scoop.c revision 1.6 1 1.6 nonaka /* $NetBSD: scoop.c,v 1.6 2009/01/29 12:28:15 nonaka Exp $ */
2 1.1 ober /* $OpenBSD: zaurus_scoop.c,v 1.12 2005/11/17 05:26:31 uwe Exp $ */
3 1.1 ober
4 1.1 ober /*
5 1.1 ober * Copyright (c) 2005 Uwe Stuehler <uwe (at) bsdx.de>
6 1.1 ober *
7 1.1 ober * Permission to use, copy, modify, and distribute this software for any
8 1.1 ober * purpose with or without fee is hereby granted, provided that the above
9 1.1 ober * copyright notice and this permission notice appear in all copies.
10 1.1 ober *
11 1.1 ober * THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
12 1.1 ober * WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
13 1.1 ober * MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR
14 1.1 ober * ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
15 1.1 ober * WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
16 1.1 ober * ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF
17 1.1 ober * OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
18 1.1 ober */
19 1.1 ober
20 1.1 ober #include <sys/cdefs.h>
21 1.6 nonaka __KERNEL_RCSID(0, "$NetBSD: scoop.c,v 1.6 2009/01/29 12:28:15 nonaka Exp $");
22 1.1 ober
23 1.1 ober #include <sys/param.h>
24 1.1 ober #include <sys/systm.h>
25 1.1 ober #include <sys/device.h>
26 1.1 ober #include <sys/conf.h>
27 1.1 ober #include <sys/gpio.h>
28 1.1 ober
29 1.1 ober #include <machine/bus.h>
30 1.1 ober
31 1.1 ober #include <arm/xscale/pxa2x0var.h>
32 1.1 ober
33 1.1 ober #include <zaurus/zaurus/zaurus_reg.h>
34 1.1 ober #include <zaurus/zaurus/zaurus_var.h>
35 1.1 ober
36 1.1 ober #include <zaurus/dev/scoopreg.h>
37 1.1 ober #include <zaurus/dev/scoopvar.h>
38 1.1 ober
39 1.1 ober #include "ioconf.h"
40 1.1 ober
41 1.1 ober struct scoop_softc {
42 1.6 nonaka device_t sc_dev;
43 1.2 peter
44 1.2 peter bus_space_tag_t sc_iot;
45 1.2 peter bus_space_handle_t sc_ioh;
46 1.2 peter
47 1.2 peter uint16_t sc_gpwr; /* GPIO state before suspend */
48 1.1 ober };
49 1.1 ober
50 1.6 nonaka static int scoopmatch(device_t, cfdata_t, void *);
51 1.6 nonaka static void scoopattach(device_t, device_t, void *);
52 1.1 ober
53 1.6 nonaka CFATTACH_DECL_NEW(scoop, sizeof(struct scoop_softc),
54 1.6 nonaka scoopmatch, scoopattach, NULL, NULL);
55 1.1 ober
56 1.2 peter #if 0
57 1.6 nonaka static int scoop_gpio_pin_read(struct scoop_softc *, int);
58 1.2 peter #endif
59 1.6 nonaka static void scoop_gpio_pin_write(struct scoop_softc *, int, int);
60 1.6 nonaka static void scoop_gpio_pin_ctl(struct scoop_softc *, int, int);
61 1.1 ober
62 1.3 nonaka enum scoop_card {
63 1.3 nonaka SD_CARD,
64 1.3 nonaka CF_CARD /* socket 0 (external) */
65 1.3 nonaka };
66 1.3 nonaka
67 1.3 nonaka static void scoop0_set_card_power(enum scoop_card card, int new_cpr);
68 1.3 nonaka
69 1.1 ober static int
70 1.6 nonaka scoopmatch(device_t parent, cfdata_t cf, void *aux)
71 1.1 ober {
72 1.1 ober
73 1.1 ober /*
74 1.1 ober * Only C3000-like models are known to have two SCOOPs.
