Updated RBDL to latest dev commit 73b7048.

master
Martin Felis 2021-10-16 19:35:05 +02:00
parent cc1a106bb9
commit 90d9ac3961
35 changed files with 1435 additions and 1780 deletions

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@ -1,4 +1,4 @@
CMAKE_MINIMUM_REQUIRED(VERSION 3.13) CMAKE_MINIMUM_REQUIRED(VERSION 3.0)
SET ( RBDL_VERSION_MAJOR 2 ) SET ( RBDL_VERSION_MAJOR 2 )
SET ( RBDL_VERSION_MINOR 6 ) SET ( RBDL_VERSION_MINOR 6 )

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@ -142,6 +142,13 @@ be used by enabling `RBDL_USE_SIMPLE_MATH`, i.e.:
cmake -D RBDL_USE_SIMPLE_MATH=TRUE ../ cmake -D RBDL_USE_SIMPLE_MATH=TRUE ../
VCPKG package manager (for Windows, Linux and Mac)
==================================================
Install vcpkg by making a local clone from its GitHub repo [https://github.com/Microsoft/vcpkg](https://github.com/Microsoft/vcpkg). Then run the vcpkg-bootstrapper script to set it up. For detailed installation instructions, see [Install vcpkg](https://docs.microsoft.com/en-us/cpp/build/install-vcpkg). To integrate vcpkg with your Visual Studio or Visual Studio Code development environment, see [Integrate vcpkg](https://docs.microsoft.com/en-us/cpp/build/integrate-vcpkg). Then, to use vcpkg to install or update a library, see [Manage libraries with vcpkg](https://docs.microsoft.com/en-us/cpp/build/manage-libraries-with-vcpkg). For more information about vcpkg commands, see [vcpkg command-line reference](https://docs.microsoft.com/en-us/cpp/build/vcpkg-command-line-reference).
👀 RBDL is available in VCPKG since [2020-11 release](https://github.com/microsoft/vcpkg/releases/tag/2020.11)
Python Bindings Python Bindings
=============== ===============

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@ -13,6 +13,8 @@ extern "C"
#include <lualib.h> #include <lualib.h>
} }
using namespace std; using namespace std;
using namespace RigidBodyDynamics; using namespace RigidBodyDynamics;
using namespace RigidBodyDynamics::Math; using namespace RigidBodyDynamics::Math;

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@ -33,7 +33,7 @@ struct Model;
* *
* This function computes the generalized forces from given generalized * This function computes the generalized forces from given generalized
* states, velocities, and accelerations: * states, velocities, and accelerations:
* \f$ \tau = M(q) \ddot{q} + N(q, \dot{q}) \f$ * \f$ \tau = M(q) \ddot{q} + N(q, \dot{q}, f_\textit{ext}) \f$
* *
* \param model rigid body model * \param model rigid body model
* \param Q state vector of the internal joints * \param Q state vector of the internal joints
@ -55,7 +55,7 @@ RBDL_DLLAPI void InverseDynamics (
* *
* This function computes the generalized forces from given generalized * This function computes the generalized forces from given generalized
* states, velocities, and accelerations: * states, velocities, and accelerations:
* \f$ \tau = M(q) \ddot{q} + N(q, \dot{q}) \f$ * \f$ \tau = N(q, \dot{q}, f_\textit{ext}) \f$
* *
* \param model rigid body model * \param model rigid body model
* \param Q state vector of the internal joints * \param Q state vector of the internal joints

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@ -66,27 +66,34 @@ class Quaternion : public Vector4d {
); );
} }
Quaternion slerp (double alpha, const Quaternion &quat) const { Quaternion slerp (double alpha, Quaternion quat) const {
// check whether one of the two has 0 length // check whether one of the two has 0 length
double s = std::sqrt (squaredNorm() * quat.squaredNorm()); double cos_half_theta = this->dot(quat);
if (fabs(cos_half_theta >= 1.0)) {
// division by 0.f is unhealthy!
