cpu.h revision 1.3 1 1.3 dbj /* $NetBSD: cpu.h,v 1.3 1998/08/28 22:53:47 dbj Exp $ */
2 1.1 dbj
3 1.1 dbj /*
4 1.1 dbj * Copyright (c) 1988 University of Utah.
5 1.1 dbj * Copyright (c) 1982, 1990, 1993
6 1.1 dbj * The Regents of the University of California. All rights reserved.
7 1.1 dbj *
8 1.1 dbj * This code is derived from software contributed to Berkeley by
9 1.1 dbj * the Systems Programming Group of the University of Utah Computer
10 1.1 dbj * Science Department.
11 1.1 dbj *
12 1.1 dbj * Redistribution and use in source and binary forms, with or without
13 1.1 dbj * modification, are permitted provided that the following conditions
14 1.1 dbj * are met:
15 1.1 dbj * 1. Redistributions of source code must retain the above copyright
16 1.1 dbj * notice, this list of conditions and the following disclaimer.
17 1.1 dbj * 2. Redistributions in binary form must reproduce the above copyright
18 1.1 dbj * notice, this list of conditions and the following disclaimer in the
19 1.1 dbj * documentation and/or other materials provided with the distribution.
20 1.1 dbj * 3. All advertising materials mentioning features or use of this software
21 1.1 dbj * must display the following acknowledgement:
22 1.1 dbj * This product includes software developed by the University of
23 1.1 dbj * California, Berkeley and its contributors.
24 1.1 dbj * 4. Neither the name of the University nor the names of its contributors
25 1.1 dbj * may be used to endorse or promote products derived from this software
26 1.1 dbj * without specific prior written permission.
27 1.1 dbj *
28 1.1 dbj * THIS SOFTWARE IS PROVIDED BY THE REGENTS AND CONTRIBUTORS ``AS IS'' AND
29 1.1 dbj * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
30 1.1 dbj * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
31 1.1 dbj * ARE DISCLAIMED. IN NO EVENT SHALL THE REGENTS OR CONTRIBUTORS BE LIABLE
32 1.1 dbj * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
33 1.1 dbj * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
34 1.1 dbj * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
35 1.1 dbj * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
36 1.1 dbj * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
37 1.1 dbj * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
38 1.1 dbj * SUCH DAMAGE.
39 1.1 dbj *
40 1.1 dbj * from: Utah $Hdr: cpu.h 1.16 91/03/25$
41 1.1 dbj *
42 1.1 dbj * @(#)cpu.h 8.4 (Berkeley) 1/5/94
43 1.1 dbj */
44 1.1 dbj
45 1.1 dbj
46 1.1 dbj #ifndef _CPU_MACHINE_
47 1.1 dbj #define _CPU_MACHINE_
48 1.1 dbj
49 1.1 dbj /*
50 1.1 dbj * Exported definitions unique to next68k/68k cpu support.
51 1.1 dbj */
52 1.1 dbj
53 1.1 dbj /*
54 1.1 dbj * Get common m68k definitions.
55 1.1 dbj */
56 1.1 dbj #include <m68k/cpu.h>
57 1.1 dbj
58 1.1 dbj #define M68K_MMU_MOTOROLA
59 1.1 dbj
60 1.1 dbj /*
61 1.1 dbj * Get interrupt glue.
62 1.1 dbj */
63 1.1 dbj #include <machine/intr.h>
64 1.1 dbj
65 1.1 dbj /*
66 1.1 dbj * definitions of cpu-dependent requirements
67 1.1 dbj * referenced in generic code
68 1.1 dbj */
69 1.1 dbj #define cpu_swapin(p) /* nothing */
70 1.1 dbj #define cpu_wait(p) /* nothing */
71 1.1 dbj #define cpu_swapout(p) /* nothing */
72 1.1 dbj
73 1.1 dbj /*
74 1.1 dbj * Arguments to hardclock and gatherstats encapsulate the previous
75 1.1 dbj * machine state in an opaque clockframe. One the hp300, we use
76 1.1 dbj * what the hardware pushes on an interrupt (frame format 0).