75 1.1 ober */
76 1.1 ober if (ZAURUS_ISC3000)
77 1.1 ober return (cf->cf_unit < 2);
78 1.1 ober return (cf->cf_unit == 0);
79 1.1 ober }
80 1.1 ober
81 1.1 ober static void
82 1.6 nonaka scoopattach(device_t parent, device_t self, void *aux)
83 1.1 ober {
84 1.6 nonaka struct scoop_softc *sc = device_private(self);
85 1.1 ober struct pxaip_attach_args *pxa = (struct pxaip_attach_args *)aux;
86 1.1 ober bus_addr_t addr;
87 1.1 ober bus_size_t size;
88 1.1 ober
89 1.6 nonaka sc->sc_dev = self;
90 1.1 ober sc->sc_iot = pxa->pxa_iot;
91 1.1 ober
92 1.6 nonaka aprint_normal(": PCMCIA/GPIO controller\n");
93 1.6 nonaka aprint_naive("\n");
94 1.6 nonaka
95 1.1 ober if (pxa->pxa_addr != -1)
96 1.1 ober addr = pxa->pxa_addr;
97 1.6 nonaka else if (sc->sc_dev->dv_unit == 0)
98 1.1 ober addr = C3000_SCOOP0_BASE;
99 1.1 ober else
100 1.1 ober addr = C3000_SCOOP1_BASE;
101 1.1 ober
102 1.1 ober size = pxa->pxa_size < SCOOP_SIZE ? SCOOP_SIZE : pxa->pxa_size;
103 1.1 ober
104 1.1 ober if (bus_space_map(sc->sc_iot, addr, size, 0, &sc->sc_ioh) != 0) {
105 1.6 nonaka aprint_error_dev(sc->sc_dev, "couldn't map registers\n");
106 1.1 ober return;
107 1.1 ober }
108 1.1 ober
109 1.6 nonaka if (ZAURUS_ISC3000 && sc->sc_dev->dv_unit == 1) {
110 1.1 ober scoop_gpio_pin_ctl(sc, SCOOP1_AKIN_PULLUP, GPIO_PIN_OUTPUT);
111 1.1 ober scoop_gpio_pin_write(sc, SCOOP1_AKIN_PULLUP, GPIO_PIN_LOW);
112 1.1 ober } else if (!ZAURUS_ISC3000) {
113 1.1 ober scoop_gpio_pin_ctl(sc, SCOOP0_AKIN_PULLUP, GPIO_PIN_OUTPUT);
114 1.1 ober scoop_gpio_pin_write(sc, SCOOP0_AKIN_PULLUP, GPIO_PIN_LOW);
115 1.1 ober }
116 1.1 ober
117 1.1 ober }
118 1.1 ober
119 1.2 peter #if 0
120 1.2 peter static int
121 1.1 ober scoop_gpio_pin_read(struct scoop_softc *sc, int pin)
122 1.1 ober {
123 1.1 ober uint16_t bit = (1 << pin);
124 1.1 ober uint16_t rv;
125 1.1 ober
126 1.1 ober rv = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR);
127 1.2 peter return (rv & bit) ? 1 : 0;
128 1.1 ober }
129 1.2 peter #endif
130 1.1 ober
131 1.2 peter static void
132 1.1 ober scoop_gpio_pin_write(struct scoop_softc *sc, int pin, int level)
133 1.1 ober {
134 1.1 ober uint16_t bit = (1 << pin);
135 1.1 ober uint16_t rv;
136 1.1 ober
137 1.1 ober rv = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR);
138 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
139 1.2 peter (level == GPIO_PIN_LOW) ? (rv & ~bit) : (rv | bit));
140 1.1 ober }
141 1.1 ober
142 1.2 peter static void
143 1.1 ober scoop_gpio_pin_ctl(struct scoop_softc *sc, int pin, int flags)
144 1.1 ober {
145 1.1 ober uint16_t bit = (1 << pin);
146 1.1 ober uint16_t rv;
147 1.1 ober
148 1.1 ober rv = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPCR);
149 1.1 ober switch (flags & (GPIO_PIN_INPUT|GPIO_PIN_OUTPUT)) {
150 1.1 ober case GPIO_PIN_INPUT:
151 1.1 ober rv &= ~bit;
152 1.1 ober break;
153 1.1 ober case GPIO_PIN_OUTPUT:
154 1.1 ober rv |= bit;
155 1.1 ober break;
156 1.1 ober }
157 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPCR, rv);
158 1.1 ober }
159 1.1 ober
160 1.1 ober /*
161 1.1 ober * Turn the LCD background light and contrast signal on or off.
