP_ARGS(qp, capcode, data),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u32, state)
__field(u8, capcode)
__field(u64, data)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->state = qp->state;
__entry->capcode = capcode;
__entry->data = data;
),
TP_printk(/* printk */
"[%s] qpn 0x%x (state 0x%x) Capcode %u data 0x%llx",
__get_str(dev),
__entry->qpn,
__entry->state,
__entry->capcode,
__entry->data
)
);
DEFINE_EVENT(/* event */
hfi1_opfn_data_template, hfi1_opfn_data_conn_request,
TP_PROTO(struct rvt_qp *qp, u8 capcode, u64 data),
TP_ARGS(qp, capcode, data)
);
DEFINE_EVENT(/* event */
hfi1_opfn_data_template, hfi1_opfn_data_conn_response,
TP_PROTO(struct rvt_qp *qp, u8 capcode, u64 data),
TP_ARGS(qp, capcode, data)
);
DEFINE_EVENT(/* event */
hfi1_opfn_data_template, hfi1_opfn_data_conn_reply,
TP_PROTO(struct rvt_qp *qp, u8 capcode, u64 data),
TP_ARGS(qp, capcode, data)
);
DECLARE_EVENT_CLASS(/* opfn_param */
hfi1_opfn_param_template,
TP_PROTO(struct rvt_qp *qp, char remote,
struct tid_rdma_params *param),
TP_ARGS(qp, remote, param),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(char, remote)
__field(u32, param_qp)
__field(u32, max_len)
__field(u16, jkey)
__field(u8, max_read)
__field(u8, max_write)
__field(u8, timeout)
__field(u8, urg)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->remote = remote;
__entry->param_qp = param->qp;
__entry->max_len = param->max_len;
__entry->jkey = param->jkey;
__entry->max_read = param->max_read;
__entry->max_write = param->max_write;
__entry->timeout = param->timeout;
__entry->urg = param->urg;
),
TP_printk(/* print */
OPFN_PARAM_PRN,
__get_str(dev),
__entry->qpn,
__entry->remote ? "remote" : "local",
__entry->param_qp,
__entry->max_read,
__entry->max_write,
__entry->max_len,
__entry->jkey,
__entry->timeout,
__entry->urg
)
);
DEFINE_EVENT(/* event */
hfi1_opfn_param_template, hfi1_opfn_param,
TP_PROTO(struct rvt_qp *qp, char remote,
struct tid_rdma_params *param),
TP_ARGS(qp, remote, param)
);
DECLARE_EVENT_CLASS(/* msg */
hfi1_msg_template,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more),
TP_STRUCT__entry(/* entry */
__field(u32, qpn)
__string(msg, msg)
__field(u64, more)
),
TP_fast_assign(/* assign */
__entry->qpn = qp ? qp->ibqp.qp_num : 0;
__assign_str(msg, msg);
__entry->more = more;
),
TP_printk(/* print */
"qpn 0x%x %s 0x%llx",
__entry->qpn,
__get_str(msg),
__entry->more
)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_opfn_conn_request,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_opfn_conn_error,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_alloc_tids,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_tid_restart_req,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_handle_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_tid_timeout,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DEFINE_EVENT(/* event */
hfi1_msg_template, hfi1_msg_tid_retry_timeout,
TP_PROTO(struct rvt_qp *qp, const char *msg, u64 more),
TP_ARGS(qp, msg, more)
);
DECLARE_EVENT_CLASS(/* tid_flow_page */
hfi1_tid_flow_page_template,
TP_PROTO(struct rvt_qp *qp, struct tid_rdma_flow *flow, u32 index,
char mtu8k, char v1, void *vaddr),
TP_ARGS(qp, flow, index, mtu8k, v1, vaddr),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(char, mtu8k)
__field(char, v1)
__field(u32, index)
__field(u64, page)
__field(u64, vaddr)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->mtu8k = mtu8k;
__entry->v1 = v1;
__entry->index = index;
__entry->page = vaddr ? (u64)virt_to_page(vaddr) : 0ULL;
__entry->vaddr = (u64)vaddr;
),
TP_printk(/* print */
"[%s] qpn 0x%x page[%u]: page 0x%llx %s 0x%llx",