77 1.1 dbj */
78 1.1 dbj struct clockframe {
79 1.1 dbj u_short sr; /* sr at time of interrupt */
80 1.1 dbj u_long pc; /* pc at time of interrupt */
81 1.1 dbj u_short vo; /* vector offset (4-word frame) */
82 1.1 dbj };
83 1.1 dbj
84 1.1 dbj #define CLKF_USERMODE(framep) (((framep)->sr & PSL_S) == 0)
85 1.1 dbj #define CLKF_BASEPRI(framep) (((framep)->sr & PSL_IPL) == 0)
86 1.1 dbj #define CLKF_PC(framep) ((framep)->pc)
87 1.1 dbj #if 0
88 1.1 dbj /* We would like to do it this way... */
89 1.1 dbj #define CLKF_INTR(framep) (((framep)->sr & PSL_M) == 0)
90 1.1 dbj #else
91 1.1 dbj /* but until we start using PSL_M, we have to do this instead */
92 1.1 dbj #define CLKF_INTR(framep) (0) /* XXX */
93 1.1 dbj #endif
94 1.1 dbj
95 1.1 dbj /*
96 1.1 dbj * Preempt the current process if in interrupt from user mode,
97 1.1 dbj * or after the current trap/syscall if in system mode.
98 1.1 dbj */
99 1.1 dbj extern int want_resched; /* resched() was called */
100 1.1 dbj #define need_resched() { want_resched = 1; aston(); }
101 1.1 dbj
102 1.1 dbj /*
103 1.1 dbj * Give a profiling tick to the current process when the user profiling
104 1.1 dbj * buffer pages are invalid. On the sun3, request an ast to send us
105 1.1 dbj * through trap, marking the proc as needing a profiling tick.
106 1.1 dbj */
107 1.1 dbj #define need_proftick(p) ((p)->p_flag |= P_OWEUPC, aston())
108 1.1 dbj
109 1.1 dbj /*
110 1.1 dbj * Notify the current process (p) that it has a signal pending,
111 1.1 dbj * process as soon as possible.
112 1.1 dbj */
113 1.1 dbj #define signotify(p) aston()
114 1.1 dbj
115 1.1 dbj #define aston() (astpending++)
116 1.1 dbj
117 1.1 dbj int astpending; /* need to trap before returning to user mode */
118 1.1 dbj int want_resched; /* resched() was called */
119 1.1 dbj
120 1.1 dbj #ifdef _KERNEL
121 1.1 dbj extern volatile char *intiobase;
122 1.1 dbj extern volatile char *intiolimit;
123 1.1 dbj extern void (*vectab[]) __P((void));
124 1.1 dbj
125 1.1 dbj struct frame;
126 1.1 dbj struct fpframe;
127 1.1 dbj struct pcb;
128 1.1 dbj
129 1.1 dbj /* locore.s functions */
130 1.1 dbj void m68881_save __P((struct fpframe *));
131 1.1 dbj void m68881_restore __P((struct fpframe *));
132 1.1 dbj #if 0 /* it's already in m68k/m68k.h */
133 1.1 dbj u_long getdfc __P((void));
134 1.1 dbj u_long getsfc __P((void));
135 1.1 dbj #endif
136 1.1 dbj void DCIA __P((void));
137 1.1 dbj void DCIS __P((void));
