gt.c revision 1.29 1 1.29 thorpej /* $NetBSD: gt.c,v 1.29 2021/04/24 23:36:56 thorpej Exp $ */
2 1.1 matt
3 1.1 matt /*
4 1.1 matt * Copyright (c) 2002 Allegro Networks, Inc., Wasabi Systems, Inc.
5 1.1 matt * All rights reserved.
6 1.1 matt *
7 1.1 matt * Redistribution and use in source and binary forms, with or without
8 1.1 matt * modification, are permitted provided that the following conditions
9 1.1 matt * are met:
10 1.1 matt * 1. Redistributions of source code must retain the above copyright
11 1.1 matt * notice, this list of conditions and the following disclaimer.
12 1.1 matt * 2. Redistributions in binary form must reproduce the above copyright
13 1.1 matt * notice, this list of conditions and the following disclaimer in the
14 1.1 matt * documentation and/or other materials provided with the distribution.
15 1.1 matt * 3. All advertising materials mentioning features or use of this software
16 1.1 matt * must display the following acknowledgement:
17 1.1 matt * This product includes software developed for the NetBSD Project by
18 1.1 matt * Allegro Networks, Inc., and Wasabi Systems, Inc.
19 1.1 matt * 4. The name of Allegro Networks, Inc. may not be used to endorse
20 1.1 matt * or promote products derived from this software without specific prior
21 1.1 matt * written permission.
22 1.1 matt * 5. The name of Wasabi Systems, Inc. may not be used to endorse
23 1.1 matt * or promote products derived from this software without specific prior
24 1.1 matt * written permission.
25 1.1 matt *
26 1.1 matt * THIS SOFTWARE IS PROVIDED BY ALLEGRO NETWORKS, INC. AND
27 1.1 matt * WASABI SYSTEMS, INC. ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES,
28 1.1 matt * INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY
29 1.1 matt * AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
30 1.1 matt * IN NO EVENT SHALL EITHER ALLEGRO NETWORKS, INC. OR WASABI SYSTEMS, INC.
31 1.1 matt * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
32 1.1 matt * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
33 1.1 matt * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
34 1.1 matt * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
35 1.1 matt * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
36 1.1 matt * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
37 1.1 matt * POSSIBILITY OF SUCH DAMAGE.
38 1.1 matt */
39 1.1 matt
40 1.1 matt /*
41 1.1 matt * gt.c -- GT system controller driver
42 1.1 matt */
43 1.5 lukem
44 1.5 lukem #include <sys/cdefs.h>
45 1.29 thorpej __KERNEL_RCSID(0, "$NetBSD: gt.c,v 1.29 2021/04/24 23:36:56 thorpej Exp $");
46 1.1 matt
47 1.1 matt #include "opt_marvell.h"
48 1.23 kiyohara #include "gtmpsc.h"
49 1.24 kiyohara #include "opt_multiprocessor.h"
50 1.8 jmc #include "locators.h"
51 1.1 matt
52 1.1 matt #include <sys/param.h>
53 1.23 kiyohara #include <sys/bus.h>
54 1.1 matt #include <sys/device.h>
55 1.1 matt #include <sys/kernel.h>
56 1.23 kiyohara #include <sys/types.h>
57 1.1 matt
58 1.23 kiyohara #include <dev/marvell/gtintrreg.h>
59 1.23 kiyohara #include <dev/marvell/gtsdmareg.h>
60 1.23 kiyohara #if NGTMPSC > 0
61 1.23 kiyohara #include <dev/marvell/gtmpscreg.h>
62 1.23 kiyohara #include <dev/marvell/gtmpscvar.h>
63 1.23 kiyohara #endif
64 1.23 kiyohara #include <dev/marvell/gtpcireg.h>
65 1.1 matt #include <dev/marvell/gtreg.h>
66 1.1 matt #include <dev/marvell/gtvar.h>
67 1.23 kiyohara #include <dev/marvell/marvellreg.h>
68 1.23 kiyohara #include <dev/marvell/marvellvar.h>
69 1.23 kiyohara
70 1.23 kiyohara #include <dev/pci/pcireg.h>
71 1.1 matt
72 1.1 matt #if ((GT_MPP_WATCHDOG & 0xf0f0f0f0) != 0)
73 1.1 matt # error /* unqualified: configuration botch! */
74 1.1 matt #endif
75 1.1 matt
76 1.23 kiyohara #define gt_read(sc,r) bus_space_read_4((sc)->sc_iot, (sc)->sc_ioh, (r))
77 1.23 kiyohara #define gt_write(sc,r,v) bus_space_write_4((sc)->sc_iot, (sc)->sc_ioh, (r), (v))
78 1.23 kiyohara
79 1.23 kiyohara
80 1.23 kiyohara static int gt_cfprint(void *, const char *);
81 1.23 kiyohara static int gt_cfsearch(device_t, cfdata_t, const int *, void *);
82 1.23 kiyohara static void gt_attach_peripherals(struct gt_softc *);
83 1.23 kiyohara
84 1.23 kiyohara #ifdef GT_DEVBUS
85 1.23 kiyohara static int gt_devbus_intr(void *);
86 1.3 matt static void gt_devbus_intr_enb(struct gt_softc *);
87 1.23 kiyohara #endif
88 1.1 matt #ifdef GT_ECC
89 1.23 kiyohara static int gt_ecc_intr(void *);
90 1.3 matt static void gt_ecc_intr_enb(struct gt_softc *);
91 1.1 matt #endif
92 1.23 kiyohara #if NGTMPSC > 0
93 1.23 kiyohara static void gt_sdma_intr_enb(struct gt_softc *);
94 1.23 kiyohara #endif
95 1.23 kiyohara #ifdef GT_COMM
96 1.23 kiyohara static int gt_comm_intr(void *);
97 1.23 kiyohara static void gt_comm_intr_enb(struct gt_softc *);
98 1.23 kiyohara #endif
99 1.23 kiyohara
100 1.1 matt
101 1.23 kiyohara #ifdef GT_WATCHDOG
102 1.23 kiyohara static void gt_watchdog_init(struct gt_softc *);
103 1.23 kiyohara static void gt_watchdog_enable(struct gt_softc *);
104 1.23 kiyohara #ifndef GT_MPP_WATCHDOG
105 1.23 kiyohara static void gt_watchdog_disable(struct gt_softc *);
106 1.23 kiyohara #endif
107 1.6 matt
108 1.23 kiyohara static struct gt_softc *gt_watchdog_sc = NULL;
109 1.23 kiyohara static int gt_watchdog_state = 0;
110 1.23 kiyohara #endif
111 1.1 matt
112 1.1 matt
113 1.25 kiyohara #define OFFSET_DEFAULT MVA_OFFSET_DEFAULT
