octeon_ipd.c revision 1.4 1 1.4 simonb /* $NetBSD: octeon_ipd.c,v 1.4 2020/06/18 13:52:08 simonb Exp $ */
2 1.1 hikaru
3 1.1 hikaru /*
4 1.1 hikaru * Copyright (c) 2007 Internet Initiative Japan, Inc.
5 1.1 hikaru * All rights reserved.
6 1.1 hikaru *
7 1.1 hikaru * Redistribution and use in source and binary forms, with or without
8 1.1 hikaru * modification, are permitted provided that the following conditions
9 1.1 hikaru * are met:
10 1.1 hikaru * 1. Redistributions of source code must retain the above copyright
11 1.1 hikaru * notice, this list of conditions and the following disclaimer.
12 1.1 hikaru * 2. Redistributions in binary form must reproduce the above copyright
13 1.1 hikaru * notice, this list of conditions and the following disclaimer in the
14 1.1 hikaru * documentation and/or other materials provided with the distribution.
15 1.1 hikaru *
16 1.1 hikaru * THIS SOFTWARE IS PROVIDED BY THE REGENTS AND CONTRIBUTORS ``AS IS'' AND
17 1.1 hikaru * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
18 1.1 hikaru * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
19 1.1 hikaru * ARE DISCLAIMED. IN NO EVENT SHALL THE REGENTS OR CONTRIBUTORS BE LIABLE
20 1.1 hikaru * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
21 1.1 hikaru * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
22 1.1 hikaru * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
23 1.1 hikaru * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
24 1.1 hikaru * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
25 1.1 hikaru * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
26 1.1 hikaru * SUCH DAMAGE.
27 1.1 hikaru */
28 1.1 hikaru
29 1.1 hikaru #include <sys/cdefs.h>
30 1.4 simonb __KERNEL_RCSID(0, "$NetBSD: octeon_ipd.c,v 1.4 2020/06/18 13:52:08 simonb Exp $");
31 1.1 hikaru
32 1.1 hikaru #include "opt_octeon.h"
33 1.1 hikaru
34 1.1 hikaru #include "opt_octeon.h"
35 1.1 hikaru
36 1.1 hikaru #include <sys/param.h>
37 1.1 hikaru #include <sys/systm.h>
38 1.1 hikaru #include <sys/malloc.h>
39 1.1 hikaru #include <sys/mbuf.h>
40 1.1 hikaru #include <mips/locore.h>
41 1.1 hikaru #include <mips/cavium/octeonvar.h>
42 1.1 hikaru #include <mips/cavium/dev/octeon_ciureg.h>
43 1.4 simonb #include <mips/cavium/dev/octeon_fpareg.h>
44 1.1 hikaru #include <mips/cavium/dev/octeon_fpavar.h>
45 1.1 hikaru #include <mips/cavium/dev/octeon_pipreg.h>
46 1.1 hikaru #include <mips/cavium/dev/octeon_ipdreg.h>
47 1.1 hikaru #include <mips/cavium/dev/octeon_ipdvar.h>
48 1.1 hikaru
