status_t BnCrypto::onTransact(
uint32_t code, const Parcel &data, Parcel *reply, uint32_t flags) {
switch (code) {
case INIT_CHECK:
{
CHECK_INTERFACE(ICrypto, data, reply);
reply->writeInt32(initCheck());
return OK;
}
case IS_CRYPTO_SUPPORTED:
{
CHECK_INTERFACE(ICrypto, data, reply);
uint8_t uuid[16];
data.read(uuid, sizeof(uuid));
reply->writeInt32(isCryptoSchemeSupported(uuid));
return OK;
}
case CREATE_PLUGIN:
{
CHECK_INTERFACE(ICrypto, data, reply);
uint8_t uuid[16];
data.read(uuid, sizeof(uuid));
size_t opaqueSize = data.readInt32();
void *opaqueData = NULL;
if (opaqueSize > 0) {
opaqueData = malloc(opaqueSize);
data.read(opaqueData, opaqueSize);
}
reply->writeInt32(createPlugin(uuid, opaqueData, opaqueSize));
if (opaqueData != NULL) {
free(opaqueData);
opaqueData = NULL;
}
return OK;
}
case DESTROY_PLUGIN:
{
CHECK_INTERFACE(ICrypto, data, reply);
reply->writeInt32(destroyPlugin());
return OK;
}
case REQUIRES_SECURE_COMPONENT:
{
CHECK_INTERFACE(ICrypto, data, reply);
const char *mime = data.readCString();
reply->writeInt32(requiresSecureDecoderComponent(mime));
return OK;
}
case DECRYPT:
{
CHECK_INTERFACE(ICrypto, data, reply);
bool secure = data.readInt32() != 0;
CryptoPlugin::Mode mode = (CryptoPlugin::Mode)data.readInt32();
uint8_t key[16];
data.read(key, sizeof(key));
uint8_t iv[16];
data.read(iv, sizeof(iv));
size_t totalSize = data.readInt32();
sp<IMemory> sharedBuffer =
interface_cast<IMemory>(data.readStrongBinder());
int32_t offset = data.readInt32();
int32_t numSubSamples = data.readInt32();
CryptoPlugin::SubSample *subSamples =
new CryptoPlugin::SubSample[numSubSamples];
data.read(
subSamples,
sizeof(CryptoPlugin::SubSample) * numSubSamples);
void *secureBufferId, *dstPtr;
if (secure) {
secureBufferId = reinterpret_cast<void *>(static_cast<uintptr_t>(data.readInt64()));
} else {
dstPtr = malloc(totalSize);
}
AString errorDetailMsg;
ssize_t result;
if (offset + totalSize > sharedBuffer->size()) {
result = -EINVAL;
} else {
result = decrypt(
secure,
key,
iv,
mode,
sharedBuffer, offset,
subSamples, numSubSamples,
secure ? secureBufferId : dstPtr,
&errorDetailMsg);
}
reply->writeInt32(result);
if (isCryptoError(result)) {
reply->writeCString(errorDetailMsg.c_str());
}
if (!secure) {
if (result >= 0) {
CHECK_LE(result, static_cast<ssize_t>(totalSize));
reply->write(dstPtr, result);
}
free(dstPtr);
dstPtr = NULL;
}
delete[] subSamples;
subSamples = NULL;
return OK;
}
case NOTIFY_RESOLUTION:
{
CHECK_INTERFACE(ICrypto, data, reply);
int32_t width = data.readInt32();
int32_t height = data.readInt32();
notifyResolution(width, height);
return OK;
}
case SET_MEDIADRM_SESSION:
{
CHECK_INTERFACE(IDrm, data, reply);
Vector<uint8_t> sessionId;
readVector(data, sessionId);
reply->writeInt32(setMediaDrmSession(sessionId));
return OK;
}
default:
return BBinder::onTransact(code, data, reply, flags);
}
}
PRUoutcome::PRUoutcome(xmlpp::TextReader &reader) {
initDefaultValues();
if (reader.has_attributes()) {
reader.move_to_first_attribute();
do {
if (reader.get_name() == "id")