162 1.1 ober */
163 1.1 ober void
164 1.1 ober scoop_set_backlight(int on, int cont)
165 1.1 ober {
166 1.5 cegger struct scoop_softc *sc;
167 1.5 cegger #if 0
168 1.5 cegger struct scoop_softc *sc0;
169 1.5 cegger
170 1.5 cegger sc0 = device_lookup_private(&scoop_cd, 0);
171 1.5 cegger #endif
172 1.1 ober
173 1.5 cegger sc = device_lookup_private(&scoop_cd, 1);
174 1.5 cegger if (sc != NULL) {
175 1.1 ober /* C3000 */
176 1.5 cegger scoop_gpio_pin_write(sc,
177 1.1 ober SCOOP1_BACKLIGHT_CONT, !cont);
178 1.5 cegger scoop_gpio_pin_write(sc,
179 1.1 ober SCOOP1_BACKLIGHT_ON, on);
180 1.1 ober }
181 1.1 ober #if 0
182 1.5 cegger else if (sc0 != NULL) {
183 1.5 cegger scoop_gpio_pin_write(sc0,
184 1.1 ober SCOOP0_BACKLIGHT_CONT, cont);
185 1.1 ober }
186 1.1 ober #endif
187 1.1 ober }
188 1.1 ober
189 1.1 ober /*
190 1.1 ober * Turn the infrared LED on or off (must be on while transmitting).
191 1.1 ober */
192 1.1 ober void
193 1.1 ober scoop_set_irled(int on)
194 1.1 ober {
195 1.5 cegger struct scoop_softc *sc;
196 1.2 peter
197 1.5 cegger sc = device_lookup_private(&scoop_cd, 1);
198 1.5 cegger if (sc != NULL) {
199 1.1 ober /* IR_ON is inverted */
200 1.5 cegger scoop_gpio_pin_write(sc,
201 1.1 ober SCOOP1_IR_ON, !on);
202 1.2 peter }
203 1.1 ober }
204 1.1 ober
205 1.1 ober /*
206 1.1 ober * Turn the green and orange LEDs on or off. If the orange LED is on,
207 1.1 ober * then it is wired to indicate if A/C is connected. The green LED has
208 1.1 ober * no such predefined function.
209 1.1 ober */
210 1.1 ober void
211 1.1 ober scoop_led_set(int led, int on)
212 1.1 ober {
213 1.5 cegger struct scoop_softc *sc;
214 1.1 ober
215 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
216 1.5 cegger if (sc != NULL) {
217 1.1 ober if ((led & SCOOP_LED_GREEN) != 0) {
218 1.5 cegger scoop_gpio_pin_write(sc,
219 1.1 ober SCOOP0_LED_GREEN, on);
220 1.1 ober }
221 1.1 ober if (scoop_cd.cd_ndevs > 1 && (led & SCOOP_LED_ORANGE) != 0) {
222 1.5 cegger scoop_gpio_pin_write(sc,
223 1.1 ober SCOOP0_LED_ORANGE_C3000, on);
224 1.1 ober }
225 1.1 ober }
226 1.1 ober }
227 1.1 ober
228 1.1 ober /*
229 1.1 ober * Enable or disable the headphone output connection.
