/** @interface_method_impl{PDMDEVHLPR0,pfnPCISetIrq} */
static DECLCALLBACK(void) pdmR0DevHlp_ISASetIrq(PPDMDEVINS pDevIns, int iIrq, int iLevel)
{
PDMDEV_ASSERT_DEVINS(pDevIns);
LogFlow(("pdmR0DevHlp_ISASetIrq: caller=%p/%d: iIrq=%d iLevel=%d\n", pDevIns, pDevIns->iInstance, iIrq, iLevel));
PVM pVM = pDevIns->Internal.s.pVMR0;
pdmLock(pVM);
uint32_t uTagSrc;
if (iLevel & PDM_IRQ_LEVEL_HIGH)
{
pDevIns->Internal.s.uLastIrqTag = uTagSrc = pdmCalcIrqTag(pVM, pDevIns->idTracing);
if (iLevel == PDM_IRQ_LEVEL_HIGH)
VBOXVMM_PDM_IRQ_HIGH(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
else
VBOXVMM_PDM_IRQ_HILO(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
}
else
uTagSrc = pDevIns->Internal.s.uLastIrqTag;
bool fRc = pdmR0IsaSetIrq(pVM, iIrq, iLevel, uTagSrc);
if (iLevel == PDM_IRQ_LEVEL_LOW && fRc)
VBOXVMM_PDM_IRQ_LOW(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
pdmUnlock(pVM);
LogFlow(("pdmR0DevHlp_ISASetIrq: caller=%p/%d: returns void; uTagSrc=%#x\n", pDevIns, pDevIns->iInstance, uTagSrc));
}
/** @interface_method_impl{PDMHPETHLPR3,pfnSetIrq} */
static DECLCALLBACK(int) pdmR3HpetHlp_SetIrq(PPDMDEVINS pDevIns, int iIrq, int iLevel)
{
PDMDEV_ASSERT_DEVINS(pDevIns);
LogFlow(("pdmR3HpetHlp_SetIrq: caller='%s'/%d: iIrq=%d iLevel=%d\n", pDevIns->pReg->szName, pDevIns->iInstance, iIrq, iLevel));
PVM pVM = pDevIns->Internal.s.pVMR3;
pdmLock(pVM);
uint32_t uTagSrc;
if (iLevel & PDM_IRQ_LEVEL_HIGH)
{
pDevIns->Internal.s.uLastIrqTag = uTagSrc = pdmCalcIrqTag(pVM, pDevIns->idTracing);
if (iLevel == PDM_IRQ_LEVEL_HIGH)
VBOXVMM_PDM_IRQ_HIGH(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
else
VBOXVMM_PDM_IRQ_HILO(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
}
else
uTagSrc = pDevIns->Internal.s.uLastIrqTag;
PDMIsaSetIrq(pVM, iIrq, iLevel, uTagSrc); /* (The API takes the lock recursively.) */
if (iLevel == PDM_IRQ_LEVEL_LOW)
VBOXVMM_PDM_IRQ_LOW(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
pdmUnlock(pVM);
return 0;
}
/**
* Gets the pending interrupt.
*
* @returns VBox status code.
* @param pVCpu Pointer to the VMCPU.
* @param pu8Interrupt Where to store the interrupt on success.
*/
VMMDECL(int) PDMGetInterrupt(PVMCPU pVCpu, uint8_t *pu8Interrupt)
{
PVM pVM = pVCpu->CTX_SUFF(pVM);
pdmLock(pVM);
/*
* The local APIC has a higher priority than the PIC.
*/
if (VMCPU_FF_IS_SET(pVCpu, VMCPU_FF_INTERRUPT_APIC))
{
VMCPU_FF_CLEAR(pVCpu, VMCPU_FF_INTERRUPT_APIC);
Assert(pVM->pdm.s.Apic.CTX_SUFF(pDevIns));
Assert(pVM->pdm.s.Apic.CTX_SUFF(pfnGetInterrupt));
uint32_t uTagSrc;
int i = pVM->pdm.s.Apic.CTX_SUFF(pfnGetInterrupt)(pVM->pdm.s.Apic.CTX_SUFF(pDevIns), pVCpu->idCpu, &uTagSrc);
AssertMsg(i <= 255 && i >= 0, ("i=%d\n", i));
if (i >= 0)
{
pdmUnlock(pVM);
*pu8Interrupt = (uint8_t)i;
VBOXVMM_PDM_IRQ_GET(pVCpu, RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc), i);
return VINF_SUCCESS;
}
}
/*
* Check the PIC.
