Unit tests for CircleRange

This commit is contained in:
caheckman 2021-08-24 11:50:58 -04:00
parent e83e7004a3
commit b275a02cdf
6 changed files with 844 additions and 19 deletions

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@ -6,7 +6,7 @@ ARCH_TYPE=
ADDITIONAL_FLAGS=
SLEIGHVERSION=sleigh-2.1.0
EXTENSION_POINT=../../../../../../../ghidra.ext/Ghidra/Features/DecompilerExtensions/src/decompile/cpp
EXTENSION_POINT=../../../../../../../ghidra.ext-u/Ghidra/Features/DecompilerExtensions/src/decompile/cpp
GHIDRA_BIN=../../../../../../../ghidra.bin
OS = $(shell uname -s)

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@ -350,6 +350,13 @@ uintb OpBehaviorInt2Comp::evaluateUnary(int4 sizeout,int4 sizein,uintb in1) cons
return res;
}
uintb OpBehaviorInt2Comp::recoverInputUnary(int4 sizeout,uintb out,int4 sizein) const
{
uintb res = uintb_negate(out-1,sizein);
return res;
}
uintb OpBehaviorIntNegate::evaluateUnary(int4 sizeout,int4 sizein,uintb in1) const
{
@ -357,6 +364,13 @@ uintb OpBehaviorIntNegate::evaluateUnary(int4 sizeout,int4 sizein,uintb in1) con
return res;
}
uintb OpBehaviorIntNegate::recoverInputUnary(int4 sizeout,uintb out,int4 sizein) const
{
uintb res = uintb_negate(out,sizein);
return res;
}
uintb OpBehaviorIntXor::evaluateBinary(int4 sizeout,int4 sizein,uintb in1,uintb in2) const
{

View file

@ -227,6 +227,7 @@ class OpBehaviorInt2Comp : public OpBehavior {
public:
OpBehaviorInt2Comp(void): OpBehavior(CPUI_INT_2COMP,true) {} ///< Constructor
virtual uintb evaluateUnary(int4 sizeout,int4 sizein,uintb in1) const;
virtual uintb recoverInputUnary(int4 sizeout,uintb out,int4 sizein) const;
};
/// CPUI_INT_NEGATE behavior
@ -234,6 +235,7 @@ class OpBehaviorIntNegate : public OpBehavior {
public:
OpBehaviorIntNegate(void): OpBehavior(CPUI_INT_NEGATE,true) {} ///< Constructor
virtual uintb evaluateUnary(int4 sizeout,int4 sizein,uintb in1) const;
virtual uintb recoverInputUnary(int4 sizeout,uintb out,int4 sizein) const;
};
/// CPUI_INT_XOR behavior

View file

@ -744,12 +744,18 @@ bool CircleRange::pullBackUnary(OpCode opc,int4 inSize,int4 outSize)
left = (~right + 1 + step) & mask;
right = val;
break;
case CPUI_INT_NEGATE:
val = (~left + step) & mask;
left = (~right + step) & mask;
right = val;
break;
case CPUI_INT_ZEXT:
{
val = calc_mask(inSize); // (smaller) input mask
uintb rem = left % step;
CircleRange zextrange;
zextrange.left = 0;
zextrange.right = val + 1; // Biggest possible range of ZEXT
zextrange.left = rem;
zextrange.right = val + 1 + rem; // Biggest possible range of ZEXT
zextrange.mask = mask;
zextrange.step = step; // Keep the same stride
zextrange.isempty = false;
@ -763,8 +769,10 @@ bool CircleRange::pullBackUnary(OpCode opc,int4 inSize,int4 outSize)
case CPUI_INT_SEXT:
{
val = calc_mask(inSize); // (smaller) input mask
uintb rem = left & step;
CircleRange sextrange;
sextrange.left = val ^ (val >> 1); // High order bit for (small) input space
sextrange.left += rem;
sextrange.right = sign_extend(sextrange.left, inSize, outSize);
sextrange.mask = mask;
sextrange.step = step; // Keep the same stride
@ -1096,13 +1104,15 @@ bool CircleRange::pushForwardUnary(OpCode opc,const CircleRange &in1,int4 inSize
isempty = false;
step = in1.step;
mask = calc_mask(outSize);
