| Author | Tokens | Token Proportion | Commits | Commit Proportion |
|---|---|---|---|---|
| Dave P Martin | 229 | 40.18% | 5 | 25.00% |
| David Howells | 174 | 30.53% | 1 | 5.00% |
| Mark Brown | 77 | 13.51% | 2 | 10.00% |
| Kristina Martšenko | 26 | 4.56% | 1 | 5.00% |
| Mark Rutland | 16 | 2.81% | 2 | 10.00% |
| Will Deacon | 10 | 1.75% | 2 | 10.00% |
| Sudeep Holla | 9 | 1.58% | 1 | 5.00% |
| Catalin Marinas | 9 | 1.58% | 1 | 5.00% |
| James Morse | 8 | 1.40% | 2 | 10.00% |
| Anisse Astier | 7 | 1.23% | 1 | 5.00% |
| Vincenzo Frascino | 4 | 0.70% | 1 | 5.00% |
| Greg Kroah-Hartman | 1 | 0.18% | 1 | 5.00% |
| Total | 570 | 20 |
/* SPDX-License-Identifier: GPL-2.0 WITH Linux-syscall-note */ /* * Based on arch/arm/include/asm/ptrace.h * * Copyright (C) 1996-2003 Russell King * Copyright (C) 2012 ARM Ltd. * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License version 2 as * published by the Free Software Foundation. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program. If not, see <http://www.gnu.org/licenses/>. */ #ifndef _UAPI__ASM_PTRACE_H #define _UAPI__ASM_PTRACE_H #include <linux/types.h> #include <asm/hwcap.h> #include <asm/sve_context.h> /* * PSR bits */ #define PSR_MODE_EL0t 0x00000000 #define PSR_MODE_EL1t 0x00000004 #define PSR_MODE_EL1h 0x00000005 #define PSR_MODE_EL2t 0x00000008 #define PSR_MODE_EL2h 0x00000009 #define PSR_MODE_EL3t 0x0000000c #define PSR_MODE_EL3h 0x0000000d #define PSR_MODE_MASK 0x0000000f /* AArch32 CPSR bits */ #define PSR_MODE32_BIT 0x00000010 /* AArch64 SPSR bits */ #define PSR_F_BIT 0x00000040 #define PSR_I_BIT 0x00000080 #define PSR_A_BIT 0x00000100 #define PSR_D_BIT 0x00000200 #define PSR_BTYPE_MASK 0x00000c00 #define PSR_SSBS_BIT 0x00001000 #define PSR_PAN_BIT 0x00400000 #define PSR_UAO_BIT 0x00800000 #define PSR_DIT_BIT 0x01000000 #define PSR_TCO_BIT 0x02000000 #define PSR_V_BIT 0x10000000 #define PSR_C_BIT 0x20000000 #define PSR_Z_BIT 0x40000000 #define PSR_N_BIT 0x80000000 #define PSR_BTYPE_SHIFT 10 /* * Groups of PSR bits */ #define PSR_f 0xff000000 /* Flags */ #define PSR_s 0x00ff0000 /* Status */ #define PSR_x 0x0000ff00 /* Extension */ #define PSR_c 0x000000ff /* Control */ /* Convenience names for the values of PSTATE.BTYPE */ #define PSR_BTYPE_NONE (0b00 << PSR_BTYPE_SHIFT) #define PSR_BTYPE_JC (0b01 << PSR_BTYPE_SHIFT) #define PSR_BTYPE_C (0b10 << PSR_BTYPE_SHIFT) #define PSR_BTYPE_J (0b11 << PSR_BTYPE_SHIFT) /* syscall emulation path in ptrace */ #define PTRACE_SYSEMU 31 #define PTRACE_SYSEMU_SINGLESTEP 32 /* MTE allocation tag access */ #define PTRACE_PEEKMTETAGS 33 #define PTRACE_POKEMTETAGS 34 #ifndef __ASSEMBLY__ /* * User structures for general purpose, floating point and debug registers. */ struct user_pt_regs { __u64 regs[31]; __u64 sp; __u64 pc; __u64 pstate; }; struct user_fpsimd_state { __uint128_t vregs[32]; __u32 fpsr; __u32 fpcr; __u32 __reserved[2]; }; struct user_hwdebug_state { __u32 dbg_info; __u32 pad; struct { __u64 addr; __u32 ctrl; __u32 pad; } dbg_regs[16]; }; /* SVE/FP/SIMD state (NT_ARM_SVE & NT_ARM_SSVE) */ struct user_sve_header { __u32 size; /* total meaningful regset content in bytes */ __u32 max_size; /* maxmium possible size for this thread */ __u16 vl; /* current vector length */ __u16 max_vl; /* maximum possible vector length */ __u16 flags; __u16 __reserved; }; /* Definitions for user_sve_header.flags: */ #define SVE_PT_REGS_MASK (1 << 0) #define SVE_PT_REGS_FPSIMD 0 #define SVE_PT_REGS_SVE SVE_PT_REGS_MASK /* * Common SVE_PT_* flags: * These must be kept in sync with prctl interface in <linux/prctl.h> */ #define SVE_PT_VL_INHERIT ((1 << 17) /* PR_SVE_VL_INHERIT */ >> 16) #define SVE_PT_VL_ONEXEC ((1 << 18) /* PR_SVE_SET_VL_ONEXEC */ >> 16) /* * The remainder of the SVE state follows struct user_sve_header. The * total size of the SVE state (including header) depends on the * metadata in the header: SVE_PT_SIZE(vq, flags) gives the total size * of the state in bytes, including the header. * * Refer to <asm/sigcontext.h> for details of how to pass the correct * "vq" argument to these macros. */ /* Offset from the start of struct user_sve_header to the register data */ #define SVE_PT_REGS_OFFSET \ ((sizeof(struct user_sve_header) + (__SVE_VQ_BYTES - 1)) \ / __SVE_VQ_BYTES * __SVE_VQ_BYTES) /* * The register data content and layout depends on the value of the * flags field. */ /* * (flags & SVE_PT_REGS_MASK) == SVE_PT_REGS_FPSIMD case: * * The payload starts at offset SVE_PT_FPSIMD_OFFSET, and is of type * struct user_fpsimd_state. Additional data might be appended in the * future: use SVE_PT_FPSIMD_SIZE(vq, flags) to compute the total size. * SVE_PT_FPSIMD_SIZE(vq, flags) will never be less than * sizeof(struct user_fpsimd_state). */ #define SVE_PT_FPSIMD_OFFSET SVE_PT_REGS_OFFSET #define SVE_PT_FPSIMD_SIZE(vq, flags) (sizeof(struct user_fpsimd_state)) /* * (flags & SVE_PT_REGS_MASK) == SVE_PT_REGS_SVE case: * * The payload starts at offset SVE_PT_SVE_OFFSET, and is of size * SVE_PT_SVE_SIZE(vq, flags). * * Additional macros describe the contents and layout of the payload. * For each, SVE_PT_SVE_x_OFFSET(args) is the start offset relative to * the start of struct user_sve_header, and SVE_PT_SVE_x_SIZE(args) is * the size in bytes: * * x type description * - ---- ----------- * ZREGS \ * ZREG | * PREGS | refer to <asm/sigcontext.h> * PREG | * FFR / * * FPSR uint32_t FPSR * FPCR uint32_t FPCR * * Additional data might be appended in the future. * * The Z-, P- and FFR registers are represented in memory in an endianness- * invariant layout which differs from the layout used for the FPSIMD * V-registers on big-endian systems: see sigcontext.h for more explanation. */ #define SVE_PT_SVE_ZREG_SIZE(vq) __SVE_ZREG_SIZE(vq) #define SVE_PT_SVE_PREG_SIZE(vq) __SVE_PREG_SIZE(vq) #define SVE_PT_SVE_FFR_SIZE(vq) __SVE_FFR_SIZE(vq) #define SVE_PT_SVE_FPSR_SIZE sizeof(__u32) #define SVE_PT_SVE_FPCR_SIZE sizeof(__u32) #define SVE_PT_SVE_OFFSET SVE_PT_REGS_OFFSET #define SVE_PT_SVE_ZREGS_OFFSET \ (SVE_PT_REGS_OFFSET + __SVE_ZREGS_OFFSET) #define SVE_PT_SVE_ZREG_OFFSET(vq, n) \ (SVE_PT_REGS_OFFSET + __SVE_ZREG_OFFSET(vq, n)) #define SVE_PT_SVE_ZREGS_SIZE(vq) \ (SVE_PT_SVE_ZREG_OFFSET(vq, __SVE_NUM_ZREGS) - SVE_PT_SVE_ZREGS_OFFSET) #define SVE_PT_SVE_PREGS_OFFSET(vq) \ (SVE_PT_REGS_OFFSET + __SVE_PREGS_OFFSET(vq)) #define SVE_PT_SVE_PREG_OFFSET(vq, n) \ (SVE_PT_REGS_OFFSET + __SVE_PREG_OFFSET(vq, n)) #define SVE_PT_SVE_PREGS_SIZE(vq) \ (SVE_PT_SVE_PREG_OFFSET(vq, __SVE_NUM_PREGS) - \ SVE_PT_SVE_PREGS_OFFSET(vq)) /* For streaming mode SVE (SSVE) FFR must be