230 1.1 ober */
231 1.1 ober void
232 1.1 ober scoop_set_headphone(int on)
233 1.1 ober {
234 1.5 cegger struct scoop_softc *sc;
235 1.1 ober
236 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
237 1.5 cegger if (sc == NULL)
238 1.1 ober return;
239 1.1 ober
240 1.5 cegger scoop_gpio_pin_ctl(sc, SCOOP0_MUTE_L,
241 1.1 ober GPIO_PIN_OUTPUT);
242 1.5 cegger scoop_gpio_pin_ctl(sc, SCOOP0_MUTE_R,
243 1.1 ober GPIO_PIN_OUTPUT);
244 1.1 ober
245 1.1 ober if (on) {
246 1.5 cegger scoop_gpio_pin_write(sc, SCOOP0_MUTE_L,
247 1.1 ober GPIO_PIN_HIGH);
248 1.5 cegger scoop_gpio_pin_write(sc, SCOOP0_MUTE_R,
249 1.1 ober GPIO_PIN_HIGH);
250 1.1 ober } else {
251 1.5 cegger scoop_gpio_pin_write(sc, SCOOP0_MUTE_L,
252 1.1 ober GPIO_PIN_LOW);
253 1.5 cegger scoop_gpio_pin_write(sc, SCOOP0_MUTE_R,
254 1.1 ober GPIO_PIN_LOW);
255 1.1 ober }
256 1.1 ober }
257 1.1 ober
258 1.1 ober /*
259 1.1 ober * Turn on pullup resistor while not reading the remote control.
260 1.1 ober */
261 1.1 ober void
262 1.1 ober scoop_akin_pullup(int enable)
263 1.1 ober {
264 1.5 cegger struct scoop_softc *sc0;
265 1.5 cegger struct scoop_softc *sc1;
266 1.5 cegger
267 1.5 cegger sc0 = device_lookup_private(&scoop_cd, 0);
268 1.5 cegger sc1 = device_lookup_private(&scoop_cd, 1);
269 1.1 ober
270 1.5 cegger if (sc1 != NULL) {
271 1.5 cegger scoop_gpio_pin_write(sc1,
272 1.1 ober SCOOP1_AKIN_PULLUP, enable);
273 1.5 cegger } else if (sc0 != NULL) {
274 1.5 cegger scoop_gpio_pin_write(sc0,
275 1.1 ober SCOOP0_AKIN_PULLUP, enable);
276 1.1 ober }
277 1.1 ober }
278 1.1 ober
279 1.1 ober void
280 1.1 ober scoop_battery_temp_adc(int enable)
281 1.1 ober {
282 1.5 cegger struct scoop_softc *sc;
283 1.5 cegger
284 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
285 1.1 ober
286 1.5 cegger if (sc != NULL) {
287 1.5 cegger scoop_gpio_pin_write(sc,
288 1.1 ober SCOOP0_ADC_TEMP_ON_C3000, enable);
289 1.1 ober }
290 1.1 ober }
291 1.1 ober
292 1.1 ober void
293 1.1 ober scoop_charge_battery(int enable, int voltage_high)
294 1.1 ober {
295 1.5 cegger struct scoop_softc *sc;
296 1.5 cegger
297 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
298 1.1 ober
299 1.5 cegger if (sc != NULL) {
300 1.5 cegger scoop_gpio_pin_write(sc,
301 1.1 ober SCOOP0_JK_B_C3000, voltage_high);
302 1.5 cegger scoop_gpio_pin_write(sc,
303 1.1 ober SCOOP0_CHARGE_OFF_C3000, !enable);
304 1.1 ober }
305 1.1 ober }
306 1.1 ober
307 1.1 ober void
308 1.1 ober scoop_discharge_battery(int enable)
309 1.1 ober {
310 1.5 cegger struct scoop_softc *sc;
311 1.1 ober
312 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
313 1.5 cegger
314 1.5 cegger if (sc != NULL) {
315 1.5 cegger scoop_gpio_pin_write(sc,
316 1.1 ober SCOOP0_JK_A_C3000, enable);
317 1.1 ober }
318 1.1 ober }
319 1.1 ober
320 1.3 nonaka /*
321 1.3 nonaka * Enable or disable 3.3V power to the SD/MMC card slot.