left = in1.left;
right = (in1.right - in1.step) & in1.mask;
if (right < left) { // Extending causes 2 pieces
left = left % step;
if (in1.left == in1.right) {
left = in1.left % step;
right = in1.mask + 1 + left;
}
else {
left = in1.left;
right = (in1.right - in1.step) & in1.mask;
if (right < left)
return false; // Extending causes 2 pieces
right += step; // Impossible for it to wrap with bigger mask
}
break;
@ -1110,16 +1120,19 @@ bool CircleRange::pushForwardUnary(OpCode opc,const CircleRange &in1,int4 inSize
isempty = false;
step = in1.step;
mask = calc_mask(outSize);
left = sign_extend(in1.left, inSize, outSize);
right = sign_extend((in1.right - in1.step)&in1.mask, inSize, outSize);
if ((intb)right < (intb)left) {
uintb rem = left % step;
if (in1.left == in1.right) {
uintb rem = in1.left % step;
right = calc_mask(inSize) >> 1;
left = (calc_mask(outSize) ^ right) + rem;
right = right + 1 + rem;
}
else
right += step;
else {
left = sign_extend(in1.left, inSize, outSize);
right = sign_extend((in1.right - in1.step)&in1.mask, inSize, outSize);
if ((intb)right < (intb)left)
return false; // Extending causes 2 pieces
right = (right + step) & mask;
}
break;
case CPUI_INT_2COMP:
isempty = false;
@ -1133,8 +1146,8 @@ bool CircleRange::pushForwardUnary(OpCode opc,const CircleRange &in1,int4 inSize
isempty = false;
step = in1.step;
mask = in1.mask;
left = -in1.right & mask;
right = -in1.left & mask;
left = (~in1.right + step) & mask;
right =(~in1.left + step) & mask;
normalize();
break;
case CPUI_BOOL_NEGATE:

View file

@ -0,0 +1,796 @@
/* ###
* IP: GHIDRA
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "architecture.hh"
#include "test.hh"
class CircleRangeTestEnvironment {
Architecture *g;
public:
CircleRangeTestEnvironment(void);
~CircleRangeTestEnvironment(void);
static void build(void);
};
static Architecture *glb;
static CircleRangeTestEnvironment theEnviron;
CircleRangeTestEnvironment::CircleRangeTestEnvironment(void)
{
g = (Architecture *)0;
}
void CircleRangeTestEnvironment::build(void)
{
if (theEnviron.g != (Architecture *)0) return;
ArchitectureCapability *xmlCapability = ArchitectureCapability::getCapability("xml");
istringstream s(
"<binaryimage arch=\"x86:LE:64:default:gcc\"></binaryimage>"
);
DocumentStorage store;
Document *doc = store.parseDocument(s);
store.registerTag(doc->getRoot());
theEnviron.g = xmlCapability->buildArchitecture("", "", &cout);
theEnviron.g->init(store);
glb = theEnviron.g;
}
CircleRangeTestEnvironment::~CircleRangeTestEnvironment(void)
{
if (g != (Architecture *)0)
delete g;
}
class CircleRangeTest {
vector<uintb> elements;
uintb mask;
int4 bytes;
bool getStartStopStep(uintb &start,uintb &stop,int4 &step);
public:
CircleRangeTest(const CircleRange &range);
void set_intersect(CircleRangeTest &op2);
void set_union(CircleRangeTest &op2);
void pushUnary(OpCode opcode,int4 outsize);
void pullbackUnary(OpCode opcode,int4 insize);
void pullbackBinary(OpCode opcode,int4 slot,uintb val);
bool testEqual(bool valid,const CircleRange &range);
static bool testIntersect(uintb start1,uintb stop1,uintb start2,uintb stop2,int4 step,int4 bytes);
static bool testUnion(uintb start1,uintb stop1,uintb start2,uintb stop2,int4 step,int4 bytes);
