Linux kernel mirror (for testing) git.kernel.org/pub/scm/linux/kernel/git/torvalds/linux.git
kernel os linux
1
fork

Configure Feed

Select the types of activity you want to include in your feed.

at for-next 478 lines 17 kB view raw
1/* SPDX-License-Identifier: GPL-2.0-or-later */ 2/* 3 * Copyright (C) 2013 Imagination Technologies 4 * Author: Paul Burton <paul.burton@mips.com> 5 */ 6 7#ifndef __MIPS_ASM_MIPS_CPS_H__ 8# error Please include asm/mips-cps.h rather than asm/mips-cm.h 9#endif 10 11#ifndef __MIPS_ASM_MIPS_CM_H__ 12#define __MIPS_ASM_MIPS_CM_H__ 13 14#include <linux/bitfield.h> 15#include <linux/bitops.h> 16#include <linux/errno.h> 17 18/* The base address of the CM GCR block */ 19extern void __iomem *mips_gcr_base; 20 21/* The base address of the CM L2-only sync region */ 22extern void __iomem *mips_cm_l2sync_base; 23 24/** 25 * mips_cm_phys_base - retrieve the physical base address of the CM 26 * 27 * This function returns the physical base address of the Coherence Manager 28 * global control block, or 0 if no Coherence Manager is present. It provides 29 * a default implementation which reads the CMGCRBase register where available, 30 * and may be overridden by platforms which determine this address in a 31 * different way by defining a function with the same prototype. 32 */ 33extern phys_addr_t mips_cm_phys_base(void); 34 35/** 36 * mips_cm_l2sync_phys_base - retrieve the physical base address of the CM 37 * L2-sync region 38 * 39 * This function returns the physical base address of the Coherence Manager 40 * L2-cache only region. It provides a default implementation which reads the 41 * CMGCRL2OnlySyncBase register where available or returns a 4K region just 42 * behind the CM GCR base address. It may be overridden by platforms which 43 * determine this address in a different way by defining a function with the 44 * same prototype. 45 */ 46extern phys_addr_t mips_cm_l2sync_phys_base(void); 47 48/* 49 * mips_cm_is64 - determine CM register width 50 * 51 * The CM register width is determined by the version of the CM, with CM3 52 * introducing 64 bit GCRs and all prior CM versions having 32 bit GCRs. 53 * However we may run a kernel built for MIPS32 on a system with 64 bit GCRs, 54 * or vice-versa. This variable indicates the width of the memory accesses 55 * that the kernel will perform to GCRs, which may differ from the actual 56 * width of the GCRs. 57 * 58 * It's set to 0 for 32-bit accesses and 1 for 64-bit accesses. 59 */ 60extern int mips_cm_is64; 61 62/** 63 * mips_cm_error_report - Report CM cache errors 64 */ 65#ifdef CONFIG_MIPS_CM 66extern void mips_cm_error_report(void); 67#else 68static inline void mips_cm_error_report(void) {} 69#endif 70 71/** 72 * mips_cm_probe - probe for a Coherence Manager 73 * 74 * Attempt to detect the presence of a Coherence Manager. Returns 0 if a CM 75 * is successfully detected, else -errno. 