*/
if (VMCPU_FF_IS_SET(pVCpu, VMCPU_FF_INTERRUPT_PIC))
{
VMCPU_FF_CLEAR(pVCpu, VMCPU_FF_INTERRUPT_PIC);
Assert(pVM->pdm.s.Pic.CTX_SUFF(pDevIns));
Assert(pVM->pdm.s.Pic.CTX_SUFF(pfnGetInterrupt));
uint32_t uTagSrc;
int i = pVM->pdm.s.Pic.CTX_SUFF(pfnGetInterrupt)(pVM->pdm.s.Pic.CTX_SUFF(pDevIns), &uTagSrc);
AssertMsg(i <= 255 && i >= 0, ("i=%d\n", i));
if (i >= 0)
{
pdmUnlock(pVM);
*pu8Interrupt = (uint8_t)i;
VBOXVMM_PDM_IRQ_GET(pVCpu, RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc), i);
return VINF_SUCCESS;
}
}
/** @todo Figure out exactly why we can get here without anything being set. (REM) */
pdmUnlock(pVM);
return VERR_NO_DATA;
}
/** @interface_method_impl{PDMDEVHLPR0,pfnPCISetIrq} */
static DECLCALLBACK(void) pdmR0DevHlp_PCISetIrq(PPDMDEVINS pDevIns, int iIrq, int iLevel)
{
PDMDEV_ASSERT_DEVINS(pDevIns);
LogFlow(("pdmR0DevHlp_PCISetIrq: caller=%p/%d: iIrq=%d iLevel=%d\n", pDevIns, pDevIns->iInstance, iIrq, iLevel));
PVM pVM = pDevIns->Internal.s.pVMR0;
PPCIDEVICE pPciDev = pDevIns->Internal.s.pPciDeviceR0;
PPDMPCIBUS pPciBus = pDevIns->Internal.s.pPciBusR0;
pdmLock(pVM);
uint32_t uTagSrc;
if (iLevel & PDM_IRQ_LEVEL_HIGH)
{
pDevIns->Internal.s.uLastIrqTag = uTagSrc = pdmCalcIrqTag(pVM, pDevIns->idTracing);
if (iLevel == PDM_IRQ_LEVEL_HIGH)
VBOXVMM_PDM_IRQ_HIGH(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
else
VBOXVMM_PDM_IRQ_HILO(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
}
else
uTagSrc = pDevIns->Internal.s.uLastIrqTag;
if ( pPciDev
&& pPciBus
&& pPciBus->pDevInsR0)
{
pPciBus->pfnSetIrqR0(pPciBus->pDevInsR0, pPciDev, iIrq, iLevel, uTagSrc);
pdmUnlock(pVM);
if (iLevel == PDM_IRQ_LEVEL_LOW)
VBOXVMM_PDM_IRQ_LOW(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
}
else
{
pdmUnlock(pVM);
/* queue for ring-3 execution. */
PPDMDEVHLPTASK pTask = (PPDMDEVHLPTASK)PDMQueueAlloc(pVM->pdm.s.pDevHlpQueueR0);
AssertReturnVoid(pTask);
pTask->enmOp = PDMDEVHLPTASKOP_PCI_SET_IRQ;
pTask->pDevInsR3 = PDMDEVINS_2_R3PTR(pDevIns);
pTask->u.SetIRQ.iIrq = iIrq;
pTask->u.SetIRQ.iLevel = iLevel;
pTask->u.SetIRQ.uTagSrc = uTagSrc;
PDMQueueInsertEx(pVM->pdm.s.pDevHlpQueueR0, &pTask->Core, 0);
}
LogFlow(("pdmR0DevHlp_PCISetIrq: caller=%p/%d: returns void; uTagSrc=%#x\n", pDevIns, pDevIns->iInstance, uTagSrc));
}
/**
* @copydoc RTNetIPv6PseudoChecksumBits
*/
DECLINLINE(uint32_t) rtNetIPv6PseudoChecksumBits(PCRTNETADDRIPV6 pSrcAddr, PCRTNETADDRIPV6 pDstAddr,
uint8_t bProtocol, uint32_t cbPkt)
{
uint32_t u32Sum = pSrcAddr->au16[0]
+ pSrcAddr->au16[1]
+ pSrcAddr->au16[2]
+ pSrcAddr->au16[3]
+ pSrcAddr->au16[4]
+ pSrcAddr->au16[5]
+ pSrcAddr->au16[6]
+ pSrcAddr->au16[7]
+ pDstAddr->au16[0]
+ pDstAddr->au16[1]
+ pDstAddr->au16[2]
+ pDstAddr->au16[3]
+ pDstAddr->au16[4]
