void arm_cpu_synchronize_from_tb(CPUState *cs, const TranslationBlock *tb);
#endif /* CONFIG_TCG */
-enum arm_fprounding {
+typedef enum ARMFPRounding {
FPROUNDING_TIEEVEN,
FPROUNDING_POSINF,
FPROUNDING_NEGINF,
FPROUNDING_ZERO,
FPROUNDING_TIEAWAY,
FPROUNDING_ODD
-};
+} ARMFPRounding;
-int arm_rmode_to_sf(int rmode);
+extern const FloatRoundMode arm_rmode_to_sf_map[6];
+
+static inline FloatRoundMode arm_rmode_to_sf(ARMFPRounding rmode)
+{
+ assert((unsigned)rmode < ARRAY_SIZE(arm_rmode_to_sf_map));
+ return arm_rmode_to_sf_map[rmode];
+}
static inline void aarch64_save_sp(CPUARMState *env, int el)
{
ARMFault_ICacheMaint,
ARMFault_QEMU_NSCExec, /* v8M: NS executing in S&NSC memory */
ARMFault_QEMU_SFault, /* v8M: SecureFault INVTRAN, INVEP or AUVIOL */
+ ARMFault_GPCFOnWalk,
+ ARMFault_GPCFOnOutput,
} ARMFaultType;
+typedef enum ARMGPCF {
+ GPCF_None,
+ GPCF_AddressSize,
+ GPCF_Walk,
+ GPCF_EABT,
+ GPCF_Fail,
+} ARMGPCF;
+
/**
* ARMMMUFaultInfo: Information describing an ARM MMU Fault
* @type: Type of fault
+ * @gpcf: Subtype of ARMFault_GPCFOn{Walk,Output}.
* @level: Table walk level (for translation, access flag and permission faults)
* @domain: Domain of the fault address (for non-LPAE CPUs only)
* @s2addr: Address that caused a fault at stage 2
+ * @paddr: physical address that caused a fault for gpc
+ * @paddr_space: physical address space that caused a fault for gpc
* @stage2: True if we faulted at stage 2
* @s1ptw: True if we faulted at stage 2 while doing a stage 1 page-table walk
* @s1ns: True if we faulted on a non-secure IPA while in secure state
typedef struct ARMMMUFaultInfo ARMMMUFaultInfo;
struct ARMMMUFaultInfo {
ARMFaultType type;
+ ARMGPCF gpcf;
target_ulong s2addr;
+ target_ulong paddr;
+ ARMSecuritySpace paddr_space;
int level;
int domain;
bool stage2;
case ARMFault_Exclusive:
fsc = 0x35;
break;
+ case ARMFault_GPCFOnWalk:
+ assert(fi->level >= -1 && fi->level <= 3);
+ if (fi->level < 0) {
+ fsc = 0b100011;
+ } else {
+ fsc = 0b100100 | fi->level;
+ }
+ break;
+ case ARMFault_GPCFOnOutput:
+ fsc = 0b101000;
+ break;
default:
/* Other faults can't occur in a context that requires a
* long-format status code.
ARMGranuleSize gran : 2;
} ARMVAParameters;
+/**
+ * aa64_va_parameters: Return parameters for an AArch64 virtual address
+ * @env: CPU
+ * @va: virtual address to look up
+ * @mmu_idx: determines translation regime to use
+ * @data: true if this is a data access
+ * @el1_is_aa32: true if we are asking about stage 2 when EL1 is AArch32
+ * (ignored if @mmu_idx is for a stage 1 regime; only affects tsz/tsz_oob)
+ */
ARMVAParameters aa64_va_parameters(CPUARMState *env, uint64_t va,
- ARMMMUIdx mmu_idx, bool data);
+ ARMMMUIdx mmu_idx, bool data,
+ bool el1_is_aa32);
int aa64_va_parameter_tbi(uint64_t tcr, ARMMMUIdx mmu_idx);
int aa64_va_parameter_tbid(uint64_t tcr, ARMMMUIdx mmu_idx);
FIELD(MTEDESC, TBI, 4, 2)
FIELD(MTEDESC, TCMA, 6, 2)
FIELD(MTEDESC, WRITE, 8, 1)
-FIELD(MTEDESC, SIZEM1, 9, SIMD_DATA_BITS - 9) /* size - 1 */
+FIELD(MTEDESC, ALIGN, 9, 3)
+FIELD(MTEDESC, SIZEM1, 12, SIMD_DATA_BITS - 12) /* size - 1 */
bool mte_probe(CPUARMState *env, uint32_t desc, uint64_t ptr);
uint64_t mte_check(CPUARMState *env, uint32_t desc, uint64_t ptr, uintptr_t ra);
}
#ifdef TARGET_AARCH64
-int arm_gdb_get_svereg(CPUARMState *env, GByteArray *buf, int reg);
-int arm_gdb_set_svereg(CPUARMState *env, uint8_t *buf, int reg);
-int aarch64_fpu_gdb_get_reg(CPUARMState *env, GByteArray *buf, int reg);
-int aarch64_fpu_gdb_set_reg(CPUARMState *env, uint8_t *buf, int reg);
+int arm_gen_dynamic_svereg_xml(CPUState *cpu, int base_reg);
+int aarch64_gdb_get_sve_reg(CPUARMState *env, GByteArray *buf, int reg);
+int aarch64_gdb_set_sve_reg(CPUARMState *env, uint8_t *buf, int reg);
+int aarch64_gdb_get_fpu_reg(CPUARMState *env, GByteArray *buf, int reg);
+int aarch64_gdb_set_fpu_reg(CPUARMState *env, uint8_t *buf, int reg);
