qemu-e2k/target/e2k/cpu.h

699 lines
19 KiB
C

#ifndef E2K_CPU_H
#define E2K_CPU_H
#include "qemu/bswap.h"
#include "cpu-qom.h"
#include "exec/cpu-defs.h"
void e2k_tcg_initialize(void);
#define GEN_MASK(start, len) (((1UL << (len)) - 1) << (start))
#define GET_BIT(v, index) (((v) >> (index)) & 1)
#define GET_FIELD(v, s, l) (((v) >> (s)) & GEN_MASK(0, l))
#define SET_FIELD(v, f, s, l) \
( \
((v) & ~GEN_MASK((s), (l))) | \
((((typeof((v))) (f)) << (s)) & GEN_MASK((s), (l))) \
)
#define MMU_USER_IDX 1
#define CPU_RESOLVING_TYPE TYPE_E2K_CPU
#define E2K_TAG_SIZE 2 /* 2-bit tag for 32-bit value */
#define E2K_REG_LEN sizeof(uint64_t)
#define E2K_REG_SIZE (E2K_REG_LEN * 8)
#define E2K_REG_TAGS_SIZE (E2K_TAG_SIZE * 2) /* two tags for 32-bit halves */
#define E2K_WR_COUNT 64 /* %rN [0, 64) */
#define E2K_BR_COUNT 128 /* %b[N] [0, 128) */
#define E2K_NR_COUNT (E2K_WR_COUNT + E2K_BR_COUNT)
#define E2K_GR_COUNT 32 /* %gN [0, 32) */
#define E2K_BGR_COUNT 8 /* %gN [24, 32) */
#define E2K_REG_COUNT (E2K_NR_COUNT + E2K_GR_COUNT)
#define E2K_PR_COUNT 32 /* %predN [0, 32) */
typedef enum {
E2K_TAG_NUMBER32 = 0,
E2K_TAG_NUMBER64 = 0,
E2K_TAG_NON_NUMBER32 = 1,
E2K_TAG_NON_NUMBER64 = 5,
} E2kRegisterTag;
#define CTPR_BASE_OFF 0
#define CTPR_BASE_END 47
#define CTPR_BASE_LEN (CTPR_BASE_END - CTPR_BASE_OFF + 1)
#define CTPR_TAG_OFF 54
#define CTPR_TAG_END 56
#define CTPR_TAG_LEN (CTPR_TAG_END - CTPR_TAG_OFF + 1)
#define CTPR_OPC_OFF 57
#define CTPR_OPC_END 58
#define CTPR_OPC_LEN (CTPR_OPC_END - CTPR_OPC_OFF + 1)
#define CTPR_IPD_OFF 59
#define CTPR_IPD_END 60
#define CTPR_IPD_LEN (CTPR_IPD_END - CTPR_IPD_OFF + 1)
typedef enum {
CTPR_TAG_NONE = 0x0,
CTPR_TAG_RETURN = 0x2,
CTPR_TAG_DISP = 0x3,
CTPR_TAG_SDISP = 0x5,
} CtprTag;
typedef enum {
CTPR_OPC_LDISP = 0x1,
} CtprOpc;
#define WD_BASE_OFF 0
#define WD_BASE_END 10
#define WD_BASE_LEN (WD_BASE_END - WD_BASE_OFF + 1)
#define WD_SIZE_OFF 16
#define WD_SIZE_END 26
#define WD_SIZE_LEN (WD_SIZE_END - WD_SIZE_OFF + 1)
#define WD_PSIZE_OFF 32
#define WD_PSIZE_END 42
#define WD_PSIZE_LEN (WD_PSIZE_END - WD_PSIZE_OFF + 1)
#define WD_FX_OFF 48
#define WD_FX_BIT (1UL << WD_FX_OFF)
#define DESC_HI_IND_OFF 0 /* index for SPILL */
#define DESC_HI_IND_END 31
#define DESC_HI_IND_LEN (DESC_HI_IND_END - DESC_HI_IND_OFF + 1)
#define DESC_HI_SIZE_OFF 32 /* stack size */
#define DESC_HI_SIZE_END 63
#define DESC_HI_SIZE_LEN (DESC_HI_SIZE_END - DESC_HI_SIZE_OFF + 1)
#define DESC_LO_BASE_OFF 0 /* stack address */