assert (s != 0.);
double angle = acos (dot(quat) / s);
if (angle == 0. || std::isnan(angle)) {
return *this; return *this;
} }
assert(!std::isnan(angle));
double d = 1. / std::sin (angle); double half_theta = acos(cos_half_theta);
double p0 = std::sin ((1. - alpha) * angle); double sin_half_theta = sqrt(1.0 - cos_half_theta * cos_half_theta);
double p1 = std::sin (alpha * angle);
if (dot (quat) < 0.) { if (fabs(sin_half_theta) < 0.00001) {
return Quaternion( ((*this) * p0 - quat * p1) * d); return Quaternion (
((*this)[0] * 0.5 + quat[0] * 0.5),
((*this)[1] * 0.5 + quat[1] * 0.5),
((*this)[2] * 0.5 + quat[2] * 0.5),
((*this)[3] * 0.5 + quat[3] * 0.5)
);
} }
return Quaternion( ((*this) * p0 + quat * p1) * d);
double ratio_a = sin((1 - alpha) * half_theta) / sin_half_theta;
double ratio_b = sin(alpha * half_theta) / sin_half_theta;
return Quaternion (
((*this)[0] * ratio_a + quat[0] * ratio_b),
((*this)[1] * ratio_a + quat[1] * ratio_b),
((*this)[2] * ratio_a + quat[2] * ratio_b),
((*this)[3] * ratio_a + quat[3] * ratio_b)
);
} }
static Quaternion fromAxisAngle (const Vector3d &axis, double angle_rad) { static Quaternion fromAxisAngle (const Vector3d &axis, double angle_rad) {
@ -101,12 +108,39 @@ class Quaternion : public Vector4d {
} }
static Quaternion fromMatrix (const Matrix3d &mat) { static Quaternion fromMatrix (const Matrix3d &mat) {
double w = std::sqrt (1. + mat(0,0) + mat(1,1) + mat(2,2)) * 0.5; float tr = mat(0,0) + mat(1,1) + mat(2,2);
return Quaternion ( if (tr > 0) {
(mat(1,2) - mat(2,1)) / (w * 4.), float w = sqrt (1.f + tr) * 0.5;
(mat(2,0) - mat(0,2)) / (w * 4.), return Quaternion (
(mat(0,1) - mat(1,0)) / (w * 4.), (mat(1,2) - mat(2,1)) / (w * 4.),
w); (mat(2,0) - mat(0,2)) / (w * 4.),
(mat(0,1) - mat(1,0)) / (w * 4.),
w);
} else if ((mat(0,0) > mat(1,1)) && (mat(0,0) > mat(2,2))) {
float x = sqrt(1.0 + mat(0,0) - mat(1,1) - mat(2,2)) * 0.5;
return Quaternion(
x,
(mat(1,0) + mat(0,1)) / (x * 4.),
(mat(2,0) + mat(0,2)) / (x * 4.),
(mat(1,2) - mat(2,1)) / (x * 4.)
);
} else if (mat(1,1) > mat(2,2)) {
float y = sqrt(1.0 + mat(1,1) - mat(0,0) - mat(2,2)) * 0.5;
return Quaternion(
(mat(1,0) + mat(0,1)) / (y * 4.),
y,
(mat(2,1) + mat(1,2)) / (y * 4.),
(mat(2,0) - mat(0,2)) / (y * 4.)
);
} else {
float z = sqrt(1.0 + mat(2,2) - mat(0,0) - mat(1,1)) * 0.5;
return Quaternion(
(mat(2,0) + mat(0,2)) / (z * 4.),
(mat(2,1) + mat(1,2)) / (z * 4.),
z,
(mat(0,1) - mat(1,0)) / (z * 4.)