49 1.1 hikaru #include <netinet/in.h>
50 1.1 hikaru #include <netinet/in_systm.h>
51 1.1 hikaru #include <netinet/ip.h>
52 1.1 hikaru
53 1.1 hikaru #define IP_OFFSET(data, word2) \
54 1.4 simonb ((uintptr_t)(data) + (uintptr_t)__SHIFTOUT(word2, PIP_WQE_WORD2_IP_OFFSET))
55 1.1 hikaru
56 1.3 simonb #ifdef CNMAC_DEBUG
57 1.3 simonb void octipd_intr_evcnt_attach(struct octipd_softc *);
58 1.3 simonb void octipd_intr_rml(void *);
59 1.3 simonb int octipd_intr_drop(void *);
60 1.1 hikaru
61 1.3 simonb void octipd_dump(void);
62 1.1 hikaru
63 1.3 simonb static void *octipd_intr_drop_ih;
64 1.3 simonb struct evcnt octipd_intr_drop_evcnt =
65 1.1 hikaru EVCNT_INITIALIZER(EVCNT_TYPE_INTR, NULL, "octeon",
66 1.1 hikaru "ipd drop intr");
67 1.3 simonb EVCNT_ATTACH_STATIC(octipd_intr_drop_evcnt);
68 1.1 hikaru
69 1.3 simonb struct octipd_softc *__octipd_softc[3/* XXX */];
70 1.1 hikaru #endif
71 1.1 hikaru
72 1.1 hikaru /* XXX */
73 1.1 hikaru void
74 1.3 simonb octipd_init(struct octipd_attach_args *aa, struct octipd_softc **rsc)
75 1.1 hikaru {
76 1.3 simonb struct octipd_softc *sc;
77 1.1 hikaru int status;
78 1.1 hikaru
79 1.1 hikaru sc = malloc(sizeof(*sc), M_DEVBUF, M_WAITOK | M_ZERO);
80 1.1 hikaru if (sc == NULL)
81 1.1 hikaru panic("can't allocate memory: %s", __func__);
82 1.1 hikaru
83 1.1 hikaru sc->sc_port = aa->aa_port;
84 1.1 hikaru sc->sc_regt = aa->aa_regt;
85 1.1 hikaru sc->sc_first_mbuff_skip = aa->aa_first_mbuff_skip;
86 1.1 hikaru sc->sc_not_first_mbuff_skip = aa->aa_not_first_mbuff_skip;
87 1.1 hikaru
88 1.1 hikaru status = bus_space_map(sc->sc_regt, IPD_BASE, IPD_SIZE, 0,
89 1.1 hikaru &sc->sc_regh);
90 1.1 hikaru if (status != 0)
91 1.1 hikaru panic("can't map %s space", "ipd register");
92 1.1 hikaru
93 1.1 hikaru *rsc = sc;
94 1.1 hikaru
95 1.3 simonb #ifdef CNMAC_DEBUG
96 1.3 simonb octipd_int_enable(sc, 1);
97 1.3 simonb octipd_intr_evcnt_attach(sc);
98 1.3 simonb if (octipd_intr_drop_ih == NULL)
99 1.3 simonb octipd_intr_drop_ih = octeon_intr_establish(
100 1.2 matt ffs64(CIU_INTX_SUM0_IPD_DRP) - 1, IPL_NET,
101 1.3 simonb octipd_intr_drop, NULL);
102 1.3 simonb __octipd_softc[sc->sc_port] = sc;
103 1.3 simonb #endif /* CNMAC_DEBUG */
104 1.1 hikaru }
105 1.1 hikaru
106 1.1 hikaru #define _IPD_RD8(sc, off) \
107 1.1 hikaru bus_space_read_8((sc)->sc_regt, (sc)->sc_regh, (off))
108 1.1 hikaru #define _IPD_WR8(sc, off, v) \
109 1.1 hikaru bus_space_write_8((sc)->sc_regt, (sc)->sc_regh, (off), (v))
110 1.1 hikaru
111 1.1 hikaru int
112 1.3 simonb octipd_enable(struct octipd_softc *sc)
