pci_machdep.c revision 1.2 1 1.2 dyoung /* $NetBSD: pci_machdep.c,v 1.2 2011/04/04 20:37:46 dyoung Exp $ */
2 1.1 kiyohara /*
3 1.1 kiyohara * Copyright (c) 2008 KIYOHARA Takashi
4 1.1 kiyohara * All rights reserved.
5 1.1 kiyohara *
6 1.1 kiyohara * Redistribution and use in source and binary forms, with or without
7 1.1 kiyohara * modification, are permitted provided that the following conditions
8 1.1 kiyohara * are met:
9 1.1 kiyohara * 1. Redistributions of source code must retain the above copyright
10 1.1 kiyohara * notice, this list of conditions and the following disclaimer.
11 1.1 kiyohara * 2. Redistributions in binary form must reproduce the above copyright
12 1.1 kiyohara * notice, this list of conditions and the following disclaimer in the
13 1.1 kiyohara * documentation and/or other materials provided with the distribution.
14 1.1 kiyohara *
15 1.1 kiyohara * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
16 1.1 kiyohara * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
17 1.1 kiyohara * WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
18 1.1 kiyohara * DISCLAIMED. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT,
19 1.1 kiyohara * INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
20 1.1 kiyohara * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
21 1.1 kiyohara * SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
22 1.1 kiyohara * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT,
23 1.1 kiyohara * STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN
24 1.1 kiyohara * ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
25 1.1 kiyohara * POSSIBILITY OF SUCH DAMAGE.
26 1.1 kiyohara */
27 1.1 kiyohara
28 1.1 kiyohara #include <sys/cdefs.h>
29 1.2 dyoung __KERNEL_RCSID(0, "$NetBSD: pci_machdep.c,v 1.2 2011/04/04 20:37:46 dyoung Exp $");
30 1.1 kiyohara
31 1.1 kiyohara #include "opt_mvsoc.h"
32 1.1 kiyohara #include "gtpci.h"
33 1.1 kiyohara #include "mvpex.h"
34 1.1 kiyohara #include "pci.h"
35 1.1 kiyohara
36 1.1 kiyohara #include <sys/param.h>
37 1.1 kiyohara #include <sys/device.h>
38 1.1 kiyohara #include <sys/extent.h>
39 1.1 kiyohara
40 1.1 kiyohara #include <dev/pci/pcivar.h>
41 1.1 kiyohara #include <dev/pci/pciconf.h>
42 1.1 kiyohara
43 1.1 kiyohara #include <arm/marvell/mvsocreg.h>
44 1.1 kiyohara #include <arm/marvell/mvsocvar.h>
45 1.1 kiyohara #include <arm/marvell/mvsocgppvar.h>
46 1.1 kiyohara #if NGTPCI > 0
47 1.1 kiyohara #include <dev/marvell/gtpcireg.h>
48 1.1 kiyohara #include <dev/marvell/gtpcivar.h>
49 1.1 kiyohara #endif
50 1.1 kiyohara #if NMVPEX > 0
51 1.1 kiyohara #include <dev/marvell/mvpexreg.h>
52 1.1 kiyohara #include <dev/marvell/mvpexvar.h>
53 1.1 kiyohara #endif
54 1.1 kiyohara
55 1.1 kiyohara #include <machine/pci_machdep.h>
56 1.1 kiyohara
57 1.1 kiyohara #if defined(ORION)
58 1.1 kiyohara #include <arm/marvell/orionreg.h>
59 1.1 kiyohara #endif
60 1.1 kiyohara #if defined(KIRKWOOD)
61 1.1 kiyohara #include <arm/marvell/kirkwoodreg.h>
62 1.1 kiyohara #endif
63 1.1 kiyohara #include <dev/marvell/marvellreg.h>