76 */ 77#ifdef CONFIG_MIPS_CM 78extern int mips_cm_probe(void); 79#else 80static inline int mips_cm_probe(void) 81{ 82 return -ENODEV; 83} 84#endif 85 86/** 87 * mips_cm_present - determine whether a Coherence Manager is present 88 * 89 * Returns true if a CM is present in the system, else false. 90 */ 91static inline bool mips_cm_present(void) 92{ 93#ifdef CONFIG_MIPS_CM 94 return mips_gcr_base != NULL; 95#else 96 return false; 97#endif 98} 99 100/** 101 * mips_cm_has_l2sync - determine whether an L2-only sync region is present 102 * 103 * Returns true if the system implements an L2-only sync region, else false. 104 */ 105static inline bool mips_cm_has_l2sync(void) 106{ 107#ifdef CONFIG_MIPS_CM 108 return mips_cm_l2sync_base != NULL; 109#else 110 return false; 111#endif 112} 113 114/* Offsets to register blocks from the CM base address */ 115#define MIPS_CM_GCB_OFS 0x0000 /* Global Control Block */ 116#define MIPS_CM_CLCB_OFS 0x2000 /* Core Local Control Block */ 117#define MIPS_CM_COCB_OFS 0x4000 /* Core Other Control Block */ 118#define MIPS_CM_GDB_OFS 0x6000 /* Global Debug Block */ 119 120/* Total size of the CM memory mapped registers */ 121#define MIPS_CM_GCR_SIZE 0x8000 122 123/* Size of the L2-only sync region */ 124#define MIPS_CM_L2SYNC_SIZE 0x1000 125 126#define GCR_ACCESSOR_RO(sz, off, name) \ 127 CPS_ACCESSOR_RO(gcr, sz, MIPS_CM_GCB_OFS + off, name) \ 128 CPS_ACCESSOR_RO(gcr, sz, MIPS_CM_COCB_OFS + off, redir_##name) 129 130#define GCR_ACCESSOR_RW(sz, off, name) \ 131 CPS_ACCESSOR_RW(gcr, sz, MIPS_CM_GCB_OFS + off, name) \ 132 CPS_ACCESSOR_RW(gcr, sz, MIPS_CM_COCB_OFS + off, redir_##name) 133 134#define GCR_CX_ACCESSOR_RO(sz, off, name) \ 135 CPS_ACCESSOR_RO(gcr, sz, MIPS_CM_CLCB_OFS + off, cl_##name) \ 136 CPS_ACCESSOR_RO(gcr, sz, MIPS_CM_COCB_OFS + off, co_##name) 137 138#define GCR_CX_ACCESSOR_RW(sz, off, name) \ 139 CPS_ACCESSOR_RW(gcr, sz, MIPS_CM_CLCB_OFS + off, cl_##name) \ 140 CPS_ACCESSOR_RW(gcr, sz, MIPS_CM_COCB_OFS + off, co_##name) 141 142/* GCR_CONFIG - Information about the system */ 143GCR_ACCESSOR_RO(64, 0x000, config) 144#define CM_GCR_CONFIG_CLUSTER_COH_CAPABLE BIT_ULL(43) 145#define CM_GCR_CONFIG_CLUSTER_ID GENMASK_ULL(39, 32) 146#define CM_GCR_CONFIG_NUM_CLUSTERS GENMASK(29, 23) 147#define CM_GCR_CONFIG_NUMIOCU GENMASK(15, 8) 148#define CM_GCR_CONFIG_PCORES GENMASK(7, 0) 149 150/* GCR_BASE - Base address of the Global Configuration Registers (GCRs) */ 151GCR_ACCESSOR_RW(64, 0x008, base) 152#define CM_GCR_BASE_GCRBASE GENMASK_ULL(47, 15) 153#define CM_GCR_BASE_CMDEFTGT GENMASK(1, 0) 154#define CM_GCR_BASE_CMDEFTGT_MEM 0 155#define CM_GCR_BASE_CMDEFTGT_RESERVED 1 156#define CM_GCR_BASE_CMDEFTGT_IOCU0 2 157#define CM_GCR_BASE_CMDEFTGT_IOCU1 3 158 159/* GCR_ACCESS - Controls core/IOCU access to GCRs */ 160GCR_ACCESSOR_RW(32, 0x020, access) 161#define CM_GCR_ACCESS_ACCESSEN GENMASK(7, 0) 162 163/* GCR_REV - Indicates the Coherence Manager revision */ 164GCR_ACCESSOR_RO(32, 0x030, rev) 165#define CM_GCR_REV_MAJOR GENMASK(15, 8) 166#define CM_GCR_REV_MINOR GENMASK(7, 0) 167 168#define CM_ENCODE_REV(major, minor) \ 169 (FIELD_PREP(CM_GCR_REV_MAJOR, major) | \ 170 