1/*	$NetBSD: cputypes.h,v 1.16 2021/11/13 01:09:51 simonb Exp $	*/
2
3/*
4 * Copyright (c) 1998, 2001 Ben Harris
5 * Copyright (c) 1994-1996 Mark Brinicombe.
6 * Copyright (c) 1994 Brini.
7 * All rights reserved.
8 *
9 * This code is derived from software written for Brini by Mark Brinicombe
10 *
11 * Redistribution and use in source and binary forms, with or without
12 * modification, are permitted provided that the following conditions
13 * are met:
14 * 1. Redistributions of source code must retain the above copyright
15 *    notice, this list of conditions and the following disclaimer.
16 * 2. Redistributions in binary form must reproduce the above copyright
17 *    notice, this list of conditions and the following disclaimer in the
18 *    documentation and/or other materials provided with the distribution.
19 * 3. All advertising materials mentioning features or use of this software
20 *    must display the following acknowledgement:
21 *	This product includes software developed by Brini.
22 * 4. The name of the company nor the name of the author may be used to
23 *    endorse or promote products derived from this software without specific
24 *    prior written permission.
25 *
26 * THIS SOFTWARE IS PROVIDED BY BRINI ``AS IS'' AND ANY EXPRESS OR IMPLIED
27 * WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
28 * MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
29 * IN NO EVENT SHALL BRINI OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT,
30 * INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
31 * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
32 * SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
33 * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
34 * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
35 * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
36 * SUCH DAMAGE.
37 */
38
39#ifndef _ARM_CPUTYPES_H_
40#define _ARM_CPUTYPES_H_
41
42/*
43 * The CPU ID register is theoretically structured, but the definitions of
44 * the fields keep changing.
45 */
46
47/* The high-order byte is always the implementor */
48#define CPU_ID_IMPLEMENTOR_MASK	0xff000000
49#define CPU_ID_ARM_LTD		0x41000000 /* 'A' */
50#define CPU_ID_BROADCOM		0x42000000 /* 'B' */
51#define CPU_ID_CAVIUM		0x43000000 /* 'C' */
52#define CPU_ID_DEC		0x44000000 /* 'D' */
53#define CPU_ID_INFINEON		0x49000000 /* 'I' */
54#define CPU_ID_MOTOROLA		0x4d000000 /* 'M' */
55#define CPU_ID_NVIDIA		0x4e000000 /* 'N' */
56#define CPU_ID_APM		0x50000000 /* 'P' */
57#define CPU_ID_QUALCOMM		0x51000000 /* 'Q' */
58#define CPU_ID_SAMSUNG		0x53000000 /* 'S' */
59#define CPU_ID_TI		0x54000000 /* 'T' */
60#define CPU_ID_MARVELL		0x56000000 /* 'V' */
61#define CPU_ID_APPLE		0x61000000 /* 'a' */
62#define CPU_ID_FARADAY		0x66000000 /* 'f' */
63#define CPU_ID_INTEL		0x69000000 /* 'i' */
64
65/* How to decide what format the CPUID is in. */
66#define CPU_ID_ISOLD(x)		(((x) & 0x0000f000) == 0x00000000)
67#define CPU_ID_IS7(x)		(((x) & 0x0000f000) == 0x00007000)
68#define CPU_ID_ISNEW(x)		(!CPU_ID_ISOLD(x) && !CPU_ID_IS7(x))
69
70/* On ARM3 and ARM6, this byte holds the foundry ID. */