read and written as zero */ #define SVE_PT_SVE_FFR_OFFSET(vq) \ (SVE_PT_REGS_OFFSET + __SVE_FFR_OFFSET(vq)) #define SVE_PT_SVE_FPSR_OFFSET(vq) \ ((SVE_PT_SVE_FFR_OFFSET(vq) + SVE_PT_SVE_FFR_SIZE(vq) + \ (__SVE_VQ_BYTES - 1)) \ / __SVE_VQ_BYTES * __SVE_VQ_BYTES) #define SVE_PT_SVE_FPCR_OFFSET(vq) \ (SVE_PT_SVE_FPSR_OFFSET(vq) + SVE_PT_SVE_FPSR_SIZE) /* * Any future extension appended after FPCR must be aligned to the next * 128-bit boundary. */ #define SVE_PT_SVE_SIZE(vq, flags) \ ((SVE_PT_SVE_FPCR_OFFSET(vq) + SVE_PT_SVE_FPCR_SIZE \ - SVE_PT_SVE_OFFSET + (__SVE_VQ_BYTES - 1)) \ / __SVE_VQ_BYTES * __SVE_VQ_BYTES) #define SVE_PT_SIZE(vq, flags) \ (((flags) & SVE_PT_REGS_MASK) == SVE_PT_REGS_SVE ? \ SVE_PT_SVE_OFFSET + SVE_PT_SVE_SIZE(vq, flags) \ : ((((flags) & SVE_PT_REGS_MASK) == SVE_PT_REGS_FPSIMD ? \ SVE_PT_FPSIMD_OFFSET + SVE_PT_FPSIMD_SIZE(vq, flags) \ : SVE_PT_REGS_OFFSET))) /* pointer authentication masks (NT_ARM_PAC_MASK) */ struct user_pac_mask { __u64 data_mask; __u64 insn_mask; }; /* pointer authentication keys (NT_ARM_PACA_KEYS, NT_ARM_PACG_KEYS) */ struct user_pac_address_keys { __uint128_t apiakey; __uint128_t apibkey; __uint128_t apdakey; __uint128_t apdbkey; }; struct user_pac_generic_keys { __uint128_t apgakey; }; /* ZA state (NT_ARM_ZA) */ struct user_za_header { __u32 size; /* total meaningful regset content in bytes */ __u32 max_size; /* maxmium possible size for this thread */ __u16 vl; /* current vector length */ __u16 max_vl; /* maximum possible vector length */ __u16 flags; __u16 __reserved; }; /* * Common ZA_PT_* flags: * These must be kept in sync with prctl interface in <linux/prctl.h> */ #define ZA_PT_VL_INHERIT ((1 << 17) /* PR_SME_VL_INHERIT */ >> 16) #define ZA_PT_VL_ONEXEC ((1 << 18) /* PR_SME_SET_VL_ONEXEC */ >> 16) /* * The remainder of the ZA state follows struct user_za_header. The * total size of the ZA state (including header) depends on the * metadata in the header: ZA_PT_SIZE(vq, flags) gives the total size * of the state in bytes, including the header. * * Refer to <asm/sigcontext.h> for details of how to pass the correct * "vq" argument to these macros. */ /* Offset from the start of struct user_za_header to the register data */ #define ZA_PT_ZA_OFFSET \ ((sizeof(struct user_za_header) + (__SVE_VQ_BYTES - 1)) \ / __SVE_VQ_BYTES * __SVE_VQ_BYTES) /* * The payload starts at offset ZA_PT_ZA_OFFSET, and is of size * ZA_PT_ZA_SIZE(vq, flags). * * The ZA array is stored as a sequence of horizontal vectors ZAV of SVL/8 * bytes each, starting from vector 0. * * Additional data might be appended in the future. * * The ZA matrix is represented in memory in an endianness-invariant layout * which differs from the layout used for the FPSIMD V-registers on big-endian * systems: see sigcontext.h for more explanation. */ #define ZA_PT_ZAV_OFFSET(vq, n) \ (ZA_PT_ZA_OFFSET + ((vq * __SVE_VQ_BYTES) * n)) #define ZA_PT_ZA_SIZE(vq) ((vq * __SVE_VQ_BYTES) * (vq * __SVE_VQ_BYTES)) #define ZA_PT_SIZE(vq) \ (ZA_PT_ZA_OFFSET + ZA_PT_ZA_SIZE(vq)) #endif /* __ASSEMBLY__ */ #endif /* _UAPI__ASM_PTRACE_H */
Information contained on this website is for historical information purposes only and does not indicate or represent copyright ownership.
Created with Cregit http://github.com/cregit/cregit
Version 2.0-RC1