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qemu-e2k/target/i386/machine.c
Paolo Bonzini e7e7bdabab target/i86: implement PKS 
Protection Keys for Supervisor-mode pages is a simple extension of
the PKU feature that QEMU already implements.  For supervisor-mode
pages, protection key restrictions come from a new MSR.  The MSR
has no XSAVE state associated to it.

PKS is only respected in long mode.  However, in principle it is
possible to set the MSR even outside long mode, and in fact
even the XSAVE state for PKRU could be set outside long mode
using XRSTOR.  So do not limit the migration subsections for
PKRU and PKRS to long mode.

Signed-off-by: Paolo Bonzini <pbonzini@redhat.com>
2021-02-08 14:43:55 +01:00

1517 lines
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#include "qemu/osdep.h"
#include "cpu.h"
#include "exec/exec-all.h"
#include "hw/isa/isa.h"
#include "migration/cpu.h"
#include "kvm/hyperv.h"
#include "hw/i386/x86.h"
#include "kvm/kvm_i386.h"
#include "sysemu/kvm.h"
#include "sysemu/tcg.h"
#include "qemu/error-report.h"
static const VMStateDescription vmstate_segment = {
.name = "segment",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT32(selector, SegmentCache),
VMSTATE_UINTTL(base, SegmentCache),
VMSTATE_UINT32(limit, SegmentCache),
VMSTATE_UINT32(flags, SegmentCache),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_SEGMENT(_field, _state) { \
.name = (stringify(_field)), \
.size = sizeof(SegmentCache), \
.vmsd = &vmstate_segment, \
.flags = VMS_STRUCT, \
.offset = offsetof(_state, _field) \
+ type_check(SegmentCache,typeof_field(_state, _field)) \
}
#define VMSTATE_SEGMENT_ARRAY(_field, _state, _n) \
VMSTATE_STRUCT_ARRAY(_field, _state, _n, 0, vmstate_segment, SegmentCache)
static const VMStateDescription vmstate_xmm_reg = {
.name = "xmm_reg",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(ZMM_Q(0), ZMMReg),
VMSTATE_UINT64(ZMM_Q(1), ZMMReg),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_XMM_REGS(_field, _state, _start) \
VMSTATE_STRUCT_SUB_ARRAY(_field, _state, _start, CPU_NB_REGS, 0, \
vmstate_xmm_reg, ZMMReg)
/* YMMH format is the same as XMM, but for bits 128-255 */
static const VMStateDescription vmstate_ymmh_reg = {
.name = "ymmh_reg",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(ZMM_Q(2), ZMMReg),
VMSTATE_UINT64(ZMM_Q(3), ZMMReg),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_YMMH_REGS_VARS(_field, _state, _start, _v) \
VMSTATE_STRUCT_SUB_ARRAY(_field, _state, _start, CPU_NB_REGS, _v, \
vmstate_ymmh_reg, ZMMReg)
static const VMStateDescription vmstate_zmmh_reg = {
.name = "zmmh_reg",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(ZMM_Q(4), ZMMReg),
VMSTATE_UINT64(ZMM_Q(5), ZMMReg),
VMSTATE_UINT64(ZMM_Q(6), ZMMReg),
VMSTATE_UINT64(ZMM_Q(7), ZMMReg),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_ZMMH_REGS_VARS(_field, _state, _start) \
VMSTATE_STRUCT_SUB_ARRAY(_field, _state, _start, CPU_NB_REGS, 0, \
vmstate_zmmh_reg, ZMMReg)
#ifdef TARGET_X86_64
static const VMStateDescription vmstate_hi16_zmm_reg = {
.name = "hi16_zmm_reg",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(ZMM_Q(0), ZMMReg),
VMSTATE_UINT64(ZMM_Q(1), ZMMReg),
VMSTATE_UINT64(ZMM_Q(2), ZMMReg),
VMSTATE_UINT64(ZMM_Q(3), ZMMReg),
VMSTATE_UINT64(ZMM_Q(4), ZMMReg),
VMSTATE_UINT64(ZMM_Q(5), ZMMReg),
VMSTATE_UINT64(ZMM_Q(6), ZMMReg),
VMSTATE_UINT64(ZMM_Q(7), ZMMReg),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_Hi16_ZMM_REGS_VARS(_field, _state, _start) \
VMSTATE_STRUCT_SUB_ARRAY(_field, _state, _start, CPU_NB_REGS, 0, \
vmstate_hi16_zmm_reg, ZMMReg)
#endif
static const VMStateDescription vmstate_bnd_regs = {
.name = "bnd_regs",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(lb, BNDReg),
VMSTATE_UINT64(ub, BNDReg),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_BND_REGS(_field, _state, _n) \
VMSTATE_STRUCT_ARRAY(_field, _state, _n, 0, vmstate_bnd_regs, BNDReg)
static const VMStateDescription vmstate_mtrr_var = {
.name = "mtrr_var",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_UINT64(base, MTRRVar),
VMSTATE_UINT64(mask, MTRRVar),
VMSTATE_END_OF_LIST()
}
};
#define VMSTATE_MTRR_VARS(_field, _state, _n, _v) \
VMSTATE_STRUCT_ARRAY(_field, _state, _n, _v, vmstate_mtrr_var, MTRRVar)
typedef struct x86_FPReg_tmp {
FPReg *parent;
uint64_t tmp_mant;
uint16_t tmp_exp;
} x86_FPReg_tmp;
static void cpu_get_fp80(uint64_t *pmant, uint16_t *pexp, floatx80 f)
{
CPU_LDoubleU temp;
temp.d = f;
*pmant = temp.l.lower;
*pexp = temp.l.upper;
}
static floatx80 cpu_set_fp80(uint64_t mant, uint16_t upper)
{
CPU_LDoubleU temp;
temp.l.upper = upper;
temp.l.lower = mant;
return temp.d;
}
static int fpreg_pre_save(void *opaque)