138 1.1 dbj void DCIU __P((void));
139 1.1 dbj void ICIA __P((void));
140 1.1 dbj void ICPA __P((void));
141 1.1 dbj void PCIA __P((void));
142 1.1 dbj void TBIA __P((void));
143 1.1 dbj void TBIS __P((vm_offset_t));
144 1.1 dbj void TBIAS __P((void));
145 1.1 dbj void TBIAU __P((void));
146 1.1 dbj #if defined(M68040)
147 1.1 dbj void DCFA __P((void));
148 1.1 dbj void DCFP __P((vm_offset_t));
149 1.1 dbj void DCFL __P((vm_offset_t));
150 1.1 dbj void DCPL __P((vm_offset_t));
151 1.1 dbj void DCPP __P((vm_offset_t));
152 1.1 dbj void ICPL __P((vm_offset_t));
153 1.1 dbj void ICPP __P((vm_offset_t));
154 1.1 dbj #endif
155 1.1 dbj int suline __P((caddr_t, caddr_t));
156 1.1 dbj void savectx __P((struct pcb *));
157 1.1 dbj void switch_exit __P((struct proc *));
158 1.1 dbj void proc_trampoline __P((void));
159 1.1 dbj void loadustp __P((int));
160 1.1 dbj
161 1.1 dbj void doboot __P((void)) __attribute__((__noreturn__));
162 1.1 dbj
163 1.1 dbj /* vm_machdep.c functions */
164 1.1 dbj void physaccess __P((caddr_t, caddr_t, int, int));
165 1.1 dbj void physunaccess __P((caddr_t, int));
166 1.1 dbj int kvtop __P((caddr_t));
167 1.1 dbj
168 1.1 dbj /* clock.c functions */
169 1.1 dbj void next68k_calibrate_delay __P((void));
170 1.1 dbj
171 1.1 dbj #endif /* _KERNEL */
172 1.1 dbj
173 1.1 dbj #define NEXT_RAMBASE (0x4000000) /* really depends on slot, but... */
174 1.1 dbj #define NEXT_BANKSIZE (0x1000000) /* Size of a memory bank in physical address */
175 1.1 dbj
176 1.1 dbj #if 0
177 1.1 dbj /* @@@ this needs to be fixed to work on 030's */
178 1.1 dbj #define NEXT_SLOT_ID 0x0
179 1.1 dbj #ifdef M68030
180 1.1 dbj #define NEXT_SLOT_ID_BMAP 0x0
181 1.1 dbj #endif M68030
182 1.1 dbj #endif
183 1.1 dbj #ifdef M68040
184 1.3 dbj #ifdef DISABLE_NEXT_BMAP_CHIP /* @@@ For turbo testing */
185 1.3 dbj #define NEXT_SLOT_ID_BMAP 0x0
186 1.3 dbj #else
187 1.1 dbj #define NEXT_SLOT_ID_BMAP 0x00100000
188 1.3 dbj #endif
189 1.1 dbj #define NEXT_SLOT_ID 0x0
190 1.1 dbj #endif M68040
191 1.1 dbj
192 1.1 dbj /****************************************************************/
193 1.1 dbj
194 1.1 dbj /* Eventually, I'd like to move these defines off into
195 1.1 dbj * configure somewhere
196 1.1 dbj * Darrin B Jewell <jewell (at) mit.edu> Thu Feb 5 03:50:58 1998
197 1.1 dbj */
198 1.1 dbj /* ROM */
199 1.1 dbj #define NEXT_P_EPROM (NEXT_SLOT_ID+0x00000000)
200 1.1 dbj #define NEXT_P_EPROM_BMAP (NEXT_SLOT_ID+0x01000000)