71#define CPU_ID_FOUNDRY_MASK	0x00ff0000
72#define CPU_ID_FOUNDRY_VLSI	0x00560000
73
74/* On ARM7 it holds the architecture and variant (sub-model) */
75#define CPU_ID_7ARCH_MASK	0x00800000
76#define CPU_ID_7ARCH_V3		0x00000000
77#define CPU_ID_7ARCH_V4T	0x00800000
78#define CPU_ID_7VARIANT_MASK	0x007f0000
79
80/* On more recent ARMs, it does the same, but in a different format */
81#define CPU_ID_ARCH_MASK	0x000f0000
82#define CPU_ID_ARCH_V3		0x00000000
83#define CPU_ID_ARCH_V4		0x00010000
84#define CPU_ID_ARCH_V4T		0x00020000
85#define CPU_ID_ARCH_V5		0x00030000
86#define CPU_ID_ARCH_V5T		0x00040000
87#define CPU_ID_ARCH_V5TE	0x00050000
88#define CPU_ID_ARCH_V5TEJ	0x00060000
89#define CPU_ID_ARCH_V6		0x00070000
90#define CPU_ID_VARIANT_MASK	0x00f00000
91
92/* Next three nybbles are part number */
93#define CPU_ID_PARTNO_MASK	0x0000fff0
94
95/* Intel XScale has sub fields in part number */
96#define CPU_ID_XSCALE_COREGEN_MASK	0x0000e000 /* core generation */
97#define CPU_ID_XSCALE_COREREV_MASK	0x00001c00 /* core revision */
98#define CPU_ID_XSCALE_PRODUCT_MASK	0x000003f0 /* product number */
99
100/* And finally, the revision number. */
101#define CPU_ID_REVISION_MASK	0x0000000f
102
103/* Individual CPUs are probably best IDed by everything but the revision. */
104#define CPU_ID_CPU_MASK		0xfffffff0
105
106/* Fake CPU IDs for ARMs without CP15 */
107#define CPU_ID_ARM2		0x41560200
108#define CPU_ID_ARM250		0x41560250
109
110/* Pre-ARM7 CPUs -- [15:12] == 0 */
111#define CPU_ID_ARM3		0x41560300
112#define CPU_ID_ARM600		0x41560600
113#define CPU_ID_ARM610		0x41560610
114#define CPU_ID_ARM620		0x41560620
115
116/* ARM7 CPUs -- [15:12] == 7 */
117#define CPU_ID_ARM700		0x41007000 /* XXX This is a guess. */
118#define CPU_ID_ARM710		0x41007100
119#define CPU_ID_ARM7500		0x41027100
120#define CPU_ID_ARM710A		0x41067100
121#define CPU_ID_ARM7500FE	0x41077100
122#define CPU_ID_ARM710T		0x41807100
123#define CPU_ID_ARM720T		0x41807200
124#define CPU_ID_ARM740T8K	0x41807400 /* XXX no MMU, 8KB cache */
125#define CPU_ID_ARM740T4K	0x41817400 /* XXX no MMU, 4KB cache */
126
127/* Post-ARM7 CPUs */
128#define CPU_ID_ARM810		0x41018100
129#define CPU_ID_ARM920T		0x41129200
130#define CPU_ID_ARM922T		0x41029220
131#define CPU_ID_ARM926EJS	0x41069260
132#define CPU_ID_ARM940T		0x41029400 /* XXX no MMU */
133#define CPU_ID_ARM946ES		0x41049460 /* XXX no MMU */
134#define CPU_ID_ARM966ES		0x41049660 /* XXX no MMU */
135#define CPU_ID_ARM966ESR1	0x41059660 /* XXX no MMU */
136#define CPU_ID_ARM1020E		0x4115a200 /* (AKA arm10 rev 1) */
137#define CPU_ID_ARM1022ES	0x4105a220
138#define CPU_ID_ARM1026EJS	0x4106a260
139#define CPU_ID_ARM11MPCORE	0x410fb020
140#define CPU_ID_ARM1136JS	0x4107b360
141#define CPU_ID_ARM1136JSR1	0x4117b360
142#define CPU_ID_ARM1156T2S	0x4107b560 /* MPU only */
143#define CPU_ID_ARM1176JZS	0x410fb760
144#define CPU_ID_ARM11_P(n)	((n & 0xff07f000) == 0x4107b000)
145
146/* ARMv7 CPUs */
147#define CPU_ID_CORTEXA5R0	0x410fc050
148#define CPU_ID_CORTEXA7R0	0x410fc070
149#define CPU_ID_CORTEXA8R1	0x411fc080
150#define CPU_ID_CORTEXA8R2	0x412fc080
