Intersection Sphere::GetIntersection(const Ray& r)
{
Ray r_obj(r.getTransformedCopy(this->transform.invT()));
float radius = 0.5f;
glm::vec3 center(0.f);
float A = glm::length2(r_obj.direction);
float B = 2 * (glm::dot(r_obj.direction, r_obj.origin - center));
float C = glm::length2(r_obj.origin - center) - glm::pow(radius, 2.f);
float disc = glm::pow(B, 2.f) - 4 * A * C;
if (disc<0) return Intersection(); // B^2-4AC<0 then no intersection
float t = ( -B + glm::sqrt(disc) ) / (2 * A);
float temp = ( -B - glm::sqrt(disc) ) / (2 * A);
if (t >= 0)
{
if (temp < t && temp >= 0) t = temp;
}
else
t = temp;
if (t < 0 ) return Intersection(); // not in the front
glm::vec3 ipoint(r_obj.origin + t * r_obj.direction);
glm::vec3 inormal(glm::normalize(ipoint - center));
glm::vec3 itangent = glm::cross(glm::vec3(0,1,0), inormal);
if (fequal(glm::length2(itangent), 0.f))
{
itangent = glm::vec3(0,0,1);
}
glm::vec3 ipoint_world(this->transform.T() * glm::vec4(ipoint, 1.f));
glm::vec4 normal4_world(this->transform.invTransT() * glm::vec4(inormal,0.f));
glm::vec3 normal_world( normal4_world );
normal_world = glm::normalize(normal_world);
glm::vec3 tangent_world = glm::normalize(glm::vec3(this->transform.invTransT() * glm::vec4(itangent, 0.f)));
//bitangent computed in Intersection constructor
float t_world = glm::dot(ipoint_world - r.origin, r.direction);
glm::vec2 uv = this->GetUVCoordinates(ipoint);
glm::vec3 s_color = Material::GetImageColorInterp(uv, this->material->texture);
return Intersection(ipoint_world, normal_world, tangent_world, t_world, s_color, this);
}
Intersection SquarePlane::GetIntersection(const Ray& r)
{
Ray r_obj(r.getTransformedCopy(this->transform.invT()));
glm::vec3 center(0.f, 0.f, 0.f);
glm::vec3 normal(0.f, 0.f, 1.f);
float halfside = 1 * 0.5f;
if (fequal(r_obj.direction.z, 0.f))
return Intersection();
// since it's a fixed XY plane, this is a simplified ray-plane intersection
float t = (center.z - r_obj.origin.z) / r_obj.direction.z;
if (t < 0) return Intersection();
glm::vec3 ipoint(r_obj.origin + t * r_obj.direction);
if (ipoint.x > center.x + halfside || ipoint.x < center.x - halfside)
return Intersection();
if (ipoint.y > center.y + halfside || ipoint.y < center.y - halfside)
return Intersection();
glm::vec3 ipoint_world(this->transform.T() * glm::vec4(ipoint, 1.f));
glm::vec4 normal4_world(this->transform.invTransT() * glm::vec4(normal,0.f));
glm::vec3 normal_world(normal4_world);
normal_world = glm::normalize(normal_world);
float t_world = glm::dot(ipoint_world - r.origin, r.direction);
glm::vec3 s_color = Material::GetImageColorInterp(this->GetUVCoordinates(ipoint), this->material->texture);
glm::vec4 tangent_o(1,0,0,0);
glm::vec3 tangent_world = glm::normalize(glm::vec3(this->transform.invTransT() * tangent_o));
//bitangent computed in Intersection constructor
return Intersection(ipoint_world, normal_world, tangent_world, t_world, s_color, this);
}
std::string
Java_Compiler_Dump_Algorithm::process ( boost::uint32_t compiler_id,
std::string filename )
{
#ifdef LIBREVERSE_DEBUG
Trace::write_Trace ( TraceArea::GRNN_OPTIMIZER,
TraceLevel::DETAIL,
"Entering Java_Compiler_Dump_Algorithm::process" );
#endif /* LIBREVERSE_DEBUG */
std::stringstream output;
try
{
reverse::io_types::File_ID::ptr_t file_obj ( new reverse::io::File_ID ( filename ) );
reverse::java_module::Reader r_obj ( file_obj );
r_obj.read_Class_Header();
reverse::data_types::memory_map::ptr_t mem_ptr = r_obj.get_memory_map();
output << boost::format(" <%1%>") % classifier::Java_Input_Tag_Names::TAG_FILE << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_TARGET_ID
% compiler_id
% classifier::Java_Input_Tag_Names::TAG_TARGET_ID << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_FILESIZE
% ( mem_ptr->size() )
% classifier::Java_Input_Tag_Names::TAG_FILESIZE << std::endl;
// Get class header
reverse::java_types::Class_Header::ptr_t hdr_ptr = r_obj.get_Header();
// Grab data
std::vector<float> stats(12,0);
collect_Constant_Pool_Stats ( stats, hdr_ptr->get_Constant_Pool_Begin(), hdr_ptr->get_Constant_Pool_End() );
// Add entry to output file
output << boost::format ( " <%1%>%2%.%3%</%4%>" )
% classifier::Java_Input_Tag_Names::TAG_VERSION
% hdr_ptr->get_Major_Version()
% hdr_ptr->get_Minor_Version()
% classifier::Java_Input_Tag_Names::TAG_VERSION << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_THIS_INDEX
% hdr_ptr->get_This_Class()
% classifier::Java_Input_Tag_Names::TAG_THIS_INDEX << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_SUPER_INDEX
% hdr_ptr->get_Super_Class()
% classifier::Java_Input_Tag_Names::TAG_SUPER_INDEX << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_CONSTANT_POOL_COUNT
% hdr_ptr->get_Constant_Pool_Count()
% classifier::Java_Input_Tag_Names::TAG_CONSTANT_POOL_COUNT << std::endl;
float constant_pool_total = hdr_ptr->get_Constant_Pool_Count();
print_Constant_Pool_Stats ( output, stats, constant_pool_total );
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_FIELD_COUNT
% hdr_ptr->get_Field_Count()
% classifier::Java_Input_Tag_Names::TAG_FIELD_COUNT << std::endl;
output << boost::format ( " <%1%>%2%</%3%>" )
% classifier::Java_Input_Tag_Names::TAG_METHOD_COUNT
% hdr_ptr->get_Method_Count()
% classifier::Java_Input_Tag_Names::TAG_METHOD_COUNT << std::endl;
output << boost::format(" </%1%>" ) % classifier::Java_Input_Tag_Names::TAG_FILE << std::endl;
}
catch ( std::exception &e )
{
#ifdef LIBREVERSE_DEBUG
Trace::write_Trace ( TraceArea::GRNN_OPTIMIZER,
TraceLevel::ERROR,
boost::str ( boost::format("(ERROR) Cannot read %1%. Skipping the file. ") % filename ) );
Trace::write_Trace ( TraceArea::GRNN_OPTIMIZER,
TraceLevel::ERROR,
e.what() );
#endif /* LIBREVERSE_DEBUG */
}
#ifdef LIBREVERSE_DEBUG
Trace::write_Trace ( TraceArea::GRNN_OPTIMIZER,
TraceLevel::DETAIL,
"Exiting Java_Compiler_Dump_Algorithm::process" );
#endif /* LIBREVERSE_DEBUG */
return output.str();
}