name = reader.get_value();
else if (reader.get_name() == "p")
probability = atof(reader.get_value().c_str());
} while (reader.move_to_next_attribute());
reader.move_to_element();
}
while(reader.read()) {
string name = reader.get_name();
if ((reader.get_node_type() == xmlpp::TextReader::EndElement) &&
(name == "Outcome"))
break;
if (reader.get_node_type() != xmlpp::TextReader::Element )
continue;
if (name == "Quality") {
if (reader.has_attributes()) {
reader.move_to_first_attribute();
do {
if (reader.get_name() == "kind")
quality = reader.get_value();
else if (reader.get_name() == "param")
qualityParameter = atof(reader.get_value().c_str());
else if (reader.get_name() == "const")
qualityConstant = atof(reader.get_value().c_str());
} while (reader.move_to_next_attribute());
reader.move_to_element();
}
} else if (name == "Duration") {
if (reader.has_attributes()) {
reader.move_to_first_attribute();
do {
if (reader.get_name() == "kind")
duration = reader.get_value();
else if (reader.get_name() == "param")
durationParameter = atof(reader.get_value().c_str());
else if (reader.get_name() == "const")
durationConstant = atof(reader.get_value().c_str());
} while (reader.move_to_next_attribute());
reader.move_to_element();
}
} else if (name == "Observe") {
if (reader.has_value())
observable = reader.get_value();
else
observable = reader.read_string();
} else if (name == "SVU") {
readVector(stateVariableUpdate,reader);
} else if (name == "Final") {
isFinal = true;
if (reader.has_attributes()) {
reader.move_to_first_attribute();
do {
if (reader.get_name() == "label")
finalLabel = reader.get_value();
} while (reader.move_to_next_attribute());
reader.move_to_element();
}
} else if (name == "Next")
readVector(nextModules,reader,"\n ");
else
std::cerr << "Unexpected tag " << name << "!" << std::endl;
} // while reader.read()
} // PRUoutcome(reader)
void property::update(bitstream &stream) {
#ifdef TEST_SKIPPING
uint32_t cur = stream.position();
property::skip(stream, prop);
uint32_t diff1 = stream.position() - cur;
stream.seekBackward(diff1);
// assert that seeking backwards worked and we have a clean state
assert ( cur == stream.position() );
#endif // TEST_SKIPPING
switch (prop->getType()) {
// Read Integer
case sendprop::T_Int:
readInt(stream, this);
break;
// Read Float
case sendprop::T_Float:
set(readFloat(stream, this));
break;
// Read 3D Vector
case sendprop::T_Vector: {
std::array<float, 3> vec;
readVector(vec, stream, this);
set(std::move(vec));
} break;
// Read 2D
case sendprop::T_VectorXY: {
std::array<float, 2> vec;
readVectorXY(vec, stream, this);
set(std::move(vec));
} break;
// Read String
case sendprop::T_String: {
char str[PROPERTY_MAX_STRING_LENGTH + 1];
uint32_t length = readString(str, stream);
set(std::string(str, length));
} break;
// Read Array
case sendprop::T_Array:{
std::vector<property> vec;
readArray(vec, stream, prop);
set(std::move(vec));
} break;
// Read 64 bit Integer
case sendprop::T_Int64:
readInt64(stream, this);
break;
default:
BOOST_THROW_EXCEPTION( propertyInvalidType()