);
}
} }
static Quaternion fromZYXAngles (const Vector3d &zyx_angles) { static Quaternion fromZYXAngles (const Vector3d &zyx_angles) {

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@ -819,19 +819,16 @@ struct Storage {
inline size_t cols() const { return NumCols; } inline size_t cols() const { return NumCols; }
#ifndef NDEBUG void resize(int UNUSED(num_rows), int UNUSED(num_cols)) {
void resize(int num_rows, int num_cols) { // Resizing of fixed size matrices not allowed
if (num_rows != NumRows || num_cols != NumCols) { #ifndef NDEBUG
std::cout << "Error: trying to resize fixed matrix from " if (num_rows != NumRows || num_cols != NumCols) {
<< NumRows << ", " << NumCols << " to " std::cout << "Error: trying to resize fixed matrix from "
<< num_rows << ", " << num_cols << "." << std::endl; << NumRows << ", " << NumCols << " to "
} << num_rows << ", " << num_cols << "." << std::endl;
assert (num_rows == NumRows && num_cols == NumCols); }
#else #endif
void resize(int UNUSED(num_rows), int UNUSED(num_cols)) { assert (num_rows == NumRows && num_cols == NumCols);
#endif
// Resizing of fixed size matrices not allowed
} }
inline ScalarType& coeff(int row_index, int col_index) { inline ScalarType& coeff(int row_index, int col_index) {
@ -1555,6 +1552,7 @@ private:
typedef Matrix<value_type, Derived::RowsAtCompileTime, 1> ColumnVector; typedef Matrix<value_type, Derived::RowsAtCompileTime, 1> ColumnVector;
bool mIsFactorized; bool mIsFactorized;
Matrix<value_type, Derived::RowsAtCompileTime, Derived::ColsAtCompileTime> mQ;
Derived mL; Derived mL;
public: public:
@ -2349,25 +2347,32 @@ class Quaternion : public Vector4f {
Quaternion slerp (float alpha, const Quaternion &quat) const { Quaternion slerp (float alpha, const Quaternion &quat) const {
// check whether one of the two has 0 length // check whether one of the two has 0 length
float s = sqrt (squaredNorm() * quat.squaredNorm()); double cos_half_theta = this->dot(quat);
if (fabs(cos_half_theta >= 1.0)) {
// division by 0.f is unhealthy!
assert (s != 0.f);
float angle = acos (dot(quat) / s);
if (angle == 0.f || std::isnan(angle)) {
return *this; return *this;
} }
assert(!std::isnan(angle));
float d = 1.f / sinf (angle); double half_theta = acos(cos_half_theta);
float p0 = sinf ((1.f - alpha) * angle); double sin_half_theta = sqrt(1.0 - cos_half_theta * cos_half_theta);
float p1 = sinf (alpha * angle);
if (dot (quat) < 0.f) { if (fabs(sin_half_theta) < 0.00001) {
return Quaternion( ((*this) * p0 - quat * p1) * d); return Quaternion (
((*this)[0] * 0.5 + quat[0] * 0.5),
((*this)[1] * 0.5 + quat[1] * 0.5),
((*this)[2] * 0.5 + quat[2] * 0.5),
((*this)[3] * 0.5 + quat[3] * 0.5)
);
} }
return Quaternion( ((*this) * p0 + quat * p1) * d);
double ratio_a = sin((1 - alpha) * half_theta) / sin_half_theta;
double ratio_b = sin(alpha * half_theta) / sin_half_theta;
return Quaternion (
((*this)[0] * ratio_a + quat[0] * ratio_b),
((*this)[1] * ratio_a + quat[1] * ratio_b),
((*this)[2] * ratio_a + quat[2] * ratio_b),
((*this)[3] * ratio_a + quat[3] * ratio_b)
);
} }
Matrix44f toGLMatrix() const { Matrix44f toGLMatrix() const {
@ -2407,12 +2412,75 @@ class Quaternion : public Vector4f {
} }
static Quaternion fromMatrix (const Matrix33f &mat) { static Quaternion fromMatrix (const Matrix33f &mat) {
float w = sqrt (1.f + mat(0,0) + mat(1,1) + mat(2,2)) * 0.5f; float tr = mat(0,0) + mat(1,1) + mat(2,2);
return Quaternion ( if (tr > 0) {
(mat(2,1) - mat(1,2)) / (w * 4.f), float w = sqrt (1.f + tr) * 0.5;
(mat(0,2) - mat(2,0)) / (w * 4.f), return Quaternion (
(mat(1,0) - mat(0,1)) / (w * 4.f), (mat(1,2) - mat(2,1)) / (w * 4.),
w); (mat(2,0) - mat(0,2)) / (w * 4.),
(mat(0,1) - mat(1,0)) / (w * 4.),
w);
} else if ((mat(0,0) > mat(1,1)) && (mat(0,0) > mat(2,2))) {
float x = sqrt(1.0 + mat(0,0) - mat(1,1) - mat(2,2)) * 0.5;
return Quaternion(
x,
(mat(1,0) + mat(0,1)) / (x * 4.),
(mat(2,0) + mat(0,2)) / (x * 4.),
(mat(1,2) - mat(2,1)) / (x * 4.)
);
} else if (mat(1,1) > mat(2,2)) {
float y = sqrt(1.0 + mat(1,1) - mat(0,0) - mat(2,2)) * 0.5;
return Quaternion(
(mat(1,0) + mat(0,1)) / (y * 4.),
y,
(mat(2,1) + mat(1,2)) / (y * 4.),
(mat(2,0) - mat(0,2)) / (y * 4.)