322 1.3 nonaka */
323 1.3 nonaka void
324 1.3 nonaka scoop_set_sdmmc_power(int on)
325 1.3 nonaka {
326 1.3 nonaka
327 1.3 nonaka scoop0_set_card_power(SD_CARD, on ? SCP_CPR_SD_3V : SCP_CPR_OFF);
328 1.3 nonaka }
329 1.3 nonaka
330 1.3 nonaka /*
331 1.3 nonaka * The Card Power Register of the first SCOOP unit controls the power
332 1.3 nonaka * for the first CompactFlash slot and the SD/MMC card slot as well.
333 1.3 nonaka */
334 1.2 peter void
335 1.3 nonaka scoop0_set_card_power(enum scoop_card card, int new_cpr)
336 1.2 peter {
337 1.2 peter struct scoop_softc *sc;
338 1.2 peter bus_space_tag_t iot;
339 1.2 peter bus_space_handle_t ioh;
340 1.3 nonaka uint16_t cpr;
341 1.2 peter
342 1.5 cegger sc = device_lookup_private(&scoop_cd, 0);
343 1.5 cegger if (sc == NULL)
344 1.3 nonaka return;
345 1.2 peter
346 1.3 nonaka iot = sc->sc_iot;
347 1.3 nonaka ioh = sc->sc_ioh;
348 1.3 nonaka
349 1.3 nonaka cpr = bus_space_read_2(iot, ioh, SCOOP_CPR);
350 1.3 nonaka if (new_cpr & SCP_CPR_VOLTAGE_MSK) {
351 1.3 nonaka if (card == CF_CARD)
352 1.3 nonaka cpr |= SCP_CPR_5V;
353 1.3 nonaka else if (card == SD_CARD)
354 1.3 nonaka cpr |= SCP_CPR_SD_3V;
355 1.3 nonaka
356 1.3 nonaka scoop_gpio_pin_write(sc, SCOOP0_CF_POWER_C3000, 1);
357 1.3 nonaka if (!ISSET(cpr, SCP_CPR_5V) && !ISSET(cpr, SCP_CPR_SD_3V))
358 1.3 nonaka delay(5000);
359 1.3 nonaka bus_space_write_2(iot, ioh, SCOOP_CPR, cpr | new_cpr);
360 1.3 nonaka } else {
361 1.3 nonaka if (card == CF_CARD)
362 1.3 nonaka cpr &= ~SCP_CPR_5V;
363 1.3 nonaka else if (card == SD_CARD)
364 1.3 nonaka cpr &= ~SCP_CPR_SD_3V;
365 1.3 nonaka
366 1.3 nonaka if (!ISSET(cpr, SCP_CPR_5V) && !ISSET(cpr, SCP_CPR_SD_3V)) {
367 1.3 nonaka bus_space_write_2(iot, ioh, SCOOP_CPR, SCP_CPR_OFF);
368 1.3 nonaka delay(1000);
369 1.3 nonaka scoop_gpio_pin_write(sc, SCOOP0_CF_POWER_C3000, 0);
370 1.3 nonaka } else
371 1.3 nonaka bus_space_write_2(iot, ioh, SCOOP_CPR, cpr | new_cpr);
372 1.2 peter }
373 1.2 peter }
374 1.2 peter
375 1.1 ober void
376 1.1 ober scoop_check_mcr(void)
377 1.1 ober {
378 1.5 cegger struct scoop_softc *sc0, *sc1, *sc;
379 1.1 ober uint16_t v;
380 1.1 ober
381 1.5 cegger sc0 = device_lookup_private(&scoop_cd, 0);
382 1.5 cegger sc1 = device_lookup_private(&scoop_cd, 1);
383 1.5 cegger
384 1.1 ober /* C3000 */
385 1.5 cegger if (sc1 != NULL) {
386 1.5 cegger sc = sc0;
387 1.1 ober v = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_MCR);
388 1.1 ober if ((v & 0x100) == 0) {