#define DESC_LO_BASE_END 47
#define DESC_LO_BASE_LEN (DESC_LO_BASE_END - DESC_LO_BASE_OFF + 1)
#define DESC_LO_READ_OFF 59
#define DESC_LO_READ_BIT (1UL << DESC_LO_READ_OFF)
#define DESC_LO_WRITE_OFF 60
#define DESC_LO_WRITE_BIT (1UL << DESC_LO_WRITE_OFF)
#define PSHTP_IND_OFF 0
#define PSHTP_IND_END 11
#define PSHTP_IND_LEN (PSHTP_IND_END - PSHTP_IND_OFF + 1)
#define PSHTP_FXIND_OFF 16
#define PSHTP_FXIND_END 26
#define PSHTP_FXIND_LEN (PSHTP_FXIND_END - PSHTP_FXIND_OFF + 1)
#define PSHTP_TIND_OFF 32
#define PSHTP_TIND_END 42
#define PSHTP_TIND_LEN (PSHTP_TIND_END - PSHTP_TIND_OFF + 1)
#define PSHTP_FX_OFF 48
#define PSHTP_FX_BIT (1UL << PSHTP_FX_OFF)
#define USD_LO_BASE_OFF 0
#define USD_LO_BASE_END 47
#define USD_LO_BASE_LEN (USD_LO_BASE_END - USD_LO_BASE_OFF + 1)
#define USD_LO_PROTECTED_OFF 58
#define USD_LO_PROTECTED_BIT (1UL << USD_LO_PROTECTED_OFF)
#define USD_LO_READ_OFF 59
#define USD_LO_READ_BIT (1UL << USD_LO_READ_OFF)
#define USD_LO_WRITE_OFF 60
#define USD_LO_WRITE_BIT (1UL << USD_LO_WRITE_OFF)
#define USD_HI_CURPTR_OFF 0
#define USD_HI_CURPTR_END 31
#define USD_HI_CURPTR_LEN (USD_HI_CURPTR_END - USD_HI_CURPTR_OFF + 1)
#define USD_HI_SIZE_OFF 32
#define USD_HI_SIZE_END 63
#define USD_HI_SIZE_LEN (USD_HI_SIZE_END - USD_HI_SIZE_OFF + 1)
#define CR1_HI_BR_OFF 0
#define CR1_HI_BR_END 27
#define CR1_HI_BR_LEN (CR1_HI_BR_END - CR1_HI_BR_OFF + 1)
#define CR1_HI_WDBL_OFF 35
#define CR1_HI_WDBL_BIT (1UL << CR1_HI_WDBL_OFF)
#define CR1_HI_USSZ_OFF 36
#define CR1_HI_USSZ_END 63
#define CR1_HI_USSZ_LEN (CR1_HI_USSZ_END - CR1_HI_USSZ_OFF + 1)
#define CR1_LO_TR_OFF 0
#define CR1_LO_TR_END 14
#define CR1_LO_TR_LEN (CR1_LO_TR_END - CR1_LO_TR_OFF + 1)
#define CR1_LO_EIN_OFF 16
#define CR1_LO_EIN_END 23
#define CR1_LO_EIN_LEN (CR1_LO_EIN_END - CR1_LO_EIN_OFF + 1)
#define CR1_LO_SS_OFF 24
#define CR1_LO_SS_BIT (1UL << CR1_LO_SS_OFF)
#define CR1_LO_WFX_OFF 25
#define CR1_LO_WFX_BIT (1UL << CR1_LO_WFX_OFF)
#define CR1_LO_WPSZ_OFF 26
#define CR1_LO_WPSZ_END 32
#define CR1_LO_WPSZ_LEN (CR1_LO_WPSZ_END - CR1_LO_WPSZ_OFF + 1)
#define CR1_LO_WBS_OFF 33
#define CR1_LO_WBS_END 39
#define CR1_LO_WBS_LEN (CR1_LO_WBS_END - CR1_LO_WBS_OFF + 1)
#define CR1_LO_CUIR_OFF 40
#define CR1_LO_CUIR_END 56
#define CR1_LO_CUIR_LEN (CR1_LO_CUIR_END - CR1_LO_CUIR_OFF + 1)
#define CR1_LO_PSR_OFF 57
#define CR1_LO_PSR_END 63
#define CR1_LO_PSR_LEN (CR1_LO_PSR_END - CR1_LO_PSR_OFF + 1)
#define BR_RBS_OFF 0 /* based regs window offset */
#define BR_RBS_END 5