);
} else {
float z = sqrt(1.0 + mat(2,2) - mat(0,0) - mat(1,1)) * 0.5;
return Quaternion(
(mat(2,0) + mat(0,2)) / (z * 4.),
(mat(2,1) + mat(1,2)) / (z * 4.),
z,
(mat(0,1) - mat(1,0)) / (z * 4.)
);
}
}
static Quaternion fromMatrixN (const Matrix33f &mat) {
float tr = mat(0,0) + mat(1,1) + mat(2,2);
if (tr > 0) {
float w = sqrt (1.f + tr) * 0.5;
return Quaternion (
(mat(1,2) - mat(2,1)) / (w * 4.),
(mat(2,0) - mat(0,2)) / (w * 4.),
(mat(0,1) - mat(1,0)) / (w * 4.),
w);
} else if ((mat(0,0) > mat(1,1)) && (mat(0,0) > mat(2,2))) {
float x = sqrt(1.0 + mat(0,0) - mat(1,1) - mat(2,2)) * 0.5;
return Quaternion(
x,
(mat(1,0) + mat(0,1)) / (x * 4.),
(mat(2,0) + mat(0,2)) / (x * 4.),
(mat(1,2) - mat(2,1)) / (x * 4.)
);
} else if (mat(1,1) > mat(2,2)) {
float y = sqrt(1.0 + mat(1,1) - mat(0,0) - mat(2,2)) * 0.5;
return Quaternion(
(mat(1,0) + mat(0,1)) / (y * 4.),
y,
(mat(2,1) + mat(1,2)) / (y * 4.),
(mat(2,0) - mat(0,2)) / (y * 4.)
);
} else {
float z = sqrt(1.0 + mat(2,2) - mat(0,0) - mat(1,1)) * 0.5;
return Quaternion(
(mat(2,0) + mat(0,2)) / (z * 4.),
(mat(2,1) + mat(1,2)) / (z * 4.),
z,
(mat(0,1) - mat(1,0)) / (z * 4.)
);
}
} }
static Quaternion fromAxisAngle (const Vector3f &axis, double angle_rad) { static Quaternion fromAxisAngle (const Vector3f &axis, double angle_rad) {

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@ -14,6 +14,21 @@
#include "rbdl/Model.h" #include "rbdl/Model.h"
#include "rbdl/Joint.h" #include "rbdl/Joint.h"
#ifdef __APPLE__
#include <cmath>
inline void sincos(double x, double * sinp, double * cosp) {
return __sincos(x, sinp, cosp);
}
#endif
#if _MSC_VER || defined(__QNX__)
#include <cmath>
inline void sincos(double x, double * sinp, double * cosp) {
*sinp = sin(x);
*cosp = cos(x);
}
#endif
namespace RigidBodyDynamics { namespace RigidBodyDynamics {
using namespace Math; using namespace Math;

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@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -14,7 +14,7 @@ const double TEST_PREC = 1.0e-14;
/* Tests whether the spatial inertia matches the one specified by its /* Tests whether the spatial inertia matches the one specified by its
* parameters * parameters
*/ */
TEST ( TestComputeSpatialInertiaFromAbsoluteRadiiGyration ) { TEST_CASE (__FILE__"_TestComputeSpatialInertiaFromAbsoluteRadiiGyration", "") {
Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.)); Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.));
Matrix3d inertia_C ( Matrix3d inertia_C (
@ -35,11 +35,11 @@ TEST ( TestComputeSpatialInertiaFromAbsoluteRadiiGyration ) {
SpatialRigidBodyInertia body_rbi = SpatialRigidBodyInertia::createFromMassComInertiaC (body.mMass, body.mCenterOfMass, body.mInertia); SpatialRigidBodyInertia body_rbi = SpatialRigidBodyInertia::createFromMassComInertiaC (body.mMass, body.mCenterOfMass, body.mInertia);
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_rbi.toMatrix(), TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (inertia_C.data(), body.mInertia.data(), 9, TEST_PREC); REQUIRE_THAT (inertia_C, AllCloseMatrix(body.mInertia, TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyConstructorMassComInertia ) { TEST_CASE (__FILE__"_TestBodyConstructorMassComInertia", "") {
double mass = 1.1; double mass = 1.1;
Vector3d com (1.5, 1.2, 1.3); Vector3d com (1.5, 1.2, 1.3);
Matrix3d inertia_C ( Matrix3d inertia_C (
@ -60,11 +60,11 @@ TEST ( TestBodyConstructorMassComInertia ) {
); );
SpatialRigidBodyInertia body_rbi = SpatialRigidBodyInertia::createFromMassComInertiaC (body.mMass, body.mCenterOfMass, body.mInertia); SpatialRigidBodyInertia body_rbi = SpatialRigidBodyInertia::createFromMassComInertiaC (body.mMass, body.mCenterOfMass, body.mInertia);
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_rbi.toMatrix(), TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (inertia_C.data(), body.mInertia.data(), 9, TEST_PREC); REQUIRE_THAT (inertia_C, AllCloseMatrix(body.mInertia, TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyJoinNullbody ) { TEST_CASE (__FILE__"_TestBodyJoinNullbody", "") {