+ pDstAddr->au16[5]
+ pDstAddr->au16[6]
+ pDstAddr->au16[7]
+ RT_H2BE_U16(RT_HIWORD(cbPkt))
+ RT_H2BE_U16(RT_LOWORD(cbPkt))
+ 0
+ RT_H2BE_U16(RT_MAKE_U16(bProtocol, 0));
return u32Sum;
}
/** @interface_method_impl{PDMAPICHLPR0,pfnCalcIrqTag} */
static DECLCALLBACK(uint32_t) pdmR0ApicHlp_CalcIrqTag(PPDMDEVINS pDevIns, uint8_t u8Level)
{
PDMDEV_ASSERT_DEVINS(pDevIns);
PVM pVM = pDevIns->Internal.s.pVMR0;
pdmLock(pVM);
uint32_t uTagSrc = pdmCalcIrqTag(pVM, pDevIns->idTracing);
if (u8Level == PDM_IRQ_LEVEL_HIGH)
VBOXVMM_PDM_IRQ_HIGH(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
else
VBOXVMM_PDM_IRQ_HILO(VMMGetCpu(pVM), RT_LOWORD(uTagSrc), RT_HIWORD(uTagSrc));
pdmUnlock(pVM);
LogFlow(("pdmR0ApicHlp_CalcIrqTag: caller=%p/%d: returns %#x (u8Level=%d)\n",
pDevIns, pDevIns->iInstance, uTagSrc, u8Level));
return uTagSrc;
}
/**
* Returns the value of the parameter in pParam
*
* @returns VBox error code
* @param pCtx CPU context structure pointer
* @param pCpu Pointer to cpu structure which have DISCPUSTATE::mode
* set correctly.
* @param pParam Pointer to the parameter to parse
* @param pParamVal Pointer to parameter value (OUT)
* @param parmtype Parameter type
*
* @note Currently doesn't handle FPU/XMM/MMX/3DNow! parameters correctly!!
*
*/
DISDECL(int) DISQueryParamVal(PCPUMCTXCORE pCtx, PDISCPUSTATE pCpu, POP_PARAMETER pParam, POP_PARAMVAL pParamVal, PARAM_TYPE parmtype)
{
memset(pParamVal, 0, sizeof(*pParamVal));
if (DIS_IS_EFFECTIVE_ADDR(pParam->flags))
{
// Effective address
pParamVal->type = PARMTYPE_ADDRESS;
pParamVal->size = pParam->size;
if (pParam->flags & USE_BASE)
{
if (pParam->flags & USE_REG_GEN8)
{
pParamVal->flags |= PARAM_VAL8;
if (RT_FAILURE(DISFetchReg8(pCtx, pParam->base.reg_gen, &pParamVal->val.val8))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN16)
{
pParamVal->flags |= PARAM_VAL16;
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->base.reg_gen, &pParamVal->val.val16))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN32)
{
pParamVal->flags |= PARAM_VAL32;
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->base.reg_gen, &pParamVal->val.val32))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN64)
{
pParamVal->flags |= PARAM_VAL64;
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->base.reg_gen, &pParamVal->val.val64))) return VERR_INVALID_PARAMETER;
}
else
{
AssertFailed();
return VERR_INVALID_PARAMETER;
}
}
// Note that scale implies index (SIB byte)
if (pParam->flags & USE_INDEX)
{
if (pParam->flags & USE_REG_GEN16)
{
uint16_t val16;
pParamVal->flags |= PARAM_VAL16;
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->index.reg_gen, &val16))) return VERR_INVALID_PARAMETER;
Assert(!(pParam->flags & USE_SCALE)); /* shouldn't be possible in 16 bits mode */