{
x86_FPReg_tmp *tmp = opaque;
/* we save the real CPU data (in case of MMX usage only 'mant'
contains the MMX register */
cpu_get_fp80(&tmp->tmp_mant, &tmp->tmp_exp, tmp->parent->d);
return 0;
}
static int fpreg_post_load(void *opaque, int version)
{
x86_FPReg_tmp *tmp = opaque;
tmp->parent->d = cpu_set_fp80(tmp->tmp_mant, tmp->tmp_exp);
return 0;
}
static const VMStateDescription vmstate_fpreg_tmp = {
.name = "fpreg_tmp",
.post_load = fpreg_post_load,
.pre_save = fpreg_pre_save,
.fields = (VMStateField[]) {
VMSTATE_UINT64(tmp_mant, x86_FPReg_tmp),
VMSTATE_UINT16(tmp_exp, x86_FPReg_tmp),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_fpreg = {
.name = "fpreg",
.fields = (VMStateField[]) {
VMSTATE_WITH_TMP(FPReg, x86_FPReg_tmp, vmstate_fpreg_tmp),
VMSTATE_END_OF_LIST()
}
};
static int cpu_pre_save(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
/* FPU */
env->fpus_vmstate = (env->fpus & ~0x3800) | (env->fpstt & 0x7) << 11;
env->fptag_vmstate = 0;
for(i = 0; i < 8; i++) {
env->fptag_vmstate |= ((!env->fptags[i]) << i);
}
env->fpregs_format_vmstate = 0;
/*
* Real mode guest segments register DPL should be zero.
* Older KVM version were setting it wrongly.
* Fixing it will allow live migration to host with unrestricted guest
* support (otherwise the migration will fail with invalid guest state
* error).
*/
if (!(env->cr[0] & CR0_PE_MASK) &&
(env->segs[R_CS].flags >> DESC_DPL_SHIFT & 3) != 0) {
env->segs[R_CS].flags &= ~(env->segs[R_CS].flags & DESC_DPL_MASK);
env->segs[R_DS].flags &= ~(env->segs[R_DS].flags & DESC_DPL_MASK);
env->segs[R_ES].flags &= ~(env->segs[R_ES].flags & DESC_DPL_MASK);
env->segs[R_FS].flags &= ~(env->segs[R_FS].flags & DESC_DPL_MASK);
env->segs[R_GS].flags &= ~(env->segs[R_GS].flags & DESC_DPL_MASK);
env->segs[R_SS].flags &= ~(env->segs[R_SS].flags & DESC_DPL_MASK);
}
#ifdef CONFIG_KVM
/*
* In case vCPU may have enabled VMX, we need to make sure kernel have
* required capabilities in order to perform migration correctly:
*
* 1) We must be able to extract vCPU nested-state from KVM.
*
* 2) In case vCPU is running in guest-mode and it has a pending exception,
* we must be able to determine if it's in a pending or injected state.
* Note that in case KVM don't have required capability to do so,
* a pending/injected exception will always appear as an
* injected exception.
*/
if (kvm_enabled() && cpu_vmx_maybe_enabled(env) &&
(!env->nested_state ||
(!kvm_has_exception_payload() && (env->hflags & HF_GUEST_MASK) &&
env->exception_injected))) {
error_report("Guest maybe enabled nested virtualization but kernel "
"does not support required capabilities to save vCPU "
"nested state");
return -EINVAL;
}
#endif
/*
* When vCPU is running L2 and exception is still pending,
* it can potentially be intercepted by L1 hypervisor.
* In contrast to an injected exception which cannot be
* intercepted anymore.
*
* Furthermore, when a L2 exception is intercepted by L1
* hypervisor, its exception payload (CR2/DR6 on #PF/#DB)
* should not be set yet in the respective vCPU register.
* Thus, in case an exception is pending, it is
* important to save the exception payload seperately.
*
* Therefore, if an exception is not in a pending state
* or vCPU is not in guest-mode, it is not important to
* distinguish between a pending and injected exception
* and we don't need to store seperately the exception payload.
*
* In order to preserve better backwards-compatible migration,
* convert a pending exception to an injected exception in
* case it is not important to distinguish between them
* as described above.
*/
if (env->exception_pending && !(env->hflags & HF_GUEST_MASK)) {
env->exception_pending = 0;
env->exception_injected = 1;
if (env->exception_has_payload) {
if (env->exception_nr == EXCP01_DB) {
env->dr[6] = env->exception_payload;
} else if (env->exception_nr == EXCP0E_PAGE) {
env->cr[2] = env->exception_payload;
}
}
}
return 0;
}
static int cpu_post_load(void *opaque, int version_id)
{
X86CPU *cpu = opaque;
CPUState *cs = CPU(cpu);
CPUX86State *env = &cpu->env;
int i;
if (env->tsc_khz && env->user_tsc_khz &&
env->tsc_khz != env->user_tsc_khz) {
error_report("Mismatch between user-specified TSC frequency and "
"migrated TSC frequency");
return -EINVAL;
}
if (env->fpregs_format_vmstate) {
error_report("Unsupported old non-softfloat CPU state");
return -EINVAL;
}
/*
* Real mode guest segments register DPL should be zero.
* Older KVM version were setting it wrongly.
* Fixing it will allow live migration from such host that don't have
* restricted guest support to a host with unrestricted guest support
* (otherwise the migration will fail with invalid guest state
* error).