201 1.1 dbj #define NEXT_P_EPROM_SIZE (128 * 1024)
202 1.1 dbj
203 1.1 dbj /* device space */
204 1.1 dbj #define NEXT_P_DEV_SPACE (NEXT_SLOT_ID+0x02000000)
205 1.1 dbj #define NEXT_P_DEV_BMAP (NEXT_SLOT_ID+0x02100000)
206 1.1 dbj #define NEXT_DEV_SPACE_SIZE 0x0001c000
207 1.1 dbj
208 1.1 dbj /* DMA control/status (writes MUST be 32-bit) */
209 1.1 dbj #define NEXT_P_SCSI_CSR (NEXT_SLOT_ID+0x02000010)
210 1.1 dbj #define NEXT_P_SOUNDOUT_CSR (NEXT_SLOT_ID+0x02000040)
211 1.1 dbj #define NEXT_P_DISK_CSR (NEXT_SLOT_ID+0x02000050)
212 1.1 dbj #define NEXT_P_SOUNDIN_CSR (NEXT_SLOT_ID+0x02000080)
213 1.1 dbj #define NEXT_P_PRINTER_CSR (NEXT_SLOT_ID+0x02000090)
214 1.1 dbj #define NEXT_P_SCC_CSR (NEXT_SLOT_ID+0x020000c0)
215 1.1 dbj #define NEXT_P_DSP_CSR (NEXT_SLOT_ID+0x020000d0)
216 1.1 dbj #define NEXT_P_ENETX_CSR (NEXT_SLOT_ID+0x02000110)
217 1.1 dbj #define NEXT_P_ENETR_CSR (NEXT_SLOT_ID+0x02000150)
218 1.1 dbj #define NEXT_P_VIDEO_CSR (NEXT_SLOT_ID+0x02000180)
219 1.1 dbj #define NEXT_P_M2R_CSR (NEXT_SLOT_ID+0x020001d0)
220 1.1 dbj #define NEXT_P_R2M_CSR (NEXT_SLOT_ID+0x020001c0)
221 1.1 dbj
222 1.1 dbj /* DMA scratch pad (writes MUST be 32-bit) */
223 1.1 dbj #define NEXT_P_VIDEO_SPAD (NEXT_SLOT_ID+0x02004180)
224 1.1 dbj #define NEXT_P_EVENT_SPAD (NEXT_SLOT_ID+0x0200418c)
225 1.1 dbj #define NEXT_P_M2M_SPAD (NEXT_SLOT_ID+0x020041e0)
226 1.1 dbj
227 1.1 dbj /* device registers */
228 1.1 dbj #define NEXT_P_ENET (NEXT_SLOT_ID_BMAP+0x02006000)
229 1.1 dbj #define NEXT_P_DSP (NEXT_SLOT_ID_BMAP+0x02008000)
230 1.1 dbj #define NEXT_P_MON (NEXT_SLOT_ID+0x0200e000)
231 1.1 dbj #define NEXT_P_PRINTER (NEXT_SLOT_ID+0x0200f000)
232 1.1 dbj #define NEXT_P_DISK (NEXT_SLOT_ID_BMAP+0x02012000)
233 1.1 dbj #define NEXT_P_SCSI (NEXT_SLOT_ID_BMAP+0x02014000)
234 1.1 dbj #define NEXT_P_FLOPPY (NEXT_SLOT_ID_BMAP+0x02014100)
235 1.1 dbj #define NEXT_P_TIMER (NEXT_SLOT_ID_BMAP+0x02016000)
236 1.1 dbj #define NEXT_P_TIMER_CSR (NEXT_SLOT_ID_BMAP+0x02016004)
237 1.1 dbj #define NEXT_P_SCC (NEXT_SLOT_ID_BMAP+0x02018000)
238 1.1 dbj #define NEXT_P_SCC_CLK (NEXT_SLOT_ID_BMAP+0x02018004)
239 1.1 dbj #define NEXT_P_EVENTC (NEXT_SLOT_ID_BMAP+0x0201a000)
240 1.1 dbj #define NEXT_P_BMAP (NEXT_SLOT_ID+0x020c0000)
241 1.1 dbj /* All COLOR_FB registers are 1 byte wide */
242 1.1 dbj #define NEXT_P_C16_DAC_0 (NEXT_SLOT_ID_BMAP+0x02018100) /* COLOR_FB - RAMDAC */