__get_str(dev),
__entry->qpn,
__entry->index,
__entry->page,
__entry->mtu8k ? (__entry->v1 ? "v1" : "v0") : "vaddr",
__entry->vaddr
)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_page_template, hfi1_tid_flow_page,
TP_PROTO(struct rvt_qp *qp, struct tid_rdma_flow *flow, u32 index,
char mtu8k, char v1, void *vaddr),
TP_ARGS(qp, flow, index, mtu8k, v1, vaddr)
);
DECLARE_EVENT_CLASS(/* tid_pageset */
hfi1_tid_pageset_template,
TP_PROTO(struct rvt_qp *qp, u32 index, u16 idx, u16 count),
TP_ARGS(qp, index, idx, count),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u32, index)
__field(u16, idx)
__field(u16, count)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->index = index;
__entry->idx = idx;
__entry->count = count;
),
TP_printk(/* print */
"[%s] qpn 0x%x list[%u]: idx %u count %u",
__get_str(dev),
__entry->qpn,
__entry->index,
__entry->idx,
__entry->count
)
);
DEFINE_EVENT(/* event */
hfi1_tid_pageset_template, hfi1_tid_pageset,
TP_PROTO(struct rvt_qp *qp, u32 index, u16 idx, u16 count),
TP_ARGS(qp, index, idx, count)
);
DECLARE_EVENT_CLASS(/* tid_fow */
hfi1_tid_flow_template,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(int, index)
__field(int, idx)
__field(u32, resp_ib_psn)
__field(u32, generation)
__field(u32, fspsn)
__field(u32, flpsn)
__field(u32, r_next_psn)
__field(u32, ib_spsn)
__field(u32, ib_lpsn)
__field(u32, npagesets)
__field(u32, tnode_cnt)
__field(u32, tidcnt)
__field(u32, tid_idx)
__field(u32, tid_offset)
__field(u32, length)
__field(u32, sent)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->index = index;
__entry->idx = flow->idx;
__entry->resp_ib_psn = flow->flow_state.resp_ib_psn;
__entry->generation = flow->flow_state.generation;
__entry->fspsn = full_flow_psn(flow,
flow->flow_state.spsn);
__entry->flpsn = full_flow_psn(flow,
flow->flow_state.lpsn);
__entry->r_next_psn = flow->flow_state.r_next_psn;
__entry->ib_spsn = flow->flow_state.ib_spsn;
__entry->ib_lpsn = flow->flow_state.ib_lpsn;
__entry->npagesets = flow->npagesets;
__entry->tnode_cnt = flow->tnode_cnt;
__entry->tidcnt = flow->tidcnt;
__entry->tid_idx = flow->tid_idx;
__entry->tid_offset = flow->tid_offset;
__entry->length = flow->length;
__entry->sent = flow->sent;
),
TP_printk(/* print */
TID_FLOW_PRN,
__get_str(dev),
__entry->qpn,
__entry->index,
__entry->idx,
__entry->resp_ib_psn,
__entry->generation,
__entry->fspsn,
__entry->flpsn,
__entry->r_next_psn,
__entry->ib_spsn,
__entry->ib_lpsn,
__entry->npagesets,
__entry->tnode_cnt,
__entry->tidcnt,
__entry->tid_idx,
__entry->tid_offset,
__entry->length,
__entry->sent
)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_alloc,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_build_read_pkt,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_build_read_resp,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_rcv_read_req,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_rcv_read_resp,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_restart_req,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_build_write_resp,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_rcv_write_resp,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_build_write_data,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_rcv_tid_ack,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_rcv_resync,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_handle_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DEFINE_EVENT(/* event */
hfi1_tid_flow_template, hfi1_tid_flow_read_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, int index, struct tid_rdma_flow *flow),
TP_ARGS(qp, index, flow)
);
DECLARE_EVENT_CLASS(/* tid_node */
hfi1_tid_node_template,
TP_PROTO(struct rvt_qp *qp, const char *msg, u32 index, u32 base,
u8 map, u8 used, u8 cnt),