pParamVal->val.val16 += val16;
}
else
if (pParam->flags & USE_REG_GEN32)
{
uint32_t val32;
pParamVal->flags |= PARAM_VAL32;
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->index.reg_gen, &val32))) return VERR_INVALID_PARAMETER;
if (pParam->flags & USE_SCALE)
val32 *= pParam->scale;
pParamVal->val.val32 += val32;
}
else
if (pParam->flags & USE_REG_GEN64)
{
uint64_t val64;
pParamVal->flags |= PARAM_VAL64;
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->index.reg_gen, &val64))) return VERR_INVALID_PARAMETER;
if (pParam->flags & USE_SCALE)
val64 *= pParam->scale;
pParamVal->val.val64 += val64;
}
else
AssertFailed();
}
if (pParam->flags & USE_DISPLACEMENT8)
{
if (pCpu->mode == CPUMODE_32BIT)
pParamVal->val.val32 += (int32_t)pParam->disp8;
else
if (pCpu->mode == CPUMODE_64BIT)
pParamVal->val.val64 += (int64_t)pParam->disp8;
else
pParamVal->val.val16 += (int16_t)pParam->disp8;
}
else
if (pParam->flags & USE_DISPLACEMENT16)
{
if (pCpu->mode == CPUMODE_32BIT)
pParamVal->val.val32 += (int32_t)pParam->disp16;
else
if (pCpu->mode == CPUMODE_64BIT)
pParamVal->val.val64 += (int64_t)pParam->disp16;
else
pParamVal->val.val16 += pParam->disp16;
}
else
if (pParam->flags & USE_DISPLACEMENT32)
{
if (pCpu->mode == CPUMODE_32BIT)
pParamVal->val.val32 += pParam->disp32;
else
pParamVal->val.val64 += pParam->disp32;
}
else
if (pParam->flags & USE_DISPLACEMENT64)
{
Assert(pCpu->mode == CPUMODE_64BIT);
pParamVal->val.val64 += (int64_t)pParam->disp64;
}
else
if (pParam->flags & USE_RIPDISPLACEMENT32)
{
Assert(pCpu->mode == CPUMODE_64BIT);
/* Relative to the RIP of the next instruction. */
pParamVal->val.val64 += pParam->disp32 + pCtx->rip + pCpu->opsize;
}
return VINF_SUCCESS;
}
if (pParam->flags & (USE_REG_GEN8|USE_REG_GEN16|USE_REG_GEN32|USE_REG_GEN64|USE_REG_FP|USE_REG_MMX|USE_REG_XMM|USE_REG_CR|USE_REG_DBG|USE_REG_SEG|USE_REG_TEST))
{
if (parmtype == PARAM_DEST)
{
// Caller needs to interpret the register according to the instruction (source/target, special value etc)
pParamVal->type = PARMTYPE_REGISTER;
pParamVal->size = pParam->size;
return VINF_SUCCESS;
}
//else PARAM_SOURCE
pParamVal->type = PARMTYPE_IMMEDIATE;
if (pParam->flags & USE_REG_GEN8)
{
pParamVal->flags |= PARAM_VAL8;
pParamVal->size = sizeof(uint8_t);
if (RT_FAILURE(DISFetchReg8(pCtx, pParam->base.reg_gen, &pParamVal->val.val8))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN16)
{
pParamVal->flags |= PARAM_VAL16;
pParamVal->size = sizeof(uint16_t);
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->base.reg_gen, &pParamVal->val.val16))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN32)
{
pParamVal->flags |= PARAM_VAL32;
pParamVal->size = sizeof(uint32_t);