113 1.1 hikaru {
114 1.1 hikaru uint64_t ctl_status;
115 1.1 hikaru
116 1.1 hikaru ctl_status = _IPD_RD8(sc, IPD_CTL_STATUS_OFFSET);
117 1.1 hikaru SET(ctl_status, IPD_CTL_STATUS_IPD_EN);
118 1.1 hikaru _IPD_WR8(sc, IPD_CTL_STATUS_OFFSET, ctl_status);
119 1.1 hikaru
120 1.1 hikaru return 0;
121 1.1 hikaru }
122 1.1 hikaru
123 1.1 hikaru int
124 1.3 simonb octipd_config(struct octipd_softc *sc)
125 1.1 hikaru {
126 1.1 hikaru uint64_t first_mbuff_skip;
127 1.1 hikaru uint64_t not_first_mbuff_skip;
128 1.1 hikaru uint64_t packet_mbuff_size;
129 1.1 hikaru uint64_t first_next_ptr_back;
130 1.1 hikaru uint64_t second_next_ptr_back;
131 1.1 hikaru uint64_t sqe_fpa_queue;
132 1.1 hikaru uint64_t ctl_status;
133 1.1 hikaru
134 1.1 hikaru /* XXX XXX XXX */
135 1.1 hikaru first_mbuff_skip = 0;
136 1.1 hikaru SET(first_mbuff_skip, (sc->sc_first_mbuff_skip / 8) & IPD_1ST_MBUFF_SKIP_SZ);
137 1.1 hikaru _IPD_WR8(sc, IPD_1ST_MBUFF_SKIP_OFFSET, first_mbuff_skip);
138 1.1 hikaru /* XXX XXX XXX */
139 1.1 hikaru
140 1.1 hikaru /* XXX XXX XXX */
141 1.1 hikaru not_first_mbuff_skip = 0;
142 1.1 hikaru SET(not_first_mbuff_skip, (sc->sc_not_first_mbuff_skip / 8) &
143 1.1 hikaru IPD_NOT_1ST_MBUFF_SKIP_SZ);
144 1.1 hikaru _IPD_WR8(sc, IPD_NOT_1ST_MBUFF_SKIP_OFFSET, not_first_mbuff_skip);
145 1.1 hikaru /* XXX XXX XXX */
146 1.1 hikaru
147 1.1 hikaru packet_mbuff_size = 0;
148 1.1 hikaru SET(packet_mbuff_size, (FPA_RECV_PKT_POOL_SIZE / 8) &
149 1.1 hikaru IPD_PACKET_MBUFF_SIZE_MB_SIZE);
150 1.1 hikaru _IPD_WR8(sc, IPD_PACKET_MBUFF_SIZE_OFFSET, packet_mbuff_size);
151 1.1 hikaru
152 1.1 hikaru first_next_ptr_back = 0;
153 1.1 hikaru SET(first_next_ptr_back, (sc->sc_first_mbuff_skip / 128) & IPD_1ST_NEXT_PTR_BACK_BACK);
154 1.1 hikaru _IPD_WR8(sc, IPD_1ST_NEXT_PTR_BACK_OFFSET, first_next_ptr_back);
155 1.1 hikaru
156 1.1 hikaru second_next_ptr_back = 0;
157 1.1 hikaru SET(second_next_ptr_back, (sc->sc_not_first_mbuff_skip / 128) &
158 1.1 hikaru IPD_2ND_NEXT_PTR_BACK_BACK);
159 1.1 hikaru _IPD_WR8(sc, IPD_2ND_NEXT_PTR_BACK_OFFSET, second_next_ptr_back);
160 1.1 hikaru
161 1.1 hikaru sqe_fpa_queue = 0;
162 1.1 hikaru SET(sqe_fpa_queue, FPA_WQE_POOL & IPD_WQE_FPA_QUEUE_WQE_QUE);
163 1.1 hikaru _IPD_WR8(sc, IPD_WQE_FPA_QUEUE_OFFSET, sqe_fpa_queue);
164 1.1 hikaru
165 1.1 hikaru ctl_status = _IPD_RD8(sc, IPD_CTL_STATUS_OFFSET);
166 1.1 hikaru CLR(ctl_status, IPD_CTL_STATUS_OPC_MODE);
167 1.4 simonb SET(ctl_status,
168 1.4 simonb __SHIFTIN(IPD_CTL_STATUS_OPC_MODE_ALL, IPD_CTL_STATUS_OPC_MODE));