#define BR_RBS_LEN (BR_RBS_END - BR_RBS_OFF + 1)
#define BR_RSZ_OFF 6 /* based regs window size */
#define BR_RSZ_END 11
#define BR_RSZ_LEN (BR_RSZ_END - BR_RSZ_OFF + 1)
#define BR_RCUR_OFF 12 /* based regs current index */
#define BR_RCUR_END 17
#define BR_RCUR_LEN (BR_RCUR_END - BR_RCUR_OFF + 1)
#define BR_BN_OFF BR_RBS_OFF
#define BR_BN_END BR_RCUR_END
#define BR_BN_LEN (BR_BN_END - BR_BN_OFF + 1)
#define BR_PSZ_OFF 18 /* based pregs window size */
#define BR_PSZ_END 22
#define BR_PSZ_LEN (BR_PSZ_END - BR_PSZ_OFF + 1)
#define BR_PCUR_OFF 23 /* based pregs current index */
#define BR_PCUR_END 27
#define BR_PCUR_LEN (BR_PCUR_END - BR_PCUR_OFF + 1)
#define BR_BP_OFF BR_PSZ_OFF
#define BR_BP_END BR_PCUR_END
#define BR_BP_LEN (BR_BP_END - BR_BP_OFF + 1)
#define LSR_LCNT_OFF 0 /* loop counter */
#define LSR_LCNT_END 31
#define LSR_LCNT_LEN (LSR_LCNT_END - LSR_LCNT_OFF + 1)
#define LSR_ECNT_OFF 32 /* epilogue counter */
#define LSR_ECNT_END 36
#define LSR_ECNT_LEN (LSR_ECNT_END - LSR_ECNT_OFF + 1)
#define LSR_VLC_OFF 37 /* loop count valid bit */
#define LSR_VLC_BIT (1UL << LSR_VLC_OFF)
#define LSR_OVER_OFF 38 /* loop count overflow */
#define LSR_LDMC_OFF 39 /* loads manual control */
#define LSR_LDOVL_OFF 40 /* load overlap */
#define LSR_LDOVL_END 47
#define LSR_LDOVL_SIZE (LSR_LDOVL_END - LSR_LDOVL_OFF + 1)
#define LSR_PCNT_OFF 48 /* prologue counter */
#define LSR_PCNT_END 52
#define LSR_PCNT_LEN (LSR_PCNT_END - LSR_PCNT_OFF + 1)
#define LSR_STRMD_OFF 53 /* store remainder counter */
#define LSR_STRMD_END 59
#define LSR_STRMD_LEN (LSR_STRMD_END - LSR_STRMD_OFF + 1)
#define LSR_SEMC_OFF /* side effects manual control */
#define LSR_ILCR_MASK 0x1f001fffffffffUL
#define UPSR_FE_OFF 0 /* floating point enable */
#define UPSR_FE_BIT 1
#define UPSR_SE_OFF 1 /* supervisor mode enable (only for Intel) */
#define UPSR_SE_BIT (1 << UPSR_SE_OFF)
#define UPSR_AC_OFF 2 /* not-aligned access control */
#define UPSR_AC_BIT (1 << UPSR_AC_OFF)
#define UPSR_DI_OFF 3 /* delayed interrupt (only for Intel) */
#define UPSR_DI_BIT (1 << UPSR_DI_OFF)
#define UPSR_WP_OFF 4 /* write protection (only for Intel) */
#define UPSR_WP_BIT (1 << UPSR_WP_OFF)
#define UPSR_IE_OFF 5 /* interrupt enable */
#define UPSR_IE_BIT (1 << UPSR_IE_OFF)
#define UPSR_A20_OFF 6 /* emulation of 1 Mb memory (only for Intel) */
#define UPSR_A20_BIT (1 << UPSR_A20_OFF)
#define UPSR_NMIE_OFF 7 /* not masked interrupt enable */
#define UPSR_NMIE_BIT (1 << UPSR_NMIE_OFF)