64 1.1 kiyohara
65 1.1 kiyohara
66 1.1 kiyohara #if NGTPCI > 0
67 1.1 kiyohara #if NGTPCI_MBUS > 0
68 1.1 kiyohara static pcireg_t gtpci_mbus_conf_read(void *, pcitag_t, int);
69 1.1 kiyohara static void gtpci_mbus_conf_write(void *, pcitag_t, int, pcireg_t);
70 1.1 kiyohara #endif
71 1.2 dyoung static int gtpci_gpp_intr_map(const struct pci_attach_args *,
72 1.2 dyoung pci_intr_handle_t *);
73 1.1 kiyohara static const char *gtpci_gpp_intr_string(void *, pci_intr_handle_t);
74 1.1 kiyohara static const struct evcnt *gtpci_gpp_intr_evcnt(void *, pci_intr_handle_t);
75 1.1 kiyohara static void *gtpci_gpp_intr_establish(void *, pci_intr_handle_t, int, int (*)(void *), void *);
76 1.1 kiyohara static void gtpci_gpp_intr_disestablish(void *, void *);
77 1.1 kiyohara
78 1.1 kiyohara struct arm32_pci_chipset arm32_gtpci_chipset = {
79 1.1 kiyohara NULL, /* conf_v */
80 1.1 kiyohara gtpci_attach_hook,
81 1.1 kiyohara gtpci_bus_maxdevs,
82 1.1 kiyohara gtpci_make_tag,
83 1.1 kiyohara gtpci_decompose_tag,
84 1.1 kiyohara #if NGTPCI_MBUS > 0
85 1.1 kiyohara gtpci_mbus_conf_read, /* XXXX: always this functions */
86 1.1 kiyohara gtpci_mbus_conf_write,
87 1.1 kiyohara #else
88 1.1 kiyohara gtpci_conf_read,
89 1.1 kiyohara gtpci_conf_write,
90 1.1 kiyohara #endif
91 1.1 kiyohara NULL, /* intr_v */
92 1.1 kiyohara gtpci_gpp_intr_map,
93 1.1 kiyohara gtpci_gpp_intr_string,
94 1.1 kiyohara gtpci_gpp_intr_evcnt,
95 1.1 kiyohara gtpci_gpp_intr_establish,
96 1.1 kiyohara gtpci_gpp_intr_disestablish,
97 1.1 kiyohara #ifdef __HAVE_PCI_CONF_HOOK
98 1.1 kiyohara gtpci_conf_hook,
99 1.1 kiyohara #endif
100 1.1 kiyohara };
101 1.1 kiyohara #endif
102 1.1 kiyohara
103 1.1 kiyohara #if NMVPEX > 0
104 1.1 kiyohara #if NMVPEX_MBUS > 0
105 1.1 kiyohara static pcireg_t mvpex_mbus_conf_read(void *, pcitag_t, int);
106 1.1 kiyohara #endif
107 1.1 kiyohara
108 1.1 kiyohara struct arm32_pci_chipset arm32_mvpex0_chipset = {
109 1.1 kiyohara NULL, /* conf_v */
110 1.1 kiyohara mvpex_attach_hook,
111 1.1 kiyohara mvpex_bus_maxdevs,
112 1.1 kiyohara mvpex_make_tag,
113 1.1 kiyohara mvpex_decompose_tag,
114 1.1 kiyohara #if NMVPEX_MBUS > 0
115 1.1 kiyohara mvpex_mbus_conf_read, /* XXXX: always this functions */
116 1.1 kiyohara #else
117 1.1 kiyohara mvpex_conf_read,
118 1.1 kiyohara #endif
119 1.1 kiyohara mvpex_conf_write,
120 1.1 kiyohara NULL, /* intr_v */
121 1.1 kiyohara mvpex_intr_map,
122 1.1 kiyohara mvpex_intr_string,
123 1.1 kiyohara mvpex_intr_evcnt,
124 1.1 kiyohara mvpex_intr_establish,
125 1.1 kiyohara mvpex_intr_disestablish,
126 1.1 kiyohara #ifdef __HAVE_PCI_CONF_HOOK
127 1.1 kiyohara mvpex_conf_hook,
128 1.1 kiyohara #endif
129 1.1 kiyohara };
130 1.1 kiyohara struct arm32_pci_chipset arm32_mvpex1_chipset = {
131 1.1 kiyohara NULL, /* conf_v */
132 1.1 kiyohara mvpex_attach_hook,
133 1.1 kiyohara mvpex_bus_maxdevs,
134 1.1 kiyohara mvpex_make_tag,
135 1.1 kiyohara mvpex_decompose_tag,
136 1.1 kiyohara #if NMVPEX_MBUS > 0
137 1.1 kiyohara mvpex_mbus_conf_read, /* XXXX: always this functions */