FIELD_PREP(CM_GCR_REV_MINOR, minor)) 171 172#define CM_REV_CM2 CM_ENCODE_REV(6, 0) 173#define CM_REV_CM2_5 CM_ENCODE_REV(7, 0) 174#define CM_REV_CM3 CM_ENCODE_REV(8, 0) 175#define CM_REV_CM3_5 CM_ENCODE_REV(9, 0) 176 177/* GCR_ERR_CONTROL - Control error checking logic */ 178GCR_ACCESSOR_RW(32, 0x038, err_control) 179#define CM_GCR_ERR_CONTROL_L2_ECC_EN BIT(1) 180#define CM_GCR_ERR_CONTROL_L2_ECC_SUPPORT BIT(0) 181 182/* GCR_ERR_MASK - Control which errors are reported as interrupts */ 183GCR_ACCESSOR_RW(64, 0x040, error_mask) 184 185/* GCR_ERR_CAUSE - Indicates the type of error that occurred */ 186GCR_ACCESSOR_RW(64, 0x048, error_cause) 187#define CM_GCR_ERROR_CAUSE_ERRTYPE GENMASK(31, 27) 188#define CM3_GCR_ERROR_CAUSE_ERRTYPE GENMASK_ULL(63, 58) 189#define CM_GCR_ERROR_CAUSE_ERRINFO GENMASK(26, 0) 190 191/* GCR_ERR_ADDR - Indicates the address associated with an error */ 192GCR_ACCESSOR_RW(64, 0x050, error_addr) 193 194/* GCR_ERR_MULT - Indicates when multiple errors have occurred */ 195GCR_ACCESSOR_RW(64, 0x058, error_mult) 196#define CM_GCR_ERROR_MULT_ERR2ND GENMASK(4, 0) 197 198/* GCR_L2_ONLY_SYNC_BASE - Base address of the L2 cache-only sync region */ 199GCR_ACCESSOR_RW(64, 0x070, l2_only_sync_base) 200#define CM_GCR_L2_ONLY_SYNC_BASE_SYNCBASE GENMASK(31, 12) 201#define CM_GCR_L2_ONLY_SYNC_BASE_SYNCEN BIT(0) 202 203/* GCR_GIC_BASE - Base address of the Global Interrupt Controller (GIC) */ 204GCR_ACCESSOR_RW(64, 0x080, gic_base) 205#define CM_GCR_GIC_BASE_GICBASE GENMASK(31, 17) 206#define CM_GCR_GIC_BASE_GICEN BIT(0) 207 208/* GCR_CPC_BASE - Base address of the Cluster Power Controller (CPC) */ 209GCR_ACCESSOR_RW(64, 0x088, cpc_base) 210#define CM_GCR_CPC_BASE_CPCBASE GENMASK(31, 15) 211#define CM_GCR_CPC_BASE_CPCEN BIT(0) 212 213/* GCR_REGn_BASE - Base addresses of CM address regions */ 214GCR_ACCESSOR_RW(64, 0x090, reg0_base) 215GCR_ACCESSOR_RW(64, 0x0a0, reg1_base) 216GCR_ACCESSOR_RW(64, 0x0b0, reg2_base) 217GCR_ACCESSOR_RW(64, 0x0c0, reg3_base) 218#define CM_GCR_REGn_BASE_BASEADDR GENMASK(31, 16) 219 220/* GCR_REGn_MASK - Size & destination of CM address regions */ 221GCR_ACCESSOR_RW(64, 0x098, reg0_mask) 222GCR_ACCESSOR_RW(64, 0x0a8, reg1_mask) 223GCR_ACCESSOR_RW(64, 0x0b8, reg2_mask) 224GCR_ACCESSOR_RW(64, 0x0c8, reg3_mask) 225#define CM_GCR_REGn_MASK_ADDRMASK GENMASK(31, 16) 226#define CM_GCR_REGn_MASK_CCAOVR GENMASK(7, 5) 227#define CM_GCR_REGn_MASK_CCAOVREN BIT(4) 228#define CM_GCR_REGn_MASK_DROPL2 BIT(2) 229#define CM_GCR_REGn_MASK_CMTGT GENMASK(1, 0) 230#define CM_GCR_REGn_MASK_CMTGT_DISABLED 0x0 231#define CM_GCR_REGn_MASK_CMTGT_MEM 0x1 232#define CM_GCR_REGn_MASK_CMTGT_IOCU0 0x2 233#define CM_GCR_REGn_MASK_CMTGT_IOCU1 0x3 234 235/* GCR_GIC_STATUS - Indicates presence of a Global Interrupt Controller (GIC) */ 236GCR_ACCESSOR_RO(32, 0x0d0, gic_status) 237#define CM_GCR_GIC_STATUS_EX BIT(0) 238 239/* GCR_CPC_STATUS - Indicates presence of a Cluster Power Controller (CPC) */ 240GCR_ACCESSOR_RO(32, 0x0f0, cpc_status) 241#define CM_GCR_CPC_STATUS_EX BIT(0) 242 