void execute_lcontext(OpContext &ctx, const lcontext_instruction &i)
{
const char *name = fetch_string(ctx.resource(), i.hashtag);
qbrt_value *dst(ctx.dstvalue(i.reg));
Failure *fail;
if (!dst) {
fail = FAIL_REGISTER404(ctx.module_name()
, ctx.function_name(), ctx.pc());
fail->debug << "invalid register: " << i.reg;
ctx.fail_frame(fail);
return;
}
qbrt_value *src = ctx.get_context(name);
if (src) {
qbrt_value::ref(*dst, *src);
} else {
fail = NEW_FAILURE("unknown_context", ctx.module_name()
, ctx.function_name(), ctx.pc());
fail->debug << "cannot find context variable: " << name;
qbrt_value::fail(*dst, fail);
cerr << fail->debug_msg() << endl;
}
ctx.pc() += lcontext_instruction::SIZE;
}
void FailureCheck::UpdateFaultState()
{
if(!listLock)
{
listLock = true;
failureList.Begin();
Failure * tmp = failureList.Next();
int i = 0;
while (tmp != NULL)
{
if(tmp->IsOccurred())
{
fault |= (1 << i);
}
if(tmp->IsLocked())
{
faultLock |= (1 << i);
}
++i;
tmp = failureList.Next();
}
listLock = false;
}
}
void AddFailure (const Failure & failure)
{
char writeBuffer[1024];
sprintf( writeBuffer, "%d,%s,%s", failure.LineNumber(), failure.Filename(), failure.Condition() );
DWORD dwWrite;
if( WriteFile( m_WritePipe, writeBuffer, 1024, &dwWrite, NULL ) == false || dwWrite != 1024 )
exit(-1);
}
Failure * CallNode::fail(const char *type, const char *c_file, int c_lineno)
{
Failure *f = new_failure(type, c_file, c_lineno);
f->trace_in_and_out();
if (result) {
qbrt_value::fail(*result, f);
}
cfstate = CFS_FAILED;
return f;
}
void execute_ctuple(OpContext &ctx, const ctuple_instruction &i)
{
qbrt_value *dst(ctx.dstvalue(i.dst));
if (!dst) {
Failure *f = FAIL_REGISTER404(ctx.module_name()
, ctx.function_name(), ctx.pc());
f->debug << "invalid register: " << i.dst;
ctx.fail_frame(f);
cerr << f->debug_msg() << endl;
return;
}
qbrt_value::tuple(*dst, new Tuple(i.size));
ctx.pc() += ctuple_instruction::SIZE;
}
void TestOutput::print(const Failure& failure)
{
print("\n");
print(failure.getFileName().asCharString());
print(":");
print(failure.getLineNumber());
print(":");
print(" error: ");
print("Failure in ");
print(failure.getTestName().asCharString());
print("\n");
print("\t");
print(failure.getMessage().asCharString());
print("\n\n");
}
void FailureCheck::ResetFaulture()
{
if(!listLock)
{
listLock = true;
failureList.Begin();
Failure * tmp = failureList.Next();
while (tmp != NULL)
{
tmp->Reset();
tmp = failureList.Next();
}
fault = 0;
listLock = false;
}
}
void execute_stracc(OpContext &ctx, const stracc_instruction &i)
{
RETURN_FAILURE(ctx, i.dst);
RETURN_FAILURE(ctx, i.src);
Failure *f;
qbrt_value &dst(*ctx.dstvalue(i.dst));
const qbrt_value &src(*ctx.srcvalue(i.src));
int op_pc(ctx.pc());
ctx.pc() += stracc_instruction::SIZE;
if (dst.type->id != VT_STRING) {
f = FAIL_TYPE(ctx.module_name(), ctx.function_name(), op_pc);
f->debug << "stracc destination is not a string";
qbrt_value::i(f->exit_code, 1);
ctx.fail_frame(f);
return;
}
ostringstream out;
switch (src.type->id) {
case VT_STRING:
*dst.data.str += *src.data.str;
break;
case VT_INT:
out << src.data.i;
*dst.data.str += out.str();
break;
case VT_VOID:
f = FAIL_TYPE(ctx.module_name(), ctx.function_name()
, op_pc);
f->debug << "cannot append void to string";
cerr << f->debug_msg() << endl;
qbrt_value::fail(dst, f);
break;
default:
f = FAIL_TYPE(ctx.module_name(), ctx.function_name()
, op_pc);
f->debug << "stracc source type is not supported: "
<< (int) src.type->id;
cerr << f->debug_msg() << endl;
qbrt_value::fail(dst, f);
break;
}
}
void CallNode::trace_in(Failure &f, const char *c_file, int c_lineno) const
{
f.trace_in(module()->name, function_name(), pc(), c_file, c_lineno);
}
void TestResult::addFailure (const Failure& failure)
{
failure.print();
failureCount++;
}
void qbrtcall(Worker &w, qbrt_value &res, function_value *f)
{
if (!f) {
cerr << "function is null\n";
w.current->cfstate = CFS_FAILED;
return;
}
// check that none of the function args are bad first
WorkerCContext failctx(w, *f);
for (uint16_t i(0); i<f->argc; ++i) {
qbrt_value *val(failctx.dstvalue(PRIMARY_REG(i)));
if (val->type->id == VT_FAILURE) {
FunctionCall &failed_call(w.current->function_call());
Failure *fail = val->data.failure;
fail->trace_down(failed_call.mod->name
, failed_call.name(), w.current->pc
, __FILE__, __LINE__);
qbrt_value::fail(*failed_call.result, fail);
w.current->cfstate = CFS_FAILED;
return;
}
}
override_function(w, *f);
if (f->abstract()) {
// can't execute the function if it's abstract
ostringstream types;
load_function_value_types(types, *f);
cerr << "cannot execute abstract function: "
<< f->name() << "; " << types.str() << endl;
w.current->cfstate = CFS_FAILED;
return;
}
WorkerCContext ctx(w, *f);
if (f->func->cfunc()) {
c_function cf = f->func->cfunc();
cf(ctx, res);
return;
}
const QbrtFunction *qfunc;
qfunc = dynamic_cast< const QbrtFunction * >(f->func);
const ResourceTable &resource(f->func->mod->resource);
// check arguments
for (uint16_t i(0); i < f->argc; ++i) {
const qbrt_value *val(ctx.srcvalue(PRIMARY_REG(i)));
if (!val) {
cerr << "wtf null value?\n";
}
const Type *valtype = val->type;
const ParamResource ¶m(qfunc->header->params[i]);
const char *name = fetch_string(resource, param.name_idx);
const TypeSpecResource &type(
resource.obj< TypeSpecResource >(param.type_idx));
const ModSym &type_ms(fetch_modsym(resource, type.name_idx));
const char *type_mod =
fetch_string(resource, type_ms.mod_name);
// */anything means it's a type variable. it's fine so proceed
if (type_mod[0] == '*' && type_mod[1] == '\0') {
continue;
}
const char *type_name =
fetch_string(resource, type_ms.sym_name);
if (valtype->module != type_mod || valtype->name != type_name) {
cerr << "Type Mismatch: parameter " << name << '/' << i
<< " expected to be " << type_mod << '/'
<< type_name << ", instead received "
<< valtype->module << '/' << valtype->name
<< " " << w.current->function_call().name()
<< ':' << w.current->pc << endl;
exit(1);
}
}
FunctionCall *call = new FunctionCall(*w.current, res, *qfunc, *f);
w.current = call;
}
virtual void AddFailure (const Failure & failure)
{
lastCondition = failure.Condition();
}
