iomd_clock.c revision 1.19 1 1.19 bjh21 /* $NetBSD: iomd_clock.c,v 1.19 2006/08/03 23:19:06 bjh21 Exp $ */
2 1.1 reinoud
3 1.1 reinoud /*
4 1.1 reinoud * Copyright (c) 1994-1997 Mark Brinicombe.
5 1.1 reinoud * Copyright (c) 1994 Brini.
6 1.1 reinoud * All rights reserved.
7 1.1 reinoud *
8 1.1 reinoud * This code is derived from software written for Brini by Mark Brinicombe
9 1.1 reinoud *
10 1.1 reinoud * Redistribution and use in source and binary forms, with or without
11 1.1 reinoud * modification, are permitted provided that the following conditions
12 1.1 reinoud * are met:
13 1.1 reinoud * 1. Redistributions of source code must retain the above copyright
14 1.1 reinoud * notice, this list of conditions and the following disclaimer.
15 1.1 reinoud * 2. Redistributions in binary form must reproduce the above copyright
16 1.1 reinoud * notice, this list of conditions and the following disclaimer in the
17 1.1 reinoud * documentation and/or other materials provided with the distribution.
18 1.1 reinoud * 3. All advertising materials mentioning features or use of this software
19 1.1 reinoud * must display the following acknowledgement:
20 1.1 reinoud * This product includes software developed by Mark Brinicombe.
21 1.1 reinoud * 4. The name of the company nor the name of the author may be used to
22 1.1 reinoud * endorse or promote products derived from this software without specific
23 1.1 reinoud * prior written permission.
24 1.1 reinoud *
25 1.1 reinoud * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
26 1.1 reinoud * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
27 1.1 reinoud * OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
28 1.1 reinoud * IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT,
29 1.1 reinoud * INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
30 1.1 reinoud * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
31 1.1 reinoud * SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
32 1.1 reinoud * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
33 1.1 reinoud * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
34 1.1 reinoud * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
35 1.1 reinoud * SUCH DAMAGE.
36 1.1 reinoud *
37 1.1 reinoud * RiscBSD kernel project
38 1.1 reinoud *
39 1.1 reinoud * clock.c
40 1.1 reinoud *
41 1.1 reinoud * Timer related machine specific code
42 1.1 reinoud *
43 1.1 reinoud * Created : 29/09/94
44 1.1 reinoud */
45 1.1 reinoud
46 1.1 reinoud /* Include header files */
47 1.1 reinoud
48 1.1 reinoud #include <sys/param.h>
49 1.5 bjh21
50 1.19 bjh21 __KERNEL_RCSID(0, "$NetBSD: iomd_clock.c,v 1.19 2006/08/03 23:19:06 bjh21 Exp $");
51 1.5 bjh21
52 1.1 reinoud #include <sys/systm.h>
53 1.1 reinoud #include <sys/kernel.h>
54 1.1 reinoud #include <sys/time.h>
55 1.19 bjh21 #include <sys/timetc.h>
56 1.1 reinoud #include <sys/device.h>
57 1.19 bjh21 #include <sys/lock.h>
58 1.1 reinoud
59 1.12 thorpej #include <dev/clock_subr.h>