114 1.25 kiyohara #define IRQ_DEFAULT MVA_IRQ_DEFAULT
115 1.23 kiyohara static const struct gt_dev {
116 1.23 kiyohara int model;
117 1.23 kiyohara const char *name;
118 1.23 kiyohara int unit;
119 1.23 kiyohara bus_size_t offset;
120 1.23 kiyohara int irq;
121 1.23 kiyohara } gt_devs[] = {
122 1.23 kiyohara { MARVELL_DISCOVERY, "gfec", 0, 0x0000, IRQ_DEFAULT },
123 1.23 kiyohara { MARVELL_DISCOVERY, "gtidmac", 0, 0x0000, 4 /*...7 */ },
124 1.23 kiyohara { MARVELL_DISCOVERY, "gtmpsc", 0, 0x8000, 40 },
125 1.23 kiyohara { MARVELL_DISCOVERY, "gtmpsc", 1, 0x9000, 42 },
126 1.23 kiyohara { MARVELL_DISCOVERY, "gtpci", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
127 1.23 kiyohara { MARVELL_DISCOVERY, "gtpci", 1, OFFSET_DEFAULT, IRQ_DEFAULT },
128 1.23 kiyohara { MARVELL_DISCOVERY, "gttwsi", 0, 0xc000, 37 },
129 1.23 kiyohara { MARVELL_DISCOVERY, "obio", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
130 1.23 kiyohara { MARVELL_DISCOVERY, "obio", 1, OFFSET_DEFAULT, IRQ_DEFAULT },
131 1.23 kiyohara { MARVELL_DISCOVERY, "obio", 2, OFFSET_DEFAULT, IRQ_DEFAULT },
132 1.23 kiyohara { MARVELL_DISCOVERY, "obio", 3, OFFSET_DEFAULT, IRQ_DEFAULT },
133 1.23 kiyohara { MARVELL_DISCOVERY, "obio", 4, OFFSET_DEFAULT, IRQ_DEFAULT },
134 1.23 kiyohara
135 1.23 kiyohara { MARVELL_DISCOVERY_II, "gtidmac", 0, 0x0000, 4 /*...7 */ },
136 1.23 kiyohara { MARVELL_DISCOVERY_II, "gtmpsc", 0, 0x8000, 40 },
137 1.23 kiyohara { MARVELL_DISCOVERY_II, "gtmpsc", 1, 0x9000, 42 },
138 1.23 kiyohara { MARVELL_DISCOVERY_II, "gtpci", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
139 1.23 kiyohara { MARVELL_DISCOVERY_II, "gtpci", 1, OFFSET_DEFAULT, IRQ_DEFAULT },
140 1.23 kiyohara { MARVELL_DISCOVERY_II, "gttwsi", 0, 0xc000, 37 },
141 1.23 kiyohara { MARVELL_DISCOVERY_II, "mvgbec", 0, 0x0000, IRQ_DEFAULT },
142 1.1 matt
143 1.23 kiyohara { MARVELL_DISCOVERY_III,"gtidmac", 0, 0x0000, 4 /*...7 */ },
144 1.23 kiyohara { MARVELL_DISCOVERY_III,"gtmpsc", 0, 0x8000, 40 },
145 1.23 kiyohara { MARVELL_DISCOVERY_III,"gtmpsc", 1, 0x9000, 42 },
146 1.23 kiyohara { MARVELL_DISCOVERY_III,"gtpci", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
147 1.23 kiyohara { MARVELL_DISCOVERY_III,"gtpci", 1, OFFSET_DEFAULT, IRQ_DEFAULT },
148 1.23 kiyohara { MARVELL_DISCOVERY_III,"gttwsi", 0, 0xc000, 37 },
149 1.23 kiyohara { MARVELL_DISCOVERY_III,"mvgbec", 0, 0x0000, IRQ_DEFAULT },
150 1.26 kiyohara
151 1.26 kiyohara #if 0 /* XXXXXX: from www.marvell.com */
152 1.26 kiyohara /* Discovery LT (Discovery Light) MV644[23]0 */
153 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gtidmac", 0, 0x?000, ? /*...? */ },
154 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gtmpsc", 0, 0x?000, ? },
155 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gtmpsc", 1, 0x?000, ? },
156 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gtpci", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
157 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gtpci", 1, OFFSET_DEFAULT, IRQ_DEFAULT },
158 1.26 kiyohara { MARVELL_DISCOVERY_LT, "gttwsi", 0, 0x?000, ? },
159 1.26 kiyohara { MARVELL_DISCOVERY_LT, "mvgbec", 0, 0x?000, IRQ_DEFAULT },
160 1.26 kiyohara
161 1.26 kiyohara /* Discovery V MV64560 */
162 1.26 kiyohara { MARVELL_DISCOVERY_V, "com", ?, 0x?0000, ? },
163 1.26 kiyohara { MARVELL_DISCOVERY_V, "ehci", 0, 0x?0000, ? },
164 1.26 kiyohara { MARVELL_DISCOVERY_V, "ehci", 1, 0x?0000, ? },
165 1.26 kiyohara { MARVELL_DISCOVERY_V, "gtidmac", 0, 0x?0000, ? /*...? */ },
166 1.26 kiyohara { MARVELL_DISCOVERY_V, "gtpci", 0, 0x?0000, IRQ_DEFAULT },
167 1.26 kiyohara { MARVELL_DISCOVERY_V, "gttwsi", 0, 0x?0000, ? },
168 1.26 kiyohara { MARVELL_DISCOVERY_V, "mvgbec", 0, 0x?0000, IRQ_DEFAULT },
169 1.26 kiyohara { MARVELL_DISCOVERY_V, "mvpex or gtpci?", 0, 0x?0000, IRQ_DEFAULT },
170 1.26 kiyohara { MARVELL_DISCOVERY_V, "obio", 0, OFFSET_DEFAULT, IRQ_DEFAULT },
171 1.26 kiyohara
172 1.26 kiyohara /* Discovery VI MV64660 */
173 1.26 kiyohara /* MV64560 + SATA? */
174 1.26 kiyohara { MARVELL_DISCOVERY_VI, "mvsata", 0, 0x?0000, ? },
175 1.26 kiyohara #endif
176 1.23 kiyohara };
177 1.1 matt
178 1.1 matt
179 1.23 kiyohara static int
180 1.23 kiyohara gt_cfprint(void *aux, const char *pnp)
181 1.1 matt {
182 1.23 kiyohara struct marvell_attach_args *mva = aux;
183 1.1 matt
184 1.23 kiyohara if (pnp)
185 1.23 kiyohara aprint_normal("%s at %s unit %d",
186 1.23 kiyohara mva->mva_name, pnp, mva->mva_unit);
187 1.23 kiyohara else {
188 1.25 kiyohara if (mva->mva_unit != MVA_UNIT_DEFAULT)
189 1.23 kiyohara aprint_normal(" unit %d", mva->mva_unit);
190 1.25 kiyohara if (mva->mva_offset != MVA_OFFSET_DEFAULT) {
191 1.23 kiyohara aprint_normal(" offset 0x%04x", mva->mva_offset);
192 1.23 kiyohara if (mva->mva_size > 0)
193 1.23 kiyohara aprint_normal("-0x%04x",
194 1.23 kiyohara mva->mva_offset + mva->mva_size - 1);
195 1.23 kiyohara }
196 1.25 kiyohara if (mva->mva_irq != MVA_IRQ_DEFAULT)
197 1.23 kiyohara aprint_normal(" irq %d", mva->mva_irq);
198 1.1 matt }
199 1.1 matt
200 1.23 kiyohara return UNCONF;
201 1.1 matt }
202 1.1 matt
203 1.1 matt
204 1.23 kiyohara /* ARGSUSED */
205 1.1 matt static int
206 1.23 kiyohara gt_cfsearch(device_t parent, cfdata_t cf, const int *ldesc, void *aux)
207 1.1 matt {
208 1.23 kiyohara struct marvell_attach_args *mva = aux;
209 1.23 kiyohara