<< (EArgT<1, uint32_t>::info(prop->getType()))
);
break;
}
#ifdef TEST_SKIPPING
uint32_t diff2 = stream.position() - cur;
if (diff2 != diff1) {
std::cout << "Skip failed: " << diff1 << " (skip) " << diff2 << " (read) " << std::endl;
std::cout << "Type ID: " << prop->getType() << std::endl;
exit(0);
}
#endif // TEST_SKIPPING
}
void processMesh(std::string filename)
{
Assimp::Importer Importer;
const aiScene* scene = Importer.ReadFile(filename.c_str(), aiProcess_Triangulate | aiProcess_GenSmoothNormals
| aiProcess_FlipUVs | aiProcess_JoinIdenticalVertices | aiProcess_ImproveCacheLocality);
if (!scene) {
std::cout << "File " << filename << " not found." << std::endl;
return;
}
for (uint32 meshID = 0; meshID < scene->mNumMeshes; ++meshID)
{
const aiMesh* mesh = scene->mMeshes[meshID];
mesh_header meshHeader = { 0 };
meshHeader.magicNumber = MESH_MAGIC_NUMBER;
skeleton_header skelHeader = { 0 };
skelHeader.magicNumber = SKELETON_MAGIC_NUMBER;
std::vector<vec3> positions;
std::vector<vec2> texCoords;
std::vector<vec3> normals;
std::vector<vertex_weight> weights;
std::vector<uint16> indices;
positions.reserve(mesh->mNumVertices);
texCoords.reserve(mesh->mNumVertices);
normals.reserve(mesh->mNumVertices);
weights.reserve(mesh->mNumVertices);
indices.reserve(mesh->mNumFaces);
meshHeader.vertexCount = mesh->mNumVertices;
meshHeader.indexCount = mesh->mNumFaces * 3;
for (uint32 i = 0; i < mesh->mNumVertices; i++) {
if (mesh->HasPositions())
{
meshHeader.hasPositions = true;
const aiVector3D& pos = mesh->mVertices[i];
positions.push_back(vec3(pos.x, pos.y, pos.z));
}
if (mesh->HasNormals())
{
meshHeader.hasNormals = true;
const aiVector3D& nor = mesh->mNormals[i];
normals.push_back(vec3(nor.x, nor.y, nor.z));
}
if (mesh->HasTextureCoords(0))
{
meshHeader.hasTexCoords = true;
const aiVector3D& tex = mesh->mTextureCoords[0][i];
texCoords.push_back(vec2(tex.x, tex.y));
}
}
for (uint32 i = 0; i < mesh->mNumFaces; i++) {
const aiFace &face = mesh->mFaces[i];
assert(face.mNumIndices == 3);
indices.push_back((uint16)face.mIndices[0]);
indices.push_back((uint16)face.mIndices[1]);
indices.push_back((uint16)face.mIndices[2]);
}
if (mesh->HasBones())
{
meshHeader.hasSkeleton = true;
vertex_weight defaultWeight = { 0 };
weights.resize(mesh->mNumVertices, defaultWeight);
std::map<std::string, bone_idx> boneNames;
std::vector<bone_info> boneInfos;
uint32 numberOfBones = mesh->mNumBones;
for (bone_idx boneID = 0; boneID < (bone_idx)numberOfBones; ++boneID)
{
const aiBone* bone = mesh->mBones[boneID];
std::string boneName = bone->mName.C_Str();
boneNames[boneName] = boneID;
bone_info boneInfo;
boneInfo.invBindMatrix = readMatrix(bone->mOffsetMatrix);
boneInfo.name = boneName;
boneInfos.push_back(boneInfo);
for (uint32 weightID = 0; weightID < bone->mNumWeights; ++weightID)
{
uint32 vertexID = bone->mWeights[weightID].mVertexId;
float weight = bone->mWeights[weightID].mWeight;
vertex_weight& vWeight = weights[vertexID];
// search first unused
for (uint32 i = 0; i < 4; ++i)
{