*/
if (!(env->cr[0] & CR0_PE_MASK) &&
(env->segs[R_CS].flags >> DESC_DPL_SHIFT & 3) != 0) {
env->segs[R_CS].flags &= ~(env->segs[R_CS].flags & DESC_DPL_MASK);
env->segs[R_DS].flags &= ~(env->segs[R_DS].flags & DESC_DPL_MASK);
env->segs[R_ES].flags &= ~(env->segs[R_ES].flags & DESC_DPL_MASK);
env->segs[R_FS].flags &= ~(env->segs[R_FS].flags & DESC_DPL_MASK);
env->segs[R_GS].flags &= ~(env->segs[R_GS].flags & DESC_DPL_MASK);
env->segs[R_SS].flags &= ~(env->segs[R_SS].flags & DESC_DPL_MASK);
}
/* Older versions of QEMU incorrectly used CS.DPL as the CPL when
* running under KVM. This is wrong for conforming code segments.
* Luckily, in our implementation the CPL field of hflags is redundant
* and we can get the right value from the SS descriptor privilege level.
*/
env->hflags &= ~HF_CPL_MASK;
env->hflags |= (env->segs[R_SS].flags >> DESC_DPL_SHIFT) & HF_CPL_MASK;
#ifdef CONFIG_KVM
if ((env->hflags & HF_GUEST_MASK) &&
(!env->nested_state ||
!(env->nested_state->flags & KVM_STATE_NESTED_GUEST_MODE))) {
error_report("vCPU set in guest-mode inconsistent with "
"migrated kernel nested state");
return -EINVAL;
}
#endif
/*
* There are cases that we can get valid exception_nr with both
* exception_pending and exception_injected being cleared.
* This can happen in one of the following scenarios:
* 1) Source is older QEMU without KVM_CAP_EXCEPTION_PAYLOAD support.
* 2) Source is running on kernel without KVM_CAP_EXCEPTION_PAYLOAD support.
* 3) "cpu/exception_info" subsection not sent because there is no exception
* pending or guest wasn't running L2 (See comment in cpu_pre_save()).
*
* In those cases, we can just deduce that a valid exception_nr means
* we can treat the exception as already injected.
*/
if ((env->exception_nr != -1) &&
!env->exception_pending && !env->exception_injected) {
env->exception_injected = 1;
}
env->fpstt = (env->fpus_vmstate >> 11) & 7;
env->fpus = env->fpus_vmstate & ~0x3800;
env->fptag_vmstate ^= 0xff;
for(i = 0; i < 8; i++) {
env->fptags[i] = (env->fptag_vmstate >> i) & 1;
}
if (tcg_enabled()) {
target_ulong dr7;
update_fp_status(env);
update_mxcsr_status(env);
cpu_breakpoint_remove_all(cs, BP_CPU);
cpu_watchpoint_remove_all(cs, BP_CPU);
/* Indicate all breakpoints disabled, as they are, then
let the helper re-enable them. */
dr7 = env->dr[7];
env->dr[7] = dr7 & ~(DR7_GLOBAL_BP_MASK | DR7_LOCAL_BP_MASK);
cpu_x86_update_dr7(env, dr7);
}
tlb_flush(cs);
return 0;
}
static bool async_pf_msr_needed(void *opaque)
{
X86CPU *cpu = opaque;
return cpu->env.async_pf_en_msr != 0;
}
static bool async_pf_int_msr_needed(void *opaque)
{
X86CPU *cpu = opaque;
return cpu->env.async_pf_int_msr != 0;
}
static bool pv_eoi_msr_needed(void *opaque)
{
X86CPU *cpu = opaque;
return cpu->env.pv_eoi_en_msr != 0;
}
static bool steal_time_msr_needed(void *opaque)
{
X86CPU *cpu = opaque;
return cpu->env.steal_time_msr != 0;
}
static bool exception_info_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
/*
* It is important to save exception-info only in case
* we need to distinguish between a pending and injected
* exception. Which is only required in case there is a
* pending exception and vCPU is running L2.
* For more info, refer to comment in cpu_pre_save().