static bool testPullbackUnary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 insize);
static bool testPullbackBinary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 slot,uintb val);
static bool testPushUnary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 outsize);
};
bool CircleRangeTest::testPullbackUnary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 insize)
{
CircleRange range(start,stop,bytes,step);
CircleRangeTest testrange(range);
bool valid = range.pullBackUnary(opcode, insize, bytes);
testrange.pullbackUnary(opcode,insize);
return testrange.testEqual(valid,range);
}
bool CircleRangeTest::testPullbackBinary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 slot,uintb val)
{
CircleRange range(start,stop,bytes,step);
CircleRangeTest testrange(range);
bool valid = range.pullBackBinary(opcode, val, slot, bytes, bytes);
testrange.pullbackBinary(opcode, slot, val);
return testrange.testEqual(valid,range);
}
bool CircleRangeTest::testPushUnary(uintb start,uintb stop,int4 step,int4 bytes,OpCode opcode,int4 outsize)
{
CircleRange range(start,stop,bytes,step);
CircleRange res;
CircleRangeTest testrange(range);
bool valid = res.pushForwardUnary(opcode, range, bytes, outsize);
testrange.pushUnary(opcode,outsize);
return testrange.testEqual(valid,res);
}
bool CircleRangeTest::testIntersect(uintb start1,uintb stop1,uintb start2,uintb stop2,int4 step,int4 bytes)
{
CircleRange range1(start1,stop1,bytes,step);
CircleRange range2(start2,stop2,bytes,step);
CircleRangeTest testrange1(range1);
CircleRangeTest testrange2(range2);
int4 code = range1.intersect(range2);
testrange1.set_intersect(testrange2);
return testrange1.testEqual(code == 0, range1);
}
bool CircleRangeTest::testUnion(uintb start1,uintb stop1,uintb start2,uintb stop2,int4 step,int4 bytes)
{
CircleRange range1(start1,stop1,bytes,step);
CircleRange range2(start2,stop2,bytes,step);
CircleRangeTest testrange1(range1);
CircleRangeTest testrange2(range2);
int4 code = range1.circleUnion(range2);
testrange1.set_union(testrange2);
return testrange1.testEqual(code == 0, range1);
}
CircleRangeTest::CircleRangeTest(const CircleRange &range)
{
mask = range.getMask();
if (!range.isEmpty()) {
uintb start = range.getMin();
do {
elements.push_back(start);
} while(range.getNext(start));
}
uintb temp = mask + 1;
if (temp == 0) {
bytes = 8;
}
else {
bytes = -1;
while(temp != 0) {
temp >>= 1;
bytes += 1;
}
bytes /= 8;
}
}
bool CircleRangeTest::testEqual(bool valid,const CircleRange &range)
{
if (elements.empty()) {
return range.isEmpty();
}
else if (range.isEmpty()) {
return false;
}
uintb start,stop;
int4 step;
bool testvalid = getStartStopStep(start,stop,step);
if (testvalid != valid) return false;
if (!valid) return true;
if (start != range.getMin()) return false;
if (stop != range.getEnd()) return false;
if (step != range.getStep()) return false;
return true;
}
void CircleRangeTest::set_intersect(CircleRangeTest &op2)
{
vector<uintb> res(elements.size() + op2.elements.size());
sort(elements.begin(),elements.end());
sort(op2.elements.begin(),op2.elements.end());
vector<uintb>::iterator iter;
iter = set_intersection(elements.begin(),elements.end(),op2.elements.begin(),op2.elements.end(),res.begin());
elements.assign(res.begin(),iter);
}