60 1.12 thorpej
61 1.4 thorpej #include <machine/intr.h>
62 1.3 thorpej
63 1.3 thorpej #include <arm/cpufunc.h>
64 1.3 thorpej
65 1.1 reinoud #include <arm/iomd/iomdvar.h>
66 1.1 reinoud #include <arm/iomd/iomdreg.h>
67 1.1 reinoud
68 1.1 reinoud struct clock_softc {
69 1.1 reinoud struct device sc_dev;
70 1.1 reinoud bus_space_tag_t sc_iot;
71 1.1 reinoud bus_space_handle_t sc_ioh;
72 1.1 reinoud };
73 1.1 reinoud
74 1.1 reinoud #define TIMER_FREQUENCY 2000000 /* 2MHz clock */
75 1.1 reinoud #define TICKS_PER_MICROSECOND (TIMER_FREQUENCY / 1000000)
76 1.1 reinoud
77 1.1 reinoud static void *clockirq;
78 1.1 reinoud static void *statclockirq;
79 1.1 reinoud static struct clock_softc *clock_sc;
80 1.1 reinoud static int timer0_count;
81 1.19 bjh21 static int timeset;
82 1.1 reinoud
83 1.1 reinoud static int clockmatch __P((struct device *parent, struct cfdata *cf, void *aux));
84 1.1 reinoud static void clockattach __P((struct device *parent, struct device *self, void *aux));
85 1.1 reinoud #ifdef DIAGNOSTIC
86 1.1 reinoud static void checkdelay __P((void));
87 1.1 reinoud #endif
88 1.1 reinoud
89 1.19 bjh21 static u_int iomd_timecounter0_get(struct timecounter *tc);
90 1.19 bjh21
91 1.19 bjh21
92 1.19 bjh21 static volatile uint32_t timer0_lastcount;
93 1.19 bjh21 static volatile uint32_t timer0_offset;
94 1.19 bjh21 static volatile int timer0_ticked;
95 1.19 bjh21 /* TODO: Get IRQ status */
96 1.19 bjh21
97 1.19 bjh21 static struct simplelock tmr_lock = SIMPLELOCK_INITIALIZER; /* protect TC timer variables */
98 1.19 bjh21
99 1.19 bjh21
100 1.19 bjh21 static struct timecounter iomd_timecounter = {
101 1.19 bjh21 iomd_timecounter0_get,
102 1.19 bjh21 0, /* No poll_pps */
103 1.19 bjh21 ~0, /* 32bit accuracy */
104 1.19 bjh21 TIMER_FREQUENCY,
105 1.19 bjh21 "iomd_timer0",
106 1.19 bjh21 100
107 1.19 bjh21 };
108 1.19 bjh21
109 1.5 bjh21 int clockhandler __P((void *));
110 1.5 bjh21 int statclockhandler __P((void *));
111 1.5 bjh21
112 1.9 thorpej CFATTACH_DECL(clock, sizeof(struct clock_softc),
113 1.10 thorpej clockmatch, clockattach, NULL, NULL);
114 1.1 reinoud
115 1.1 reinoud /*
116 1.1 reinoud * int clockmatch(struct device *parent, void *match, void *aux)
117 1.1 reinoud *
118 1.1 reinoud * Just return ok for this if it is device 0
119 1.1 reinoud */
120 1.1 reinoud
121 1.1 reinoud static int
122 1.1 reinoud clockmatch(parent, cf, aux)
123 1.1 reinoud struct device *parent;
124 1.1 reinoud struct cfdata *cf;
125 1.1 reinoud void *aux;
126 1.1 reinoud {
127 1.1 reinoud struct clk_attach_args *ca = aux;
128 1.1 reinoud
129 1.1 reinoud if (strcmp(ca->ca_name, "clk") == 0)
130 1.1 reinoud return(1);
131 1.1 reinoud return(0);
132 1.1 reinoud }
133 1.1 reinoud
134 1.1 reinoud
135 1.1 reinoud /*
136 1.1 reinoud * void clockattach(struct device *parent, struct device *dev, void *aux)
137 1.1 reinoud *
138 1.1 reinoud * Map the IOMD and identify it.
139 1.1 reinoud * Then configure the child devices based on the IOMD ID.