210 1.25 kiyohara if (cf->cf_loc[GTCF_IRQ] != MVA_IRQ_DEFAULT)
211 1.23 kiyohara mva->mva_irq = cf->cf_loc[GTCF_IRQ];
212 1.1 matt
213 1.23 kiyohara return config_match(parent, cf, aux);
214 1.23 kiyohara }
215 1.23 kiyohara
216 1.23 kiyohara static void
217 1.23 kiyohara gt_attach_peripherals(struct gt_softc *sc)
218 1.23 kiyohara {
219 1.23 kiyohara struct marvell_attach_args mva;
220 1.23 kiyohara int i;
221 1.1 matt
222 1.23 kiyohara for (i = 0; i < __arraycount(gt_devs); i++) {
223 1.23 kiyohara if (gt_devs[i].model != sc->sc_model)
224 1.23 kiyohara continue;
225 1.23 kiyohara
226 1.23 kiyohara mva.mva_name = gt_devs[i].name;
227 1.23 kiyohara mva.mva_model = sc->sc_model;
228 1.23 kiyohara mva.mva_revision = sc->sc_rev;
229 1.23 kiyohara mva.mva_iot = sc->sc_iot;
230 1.23 kiyohara mva.mva_ioh = sc->sc_ioh;
231 1.23 kiyohara mva.mva_unit = gt_devs[i].unit;
232 1.23 kiyohara mva.mva_addr = sc->sc_addr;
233 1.23 kiyohara mva.mva_offset = gt_devs[i].offset;
234 1.23 kiyohara mva.mva_size = 0;
235 1.23 kiyohara mva.mva_dmat = sc->sc_dmat;
236 1.23 kiyohara mva.mva_irq = gt_devs[i].irq;
237 1.1 matt
238 1.29 thorpej config_found(sc->sc_dev, &mva, gt_cfprint,
239 1.29 thorpej CFARG_SUBMATCH, gt_cfsearch,
240 1.29 thorpej CFARG_EOL);
241 1.23 kiyohara }
242 1.1 matt }
243 1.1 matt
244 1.1 matt void
245 1.1 matt gt_attach_common(struct gt_softc *gt)
246 1.1 matt {
247 1.1 matt uint32_t cpucfg, cpumode, cpumstr;
248 1.24 kiyohara #ifdef GT_DEBUG
249 1.1 matt uint32_t loaddr, hiaddr;
250 1.1 matt #endif
251 1.1 matt
252 1.23 kiyohara gt_write(gt, GTPCI_CA(0), PCI_ID_REG);
253 1.23 kiyohara gt->sc_model = PCI_PRODUCT(gt_read(gt, GTPCI_CD(0)));
254 1.23 kiyohara gt_write(gt, GTPCI_CA(0), PCI_CLASS_REG);
255 1.23 kiyohara gt->sc_rev = PCI_REVISION(gt_read(gt, GTPCI_CD(0)));
256 1.23 kiyohara
257 1.23 kiyohara aprint_naive("\n");
258 1.23 kiyohara switch (gt->sc_model) {
259 1.23 kiyohara case MARVELL_DISCOVERY:
260 1.23 kiyohara aprint_normal(": GT-6426x%c Discovery\n",
261 1.23 kiyohara (gt->sc_rev == MARVELL_DISCOVERY_REVA) ? 'A' : 'B');
262 1.23 kiyohara break;
263 1.23 kiyohara case MARVELL_DISCOVERY_II:
264 1.23 kiyohara aprint_normal(": MV6436x Discovery II\n");
265 1.23 kiyohara break;
266 1.23 kiyohara
267 1.24 kiyohara case MARVELL_DISCOVERY_III:
268 1.24 kiyohara aprint_normal(": MV6446x Discovery III\n");
269 1.24 kiyohara break;
270 1.23 kiyohara #if 0
271 1.23 kiyohara case MARVELL_DISCOVERY_LT:
272 1.23 kiyohara case MARVELL_DISCOVERY_V:
273 1.23 kiyohara case MARVELL_DISCOVERY_VI:
274 1.23 kiyohara #endif
275 1.23 kiyohara
276 1.23 kiyohara default:
277 1.23 kiyohara aprint_normal(": type unknown\n"); break;
278 1.23 kiyohara }
279 1.1 matt
280 1.3 matt cpumode = gt_read(gt, GT_CPU_Mode);
281 1.23 kiyohara aprint_normal_dev(gt->sc_dev,
282 1.23 kiyohara "id %d", GT_CPUMode_MultiGTID_GET(cpumode));
283 1.1 matt if (cpumode & GT_CPUMode_MultiGT)
284 1.3 matt aprint_normal (" (multi)");
285 1.1 matt switch (GT_CPUMode_CPUType_GET(cpumode)) {
286 1.3 matt case 4: aprint_normal(", 60x bus"); break;
287 1.3 matt case 5: aprint_normal(", MPX bus"); break;
288 1.23 kiyohara
289 1.23 kiyohara default:
290 1.23 kiyohara aprint_normal(", %#x(?) bus", GT_CPUMode_CPUType_GET(cpumode));
291 1.23 kiyohara break;
292 1.1 matt }
293 1.1 matt
294 1.3 matt cpumstr = gt_read(gt, GT_CPU_Master_Ctl);
295 1.1 matt switch (cpumstr & (GT_CPUMstrCtl_CleanBlock|GT_CPUMstrCtl_FlushBlock)) {
296 1.1 matt case 0: break;
297 1.3 matt case GT_CPUMstrCtl_CleanBlock: aprint_normal(", snoop=clean"); break;
298 1.3 matt case GT_CPUMstrCtl_FlushBlock: aprint_normal(", snoop=flush"); break;
299 1.1 matt case GT_CPUMstrCtl_CleanBlock|GT_CPUMstrCtl_FlushBlock:
300 1.3 matt aprint_normal(", snoop=clean&flush"); break;
301 1.1 matt }
302 1.3 matt aprint_normal(" wdog=%#x,%#x\n",
303 1.24 kiyohara gt_read(gt, GT_WDOG_Config), gt_read(gt, GT_WDOG_Value));
304 1.1 matt
305 1.24 kiyohara #ifdef GT_DEBUG
306 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_SCS0_Low_Decode), gt->sc_model);
307 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_SCS0_High_Decode), gt->sc_model);
308 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " scs[0]=%#10x-%#10x\n",
309 1.23 kiyohara loaddr, hiaddr);
310 1.3 matt
311 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_SCS1_Low_Decode), gt->sc_model);
312 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_SCS1_High_Decode), gt->sc_model);
313 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " scs[1]=%#10x-%#10x\n",
314 1.23 kiyohara loaddr, hiaddr);
315 1.3 matt
316 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_SCS2_Low_Decode), gt->sc_model);
317 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_SCS2_High_Decode), gt->sc_model);
318 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " scs[2]=%#10x-%#10x\n",
319 1.23 kiyohara loaddr, hiaddr);
320 1.3 matt
321 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_SCS3_Low_Decode), gt->sc_model);
322 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_SCS3_High_Decode), gt->sc_model);
323 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " scs[3]=%#10x-%#10x\n",
324 1.23 kiyohara loaddr, hiaddr);
325 1.3 matt
326 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CS0_Low_Decode), gt->sc_model);
327 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CS0_High_Decode), gt->sc_model);