TP_ARGS(qp, msg, index, base, map, used, cnt),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__string(msg, msg)
__field(u32, index)
__field(u32, base)
__field(u8, map)
__field(u8, used)
__field(u8, cnt)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__assign_str(msg, msg);
__entry->index = index;
__entry->base = base;
__entry->map = map;
__entry->used = used;
__entry->cnt = cnt;
),
TP_printk(/* print */
TID_NODE_PRN,
__get_str(dev),
__entry->qpn,
__get_str(msg),
__entry->index,
__entry->base,
__entry->map,
__entry->used,
__entry->cnt
)
);
DEFINE_EVENT(/* event */
hfi1_tid_node_template, hfi1_tid_node_add,
TP_PROTO(struct rvt_qp *qp, const char *msg, u32 index, u32 base,
u8 map, u8 used, u8 cnt),
TP_ARGS(qp, msg, index, base, map, used, cnt)
);
DECLARE_EVENT_CLASS(/* tid_entry */
hfi1_tid_entry_template,
TP_PROTO(struct rvt_qp *qp, int index, u32 ent),
TP_ARGS(qp, index, ent),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(int, index)
__field(u8, ctrl)
__field(u16, idx)
__field(u16, len)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->index = index;
__entry->ctrl = hfi1_trace_get_tid_ctrl(ent);
__entry->idx = hfi1_trace_get_tid_idx(ent);
__entry->len = hfi1_trace_get_tid_len(ent);
),
TP_printk(/* print */
"[%s] qpn 0x%x TID entry %d: idx %u len %u ctrl 0x%x",
__get_str(dev),
__entry->qpn,
__entry->index,
__entry->idx,
__entry->len,
__entry->ctrl
)
);
DEFINE_EVENT(/* event */
hfi1_tid_entry_template, hfi1_tid_entry_alloc,
TP_PROTO(struct rvt_qp *qp, int index, u32 entry),
TP_ARGS(qp, index, entry)
);
DEFINE_EVENT(/* event */
hfi1_tid_entry_template, hfi1_tid_entry_build_read_resp,
TP_PROTO(struct rvt_qp *qp, int index, u32 ent),
TP_ARGS(qp, index, ent)
);
DEFINE_EVENT(/* event */
hfi1_tid_entry_template, hfi1_tid_entry_rcv_read_req,
TP_PROTO(struct rvt_qp *qp, int index, u32 ent),
TP_ARGS(qp, index, ent)
);
DEFINE_EVENT(/* event */
hfi1_tid_entry_template, hfi1_tid_entry_rcv_write_resp,
TP_PROTO(struct rvt_qp *qp, int index, u32 entry),
TP_ARGS(qp, index, entry)
);
DEFINE_EVENT(/* event */
hfi1_tid_entry_template, hfi1_tid_entry_build_write_data,
TP_PROTO(struct rvt_qp *qp, int index, u32 entry),
TP_ARGS(qp, index, entry)
);
DECLARE_EVENT_CLASS(/* rsp_info */
hfi1_responder_info_template,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u8, state)
__field(u8, s_state)
__field(u32, psn)
__field(u32, r_psn)
__field(u8, r_state)
__field(u8, r_flags)
__field(u8, r_head_ack_queue)
__field(u8, s_tail_ack_queue)
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__field(u8, s_acked_ack_queue)
__field(u8, s_ack_state)
__field(u8, s_nak_state)
__field(u8, r_nak_state)
__field(u32, s_flags)
__field(u32, ps_flags)
__field(unsigned long, iow_flags)
),
TP_fast_assign(/* assign */
struct hfi1_qp_priv *priv = qp->priv;
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->state = qp->state;
__entry->s_state = qp->s_state;
__entry->psn = psn;
__entry->r_psn = qp->r_psn;
__entry->r_state = qp->r_state;
__entry->r_flags = qp->r_flags;
__entry->r_head_ack_queue = qp->r_head_ack_queue;
__entry->s_tail_ack_queue = qp->s_tail_ack_queue;
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__entry->s_acked_ack_queue = qp->s_acked_ack_queue;
__entry->s_ack_state = qp->s_ack_state;
__entry->s_nak_state = qp->s_nak_state;
__entry->s_flags = qp->s_flags;
__entry->ps_flags = priv->s_flags;
__entry->iow_flags = priv->s_iowait.flags;
),
TP_printk(/* print */
RSP_INFO_PRN,
__get_str(dev),
__entry->qpn,
__entry->state,
__entry->s_state,
__entry->psn,
__entry->r_psn,
__entry->r_state,
__entry->r_flags,
__entry->r_head_ack_queue,
__entry->s_tail_ack_queue,
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__entry->s_acked_ack_queue,