138 1.1 kiyohara #else
139 1.1 kiyohara mvpex_conf_read,
140 1.1 kiyohara #endif
141 1.1 kiyohara mvpex_conf_write,
142 1.1 kiyohara NULL, /* intr_v */
143 1.1 kiyohara mvpex_intr_map,
144 1.1 kiyohara mvpex_intr_string,
145 1.1 kiyohara mvpex_intr_evcnt,
146 1.1 kiyohara mvpex_intr_establish,
147 1.1 kiyohara mvpex_intr_disestablish,
148 1.1 kiyohara #ifdef __HAVE_PCI_CONF_HOOK
149 1.1 kiyohara mvpex_conf_hook,
150 1.1 kiyohara #endif
151 1.1 kiyohara };
152 1.1 kiyohara #endif
153 1.1 kiyohara
154 1.1 kiyohara
155 1.1 kiyohara void
156 1.1 kiyohara pci_conf_interrupt(pci_chipset_tag_t v, int bus, int dev, int pin, int swiz,
157 1.1 kiyohara int *iline)
158 1.1 kiyohara {
159 1.1 kiyohara
160 1.1 kiyohara /* nothing */
161 1.1 kiyohara }
162 1.1 kiyohara
163 1.1 kiyohara
164 1.1 kiyohara #if NGTPCI > 0
165 1.1 kiyohara #if NGTPCI_MBUS > 0
166 1.1 kiyohara #define GTPCI_MBUS_CA 0x0c78 /* Configuration Address */
167 1.1 kiyohara #define GTPCI_MBUS_CD 0x0c7c /* Configuration Data */
168 1.1 kiyohara
169 1.1 kiyohara static pcireg_t
170 1.1 kiyohara gtpci_mbus_conf_read(void *v, pcitag_t tag, int reg)
171 1.1 kiyohara {
172 1.1 kiyohara struct gtpci_softc *sc = v;
173 1.1 kiyohara const pcireg_t addr = tag | reg;
174 1.1 kiyohara
175 1.1 kiyohara bus_space_write_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CA,
176 1.1 kiyohara addr | GTPCI_CA_CONFIGEN);
177 1.1 kiyohara if ((addr | GTPCI_CA_CONFIGEN) !=
178 1.1 kiyohara bus_space_read_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CA))
179 1.1 kiyohara return -1;
180 1.1 kiyohara
181 1.1 kiyohara return bus_space_read_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CD);
182 1.1 kiyohara }
183 1.1 kiyohara
184 1.1 kiyohara static void
185 1.1 kiyohara gtpci_mbus_conf_write(void *v, pcitag_t tag, int reg, pcireg_t data)
186 1.1 kiyohara {
187 1.1 kiyohara struct gtpci_softc *sc = v;
188 1.1 kiyohara pcireg_t addr = tag | (reg & 0xfc);
189 1.1 kiyohara
190 1.1 kiyohara bus_space_write_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CA,
191 1.1 kiyohara addr | GTPCI_CA_CONFIGEN);
192 1.1 kiyohara if ((addr | GTPCI_CA_CONFIGEN) !=
193 1.1 kiyohara bus_space_read_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CA))
194 1.1 kiyohara return;
195 1.1 kiyohara
196 1.1 kiyohara bus_space_write_4(sc->sc_iot, sc->sc_ioh, GTPCI_MBUS_CD, data);
197 1.1 kiyohara }
198 1.1 kiyohara #endif /* NGTPCI_MBUS */
199 1.1 kiyohara
200 1.1 kiyohara /*
201 1.1 kiyohara * We assume to use GPP interrupt as PCI interrupts.
202 1.1 kiyohara * pci_intr_map() shall returns number of GPP between 0 and 31. However
203 1.1 kiyohara * returns 0xff, because we do not know the connected pin number for GPP
204 1.1 kiyohara * of your board.
205 1.1 kiyohara * pci_intr_string() shall returns string "gpp <num>".
206 1.1 kiyohara * pci_intr_establish() established interrupt in the pin of all GPP.
207 1.1 kiyohara * Moreover, the return value will be disregarded. For instance, the
208 1.1 kiyohara * setting for interrupt is not done.