ClearLogOutput(); ClearLogOutput();
Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.)); Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.));
Body nullbody (0., Vector3d (0., 0., 0.), Vector3d (0., 0., 0.)); Body nullbody (0., Vector3d (0., 0., 0.), Vector3d (0., 0., 0.));
@ -75,12 +75,12 @@ TEST ( TestBodyJoinNullbody ) {
SpatialRigidBodyInertia body_rbi (body.mMass, body.mCenterOfMass, body.mInertia); SpatialRigidBodyInertia body_rbi (body.mMass, body.mCenterOfMass, body.mInertia);
SpatialRigidBodyInertia joined_body_rbi (joined_body.mMass, joined_body.mCenterOfMass, joined_body.mInertia); SpatialRigidBodyInertia joined_body_rbi (joined_body.mMass, joined_body.mCenterOfMass, joined_body.mInertia);
CHECK_EQUAL (1.1, body.mMass); REQUIRE (1.1 == body.mMass);
CHECK_ARRAY_CLOSE (body.mCenterOfMass.data(), joined_body.mCenterOfMass.data(), 3, TEST_PREC); REQUIRE_THAT (body.mCenterOfMass, AllCloseMatrix(joined_body.mCenterOfMass, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (body_rbi.toMatrix().data(), joined_body_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (body_rbi.toMatrix(), AllCloseMatrix(joined_body_rbi.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyJoinTwoBodies ) { TEST_CASE (__FILE__"_TestBodyJoinTwoBodies", "") {
ClearLogOutput(); ClearLogOutput();
Body body_a(1.1, Vector3d (-1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3)); Body body_a(1.1, Vector3d (-1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3));
Body body_b(1.1, Vector3d (1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3)); Body body_b(1.1, Vector3d (1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3));
@ -99,12 +99,12 @@ TEST ( TestBodyJoinTwoBodies ) {
2.86, -0, 0, 0, 0, 2.2 2.86, -0, 0, 0, 0, 2.2
); );
CHECK_EQUAL (2.2, body_joined.mMass); REQUIRE (2.2 == body_joined.mMass);
CHECK_ARRAY_EQUAL (Vector3d (0., 1.3, 0.).data(), body_joined.mCenterOfMass.data(), 3); REQUIRE_THAT (Vector3d (0., 1.3, 0.), AllCloseVector(body_joined.mCenterOfMass, 0., 0.));
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_joined_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_joined_rbi.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyJoinTwoBodiesDisplaced ) { TEST_CASE (__FILE__"_TestBodyJoinTwoBodiesDisplaced", "") {
ClearLogOutput(); ClearLogOutput();
Body body_a(1.1, Vector3d (-1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3)); Body body_a(1.1, Vector3d (-1.1, 1.3, 0.), Vector3d (3.1, 3.2, 3.3));
Body body_b(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3)); Body body_b(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3));
@ -123,14 +123,12 @@ TEST ( TestBodyJoinTwoBodiesDisplaced ) {
2.86, -0, 0, 0, 0, 2.2 2.86, -0, 0, 0, 0, 2.2
); );
CHECK_EQUAL (2.2, body_joined.mMass); REQUIRE (2.2 == body_joined.mMass);
CHECK_ARRAY_EQUAL (Vector3d (0., 1.3, 0.).data(), body_joined.mCenterOfMass.data(), 3); REQUIRE_THAT (Vector3d (0., 1.3, 0.), AllCloseVector(body_joined.mCenterOfMass, 0., 0.));
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_joined_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_joined_rbi.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyJoinTwoBodiesRotated ) { TEST_CASE (__FILE__"_TestBodyJoinTwoBodiesRotated", "") {
ClearLogOutput(); ClearLogOutput();
Body body_a(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3)); Body body_a(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3));
Body body_b(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.3, 3.2)); Body body_b(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.3, 3.2));
@ -149,12 +147,12 @@ TEST ( TestBodyJoinTwoBodiesRotated ) {
0., 0., 0., 0., 0., 2.2 0., 0., 0., 0., 0., 2.2
); );
CHECK_EQUAL (2.2, body_joined.mMass); REQUIRE (2.2 == body_joined.mMass);