243/* GCR_ACCESS - Controls core/IOCU access to GCRs */ 244GCR_ACCESSOR_RW(32, 0x120, access_cm3) 245#define CM_GCR_ACCESS_ACCESSEN GENMASK(7, 0) 246 247/* GCR_L2_CONFIG - Indicates L2 cache configuration when Config5.L2C=1 */ 248GCR_ACCESSOR_RW(32, 0x130, l2_config) 249#define CM_GCR_L2_CONFIG_BYPASS BIT(20) 250#define CM_GCR_L2_CONFIG_SET_SIZE GENMASK(15, 12) 251#define CM_GCR_L2_CONFIG_LINE_SIZE GENMASK(11, 8) 252#define CM_GCR_L2_CONFIG_ASSOC GENMASK(7, 0) 253 254/* GCR_SYS_CONFIG2 - Further information about the system */ 255GCR_ACCESSOR_RO(32, 0x150, sys_config2) 256#define CM_GCR_SYS_CONFIG2_MAXVPW GENMASK(3, 0) 257 258/* GCR_L2_PFT_CONTROL - Controls hardware L2 prefetching */ 259GCR_ACCESSOR_RW(32, 0x300, l2_pft_control) 260#define CM_GCR_L2_PFT_CONTROL_PAGEMASK GENMASK(31, 12) 261#define CM_GCR_L2_PFT_CONTROL_PFTEN BIT(8) 262#define CM_GCR_L2_PFT_CONTROL_NPFT GENMASK(7, 0) 263 264/* GCR_L2_PFT_CONTROL_B - Controls hardware L2 prefetching */ 265GCR_ACCESSOR_RW(32, 0x308, l2_pft_control_b) 266#define CM_GCR_L2_PFT_CONTROL_B_CEN BIT(8) 267#define CM_GCR_L2_PFT_CONTROL_B_PORTID GENMASK(7, 0) 268 269/* GCR_L2SM_COP - L2 cache op state machine control */ 270GCR_ACCESSOR_RW(32, 0x620, l2sm_cop) 271#define CM_GCR_L2SM_COP_PRESENT BIT(31) 272#define CM_GCR_L2SM_COP_RESULT GENMASK(8, 6) 273#define CM_GCR_L2SM_COP_RESULT_DONTCARE 0 274#define CM_GCR_L2SM_COP_RESULT_DONE_OK 1 275#define CM_GCR_L2SM_COP_RESULT_DONE_ERROR 2 276#define CM_GCR_L2SM_COP_RESULT_ABORT_OK 3 277#define CM_GCR_L2SM_COP_RESULT_ABORT_ERROR 4 278#define CM_GCR_L2SM_COP_RUNNING BIT(5) 279#define CM_GCR_L2SM_COP_TYPE GENMASK(4, 2) 280#define CM_GCR_L2SM_COP_TYPE_IDX_WBINV 0 281#define CM_GCR_L2SM_COP_TYPE_IDX_STORETAG 1 282#define CM_GCR_L2SM_COP_TYPE_IDX_STORETAGDATA 2 283#define CM_GCR_L2SM_COP_TYPE_HIT_INV 4 284#define CM_GCR_L2SM_COP_TYPE_HIT_WBINV 5 285#define CM_GCR_L2SM_COP_TYPE_HIT_WB 6 286#define CM_GCR_L2SM_COP_TYPE_FETCHLOCK 7 287#define CM_GCR_L2SM_COP_CMD GENMASK(1, 0) 288#define CM_GCR_L2SM_COP_CMD_START 1 /* only when idle */ 289#define CM_GCR_L2SM_COP_CMD_ABORT 3 /* only when running */ 290 291/* GCR_L2SM_TAG_ADDR_COP - L2 cache op state machine address control */ 292GCR_ACCESSOR_RW(64, 0x628, l2sm_tag_addr_cop) 293#define CM_GCR_L2SM_TAG_ADDR_COP_NUM_LINES GENMASK_ULL(63, 48) 294#define CM_GCR_L2SM_TAG_ADDR_COP_START_TAG GENMASK_ULL(47, 6) 295 296/* GCR_BEV_BASE - Controls the location of the BEV for powered up cores */ 297GCR_ACCESSOR_RW(64, 0x680, bev_base) 298 299/* GCR_Cx_RESET_RELEASE - Controls core reset for CM 1.x */ 300GCR_CX_ACCESSOR_RW(32, 0x000, reset_release) 301 302/* GCR_Cx_COHERENCE - Controls core coherence */ 303GCR_CX_ACCESSOR_RW(32, 0x008, coherence) 304#define CM_GCR_Cx_COHERENCE_COHDOMAINEN GENMASK(7, 0) 305#define CM3_GCR_Cx_COHERENCE_COHEN BIT(0) 306 307/* GCR_Cx_CONFIG - Information about a core's configuration */ 308GCR_CX_ACCESSOR_RO(32, 0x010, config) 309#define CM_GCR_Cx_CONFIG_IOCUTYPE GENMASK(11, 10) 310#define CM_GCR_Cx_CONFIG_PVPE GENMASK(9, 0) 311 312/* GCR_Cx_OTHER - Configure the core-other/redirect GCR block */ 313GCR_CX_ACCESSOR_RW(32, 0x018, other) 314#define CM_GCR_Cx_OTHER_CORENUM GENMASK(31, 16) /* CM < 3 */ 315#define CM_GCR_Cx_OTHER_CLUSTER_EN BIT(31) /* CM >= 3.5 */ 316#define CM_GCR_Cx_OTHER_GIC_EN BIT(30) /* CM >= 3.5 */ 317#define CM_GCR_Cx_OTHER_BLOCK GENMASK(25, 24) /* CM >= 3.5 */ 318#define CM_GCR_Cx_OTHER_BLOCK_LOCAL 0 319#define CM_GCR_Cx_OTHER_BLOCK_GLOBAL 1 320#define CM_GCR_Cx_OTHER_BLOCK_USER 2 321#define CM_GCR_Cx_OTHER_BLOCK_GLOBAL_HIGH 3 322#define CM_GCR_Cx_OTHER_CLUSTER GENMASK(21, 16) /* CM >= 3.5 */ 323#define CM3_GCR_Cx_OTHER_CORE GENMASK(13, 8) /* CM >= 3 */ 324#define CM_GCR_Cx_OTHER_CORE_CM 32 325#define CM3_GCR_Cx_OTHER_VP GENMASK(2, 0) /* CM >= 3 */ 326 327/* GCR_Cx_RESET_BASE - Configure where powered up cores will fetch from */ 328GCR_CX_ACCESSOR_RW(32, 0x020, reset_base) 329GCR_CX_ACCESSOR_RW(64, 0x020, reset64_base) 330#define CM_GCR_Cx_RESET_BASE_BEVEXCBASE GENMASK(31, 12) 331#define CM_GCR_Cx_RESET64_BASE_BEVEXCBASE GENMASK_ULL(47, 12) 332#define CM_GCR_Cx_RESET_BASE_MODE BIT(1) 333 334/* GCR_Cx_ID - Identify the current core */ 335GCR_CX_ACCESSOR_RO(32, 0x028, id) 336#define CM_GCR_Cx_ID_CLUSTER GENMASK(15, 8) 337#define CM_GCR_Cx_ID_CORE GENMASK(7, 0) 338 339/* GCR_Cx_RESET_EXT_BASE - Configure behaviour when cores reset or power up */ 340GCR_CX_ACCESSOR_RW(32, 0x030, reset_ext_base) 341#define CM_GCR_Cx_RESET_EXT_BASE_EVARESET BIT(31) 342#define CM_GCR_Cx_RESET_EXT_BASE_UEB BIT(30) 343#define CM_GCR_Cx_RESET_EXT_BASE_BEVEXCMASK GENMASK(27, 20) 344#define CM_GCR_Cx_RESET_EXT_BASE_BEVEXCPA GENMASK(7, 1) 345#define CM_GCR_Cx_RESET_EXT_BASE_PRESENT BIT(0) 346 347/** 348 * mips_cm_l2sync - perform an L2-only sync operation 349 * 350 * If an L2-only sync region is present in the system then this function 351 * performs and L2-only sync and returns zero. Otherwise it returns -ENODEV. 352 */ 353static inline int mips_cm_l2sync(void) 354{ 355 if (!mips_cm_has_l2sync()) 356 return -ENODEV; 357 358 writel(0, mips_cm_l2sync_base); 359 return 0; 360} 361 362/** 363 * mips_cm_revision() - return CM revision 364 * 365 * Return: The revision of the CM, from GCR_REV, or 0 if no CM is present. The 366 * return value should be checked against the CM_REV_* macros. 367 */ 368static inline int mips_cm_revision(void) 369{ 370 if (!mips_cm_present()) 371 return 0; 372 373 return read_gcr_rev(); 374} 375 376/** 377 * mips_cm_max_vp_width() - return the width in bits of VP indices 378 * 379 * Return: the width, in bits, of VP indices in fields that combine core & VP 380 * indices. 381 */ 382static inline unsigned int mips_cm_max_vp_width(void) 383{ 384 extern int smp_num_siblings; 385 386 if (mips_cm_revision() >= CM_REV_CM3) 387 return FIELD_GET(CM_GCR_SYS_CONFIG2_MAXVPW, 388 read_gcr_sys_config2()); 389 390 if (mips_cm_present()) { 391 /* 392 * We presume that all cores in the system will have the same 393 * number of VP(E)s, and if that ever changes then this will 394 * need revisiting. 