+int aarch64_gdb_get_pauth_reg(CPUARMState *env, GByteArray *buf, int reg);
+int aarch64_gdb_set_pauth_reg(CPUARMState *env, uint8_t *buf, int reg);
void arm_cpu_sve_finalize(ARMCPU *cpu, Error **errp);
void arm_cpu_sme_finalize(ARMCPU *cpu, Error **errp);
void arm_cpu_pauth_finalize(ARMCPU *cpu, Error **errp);
void arm_cpu_lpa2_finalize(ARMCPU *cpu, Error **errp);
+void aarch64_max_tcg_initfn(Object *obj);
+void aarch64_add_pauth_properties(Object *obj);
+void aarch64_add_sve_properties(Object *obj);
+void aarch64_add_sme_properties(Object *obj);
#endif
-#ifdef CONFIG_USER_ONLY
-static inline void define_cortex_a72_a57_a53_cp_reginfo(ARMCPU *cpu) { }
-#else
-void define_cortex_a72_a57_a53_cp_reginfo(ARMCPU *cpu);
-#endif
+/* Read the CONTROL register as the MRS instruction would. */
+uint32_t arm_v7m_mrs_control(CPUARMState *env, uint32_t secure);
+
+/*
+ * Return a pointer to the location where we currently store the
+ * stack pointer for the requested security state and thread mode.
+ * This pointer will become invalid if the CPU state is updated
+ * such that the stack pointers are switched around (eg changing
+ * the SPSEL control bit).
+ */
+uint32_t *arm_v7m_get_sp_ptr(CPUARMState *env, bool secure,
+ bool threadmode, bool spsel);
bool el_is_in_host(CPUARMState *env, int el);
bool arm_singlestep_active(CPUARMState *env);
bool arm_generate_debug_exceptions(CPUARMState *env);
+/**
+ * pauth_ptr_mask:
+ * @param: parameters defining the MMU setup
+ *
+ * Return a mask of the address bits that contain the authentication code,
+ * given the MMU config defined by @param.
+ */
+static inline uint64_t pauth_ptr_mask(ARMVAParameters param)
+{
+ int bot_pac_bit = 64 - param.tsz;
+ int top_pac_bit = 64 - 8 * param.tbi;
+
+ return MAKE_64BIT_MASK(bot_pac_bit, top_pac_bit - bot_pac_bit);
+}
+
/* Add the cpreg definitions for debug related system registers */
void define_debug_regs(ARMCPU *cpu);
}
void assert_hflags_rebuild_correctly(CPUARMState *env);
+
+/*
+ * Although the ARM implementation of hardware assisted debugging
+ * allows for different breakpoints per-core, the current GDB
+ * interface treats them as a global pool of registers (which seems to
+ * be the case for x86, ppc and s390). As a result we store one copy
+ * of registers which is used for all active cores.
+ *
+ * Write access is serialised by virtue of the GDB protocol which
+ * updates things. Read access (i.e. when the values are copied to the
+ * vCPU) is also gated by GDB's run control.
+ *
+ * This is not unreasonable as most of the time debugging kernels you
+ * never know which core will eventually execute your function.
+ */
+
+typedef struct {
+ uint64_t bcr;
+ uint64_t bvr;
+} HWBreakpoint;
+
+/*
+ * The watchpoint registers can cover more area than the requested
+ * watchpoint so we need to store the additional information
+ * somewhere. We also need to supply a CPUWatchpoint to the GDB stub
+ * when the watchpoint is hit.
+ */
+typedef struct {
+ uint64_t wcr;
+ uint64_t wvr;
+ CPUWatchpoint details;
+} HWWatchpoint;
+
+/* Maximum and current break/watch point counts */
+extern int max_hw_bps, max_hw_wps;
+extern GArray *hw_breakpoints, *hw_watchpoints;
+
+#define cur_hw_wps (hw_watchpoints->len)
+#define cur_hw_bps (hw_breakpoints->len)
+#define get_hw_bp(i) (&g_array_index(hw_breakpoints, HWBreakpoint, i))
+#define get_hw_wp(i) (&g_array_index(hw_watchpoints, HWWatchpoint, i))
+
+bool find_hw_breakpoint(CPUState *cpu, target_ulong pc);
+int insert_hw_breakpoint(target_ulong pc);
+int delete_hw_breakpoint(target_ulong pc);
+
+bool check_watchpoint_in_range(int i, target_ulong addr);
+CPUWatchpoint *find_hw_watchpoint(CPUState *cpu, target_ulong addr);
+int insert_hw_watchpoint(target_ulong addr, target_ulong len, int type);
+int delete_hw_watchpoint(target_ulong addr, target_ulong len, int type);
#endif
projects / mirror_qemu.git / blobdiff