328 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " cs[0]=%#10x-%#10x\n",
329 1.23 kiyohara loaddr, hiaddr);
330 1.3 matt
331 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CS1_Low_Decode), gt->sc_model);
332 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CS1_High_Decode), gt->sc_model);
333 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " cs[1]=%#10x-%#10x\n",
334 1.23 kiyohara loaddr, hiaddr);
335 1.3 matt
336 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CS2_Low_Decode), gt->sc_model);
337 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CS2_High_Decode), gt->sc_model);
338 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " cs[2]=%#10x-%#10x\n",
339 1.23 kiyohara loaddr, hiaddr);
340 1.3 matt
341 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CS3_Low_Decode), gt->sc_model);
342 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CS3_High_Decode), gt->sc_model);
343 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " cs[3]=%#10x-%#10x\n",
344 1.23 kiyohara loaddr, hiaddr);
345 1.3 matt
346 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_BootCS_Low_Decode), gt->sc_model);
347 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_BootCS_High_Decode), gt->sc_model);
348 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " bootcs=%#10x-%#10x\n",
349 1.23 kiyohara loaddr, hiaddr);
350 1.3 matt
351 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_PCI0_IO_Low_Decode), gt->sc_model);
352 1.24 kiyohara hiaddr =
353 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI0_IO_High_Decode), gt->sc_model);
354 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci0io=%#10x-%#10x ",
355 1.23 kiyohara loaddr, hiaddr);
356 1.3 matt
357 1.3 matt loaddr = gt_read(gt, GT_PCI0_IO_Remap);
358 1.3 matt aprint_normal("remap=%#010x\n", loaddr);
359 1.3 matt
360 1.24 kiyohara loaddr =
361 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI0_Mem0_Low_Decode), gt->sc_model);
362 1.24 kiyohara hiaddr =
363 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI0_Mem0_High_Decode), gt->sc_model);
364 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci0mem[0]=%#10x-%#10x ",
365 1.23 kiyohara loaddr, hiaddr);
366 1.3 matt
367 1.3 matt loaddr = gt_read(gt, GT_PCI0_Mem0_Remap_Low);
368 1.3 matt hiaddr = gt_read(gt, GT_PCI0_Mem0_Remap_High);
369 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
370 1.3 matt
371 1.24 kiyohara loaddr =
372 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI0_Mem1_Low_Decode), gt->sc_model);
373 1.24 kiyohara hiaddr =
374 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI0_Mem1_High_Decode), gt->sc_model);
375 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci0mem[1]=%#10x-%#10x ",
376 1.23 kiyohara loaddr, hiaddr);
377 1.3 matt
378 1.3 matt loaddr = gt_read(gt, GT_PCI0_Mem1_Remap_Low);
379 1.3 matt hiaddr = gt_read(gt, GT_PCI0_Mem1_Remap_High);
380 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
381 1.3 matt
382 1.24 kiyohara loaddr =
383 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI0_Mem2_Low_Decode), gt->sc_model);
384 1.24 kiyohara hiaddr =
385 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI0_Mem2_High_Decode), gt->sc_model);
386 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci0mem[2]=%#10x-%#10x ",
387 1.23 kiyohara loaddr, hiaddr);
388 1.3 matt
389 1.3 matt loaddr = gt_read(gt, GT_PCI0_Mem2_Remap_Low);
390 1.3 matt hiaddr = gt_read(gt, GT_PCI0_Mem2_Remap_High);
391 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
392 1.3 matt
393 1.24 kiyohara loaddr =
394 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI0_Mem3_Low_Decode), gt->sc_model);
395 1.24 kiyohara hiaddr =
396 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI0_Mem3_High_Decode), gt->sc_model);
397 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci0mem[3]=%#10x-%#10x ",
398 1.23 kiyohara loaddr, hiaddr);
399 1.3 matt
400 1.3 matt loaddr = gt_read(gt, GT_PCI0_Mem3_Remap_Low);
401 1.3 matt hiaddr = gt_read(gt, GT_PCI0_Mem3_Remap_High);
402 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
403 1.3 matt
404 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_PCI1_IO_Low_Decode), gt->sc_model);
405 1.24 kiyohara hiaddr =
406 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI1_IO_High_Decode), gt->sc_model);
407 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci1io=%#10x-%#10x ",
408 1.23 kiyohara loaddr, hiaddr);
409 1.3 matt
410 1.3 matt loaddr = gt_read(gt, GT_PCI1_IO_Remap);
411 1.3 matt aprint_normal("remap=%#010x\n", loaddr);
412 1.3 matt
413 1.24 kiyohara loaddr =
414 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI1_Mem0_Low_Decode), gt->sc_model);
415 1.24 kiyohara hiaddr =
416 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI1_Mem0_High_Decode), gt->sc_model);
417 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci1mem[0]=%#10x-%#10x ",
418 1.23 kiyohara loaddr, hiaddr);
419 1.3 matt
420 1.3 matt loaddr = gt_read(gt, GT_PCI1_Mem0_Remap_Low);
421 1.3 matt hiaddr = gt_read(gt, GT_PCI1_Mem0_Remap_High);
422 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
423 1.3 matt
424 1.24 kiyohara loaddr =
425 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI1_Mem1_Low_Decode), gt->sc_model);
426 1.24 kiyohara hiaddr =
427 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI1_Mem1_High_Decode), gt->sc_model);