if (vWeight.weights[i] == 0.f)
{
vWeight.joints[i] = boneID;
vWeight.weights[i] = weight;
break;
}
}
}
}
// normalize weights -> sum up to 1
for (vertex_weight& vWeight : weights)
{
vec4 tmp(vWeight.weights[0], vWeight.weights[1], vWeight.weights[2], vWeight.weights[3]);
normalize(tmp);
vWeight.weights[0] = tmp.x; vWeight.weights[1] = tmp.y; vWeight.weights[2] = tmp.z; vWeight.weights[3] = tmp.w;
}
readSkeleton(scene->mRootNode, boneNames, boneInfos, NO_PARENT);
skelHeader.jointCount = (bone_idx)boneInfos.size();
if (scene->HasAnimations())
{
for (uint32 animationID = 0; animationID < scene->mNumAnimations; ++animationID)
{
std::vector<anim_channel> animChannels;
const aiAnimation* animation = scene->mAnimations[animationID];
float ticksPerSecond = (float)animation->mTicksPerSecond;
float normalizingFactor = (ticksPerSecond == 0.f) ? 1.f : 1.f / ticksPerSecond;
bone_idx numberOfAnimatedBones = animation->mNumChannels;
for (bone_idx channelID = 0; channelID < numberOfAnimatedBones; ++channelID)
{
const aiNodeAnim* channel = animation->mChannels[channelID];
std::string boneName = channel->mNodeName.C_Str();
if (boneNames.find(boneName) != boneNames.end()) {
bone_idx boneID = boneNames[boneName];
anim_channel animChannel;
animChannel.boneID = boneID;
// for now
assert(channel->mNumPositionKeys == channel->mNumRotationKeys && channel->mNumPositionKeys == channel->mNumScalingKeys);
for (uint32 keyID = 0; keyID < channel->mNumPositionKeys; ++keyID)
{
key_frame keyframe;
keyframe.time = (float)channel->mPositionKeys[keyID].mTime * normalizingFactor;
keyframe.sqt.position = readVector(channel->mPositionKeys[keyID]);
keyframe.sqt.rotation = readQuaternion(channel->mRotationKeys[keyID]);
keyframe.sqt.scale = readVector(channel->mScalingKeys[keyID]).x;
animChannel.keyframes.push_back(keyframe);
}
animChannels.push_back(animChannel);
}
}
animation_header animHeader;
animHeader.magicNumber = ANIMATION_MAGIC_NUMBER;
animHeader.jointCount = (bone_idx)animChannels.size();
animHeader.length = (float)animation->mDuration * normalizingFactor;
animHeader.looping = true;
animHeader.skeleton = 0;
std::sort(animChannels.begin(), animChannels.end(), [](const anim_channel& a, const anim_channel& b)
{
return a.boneID < b.boneID;
});
// output animations
std::string animationFileName;
if (animation->mName.length == 0)
{
animationFileName = std::string("../Game/assets/animations/") + getFileName(filename) + ".anim";
}
else
{
animationFileName = std::string("../Game/assets/animations/") + getAnimationFileName(animation->mName.C_Str()) + ".anim";
}
outputAnimation(animationFileName, animHeader, animChannels);
}
}
std::string skeletonFileName = std::string("../Game/assets/skeletons/") + getFileName(filename) + ".skeleton";
outputSkeleton(skeletonFileName, skelHeader, boneInfos);
}
std::string meshFileName = std::string("../Game/assets/models/") + getFileName(filename) + ".mesh";
outputMesh(meshFileName, meshHeader, positions, texCoords, normals, weights, indices);
}
}
int main(int argc, char* argv[])
{