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->base.reg_gen, &pParamVal->val.val32))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->flags & USE_REG_GEN64)
{
pParamVal->flags |= PARAM_VAL64;
pParamVal->size = sizeof(uint64_t);
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->base.reg_gen, &pParamVal->val.val64))) return VERR_INVALID_PARAMETER;
}
else
{
// Caller needs to interpret the register according to the instruction (source/target, special value etc)
pParamVal->type = PARMTYPE_REGISTER;
}
Assert(!(pParam->flags & USE_IMMEDIATE));
return VINF_SUCCESS;
}
if (pParam->flags & USE_IMMEDIATE)
{
pParamVal->type = PARMTYPE_IMMEDIATE;
if (pParam->flags & (USE_IMMEDIATE8|USE_IMMEDIATE8_REL))
{
pParamVal->flags |= PARAM_VAL8;
if (pParam->size == 2)
{
pParamVal->size = sizeof(uint16_t);
pParamVal->val.val16 = (uint8_t)pParam->parval;
}
else
{
pParamVal->size = sizeof(uint8_t);
pParamVal->val.val8 = (uint8_t)pParam->parval;
}
}
else
if (pParam->flags & (USE_IMMEDIATE16|USE_IMMEDIATE16_REL|USE_IMMEDIATE_ADDR_0_16|USE_IMMEDIATE16_SX8))
{
pParamVal->flags |= PARAM_VAL16;
pParamVal->size = sizeof(uint16_t);
pParamVal->val.val16 = (uint16_t)pParam->parval;
AssertMsg(pParamVal->size == pParam->size || ((pParam->size == 1) && (pParam->flags & USE_IMMEDIATE16_SX8)), ("pParamVal->size %d vs %d EIP=%RX32\n", pParamVal->size, pParam->size, pCtx->eip) );
}
else
if (pParam->flags & (USE_IMMEDIATE32|USE_IMMEDIATE32_REL|USE_IMMEDIATE_ADDR_0_32|USE_IMMEDIATE32_SX8))
{
pParamVal->flags |= PARAM_VAL32;
pParamVal->size = sizeof(uint32_t);
pParamVal->val.val32 = (uint32_t)pParam->parval;
Assert(pParamVal->size == pParam->size || ((pParam->size == 1) && (pParam->flags & USE_IMMEDIATE32_SX8)) );
}
else
if (pParam->flags & (USE_IMMEDIATE64 | USE_IMMEDIATE64_REL | USE_IMMEDIATE64_SX8))
{
pParamVal->flags |= PARAM_VAL64;
pParamVal->size = sizeof(uint64_t);
pParamVal->val.val64 = pParam->parval;
Assert(pParamVal->size == pParam->size || ((pParam->size == 1) && (pParam->flags & USE_IMMEDIATE64_SX8)) );
}
else
if (pParam->flags & (USE_IMMEDIATE_ADDR_16_16))
{
pParamVal->flags |= PARAM_VALFARPTR16;
pParamVal->size = sizeof(uint16_t)*2;
pParamVal->val.farptr.sel = (uint16_t)RT_LOWORD(pParam->parval >> 16);
pParamVal->val.farptr.offset = (uint32_t)RT_LOWORD(pParam->parval);
Assert(pParamVal->size == pParam->size);
}
/**
* Returns the value of the parameter in pParam
*
* @returns VBox error code
* @param pCtx CPU context structure pointer
* @param pDis Pointer to the disassembler state.
* @param pParam Pointer to the parameter to parse
* @param pParamVal Pointer to parameter value (OUT)
* @param parmtype Parameter type
*
* @note Currently doesn't handle FPU/XMM/MMX/3DNow! parameters correctly!!