void CircleRangeTest::set_union(CircleRangeTest &op2)
{
vector<uintb> res(elements.size() + op2.elements.size());
sort(elements.begin(),elements.end());
sort(op2.elements.begin(),op2.elements.end());
vector<uintb>::iterator iter;
iter = std::set_union(elements.begin(),elements.end(),op2.elements.begin(),op2.elements.end(),res.begin());
elements.assign(res.begin(),iter);
}
void CircleRangeTest::pushUnary(OpCode opcode,int4 outsize)
{
CircleRangeTestEnvironment::build();
OpBehavior *behave = glb->inst[opcode]->getBehavior();
for(int4 i=0;i<elements.size();++i) {
elements[i] = behave->evaluateUnary(outsize, bytes, elements[i]);
}
if (outsize != bytes) {
bytes = outsize;
mask = calc_mask(outsize);
}
}
void CircleRangeTest::pullbackUnary(OpCode opcode,int4 insize)
{
CircleRangeTestEnvironment::build();
OpBehavior *behave = glb->inst[opcode]->getBehavior();
vector<uintb> res;
for(int4 i=0;i<elements.size();++i) {
try {
res.push_back(behave->recoverInputUnary(bytes, elements[i], insize));
} catch(EvaluationError &err) {
// output is not in range
}
}
elements = res;
if (insize != bytes) {
bytes = insize;
mask = calc_mask(insize);
}
}
void CircleRangeTest::pullbackBinary(OpCode opcode,int4 slot,uintb val)
{
CircleRangeTestEnvironment::build();
OpBehavior *behave = glb->inst[opcode]->getBehavior();
vector<uintb> res;
for(int4 i=0;i<elements.size();++i) {
try {
res.push_back(behave->recoverInputBinary(slot, bytes, elements[i], bytes, val));
} catch(EvaluationError &err) {
// output is not in range
}
}
elements = res;
}
bool CircleRangeTest::getStartStopStep(uintb &start,uintb &stop,int4 &step)
{
if (elements.empty()) {
start = 0;
stop = 0;
step = 1;
return true;
}
sort(elements.begin(),elements.end());
int4 bigpos = -1;
uintb biggest1 = 0;
uintb biggest2 = 0;
if (elements.back() > mask) return false;
for(int4 i=1;i<elements.size();++i) {
uintb diff = elements[i] - elements[i-1];
if (diff >= biggest1) {
if (diff > biggest1) {
biggest2 = biggest1;
biggest1 = diff;
bigpos = i;
}
}
else if (diff > biggest2)
biggest2 = diff;
}
if (biggest1 == 0) return false;
if (biggest2 == 0) {
step = biggest1;
start = elements[0];
stop = (elements.back() + step) & mask;
return true;
}
int4 count1 = 0;
int4 count2 = 0;
int4 count3 = 0;
for(int4 i=1;i<elements.size();++i) {
uintb diff = elements[i] - elements[i-1];
if (diff == biggest1)
count1 += 1;
else if (diff == biggest2)
count2 += 1;
else
count3 += 1;
}
if (count3 > 0) return false;
if (count1 > 1) return false;
step = biggest2;
uintb tmp = elements.back() + step;
if (tmp <= mask) return false;
tmp -= (mask + 1);
if (tmp != elements[0]) return false;
start = elements[bigpos];
stop = elements[bigpos-1] + step;
return true;
}
TEST(circlerange_intersect1) {
ASSERT(CircleRangeTest::testIntersect(1,20, 10, 30, 1, 4));
}
TEST(circlerange_intersect2) {
ASSERT(CircleRangeTest::testIntersect(200,10, 250, 5, 1,1));
}
TEST(circlerange_intersect3) {
ASSERT(CircleRangeTest::testIntersect(1,250, 240, 5, 1,1));
}
TEST(circlerange_intersect4) {
ASSERT(CircleRangeTest::testIntersect(4,100, 248, 52, 4,1));
}
TEST(circlerange_intersect5) {
ASSERT(CircleRangeTest::testIntersect(0x100000, 0x1000fe, 0xfffffffffffffff0, 0xfffffffffffffffe, 2, 8));
}
TEST(circlerange_intersect6) {