169 1.1 hikaru SET(ctl_status, IPD_CTL_STATUS_PBP_EN);
170 1.1 hikaru
171 1.1 hikaru /*
172 1.1 hikaru * XXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXX
173 1.1 hikaru * from SDK
174 1.1 hikaru * SET(ctl_status, IPD_CTL_STATUS_LEN_M8);
175 1.1 hikaru * XXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXXX
176 1.1 hikaru */
177 1.1 hikaru
178 1.1 hikaru _IPD_WR8(sc, IPD_CTL_STATUS_OFFSET, ctl_status);
179 1.1 hikaru
180 1.1 hikaru return 0;
181 1.1 hikaru }
182 1.1 hikaru
183 1.1 hikaru /*
184 1.1 hikaru * octeon work queue entry offload
185 1.1 hikaru * L3 error & L4 error
186 1.1 hikaru */
187 1.1 hikaru void
188 1.3 simonb octipd_offload(uint64_t word2, void *data, int *rcflags)
189 1.1 hikaru {
190 1.1 hikaru int cflags;
191 1.1 hikaru
192 1.1 hikaru if (ISSET(word2, PIP_WQE_WORD2_IP_NI))
193 1.1 hikaru return;
194 1.1 hikaru
195 1.1 hikaru cflags = 0;
196 1.1 hikaru
197 1.1 hikaru if (!ISSET(word2, PIP_WQE_WORD2_IP_V6))
198 1.1 hikaru SET(cflags, M_CSUM_IPv4);
199 1.1 hikaru
200 1.1 hikaru if (ISSET(word2, PIP_WQE_WORD2_IP_TU)) {
201 1.1 hikaru SET(cflags,
202 1.1 hikaru !ISSET(word2, PIP_WQE_WORD2_IP_V6) ?
203 1.1 hikaru (M_CSUM_TCPv4 | M_CSUM_UDPv4) :
204 1.1 hikaru (M_CSUM_TCPv6 | M_CSUM_UDPv6));
205 1.1 hikaru }
206 1.1 hikaru
207 1.1 hikaru /* check L3 (IP) error */
208 1.1 hikaru if (ISSET(word2, PIP_WQE_WORD2_IP_IE)) {
209 1.1 hikaru struct ip *ip;
210 1.1 hikaru
211 1.1 hikaru switch (word2 & PIP_WQE_WORD2_IP_OPECODE) {
212 1.1 hikaru case IPD_WQE_L3_V4_CSUM_ERR:
213 1.1 hikaru /* CN31XX Pass 1.1 Errata */
214 1.1 hikaru ip = (struct ip *)(IP_OFFSET(data, word2));
215 1.1 hikaru if (ip->ip_hl == 5)
216 1.1 hikaru SET(cflags, M_CSUM_IPv4_BAD);
217 1.1 hikaru break;
218 1.1 hikaru default:
219 1.1 hikaru break;
220 1.1 hikaru }
221 1.1 hikaru }
222 1.1 hikaru
223 1.1 hikaru /* check L4 (UDP / TCP) error */
224 1.1 hikaru if (ISSET(word2, PIP_WQE_WORD2_IP_LE)) {
225 1.1 hikaru switch (word2 & PIP_WQE_WORD2_IP_OPECODE) {
226 1.1 hikaru case IPD_WQE_L4_CSUM_ERR:
227 1.1 hikaru SET(cflags, M_CSUM_TCP_UDP_BAD);
228 1.1 hikaru break;
229 1.1 hikaru default:
230 1.1 hikaru break;
231 1.1 hikaru }
232 1.1 hikaru }
233 1.1 hikaru
234 1.1 hikaru *rcflags = cflags;
235 1.1 hikaru }
236 1.1 hikaru
237 1.1 hikaru int
238 1.3 simonb octipd_red(struct octipd_softc *sc, uint64_t pass_thr, uint64_t drop_thr)
239 1.1 hikaru {
240 1.3 simonb #if defined(CNMAC_IPD_RED)
241 1.1 hikaru /*
242 1.1 hikaru * no receive problem workaround.
