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git01.mediatek.com / filogic / atf / 4199eaab402ee1a0a9683a131c89a6d88b56ecac / . / fdts / fvp-defs-dynamiq.dtsi
blob: 3659cd3d509f7260543bff44c109ece6275f8906 [file] [log] [blame]
Alexei Fedorov4348f492020-05-13 21:13:57 +0100[diff] [blame]1/*
2 * Copyright (c) 2020, Arm Limited and Contributors. All rights reserved.
3 *
4 * SPDX-License-Identifier: BSD-3-Clause
5 */
6
7#ifndef FVP_DEFS_DYNAMIQ_DTSI
8#define FVP_DEFS_DYNAMIQ_DTSI
9
10/* Set default topology values if not passed from platform's makefile */
11#ifdef FVP_CLUSTER_COUNT
12#define CLUSTER_COUNT FVP_CLUSTER_COUNT
13#else
14#define CLUSTER_COUNT 1
15#endif
16
17#ifdef FVP_MAX_CPUS_PER_CLUSTER
18#define CPUS_PER_CLUSTER FVP_MAX_CPUS_PER_CLUSTER
19#else
20#define CPUS_PER_CLUSTER 8
21#endif
22
23#define CONCAT(x, y) x##y
24#define CONC(x, y) CONCAT(x, y)
25
26/*
27 * n - CPU number
28 * r - MPID
29 */
30#define CPU(n, r) \
31 CPU##n:cpu@r## { \
32 device_type = "cpu"; \
33 compatible = "arm,armv8"; \
34 reg = <0x0 0x##r>; \
35 enable-method = "psci"; \
36 cpu-idle-states = <&CPU_SLEEP_0 &CLUSTER_SLEEP_0>; \
37 next-level-cache = <&L2_0>; \
38 };
39
40#if (PE_PER_CPU == 2)
41#define THREAD(n) \
42 thread##n { \
43 cpu = <&CONC(CPU, __COUNTER__)>; \
44 };
45
46#define CORE(n) \
47 core##n { \
48 THREAD(0) \
49 THREAD(1) \
50 };
51
52#else /* PE_PER_CPU == 1 */
53#define CORE(n) \
54 core##n { \
55 cpu = <&CPU##n>;\
56 };
57#endif /* PE_PER_CORE */
58
59#if (CPUS_PER_CLUSTER == 1)
60#if (PE_PER_CPU == 1)
61#define CPUS \
62 CPU(0, 0)
63#else
64#define CPUS \
65 CPU(0, 0) \
66 CPU(1, 1)
67#endif
68#define CLUSTER(n) \
69 cluster##n { \
70 CORE(0) \
71 };
72
73#elif (CPUS_PER_CLUSTER == 2)
74#if (PE_PER_CPU == 1)
75#define CPUS \
76 CPU(0, 0) \
77 CPU(1, 100)
78#else
79#define CPUS \
80 CPU(0, 0) \
81 CPU(1, 1) \
82 CPU(2, 100) \
83 CPU(3, 101)
84#endif
85#define CLUSTER(n) \
86 cluster##n { \
87 CORE(0) \
88 CORE(1) \
89 };
90
91#elif (CPUS_PER_CLUSTER == 3)
92#if (PE_PER_CPU == 1)
93#define CPUS \
94 CPU(0, 0) \
95 CPU(1, 100) \
96 CPU(2, 200)
97#else
98#define CPUS \
99 CPU(0, 0) \
100 CPU(1, 1) \
101 CPU(2, 100) \
102 CPU(3, 101) \
103 CPU(4, 200) \
104 CPU(5, 201)
105#endif
106#define CLUSTER(n) \
107 cluster##n { \
108 CORE(0) \
109 CORE(1) \
110 CORE(2) \
111 };
112
113#elif (CPUS_PER_CLUSTER == 4)
114#if (PE_PER_CPU == 1)
115#define CPUS \
116 CPU(0, 0) \
117 CPU(1, 100) \
118 CPU(2, 200) \
119 CPU(3, 300)
120#else
121#define CPUS \
122 CPU(0, 0) \
123 CPU(1, 1) \
124 CPU(2, 100) \
125 CPU(3, 101) \
126 CPU(4, 200) \
127 CPU(5, 201) \
128 CPU(6, 300) \
129 CPU(7, 301)
130#endif