209 1.1 kiyohara */
210 1.1 kiyohara
211 1.1 kiyohara /* ARGSUSED */
212 1.1 kiyohara static int
213 1.2 dyoung gtpci_gpp_intr_map(const struct pci_attach_args *pa, pci_intr_handle_t *ihp)
214 1.1 kiyohara {
215 1.1 kiyohara
216 1.1 kiyohara *ihp = pa->pa_intrpin;
217 1.1 kiyohara return 0;
218 1.1 kiyohara }
219 1.1 kiyohara
220 1.1 kiyohara /* ARGSUSED */
221 1.1 kiyohara static const char *
222 1.1 kiyohara gtpci_gpp_intr_string(void *v, pci_intr_handle_t pin)
223 1.1 kiyohara {
224 1.1 kiyohara struct gtpci_softc *sc = v;
225 1.1 kiyohara prop_array_t int2gpp;
226 1.1 kiyohara prop_object_t gpp;
227 1.1 kiyohara static char intrstr[8];
228 1.1 kiyohara
229 1.1 kiyohara int2gpp = prop_dictionary_get(device_properties(sc->sc_dev), "int2gpp");
230 1.1 kiyohara gpp = prop_array_get(int2gpp, pin);
231 1.1 kiyohara sprintf(intrstr, "gpp %d", (int)prop_number_integer_value(gpp));
232 1.1 kiyohara
233 1.1 kiyohara return intrstr;
234 1.1 kiyohara }
235 1.1 kiyohara
236 1.1 kiyohara /* ARGSUSED */
237 1.1 kiyohara static const struct evcnt *
238 1.1 kiyohara gtpci_gpp_intr_evcnt(void *v, pci_intr_handle_t pin)
239 1.1 kiyohara {
240 1.1 kiyohara
241 1.1 kiyohara return NULL;
242 1.1 kiyohara }
243 1.1 kiyohara
244 1.1 kiyohara static void *
245 1.1 kiyohara gtpci_gpp_intr_establish(void *v, pci_intr_handle_t int_pin, int ipl,
246 1.1 kiyohara int (*intrhand)(void *), void *intrarg)
247 1.1 kiyohara {
248 1.1 kiyohara struct gtpci_softc *sc = v;
249 1.1 kiyohara prop_array_t int2gpp;
250 1.1 kiyohara prop_object_t gpp;
251 1.1 kiyohara int gpp_pin;
252 1.1 kiyohara
253 1.1 kiyohara int2gpp = prop_dictionary_get(device_properties(sc->sc_dev), "int2gpp");
254 1.1 kiyohara gpp = prop_array_get(int2gpp, int_pin);
255 1.1 kiyohara gpp_pin = prop_number_integer_value(gpp);
256 1.1 kiyohara return mvsocgpp_intr_establish(gpp_pin, ipl, 0, intrhand, intrarg);
257 1.1 kiyohara }
258 1.1 kiyohara
259 1.1 kiyohara static void
260 1.1 kiyohara gtpci_gpp_intr_disestablish(void *v, void *ih)
261 1.1 kiyohara {
262 1.1 kiyohara
263 1.1 kiyohara mvsocgpp_intr_disestablish(ih);
264 1.1 kiyohara }
265 1.1 kiyohara #endif
266 1.1 kiyohara
267 1.1 kiyohara #if NMVPEX_MBUS > 0
268 1.1 kiyohara static pcireg_t
269 1.1 kiyohara mvpex_mbus_conf_read(void *v, pcitag_t tag, int reg)
270 1.1 kiyohara {
271 1.1 kiyohara struct mvpex_softc *sc = v;
272 1.1 kiyohara pcireg_t addr, data, pci_cs;
273 1.1 kiyohara uint32_t stat;
274 1.1 kiyohara int bus, dev, func, pexbus, pexdev;
275 1.1 kiyohara
276 1.1 kiyohara mvpex_decompose_tag(v, tag, &bus, &dev, &func);
277 1.1 kiyohara
278 1.1 kiyohara stat = bus_space_read_4(sc->sc_iot, sc->sc_ioh, MVPEX_STAT);