243 1.1 hikaru * if not set IPD RED pramaters,
244 1.1 hikaru * may become unable to receive packet
245 1.1 hikaru * on media mismatch environment
246 1.1 hikaru * of self media 100-half duplex.
247 1.1 hikaru */
248 1.1 hikaru uint64_t red_marks;
249 1.1 hikaru uint64_t red_param;
250 1.1 hikaru uint64_t red_port;
251 1.1 hikaru
252 1.1 hikaru red_marks = drop_thr << 32 /* XXX */ | pass_thr;
253 1.1 hikaru _IPD_WR8(sc, IPD_QOS0_RED_MARKS_OFFSET, red_marks);
254 1.1 hikaru _IPD_WR8(sc, IPD_QOS1_RED_MARKS_OFFSET, red_marks);
255 1.1 hikaru _IPD_WR8(sc, IPD_QOS2_RED_MARKS_OFFSET, red_marks);
256 1.1 hikaru _IPD_WR8(sc, IPD_QOS3_RED_MARKS_OFFSET, red_marks);
257 1.1 hikaru _IPD_WR8(sc, IPD_QOS4_RED_MARKS_OFFSET, red_marks);
258 1.1 hikaru _IPD_WR8(sc, IPD_QOS5_RED_MARKS_OFFSET, red_marks);
259 1.1 hikaru _IPD_WR8(sc, IPD_QOS6_RED_MARKS_OFFSET, red_marks);
260 1.1 hikaru _IPD_WR8(sc, IPD_QOS7_RED_MARKS_OFFSET, red_marks);
261 1.1 hikaru red_param =
262 1.1 hikaru ((255ull << 24 /* XXX */) / (pass_thr - drop_thr)) |
263 1.1 hikaru 1ull << 32 /* XXX */ |
264 1.1 hikaru 255ull << 40 /* XXX */ |
265 1.1 hikaru 1ull << 48 /* XXX */;
266 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE0_PARAM_OFFSET, red_param);
267 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE1_PARAM_OFFSET, red_param);
268 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE2_PARAM_OFFSET, red_param);
269 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE3_PARAM_OFFSET, red_param);
270 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE4_PARAM_OFFSET, red_param);
271 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE5_PARAM_OFFSET, red_param);
272 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE6_PARAM_OFFSET, red_param);
273 1.1 hikaru _IPD_WR8(sc, IPD_RED_QUE7_PARAM_OFFSET, red_param);
274 1.1 hikaru
275 1.1 hikaru _IPD_WR8(sc, IPD_BP_PRT_RED_END_OFFSET, 0);
276 1.1 hikaru
277 1.1 hikaru red_port = 0xfffffffffull |
278 1.1 hikaru 10000ull << 36 /* XXX */ |
279 1.1 hikaru 10000ull << 50 /* XXX */;
280 1.1 hikaru _IPD_WR8(sc, IPD_RED_PORT_ENABLE_OFFSET, red_port);
281 1.1 hikaru #endif
282 1.1 hikaru
283 1.1 hikaru return 0;
284 1.1 hikaru }
285 1.1 hikaru
286 1.1 hikaru void
287 1.3 simonb octipd_sub_port_fcs(struct octipd_softc *sc, int enable)