428 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci1mem[1]=%#10x-%#10x ",
429 1.23 kiyohara loaddr, hiaddr);
430 1.3 matt
431 1.3 matt loaddr = gt_read(gt, GT_PCI1_Mem1_Remap_Low);
432 1.3 matt hiaddr = gt_read(gt, GT_PCI1_Mem1_Remap_High);
433 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
434 1.3 matt
435 1.24 kiyohara loaddr =
436 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI1_Mem2_Low_Decode), gt->sc_model);
437 1.24 kiyohara hiaddr =
438 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI1_Mem2_High_Decode), gt->sc_model);
439 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci1mem[2]=%#10x-%#10x ",
440 1.23 kiyohara loaddr, hiaddr);
441 1.3 matt
442 1.3 matt loaddr = gt_read(gt, GT_PCI1_Mem2_Remap_Low);
443 1.3 matt hiaddr = gt_read(gt, GT_PCI1_Mem2_Remap_High);
444 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
445 1.3 matt
446 1.24 kiyohara loaddr =
447 1.24 kiyohara GT_LADDR_GET(gt_read(gt, GT_PCI1_Mem3_Low_Decode), gt->sc_model);
448 1.24 kiyohara hiaddr =
449 1.24 kiyohara GT_HADDR_GET(gt_read(gt, GT_PCI1_Mem3_High_Decode), gt->sc_model);
450 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " pci1mem[3]=%#10x-%#10x ",
451 1.23 kiyohara loaddr, hiaddr);
452 1.3 matt
453 1.3 matt loaddr = gt_read(gt, GT_PCI1_Mem3_Remap_Low);
454 1.3 matt hiaddr = gt_read(gt, GT_PCI1_Mem3_Remap_High);
455 1.3 matt aprint_normal("remap=%#010x.%#010x\n", hiaddr, loaddr);
456 1.1 matt
457 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_Internal_Decode), gt->sc_model);
458 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " internal=%#10x-%#10x\n",
459 1.23 kiyohara loaddr, loaddr + 256 * 1024);
460 1.1 matt
461 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CPU0_Low_Decode), gt->sc_model);
462 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CPU0_High_Decode), gt->sc_model);
463 1.24 kiyohara aprint_normal_dev(gt->sc_dev, " cpu0=%#10x-%#10x\n",
464 1.23 kiyohara loaddr, hiaddr);
465 1.1 matt
466 1.24 kiyohara #ifdef MULTIPROCESSOR
467 1.24 kiyohara loaddr = GT_LADDR_GET(gt_read(gt, GT_CPU1_Low_Decode), gt->sc_model);
468 1.24 kiyohara hiaddr = GT_HADDR_GET(gt_read(gt, GT_CPU1_High_Decode), gt->sc_model);
469 1.23 kiyohara aprint_normal_dev(gt->sc_dev, " cpu1=%#10x-%#10x",
470 1.23 kiyohara loaddr, hiaddr);
471 1.1 matt #endif
472 1.24 kiyohara #endif
473 1.1 matt
474 1.23 kiyohara aprint_normal("%s:", device_xname(gt->sc_dev));
475 1.1 matt
476 1.3 matt cpucfg = gt_read(gt, GT_CPU_Cfg);
477 1.1 matt cpucfg |= GT_CPUCfg_ConfSBDis; /* per errata #46 */
478 1.1 matt cpucfg |= GT_CPUCfg_AACKDelay; /* per restriction #18 */
479 1.3 matt gt_write(gt, GT_CPU_Cfg, cpucfg);
480 1.1 matt if (cpucfg & GT_CPUCfg_Pipeline)
481 1.3 matt aprint_normal(" pipeline");
482 1.1 matt if (cpucfg & GT_CPUCfg_AACKDelay)
483 1.3 matt aprint_normal(" aack-delay");
484 1.1 matt if (cpucfg & GT_CPUCfg_RdOOO)
485 1.3 matt aprint_normal(" read-ooo");
486 1.1 matt if (cpucfg & GT_CPUCfg_IOSBDis)
487 1.3 matt aprint_normal(" io-sb-dis");
488 1.1 matt if (cpucfg & GT_CPUCfg_ConfSBDis)
489 1.3 matt aprint_normal(" conf-sb-dis");
490 1.1 matt if (cpucfg & GT_CPUCfg_ClkSync)
491 1.3 matt aprint_normal(" clk-sync");
492 1.3 matt aprint_normal("\n");
493 1.1 matt
494 1.23 kiyohara #ifdef GT_WATCHDOG
495 1.1 matt gt_watchdog_init(gt);
496 1.23 kiyohara #endif
497 1.1 matt
498 1.23 kiyohara #ifdef GT_DEVBUS
499 1.23 kiyohara gt_devbus_intr_enb(gt);
500 1.23 kiyohara #endif
501 1.1 matt #ifdef GT_ECC
502 1.1 matt gt_ecc_intr_enb(gt);
503 1.1 matt #endif
504 1.23 kiyohara #if NGTMPSC > 0
505 1.23 kiyohara gt_sdma_intr_enb(gt);
506 1.23 kiyohara #endif
507 1.23 kiyohara #ifdef GT_COMM
508 1.23 kiyohara gt_comm_intr_enb(gt);
509 1.23 kiyohara #endif
510 1.1 matt
511 1.23 kiyohara gt_attach_peripherals(gt);
512 1.1 matt
513 1.23 kiyohara #ifdef GT_WATCHDOG
514 1.1 matt gt_watchdog_service();
515 1.23 kiyohara gt_watchdog_enable(gt);
516 1.23 kiyohara #endif
517 1.1 matt }
518 1.1 matt
519 1.23 kiyohara
520 1.23 kiyohara #ifdef GT_DEVBUS
521 1.23 kiyohara static int
522 1.23 kiyohara gt_devbus_intr(void *arg)
523 1.23 kiyohara {
524 1.23 kiyohara struct gt_softc *gt = (struct gt_softc *)arg;
525 1.23 kiyohara u_int32_t cause;
526 1.23 kiyohara u_int32_t addr;
527 1.23 kiyohara
528 1.23 kiyohara cause = gt_read(gt, GT_DEVBUS_ICAUSE);
529 1.23 kiyohara addr = gt_read(gt, GT_DEVBUS_ERR_ADDR);
530 1.23 kiyohara gt_write(gt, GT_DEVBUS_ICAUSE, 0); /* clear intr */
531 1.23 kiyohara
532 1.23 kiyohara if (cause & GT_DEVBUS_DBurstErr) {
533 1.23 kiyohara aprint_error_dev(gt->sc_dev,
534 1.23 kiyohara "Device Bus error: burst violation");
535 1.23 kiyohara if ((cause & GT_DEVBUS_Sel) == 0)
536 1.23 kiyohara aprint_error(", addr %#x", addr);
537 1.23 kiyohara aprint_error("\n");
538 1.23 kiyohara }
539 1.23 kiyohara if (cause & GT_DEVBUS_DRdyErr) {
540 1.23 kiyohara aprint_error_dev(gt->sc_dev,
541 1.23 kiyohara "Device Bus error: ready timer expired");
542 1.23 kiyohara if ((cause & GT_DEVBUS_Sel) != 0)
543 1.23 kiyohara aprint_error(", addr %#x\n", addr);
544 1.23 kiyohara aprint_error("\n");
545 1.23 kiyohara }
546 1.23 kiyohara
547 1.23 kiyohara return cause != 0;
548 1.23 kiyohara }
549 1.23 kiyohara
550 1.23 kiyohara /*
551 1.23 kiyohara * gt_devbus_intr_enb - enable GT-64260 Device Bus interrupts
552 1.23 kiyohara */
553 1.23 kiyohara static void