typedef long Int;
typedef double Entry;
typedef Kokkos::OpenMP Exe_Space;
if(argc < 2)
{
std::cout <<"Inputs nthreads matrix.mtx (optional rhs.mtx)"
<< std::endl;
return -1;
}
Int nthreads = atoi(argv[1]);
std::string mname = std::string(argv[2]);
std::string vname;
//Load inital information
//Matrix
Int m, n, nnz;
m = n = nnz = 0;
Int *col_ptr, *row_idx;
Entry *val;
readMatrix(mname, m, n, nnz, &col_ptr, &row_idx, &val);
//RHS
Int vn, vm;
vn = vm = 0;
Entry *x, *xhat, *y;
vn = n;
x = new Entry[n]();
xhat = new Entry[n]();
if(argc == 4)
{
vname = std::string(argv[3]);
readVector(vname, vm, y);
}
else
{
vm = m;
y = new Entry[m]();
for(Int i = 0; i < vm; i++)
{
y[i] = (Entry) i;
}
}
//Starting up Kokkos
Exe_Space::initialize(nthreads);
std::cout << "Kokkos Settings" << std::endl;
std::cout << "hwloc aval: "
<< Kokkos::hwloc::available()<< std::endl;
std::cout << "numa count: "
<< Kokkos::hwloc::get_available_numa_count()
<< std::endl;
std::cout << "thrd numa: "
<< Kokkos::hwloc::get_available_cores_per_numa()
<< std::endl;
//Start Basker
{
int result = 0;
BaskerNS::Basker<Int, Entry, Exe_Space> mybaker;
//---Options
mybasker.Options.same_pattern = BASKER_FALSE;
mybasker.Options.verbose = BASKER_FALSE;
mybasker.Options.verbose_matrix_out = BASKER_FALSE;
mybasker.Options.realloc = BASKER_TRUE;
mybasker.Options.transpose = BASKER_FALSE;
mybasker.Options.symmetric = BASKER_FALSE;
mybasker.Options.AtA = BASKER_TRUE;
mybasker.Options.A_plu_At = BASKER_TRUE;
mybasker.Options.matching = BASKER_TRUE;
mybasker.Options.matching_type = BASKER_MATCHING_BN;
mybasker.Options.btf = BASKER_TRUE;
mybasker.Options.btf_max_percent = BASKER_BTF_MAX_PERCENT;
mybasker.Options.btf_large = BASKER_BTF_LARGE;
mybasker.Options.no_pivot = BASKER_FALSE;
//mybasker.Options.pivot_tol = .001;
//mybasker.Options.pivot_bias = .001;
//mybasker.Options.btf_prune_size = 2;
std::cout << "Setting Threads:" << nthreads << std::endl;
mybasker.SetThreads(nthreads);
mybasker.Symbolic(m,n,nnz,col_ptr,row_idx,val);
mybasker.Factor(m,n,nnz,col_ptr,row_idx,val);
mybasker.DEBUG_PRINT();
mybasker.Solve(y,x);
//mybasker.GetPerm()
mybasker.Finalize();
}
Kokkos::finalize();
}//end main
void PhysicObject::loadPhysProperties(FILE* f) {
enablePhysics(readChar(f));
if (!isEnabledPhysics())
return;
setMass(readFloat(f));
setAngularFactor(readVector(f));
setLinearFactor(readVector(f));
//writeVector(getLinearVelocity(), f);
setTrigger(readChar(f));
setCollisionShapeType((CollisionShapeType)readChar(f));
setEnableDeactivation(readChar(f));
setFriction(readFloat(f));
setRestitution(readFloat(f));
setLinearDumping(readFloat(f));
setAngularDumping(readFloat(f));
// load custom collision shape
if (getCollisionShapeType() == CST_CUSTOM) {
switch ((GOCollisionShapeType)readChar(f)) {
case GOCST_COMPOUND_SHAPE:
setCollisionShape(new GOCompoundCollisionShape(f));
break;
case GOCST_BOX:
setCollisionShape(new GOBoxCollisionShape(f));
break;
case GOCST_SPHERE:
setCollisionShape(new GOSphereCollisionShape(f));
break;
case GOCST_CYLINDER:
setCollisionShape(new GOCylinderCollisionShape(f));
break;
case GOCST_UNDEFINED:
setCollisionShape(new GOUndefinedCollisionShape(f));
break;
case GOCST_CAPSULE:
setCollisionShape(new GOCapsuleCollisionShape(f));
break;
case GOCST_CONE:
setCollisionShape(new GOConeCollisionShape(f));
break;
case GOCST_MESH:
setCollisionShape(new GOMeshCollisionShape(f));
break;
default:
Log::error("PhysicObject::loadPhysProperties(FILE* f): Undefined custom shape type.");
}
}
// load constraints
int c_count = readChar(f);
for (int i = 0; i < c_count; i++) {
GOConstraint* cs;
unsigned char type = readChar(f);
switch (type) {
case GO_P2P_CONSTRAINT:
cs = new GOP2PConstraint(f);
break;
case GO_HINGE_CONSTRAINT:
cs = new GOHingeConstraint(f);
break;
case GO_SLIDER_CONSTRAINT:
cs = new GOSliderConstraint(f);
break;
default:
Log::error("PhysicObject::loadPhysProperties(FILE* f): Undefined constraint type.");
}
addConstraint(cs);
}
}
int main(int argc, char * * argv)
{
CipherResult cr;
unsigned int cIterations;
char * pszCipher;
Cipher * pCipher;
unsigned int cbBlock, cbKey;
octet abKey[MAX_KEY_SIZE];
Key * pKey;
octet abInit[MAX_BLOCK_SIZE];
octet abVector[MAX_BLOCK_SIZE];
unsigned int i;
clock_t t1, t2, t3, t4;
float ta, tb;
char what, what2;
pszProgramName = argv[0];
if (argc < 4) printUsage(1);
what = argv[1][0];
if (what != 't' && what != 'v') printUsage(1);
pszCipher = argv[2];
pCipher = findCipher(cipherTable, pszCipher, &cbBlock, &cbKey);
assert(pCipher);
if (what == 't') {
if (argc != 4) printUsage(1);
cIterations = atoi(argv[3]);
printf("%16s-%04d-%04d: ", pCipher->pszID, cbKey * 8, cbBlock * 8);
/* Dummy key. */
for (i = 0; i < cbKey; i++)
abKey[i] = i;
cr = cryptCreateKey(pCipher, cbBlock, cbKey, abKey, &pKey);
assert(!cr);
/* Initial test vector. */
for (i = 0; i < cbBlock; i++)
abInit[i] = i;
memcpy(abVector, abInit, cbBlock);
/* Encrypt cIterations times. */
t1 = clock();
for (i = cIterations; i; i--) {
pKey->pCipher->encryptBlock(pKey, abVector);
}
t2 = clock();
/* Decrypt cIterations times. */
t3 = clock();
for (i = cIterations; i; i--) {
pKey->pCipher->decryptBlock(pKey, abVector);
}
t4 = clock();
/* Result should match test vector. */
for (i = 0; i < cbBlock; i++)
assert(abInit[i] == abVector[i]);
ta = (t2 - t1) / (float) CLOCKS_PER_SEC;
tb = (t4 - t3) / (float) CLOCKS_PER_SEC;
printf("%8.3f %8.3f %8.3f %8.3f\n",
ta, /* time for encryption */
tb, /* time for decryption */
/* encryption speed in Mb/s */
(cbBlock * cIterations) / ta / (1024 * 1024),
/* decryption speed in Mb/s */
(cbBlock * cIterations) / tb / (1024 * 1024));
} else if (what == 'v') {
if (argc != 6) printUsage(1);
what2 = argv[3][0];
if (what2 != 'e' && what2 != 'd') printUsage(1);
readVector(argv[4], cbKey, abKey);
readVector(argv[5], cbBlock, abVector);
cr = cryptCreateKey(pCipher, cbBlock, cbKey, abKey, &pKey);
assert(!cr);
if (what2 == 'e')
pKey->pCipher->encryptBlock(pKey, abVector);
else
pKey->pCipher->decryptBlock(pKey, abVector);
for (i = 0; i < cbBlock; i++)
printf("%02x", (int) abVector[i]);
printf("\n");
}
return 0;
}