__entry->s_ack_state,
__entry->s_nak_state,
__entry->s_flags,
__entry->ps_flags,
__entry->iow_flags
)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_make_rc_ack,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_rcv_tid_read_req,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_tid_rcv_error,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_tid_write_alloc_res,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_rcv_tid_write_req,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_build_tid_write_resp,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_rcv_tid_write_data,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_make_tid_ack,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_handle_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DEFINE_EVENT(/* event */
hfi1_responder_info_template, hfi1_rsp_read_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, u32 psn),
TP_ARGS(qp, psn)
);
DECLARE_EVENT_CLASS(/* sender_info */
hfi1_sender_info_template,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u8, state)
__field(u32, s_cur)
__field(u32, s_tail)
__field(u32, s_head)
__field(u32, s_acked)
__field(u32, s_last)
__field(u32, s_psn)
__field(u32, s_last_psn)
__field(u32, s_flags)
__field(u32, ps_flags)
__field(unsigned long, iow_flags)
__field(u8, s_state)
__field(u8, s_num_rd)
__field(u8, s_retry)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->state = qp->state;
__entry->s_cur = qp->s_cur;
__entry->s_tail = qp->s_tail;
__entry->s_head = qp->s_head;
__entry->s_acked = qp->s_acked;
__entry->s_last = qp->s_last;
__entry->s_psn = qp->s_psn;
__entry->s_last_psn = qp->s_last_psn;
__entry->s_flags = qp->s_flags;
__entry->ps_flags = ((struct hfi1_qp_priv *)qp->priv)->s_flags;
__entry->iow_flags =
((struct hfi1_qp_priv *)qp->priv)->s_iowait.flags;
__entry->s_state = qp->s_state;
__entry->s_num_rd = qp->s_num_rd_atomic;
__entry->s_retry = qp->s_retry;
),
TP_printk(/* print */
SENDER_INFO_PRN,
__get_str(dev),
__entry->qpn,
__entry->state,
__entry->s_cur,
__entry->s_tail,
__entry->s_head,
__entry->s_acked,
__entry->s_last,
__entry->s_psn,
__entry->s_last_psn,
__entry->s_flags,
__entry->ps_flags,
__entry->iow_flags,
__entry->s_state,
__entry->s_num_rd,
__entry->s_retry
)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_make_rc_req,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_reset_psn,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_restart_rc,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_do_rc_ack,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_rcv_tid_read_resp,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_rcv_tid_ack,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_make_tid_pkt,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_sender_info_template, hfi1_sender_read_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DECLARE_EVENT_CLASS(/* tid_read_sender */
hfi1_tid_read_sender_template,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(char, newreq)
__field(u32, tid_r_reqs)
__field(u32, tid_r_comp)
__field(u32, pending_tid_r_segs)
__field(u32, s_flags)
__field(u32, ps_flags)
__field(unsigned long, iow_flags)
__field(u8, s_state)
__field(u32, hw_flow_index)
__field(u32, generation)
__field(u32, fpsn)
),
TP_fast_assign(/* assign */
struct hfi1_qp_priv *priv = qp->priv;
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->newreq = newreq;
__entry->tid_r_reqs = priv->tid_r_reqs;
__entry->tid_r_comp = priv->tid_r_comp;
__entry->pending_tid_r_segs = priv->pending_tid_r_segs;
__entry->s_flags = qp->s_flags;
__entry->ps_flags = priv->s_flags;
__entry->iow_flags = priv->s_iowait.flags;
__entry->s_state = priv->s_state;
__entry->hw_flow_index = priv->flow_state.index;
__entry->generation = priv->flow_state.generation;
__entry->fpsn = priv->flow_state.psn;
),