/* next field of register exist only on E3S/ES2/E2S/E8C/E1C+ CPUs */
#define UPSR_FSM_OFF 8 /* floating comparison mode flag */
/* 1 - compatible with x86/x87 */
#define UPSR_FSM_BIT (1 << UPSR_FSM_OFF)
#define UPSR_IMPT_OFF 9 /* ignore Memory Protection Table flag */
#define UPSR_IMPT_BIT (1 << UPSR_IMPT_OFF)
#define UPSR_IUC_OFF 10 /* ignore access right for uncached pages */
#define UPSR_IUC_BIT (1 << UPSR_IUC_OFF)
#define IDR_MDL_OFF 0 /* CPU model number */
#define IDR_MDL_END 7
#define IDR_MDL_LEN (IDR_MDL_END - IDR_MDL_OFF + 1)
#define IDR_REV_OFF 8 /* revision number */
#define IDR_REV_END 11
#define IDR_REV_LEN (IDR_REV_END - IDR_REV_OFF + 1)
#define IDR_WBL_OFF 12 /* write-back length of L2 */
#define IDR_WBL_END 14
#define IDR_WBL_LEN (IDR_WBL_END - IDR_WBL_OFF + 1)
#define IDR_MS_OFF 15 /* model specific info */
#define IDR_MS_END 63
#define IDR_MS_LEN (IDR_MS_END - IDR_MS_OFF + 1)
/* Cache write-back length */
#define IDR_WBL_0 0x0 /* none CPU internal cache */
#define IDR_WBL_32 0x1
#define IDR_WBL_64 0x2
#define IDR_WBL_128 0x3
#define IDR_WBL_256 0x4
#define IDR_WBL_TO_BYTES(wbl) ((wbl) ? (1 << ((wbs) + 4)) : 1)
typedef enum {
E2K_EXCP_SYSCALL = 0x02,
E2K_EXCP_ILLOPC = 0x03,
E2K_EXCP_ILLOPN = 0x04,
E2K_EXCP_MAPERR = 0x05,
} Exception;
struct e2k_def_t {
const char *name;
const char *canonical_name;
const char *gdb_arch;
uint32_t isa_version;
};
typedef struct {
uint32_t base;
uint32_t size;
uint32_t cur;
} E2KBnState;
typedef struct {
uint32_t size;
uint32_t cur;
} E2KBpState;
typedef struct {
union {
struct {
uint64_t tr: 15;
uint64_t unused1: 1;
uint64_t ein: 8;
uint64_t ss: 1;
uint64_t wfx: 1;
uint64_t wpsz: 7;
uint64_t wbs: 7;
uint64_t cuir: 17;
uint64_t psr: 7;
};
struct {
uint64_t unused2: 40;
uint64_t cui: 16;
uint64_t ic: 1;
uint64_t pm: 1;
uint64_t ie: 1;
uint64_t sge: 1;
uint64_t lw: 1;
uint64_t uie: 1;
uint64_t nmie: 1;
uint64_t unmie: 1;
};
uint64_t lo;
};
union {
struct {
uint64_t br: 28;
uint64_t unused3: 7;
uint64_t wdbl: 1;
/* user stack size */
uint64_t ussz: 28;
};
struct {
uint64_t rbs: 6;
uint64_t rsz: 6;
uint64_t rcur: 6;
uint64_t psz: 5;
uint64_t pcur: 5;
uint64_t unused4: 36;
};
uint64_t hi;
};
} E2KCr1State;
typedef struct {
target_ulong base;
target_ulong base_tag;
uint32_t index;
uint32_t size;
bool is_readable;
bool is_writable;
} E2KStackState, E2KPsState, E2KPcsState;
typedef struct {
int16_t index;
uint16_t fx_index;
uint16_t t_index;
bool fx;
} E2KPshtpState;
typedef struct {
int32_t base;