131#define CLUSTER(n) \
132 cluster##n { \
133 CORE(0) \
134 CORE(1) \
135 CORE(2) \
136 CORE(3) \
137 };
138
139#elif (CPUS_PER_CLUSTER == 5)
140#if (PE_PER_CPU == 1)
141#define CPUS \
142 CPU(0, 0) \
143 CPU(1, 100) \
144 CPU(2, 200) \
145 CPU(3, 300) \
146 CPU(4, 400)
147#else
148#define CPUS \
149 CPU(0, 0) \
150 CPU(1, 1) \
151 CPU(2, 100) \
152 CPU(3, 101) \
153 CPU(4, 200) \
154 CPU(5, 201) \
155 CPU(6, 300) \
156 CPU(7, 301) \
157 CPU(8, 400) \
158 CPU(9, 401)
159#endif
160#define CLUSTER(n) \
161 cluster##n { \
162 CORE(0) \
163 CORE(1) \
164 CORE(2) \
165 CORE(3) \
166 CORE(4) \
167 };
168
169#elif (CPUS_PER_CLUSTER == 6)
170#if (PE_PER_CPU == 1)
171#define CPUS \
172 CPU(0, 0) \
173 CPU(1, 100) \
174 CPU(2, 200) \
175 CPU(3, 300) \
176 CPU(4, 400) \
177 CPU(5, 500)
178#else
179#define CPUS \
180 CPU(0, 0) \
181 CPU(1, 1) \
182 CPU(2, 100) \
183 CPU(3, 101) \
184 CPU(4, 200) \
185 CPU(5, 201) \
186 CPU(6, 300) \
187 CPU(7, 301) \
188 CPU(8, 400) \
189 CPU(9, 401) \
190 CPU(10, 500) \
191 CPU(11, 501)
192#endif
193#define CLUSTER(n) \
194 cluster##n { \
195 CORE(0) \
196 CORE(1) \
197 CORE(2) \
198 CORE(3) \
199 CORE(4) \
200 CORE(5) \
201 };
202
203#elif (CPUS_PER_CLUSTER == 7)
204#if (PE_PER_CPU == 1)
205#define CPUS \
206 CPU(0, 0) \
207 CPU(1, 100) \
208 CPU(2, 200) \
209 CPU(3, 300) \
210 CPU(4, 400) \
211 CPU(5, 500) \
212 CPU(6, 600)
213#else
214#define CPUS \
215 CPU(0, 0) \
216 CPU(1, 1) \
217 CPU(2, 100) \
218 CPU(3, 101) \
219 CPU(4, 200) \
220 CPU(5, 201) \
221 CPU(6, 300) \
222 CPU(7, 301) \
223 CPU(8, 400) \
224 CPU(9, 401) \
225 CPU(10, 500) \
226 CPU(11, 501) \
227 CPU(12, 600) \
228 CPU(13, 601)
229#endif
230#define CLUSTER(n) \
231 cluster##n { \
232 CORE(0) \
233 CORE(1) \
234 CORE(2) \
235 CORE(3) \
236 CORE(4) \
237 CORE(5) \
238 CORE(6) \
239 };
240
241#else
242#if (PE_PER_CPU == 1)
243#define CPUS \
244 CPU(0, 0) \
245 CPU(1, 100) \
246 CPU(2, 200) \
247 CPU(3, 300) \
248 CPU(4, 400) \
249 CPU(5, 500) \
250 CPU(6, 600) \
251 CPU(7, 700)
252#else
253#define CPUS \
254 CPU(0, 0) \
255 CPU(1, 1) \
256 CPU(2, 100) \
257 CPU(3, 101) \
258 CPU(4, 200) \
259 CPU(5, 201) \
260 CPU(6, 300) \
261 CPU(7, 301) \
262 CPU(8, 400) \
263 CPU(9, 401) \
264 CPU(10, 500) \
265 CPU(11, 501) \
266 CPU(12, 600) \
267 CPU(13, 601) \
268 CPU(14, 700) \
269 CPU(15, 701)
270#endif
271#define CLUSTER(n) \
272 cluster##n { \
273 CORE(0) \
274 CORE(1) \
275 CORE(2) \
276 CORE(3) \
277 CORE(4) \
278 CORE(5) \
279 CORE(6) \
280 CORE(7) \
281 };
282#endif /* CPUS_PER_CLUSTER */
283
284#define CPU_MAP \
285 cpu-map { \
286 CLUSTER(0) \
287 };
288
289#endif /* FVP_DEFS_DYNAMIQ_DTSI */