TP_printk(/* print */
TID_READ_SENDER_PRN,
__get_str(dev),
__entry->qpn,
__entry->newreq,
__entry->tid_r_reqs,
__entry->tid_r_comp,
__entry->pending_tid_r_segs,
__entry->s_flags,
__entry->ps_flags,
__entry->iow_flags,
__entry->s_state,
__entry->hw_flow_index,
__entry->generation,
__entry->fpsn
)
);
DEFINE_EVENT(/* event */
hfi1_tid_read_sender_template, hfi1_tid_read_sender_make_req,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_read_sender_template, hfi1_tid_read_sender_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DECLARE_EVENT_CLASS(/* tid_rdma_request */
hfi1_tid_rdma_request_template,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(char, newreq)
__field(u8, opcode)
__field(u32, psn)
__field(u32, lpsn)
__field(u32, cur_seg)
__field(u32, comp_seg)
__field(u32, ack_seg)
__field(u32, alloc_seg)
__field(u32, total_segs)
__field(u16, setup_head)
__field(u16, clear_tail)
__field(u16, flow_idx)
__field(u16, acked_tail)
__field(u32, state)
__field(u32, r_ack_psn)
__field(u32, r_flow_psn)
__field(u32, r_last_acked)
__field(u32, s_next_psn)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->newreq = newreq;
__entry->opcode = opcode;
__entry->psn = psn;
__entry->lpsn = lpsn;
__entry->cur_seg = req->cur_seg;
__entry->comp_seg = req->comp_seg;
__entry->ack_seg = req->ack_seg;
__entry->alloc_seg = req->alloc_seg;
__entry->total_segs = req->total_segs;
__entry->setup_head = req->setup_head;
__entry->clear_tail = req->clear_tail;
__entry->flow_idx = req->flow_idx;
__entry->acked_tail = req->acked_tail;
__entry->state = req->state;
__entry->r_ack_psn = req->r_ack_psn;
__entry->r_flow_psn = req->r_flow_psn;
__entry->r_last_acked = req->r_last_acked;
__entry->s_next_psn = req->s_next_psn;
),
TP_printk(/* print */
TID_REQ_PRN,
__get_str(dev),
__entry->qpn,
__entry->newreq,
__entry->opcode,
__entry->psn,
__entry->lpsn,
__entry->cur_seg,
__entry->comp_seg,
__entry->ack_seg,
__entry->alloc_seg,
__entry->total_segs,
__entry->setup_head,
__entry->clear_tail,
__entry->flow_idx,
__entry->acked_tail,
__entry->state,
__entry->r_ack_psn,
__entry->r_flow_psn,
__entry->r_last_acked,
__entry->s_next_psn
)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_make_req_read,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_build_read_req,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_read_req,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_read_resp,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_err,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_restart_req,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_setup_tid_wqe,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_write_alloc_res,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_write_req,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_build_write_resp,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_write_resp,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_write_data,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_tid_ack,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_tid_retry_timeout,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_rcv_resync,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_make_tid_pkt,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_make_tid_ack,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_handle_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_read_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_make_rc_ack_write,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_make_req_write,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DEFINE_EVENT(/* event */
hfi1_tid_rdma_request_template, hfi1_tid_req_update_num_rd_atomic,