*/
return env->exception_pending && (env->hflags & HF_GUEST_MASK);
}
static const VMStateDescription vmstate_exception_info = {
.name = "cpu/exception_info",
.version_id = 1,
.minimum_version_id = 1,
.needed = exception_info_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT8(env.exception_pending, X86CPU),
VMSTATE_UINT8(env.exception_injected, X86CPU),
VMSTATE_UINT8(env.exception_has_payload, X86CPU),
VMSTATE_UINT64(env.exception_payload, X86CPU),
VMSTATE_END_OF_LIST()
}
};
/* Poll control MSR enabled by default */
static bool poll_control_msr_needed(void *opaque)
{
X86CPU *cpu = opaque;
return cpu->env.poll_control_msr != 1;
}
static const VMStateDescription vmstate_steal_time_msr = {
.name = "cpu/steal_time_msr",
.version_id = 1,
.minimum_version_id = 1,
.needed = steal_time_msr_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.steal_time_msr, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_async_pf_msr = {
.name = "cpu/async_pf_msr",
.version_id = 1,
.minimum_version_id = 1,
.needed = async_pf_msr_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.async_pf_en_msr, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_async_pf_int_msr = {
.name = "cpu/async_pf_int_msr",
.version_id = 1,
.minimum_version_id = 1,
.needed = async_pf_int_msr_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.async_pf_int_msr, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_pv_eoi_msr = {
.name = "cpu/async_pv_eoi_msr",
.version_id = 1,
.minimum_version_id = 1,
.needed = pv_eoi_msr_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.pv_eoi_en_msr, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_poll_control_msr = {
.name = "cpu/poll_control_msr",
.version_id = 1,
.minimum_version_id = 1,
.needed = poll_control_msr_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.poll_control_msr, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool fpop_ip_dp_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->fpop != 0 || env->fpip != 0 || env->fpdp != 0;
}
static const VMStateDescription vmstate_fpop_ip_dp = {
.name = "cpu/fpop_ip_dp",
.version_id = 1,
.minimum_version_id = 1,
.needed = fpop_ip_dp_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT16(env.fpop, X86CPU),
VMSTATE_UINT64(env.fpip, X86CPU),
VMSTATE_UINT64(env.fpdp, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool tsc_adjust_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->tsc_adjust != 0;
}
static const VMStateDescription vmstate_msr_tsc_adjust = {
.name = "cpu/msr_tsc_adjust",
.version_id = 1,
.minimum_version_id = 1,
.needed = tsc_adjust_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.tsc_adjust, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool msr_smi_count_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return cpu->migrate_smi_count && env->msr_smi_count != 0;
}
static const VMStateDescription vmstate_msr_smi_count = {
.name = "cpu/msr_smi_count",
.version_id = 1,
.minimum_version_id = 1,
.needed = msr_smi_count_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_smi_count, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool tscdeadline_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->tsc_deadline != 0;
}
static const VMStateDescription vmstate_msr_tscdeadline = {
.name = "cpu/msr_tscdeadline",
.version_id = 1,
.minimum_version_id = 1,
.needed = tscdeadline_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.tsc_deadline, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool misc_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_ia32_misc_enable != MSR_IA32_MISC_ENABLE_DEFAULT;
}
static bool feature_control_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_ia32_feature_control != 0;
}
static const VMStateDescription vmstate_msr_ia32_misc_enable = {
.name = "cpu/msr_ia32_misc_enable",
.version_id = 1,
.minimum_version_id = 1,
.needed = misc_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_ia32_misc_enable, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static const VMStateDescription vmstate_msr_ia32_feature_control = {
.name = "cpu/msr_ia32_feature_control",
.version_id = 1,
.minimum_version_id = 1,
.needed = feature_control_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_ia32_feature_control, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool pmu_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
if (env->msr_fixed_ctr_ctrl || env->msr_global_ctrl ||
env->msr_global_status || env->msr_global_ovf_ctrl) {
return true;
}
for (i = 0; i < MAX_FIXED_COUNTERS; i++) {
if (env->msr_fixed_counters[i]) {
return true;
}
}
for (i = 0; i < MAX_GP_COUNTERS; i++) {
if (env->msr_gp_counters[i] || env->msr_gp_evtsel[i]) {
return true;
}
}
return false;
}
static const VMStateDescription vmstate_msr_architectural_pmu = {
.name = "cpu/msr_architectural_pmu",
.version_id = 1,
.minimum_version_id = 1,
.needed = pmu_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_fixed_ctr_ctrl, X86CPU),
VMSTATE_UINT64(env.msr_global_ctrl, X86CPU),
VMSTATE_UINT64(env.msr_global_status, X86CPU),