CHECK_ARRAY_EQUAL (Vector3d (0., 0., 0.).data(), body_joined.mCenterOfMass.data(), 3); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(body_joined.mCenterOfMass, 0., 0.));
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_joined_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_joined_rbi.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyJoinTwoBodiesRotatedAndTranslated ) { TEST_CASE (__FILE__"_TestBodyJoinTwoBodiesRotatedAndTranslated", "") {
ClearLogOutput(); ClearLogOutput();
Body body_a(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3)); Body body_a(1.1, Vector3d (0., 0., 0.), Vector3d (3.1, 3.2, 3.3));
Body body_b(1.1, Vector3d (-1., 1., 0.), Vector3d (3.2, 3.1, 3.3)); Body body_b(1.1, Vector3d (-1., 1., 0.), Vector3d (3.2, 3.1, 3.3));
@ -173,12 +171,12 @@ TEST ( TestBodyJoinTwoBodiesRotatedAndTranslated ) {
0., 0., 0., 0., 0., 2.2 0., 0., 0., 0., 0., 2.2
); );
CHECK_EQUAL (2.2, body_joined.mMass); REQUIRE (2.2 == body_joined.mMass);
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.).data(), body_joined.mCenterOfMass.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(body_joined.mCenterOfMass, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (reference_inertia.data(), body_joined_rbi.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (reference_inertia, AllCloseMatrix(body_joined_rbi.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST ( TestBodyConstructorSpatialRigidBodyInertiaMultiplyMotion ) { TEST_CASE (__FILE__"_TestBodyConstructorSpatialRigidBodyInertiaMultiplyMotion", "") {
Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.)); Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.));
SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia( SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia(
@ -191,15 +189,10 @@ TEST ( TestBodyConstructorSpatialRigidBodyInertiaMultiplyMotion ) {
SpatialVector fv_matrix = rbi.toMatrix() * mv; SpatialVector fv_matrix = rbi.toMatrix() * mv;
SpatialVector fv_rbi = rbi * mv; SpatialVector fv_rbi = rbi * mv;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (fv_matrix, AllCloseMatrix(fv_rbi, TEST_PREC, TEST_PREC));
fv_matrix.data(),
fv_rbi.data(),
6,
TEST_PREC
);
} }
TEST ( TestBodyConstructorSpatialRigidBodyInertia ) { TEST_CASE (__FILE__"_TestBodyConstructorSpatialRigidBodyInertia", "") {
Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.)); Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.));
SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia( SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia(
@ -209,15 +202,10 @@ TEST ( TestBodyConstructorSpatialRigidBodyInertia ) {
); );
SpatialMatrix spatial_inertia = rbi.toMatrix(); SpatialMatrix spatial_inertia = rbi.toMatrix();
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (spatial_inertia, AllCloseMatrix(rbi.toMatrix(), TEST_PREC, TEST_PREC));
spatial_inertia.data(),
rbi.toMatrix().data(),
36,
TEST_PREC
);
} }
TEST ( TestBodyConstructorCopySpatialRigidBodyInertia ) { TEST_CASE (__FILE__"_TestBodyConstructorCopySpatialRigidBodyInertia", "") {
Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.)); Body body(1.1, Vector3d (1.5, 1.2, 1.3), Vector3d (1.4, 2., 3.));
SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia( SpatialRigidBodyInertia rbi = SpatialRigidBodyInertia(
@ -235,10 +223,5 @@ TEST ( TestBodyConstructorCopySpatialRigidBodyInertia ) {
// cout << "rbi.h = " << rbi.h.transpose() << endl; // cout << "rbi.h = " << rbi.h.transpose() << endl;
// cout << "rbi.I = " << endl << rbi.I << endl; // cout << "rbi.I = " << endl << rbi.I << endl;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (rbi.toMatrix(), AllCloseMatrix(rbi_from_matrix.toMatrix(), TEST_PREC, TEST_PREC));
rbi.toMatrix().data(),
rbi_from_matrix.toMatrix().data(),
36,
TEST_PREC
);
} }

View File

@ -1,39 +1,31 @@
CMAKE_MINIMUM_REQUIRED (VERSION 3.0) CMAKE_MINIMUM_REQUIRED (VERSION 3.0)
# Needed for UnitTest++
LIST( APPEND CMAKE_MODULE_PATH ${PROJECT_SOURCE_DIR}/../CMake )
# Look for unittest++
FIND_PACKAGE (UnitTest++ REQUIRED)