389 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_MCR,
390 1.1 ober 0x0101);
391 1.1 ober }
392 1.1 ober
393 1.5 cegger sc = sc1;
394 1.1 ober v = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_MCR);
395 1.1 ober if ((v & 0x100) == 0) {
396 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_MCR,
397 1.1 ober 0x0101);
398 1.1 ober }
399 1.1 ober }
400 1.1 ober }
401 1.1 ober
402 1.1 ober void
403 1.1 ober scoop_suspend(void)
404 1.1 ober {
405 1.5 cegger struct scoop_softc *sc, *sc0, *sc1;
406 1.1 ober uint32_t rv;
407 1.1 ober
408 1.5 cegger sc0 = device_lookup_private(&scoop_cd, 0);
409 1.5 cegger sc1 = device_lookup_private(&scoop_cd, 1);
410 1.5 cegger
411 1.5 cegger if (sc0 != NULL) {
412 1.5 cegger sc = sc0;
413 1.1 ober sc->sc_gpwr = bus_space_read_2(sc->sc_iot, sc->sc_ioh,
414 1.1 ober SCOOP_GPWR);
415 1.1 ober /* C3000 */
416 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
417 1.1 ober sc->sc_gpwr & ~((1<<SCOOP0_MUTE_L) | (1<<SCOOP0_MUTE_R) |
418 1.1 ober (1<<SCOOP0_JK_A_C3000) | (1<<SCOOP0_ADC_TEMP_ON_C3000) |
419 1.1 ober (1<<SCOOP0_LED_GREEN)));
420 1.1 ober }
421 1.1 ober
422 1.1 ober /* C3000 */
423 1.5 cegger if (sc1 != NULL) {
424 1.5 cegger sc = sc1;
425 1.1 ober sc->sc_gpwr = bus_space_read_2(sc->sc_iot, sc->sc_ioh,
426 1.1 ober SCOOP_GPWR);
427 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
428 1.1 ober sc->sc_gpwr & ~((1<<SCOOP1_RESERVED_4) |
429 1.1 ober (1<<SCOOP1_RESERVED_5) | (1<<SCOOP1_RESERVED_6) |
430 1.1 ober (1<<SCOOP1_BACKLIGHT_CONT) | (1<<SCOOP1_BACKLIGHT_ON) |
431 1.1 ober (1<<SCOOP1_MIC_BIAS)));
432 1.1 ober rv = bus_space_read_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR);
433 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
434 1.1 ober rv | ((1<<SCOOP1_IR_ON) | (1<<SCOOP1_RESERVED_3)));
435 1.1 ober }
436 1.1 ober }
437 1.1 ober
438 1.1 ober void
439 1.1 ober scoop_resume(void)
440 1.1 ober {
441 1.5 cegger struct scoop_softc *sc, *sc0, *sc1;
442 1.5 cegger
443 1.5 cegger sc0 = device_lookup_private(&scoop_cd, 0);
444 1.5 cegger sc1 = device_lookup_private(&scoop_cd, 1);
445 1.1 ober
446 1.5 cegger if (sc0 != NULL) {
447 1.5 cegger sc = sc0;
448 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
449 1.1 ober sc->sc_gpwr);
450 1.1 ober }
451 1.1 ober
452 1.5 cegger if (sc1 != NULL) {
453 1.5 cegger sc = sc1;
454 1.1 ober bus_space_write_2(sc->sc_iot, sc->sc_ioh, SCOOP_GPWR,
455 1.1 ober sc->sc_gpwr);
456 1.1 ober }
457 1.1 ober }
458