TP_PROTO(struct rvt_qp *qp, char newreq, u8 opcode, u32 psn, u32 lpsn,
struct tid_rdma_request *req),
TP_ARGS(qp, newreq, opcode, psn, lpsn, req)
);
DECLARE_EVENT_CLASS(/* rc_rcv_err */
hfi1_rc_rcv_err_template,
TP_PROTO(struct rvt_qp *qp, u32 opcode, u32 psn, int diff),
TP_ARGS(qp, opcode, psn, diff),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u32, s_flags)
__field(u8, state)
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__field(u8, s_acked_ack_queue)
__field(u8, s_tail_ack_queue)
__field(u8, r_head_ack_queue)
__field(u32, opcode)
__field(u32, psn)
__field(u32, r_psn)
__field(int, diff)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->s_flags = qp->s_flags;
__entry->state = qp->state;
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__entry->s_acked_ack_queue = qp->s_acked_ack_queue;
__entry->s_tail_ack_queue = qp->s_tail_ack_queue;
__entry->r_head_ack_queue = qp->r_head_ack_queue;
__entry->opcode = opcode;
__entry->psn = psn;
__entry->r_psn = qp->r_psn;
__entry->diff = diff;
),
TP_printk(/* print */
RCV_ERR_PRN,
__get_str(dev),
__entry->qpn,
__entry->s_flags,
__entry->state,
IB/hfi1: Add an s_acked_ack_queue pointer The s_ack_queue is managed by two pointers into the ring: r_head_ack_queue and s_tail_ack_queue. r_head_ack_queue is the index of where the next received request is going to be placed and s_tail_ack_queue is the entry of the request currently being processed. This works perfectly fine for normal Verbs as the requests are processed one at a time and the s_tail_ack_queue is not moved until the request that it points to is fully completed. In this fashion, s_tail_ack_queue constantly chases r_head_ack_queue and the two pointers can easily be used to determine "queue full" and "queue empty" conditions. The detection of these two conditions are imported in determining when an old entry can safely be overwritten with a new received request and the resources associated with the old request be safely released. When pipelined TID RDMA WRITE is introduced into this mix, things look very different. r_head_ack_queue is still the point at which a newly received request will be inserted, s_tail_ack_queue is still the currently processed request. However, with pipelined TID RDMA WRITE requests, s_tail_ack_queue moves to the next request once all TID RDMA WRITE responses for that request have been sent. The rest of the protocol for a particular request is managed by other pointers specific to TID RDMA - r_tid_tail and r_tid_ack - which point to the entries for which the next TID RDMA DATA packets are going to arrive and the request for which the next TID RDMA ACK packets are to be generated, respectively. What this means is that entries in the ring, which are "behind" s_tail_ack_queue (entries which s_tail_ack_queue has gone past) are no longer considered complete. This is where the problem is - a newly received request could potentially overwrite a still active TID RDMA WRITE request. The reason why the TID RDMA pointers trail s_tail_ack_queue is that the normal Verbs send engine uses s_tail_ack_queue as the pointer for the next response. Since TID RDMA WRITE responses are processed by the normal Verbs send engine, s_tail_ack_queue had to be moved to the next entry once all TID RDMA WRITE response packets were sent to get the desired pipelining between requests. Doing otherwise would mean that the normal Verbs send engine would not be able to send the TID RDMA WRITE responses for the next TID RDMA request until the current one is fully completed. This patch introduces the s_acked_ack_queue index to point to the next request to complete on the responder side. For requests other than TID RDMA WRITE, s_acked_ack_queue should always be kept in sync with s_tail_ack_queue. For TID RDMA WRITE request, it may fall behind s_tail_ack_queue. Reviewed-by: Mike Marciniszyn <mike.marciniszyn@intel.com> Signed-off-by: Mitko Haralanov <mitko.haralanov@intel.com> Signed-off-by: Kaike Wan <kaike.wan@intel.com> Signed-off-by: Dennis Dalessandro <dennis.dalessandro@intel.com> Signed-off-by: Doug Ledford <dledford@redhat.com>