279 1.1 kiyohara pexbus = MVPEX_STAT_PEXBUSNUM(stat);
280 1.1 kiyohara pexdev = MVPEX_STAT_PEXDEVNUM(stat);
281 1.1 kiyohara if (bus != pexbus || dev != pexdev)
282 1.1 kiyohara if (stat & MVPEX_STAT_DLDOWN)
283 1.1 kiyohara return -1;
284 1.1 kiyohara
285 1.1 kiyohara if (bus == pexbus) {
286 1.1 kiyohara if (pexdev == 0) {
287 1.1 kiyohara if (dev != 1 && dev != pexdev)
288 1.1 kiyohara return -1;
289 1.1 kiyohara } else {
290 1.1 kiyohara if (dev != 0 && dev != pexdev)
291 1.1 kiyohara return -1;
292 1.1 kiyohara }
293 1.1 kiyohara if (func != 0)
294 1.1 kiyohara return -1;
295 1.1 kiyohara }
296 1.1 kiyohara
297 1.1 kiyohara addr = ((reg & 0xf00) << 24) | tag | (reg & 0xfc);
298 1.1 kiyohara
299 1.1 kiyohara #if defined(ORION)
300 1.1 kiyohara /*
301 1.1 kiyohara * Guideline (GL# PCI Express-1) Erroneous Read Data on Configuration
302 1.1 kiyohara * This guideline is relevant for all devices except of the following
303 1.1 kiyohara * devices:
304 1.1 kiyohara * 88F5281-BO and above, and 88F5181L-A0 and above
305 1.1 kiyohara */
306 1.1 kiyohara if ((bus != pexbus || dev != pexdev) &&
307 1.1 kiyohara !(sc->sc_model == MARVELL_ORION_2_88F5281 && sc->sc_rev == 1) &&
308 1.1 kiyohara !(sc->sc_model == MARVELL_ORION_1_88F5181 && sc->sc_rev == 8)) {
309 1.1 kiyohara
310 1.1 kiyohara /* PCI-Express configuration read work-around */
311 1.1 kiyohara /*
312 1.1 kiyohara * We will use one of the Punit (AHBToMbus) windows to
313 1.1 kiyohara * access the xbar and read the data from there
314 1.1 kiyohara *
315 1.1 kiyohara * Need to configure the 2 free Punit (AHB to MBus bridge)
316 1.1 kiyohara * address decoding windows:
317 1.1 kiyohara * Configure the flash Window to handle Configuration space
318 1.1 kiyohara * requests for PEX0/1:
319 1.1 kiyohara *
320 1.1 kiyohara * Configuration transactions from the CPU should write/read
321 1.1 kiyohara * the data to/from address of the form:
322 1.1 kiyohara * addr[31:28]: 0x5 (for PEX0) or 0x6 (for PEX1)
323 1.1 kiyohara * addr[27:24]: extended register number
324 1.1 kiyohara * addr[23:16]: bus number
325 1.1 kiyohara * addr[15:11]: device number
326 1.1 kiyohara * addr[10: 8]: function number
327 1.1 kiyohara * addr[ 7: 0]: register number
328 1.1 kiyohara */
329 1.1 kiyohara
330 1.1 kiyohara struct mvsoc_softc *soc =
331 1.1 kiyohara device_private(device_parent(sc->sc_dev));;
332 1.1 kiyohara bus_space_handle_t pcicfg_ioh;
333 1.1 kiyohara uint32_t remapl, remaph, wc, pcicfg_addr, pcicfg_size;
334 1.1 kiyohara int window, target, attr, base, size, s;
335 1.1 kiyohara const int pex_pcicfg_tag =
336 1.1 kiyohara (sc->sc_model == MARVELL_ORION_1_88F1181) ?