uint32_t size;
uint32_t psize;
bool fx;
} E2KWdState;
typedef enum {
AASR_NULL = 0,
AASR_READY = 1,
AASR_ACTIVE = 3,
AASR_STOPPED = 5,
} E2KAasrState;
typedef union {
struct {
uint32_t unused : 5;
uint32_t stb : 1;
uint32_t iab : 1;
uint32_t lds : 3;
};
uint32_t raw;
} E2KAasr;
typedef enum {
AAD_TAG_UNV = 0,
AAD_TAG_UDT = 1,
AAD_TAG_UET = 2,
AAD_TAG_UAP = 4,
AAD_TAG_USAP = 5,
AAD_TAG_UDS = 6,
} E2KAadTag;
typedef struct {
union {
struct {
uint64_t base : 48; /* 48:0 */
uint64_t unused1 : 6; /* 53:48 */
uint64_t tag : 3; /* 56:54 */
uint64_t mb : 1; /* 57 */
uint64_t ed : 1; /* 58 */
uint64_t rw : 2; /* 60:59 */
uint64_t unused2 : 3; /* 63:60 */
};
uint64_t lo;
};
union {
struct {
uint64_t unused3 : 32;
uint64_t size : 32;
};
uint64_t hi;
};
} E2KAad;
typedef enum {
AALDA_EXC_EIO = 1,
AALDA_EXC_EPM = 2,
AALDA_EXC_EPMSI = 3,
} E2KAaldaExc;
typedef union {
struct {
uint8_t exc: 2;
uint8_t cincr: 1;
uint8_t unused1: 1;
uint8_t root: 1;
uint8_t unused2: 3;
};
uint8_t raw;
} E2KAalda;
/* AAU prefetch instruction */
typedef union {
struct {
union {
struct {
uint32_t abs: 5;
uint32_t asz: 3;
/* version >= 2 || si == 0 */
uint32_t ind: 4;
uint32_t incr: 3;
uint32_t aad: 5;
uint32_t mrng: 5;
uint32_t fmt: 3;
uint32_t dcd: 2;
uint32_t si: 1;
uint32_t ct: 1;
};
struct {
uint32_t unused1: 8;
/* version <= 1 && si == 1 */
uint32_t area: 5;
uint32_t am: 1;
uint32_t be: 1;
uint32_t unused2: 16;
uint32_t dpl: 1;
};
uint32_t lo;
};
union {
uint32_t disp;
uint32_t hi;
};
};
uint64_t raw;
} E2KAauPrefInstr;
typedef struct {
E2KAauPrefInstr pi; /* prefetch instr */
uint32_t cdi; /* current data index */
uint32_t ldi; /* loaded data index */
} E2KAauAreaState;
typedef struct {
E2KAauAreaState area[32];
} E2KAauPrefState;
typedef struct {
E2KAasr sr;
uint32_t fstr;
uint64_t ldm;
uint64_t ldv;
uint32_t stis[16];
uint32_t sti_tags;
uint32_t incrs[8];
uint32_t incr_tags;
uint32_t inds[16];
uint32_t ind_tags;
E2KAad ds[32];
E2KAalda lda[64];
E2KAauPrefState pl, pr;
} E2KAauState;
typedef union {
struct {
uint64_t base: 48; /* 47:0 */
uint64_t unused1: 6; /* 53:48 */
uint64_t tag: 3; /* 56:54 */
uint64_t opc: 2; /* 58:57 */
uint64_t ipd: 2; /* 60:59 */
uint64_t unused2: 3; /* 63:61 */
};
uint64_t raw;
} E2KCtpr;
typedef struct {
union {
uint64_t lo;
struct {
uint64_t base: 48;
uint64_t unused1: 10;
uint64_t protected: 1;
uint64_t read: 1;
uint64_t write: 1;
uint64_t unsued2: 3;
};
};
union {
uint64_t hi;
struct {
uint64_t curptr: 32;
uint64_t size: 32;