151#define CPU_ID_CORTEXA8R3	0x413fc080
152#define CPU_ID_CORTEXA9R1	0x411fc090
153#define CPU_ID_CORTEXA9R2	0x412fc090
154#define CPU_ID_CORTEXA9R3	0x413fc090
155#define CPU_ID_CORTEXA9R4	0x414fc090
156#define CPU_ID_CORTEXA12R0	0x410fc0d0
157#define CPU_ID_CORTEXA15R2	0x412fc0f0
158#define CPU_ID_CORTEXA15R3	0x413fc0f0
159#define CPU_ID_CORTEXA15R4	0x414fc0f0
160#define CPU_ID_CORTEXA17R1	0x411fc0e0
161
162/* ARMv8 CPUS */
163#define CPU_ID_CORTEXA32R1	0x411fd010
164#define CPU_ID_CORTEXA35R0	0x410fd040
165#define CPU_ID_CORTEXA35R1	0x411fd040
166#define CPU_ID_CORTEXA53R0	0x410fd030
167#define CPU_ID_CORTEXA55R1	0x411fd050
168#define CPU_ID_CORTEXA57R0	0x410fd070
169#define CPU_ID_CORTEXA57R1	0x411fd070
170#define CPU_ID_CORTEXA65R0	0x410fd060
171#define CPU_ID_CORTEXA72R0	0x410fd080
172#define CPU_ID_CORTEXA73R0	0x410fd090
173#define CPU_ID_CORTEXA75R2	0x412fd0a0
174#define CPU_ID_CORTEXA76AER1	0x411fd0e0
175#define CPU_ID_CORTEXA76R3	0x413fd0b0
176#define CPU_ID_NEOVERSEN1R3	0x413fd0c0
177#define CPU_ID_NEOVERSEE1R1	0x411fd4a0
178#define CPU_ID_CORTEXA77R0	0x410fd0d0
179
180#define CPU_ID_CORTEX_P(n)	((n & 0xff0fe000) == 0x410fc000)
181#define CPU_ID_CORTEX_A5_P(n)	((n & 0xff0ff0f0) == 0x410fc050)
182#define CPU_ID_CORTEX_A7_P(n)	((n & 0xff0ff0f0) == 0x410fc070)
183#define CPU_ID_CORTEX_A8_P(n)	((n & 0xff0ff0f0) == 0x410fc080)
184#define CPU_ID_CORTEX_A9_P(n)	((n & 0xff0ff0f0) == 0x410fc090)
185#define CPU_ID_CORTEX_A12_P(n)	((n & 0xff0ff0f0) == 0x410fc0d0)
186#define CPU_ID_CORTEX_A15_P(n)	((n & 0xff0ff0f0) == 0x410fc0f0)
187#define CPU_ID_CORTEX_A17_P(n)	((n & 0xff0ff0f0) == 0x410fc0e0)
188#define CPU_ID_CORTEX_A32_P(n)	((n & 0xff0ff0f0) == 0x410fd010)
189#define CPU_ID_CORTEX_A35_P(n)	((n & 0xff0ff0f0) == 0x410fd040)
190#define CPU_ID_CORTEX_A53_P(n)	((n & 0xff0ff0f0) == 0x410fd030)
191#define CPU_ID_CORTEX_A55_P(n)	((n & 0xff0ff0f0) == 0x410fd050)
192#define CPU_ID_CORTEX_A57_P(n)	((n & 0xff0ff0f0) == 0x410fd070)
193#define CPU_ID_CORTEX_A65_P(n)	((n & 0xff0ff0f0) == 0x410fd060)
194#define CPU_ID_CORTEX_A72_P(n)	((n & 0xff0ff0f0) == 0x410fd080)
195#define CPU_ID_CORTEX_A73_P(n)	((n & 0xff0ff0f0) == 0x410fd090)
196#define CPU_ID_CORTEX_A75_P(n)	((n & 0xff0ff0f0) == 0x410fd0a0)
197#define CPU_ID_CORTEX_A76_P(n)	((n & 0xff0ff0f0) == 0x410fd0b0)
198#define CPU_ID_CORTEX_A76AE_P(n) ((n & 0xff0ff0f0) == 0x410fd0e0)
199#define CPU_ID_CORTEX_A77_P(n)	((n & 0xff0ff0f0) == 0x410fd0f0)
200
201#define CPU_ID_NEOVERSEN1_P(n)	((n & 0xff0ffff0) == 0x410fd0c0)
202
203#define CPU_ID_THUNDERXRX	0x43000a10
204#define CPU_ID_THUNDERXP1d0	0x43000a10
205#define CPU_ID_THUNDERXP1d1	0x43000a11
206#define CPU_ID_THUNDERXP2d1	0x431f0a11
207#define CPU_ID_THUNDERX81XXRX	0x43000a20
208#define CPU_ID_THUNDERX83XXRX	0x43000a30
209#define CPU_ID_THUNDERX2RX	0x43000af0
210
211/*
212 * Chip-specific errata. These defines are intended to be
213 * booleans used within if statements. When an appropriate
214 * kernel option is disabled, these defines must be defined
215 * as 0 to allow the compiler to remove a dead code thus
216 * produce better optimized kernel image.