288 1.1 hikaru {
289 1.1 hikaru uint64_t sub_port_fcs;
290 1.1 hikaru
291 1.1 hikaru sub_port_fcs = _IPD_RD8(sc, IPD_SUB_PORT_FCS_OFFSET);
292 1.1 hikaru if (enable == 0)
293 1.1 hikaru CLR(sub_port_fcs, 1 << sc->sc_port);
294 1.1 hikaru else
295 1.1 hikaru SET(sub_port_fcs, 1 << sc->sc_port);
296 1.1 hikaru _IPD_WR8(sc, IPD_SUB_PORT_FCS_OFFSET, sub_port_fcs);
297 1.1 hikaru }
298 1.1 hikaru
299 1.3 simonb #ifdef CNMAC_DEBUG
300 1.3 simonb int octipd_intr_rml_verbose;
301 1.3 simonb struct evcnt octipd_intr_evcnt;
302 1.1 hikaru
303 1.3 simonb static const struct octeon_evcnt_entry octipd_intr_evcnt_entries[] = {
304 1.1 hikaru #define _ENTRY(name, type, parent, descr) \
305 1.3 simonb OCTEON_EVCNT_ENTRY(struct octipd_softc, name, type, parent, descr)
306 1.1 hikaru _ENTRY(ipdbpsub, MISC, NULL, "ipd backpressure subtract"),
307 1.1 hikaru _ENTRY(ipdprcpar3, MISC, NULL, "ipd parity error 127:96"),
308 1.1 hikaru _ENTRY(ipdprcpar2, MISC, NULL, "ipd parity error 95:64"),
309 1.1 hikaru _ENTRY(ipdprcpar1, MISC, NULL, "ipd parity error 63:32"),
310 1.1 hikaru _ENTRY(ipdprcpar0, MISC, NULL, "ipd parity error 31:0"),
311 1.1 hikaru #undef _ENTRY
312 1.1 hikaru };
313 1.1 hikaru
314 1.1 hikaru void
315 1.3 simonb octipd_intr_evcnt_attach(struct octipd_softc *sc)
316 1.1 hikaru {
317 1.3 simonb OCTEON_EVCNT_ATTACH_EVCNTS(sc, octipd_intr_evcnt_entries, "ipd0");
318 1.1 hikaru }
319 1.1 hikaru
320 1.1 hikaru void
321 1.3 simonb octipd_intr_rml(void *arg)
322 1.1 hikaru {
323 1.1 hikaru int i;
324 1.1 hikaru
325 1.3 simonb octipd_intr_evcnt.ev_count++;
326 1.1 hikaru for (i = 0; i < 3/* XXX */; i++) {
327 1.3 simonb struct octipd_softc *sc;
328 1.1 hikaru uint64_t reg;
329 1.1 hikaru
330 1.3 simonb sc = __octipd_softc[i];
331 1.1 hikaru KASSERT(sc != NULL);
332 1.3 simonb reg = octipd_int_summary(sc);
333 1.3 simonb if (octipd_intr_rml_verbose)
334 1.1 hikaru printf("%s: IPD_INT_SUM=0x%016" PRIx64 "\n", __func__, reg);
335 1.1 hikaru if (reg & IPD_INT_SUM_BP_SUB)
336 1.1 hikaru OCTEON_EVCNT_INC(sc, ipdbpsub);
337 1.1 hikaru if (reg & IPD_INT_SUM_PRC_PAR3)
338 1.1 hikaru OCTEON_EVCNT_INC(sc, ipdprcpar3);
339 1.1 hikaru if (reg & IPD_INT_SUM_PRC_PAR2)
340 1.1 hikaru OCTEON_EVCNT_INC(sc, ipdprcpar2);
341 1.1 hikaru if (reg & IPD_INT_SUM_PRC_PAR1)