INCLUDE_DIRECTORIES (${UNITTEST++_INCLUDE_DIR})
SET ( TESTS_SRCS SET ( TESTS_SRCS
main.cc MathTests.cc
MathTests.cc SpatialAlgebraTests.cc
SpatialAlgebraTests.cc MultiDofTests.cc
MultiDofTests.cc KinematicsTests.cc
KinematicsTests.cc BodyTests.cc
BodyTests.cc ModelTests.cc
ModelTests.cc FloatingBaseTests.cc
FloatingBaseTests.cc CalcVelocitiesTests.cc
CalcVelocitiesTests.cc CalcAccelerationsTests.cc
CalcAccelerationsTests.cc DynamicsTests.cc
DynamicsTests.cc InverseDynamicsTests.cc
InverseDynamicsTests.cc CompositeRigidBodyTests.cc
CompositeRigidBodyTests.cc ImpulsesTests.cc
ImpulsesTests.cc TwolegModelTests.cc
TwolegModelTests.cc ContactsTests.cc
ContactsTests.cc UtilsTests.cc
UtilsTests.cc SparseFactorizationTests.cc
SparseFactorizationTests.cc CustomJointSingleBodyTests.cc
CustomJointSingleBodyTests.cc CustomJointMultiBodyTests.cc
CustomJointMultiBodyTests.cc CustomConstraintsTests.cc
CustomConstraintsTests.cc InverseKinematicsTests.cc
InverseKinematicsTests.cc LoopConstraintsTests.cc
LoopConstraintsTests.cc ScrewJointTests.cc
ScrewJointTests.cc ForwardDynamicsConstraintsExternalForces.cc
ForwardDynamicsConstraintsExternalForces.cc )
)
INCLUDE_DIRECTORIES ( ../src/ ) INCLUDE_DIRECTORIES ( ../src/ )
@ -45,7 +37,7 @@ SET_TARGET_PROPERTIES ( ${PROJECT_EXECUTABLES} PROPERTIES
CXX_EXTENSIONS OFF CXX_EXTENSIONS OFF
) )
ADD_EXECUTABLE ( rbdl_tests ${TESTS_SRCS} ) ADD_EXECUTABLE ( rbdl_tests ${TESTS_SRCS} main.cc)
SET_TARGET_PROPERTIES ( rbdl_tests PROPERTIES SET_TARGET_PROPERTIES ( rbdl_tests PROPERTIES
LINKER_LANGUAGE CXX LINKER_LANGUAGE CXX
@ -55,15 +47,16 @@ SET_TARGET_PROPERTIES ( rbdl_tests PROPERTIES
CXX_EXTENSIONS OFF CXX_EXTENSIONS OFF
) )
SET (RBDL_LIBRARY rbdl) SET (RBDL_LIBRARY rbdl)
IF (RBDL_BUILD_STATIC) IF (RBDL_BUILD_STATIC)
SET (RBDL_LIBRARY rbdl-static) SET (RBDL_LIBRARY rbdl-static)
ENDIF (RBDL_BUILD_STATIC) ENDIF (RBDL_BUILD_STATIC)
TARGET_LINK_LIBRARIES ( rbdl_tests TARGET_LINK_LIBRARIES ( rbdl_tests
${UNITTEST++_LIBRARY} ${RBDL_LIBRARY}
${RBDL_LIBRARY} )
)
OPTION (RUN_AUTOMATIC_TESTS "Perform automatic tests after compilation?" OFF) OPTION (RUN_AUTOMATIC_TESTS "Perform automatic tests after compilation?" OFF)

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -15,7 +15,7 @@ using namespace RigidBodyDynamics::Math;
const double TEST_PREC = 1.0e-14; const double TEST_PREC = 1.0e-14;
TEST_FIXTURE(FixedBase3DoF, TestCalcPointSimple) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointSimple", "") {
QDDot[0] = 1.; QDDot[0] = 1.;
ref_body_id = body_a_id; ref_body_id = body_a_id;
point_position = Vector3d (1., 0., 0.); point_position = Vector3d (1., 0., 0.);
@ -23,14 +23,12 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointSimple) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE(0., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (0., 1., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE(1., point_acceleration[1], TEST_PREC);
CHECK_CLOSE(0., point_acceleration[2], TEST_PREC);
// LOG << "Point accel = " << point_acceleration << endl; // LOG << "Point accel = " << point_acceleration << endl;
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointSimpleRotated) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointSimpleRotated", "") {
Q[0] = 0.5 * M_PI; Q[0] = 0.5 * M_PI;
ref_body_id = body_a_id; ref_body_id = body_a_id;
@ -40,14 +38,12 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointSimpleRotated) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE(-1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (-1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
// LOG << "Point accel = " << point_acceleration << endl; // LOG << "Point accel = " << point_acceleration << endl;
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotation) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointRotation", "") {
ref_body_id = 1; ref_body_id = 1;
QDot[0] = 1.; QDot[0] = 1.;