ASSERT(CircleRangeTest::testIntersect(0x100, 0x110, 0x110, 0x130, 4, 2));
}
TEST(circlerange_intersect7) {
ASSERT(CircleRangeTest::testIntersect(0xffe0, 0x20, 0, 0x20, 2, 2));
}
TEST(circlerange_intersect8) {
ASSERT(CircleRangeTest::testIntersect(0x80, 0x8, 0xd0, 0x80, 1, 1));
}
TEST(circlerange_union1) {
ASSERT(CircleRangeTest::testUnion(1,20, 10, 30, 1, 4));
}
TEST(circlerange_union2) {
ASSERT(CircleRangeTest::testUnion(200,10, 250, 5, 1,1));
}
TEST(circlerange_union3) {
ASSERT(CircleRangeTest::testUnion(1,250, 240, 5, 1,1));
}
TEST(circlerange_union4) {
ASSERT(CircleRangeTest::testUnion(4,100, 248, 52, 4,1));
}
TEST(circlerange_union5) {
ASSERT(CircleRangeTest::testUnion(0x100000, 0x1000fe, 0xfffffffffffffff0, 0xfffffffffffffffe, 2, 8));
}
TEST(circlerange_union6) {
ASSERT(CircleRangeTest::testUnion(0x100, 0x110, 0x110, 0x130, 4, 2));
}
TEST(circlerange_union7) {
ASSERT(CircleRangeTest::testUnion(0xffe0, 0x20, 0, 0x20, 2, 2));
}
TEST(circlerange_union8) {
ASSERT(CircleRangeTest::testUnion(0x80, 0x8, 0xd0, 0x80, 1, 1));
}
TEST(circlerange_pullbacknegate1) {
ASSERT(CircleRangeTest::testPullbackUnary(1, 20, 1, 4, CPUI_INT_NEGATE,4));
}
TEST(circlerange_pullbacknegate2) {
ASSERT(CircleRangeTest::testPullbackUnary(0xf0, 0x10, 1, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pullbacknegate3) {
ASSERT(CircleRangeTest::testPullbackUnary(0x10, 0x30, 4, 4, CPUI_INT_NEGATE,4));
}
TEST(circlerange_pullbacknegate4) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0x0, 4, 2, CPUI_INT_NEGATE,2));
}
TEST(circlerange_pullbacknegate5) {
ASSERT(CircleRangeTest::testPullbackUnary(0xd1, 0x11, 4, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pullbacknegate6) {
ASSERT(CircleRangeTest::testPullbackUnary(0, 0x30, 4, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pullbackminus1) {
ASSERT(CircleRangeTest::testPullbackUnary(1, 20, 1, 4, CPUI_INT_2COMP,4));
}
TEST(circlerange_pullbackminus2) {
ASSERT(CircleRangeTest::testPullbackUnary(0xf0, 0x10, 1, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pullbackminus3) {
ASSERT(CircleRangeTest::testPullbackUnary(0x10, 0x30, 4, 4, CPUI_INT_2COMP,4));
}
TEST(circlerange_pullbackminus4) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0x0, 4, 2, CPUI_INT_2COMP,2));
}
TEST(circlerange_pullbackminus5) {
ASSERT(CircleRangeTest::testPullbackUnary(0xd1, 0x11, 4, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pullbackminus6) {
ASSERT(CircleRangeTest::testPullbackUnary(0, 0x30, 4, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pullbackzext1) {
ASSERT(CircleRangeTest::testPullbackUnary(1, 20, 1, 4, CPUI_INT_ZEXT,2));
}
TEST(circlerange_pullbackzext2) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0xff10, 1, 2, CPUI_INT_ZEXT,1));
}
TEST(circlerange_pullbackzext3) {
ASSERT(CircleRangeTest::testPullbackUnary(0x10, 0x30, 4, 4, CPUI_INT_ZEXT,1));
}
TEST(circlerange_pullbackzext4) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0x0, 4, 2, CPUI_INT_ZEXT,1));
}
TEST(circlerange_pullbackzext5) {
ASSERT(CircleRangeTest::testPullbackUnary(0xffd1, 0x11, 4, 2, CPUI_INT_ZEXT,1));
}
TEST(circlerange_pullbackzext6) {
ASSERT(CircleRangeTest::testPullbackUnary(0, 0x30, 4, 4, CPUI_INT_ZEXT,2));
}
TEST(circlerange_pullbacksext1) {
ASSERT(CircleRangeTest::testPullbackUnary(1, 20, 1, 4, CPUI_INT_SEXT,2));