342 1.1 hikaru OCTEON_EVCNT_INC(sc, ipdprcpar1);
343 1.1 hikaru if (reg & IPD_INT_SUM_PRC_PAR0)
344 1.1 hikaru OCTEON_EVCNT_INC(sc, ipdprcpar0);
345 1.1 hikaru }
346 1.1 hikaru }
347 1.1 hikaru
348 1.1 hikaru void
349 1.3 simonb octipd_int_enable(struct octipd_softc *sc, int enable)
350 1.1 hikaru {
351 1.1 hikaru uint64_t ipd_int_xxx = 0;
352 1.1 hikaru
353 1.1 hikaru SET(ipd_int_xxx,
354 1.1 hikaru IPD_INT_SUM_BP_SUB |
355 1.1 hikaru IPD_INT_SUM_PRC_PAR3 |
356 1.1 hikaru IPD_INT_SUM_PRC_PAR2 |
357 1.1 hikaru IPD_INT_SUM_PRC_PAR1 |
358 1.1 hikaru IPD_INT_SUM_PRC_PAR0);
359 1.1 hikaru _IPD_WR8(sc, IPD_INT_SUM_OFFSET, ipd_int_xxx);
360 1.1 hikaru _IPD_WR8(sc, IPD_INT_ENB_OFFSET, enable ? ipd_int_xxx : 0);
361 1.1 hikaru }
362 1.1 hikaru
363 1.1 hikaru uint64_t
364 1.3 simonb octipd_int_summary(struct octipd_softc *sc)
365 1.1 hikaru {
366 1.1 hikaru uint64_t summary;
367 1.1 hikaru
368 1.1 hikaru summary = _IPD_RD8(sc, IPD_INT_SUM_OFFSET);
369 1.1 hikaru _IPD_WR8(sc, IPD_INT_SUM_OFFSET, summary);
370 1.1 hikaru return summary;
371 1.1 hikaru }
372 1.1 hikaru
373 1.1 hikaru int
374 1.3 simonb octipd_intr_drop(void *arg)
375 1.1 hikaru {
376 1.1 hikaru octeon_write_csr(CIU_INT0_SUM0, CIU_INTX_SUM0_IPD_DRP);
377 1.3 simonb octipd_intr_drop_evcnt.ev_count++;
378 1.1 hikaru return (1);
379 1.1 hikaru }
380 1.1 hikaru
381 1.1 hikaru #define _ENTRY(x) { #x, x##_BITS, x##_OFFSET }
382 1.1 hikaru
383 1.3 simonb struct octipd_dump_reg {
384 1.1 hikaru const char *name;
385 1.1 hikaru const char *format;
386 1.1 hikaru size_t offset;
387 1.1 hikaru };
388 1.1 hikaru
389 1.3 simonb static const struct octipd_dump_reg octipd_dump_regs[] = {
390 1.1 hikaru _ENTRY(IPD_1ST_MBUFF_SKIP),
391 1.1 hikaru _ENTRY(IPD_NOT_1ST_MBUFF_SKIP),
392 1.1 hikaru _ENTRY(IPD_PACKET_MBUFF_SIZE),
393 1.1 hikaru _ENTRY(IPD_CTL_STATUS),
394 1.1 hikaru _ENTRY(IPD_WQE_FPA_QUEUE),
395 1.1 hikaru _ENTRY(IPD_PORT0_BP_PAGE_CNT),
396 1.1 hikaru _ENTRY(IPD_PORT1_BP_PAGE_CNT),
397 1.1 hikaru _ENTRY(IPD_PORT2_BP_PAGE_CNT),
398 1.1 hikaru _ENTRY(IPD_PORT32_BP_PAGE_CNT),
399 1.1 hikaru _ENTRY(IPD_SUB_PORT_BP_PAGE_CNT),
400 1.1 hikaru _ENTRY(IPD_1ST_NEXT_PTR_BACK),
401 1.1 hikaru _ENTRY(IPD_2ND_NEXT_PTR_BACK),
402 1.1 hikaru _ENTRY(IPD_INT_ENB),
