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/** \author Jia Pan */
#ifndef TEST_HPP_FCL_UTILITY_H
#define TEST_HPP_FCL_UTILITY_H
#include <hpp/fcl/math/transform.h>
#include <hpp/fcl/collision_data.h>
#include <hpp/fcl/collision_object.h>
#ifdef HPP_FCL_HAVE_OCTOMAP
#include <hpp/fcl/octree.h>
#endif
#ifdef _WIN32
#define NOMINMAX // required to avoid compilation errors with Visual Studio 2010
#include <windows.h>
#else
#include <sys/time.h>
#endif
#ifdef HPP_FCL_HAVE_OCTOMAP
namespace octomap {
typedef boost::shared_ptr<OcTree> OcTreePtr_t;
}
#endif
namespace hpp
{
namespace fcl
{
class Timer
{
public:
Timer();
~Timer();
void start(); ///< start timer
void stop(); ///< stop the timer
double getElapsedTime(); ///< get elapsed time in milli-second
double getElapsedTimeInSec(); ///< get elapsed time in second (same as getElapsedTime)
double getElapsedTimeInMilliSec(); ///< get elapsed time in milli-second
double getElapsedTimeInMicroSec(); ///< get elapsed time in micro-second
private:
double startTimeInMicroSec; ///< starting time in micro-second
double endTimeInMicroSec; ///< ending time in micro-second
int stopped; ///< stop flag
#ifdef _WIN32
LARGE_INTEGER frequency; ///< ticks per second
LARGE_INTEGER startCount;
LARGE_INTEGER endCount;
#else
timeval startCount;
timeval endCount;
#endif
};
extern const Eigen::IOFormat vfmt;
extern const Eigen::IOFormat pyfmt;
typedef Eigen::AngleAxis<FCL_REAL> AngleAxis;
extern const Vec3f UnitX;
extern const Vec3f UnitY;
extern const Vec3f UnitZ;
/// @brief Load an obj mesh file
void loadOBJFile(const char* filename, std::vector<Vec3f>& points, std::vector<Triangle>& triangles);
void saveOBJFile(const char* filename, std::vector<Vec3f>& points, std::vector<Triangle>& triangles);
#ifdef HPP_FCL_HAVE_OCTOMAP
fcl::OcTree loadOctreeFile (const char* filename, const FCL_REAL& resolution);
#endif
/// @brief Generate one random transform whose translation is constrained by extents and rotation without constraints.
/// The translation is (x, y, z), and extents[0] <= x <= extents[3], extents[1] <= y <= extents[4], extents[2] <= z <= extents[5]
void generateRandomTransform(FCL_REAL extents[6], Transform3f& transform);
/// @brief Generate n random transforms whose translations are constrained by extents.
void generateRandomTransforms(FCL_REAL extents[6], std::vector<Transform3f>& transforms, std::size_t n);
/// @brief Generate n random transforms whose translations are constrained by extents. Also generate another transforms2 which have additional random translation & rotation to the transforms generated.
void generateRandomTransforms(FCL_REAL extents[6], FCL_REAL delta_trans[3], FCL_REAL delta_rot, std::vector<Transform3f>& transforms, std::vector<Transform3f>& transforms2, std::size_t n);
/// @ brief Structure for minimum distance between two meshes and the corresponding nearest point pair
struct DistanceRes
{
double distance;
Vec3f p1;
Vec3f p2;
};
/// @brief Collision data stores the collision request and the result given by collision algorithm.
struct CollisionData
{
CollisionData() : request (NO_REQUEST, 1)
{
done = false;
}
/// @brief Collision request
CollisionRequest request;
/// @brief Collision result
CollisionResult result;
/// @brief Whether the collision iteration can stop
bool done;
};
/// @brief Distance data stores the distance request and the result given by distance algorithm.
struct DistanceData
{
DistanceData()
{
done = false;
}
/// @brief Distance request
DistanceRequest request;
/// @brief Distance result
DistanceResult result;
/// @brief Whether the distance iteration can stop
bool done;
};
/// @brief Default collision callback for two objects o1 and o2 in broad phase. return value means whether the broad phase can stop now.
bool defaultCollisionFunction(CollisionObject* o1, CollisionObject* o2, void* cdata);
/// @brief Default distance callback for two objects o1 and o2 in broad phase. return value means whether the broad phase can stop now. also return dist, i.e. the bmin distance till now
bool defaultDistanceFunction(CollisionObject* o1, CollisionObject* o2, void* cdata, FCL_REAL& dist);
std::string getNodeTypeName(NODE_TYPE node_type);
std::string getGJKSolverName(GJKSolverType solver_type);
Quaternion3f makeQuat(FCL_REAL w, FCL_REAL x, FCL_REAL y, FCL_REAL z);
std::ostream& operator<< (std::ostream& os, const Transform3f& tf);
/// Get the argument --nb-run from argv
std::size_t getNbRun (const int& argc, char const* const* argv, std::size_t defaultValue);
}
} // namespace hpp
#endif