}
TEST(circlerange_pullbacksext2) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0x10, 1, 2, CPUI_INT_SEXT,1));
}
TEST(circlerange_pullbacksext3) {
ASSERT(CircleRangeTest::testPullbackUnary(0x10, 0x30, 4, 4, CPUI_INT_SEXT,2));
}
TEST(circlerange_pullbacksext4) {
ASSERT(CircleRangeTest::testPullbackUnary(0xfff0, 0x0, 4, 2, CPUI_INT_SEXT,1));
}
TEST(circlerange_pullbacksext5) {
ASSERT(CircleRangeTest::testPullbackUnary(0xffd1, 0x11, 4, 2, CPUI_INT_SEXT,1));
}
TEST(circlerange_pullbacksext6) {
ASSERT(CircleRangeTest::testPullbackUnary(0, 0x30, 4, 2, CPUI_INT_SEXT,1));
}
TEST(circlerange_pullbackadd1) {
ASSERT(CircleRangeTest::testPullbackBinary(1, 20, 1, 4, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbackadd2) {
ASSERT(CircleRangeTest::testPullbackBinary(0xf0, 0x10, 1, 1, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbackadd3) {
ASSERT(CircleRangeTest::testPullbackBinary(0x10, 0x30, 4, 4, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbackadd4) {
ASSERT(CircleRangeTest::testPullbackBinary(0xfff0, 0x0, 4, 2, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbackadd5) {
ASSERT(CircleRangeTest::testPullbackBinary(0xd1, 0x11, 4, 1, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbackadd6) {
ASSERT(CircleRangeTest::testPullbackBinary(0, 0x30, 4, 1, CPUI_INT_ADD, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub1) {
ASSERT(CircleRangeTest::testPullbackBinary(1, 20, 1, 4, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub2) {
ASSERT(CircleRangeTest::testPullbackBinary(0xf0, 0x10, 1, 1, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub3) {
ASSERT(CircleRangeTest::testPullbackBinary(0x10, 0x30, 4, 4, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub4) {
ASSERT(CircleRangeTest::testPullbackBinary(0xfff0, 0x0, 4, 2, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub5) {
ASSERT(CircleRangeTest::testPullbackBinary(0xd1, 0x11, 4, 1, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbacksub6) {
ASSERT(CircleRangeTest::testPullbackBinary(0, 0x30, 4, 1, CPUI_INT_SUB, 0, 0xfffffffd));
}
TEST(circlerange_pullbackright1) {
CircleRange range(0x01, 0x0f, 2, 1);
bool valid = range.pullBackBinary(CPUI_INT_RIGHT, 8, 0, 2, 2);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(),0x100);
ASSERT_EQUALS(range.getEnd(),0xf00);
}
TEST(circlerange_pullbackright2) {
CircleRange range(0xf0,0x10,2,1);
bool valid = range.pullBackBinary(CPUI_INT_RIGHT, 8, 0, 2, 2);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(),0xf000);
ASSERT_EQUALS(range.getEnd(),0x1000);
}
TEST(circlerange_pullbackright3) {
CircleRange range(0xf0,0x10,1,1);
bool valid = range.pullBackBinary(CPUI_INT_RIGHT, 1, 0, 1, 1);
ASSERT(valid);
ASSERT_EQUALS(0,range.getMin());
ASSERT_EQUALS(0x20,range.getEnd());
}
TEST(circlerange_pullbackright4) {
CircleRange range(0x01, 0x0f, 2, 2);
bool valid = range.pullBackBinary(CPUI_INT_RIGHT, 8, 0, 2, 2);
ASSERT(!valid);
}
TEST(circlerange_pullbacksright1) {
CircleRange range(0x01, 0x0f, 2, 1);
bool valid = range.pullBackBinary(CPUI_INT_SRIGHT, 8, 0, 2, 2);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(),0x100);
ASSERT_EQUALS(range.getEnd(),0xf00);
}
TEST(circlerange_pullbacksright2) {
CircleRange range(0xf0,0x10,1,1);