140 1.1 reinoud */
141 1.1 reinoud
142 1.1 reinoud static void
143 1.1 reinoud clockattach(parent, self, aux)
144 1.1 reinoud struct device *parent;
145 1.1 reinoud struct device *self;
146 1.1 reinoud void *aux;
147 1.1 reinoud {
148 1.1 reinoud struct clock_softc *sc = (struct clock_softc *)self;
149 1.1 reinoud struct clk_attach_args *ca = aux;
150 1.1 reinoud
151 1.1 reinoud sc->sc_iot = ca->ca_iot;
152 1.1 reinoud sc->sc_ioh = ca->ca_ioh; /* This is a handle for the whole IOMD */
153 1.1 reinoud
154 1.1 reinoud clock_sc = sc;
155 1.1 reinoud
156 1.1 reinoud /* Cannot do anything until cpu_initclocks() has been called */
157 1.1 reinoud
158 1.1 reinoud printf("\n");
159 1.1 reinoud }
160 1.1 reinoud
161 1.1 reinoud
162 1.19 bjh21 static void
163 1.19 bjh21 tickle_tc(void)
164 1.19 bjh21 {
165 1.19 bjh21 if (timer0_count &&
166 1.19 bjh21 timecounter->tc_get_timecount == iomd_timecounter0_get) {
167 1.19 bjh21 simple_lock(&tmr_lock);
168 1.19 bjh21 if (timer0_ticked)
169 1.19 bjh21 timer0_ticked = 0;
170 1.19 bjh21 else {
171 1.19 bjh21 timer0_offset += timer0_count;
172 1.19 bjh21 timer0_lastcount = 0;
173 1.19 bjh21 }
174 1.19 bjh21 simple_unlock(&tmr_lock);
175 1.19 bjh21 }
176 1.19 bjh21
177 1.19 bjh21 }
178 1.19 bjh21
179 1.19 bjh21
180 1.1 reinoud /*
181 1.1 reinoud * int clockhandler(struct clockframe *frame)
182 1.1 reinoud *
183 1.1 reinoud * Function called by timer 0 interrupts. This just calls
184 1.1 reinoud * hardclock(). Eventually the irqhandler can call hardclock() directly
185 1.1 reinoud * but for now we use this function so that we can debug IRQ's
186 1.1 reinoud */
187 1.1 reinoud
188 1.1 reinoud int
189 1.5 bjh21 clockhandler(cookie)
190 1.5 bjh21 void *cookie;
191 1.1 reinoud {
192 1.5 bjh21 struct clockframe *frame = cookie;
193 1.19 bjh21 tickle_tc();
194 1.5 bjh21
195 1.1 reinoud hardclock(frame);
196 1.1 reinoud return(0); /* Pass the interrupt on down the chain */
197 1.1 reinoud }
198 1.1 reinoud
199 1.1 reinoud
200 1.1 reinoud /*
201 1.1 reinoud * int statclockhandler(struct clockframe *frame)
202 1.1 reinoud *
203 1.1 reinoud * Function called by timer 1 interrupts. This just calls
204 1.1 reinoud * statclock(). Eventually the irqhandler can call statclock() directly
205 1.1 reinoud * but for now we use this function so that we can debug IRQ's
206 1.1 reinoud */
207 1.1 reinoud
208 1.1 reinoud int
209 1.5 bjh21 statclockhandler(cookie)
210 1.5 bjh21 void *cookie;
211 1.1 reinoud {
212 1.5 bjh21 struct clockframe *frame = cookie;
213 1.5 bjh21
214 1.1 reinoud statclock(frame);
215 1.1 reinoud return(0); /* Pass the interrupt on down the chain */
216 1.1 reinoud }
217 1.1 reinoud
218 1.1 reinoud
219 1.1 reinoud /*
220 1.15 he * void setstatclockrate(int newhz)
221 1.1 reinoud *
222 1.1 reinoud * Set the stat clock rate. The stat clock uses timer1
223 1.1 reinoud */
224 1.1 reinoud
225 1.1 reinoud void
226 1.14 chris setstatclockrate(int newhz)
227 1.1 reinoud {
228 1.1 reinoud int count;
229 1.1 reinoud
230 1.14 chris count = TIMER_FREQUENCY / newhz;
231 1.1 reinoud
232 1.14 chris printf("Setting statclock to %dHz (%d ticks)\n", newhz, count);
233 1.1 reinoud
234 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