};
};
} E2KUserStackDesc;
typedef struct CPUArchState {
/* register file */
uint64_t regs[E2K_REG_COUNT]; /* registers */
uint16_t xregs[E2K_REG_COUNT]; /* x part of registers */
uint8_t tags[E2K_REG_COUNT]; /* registers tags */
uint64_t *rptr; /* pointer to regs */
uint8_t *tptr; /* pointer to tags */
uint64_t pregs; /* predicate file */
target_ulong ip; /* instruction address */
/* procedure chain info */
uint64_t cr0_lo;
uint64_t cr0_hi;
E2KCr1State cr1;
/* Procedure chain info = cr0_lo, cr0_hi, cr1_lo, cr1_hi */
E2KPcsState pcsp;
uint64_t pcshtp;
/* Procedure stack pointer (for regs) */
E2KPsState psp;
E2KPshtpState pshtp;
E2KWdState wd;
E2KBnState bn;
E2KBpState bp;
uint64_t lsr; /* loop status register */
uint64_t sbr;
E2KUserStackDesc usd;
/* control registers */
E2KCtpr ctprs[3]; // Control Transfer Preparation Register (CTPR)
target_ulong ct_cond;
target_ulong nip; /* next instruction address */
uint64_t upsr;
uint64_t idr;
uint32_t pfpfr; // Packed Floating Point Flag Register (PFPFR)
uint32_t fpcr; // Floating point control register (FPCR)
uint32_t fpsr; // Floating point state register (FPSR)
E2KAauState aau;
int interrupt_index;
/* internal use */
uint32_t is_bp; /* breakpoint flag */
int syscall_wbs; // FIXME: temp for syscall
/* zeroing upper register half for 32-bit instructions */
uint32_t wdbl;
/* Fields up to this point are cleared by a CPU reset */
struct {} end_reset_fields;
uint32_t version;
struct e2k_def_t def;
} CPUE2KState;
/**
* E2KCPU:
* @env: #CPUE2KState
*
* An Elbrus CPU.
*/
struct ArchCPU {
/*< private >*/
CPUState parent_obj;
/*< public >*/
CPUNegativeOffsetState neg;
CPUE2KState env;
};
static inline void cpu_get_tb_cpu_state(CPUE2KState *env, target_ulong *pc,
target_ulong *cs_base, uint32_t *pflags)
{
*pc = env->ip;
*cs_base = 0;
*pflags = MMU_USER_IDX;
}
static inline int cpu_mmu_index(CPUE2KState *env, bool ifetch)
{
#ifdef CONFIG_USER_ONLY
return MMU_USER_IDX;
#else
#error softmmu is not supported on E2K
#endif
}
void e2k_cpu_do_interrupt(CPUState *cs);
void e2k_cpu_list(void);
int e2k_cpu_signal_handler(int host_signum, void *pinfo, void *puc);
int e2k_cpu_gdb_read_register(CPUState *cs, GByteArray *mem_buf, int n);
int e2k_cpu_gdb_write_register(CPUState *cs, uint8_t *mem_buf, int n);
void e2k_break_save_state(CPUE2KState *env);
bool e2k_cpu_tlb_fill(CPUState *cpu, vaddr address, int size,
MMUAccessType access_type, int mmu_idx,
bool probe, uintptr_t retaddr);
