static CMPIEnumeration* mbAssociators(const CMPIBroker *mb, const CMPIContext *ctx,
const CMPIObjectPath *cop, const char *assocClass, const char *resultClass,
const char *role, const char *resultRole, const char **properties, CMPIStatus *rc) {
DDD(cout<<"--- mbAssociators()"<<endl);
mb=CM_BROKER;
CMPIFlags flgs=ctx->ft->getEntry(ctx,CMPIInvocationFlags,NULL).value.uint32;
const CIMPropertyList props=getList(properties);
CIMObjectPath qop(String::EMPTY,CIMNamespaceName(),
CM_ObjectPath(cop)->getClassName(),
CM_ObjectPath(cop)->getKeyBindings());
AutoMutex mtx(((CMPI_Broker*)mb)->mtx);
try {
Array<CIMObject> const &en=CM_CIMOM(mb)->associators(
OperationContext(*CM_Context(ctx)),
CM_ObjectPath(cop)->getNameSpace(),
qop,
assocClass ? CIMName(assocClass) : CIMName(),
resultClass ? CIMName(resultClass) : CIMName(),
role ? String(role) : String::EMPTY,
resultRole ? String(resultRole) : String::EMPTY,
CM_IncludeQualifiers(flgs),
CM_ClassOrigin(flgs),
props);
if (rc) CMSetStatus(rc,CMPI_RC_OK);
CMPI_Object *obj =
new CMPI_Object(new CMPI_ObjEnumeration(new Array<CIMObject>(en)));
return (CMPI_ObjEnumeration *)obj->getHdl();
}
catch (const CIMException &e) {
DDD(cout<<"### exception: mbAssociators - code: "<<e.getCode()<<" msg: "<<e.getMessage()<<endl);
if (rc) CMSetStatusWithString(rc,(CMPIrc)e.getCode(),
(CMPIString*)string2CMPIString(e.getMessage()));
return NULL;
}
if (rc) CMSetStatusWithChars(mb,rc,CMPI_RC_ERROR,"Internal error - CMPIBoker.cpp-7");
return NULL;
}
static CMPIStatus mbDeleteInstance (const CMPIBroker *mb, const CMPIContext *ctx,
const CMPIObjectPath *cop) {
DDD(cout<<"--- mbDeleteInstance()"<<endl);
mb=CM_BROKER;
CIMObjectPath qop(String::EMPTY,CIMNamespaceName(),
CM_ObjectPath(cop)->getClassName(),
CM_ObjectPath(cop)->getKeyBindings());
AutoMutex mtx(((CMPI_Broker*)mb)->mtx);
try {
CM_CIMOM(mb)->deleteInstance(
OperationContext(*CM_Context(ctx)),
CM_ObjectPath(cop)->getNameSpace(),
qop); //*CM_ObjectPath(cop));
CMReturn(CMPI_RC_OK);
}
catch (const CIMException &e) {
DDD(cout<<"### exception: mbDeleteInstance - code: "<<e.getCode()<<" msg: "<<e.getMessage()<<endl);
CMReturnWithString((CMPIrc)e.getCode(),
(CMPIString*)string2CMPIString(e.getMessage()));
}
CMReturnWithChars(mb,CMPI_RC_ERROR,"Internal error - CMPIBoker.cpp-3");
}
/* Inject IR stmts depending on the data provided in the control
block iricb. */
void
vex_inject_ir(IRSB *irsb, IREndness endian)
{
IRExpr *data, *rounding_mode, *opnd1, *opnd2, *opnd3, *opnd4;
rounding_mode = NULL;
if (iricb.rounding_mode != NO_ROUNDING_MODE) {
rounding_mode = mkU32(iricb.rounding_mode);
}
switch (iricb.num_operands) {
case 1:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
if (rounding_mode)
data = binop(iricb.op, rounding_mode, opnd1);
else
data = unop(iricb.op, opnd1);
break;
case 2:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
/* HACK, compiler warning ‘opnd2’ may be used uninitialized */
opnd2 = opnd1;
/* immediate_index = 0 immediate value is not used.
* immediate_index = 2 opnd2 is an immediate value.
*/
vassert(iricb.immediate_index == 0 || iricb.immediate_index == 2);
if (iricb.immediate_index == 2) {
vassert((iricb.t_opnd2 == Ity_I8) || (iricb.t_opnd2 == Ity_I16)
|| (iricb.t_opnd2 == Ity_I32));
/* Interpret the memory as an ULong. */
if (iricb.immediate_type == Ity_I8) {
opnd2 = mkU8(*((ULong *)iricb.opnd2));
} else if (iricb.immediate_type == Ity_I16) {
opnd2 = mkU16(*((ULong *)iricb.opnd2));
} else if (iricb.immediate_type == Ity_I32) {
opnd2 = mkU32(*((ULong *)iricb.opnd2));
}
} else {
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
}
if (rounding_mode)
data = triop(iricb.op, rounding_mode, opnd1, opnd2);
else
data = binop(iricb.op, opnd1, opnd2);
break;
case 3:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
/* HACK, compiler warning ‘opnd3’ may be used uninitialized */
opnd3 = opnd2;
/* immediate_index = 0 immediate value is not used.
* immediate_index = 3 opnd3 is an immediate value.