2019-01-24 05:48:48 +00:00
__entry->s_acked_ack_queue,
__entry->s_tail_ack_queue,
__entry->r_head_ack_queue,
__entry->opcode,
__entry->psn,
__entry->r_psn,
__entry->diff
)
);
DEFINE_EVENT(/* event */
hfi1_rc_rcv_err_template, hfi1_tid_rdma_rcv_err,
TP_PROTO(struct rvt_qp *qp, u32 opcode, u32 psn, int diff),
TP_ARGS(qp, opcode, psn, diff)
);
DECLARE_EVENT_CLASS(/* sge */
hfi1_sge_template,
TP_PROTO(struct rvt_qp *qp, int index, struct rvt_sge *sge),
TP_ARGS(qp, index, sge),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(int, index)
__field(u64, vaddr)
__field(u32, sge_length)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->index = index;
__entry->vaddr = (u64)sge->vaddr;
__entry->sge_length = sge->sge_length;
),
TP_printk(/* print */
"[%s] qpn 0x%x sge %d: vaddr 0x%llx sge_length %u",
__get_str(dev),
__entry->qpn,
__entry->index,
__entry->vaddr,
__entry->sge_length
)
);
DEFINE_EVENT(/* event */
hfi1_sge_template, hfi1_sge_check_align,
TP_PROTO(struct rvt_qp *qp, int index, struct rvt_sge *sge),
TP_ARGS(qp, index, sge)
);
DECLARE_EVENT_CLASS(/* tid_write_sp */
hfi1_tid_write_rsp_template,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u32, r_tid_head)
__field(u32, r_tid_tail)
__field(u32, r_tid_ack)
__field(u32, r_tid_alloc)
__field(u32, alloc_w_segs)
__field(u32, pending_tid_w_segs)
__field(bool, sync_pt)
__field(u32, ps_nak_psn)
__field(u8, ps_nak_state)
__field(u8, prnr_nak_state)
__field(u32, hw_flow_index)
__field(u32, generation)
__field(u32, fpsn)
__field(bool, resync)
__field(u32, r_next_psn_kdeth)
),
TP_fast_assign(/* assign */
struct hfi1_qp_priv *priv = qp->priv;
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->r_tid_head = priv->r_tid_head;
__entry->r_tid_tail = priv->r_tid_tail;
__entry->r_tid_ack = priv->r_tid_ack;
__entry->r_tid_alloc = priv->r_tid_alloc;
__entry->alloc_w_segs = priv->alloc_w_segs;
__entry->pending_tid_w_segs = priv->pending_tid_w_segs;
__entry->sync_pt = priv->sync_pt;
__entry->ps_nak_psn = priv->s_nak_psn;
__entry->ps_nak_state = priv->s_nak_state;
__entry->prnr_nak_state = priv->rnr_nak_state;
__entry->hw_flow_index = priv->flow_state.index;
__entry->generation = priv->flow_state.generation;
__entry->fpsn = priv->flow_state.psn;
__entry->resync = priv->resync;
__entry->r_next_psn_kdeth = priv->r_next_psn_kdeth;
),
TP_printk(/* print */
TID_WRITE_RSPDR_PRN,
__get_str(dev),
__entry->qpn,
__entry->r_tid_head,
__entry->r_tid_tail,
__entry->r_tid_ack,
__entry->r_tid_alloc,
__entry->alloc_w_segs,
__entry->pending_tid_w_segs,
__entry->sync_pt ? "yes" : "no",
__entry->ps_nak_psn,
__entry->ps_nak_state,
__entry->prnr_nak_state,
__entry->hw_flow_index,
__entry->generation,
__entry->fpsn,
__entry->resync ? "yes" : "no",
__entry->r_next_psn_kdeth
)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_alloc_res,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_rcv_req,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_build_resp,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_rcv_data,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_rcv_resync,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_make_tid_ack,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_handle_kdeth_eflags,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_rsp_template, hfi1_tid_write_rsp_make_rc_ack,
TP_PROTO(struct rvt_qp *qp),
TP_ARGS(qp)
);