*
*/
DISDECL(int) DISQueryParamVal(PCPUMCTXCORE pCtx, PCDISSTATE pDis, PCDISOPPARAM pParam, PDISQPVPARAMVAL pParamVal, DISQPVWHICH parmtype)
{
memset(pParamVal, 0, sizeof(*pParamVal));
if (DISUSE_IS_EFFECTIVE_ADDR(pParam->fUse))
{
// Effective address
pParamVal->type = DISQPV_TYPE_ADDRESS;
pParamVal->size = pParam->cb;
if (pParam->fUse & DISUSE_BASE)
{
if (pParam->fUse & DISUSE_REG_GEN8)
{
pParamVal->flags |= DISQPV_FLAG_8;
if (RT_FAILURE(DISFetchReg8(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val8))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN16)
{
pParamVal->flags |= DISQPV_FLAG_16;
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val16))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN32)
{
pParamVal->flags |= DISQPV_FLAG_32;
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val32))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN64)
{
pParamVal->flags |= DISQPV_FLAG_64;
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val64))) return VERR_INVALID_PARAMETER;
}
else
{
AssertFailed();
return VERR_INVALID_PARAMETER;
}
}
// Note that scale implies index (SIB byte)
if (pParam->fUse & DISUSE_INDEX)
{
if (pParam->fUse & DISUSE_REG_GEN16)
{
uint16_t val16;
pParamVal->flags |= DISQPV_FLAG_16;
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->Index.idxGenReg, &val16))) return VERR_INVALID_PARAMETER;
Assert(!(pParam->fUse & DISUSE_SCALE)); /* shouldn't be possible in 16 bits mode */
pParamVal->val.val16 += val16;
}
else
if (pParam->fUse & DISUSE_REG_GEN32)
{
uint32_t val32;
pParamVal->flags |= DISQPV_FLAG_32;
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->Index.idxGenReg, &val32))) return VERR_INVALID_PARAMETER;
if (pParam->fUse & DISUSE_SCALE)
val32 *= pParam->uScale;
pParamVal->val.val32 += val32;
}
else
if (pParam->fUse & DISUSE_REG_GEN64)
{
uint64_t val64;
pParamVal->flags |= DISQPV_FLAG_64;
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->Index.idxGenReg, &val64))) return VERR_INVALID_PARAMETER;
if (pParam->fUse & DISUSE_SCALE)
val64 *= pParam->uScale;
pParamVal->val.val64 += val64;
}
else
AssertFailed();
}
if (pParam->fUse & DISUSE_DISPLACEMENT8)
{
if (pDis->uCpuMode == DISCPUMODE_32BIT)
pParamVal->val.val32 += (int32_t)pParam->uDisp.i8;
else
if (pDis->uCpuMode == DISCPUMODE_64BIT)
pParamVal->val.val64 += (int64_t)pParam->uDisp.i8;
else
pParamVal->val.val16 += (int16_t)pParam->uDisp.i8;
}
else
if (pParam->fUse & DISUSE_DISPLACEMENT16)
{
if (pDis->uCpuMode == DISCPUMODE_32BIT)
pParamVal->val.val32 += (int32_t)pParam->uDisp.i16;
else
if (pDis->uCpuMode == DISCPUMODE_64BIT)
pParamVal->val.val64 += (int64_t)pParam->uDisp.i16;
else
pParamVal->val.val16 += pParam->uDisp.i16;
}
else
if (pParam->fUse & DISUSE_DISPLACEMENT32)
{
if (pDis->uCpuMode == DISCPUMODE_32BIT)
pParamVal->val.val32 += pParam->uDisp.i32;
else
pParamVal->val.val64 += pParam->uDisp.i32;
}
else
if (pParam->fUse & DISUSE_DISPLACEMENT64)
{
Assert(pDis->uCpuMode == DISCPUMODE_64BIT);
pParamVal->val.val64 += pParam->uDisp.i64;
}
else
if (pParam->fUse & DISUSE_RIPDISPLACEMENT32)
{
Assert(pDis->uCpuMode == DISCPUMODE_64BIT);
/* Relative to the RIP of the next instruction. */
pParamVal->val.val64 += pParam->uDisp.i32 + pCtx->rip + pDis->cbInstr;
}
return VINF_SUCCESS;
}