*/
vassert(iricb.immediate_index == 0 || iricb.immediate_index == 3);
if (iricb.immediate_index == 3) {
vassert((iricb.t_opnd3 == Ity_I8) || (iricb.t_opnd3 == Ity_I16)
|| (iricb.t_opnd2 == Ity_I32));
if (iricb.immediate_type == Ity_I8) {
opnd3 = mkU8(*((ULong *)iricb.opnd3));
} else if (iricb.immediate_type == Ity_I16) {
opnd3 = mkU16(*((ULong *)iricb.opnd3));
} else if (iricb.immediate_type == Ity_I32) {
opnd3 = mkU32(*((ULong *)iricb.opnd3));
}
} else {
opnd3 = load(endian, iricb.t_opnd3, iricb.opnd3);
}
if (rounding_mode)
data = qop(iricb.op, rounding_mode, opnd1, opnd2, opnd3);
else
data = triop(iricb.op, opnd1, opnd2, opnd3);
break;
case 4:
vassert(rounding_mode == NULL);
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
opnd3 = load(endian, iricb.t_opnd3, iricb.opnd3);
/* HACK, compiler warning ‘opnd4’ may be used uninitialized */
opnd4 = opnd3;
/* immediate_index = 0 immediate value is not used.
* immediate_index = 4 opnd4 is an immediate value.
*/
vassert(iricb.immediate_index == 0 || iricb.immediate_index == 4);
if (iricb.immediate_index == 4) {
vassert((iricb.t_opnd3 == Ity_I8) || (iricb.t_opnd3 == Ity_I16)
|| (iricb.t_opnd2 == Ity_I32));
if (iricb.immediate_type == Ity_I8) {
opnd4 = mkU8(*((ULong *)iricb.opnd4));
} else if (iricb.immediate_type == Ity_I16) {
opnd4 = mkU16(*((ULong *)iricb.opnd4));
} else if (iricb.immediate_type == Ity_I32) {
opnd4 = mkU32(*((ULong *)iricb.opnd4));
}
} else {
opnd4 = load(endian, iricb.t_opnd4, iricb.opnd4);
}
data = qop(iricb.op, opnd1, opnd2, opnd3, opnd4);
break;
default:
vpanic("unsupported operator");
}
store(irsb, endian, iricb.result, data);
if (0) {
vex_printf("BEGIN inject\n");
if (iricb.t_result == Ity_I1 || sizeofIRType(iricb.t_result) <= 8) {
ppIRStmt(irsb->stmts[irsb->stmts_used - 1]);
} else if (sizeofIRType(iricb.t_result) == 16) {
ppIRStmt(irsb->stmts[irsb->stmts_used - 2]);
vex_printf("\n");
ppIRStmt(irsb->stmts[irsb->stmts_used - 1]);
}
vex_printf("\nEND inject\n");
}
}
/* Inject IR stmts depending on the data provided in the control
block iricb. */
void
vex_inject_ir(IRSB *irsb, IREndness endian)
{
IRExpr *data, *rounding_mode, *opnd1, *opnd2, *opnd3, *opnd4;
rounding_mode = NULL;
if (iricb.rounding_mode != NO_ROUNDING_MODE) {
rounding_mode = mkU32(iricb.rounding_mode);
}
switch (iricb.num_operands) {
case 1:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
if (rounding_mode)
data = binop(iricb.op, rounding_mode, opnd1);
else
data = unop(iricb.op, opnd1);
break;
case 2:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
if (iricb.shift_amount_is_immediate) {
// This implies that the IROp is a shift op
vassert(iricb.t_opnd2 == Ity_I8);
opnd2 = mkU8(*((Char *)iricb.opnd2));
} else {
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
}
if (rounding_mode)
data = triop(iricb.op, rounding_mode, opnd1, opnd2);
else
data = binop(iricb.op, opnd1, opnd2);
break;
case 3:
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
opnd3 = load(endian, iricb.t_opnd3, iricb.opnd3);
if (rounding_mode)
data = qop(iricb.op, rounding_mode, opnd1, opnd2, opnd3);
else
data = triop(iricb.op, opnd1, opnd2, opnd3);
break;
case 4:
vassert(rounding_mode == NULL);
opnd1 = load(endian, iricb.t_opnd1, iricb.opnd1);
opnd2 = load(endian, iricb.t_opnd2, iricb.opnd2);
opnd3 = load(endian, iricb.t_opnd3, iricb.opnd3);
opnd4 = load(endian, iricb.t_opnd4, iricb.opnd4);
data = qop(iricb.op, opnd1, opnd2, opnd3, opnd4);
break;
default:
vpanic("unsupported operator");
}
store(irsb, endian, iricb.result, data);
if (0) {
vex_printf("BEGIN inject\n");
if (iricb.t_result == Ity_I1 || sizeofIRType(iricb.t_result) <= 8) {
ppIRStmt(irsb->stmts[irsb->stmts_used - 1]);
} else if (sizeofIRType(iricb.t_result) == 16) {
ppIRStmt(irsb->stmts[irsb->stmts_used - 2]);
vex_printf("\n");
ppIRStmt(irsb->stmts[irsb->stmts_used - 1]);
}
vex_printf("\nEND inject\n");
}
}