#define cpu_signal_handler e2k_cpu_signal_handler
#define cpu_list e2k_cpu_list
#define e2k_wrap_reg_index(i) (E2K_NR_COUNT + i) % E2K_NR_COUNT
static inline uint64_t e2k_state_desc_lo(E2KStackState *desc)
{
uint64_t lo = 0;
lo = deposit64(lo, DESC_LO_BASE_OFF, DESC_LO_BASE_LEN,
(uint64_t) desc->base);
lo = deposit64(lo, DESC_LO_READ_OFF, 1, desc->is_readable);
lo = deposit64(lo, DESC_LO_WRITE_OFF, 1, desc->is_writable);
return lo;
}
static inline uint64_t e2k_state_desc_hi(E2KStackState *env)
{
uint64_t hi = 0;
hi = deposit64(hi, DESC_HI_IND_OFF, DESC_HI_IND_LEN, env->index);
hi = deposit64(hi, DESC_HI_SIZE_OFF, DESC_HI_SIZE_OFF, env->size);
return hi;
}
#define e2k_state_pcsp_lo(env) e2k_state_desc_lo(&(env)->pcsp)
#define e2k_state_pcsp_hi(env) e2k_state_desc_hi(&(env)->pcsp)
#define e2k_state_psp_lo(env) e2k_state_desc_lo(&(env)->psp)
#define e2k_state_psp_hi(env) e2k_state_desc_hi(&(env)->psp)
static inline uint64_t e2k_state_pshtp(CPUE2KState *env)
{
E2KPshtpState *s = &env->pshtp;
uint64_t ret = 0;
ret = deposit64(ret, PSHTP_IND_OFF, PSHTP_IND_LEN, s->index);
ret = deposit64(ret, PSHTP_FXIND_OFF, PSHTP_FXIND_LEN, s->fx_index);
ret = deposit64(ret, PSHTP_TIND_OFF, PSHTP_TIND_LEN, s->t_index);
ret = deposit64(ret, PSHTP_FX_OFF, 1, s->fx);
return ret;
}
static inline uint64_t e2k_state_wd(CPUE2KState *env)
{
E2KWdState *wd = &env->wd;
uint64_t ret = 0;
ret = deposit64(ret, WD_BASE_OFF, WD_BASE_LEN, wd->base * 8);
ret = deposit64(ret, WD_SIZE_OFF, WD_SIZE_LEN, wd->size * 8);
ret = deposit64(ret, WD_PSIZE_OFF, WD_PSIZE_LEN, wd->psize * 8);
ret = deposit64(ret, WD_FX_OFF, 1, wd->fx);
return ret;
}
static inline uint32_t e2k_state_br(CPUE2KState *env)
{
E2KBnState *bn = &env->bn;
E2KBpState *bp = &env->bp;
uint32_t ret = 0;
ret = deposit32(ret, BR_RBS_OFF, BR_RBS_LEN, bn->base / 2);
ret = deposit32(ret, BR_RSZ_OFF, BR_RSZ_LEN, bn->size / 2 - 1);
ret = deposit32(ret, BR_RCUR_OFF, BR_RCUR_LEN, bn->cur / 2);
ret = deposit32(ret, BR_PSZ_OFF, BR_PSZ_LEN, bp->size);
ret = deposit32(ret, BR_PCUR_OFF, BR_PCUR_LEN, bp->cur);
return ret;
}
static inline void e2k_state_br_set(CPUE2KState *env, uint32_t br)
{
E2KBnState *bn = &env->bn;
E2KBpState *bp = &env->bp;
bn->base = extract32(br, BR_RBS_OFF, BR_RBS_LEN) * 2;
bn->size = extract32(br, BR_RSZ_OFF, BR_RSZ_LEN) * 2 + 2;
bn->cur = extract32(br, BR_RCUR_OFF, BR_RCUR_LEN) * 2;
bp->size = extract32(br, BR_PSZ_OFF, BR_PSZ_LEN);
bp->cur = extract32(br, BR_PCUR_OFF, BR_PCUR_LEN);
}
#include "exec/cpu-all.h"
#endif