403 1.1 hikaru _ENTRY(IPD_INT_SUM),
404 1.1 hikaru _ENTRY(IPD_SUB_PORT_FCS),
405 1.1 hikaru _ENTRY(IPD_QOS0_RED_MARKS),
406 1.1 hikaru _ENTRY(IPD_QOS1_RED_MARKS),
407 1.1 hikaru _ENTRY(IPD_QOS2_RED_MARKS),
408 1.1 hikaru _ENTRY(IPD_QOS3_RED_MARKS),
409 1.1 hikaru _ENTRY(IPD_QOS4_RED_MARKS),
410 1.1 hikaru _ENTRY(IPD_QOS5_RED_MARKS),
411 1.1 hikaru _ENTRY(IPD_QOS6_RED_MARKS),
412 1.1 hikaru _ENTRY(IPD_QOS7_RED_MARKS),
413 1.1 hikaru _ENTRY(IPD_PORT_BP_COUNTERS_PAIR0),
414 1.1 hikaru _ENTRY(IPD_PORT_BP_COUNTERS_PAIR1),
415 1.1 hikaru _ENTRY(IPD_PORT_BP_COUNTERS_PAIR2),
416 1.1 hikaru _ENTRY(IPD_PORT_BP_COUNTERS_PAIR32),
417 1.1 hikaru _ENTRY(IPD_RED_PORT_ENABLE),
418 1.1 hikaru _ENTRY(IPD_RED_QUE0_PARAM),
419 1.1 hikaru _ENTRY(IPD_RED_QUE1_PARAM),
420 1.1 hikaru _ENTRY(IPD_RED_QUE2_PARAM),
421 1.1 hikaru _ENTRY(IPD_RED_QUE3_PARAM),
422 1.1 hikaru _ENTRY(IPD_RED_QUE4_PARAM),
423 1.1 hikaru _ENTRY(IPD_RED_QUE5_PARAM),
424 1.1 hikaru _ENTRY(IPD_RED_QUE6_PARAM),
425 1.1 hikaru _ENTRY(IPD_RED_QUE7_PARAM),
426 1.1 hikaru _ENTRY(IPD_PTR_COUNT),
427 1.1 hikaru _ENTRY(IPD_BP_PRT_RED_END),
428 1.1 hikaru _ENTRY(IPD_QUE0_FREE_PAGE_CNT),
429 1.1 hikaru _ENTRY(IPD_CLK_COUNT),
430 1.1 hikaru _ENTRY(IPD_PWP_PTR_FIFO_CTL),
431 1.1 hikaru _ENTRY(IPD_PRC_HOLD_PTR_FIFO_CTL),
432 1.1 hikaru _ENTRY(IPD_PRC_PORT_PTR_FIFO_CTL),
433 1.1 hikaru _ENTRY(IPD_PKT_PTR_VALID),
434 1.1 hikaru _ENTRY(IPD_WQE_PTR_VALID),
435 1.1 hikaru _ENTRY(IPD_BIST_STATUS),
436 1.1 hikaru };
437 1.1 hikaru
438 1.1 hikaru void
439 1.3 simonb octipd_dump(void)
440 1.1 hikaru {
441 1.3 simonb struct octipd_softc *sc;
442 1.3 simonb const struct octipd_dump_reg *reg;
443 1.1 hikaru uint64_t tmp;
444 1.1 hikaru char buf[512];
445 1.1 hikaru int i;
446 1.1 hikaru
447 1.3 simonb sc = __octipd_softc[0];
448 1.3 simonb for (i = 0; i < (int)__arraycount(octipd_dump_regs); i++) {
449 1.3 simonb reg = &octipd_dump_regs[i];
450 1.1 hikaru tmp = _IPD_RD8(sc, reg->offset);
451 1.1 hikaru if (reg->format == NULL) {
452 1.1 hikaru snprintf(buf, sizeof(buf), "%16" PRIx64, tmp);
453 1.1 hikaru } else {
454 1.1 hikaru snprintb(buf, sizeof(buf), reg->format, tmp);
455 1.1 hikaru }
456 1.1 hikaru printf("%-32s: %s\n", reg->name, buf);
457 1.1 hikaru }
458 1.1 hikaru }
459 1.3 simonb #endif /* CNMAC_DEBUG */
460