VMSTATE_UINT64(env.msr_global_ovf_ctrl, X86CPU),
VMSTATE_UINT64_ARRAY(env.msr_fixed_counters, X86CPU, MAX_FIXED_COUNTERS),
VMSTATE_UINT64_ARRAY(env.msr_gp_counters, X86CPU, MAX_GP_COUNTERS),
VMSTATE_UINT64_ARRAY(env.msr_gp_evtsel, X86CPU, MAX_GP_COUNTERS),
VMSTATE_END_OF_LIST()
}
};
static bool mpx_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
unsigned int i;
for (i = 0; i < 4; i++) {
if (env->bnd_regs[i].lb || env->bnd_regs[i].ub) {
return true;
}
}
if (env->bndcs_regs.cfgu || env->bndcs_regs.sts) {
return true;
}
return !!env->msr_bndcfgs;
}
static const VMStateDescription vmstate_mpx = {
.name = "cpu/mpx",
.version_id = 1,
.minimum_version_id = 1,
.needed = mpx_needed,
.fields = (VMStateField[]) {
VMSTATE_BND_REGS(env.bnd_regs, X86CPU, 4),
VMSTATE_UINT64(env.bndcs_regs.cfgu, X86CPU),
VMSTATE_UINT64(env.bndcs_regs.sts, X86CPU),
VMSTATE_UINT64(env.msr_bndcfgs, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_hypercall_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_hv_hypercall != 0 || env->msr_hv_guest_os_id != 0;
}
static const VMStateDescription vmstate_msr_hypercall_hypercall = {
.name = "cpu/msr_hyperv_hypercall",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_hypercall_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_guest_os_id, X86CPU),
VMSTATE_UINT64(env.msr_hv_hypercall, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_vapic_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_hv_vapic != 0;
}
static const VMStateDescription vmstate_msr_hyperv_vapic = {
.name = "cpu/msr_hyperv_vapic",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_vapic_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_vapic, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_time_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_hv_tsc != 0;
}
static const VMStateDescription vmstate_msr_hyperv_time = {
.name = "cpu/msr_hyperv_time",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_time_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_tsc, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_crash_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
for (i = 0; i < HV_CRASH_PARAMS; i++) {
if (env->msr_hv_crash_params[i]) {
return true;
}
}
return false;
}
static const VMStateDescription vmstate_msr_hyperv_crash = {
.name = "cpu/msr_hyperv_crash",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_crash_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64_ARRAY(env.msr_hv_crash_params, X86CPU, HV_CRASH_PARAMS),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_runtime_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
if (!hyperv_feat_enabled(cpu, HYPERV_FEAT_RUNTIME)) {
return false;
}
return env->msr_hv_runtime != 0;
}
static const VMStateDescription vmstate_msr_hyperv_runtime = {
.name = "cpu/msr_hyperv_runtime",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_runtime_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_runtime, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_synic_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
if (env->msr_hv_synic_control != 0 ||
env->msr_hv_synic_evt_page != 0 ||
env->msr_hv_synic_msg_page != 0) {
return true;
}
for (i = 0; i < ARRAY_SIZE(env->msr_hv_synic_sint); i++) {
if (env->msr_hv_synic_sint[i] != 0) {
return true;
}
}
return false;
}
static int hyperv_synic_post_load(void *opaque, int version_id)
{
X86CPU *cpu = opaque;
hyperv_x86_synic_update(cpu);
return 0;
}
static const VMStateDescription vmstate_msr_hyperv_synic = {
.name = "cpu/msr_hyperv_synic",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_synic_enable_needed,
.post_load = hyperv_synic_post_load,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_synic_control, X86CPU),
VMSTATE_UINT64(env.msr_hv_synic_evt_page, X86CPU),
VMSTATE_UINT64(env.msr_hv_synic_msg_page, X86CPU),
VMSTATE_UINT64_ARRAY(env.msr_hv_synic_sint, X86CPU, HV_SINT_COUNT),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_stimer_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
for (i = 0; i < ARRAY_SIZE(env->msr_hv_stimer_config); i++) {
if (env->msr_hv_stimer_config[i] || env->msr_hv_stimer_count[i]) {
return true;
}
}
return false;
}
static const VMStateDescription vmstate_msr_hyperv_stimer = {
.name = "cpu/msr_hyperv_stimer",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_stimer_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64_ARRAY(env.msr_hv_stimer_config, X86CPU,
HV_STIMER_COUNT),
VMSTATE_UINT64_ARRAY(env.msr_hv_stimer_count, X86CPU, HV_STIMER_COUNT),
VMSTATE_END_OF_LIST()
}
};
static bool hyperv_reenlightenment_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->msr_hv_reenlightenment_control != 0 ||
env->msr_hv_tsc_emulation_control != 0 ||
env->msr_hv_tsc_emulation_status != 0;
}
static const VMStateDescription vmstate_msr_hyperv_reenlightenment = {
.name = "cpu/msr_hyperv_reenlightenment",
.version_id = 1,
.minimum_version_id = 1,
.needed = hyperv_reenlightenment_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_hv_reenlightenment_control, X86CPU),