395 */ 396 return FIELD_GET(CM_GCR_Cx_CONFIG_PVPE, read_gcr_cl_config()) + 1; 397 } 398 399 if (IS_ENABLED(CONFIG_SMP)) 400 return smp_num_siblings; 401 402 return 1; 403} 404 405/** 406 * mips_cm_vp_id() - calculate the hardware VP ID for a CPU 407 * @cpu: the CPU whose VP ID to calculate 408 * 409 * Hardware such as the GIC uses identifiers for VPs which may not match the 410 * CPU numbers used by Linux. This function calculates the hardware VP 411 * identifier corresponding to a given CPU. 412 * 413 * Return: the VP ID for the CPU. 414 */ 415static inline unsigned int mips_cm_vp_id(unsigned int cpu) 416{ 417 unsigned int core = cpu_core(&cpu_data[cpu]); 418 unsigned int vp = cpu_vpe_id(&cpu_data[cpu]); 419 420 return (core * mips_cm_max_vp_width()) + vp; 421} 422 423#ifdef CONFIG_MIPS_CM 424 425/** 426 * mips_cm_lock_other - lock access to redirect/other region 427 * @cluster: the other cluster to be accessed 428 * @core: the other core to be accessed 429 * @vp: the VP within the other core to be accessed 430 * @block: the register block to be accessed 431 * 432 * Configure the redirect/other region for the local core/VP (depending upon 433 * the CM revision) to target the specified @cluster, @core, @vp & register 434 * @block. Must be called before using the redirect/other region, and followed 435 * by a call to mips_cm_unlock_other() when access to the redirect/other region 436 * is complete. 437 * 438 * This function acquires a spinlock such that code between it & 439 * mips_cm_unlock_other() calls cannot be pre-empted by anything which may 440 * reconfigure the redirect/other region, and cannot be interfered with by 441 * another VP in the core. As such calls to this function should not be nested. 442 */ 443extern void mips_cm_lock_other(unsigned int cluster, unsigned int core, 444 unsigned int vp, unsigned int block); 445 446/** 447 * mips_cm_unlock_other - unlock access to redirect/other region 448 * 449 * Must be called after mips_cm_lock_other() once all required access to the 450 * redirect/other region has been completed. 451 */ 452extern void mips_cm_unlock_other(void); 453 454#else /* !CONFIG_MIPS_CM */ 455 456static inline void mips_cm_lock_other(unsigned int cluster, unsigned int core, 457 unsigned int vp, unsigned int block) { } 458static inline void mips_cm_unlock_other(void) { } 459 460#endif /* !CONFIG_MIPS_CM */ 461 462/** 463 * mips_cm_lock_other_cpu - lock access to redirect/other region 464 * @cpu: the other CPU whose register we want to access 465 * 466 * Configure the redirect/other region for the local core/VP (depending upon 467 * the CM revision) to target the specified @cpu & register @block. This is 468 * equivalent to calling mips_cm_lock_other() but accepts a Linux CPU number 469 * for convenience. 470 */ 471static inline void mips_cm_lock_other_cpu(unsigned int cpu, unsigned int block) 472{ 473 struct cpuinfo_mips *d = &cpu_data[cpu]; 474 475 mips_cm_lock_other(cpu_cluster(d), cpu_core(d), cpu_vpe_id(d), block); 476} 477 478#endif /* __MIPS_ASM_MIPS_CM_H__ */