337 1.1 kiyohara ORION_TAG_FLASH_CS : ORION_TAG_PEX0_MEM;
338 1.1 kiyohara
339 1.1 kiyohara window = mvsoc_target(pex_pcicfg_tag,
340 1.1 kiyohara &target, &attr, &base, &size);
341 1.1 kiyohara if (window >= nwindow) {
342 1.1 kiyohara aprint_error_dev(sc->sc_dev,
343 1.1 kiyohara "can't read pcicfg space\n");
344 1.1 kiyohara return -1;
345 1.1 kiyohara }
346 1.1 kiyohara
347 1.1 kiyohara s = splhigh();
348 1.1 kiyohara
349 1.1 kiyohara remapl = remaph = 0;
350 1.1 kiyohara if (window == 0 || window == 1) {
351 1.1 kiyohara remapl = read_mlmbreg(MVSOC_MLMB_WRLR(window));
352 1.1 kiyohara remaph = read_mlmbreg(MVSOC_MLMB_WRHR(window));
353 1.1 kiyohara }
354 1.1 kiyohara
355 1.1 kiyohara wc =
356 1.1 kiyohara MVSOC_MLMB_WCR_WINEN |
357 1.1 kiyohara MVSOC_MLMB_WCR_ATTR(ORION_ATTR_PEX_CFG) |
358 1.1 kiyohara MVSOC_MLMB_WCR_TARGET((soc->sc_addr + sc->sc_offset) >> 16);
359 1.1 kiyohara if (sc->sc_model == MARVELL_ORION_1_88F1181) {
360 1.1 kiyohara pcicfg_addr = base;
361 1.1 kiyohara pcicfg_size = size;
362 1.1 kiyohara } else if (sc->sc_model == MARVELL_ORION_1_88F5182) {
363 1.1 kiyohara #define PEX_PCICFG_RW_WA_BASE 0x50000000
364 1.1 kiyohara #define PEX_PCICFG_RW_WA_5182_BASE 0xf0000000
365 1.1 kiyohara #define PEX_PCICFG_RW_WA_SIZE (16 * 1024 * 1024)
366 1.1 kiyohara pcicfg_addr = PEX_PCICFG_RW_WA_5182_BASE;
367 1.1 kiyohara pcicfg_size = PEX_PCICFG_RW_WA_SIZE;
368 1.1 kiyohara } else {
369 1.1 kiyohara pcicfg_addr = PEX_PCICFG_RW_WA_BASE;
370 1.1 kiyohara pcicfg_size = PEX_PCICFG_RW_WA_SIZE;
371 1.1 kiyohara }
372 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WCR(window),
373 1.1 kiyohara wc | MVSOC_MLMB_WCR_SIZE(pcicfg_size));
374 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WBR(window), pcicfg_addr);
375 1.1 kiyohara
376 1.1 kiyohara if (window == 0 || window == 1) {
377 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WRLR(window), pcicfg_addr);
378 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WRHR(window), 0);
379 1.1 kiyohara }
380 1.1 kiyohara
381 1.1 kiyohara if (bus_space_map(sc->sc_iot, pcicfg_addr, pcicfg_size, 0,
382 1.1 kiyohara &pcicfg_ioh) == 0) {
383 1.1 kiyohara data = bus_space_read_4(sc->sc_iot, pcicfg_ioh, addr);
384 1.1 kiyohara bus_space_unmap(sc->sc_iot, pcicfg_ioh, pcicfg_size);
385 1.1 kiyohara } else
386 1.1 kiyohara data = -1;
387 1.1 kiyohara
388 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WCR(window),
389 1.1 kiyohara MVSOC_MLMB_WCR_WINEN |
390 1.1 kiyohara MVSOC_MLMB_WCR_ATTR(attr) |
391 1.1 kiyohara MVSOC_MLMB_WCR_TARGET(target) |
392 1.1 kiyohara MVSOC_MLMB_WCR_SIZE(size));
393 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WBR(window), base);
394 1.1 kiyohara if (window == 0 || window == 1) {
395 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WRLR(window), remapl);
396 1.1 kiyohara write_mlmbreg(MVSOC_MLMB_WRHR(window), remaph);
397 1.1 kiyohara }
398 1.1 kiyohara
399 1.1 kiyohara splx(s);
400 1.1 kiyohara #else
401 1.1 kiyohara if (0) {
402 1.1 kiyohara #endif
403 1.1 kiyohara } else {
404 1.1 kiyohara bus_space_write_4(sc->sc_iot, sc->sc_ioh, MVPEX_CA,
405 1.1 kiyohara addr | MVPEX_CA_CONFIGEN);
406 1.1 kiyohara if ((addr | MVPEX_CA_CONFIGEN) !=
407 1.1 kiyohara bus_space_read_4(sc->sc_iot, sc->sc_ioh, MVPEX_CA))
408 1.1 kiyohara return -1;
409 1.1 kiyohara
410 1.1 kiyohara pci_cs = bus_space_read_4(sc->sc_iot, sc->sc_ioh,
411 1.1 kiyohara PCI_COMMAND_STATUS_REG);
412 1.1 kiyohara bus_space_write_4(sc->sc_iot, sc->sc_ioh,
413 1.1 kiyohara PCI_COMMAND_STATUS_REG, pci_cs | PCI_STATUS_MASTER_ABORT);
414 1.1 kiyohara
415 1.1 kiyohara data = bus_space_read_4(sc->sc_iot, sc->sc_ioh, MVPEX_CD);
416 1.1 kiyohara }
417 1.1 kiyohara
418 1.1 kiyohara return data;
419 1.1 kiyohara }
420 1.1 kiyohara #endif
421