VMSTATE_UINT64(env.msr_hv_tsc_emulation_control, X86CPU),
VMSTATE_UINT64(env.msr_hv_tsc_emulation_status, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool avx512_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
unsigned int i;
for (i = 0; i < NB_OPMASK_REGS; i++) {
if (env->opmask_regs[i]) {
return true;
}
}
for (i = 0; i < CPU_NB_REGS; i++) {
#define ENV_XMM(reg, field) (env->xmm_regs[reg].ZMM_Q(field))
if (ENV_XMM(i, 4) || ENV_XMM(i, 6) ||
ENV_XMM(i, 5) || ENV_XMM(i, 7)) {
return true;
}
#ifdef TARGET_X86_64
if (ENV_XMM(i+16, 0) || ENV_XMM(i+16, 1) ||
ENV_XMM(i+16, 2) || ENV_XMM(i+16, 3) ||
ENV_XMM(i+16, 4) || ENV_XMM(i+16, 5) ||
ENV_XMM(i+16, 6) || ENV_XMM(i+16, 7)) {
return true;
}
#endif
}
return false;
}
static const VMStateDescription vmstate_avx512 = {
.name = "cpu/avx512",
.version_id = 1,
.minimum_version_id = 1,
.needed = avx512_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64_ARRAY(env.opmask_regs, X86CPU, NB_OPMASK_REGS),
VMSTATE_ZMMH_REGS_VARS(env.xmm_regs, X86CPU, 0),
#ifdef TARGET_X86_64
VMSTATE_Hi16_ZMM_REGS_VARS(env.xmm_regs, X86CPU, 16),
#endif
VMSTATE_END_OF_LIST()
}
};
static bool xss_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->xss != 0;
}
static const VMStateDescription vmstate_xss = {
.name = "cpu/xss",
.version_id = 1,
.minimum_version_id = 1,
.needed = xss_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.xss, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool umwait_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->umwait != 0;
}
static const VMStateDescription vmstate_umwait = {
.name = "cpu/umwait",
.version_id = 1,
.minimum_version_id = 1,
.needed = umwait_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT32(env.umwait, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool pkru_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->pkru != 0;
}
static const VMStateDescription vmstate_pkru = {
.name = "cpu/pkru",
.version_id = 1,
.minimum_version_id = 1,
.needed = pkru_needed,
.fields = (VMStateField[]){
VMSTATE_UINT32(env.pkru, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool pkrs_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->pkrs != 0;
}
static const VMStateDescription vmstate_pkrs = {
.name = "cpu/pkrs",
.version_id = 1,
.minimum_version_id = 1,
.needed = pkrs_needed,
.fields = (VMStateField[]){
VMSTATE_UINT32(env.pkrs, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool tsc_khz_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
MachineClass *mc = MACHINE_GET_CLASS(qdev_get_machine());
X86MachineClass *x86mc = X86_MACHINE_CLASS(mc);
return env->tsc_khz && x86mc->save_tsc_khz;
}
static const VMStateDescription vmstate_tsc_khz = {
.name = "cpu/tsc_khz",
.version_id = 1,
.minimum_version_id = 1,
.needed = tsc_khz_needed,
.fields = (VMStateField[]) {
VMSTATE_INT64(env.tsc_khz, X86CPU),
VMSTATE_END_OF_LIST()
}
};
#ifdef CONFIG_KVM
static bool vmx_vmcs12_needed(void *opaque)
{
struct kvm_nested_state *nested_state = opaque;
return (nested_state->size >
offsetof(struct kvm_nested_state, data.vmx[0].vmcs12));
}
static const VMStateDescription vmstate_vmx_vmcs12 = {
.name = "cpu/kvm_nested_state/vmx/vmcs12",
.version_id = 1,
.minimum_version_id = 1,
.needed = vmx_vmcs12_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT8_ARRAY(data.vmx[0].vmcs12,
struct kvm_nested_state,
KVM_STATE_NESTED_VMX_VMCS_SIZE),
VMSTATE_END_OF_LIST()
}
};
static bool vmx_shadow_vmcs12_needed(void *opaque)
{
struct kvm_nested_state *nested_state = opaque;
return (nested_state->size >
offsetof(struct kvm_nested_state, data.vmx[0].shadow_vmcs12));
}
static const VMStateDescription vmstate_vmx_shadow_vmcs12 = {
.name = "cpu/kvm_nested_state/vmx/shadow_vmcs12",
.version_id = 1,
.minimum_version_id = 1,
.needed = vmx_shadow_vmcs12_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT8_ARRAY(data.vmx[0].shadow_vmcs12,
struct kvm_nested_state,
KVM_STATE_NESTED_VMX_VMCS_SIZE),
VMSTATE_END_OF_LIST()
}
};
static bool vmx_nested_state_needed(void *opaque)
{
struct kvm_nested_state *nested_state = opaque;
return (nested_state->format == KVM_STATE_NESTED_FORMAT_VMX &&
nested_state->hdr.vmx.vmxon_pa != -1ull);
}
static const VMStateDescription vmstate_vmx_nested_state = {
.name = "cpu/kvm_nested_state/vmx",
.version_id = 1,
.minimum_version_id = 1,
.needed = vmx_nested_state_needed,
.fields = (VMStateField[]) {
VMSTATE_U64(hdr.vmx.vmxon_pa, struct kvm_nested_state),
VMSTATE_U64(hdr.vmx.vmcs12_pa, struct kvm_nested_state),
VMSTATE_U16(hdr.vmx.smm.flags, struct kvm_nested_state),
VMSTATE_END_OF_LIST()
},
.subsections = (const VMStateDescription*[]) {
&vmstate_vmx_vmcs12,
&vmstate_vmx_shadow_vmcs12,
NULL,
}
};
static bool svm_nested_state_needed(void *opaque)
{
struct kvm_nested_state *nested_state = opaque;
/*
* HF_GUEST_MASK and HF2_GIF_MASK are already serialized
* via hflags and hflags2, all that's left is the opaque
* nested state blob.
*/
return (nested_state->format == KVM_STATE_NESTED_FORMAT_SVM &&
nested_state->size > offsetof(struct kvm_nested_state, data));