DECLARE_EVENT_CLASS(/* tid_write_sender */
hfi1_tid_write_sender_template,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(char, newreq)
__field(u32, s_tid_cur)
__field(u32, s_tid_tail)
__field(u32, s_tid_head)
__field(u32, pending_tid_w_resp)
__field(u32, n_requests)
__field(u32, n_tid_requests)
__field(u32, s_flags)
__field(u32, ps_flags)
__field(unsigned long, iow_flags)
__field(u8, s_state)
__field(u8, s_retry)
),
TP_fast_assign(/* assign */
struct hfi1_qp_priv *priv = qp->priv;
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->newreq = newreq;
__entry->s_tid_cur = priv->s_tid_cur;
__entry->s_tid_tail = priv->s_tid_tail;
__entry->s_tid_head = priv->s_tid_head;
__entry->pending_tid_w_resp = priv->pending_tid_w_resp;
__entry->n_requests = atomic_read(&priv->n_requests);
__entry->n_tid_requests = atomic_read(&priv->n_tid_requests);
__entry->s_flags = qp->s_flags;
__entry->ps_flags = priv->s_flags;
__entry->iow_flags = priv->s_iowait.flags;
__entry->s_state = priv->s_state;
__entry->s_retry = priv->s_retry;
),
TP_printk(/* print */
TID_WRITE_SENDER_PRN,
__get_str(dev),
__entry->qpn,
__entry->newreq,
__entry->s_tid_cur,
__entry->s_tid_tail,
__entry->s_tid_head,
__entry->pending_tid_w_resp,
__entry->n_requests,
__entry->n_tid_requests,
__entry->s_flags,
__entry->ps_flags,
__entry->iow_flags,
__entry->s_state,
__entry->s_retry
)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_rcv_resp,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_rcv_tid_ack,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_retry_timeout,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_make_tid_pkt,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_make_req,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DEFINE_EVENT(/* event */
hfi1_tid_write_sender_template, hfi1_tid_write_sender_restart_rc,
TP_PROTO(struct rvt_qp *qp, char newreq),
TP_ARGS(qp, newreq)
);
DECLARE_EVENT_CLASS(/* tid_ack */
hfi1_tid_ack_template,
TP_PROTO(struct rvt_qp *qp, u32 aeth, u32 psn,
u32 req_psn, u32 resync_psn),
TP_ARGS(qp, aeth, psn, req_psn, resync_psn),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u32, aeth)
__field(u32, psn)
__field(u32, req_psn)
__field(u32, resync_psn)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->aeth = aeth;
__entry->psn = psn;
__entry->req_psn = req_psn;
__entry->resync_psn = resync_psn;
),
TP_printk(/* print */
"[%s] qpn 0x%x aeth 0x%x psn 0x%x req_psn 0x%x resync_psn 0x%x",
__get_str(dev),
__entry->qpn,
__entry->aeth,
__entry->psn,
__entry->req_psn,
__entry->resync_psn
)
);
DEFINE_EVENT(/* rcv_tid_ack */
hfi1_tid_ack_template, hfi1_rcv_tid_ack,
TP_PROTO(struct rvt_qp *qp, u32 aeth, u32 psn,
u32 req_psn, u32 resync_psn),
TP_ARGS(qp, aeth, psn, req_psn, resync_psn)
);
DECLARE_EVENT_CLASS(/* kdeth_eflags_error */
hfi1_kdeth_eflags_error_template,
TP_PROTO(struct rvt_qp *qp, u8 rcv_type, u8 rte, u32 psn),
TP_ARGS(qp, rcv_type, rte, psn),
TP_STRUCT__entry(/* entry */
DD_DEV_ENTRY(dd_from_ibdev(qp->ibqp.device))
__field(u32, qpn)
__field(u8, rcv_type)
__field(u8, rte)
__field(u32, psn)
),
TP_fast_assign(/* assign */
DD_DEV_ASSIGN(dd_from_ibdev(qp->ibqp.device));
__entry->qpn = qp->ibqp.qp_num;
__entry->rcv_type = rcv_type;
__entry->rte = rte;
__entry->psn = psn;
),
TP_printk(/* print */
KDETH_EFLAGS_ERR_PRN,
__get_str(dev),
__entry->qpn,
__entry->rcv_type,
__entry->rte,
__entry->psn
)
);
DEFINE_EVENT(/* event */
hfi1_kdeth_eflags_error_template, hfi1_eflags_err_write,
TP_PROTO(struct rvt_qp *qp, u8 rcv_type, u8 rte, u32 psn),
TP_ARGS(qp, rcv_type, rte, psn)
);
#endif /* __HFI1_TRACE_TID_H */
#undef TRACE_INCLUDE_PATH
#undef TRACE_INCLUDE_FILE
#define TRACE_INCLUDE_PATH .
#define TRACE_INCLUDE_FILE trace_tid
#include <trace/define_trace.h>