235 1.1 reinoud IOMD_T1LOW, (count >> 0) & 0xff);
236 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
237 1.1 reinoud IOMD_T1HIGH, (count >> 8) & 0xff);
238 1.1 reinoud
239 1.1 reinoud /* reload the counter */
240 1.1 reinoud
241 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
242 1.1 reinoud IOMD_T1GO, 0);
243 1.1 reinoud }
244 1.1 reinoud
245 1.1 reinoud
246 1.1 reinoud #ifdef DIAGNOSTIC
247 1.1 reinoud static void
248 1.1 reinoud checkdelay()
249 1.1 reinoud {
250 1.1 reinoud struct timeval start, end, diff;
251 1.1 reinoud
252 1.1 reinoud microtime(&start);
253 1.1 reinoud delay(10000);
254 1.1 reinoud microtime(&end);
255 1.1 reinoud timersub(&end, &start, &diff);
256 1.1 reinoud if (diff.tv_sec > 0)
257 1.1 reinoud return;
258 1.1 reinoud if (diff.tv_usec > 10000)
259 1.1 reinoud return;
260 1.1 reinoud printf("WARNING: delay(10000) took %ld us\n", diff.tv_usec);
261 1.1 reinoud }
262 1.1 reinoud #endif
263 1.1 reinoud
264 1.1 reinoud /*
265 1.1 reinoud * void cpu_initclocks(void)
266 1.1 reinoud *
267 1.1 reinoud * Initialise the clocks.
268 1.1 reinoud * This sets up the two timers in the IOMD and installs the IRQ handlers
269 1.1 reinoud *
270 1.1 reinoud * NOTE: Currently only timer 0 is setup and the IRQ handler is not installed
271 1.1 reinoud */
272 1.1 reinoud
273 1.1 reinoud void
274 1.1 reinoud cpu_initclocks()
275 1.1 reinoud {
276 1.1 reinoud /*
277 1.1 reinoud * Load timer 0 with count down value
278 1.1 reinoud * This timer generates 100Hz interrupts for the system clock
279 1.1 reinoud */
280 1.1 reinoud
281 1.1 reinoud printf("clock: hz=%d stathz = %d profhz = %d\n", hz, stathz, profhz);
282 1.1 reinoud
283 1.1 reinoud timer0_count = TIMER_FREQUENCY / hz;
284 1.1 reinoud
285 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
286 1.1 reinoud IOMD_T0LOW, (timer0_count >> 0) & 0xff);
287 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
288 1.1 reinoud IOMD_T0HIGH, (timer0_count >> 8) & 0xff);
289 1.1 reinoud
290 1.1 reinoud /* reload the counter */
291 1.1 reinoud
292 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
293 1.1 reinoud IOMD_T0GO, 0);
294 1.1 reinoud
295 1.1 reinoud clockirq = intr_claim(IRQ_TIMER0, IPL_CLOCK, "tmr0 hard clk",
296 1.1 reinoud clockhandler, 0);
297 1.1 reinoud
298 1.1 reinoud if (clockirq == NULL)
299 1.7 provos panic("%s: Cannot installer timer 0 IRQ handler",
300 1.1 reinoud clock_sc->sc_dev.dv_xname);
301 1.1 reinoud
302 1.1 reinoud if (stathz) {
303 1.1 reinoud setstatclockrate(stathz);
304 1.1 reinoud statclockirq = intr_claim(IRQ_TIMER1, IPL_CLOCK,
305 1.1 reinoud "tmr1 stat clk", statclockhandler, 0);
306 1.1 reinoud if (statclockirq == NULL)
307 1.7 provos panic("%s: Cannot installer timer 1 IRQ handler",
308 1.1 reinoud clock_sc->sc_dev.dv_xname);
309 1.1 reinoud }
310 1.1 reinoud #ifdef DIAGNOSTIC
311 1.1 reinoud checkdelay();
312 1.1 reinoud #endif
313 1.19 bjh21 tc_init(&iomd_timecounter);
314 1.1 reinoud }
315 1.1 reinoud
316 1.1 reinoud
317 1.1 reinoud
318 1.19 bjh21 static u_int iomd_timecounter0_get(struct timecounter *tc)
319 1.1 reinoud {
320 1.1 reinoud int s;
321 1.19 bjh21 u_int tm;
322 1.1 reinoud
323 1.1 reinoud /*
324 1.1 reinoud * Latch the current value of the timer and then read it.