554 1.23 kiyohara gt_devbus_intr_enb(struct gt_softc *gt)
555 1.1 matt {
556 1.23 kiyohara gt_write(gt, GT_DEVBUS_IMASK,
557 1.23 kiyohara GT_DEVBUS_DBurstErr|GT_DEVBUS_DRdyErr);
558 1.23 kiyohara (void)gt_read(gt, GT_DEVBUS_ERR_ADDR); /* clear addr */
559 1.23 kiyohara gt_write(gt, GT_DEVBUS_ICAUSE, 0); /* clear intr */
560 1.1 matt
561 1.23 kiyohara (void)marvell_intr_establish(IRQ_DEV, IPL_VM, gt_devbus_intr, gt);
562 1.1 matt }
563 1.23 kiyohara #endif /* GT_DEVBUS */
564 1.23 kiyohara
565 1.23 kiyohara #ifdef GT_ECC
566 1.23 kiyohara const static char *gt_ecc_intr_str[4] = {
567 1.23 kiyohara "(none)",
568 1.23 kiyohara "single bit",
569 1.23 kiyohara "double bit",
570 1.23 kiyohara "(reserved)"
571 1.23 kiyohara };
572 1.1 matt
573 1.23 kiyohara static int
574 1.23 kiyohara gt_ecc_intr(void *arg)
575 1.1 matt {
576 1.23 kiyohara struct gt_softc *gt = (struct gt_softc *)arg;
577 1.23 kiyohara uint32_t addr, dlo, dhi, rec, calc, count;
578 1.23 kiyohara int err;
579 1.23 kiyohara
580 1.23 kiyohara count = gt_read(gt, GT_ECC_Count);
581 1.23 kiyohara dlo = gt_read(gt, GT_ECC_Data_Lo);
582 1.23 kiyohara dhi = gt_read(gt, GT_ECC_Data_Hi);
583 1.23 kiyohara rec = gt_read(gt, GT_ECC_Rec);
584 1.23 kiyohara calc = gt_read(gt, GT_ECC_Calc);
585 1.23 kiyohara addr = gt_read(gt, GT_ECC_Addr); /* read last! */
586 1.23 kiyohara gt_write(gt, GT_ECC_Addr, 0); /* clear intr */
587 1.23 kiyohara
588 1.23 kiyohara err = addr & 0x3;
589 1.1 matt
590 1.23 kiyohara aprint_error_dev(gt->sc_dev,
591 1.23 kiyohara "ECC error: %s: addr %#x data %#x.%#x rec %#x calc %#x cnt %#x\n",
592 1.23 kiyohara gt_ecc_intr_str[err], addr, dhi, dlo, rec, calc, count);
593 1.1 matt
594 1.23 kiyohara if (err == 2)
595 1.23 kiyohara panic("ecc");
596 1.1 matt
597 1.23 kiyohara return err == 1;
598 1.1 matt }
599 1.1 matt
600 1.23 kiyohara /*
601 1.23 kiyohara * gt_ecc_intr_enb - enable GT-64260 ECC interrupts
602 1.23 kiyohara */
603 1.23 kiyohara static void
604 1.23 kiyohara gt_ecc_intr_enb(struct gt_softc *gt)
605 1.1 matt {
606 1.23 kiyohara uint32_t ctl;
607 1.23 kiyohara
608 1.23 kiyohara ctl = gt_read(gt, GT_ECC_Ctl);
609 1.23 kiyohara ctl |= 1 << 16; /* XXX 1-bit threshold == 1 */
610 1.23 kiyohara gt_write(gt, GT_ECC_Ctl, ctl);
611 1.23 kiyohara (void)gt_read(gt, GT_ECC_Data_Lo);
612 1.23 kiyohara (void)gt_read(gt, GT_ECC_Data_Hi);
613 1.23 kiyohara (void)gt_read(gt, GT_ECC_Rec);
614 1.23 kiyohara (void)gt_read(gt, GT_ECC_Calc);
615 1.23 kiyohara (void)gt_read(gt, GT_ECC_Addr); /* read last! */
616 1.23 kiyohara gt_write(gt, GT_ECC_Addr, 0); /* clear intr */
617 1.23 kiyohara
618 1.23 kiyohara (void)marvell_intr_establish(IRQ_ECC, IPL_VM, gt_ecc_intr, gt);
619 1.1 matt }
620 1.23 kiyohara #endif /* GT_ECC */
621 1.1 matt
622 1.23 kiyohara #if NGTMPSC > 0
623 1.23 kiyohara /*
624 1.23 kiyohara * gt_sdma_intr_enb - enable GT-64260 SDMA interrupts
625 1.23 kiyohara */
626 1.23 kiyohara static void
627 1.23 kiyohara gt_sdma_intr_enb(struct gt_softc *gt)
628 1.1 matt {
629 1.1 matt
630 1.23 kiyohara (void)marvell_intr_establish(IRQ_SDMA, IPL_SERIAL, gtmpsc_intr, gt);
631 1.1 matt }
632 1.1 matt #endif
633 1.1 matt
634 1.23 kiyohara #ifdef GT_COMM
635 1.1 matt /*
636 1.1 matt * unknown board, enable everything
637 1.1 matt */
638 1.23 kiyohara # define GT_CommUnitIntr_DFLT \
639 1.23 kiyohara GT_CommUnitIntr_S0 |\
640 1.23 kiyohara GT_CommUnitIntr_S1 |\
641 1.23 kiyohara GT_CommUnitIntr_E0 |\
642 1.23 kiyohara GT_CommUnitIntr_E1 |\
643 1.23 kiyohara GT_CommUnitIntr_E2
644 1.1 matt
645 1.1 matt static const char * const gt_comm_subunit_name[8] = {
646 1.1 matt "ethernet 0",
647 1.1 matt "ethernet 1",
648 1.1 matt "ethernet 2",
649 1.1 matt "(reserved)",
650 1.1 matt "MPSC 0",
651 1.1 matt "MPSC 1",
652 1.1 matt "(reserved)",
653 1.1 matt "(sel)",
654 1.1 matt };
655 1.1 matt
656 1.1 matt static int
657 1.1 matt gt_comm_intr(void *arg)
658 1.1 matt {
659 1.1 matt struct gt_softc *gt = (struct gt_softc *)arg;
660 1.23 kiyohara uint32_t cause, addr;
661 1.1 matt unsigned int mask;
662 1.1 matt int i;
663 1.1 matt
664 1.3 matt cause = gt_read(gt, GT_CommUnitIntr_Cause);
665 1.3 matt gt_write(gt, GT_CommUnitIntr_Cause, ~cause);
666 1.3 matt addr = gt_read(gt, GT_CommUnitIntr_ErrAddr);
667 1.1 matt
668 1.23 kiyohara aprint_error_dev(gt->sc_dev,
669 1.23 kiyohara "Communications Unit Controller interrupt, cause %#x addr %#x\n",
670 1.23 kiyohara cause, addr);
671 1.1 matt
672 1.1 matt cause &= GT_CommUnitIntr_DFLT;
673 1.1 matt if (cause == 0)
674 1.1 matt return 0;
675 1.3 matt
676 1.1 matt mask = 0x7;
677 1.1 matt for (i=0; i<7; i++) {
678 1.1 matt if (cause & mask) {
679 1.23 kiyohara printf("%s: Comm Unit %s:", device_xname(gt->sc_dev),
680 1.1 matt gt_comm_subunit_name[i]);
681 1.9 perry if (cause & 1)
682 1.1 matt printf(" AddrMiss");
683 1.9 perry if (cause & 2)
684 1.1 matt printf(" AccProt");
685 1.9 perry if (cause & 4)
686 1.1 matt printf(" WrProt");
687 1.1 matt printf("\n");
688 1.1 matt }
689 1.1 matt cause >>= 4;
690 1.1 matt }
691 1.1 matt return 1;
692 1.1 matt }
693 1.1 matt
694 1.1 matt /*
695 1.1 matt * gt_comm_intr_init - enable GT-64260 Comm Unit interrupts
696 1.1 matt */
697 1.1 matt static void
698 1.1 matt gt_comm_intr_enb(struct gt_softc *gt)
699 1.1 matt {
700 1.23 kiyohara uint32_t cause;
701 1.1 matt
702 1.3 matt cause = gt_read(gt, GT_CommUnitIntr_Cause);