217 */
218/*
219 * Vendor:	Cavium
220 * Chip:	ThunderX
221 * Revision(s):	Pass 1.0, Pass 1.1
222 */
223#define	CPU_ID_ERRATA_CAVIUM_THUNDERX_1_1_P(n)		\
224    (((n) & 0xfff0ffff) == CPU_ID_THUNDERXP1d0 ||	\
225     ((n) & 0xfff0ffff) == CPU_ID_THUNDERXP1d1)
226
227#define CPU_ID_APPLE_M1_ICESTORM	0x61000220
228#define CPU_ID_APPLE_M1_FIRESTORM	0x61000230
229
230#define CPU_ID_SA110		0x4401a100
231#define CPU_ID_SA1100		0x4401a110
232#define CPU_ID_NVIDIADENVER2	0x4e0f0030
233#define CPU_ID_EMAG8180		0x503f0002
234#define CPU_ID_TI925T		0x54029250
235#define CPU_ID_MV88FR571_VD	0x56155710
236#define CPU_ID_MV88SV131	0x56251310
237#define CPU_ID_FA526		0x66015260
238#define CPU_ID_SA1110		0x6901b110
239#define CPU_ID_IXP1200		0x6901c120
240#define CPU_ID_80200		0x69052000
241#define CPU_ID_PXA250		0x69052100 /* sans core revision */
242#define CPU_ID_PXA210		0x69052120
243#define CPU_ID_PXA250A		0x69052100 /* 1st version Core */
244#define CPU_ID_PXA210A		0x69052120 /* 1st version Core */
245#define CPU_ID_PXA250B		0x69052900 /* 3rd version Core */
246#define CPU_ID_PXA210B		0x69052920 /* 3rd version Core */
247#define CPU_ID_PXA250C		0x69052d00 /* 4th version Core */
248#define CPU_ID_PXA210C		0x69052d20 /* 4th version Core */
249#define CPU_ID_PXA27X		0x69054110
250#define CPU_ID_80321_400	0x69052420
251#define CPU_ID_80321_600	0x69052430
252#define CPU_ID_80321_400_B0	0x69052c20
253#define CPU_ID_80321_600_B0	0x69052c30
254#define CPU_ID_80219_400	0x69052e20
255#define CPU_ID_80219_600	0x69052e30
256#define CPU_ID_IXP425_533	0x690541c0
257#define CPU_ID_IXP425_400	0x690541d0
258#define CPU_ID_IXP425_266	0x690541f0
259#define CPU_ID_MV88SV58XX_P(n)	((n & 0xff0fff00) == 0x560f5800)
260#define CPU_ID_MV88SV581X_V6	0x560f5810 /* Marvell Sheeva 88SV581x v6 Core */
261#define CPU_ID_MV88SV581X_V7	0x561f5810 /* Marvell Sheeva 88SV581x v7 Core */
262#define CPU_ID_MV88SV584X_V6	0x561f5840 /* Marvell Sheeva 88SV584x v6 Core */
263#define CPU_ID_MV88SV584X_V7	0x562f5840 /* Marvell Sheeva 88SV584x v7 Core */
264/* Marvell's CPUIDs with ARM ID in implementor field */
265#define CPU_ID_ARM_88SV581X_V6	0x410fb760 /* Marvell Sheeva 88SV581x v6 Core */
266#define CPU_ID_ARM_88SV581X_V7	0x413fc080 /* Marvell Sheeva 88SV581x v7 Core */
267#define CPU_ID_ARM_88SV584X_V6	0x410fb020 /* Marvell Sheeva 88SV584x v6 Core */
268
269#endif /* _ARM_CPUTYPES_H_ */
270