325 1.1 reinoud * This garentees an atmoic reading of the time.
326 1.1 reinoud */
327 1.19 bjh21 s = splhigh();
328 1.1 reinoud bus_space_write_1(clock_sc->sc_iot, clock_sc->sc_ioh,
329 1.1 reinoud IOMD_T0LATCH, 0);
330 1.1 reinoud
331 1.1 reinoud tm = bus_space_read_1(clock_sc->sc_iot, clock_sc->sc_ioh,
332 1.1 reinoud IOMD_T0LOW);
333 1.1 reinoud tm += (bus_space_read_1(clock_sc->sc_iot, clock_sc->sc_ioh,
334 1.1 reinoud IOMD_T0HIGH) << 8);
335 1.19 bjh21 splx(s);
336 1.19 bjh21 simple_lock(&tmr_lock);
337 1.19 bjh21
338 1.19 bjh21 tm = timer0_count - tm;
339 1.19 bjh21
340 1.1 reinoud
341 1.19 bjh21 if (timer0_count &&
342 1.19 bjh21 (tm < timer0_lastcount || (!timer0_ticked && FALSE/* XXX: clkintr_pending */))) {
343 1.19 bjh21 timer0_ticked = 1;
344 1.19 bjh21 timer0_offset += timer0_count;
345 1.1 reinoud }
346 1.1 reinoud
347 1.19 bjh21 timer0_lastcount = tm;
348 1.19 bjh21 tm += timer0_offset;
349 1.19 bjh21
350 1.19 bjh21 simple_unlock(&tmr_lock);
351 1.19 bjh21 return tm;
352 1.1 reinoud }
353 1.1 reinoud
354 1.19 bjh21
355 1.19 bjh21
356 1.1 reinoud /*
357 1.1 reinoud * Estimated loop for n microseconds
358 1.1 reinoud */
359 1.1 reinoud
360 1.1 reinoud /* Need to re-write this to use the timers */
361 1.1 reinoud
362 1.1 reinoud /* One day soon I will actually do this */
363 1.1 reinoud
364 1.1 reinoud int delaycount = 100;
365 1.1 reinoud
366 1.1 reinoud void
367 1.1 reinoud delay(n)
368 1.1 reinoud u_int n;
369 1.1 reinoud {
370 1.18 christos volatile u_int n2;
371 1.18 christos volatile u_int i;
372 1.1 reinoud
373 1.1 reinoud if (n == 0) return;
374 1.18 christos n2 = n;
375 1.18 christos while (n2-- > 0) {
376 1.1 reinoud if (cputype == CPU_ID_SA110) /* XXX - Seriously gross hack */
377 1.1 reinoud for (i = delaycount; --i;);
378 1.1 reinoud else
379 1.1 reinoud for (i = 8; --i;);
380 1.1 reinoud }
381 1.12 thorpej }
382 1.12 thorpej
383 1.12 thorpej todr_chip_handle_t todr_handle;
384 1.12 thorpej
385 1.12 thorpej /*
386 1.12 thorpej * todr_attach:
387 1.12 thorpej *
388 1.12 thorpej * Set the specified time-of-day register as the system real-time clock.
389 1.12 thorpej */
390 1.12 thorpej void
391 1.12 thorpej todr_attach(todr_chip_handle_t todr)
392 1.12 thorpej {
393 1.12 thorpej
394 1.12 thorpej if (todr_handle)
395 1.12 thorpej panic("todr_attach: rtc already configured");
396 1.12 thorpej todr_handle = todr;
397 1.12 thorpej }
398 1.12 thorpej
399 1.12 thorpej /*
400 1.12 thorpej * inittodr:
401 1.12 thorpej *
402 1.12 thorpej * Initialize time from the time-of-day register.