703 1.1 matt if (cause)
704 1.3 matt gt_write(gt, GT_CommUnitIntr_Cause, ~cause);
705 1.3 matt gt_write(gt, GT_CommUnitIntr_Mask, GT_CommUnitIntr_DFLT);
706 1.3 matt (void)gt_read(gt, GT_CommUnitIntr_ErrAddr);
707 1.1 matt
708 1.23 kiyohara (void)marvell_intr_establish(IRQ_COMM, IPL_VM, gt_comm_intr, gt);
709 1.1 matt }
710 1.23 kiyohara #endif /* GT_COMM */
711 1.1 matt
712 1.1 matt
713 1.23 kiyohara #ifdef GT_WATCHDOG
714 1.23 kiyohara #ifndef GT_MPP_WATCHDOG
715 1.1 matt static void
716 1.3 matt gt_watchdog_init(struct gt_softc *gt)
717 1.1 matt {
718 1.1 matt u_int32_t r;
719 1.1 matt
720 1.23 kiyohara aprint_normal_dev(gt->sc_dev, "watchdog");
721 1.1 matt
722 1.1 matt /*
723 1.1 matt * handle case where firmware started watchdog
724 1.1 matt */
725 1.3 matt r = gt_read(gt, GT_WDOG_Config);
726 1.23 kiyohara aprint_normal(" status %#x,%#x:", r, gt_read(gt, GT_WDOG_Value));
727 1.1 matt if ((r & 0x80000000) != 0) {
728 1.3 matt gt_watchdog_sc = gt; /* enabled */
729 1.1 matt gt_watchdog_state = 1;
730 1.23 kiyohara aprint_normal(" firmware-enabled\n");
731 1.23 kiyohara gt_watchdog_disable(gt);
732 1.23 kiyohara } else
733 1.23 kiyohara aprint_normal(" firmware-disabled\n");
734 1.23 kiyohara }
735 1.23 kiyohara
736 1.23 kiyohara #elif GT_MPP_WATCHDOG == 0
737 1.23 kiyohara
738 1.23 kiyohara static void
739 1.23 kiyohara gt_watchdog_init(struct gt_softc *gt)
740 1.23 kiyohara {
741 1.1 matt
742 1.23 kiyohara aprint_normal_dev(gt->sc_dev, "watchdog not configured\n");
743 1.23 kiyohara return;
744 1.1 matt }
745 1.1 matt
746 1.23 kiyohara #else /* GT_MPP_WATCHDOG > 0 */
747 1.1 matt
748 1.23 kiyohara static void
749 1.3 matt gt_watchdog_init(struct gt_softc *gt)
750 1.1 matt {
751 1.1 matt u_int32_t mpp_watchdog = GT_MPP_WATCHDOG; /* from config */
752 1.23 kiyohara u_int32_t cfgbits, mppbits, mppmask, regoff, r;
753 1.1 matt
754 1.23 kiyohara mppmask = 0;
755 1.1 matt
756 1.23 kiyohara aprint_normal_dev(gt->sc_dev, "watchdog");
757 1.1 matt
758 1.1 matt /*
759 1.1 matt * if firmware started watchdog, we disable and start
760 1.1 matt * from scratch to get it in a known state.
761 1.1 matt *
762 1.1 matt * on GT-64260A we always see 0xffffffff
763 1.27 kamil * in both the GT_WDOG_Config_Enb and GT_WDOG_Value registers.
764 1.1 matt */
765 1.3 matt r = gt_read(gt, GT_WDOG_Config);
766 1.1 matt if (r != ~0) {
767 1.1 matt if ((r & GT_WDOG_Config_Enb) != 0) {
768 1.3 matt gt_write(gt, GT_WDOG_Config,
769 1.23 kiyohara GT_WDOG_Config_Ctl1a | GT_WDOG_Preset_DFLT);
770 1.3 matt gt_write(gt, GT_WDOG_Config,
771 1.23 kiyohara GT_WDOG_Config_Ctl1b | GT_WDOG_Preset_DFLT);
772 1.1 matt }
773 1.1 matt }
774 1.1 matt
775 1.1 matt /*
776 1.1 matt * "the watchdog timer can be activated only after
777 1.1 matt * configuring two MPP pins to act as WDE and WDNMI"
778 1.1 matt */
779 1.1 matt mppbits = 0;
780 1.1 matt cfgbits = 0x3;
781 1.1 matt for (regoff = GT_MPP_Control0; regoff <= GT_MPP_Control3; regoff += 4) {
782 1.1 matt if ((mpp_watchdog & cfgbits) == cfgbits) {
783 1.1 matt mppbits = 0x99;
784 1.1 matt mppmask = 0xff;
785 1.1 matt break;
786 1.1 matt }
787 1.1 matt cfgbits <<= 2;
788 1.1 matt if ((mpp_watchdog & cfgbits) == cfgbits) {
789 1.1 matt mppbits = 0x9900;
790 1.1 matt mppmask = 0xff00;
791 1.1 matt break;
792 1.1 matt }
793 1.1 matt cfgbits <<= 6; /* skip unqualified bits */
794 1.1 matt }
795 1.1 matt if (mppbits == 0) {
796 1.23 kiyohara aprint_error(" config error\n");
797 1.1 matt return;
798 1.1 matt }
799 1.1 matt
800 1.3 matt r = gt_read(gt, regoff);
801 1.1 matt r &= ~mppmask;
802 1.1 matt r |= mppbits;
803 1.3 matt gt_write(gt, regoff, r);
804 1.23 kiyohara aprint_normal(" mpp %#x %#x", regoff, mppbits);
805 1.1 matt
806 1.3 matt gt_write(gt, GT_WDOG_Value, GT_WDOG_NMI_DFLT);
807 1.1 matt
808 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1a|GT_WDOG_Preset_DFLT);
809 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1b|GT_WDOG_Preset_DFLT);
810 1.1 matt
811 1.28 christos r = gt_read(gt, GT_WDOG_Config);
812 1.23 kiyohara aprint_normal(" status %#x,%#x: %s\n",
813 1.23 kiyohara r, gt_read(gt, GT_WDOG_Value),
814 1.23 kiyohara ((r & GT_WDOG_Config_Enb) != 0) ? "enabled" : "botch");
815 1.1 matt }
816 1.1 matt #endif /* GT_MPP_WATCHDOG */
817 1.1 matt
818 1.23 kiyohara static void
819 1.23 kiyohara gt_watchdog_enable(struct gt_softc *gt)
820 1.1 matt {
821 1.1 matt
822 1.23 kiyohara if (gt_watchdog_state == 0) {
823 1.1 matt gt_watchdog_state = 1;
824 1.1 matt
825 1.3 matt gt_write(gt, GT_WDOG_Config,
826 1.23 kiyohara GT_WDOG_Config_Ctl1a | GT_WDOG_Preset_DFLT);
827 1.3 matt gt_write(gt, GT_WDOG_Config,
828 1.23 kiyohara GT_WDOG_Config_Ctl1b | GT_WDOG_Preset_DFLT);
829 1.1 matt }
830 1.1 matt }
831 1.1 matt
832 1.23 kiyohara #ifndef GT_MPP_WATCHDOG
833 1.23 kiyohara static void
834 1.23 kiyohara gt_watchdog_disable(struct gt_softc *gt)
835 1.1 matt {
836 1.1 matt
837 1.23 kiyohara if (gt_watchdog_state != 0) {
838 1.1 matt gt_watchdog_state = 0;
839 1.1 matt
840 1.3 matt gt_write(gt, GT_WDOG_Config,
841 1.23 kiyohara GT_WDOG_Config_Ctl1a | GT_WDOG_Preset_DFLT);
842 1.3 matt gt_write(gt, GT_WDOG_Config,
843 1.23 kiyohara GT_WDOG_Config_Ctl1b | GT_WDOG_Preset_DFLT);
844 1.1 matt }
845 1.1 matt }
846 1.23 kiyohara #endif
847 1.23 kiyohara
848 1.23 kiyohara /*
849 1.23 kiyohara * XXXX: gt_watchdog_service/reset functions need mutex lock...