243 1.1 dbj #define NEXT_P_C16_DAC_1 (NEXT_SLOT_ID_BMAP+0x02018101)
244 1.1 dbj #define NEXT_P_C16_DAC_2 (NEXT_SLOT_ID_BMAP+0x02018102)
245 1.1 dbj #define NEXT_P_C16_DAC_3 (NEXT_SLOT_ID_BMAP+0x02018103)
246 1.1 dbj #define NEXT_P_C16_CMD_REG (NEXT_SLOT_ID_BMAP+0x02018180) /* COLOR_FB - CSR */
247 1.1 dbj
248 1.1 dbj /* system control registers */
249 1.1 dbj #define NEXT_P_MEMTIMING (NEXT_SLOT_ID_BMAP+0x02006010)
250 1.1 dbj #define NEXT_P_INTRSTAT (NEXT_SLOT_ID+0x02007000)
251 1.1 dbj #define NEXT_P_INTRSTAT_CON 0x02007000
252 1.1 dbj #define NEXT_P_INTRMASK (NEXT_SLOT_ID+0x02007800)
253 1.1 dbj #define NEXT_P_INTRMASK_CON 0x02007800
254 1.1 dbj #define NEXT_P_SCR1 (NEXT_SLOT_ID+0x0200c000)
255 1.1 dbj #define NEXT_P_SCR1_CON 0x0200c000
256 1.1 dbj #define NEXT_P_SID 0x0200c800 /* NOT slot-relative */
257 1.1 dbj #define NEXT_P_SCR2 (NEXT_SLOT_ID+0x0200d000)
258 1.1 dbj #define NEXT_P_SCR2_CON 0x0200d000
259 1.1 dbj #define NEXT_P_RMTINT (NEXT_SLOT_ID+0x0200d800)
260 1.1 dbj #define NEXT_P_BRIGHTNESS (NEXT_SLOT_ID_BMAP+0x02010000)
261 1.1 dbj #define NEXT_P_DRAM_TIMING (NEXT_SLOT_ID_BMAP+0x02018190) /* Warp 9C memory ctlr */
262 1.1 dbj #define NEXT_P_VRAM_TIMING (NEXT_SLOT_ID_BMAP+0x02018198) /* Warp 9C memory ctlr */
263 1.1 dbj
264 1.1 dbj /* memory */
265 1.1 dbj #define NEXT_P_MAINMEM (NEXT_SLOT_ID+0x04000000)
266 1.1 dbj #define NEXT_P_MEMSIZE 0x04000000
267 1.1 dbj #define NEXT_P_VIDEOMEM (NEXT_SLOT_ID+0x0b000000)
268 1.1 dbj #define NEXT_P_VIDEOSIZE 0x0003a800
269 1.1 dbj #define NEXT_P_C16_VIDEOMEM (NEXT_SLOT_ID+0x06000000) /* COLOR_FB */
270 1.1 dbj #define NEXT_P_C16_VIDEOSIZE 0x001D4000 /* COLOR_FB */
271 1.1 dbj #define NEXT_P_WF4VIDEO (NEXT_SLOT_ID+0x0c000000) /* w A+B-AB function */
272 1.1 dbj #define NEXT_P_WF3VIDEO (NEXT_SLOT_ID+0x0d000000) /* w (1-A)B function */
273 1.1 dbj #define NEXT_P_WF2VIDEO (NEXT_SLOT_ID+0x0e000000) /* w ceil(A+B) function */
274 1.1 dbj #define NEXT_P_WF1VIDEO (NEXT_SLOT_ID+0x0f000000) /* w AB function */
275 1.1 dbj #define NEXT_P_WF4MEM (NEXT_SLOT_ID+0x10000000) /* w A+B-AB function */
276 1.1 dbj #define NEXT_P_WF3MEM (NEXT_SLOT_ID+0x14000000) /* w (1-A)B function */
277 1.1 dbj #define NEXT_P_WF2MEM (NEXT_SLOT_ID+0x18000000) /* w ceil(A+B) function */
278 1.1 dbj #define NEXT_P_WF1MEM (NEXT_SLOT_ID+0x1c000000) /* w AB function */
279 1.1 dbj #define NEXT_NMWF 4 /* # of memory write funcs */
280 1.1 dbj
281 1.1 dbj /*
282 1.1 dbj * Interrupt structure.