bool valid = range.pullBackBinary(CPUI_INT_SRIGHT, 2, 0, 1, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(),0xc0);
ASSERT_EQUALS(range.getEnd(),0x40);
}
TEST(circlerange_pullbacksright3) {
CircleRange range(0x10,0x30,1,1);
bool valid = range.pullBackBinary(CPUI_INT_SRIGHT, 2, 0, 1, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(),0x40);
ASSERT_EQUALS(range.getEnd(),0x80);
}
TEST(circlerange_pullbacksright4) {
CircleRange range(0x01, 0x0f, 2, 2);
bool valid = range.pullBackBinary(CPUI_INT_SRIGHT, 8, 0, 2, 2);
ASSERT(!valid);
}
TEST(circlerange_pullbackequal1) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_EQUAL, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1234);
ASSERT_EQUALS(range.getEnd(), 0x1235);
}
TEST(circlerange_pullbackequal2) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_EQUAL, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1235);
ASSERT_EQUALS(range.getEnd(), 0x1234);
}
TEST(circlerange_pullbacknotequal1) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_NOTEQUAL, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1234);
ASSERT_EQUALS(range.getEnd(), 0x1235);
}
TEST(circlerange_pullbacknotequal2) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_NOTEQUAL, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1235);
ASSERT_EQUALS(range.getEnd(), 0x1234);
}
TEST(circlerange_pullbackcarry1) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_CARRY, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0xedcc);
ASSERT_EQUALS(range.getEnd(), 0);
}
TEST(circlerange_pullbackcarry2) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_CARRY, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0);
ASSERT_EQUALS(range.getEnd(), 0xedcc);
}
TEST(circlerange_pullbackless1) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_LESS, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1234);
ASSERT_EQUALS(range.getEnd(), 0);
}
TEST(circlerange_pullbackless2) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_LESS, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0);
ASSERT_EQUALS(range.getEnd(), 0x1234);
}
TEST(circlerange_pullbacklessequal1) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_LESSEQUAL, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1235);
ASSERT_EQUALS(range.getEnd(), 0);
}
TEST(circlerange_pullbacklessequal2) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_LESSEQUAL, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0);
ASSERT_EQUALS(range.getEnd(), 0x1235);
}
TEST(circlerange_pullbacksless1) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_SLESS, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1234);
ASSERT_EQUALS(range.getEnd(), 0x80000000);
}
TEST(circlerange_pullbacksless2) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_SLESS, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x8000);
ASSERT_EQUALS(range.getEnd(), 0x1234);
}
TEST(circlerange_pullbackslessequal1) {
CircleRange range(false);
bool valid = range.pullBackBinary(CPUI_INT_SLESSEQUAL, 0x1234, 0, 4, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x1235);
ASSERT_EQUALS(range.getEnd(), 0x80000000);
}
TEST(circlerange_pullbackslessequal2) {
CircleRange range(true);
bool valid = range.pullBackBinary(CPUI_INT_SLESSEQUAL, 0x1234, 0, 2, 1);
ASSERT(valid);
