set_intr_bits(dd, IS_RCVURGENT_START + rcd->ctxt,
IS_RCVURGENT_START + rcd->ctxt, false);
- hfi1_cdbg(RCVCTRL, "ctxt %d rcvctrl 0x%llx\n", ctxt, rcvctrl);
+ hfi1_cdbg(RCVCTRL, "ctxt %d rcvctrl 0x%llx", ctxt, rcvctrl);
write_kctxt_csr(dd, ctxt, RCV_CTXT_CTRL, rcvctrl);
/* work around sticky RcvCtxtStatus.BlockedRHQFull */
hfi1_cdbg(CNTR, "reading %s", entry->name);
if (entry->flags & CNTR_DISABLED) {
/* Nothing */
- hfi1_cdbg(CNTR, "\tDisabled\n");
+ hfi1_cdbg(CNTR, "\tDisabled");
} else {
if (entry->flags & CNTR_VL) {
- hfi1_cdbg(CNTR, "\tPer VL\n");
+ hfi1_cdbg(CNTR, "\tPer VL");
for (j = 0; j < C_VL_COUNT; j++) {
val = entry->rw_cntr(entry,
dd, j,
0);
hfi1_cdbg(
CNTR,
- "\t\tRead 0x%llx for %d\n",
+ "\t\tRead 0x%llx for %d",
val, j);
dd->cntrs[entry->offset + j] =
val;
}
} else if (entry->flags & CNTR_SDMA) {
hfi1_cdbg(CNTR,
- "\t Per SDMA Engine\n");
+ "\t Per SDMA Engine");
for (j = 0; j < chip_sdma_engines(dd);
j++) {
val =
entry->rw_cntr(entry, dd, j,
CNTR_MODE_R, 0);
hfi1_cdbg(CNTR,
- "\t\tRead 0x%llx for %d\n",
+ "\t\tRead 0x%llx for %d",
val, j);
dd->cntrs[entry->offset + j] =
val;
hfi1_cdbg(CNTR, "reading %s", entry->name);
if (entry->flags & CNTR_DISABLED) {
/* Nothing */
- hfi1_cdbg(CNTR, "\tDisabled\n");
+ hfi1_cdbg(CNTR, "\tDisabled");
continue;
}
hfi1_cdbg(
CNTR,
- "[%d] curr tx=0x%llx rx=0x%llx :: last tx=0x%llx rx=0x%llx\n",
+ "[%d] curr tx=0x%llx rx=0x%llx :: last tx=0x%llx rx=0x%llx",
dd->unit, cur_tx, cur_rx, dd->last_tx, dd->last_rx);
if ((cur_tx < dd->last_tx) || (cur_rx < dd->last_rx)) {
} else {
total_flits = (cur_tx - dd->last_tx) + (cur_rx - dd->last_rx);
hfi1_cdbg(CNTR,
- "[%d] total flits 0x%llx limit 0x%llx\n", dd->unit,
+ "[%d] total flits 0x%llx limit 0x%llx", dd->unit,
total_flits, (u64)CNTR_32BIT_MAX);
if (total_flits >= CNTR_32BIT_MAX) {
hfi1_cdbg(CNTR, "[%d] 32bit limit hit, updating",
INIT_LIST_HEAD(&rcd->flow_queue.queue_head);
INIT_LIST_HEAD(&rcd->rarr_queue.queue_head);
- hfi1_cdbg(PROC, "setting up context %u\n", rcd->ctxt);
+ hfi1_cdbg(PROC, "setting up context %u", rcd->ctxt);
/*
* Calculate the context's RcvArray entry starting point.
rcd->egrbufs.count = MAX_EAGER_ENTRIES;
}
hfi1_cdbg(PROC,
- "ctxt%u: max Eager buffer RcvArray entries: %u\n",
+ "ctxt%u: max Eager buffer RcvArray entries: %u",
rcd->ctxt, rcd->egrbufs.count);
/*
if (rcd->egrbufs.size < hfi1_max_mtu) {
rcd->egrbufs.size = __roundup_pow_of_two(hfi1_max_mtu);
hfi1_cdbg(PROC,
- "ctxt%u: eager bufs size too small. Adjusting to %u\n",
+ "ctxt%u: eager bufs size too small. Adjusting to %u",
rcd->ctxt, rcd->egrbufs.size);
}
rcd->egrbufs.rcvtid_size = HFI1_MAX_EAGER_BUFFER_SIZE;
rcd->egrbufs.size = alloced_bytes;
hfi1_cdbg(PROC,
- "ctxt%u: Alloced %u rcv tid entries @ %uKB, total %uKB\n",
+ "ctxt%u: Alloced %u rcv tid entries @ %uKB, total %uKB",
rcd->ctxt, rcd->egrbufs.alloced,
rcd->egrbufs.rcvtid_size / 1024, rcd->egrbufs.size / 1024);
rcd->expected_count = MAX_TID_PAIR_ENTRIES * 2;
rcd->expected_base = rcd->eager_base + egrtop;
- hfi1_cdbg(PROC, "ctxt%u: eager:%u, exp:%u, egrbase:%u, expbase:%u\n",
+ hfi1_cdbg(PROC, "ctxt%u: eager:%u, exp:%u, egrbase:%u, expbase:%u",
rcd->ctxt, rcd->egrbufs.alloced, rcd->expected_count,
rcd->eager_base, rcd->expected_base);
if (!hfi1_rcvbuf_validate(rcd->egrbufs.rcvtid_size, PT_EAGER, &order)) {
hfi1_cdbg(PROC,
- "ctxt%u: current Eager buffer size is invalid %u\n",
+ "ctxt%u: current Eager buffer size is invalid %u",
rcd->ctxt, rcd->egrbufs.rcvtid_size);
ret = -EINVAL;
goto bail_rcvegrbuf_phys;