283 1.1 dbj * BASE and BITS define the origin and length of the bit field in the
284 1.1 dbj * interrupt status/mask register for the particular interrupt level.
285 1.1 dbj * The first component of the interrupt device name indicates the bit
286 1.1 dbj * position in the interrupt status and mask registers; the second is the
287 1.1 dbj * interrupt level; the third is the bit index relative to the start of the
288 1.1 dbj * bit field.
289 1.1 dbj */
290 1.1 dbj #define NEXT_I(l,i,b) (((b) << 8) | ((l) << 4) | (i))
291 1.1 dbj #define NEXT_I_INDEX(i) ((i) & 0xf)
292 1.1 dbj #define NEXT_I_IPL(i) (((i) >> 4) & 7)
293 1.1 dbj #define NEXT_I_BIT(i) ( 1 << (((i) >> 8) & 0x1f))
294 1.1 dbj
295 1.1 dbj #define NEXT_I_IPL7_BASE 0
296 1.1 dbj #define NEXT_I_IPL7_BITS 2
297 1.1 dbj #define NEXT_I_NMI NEXT_I(7,0,31)
298 1.1 dbj #define NEXT_I_PFAIL NEXT_I(7,1,30)
299 1.1 dbj
300 1.1 dbj #define NEXT_I_IPL6_BASE 2
301 1.1 dbj #define NEXT_I_IPL6_BITS 12
302 1.1 dbj #define NEXT_I_TIMER NEXT_I(6,0,29)
303 1.1 dbj #define NEXT_I_ENETX_DMA NEXT_I(6,1,28)
304 1.1 dbj #define NEXT_I_ENETR_DMA NEXT_I(6,2,27)
305 1.2 dbj #define NEXT_I_SCSI_DMA NEXT_I(6,3,26)
306 1.1 dbj #define NEXT_I_DISK_DMA NEXT_I(6,4,25)
307 1.1 dbj #define NEXT_I_PRINTER_DMA NEXT_I(6,5,24)
308 1.1 dbj #define NEXT_I_SOUND_OUT_DMA NEXT_I(6,6,23)
309 1.1 dbj #define NEXT_I_SOUND_IN_DMA NEXT_I(6,7,22)
310 1.1 dbj #define NEXT_I_SCC_DMA NEXT_I(6,8,21)
311 1.1 dbj #define NEXT_I_DSP_DMA NEXT_I(6,9,20)
312 1.1 dbj #define NEXT_I_M2R_DMA NEXT_I(6,10,19)
313 1.1 dbj #define NEXT_I_R2M_DMA NEXT_I(6,11,18)
314 1.1 dbj
315 1.1 dbj #define NEXT_I_IPL5_BASE 14
316 1.1 dbj #define NEXT_I_IPL5_BITS 3
317 1.1 dbj #define NEXT_I_SCC NEXT_I(5,0,17)
318 1.1 dbj #define NEXT_I_REMOTE NEXT_I(5,1,16)
319 1.1 dbj #define NEXT_I_BUS NEXT_I(5,2,15)
320 1.1 dbj
321 1.1 dbj #define NEXT_I_IPL4_BASE 17
322 1.1 dbj #define NEXT_I_IPL4_BITS 1
323 1.1 dbj #define NEXT_I_DSP_4 NEXT_I(4,0,14)
324 1.1 dbj
325 1.1 dbj #define NEXT_I_IPL3_BASE 18
326 1.1 dbj #define NEXT_I_IPL3_BITS 12
327 1.1 dbj #define NEXT_I_DISK NEXT_I(3,0,13)
328 1.1 dbj #define NEXT_I_C16_VIDEO NEXT_I(3,0,13) /* COLOR_FB - Steals old ESDI interrupt */
329 1.1 dbj #define NEXT_I_SCSI NEXT_I(3,1,12)
330 1.1 dbj #define NEXT_I_PRINTER NEXT_I(3,2,11)