if (pParam->fUse & (DISUSE_REG_GEN8|DISUSE_REG_GEN16|DISUSE_REG_GEN32|DISUSE_REG_GEN64|DISUSE_REG_FP|DISUSE_REG_MMX|DISUSE_REG_XMM|DISUSE_REG_CR|DISUSE_REG_DBG|DISUSE_REG_SEG|DISUSE_REG_TEST))
{
if (parmtype == DISQPVWHICH_DST)
{
// Caller needs to interpret the register according to the instruction (source/target, special value etc)
pParamVal->type = DISQPV_TYPE_REGISTER;
pParamVal->size = pParam->cb;
return VINF_SUCCESS;
}
//else DISQPVWHICH_SRC
pParamVal->type = DISQPV_TYPE_IMMEDIATE;
if (pParam->fUse & DISUSE_REG_GEN8)
{
pParamVal->flags |= DISQPV_FLAG_8;
pParamVal->size = sizeof(uint8_t);
if (RT_FAILURE(DISFetchReg8(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val8))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN16)
{
pParamVal->flags |= DISQPV_FLAG_16;
pParamVal->size = sizeof(uint16_t);
if (RT_FAILURE(DISFetchReg16(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val16))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN32)
{
pParamVal->flags |= DISQPV_FLAG_32;
pParamVal->size = sizeof(uint32_t);
if (RT_FAILURE(DISFetchReg32(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val32))) return VERR_INVALID_PARAMETER;
}
else
if (pParam->fUse & DISUSE_REG_GEN64)
{
pParamVal->flags |= DISQPV_FLAG_64;
pParamVal->size = sizeof(uint64_t);
if (RT_FAILURE(DISFetchReg64(pCtx, pParam->Base.idxGenReg, &pParamVal->val.val64))) return VERR_INVALID_PARAMETER;
}
else
{
// Caller needs to interpret the register according to the instruction (source/target, special value etc)
pParamVal->type = DISQPV_TYPE_REGISTER;
}
Assert(!(pParam->fUse & DISUSE_IMMEDIATE));
return VINF_SUCCESS;
}
if (pParam->fUse & DISUSE_IMMEDIATE)
{
pParamVal->type = DISQPV_TYPE_IMMEDIATE;
if (pParam->fUse & (DISUSE_IMMEDIATE8|DISUSE_IMMEDIATE8_REL))
{
pParamVal->flags |= DISQPV_FLAG_8;
if (pParam->cb == 2)
{
pParamVal->size = sizeof(uint16_t);
pParamVal->val.val16 = (uint8_t)pParam->uValue;
}
else
{
pParamVal->size = sizeof(uint8_t);
pParamVal->val.val8 = (uint8_t)pParam->uValue;
}
}
else
if (pParam->fUse & (DISUSE_IMMEDIATE16|DISUSE_IMMEDIATE16_REL|DISUSE_IMMEDIATE_ADDR_0_16|DISUSE_IMMEDIATE16_SX8))
{
pParamVal->flags |= DISQPV_FLAG_16;
pParamVal->size = sizeof(uint16_t);
pParamVal->val.val16 = (uint16_t)pParam->uValue;
AssertMsg(pParamVal->size == pParam->cb || ((pParam->cb == 1) && (pParam->fUse & DISUSE_IMMEDIATE16_SX8)), ("pParamVal->size %d vs %d EIP=%RX32\n", pParamVal->size, pParam->cb, pCtx->eip) );
}
else
if (pParam->fUse & (DISUSE_IMMEDIATE32|DISUSE_IMMEDIATE32_REL|DISUSE_IMMEDIATE_ADDR_0_32|DISUSE_IMMEDIATE32_SX8))
{
pParamVal->flags |= DISQPV_FLAG_32;
pParamVal->size = sizeof(uint32_t);
pParamVal->val.val32 = (uint32_t)pParam->uValue;
Assert(pParamVal->size == pParam->cb || ((pParam->cb == 1) && (pParam->fUse & DISUSE_IMMEDIATE32_SX8)) );
}
else
if (pParam->fUse & (DISUSE_IMMEDIATE64 | DISUSE_IMMEDIATE64_REL | DISUSE_IMMEDIATE64_SX8))
{
pParamVal->flags |= DISQPV_FLAG_64;
pParamVal->size = sizeof(uint64_t);
pParamVal->val.val64 = pParam->uValue;
Assert(pParamVal->size == pParam->cb || ((pParam->cb == 1) && (pParam->fUse & DISUSE_IMMEDIATE64_SX8)) );
}
else
if (pParam->fUse & (DISUSE_IMMEDIATE_ADDR_16_16))
{
pParamVal->flags |= DISQPV_FLAG_FARPTR16;
pParamVal->size = sizeof(uint16_t)*2;
pParamVal->val.farptr.sel = (uint16_t)RT_LOWORD(pParam->uValue >> 16);
pParamVal->val.farptr.offset = (uint32_t)RT_LOWORD(pParam->uValue);
Assert(pParamVal->size == pParam->cb);
}