850 1.23 kiyohara */
851 1.1 matt
852 1.24 kiyohara #ifdef GT_DEBUG
853 1.1 matt int inhibit_watchdog_service = 0;
854 1.1 matt #endif
855 1.1 matt void
856 1.1 matt gt_watchdog_service(void)
857 1.1 matt {
858 1.3 matt struct gt_softc *gt = gt_watchdog_sc;
859 1.1 matt
860 1.3 matt if ((gt == NULL) || (gt_watchdog_state == 0))
861 1.1 matt return; /* not enabled */
862 1.24 kiyohara #ifdef GT_DEBUG
863 1.1 matt if (inhibit_watchdog_service)
864 1.1 matt return;
865 1.1 matt #endif
866 1.9 perry
867 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl2a|GT_WDOG_Preset_DFLT);
868 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl2b|GT_WDOG_Preset_DFLT);
869 1.1 matt }
870 1.1 matt
871 1.1 matt /*
872 1.1 matt * gt_watchdog_reset - force a watchdog reset using Preset_VAL=0
873 1.1 matt */
874 1.1 matt void
875 1.19 cegger gt_watchdog_reset(void)
876 1.1 matt {
877 1.3 matt struct gt_softc *gt = gt_watchdog_sc;
878 1.1 matt u_int32_t r;
879 1.1 matt
880 1.3 matt r = gt_read(gt, GT_WDOG_Config);
881 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1a);
882 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1b);
883 1.1 matt if ((r & GT_WDOG_Config_Enb) != 0) {
884 1.1 matt /*
885 1.1 matt * was enabled, we just toggled it off, toggle on again
886 1.1 matt */
887 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1a);
888 1.23 kiyohara gt_write(gt, GT_WDOG_Config, GT_WDOG_Config_Ctl1b);
889 1.1 matt }
890 1.1 matt for(;;);
891 1.1 matt }
892 1.23 kiyohara #endif
893 1.1 matt
894 1.1 matt
895 1.1 matt int
896 1.23 kiyohara marvell_winparams_by_tag(device_t dev, int tag, int *target, int *attr,
897 1.23 kiyohara uint64_t *base, uint32_t *size)
898 1.1 matt {
899 1.23 kiyohara static const struct {
900 1.23 kiyohara int tag;
901 1.23 kiyohara uint32_t attribute;
902 1.23 kiyohara uint32_t basereg;
903 1.23 kiyohara uint32_t sizereg;
904 1.23 kiyohara } tagtbl[] = {
905 1.23 kiyohara { MARVELL_TAG_SDRAM_CS0, MARVELL_ATTR_SDRAM_CS0,
906 1.23 kiyohara GT_SCS0_Low_Decode, GT_SCS0_High_Decode },
907 1.23 kiyohara { MARVELL_TAG_SDRAM_CS1, MARVELL_ATTR_SDRAM_CS1,
908 1.23 kiyohara GT_SCS1_Low_Decode, GT_SCS1_High_Decode },
909 1.23 kiyohara { MARVELL_TAG_SDRAM_CS2, MARVELL_ATTR_SDRAM_CS2,
910 1.23 kiyohara GT_SCS2_Low_Decode, GT_SCS2_High_Decode },
911 1.23 kiyohara { MARVELL_TAG_SDRAM_CS3, MARVELL_ATTR_SDRAM_CS3,
912 1.23 kiyohara GT_SCS3_Low_Decode, GT_SCS3_High_Decode },
913 1.23 kiyohara
914 1.23 kiyohara { MARVELL_TAG_UNDEFINED, 0, 0 }
915 1.23 kiyohara };
916 1.23 kiyohara struct gt_softc *sc = device_private(dev);
917 1.23 kiyohara int i;
918 1.1 matt
919 1.23 kiyohara for (i = 0; tagtbl[i].tag != MARVELL_TAG_UNDEFINED; i++)
920 1.23 kiyohara if (tag == tagtbl[i].tag)
921 1.23 kiyohara break;
922 1.23 kiyohara if (tagtbl[i].tag == MARVELL_TAG_UNDEFINED)
923 1.23 kiyohara return -1;
924 1.1 matt
925 1.23 kiyohara if (target != NULL)
926 1.23 kiyohara *target = 0;
927 1.23 kiyohara if (attr != NULL)
928 1.23 kiyohara *attr = tagtbl[i].attribute;
929 1.23 kiyohara if (base != NULL)
930 1.23 kiyohara *base = gt_read(sc, tagtbl[i].basereg) <<
931 1.23 kiyohara (sc->sc_model == MARVELL_DISCOVERY ? 20 : 16);
932 1.23 kiyohara if (size != NULL) {
933 1.23 kiyohara const uint32_t s = gt_read(sc, tagtbl[i].sizereg);
934 1.23 kiyohara
935 1.23 kiyohara if (s != 0)
936 1.23 kiyohara *size = (s + 1) <<
937 1.23 kiyohara (sc->sc_model == MARVELL_DISCOVERY ? 20 : 16);
938 1.23 kiyohara else
939 1.23 kiyohara *size = 0;
940 1.1 matt }
941 1.1 matt
942 1.23 kiyohara return 0;
943 1.6 matt }
944