331 1.1 dbj #define NEXT_I_ENETX NEXT_I(3,3,10)
332 1.1 dbj #define NEXT_I_ENETR NEXT_I(3,4,9)
333 1.1 dbj #define NEXT_I_SOUND_OVRUN NEXT_I(3,5,8)
334 1.1 dbj #define NEXT_I_PHONE NEXT_I(3,6,7)
335 1.1 dbj #define NEXT_I_DSP_3 NEXT_I(3,7,6)
336 1.1 dbj #define NEXT_I_VIDEO NEXT_I(3,8,5)
337 1.1 dbj #define NEXT_I_MONITOR NEXT_I(3,9,4)
338 1.1 dbj #define NEXT_I_KYBD_MOUSE NEXT_I(3,10,3)
339 1.1 dbj #define NEXT_I_POWER NEXT_I(3,11,2)
340 1.1 dbj
341 1.1 dbj #define NEXT_I_IPL2_BASE 30
342 1.1 dbj #define NEXT_I_IPL2_BITS 1
343 1.1 dbj #define NEXT_I_SOFTINT1 NEXT_I(2,0,1)
344 1.1 dbj
345 1.1 dbj #define NEXT_I_IPL1_BASE 31
346 1.1 dbj #define NEXT_I_IPL1_BITS 1
347 1.1 dbj #define NEXT_I_SOFTINT0 NEXT_I(1,0,0)
348 1.1 dbj
349 1.1 dbj /****************************************************************/
350 1.1 dbj
351 1.1 dbj /* physical memory sections */
352 1.1 dbj #if 0
353 1.1 dbj #define ROMBASE (0x00000000)
354 1.1 dbj #endif
355 1.1 dbj
356 1.1 dbj #define INTIOBASE (0x02000000)
357 1.1 dbj #define INTIOTOP (0x02120000)
358 1.1 dbj
359 1.1 dbj #define NEXT_INTR_BITS \
360 1.1 dbj "\20\40NMI\37PFAIL\36TIMER\35ENETX_DMA\34ENETR_DMA\33SCSNEXT_I_DMA\32DISK_DMA\31PRINTER_DMA\30SOUND_OUT_DMA\27SOUND_IN_DMA\26SCC_DMA\25DSP_DMA\24M2R_DMA\23R2M_DMA\22SCC\21REMOTE\20BUS\17DSP_4\16DISK|C16_VIDEO\15SCSI\14PRINTER\13ENETX\12ENETR\11SOUND_OVRUN\10PHONE\07DSP_3\06VIDEO\05MONITOR\04KYBD_MOUSE\03POWER\02SOFTINT1\01SOFTINT0"
361 1.1 dbj
362 1.1 dbj /*
363 1.1 dbj * Internal IO space:
364 1.1 dbj *
365 1.1 dbj * Ranges from 0x400000 to 0x600000 (IIOMAPSIZE).
366 1.1 dbj *
367 1.1 dbj * Internal IO space is mapped in the kernel from ``intiobase'' to
368 1.1 dbj * ``intiolimit'' (defined in locore.s). Since it is always mapped,
369 1.1 dbj * conversion between physical and kernel virtual addresses is easy.
370 1.1 dbj */
371 1.1 dbj #define ISIIOVA(va) \
372 1.1 dbj ((char *)(va) >= intiobase && (char *)(va) < intiolimit)
373 1.1 dbj #define IIOV(pa) ((int)(pa)-INTIOBASE+(int)intiobase)
374 1.1 dbj #define IIOP(va) ((int)(va)-(int)intiobase+INTIOBASE)
375 1.1 dbj #define IIOPOFF(pa) ((int)(pa)-INTIOBASE)
376 1.1 dbj #define IIOMAPSIZE btoc(INTIOTOP-INTIOBASE) /* 2mb */
377 1.1 dbj
378 1.1 dbj #endif /* _CPU_MACHINE_ */
379