ASSERT_EQUALS(range.getMin(), 0x8000);
ASSERT_EQUALS(range.getEnd(), 0x1235);
}
TEST(circlerange_pushnegate1) {
ASSERT(CircleRangeTest::testPushUnary(1, 20, 1, 4, CPUI_INT_NEGATE,4));
}
TEST(circlerange_pushnegate2) {
ASSERT(CircleRangeTest::testPushUnary(0xf0, 0x10, 1, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pushnegate3) {
ASSERT(CircleRangeTest::testPushUnary(0x10, 0x30, 4, 4, CPUI_INT_NEGATE,4));
}
TEST(circlerange_pushnegate4) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0x0, 4, 2, CPUI_INT_NEGATE,2));
}
TEST(circlerange_pushnegate5) {
ASSERT(CircleRangeTest::testPushUnary(0xd1, 0x11, 4, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pushnegate6) {
ASSERT(CircleRangeTest::testPushUnary(0, 0x30, 4, 1, CPUI_INT_NEGATE,1));
}
TEST(circlerange_pushminus1) {
ASSERT(CircleRangeTest::testPushUnary(1, 20, 1, 4, CPUI_INT_2COMP,4));
}
TEST(circlerange_pushminus2) {
ASSERT(CircleRangeTest::testPushUnary(0xf0, 0x10, 1, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pushminus3) {
ASSERT(CircleRangeTest::testPushUnary(0x10, 0x30, 4, 4, CPUI_INT_2COMP,4));
}
TEST(circlerange_pushminus4) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0x0, 4, 2, CPUI_INT_2COMP,2));
}
TEST(circlerange_pushminus5) {
ASSERT(CircleRangeTest::testPushUnary(0xd1, 0x11, 4, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pushminus6) {
ASSERT(CircleRangeTest::testPushUnary(0, 0x30, 4, 1, CPUI_INT_2COMP,1));
}
TEST(circlerange_pushzext1) {
ASSERT(CircleRangeTest::testPushUnary(1, 20, 1, 2, CPUI_INT_ZEXT,4));
}
TEST(circlerange_pushzext2) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0xff10, 1, 2, CPUI_INT_ZEXT,4));
}
TEST(circlerange_pushzext3) {
ASSERT(CircleRangeTest::testPushUnary(0x10, 0x30, 4, 2, CPUI_INT_ZEXT,4));
}
TEST(circlerange_pushzext4) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0x0, 4, 2, CPUI_INT_ZEXT,4));
}
TEST(circlerange_pushzext5) {
ASSERT(CircleRangeTest::testPushUnary(0xffd1, 0xfff1, 4, 2, CPUI_INT_ZEXT,4));
}
TEST(circlerange_pushzext6) {
ASSERT(CircleRangeTest::testPushUnary(0, 0x30, 4, 1, CPUI_INT_ZEXT,2));
}
TEST(circlerange_pushzext7) {
ASSERT(CircleRangeTest::testPushUnary(0,0,4,1, CPUI_INT_ZEXT, 2));
}
TEST(circlerange_pushsext1) {
ASSERT(CircleRangeTest::testPushUnary(1, 20, 1, 2, CPUI_INT_SEXT,4));
}
TEST(circlerange_pushsext2) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0xff10, 1, 2, CPUI_INT_SEXT,4));
}
TEST(circlerange_pushsext3) {
ASSERT(CircleRangeTest::testPushUnary(0x10, 0x30, 4, 2, CPUI_INT_SEXT,4));
}
TEST(circlerange_pushsext4) {
ASSERT(CircleRangeTest::testPushUnary(0xfff0, 0x0, 4, 2, CPUI_INT_SEXT,4));
}
TEST(circlerange_pushsext5) {
ASSERT(CircleRangeTest::testPushUnary(0xffd1, 0xfff1, 4, 2, CPUI_INT_SEXT,4));
}
TEST(circlerange_pushsext6) {
ASSERT(CircleRangeTest::testPushUnary(0, 0x30, 4, 1, CPUI_INT_SEXT,2));
}
TEST(circlerange_pushsext7) {
ASSERT(CircleRangeTest::testPushUnary(0,0,4,1, CPUI_INT_SEXT, 2));
}

View file

@ -18,10 +18,10 @@
#include "test.hh"
#include <iostream>
Architecture *glb;
TypeFactory *types;
CastStrategy *strategy;
Funcdata *dummyFunc;
static Architecture *glb;
static TypeFactory *types;
static CastStrategy *strategy;
static Funcdata *dummyFunc;
class TypeTestEnvironment {
Architecture *g;