}
static const VMStateDescription vmstate_svm_nested_state = {
.name = "cpu/kvm_nested_state/svm",
.version_id = 1,
.minimum_version_id = 1,
.needed = svm_nested_state_needed,
.fields = (VMStateField[]) {
VMSTATE_U64(hdr.svm.vmcb_pa, struct kvm_nested_state),
VMSTATE_UINT8_ARRAY(data.svm[0].vmcb12,
struct kvm_nested_state,
KVM_STATE_NESTED_SVM_VMCB_SIZE),
VMSTATE_END_OF_LIST()
}
};
static bool nested_state_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return (env->nested_state &&
(vmx_nested_state_needed(env->nested_state) ||
svm_nested_state_needed(env->nested_state)));
}
static int nested_state_post_load(void *opaque, int version_id)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
struct kvm_nested_state *nested_state = env->nested_state;
int min_nested_state_len = offsetof(struct kvm_nested_state, data);
int max_nested_state_len = kvm_max_nested_state_length();
/*
* If our kernel don't support setting nested state
* and we have received nested state from migration stream,
* we need to fail migration
*/
if (max_nested_state_len <= 0) {
error_report("Received nested state when kernel cannot restore it");
return -EINVAL;
}
/*
* Verify that the size of received nested_state struct
* at least cover required header and is not larger
* than the max size that our kernel support
*/
if (nested_state->size < min_nested_state_len) {
error_report("Received nested state size less than min: "
"len=%d, min=%d",
nested_state->size, min_nested_state_len);
return -EINVAL;
}
if (nested_state->size > max_nested_state_len) {
error_report("Recieved unsupported nested state size: "
"nested_state->size=%d, max=%d",
nested_state->size, max_nested_state_len);
return -EINVAL;
}
/* Verify format is valid */
if ((nested_state->format != KVM_STATE_NESTED_FORMAT_VMX) &&
(nested_state->format != KVM_STATE_NESTED_FORMAT_SVM)) {
error_report("Received invalid nested state format: %d",
nested_state->format);
return -EINVAL;
}
return 0;
}
static const VMStateDescription vmstate_kvm_nested_state = {
.name = "cpu/kvm_nested_state",
.version_id = 1,
.minimum_version_id = 1,
.fields = (VMStateField[]) {
VMSTATE_U16(flags, struct kvm_nested_state),
VMSTATE_U16(format, struct kvm_nested_state),
VMSTATE_U32(size, struct kvm_nested_state),
VMSTATE_END_OF_LIST()
},
.subsections = (const VMStateDescription*[]) {
&vmstate_vmx_nested_state,
&vmstate_svm_nested_state,
NULL
}
};
static const VMStateDescription vmstate_nested_state = {
.name = "cpu/nested_state",
.version_id = 1,
.minimum_version_id = 1,
.needed = nested_state_needed,
.post_load = nested_state_post_load,
.fields = (VMStateField[]) {
VMSTATE_STRUCT_POINTER(env.nested_state, X86CPU,
vmstate_kvm_nested_state,
struct kvm_nested_state),
VMSTATE_END_OF_LIST()
}
};
#endif
static bool mcg_ext_ctl_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return cpu->enable_lmce && env->mcg_ext_ctl;
}
static const VMStateDescription vmstate_mcg_ext_ctl = {
.name = "cpu/mcg_ext_ctl",
.version_id = 1,
.minimum_version_id = 1,
.needed = mcg_ext_ctl_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.mcg_ext_ctl, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool spec_ctrl_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->spec_ctrl != 0;
}
static const VMStateDescription vmstate_spec_ctrl = {
.name = "cpu/spec_ctrl",
.version_id = 1,
.minimum_version_id = 1,
.needed = spec_ctrl_needed,
.fields = (VMStateField[]){
VMSTATE_UINT64(env.spec_ctrl, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool intel_pt_enable_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
int i;
if (env->msr_rtit_ctrl || env->msr_rtit_status ||
env->msr_rtit_output_base || env->msr_rtit_output_mask ||
env->msr_rtit_cr3_match) {
return true;
}
for (i = 0; i < MAX_RTIT_ADDRS; i++) {
if (env->msr_rtit_addrs[i]) {
return true;
}
}
return false;
}
static const VMStateDescription vmstate_msr_intel_pt = {
.name = "cpu/intel_pt",
.version_id = 1,
.minimum_version_id = 1,
.needed = intel_pt_enable_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.msr_rtit_ctrl, X86CPU),
VMSTATE_UINT64(env.msr_rtit_status, X86CPU),
VMSTATE_UINT64(env.msr_rtit_output_base, X86CPU),
VMSTATE_UINT64(env.msr_rtit_output_mask, X86CPU),
VMSTATE_UINT64(env.msr_rtit_cr3_match, X86CPU),
VMSTATE_UINT64_ARRAY(env.msr_rtit_addrs, X86CPU, MAX_RTIT_ADDRS),
VMSTATE_END_OF_LIST()
}
};
static bool virt_ssbd_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->virt_ssbd != 0;
}
static const VMStateDescription vmstate_msr_virt_ssbd = {
.name = "cpu/virt_ssbd",
.version_id = 1,
.minimum_version_id = 1,
.needed = virt_ssbd_needed,
.fields = (VMStateField[]){
VMSTATE_UINT64(env.virt_ssbd, X86CPU),
VMSTATE_END_OF_LIST()
}
};
static bool svm_npt_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return !!(env->hflags2 & HF2_NPT_MASK);
}
static const VMStateDescription vmstate_svm_npt = {
.name = "cpu/svn_npt",
.version_id = 1,
.minimum_version_id = 1,
.needed = svm_npt_needed,
.fields = (VMStateField[]){
VMSTATE_UINT64(env.nested_cr3, X86CPU),