403 1.12 thorpej */
404 1.12 thorpej #define MINYEAR 2003 /* minimum plausible year */
405 1.12 thorpej void
406 1.12 thorpej inittodr(time_t base)
407 1.12 thorpej {
408 1.12 thorpej time_t deltat;
409 1.12 thorpej int badbase;
410 1.19 bjh21 int badtime;
411 1.19 bjh21 struct timeval time;
412 1.19 bjh21 struct timespec tc_time; /* for timecounters */
413 1.19 bjh21
414 1.19 bjh21 /* Default is to assume that time from somewhere will be okay.
415 1.19 bjh21 * If not badtime will be set to 1 */
416 1.19 bjh21 badtime = 0;
417 1.12 thorpej if (base < (MINYEAR - 1970) * SECYR) {
418 1.12 thorpej printf("WARNING: preposterous time in file system");
419 1.12 thorpej /* read the system clock anyway */
420 1.12 thorpej base = (MINYEAR - 1970) * SECYR;
421 1.12 thorpej badbase = 1;
422 1.12 thorpej } else
423 1.12 thorpej badbase = 0;
424 1.12 thorpej
425 1.12 thorpej if (todr_handle == NULL ||
426 1.15 he todr_gettime(todr_handle, &time) != 0 ||
427 1.15 he time.tv_sec == 0) {
428 1.12 thorpej /*
429 1.12 thorpej * Believe the time in the file system for lack of
430 1.12 thorpej * anything better, resetting the TODR.
431 1.12 thorpej */
432 1.12 thorpej time.tv_sec = base;
433 1.12 thorpej time.tv_usec = 0;
434 1.12 thorpej if (todr_handle != NULL && !badbase) {
435 1.12 thorpej printf("WARNING: preposterous clock chip time\n");
436 1.12 thorpej resettodr();
437 1.12 thorpej }
438 1.19 bjh21 badtime = 1;
439 1.12 thorpej }
440 1.12 thorpej
441 1.12 thorpej if (!badbase) {
442 1.12 thorpej /*
443 1.13 simonb * See if we gained/lost two or more days; if
444 1.12 thorpej * so, assume something is amiss.
445 1.12 thorpej */
446 1.15 he deltat = time.tv_sec - base;
447 1.12 thorpej if (deltat < 0)
448 1.12 thorpej deltat = -deltat;
449 1.19 bjh21 if (deltat >= 2 * SECDAY)
450 1.12 thorpej printf("WARNING: clock %s %ld days\n",
451 1.19 bjh21 time.tv_sec < base ? "lost" : "gained",
452 1.19 bjh21 (long)deltat / SECDAY);
453 1.12 thorpej }
454 1.19 bjh21 /* At this point time is a time value we can initialise the system
455 1.19 bjh21 * clock with */
456 1.19 bjh21 tc_time.tv_sec = time.tv_sec;
457 1.19 bjh21 tc_time.tv_nsec = time.tv_usec * 1000;
458 1.19 bjh21 tc_setclock(&tc_time);
459 1.19 bjh21 timeset = 1;
460 1.19 bjh21
461 1.19 bjh21 if (badtime)
462 1.19 bjh21 printf("WARNING: CHECK AND RESET THE DATE!\n");
463 1.12 thorpej }
464 1.12 thorpej
465 1.12 thorpej /*
466 1.12 thorpej * resettodr:
467 1.12 thorpej *
468 1.12 thorpej * Reset the time-of-day register with the current time.
469 1.12 thorpej */
470 1.12 thorpej void
471 1.12 thorpej resettodr(void)
472 1.12 thorpej {
473 1.19 bjh21 struct timeval time;
474 1.19 bjh21 if (!timeset)
475 1.12 thorpej return;
476 1.12 thorpej
477 1.19 bjh21 getmicrotime(&time);
478 1.12 thorpej if (todr_handle != NULL &&
479 1.15 he todr_settime(todr_handle, &time) != 0)
480 1.12 thorpej printf("resettodr: failed to set time\n");
481 1.1 reinoud }
482 1.1 reinoud
483 1.1 reinoud /* End of iomd_clock.c */
484