VMSTATE_UINT32(env.nested_pg_mode, X86CPU),
VMSTATE_END_OF_LIST()
}
};
#ifndef TARGET_X86_64
static bool intel_efer32_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->efer != 0;
}
static const VMStateDescription vmstate_efer32 = {
.name = "cpu/efer32",
.version_id = 1,
.minimum_version_id = 1,
.needed = intel_efer32_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT64(env.efer, X86CPU),
VMSTATE_END_OF_LIST()
}
};
#endif
static bool msr_tsx_ctrl_needed(void *opaque)
{
X86CPU *cpu = opaque;
CPUX86State *env = &cpu->env;
return env->features[FEAT_ARCH_CAPABILITIES] & ARCH_CAP_TSX_CTRL_MSR;
}
static const VMStateDescription vmstate_msr_tsx_ctrl = {
.name = "cpu/msr_tsx_ctrl",
.version_id = 1,
.minimum_version_id = 1,
.needed = msr_tsx_ctrl_needed,
.fields = (VMStateField[]) {
VMSTATE_UINT32(env.tsx_ctrl, X86CPU),
VMSTATE_END_OF_LIST()
}
};
VMStateDescription vmstate_x86_cpu = {
.name = "cpu",
.version_id = 12,
.minimum_version_id = 11,
.pre_save = cpu_pre_save,
.post_load = cpu_post_load,
.fields = (VMStateField[]) {
VMSTATE_UINTTL_ARRAY(env.regs, X86CPU, CPU_NB_REGS),
VMSTATE_UINTTL(env.eip, X86CPU),
VMSTATE_UINTTL(env.eflags, X86CPU),
VMSTATE_UINT32(env.hflags, X86CPU),
/* FPU */
VMSTATE_UINT16(env.fpuc, X86CPU),
VMSTATE_UINT16(env.fpus_vmstate, X86CPU),
VMSTATE_UINT16(env.fptag_vmstate, X86CPU),
VMSTATE_UINT16(env.fpregs_format_vmstate, X86CPU),
VMSTATE_STRUCT_ARRAY(env.fpregs, X86CPU, 8, 0, vmstate_fpreg, FPReg),
VMSTATE_SEGMENT_ARRAY(env.segs, X86CPU, 6),
VMSTATE_SEGMENT(env.ldt, X86CPU),
VMSTATE_SEGMENT(env.tr, X86CPU),
VMSTATE_SEGMENT(env.gdt, X86CPU),
VMSTATE_SEGMENT(env.idt, X86CPU),
VMSTATE_UINT32(env.sysenter_cs, X86CPU),
VMSTATE_UINTTL(env.sysenter_esp, X86CPU),
VMSTATE_UINTTL(env.sysenter_eip, X86CPU),
VMSTATE_UINTTL(env.cr[0], X86CPU),
VMSTATE_UINTTL(env.cr[2], X86CPU),
VMSTATE_UINTTL(env.cr[3], X86CPU),
VMSTATE_UINTTL(env.cr[4], X86CPU),
VMSTATE_UINTTL_ARRAY(env.dr, X86CPU, 8),
/* MMU */
VMSTATE_INT32(env.a20_mask, X86CPU),
/* XMM */
VMSTATE_UINT32(env.mxcsr, X86CPU),
VMSTATE_XMM_REGS(env.xmm_regs, X86CPU, 0),
#ifdef TARGET_X86_64
VMSTATE_UINT64(env.efer, X86CPU),
VMSTATE_UINT64(env.star, X86CPU),
VMSTATE_UINT64(env.lstar, X86CPU),
VMSTATE_UINT64(env.cstar, X86CPU),
VMSTATE_UINT64(env.fmask, X86CPU),
VMSTATE_UINT64(env.kernelgsbase, X86CPU),
#endif
VMSTATE_UINT32(env.smbase, X86CPU),
VMSTATE_UINT64(env.pat, X86CPU),
VMSTATE_UINT32(env.hflags2, X86CPU),
VMSTATE_UINT64(env.vm_hsave, X86CPU),
VMSTATE_UINT64(env.vm_vmcb, X86CPU),
VMSTATE_UINT64(env.tsc_offset, X86CPU),
VMSTATE_UINT64(env.intercept, X86CPU),
VMSTATE_UINT16(env.intercept_cr_read, X86CPU),
VMSTATE_UINT16(env.intercept_cr_write, X86CPU),
VMSTATE_UINT16(env.intercept_dr_read, X86CPU),
VMSTATE_UINT16(env.intercept_dr_write, X86CPU),
VMSTATE_UINT32(env.intercept_exceptions, X86CPU),
VMSTATE_UINT8(env.v_tpr, X86CPU),
/* MTRRs */
VMSTATE_UINT64_ARRAY(env.mtrr_fixed, X86CPU, 11),
VMSTATE_UINT64(env.mtrr_deftype, X86CPU),
VMSTATE_MTRR_VARS(env.mtrr_var, X86CPU, MSR_MTRRcap_VCNT, 8),
/* KVM-related states */
VMSTATE_INT32(env.interrupt_injected, X86CPU),
VMSTATE_UINT32(env.mp_state, X86CPU),
VMSTATE_UINT64(env.tsc, X86CPU),
VMSTATE_INT32(env.exception_nr, X86CPU),
VMSTATE_UINT8(env.soft_interrupt, X86CPU),
VMSTATE_UINT8(env.nmi_injected, X86CPU),
VMSTATE_UINT8(env.nmi_pending, X86CPU),
VMSTATE_UINT8(env.has_error_code, X86CPU),
VMSTATE_UINT32(env.sipi_vector, X86CPU),
/* MCE */
VMSTATE_UINT64(env.mcg_cap, X86CPU),
VMSTATE_UINT64(env.mcg_status, X86CPU),
VMSTATE_UINT64(env.mcg_ctl, X86CPU),
VMSTATE_UINT64_ARRAY(env.mce_banks, X86CPU, MCE_BANKS_DEF * 4),
/* rdtscp */
VMSTATE_UINT64(env.tsc_aux, X86CPU),
/* KVM pvclock msr */
VMSTATE_UINT64(env.system_time_msr, X86CPU),
VMSTATE_UINT64(env.wall_clock_msr, X86CPU),
/* XSAVE related fields */
VMSTATE_UINT64_V(env.xcr0, X86CPU, 12),
VMSTATE_UINT64_V(env.xstate_bv, X86CPU, 12),
VMSTATE_YMMH_REGS_VARS(env.xmm_regs, X86CPU, 0, 12),
VMSTATE_END_OF_LIST()
/* The above list is not sorted /wrt version numbers, watch out! */
},
.subsections = (const VMStateDescription*[]) {
&vmstate_exception_info,
&vmstate_async_pf_msr,
&vmstate_async_pf_int_msr,
&vmstate_pv_eoi_msr,
&vmstate_steal_time_msr,
&vmstate_poll_control_msr,
&vmstate_fpop_ip_dp,
&vmstate_msr_tsc_adjust,
&vmstate_msr_tscdeadline,
&vmstate_msr_ia32_misc_enable,
&vmstate_msr_ia32_feature_control,
&vmstate_msr_architectural_pmu,
&vmstate_mpx,
&vmstate_msr_hypercall_hypercall,
&vmstate_msr_hyperv_vapic,
&vmstate_msr_hyperv_time,
&vmstate_msr_hyperv_crash,
&vmstate_msr_hyperv_runtime,
&vmstate_msr_hyperv_synic,
&vmstate_msr_hyperv_stimer,
&vmstate_msr_hyperv_reenlightenment,
&vmstate_avx512,
&vmstate_xss,
&vmstate_umwait,
&vmstate_tsc_khz,
&vmstate_msr_smi_count,
&vmstate_pkru,
&vmstate_pkrs,
&vmstate_spec_ctrl,
&vmstate_mcg_ext_ctl,
&vmstate_msr_intel_pt,
&vmstate_msr_virt_ssbd,
&vmstate_svm_npt,
#ifndef TARGET_X86_64
&vmstate_efer32,
#endif
#ifdef CONFIG_KVM
&vmstate_nested_state,
#endif
&vmstate_msr_tsx_ctrl,
NULL
}
};
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