point_position = Vector3d (1., 0., 0.); point_position = Vector3d (1., 0., 0.);
@ -55,9 +51,7 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotation) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE(-1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (-1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
ClearLogOutput(); ClearLogOutput();
@ -67,12 +61,10 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotation) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( 1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotatedBaseSimple) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointRotatedBaseSimple", "") {
// rotated first joint // rotated first joint
ref_body_id = 1; ref_body_id = 1;
@ -81,20 +73,17 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotatedBaseSimple) {
point_position = Vector3d (1., 0., 0.); point_position = Vector3d (1., 0., 0.);
point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, ref_body_id, point_position); point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, ref_body_id, point_position);
CHECK_CLOSE( 0., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (0., -1., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE(-1., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
point_position = Vector3d (-1., 0., 0.); point_position = Vector3d (-1., 0., 0.);
point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, ref_body_id, point_position); point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, ref_body_id, point_position);
CHECK_CLOSE( 0., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (0., 1., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 1., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotatingBodyB) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointRotatingBodyB", "") {
// rotating second joint, point at third body // rotating second joint, point at third body
ref_body_id = 3; ref_body_id = 3;
@ -104,9 +93,7 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotatingBodyB) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( -1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (-1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
// move it a bit further up (acceleration should stay the same) // move it a bit further up (acceleration should stay the same)
point_position = Vector3d (1., 1., 0.); point_position = Vector3d (1., 1., 0.);
@ -114,12 +101,10 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotatingBodyB) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( -1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (-1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointBodyOrigin) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointBodyOrigin", "") {
// rotating second joint, point at third body // rotating second joint, point at third body
QDot[0] = 1.; QDot[0] = 1.;
@ -130,12 +115,10 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointBodyOrigin) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( -1., point_acceleration[0], TEST_PREC); REQUIRE_THAT(Vector3d (-1., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC ));
CHECK_CLOSE( 0., point_acceleration[1], TEST_PREC);
CHECK_CLOSE( 0., point_acceleration[2], TEST_PREC);
} }
TEST_FIXTURE(FixedBase3DoF, TestAccelerationLinearFuncOfQddot) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestAccelerationLinearFuncOfQddot", "") {
// rotating second joint, point at third body // rotating second joint, point at third body
QDot[0] = 1.1; QDot[0] = 1.1;
@ -167,30 +150,30 @@ TEST_FIXTURE(FixedBase3DoF, TestAccelerationLinearFuncOfQddot) {
Vector3d acc_new = acc_1 - acc_2; Vector3d acc_new = acc_1 - acc_2;
CHECK_ARRAY_CLOSE (net_acc.data(), acc_new.data(), 3, TEST_PREC); REQUIRE_THAT(net_acc,AllCloseVector(acc_new, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FloatingBase12DoF, TestAccelerationFloatingBaseWithUpdateKinematics ) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestAccelerationFloatingBaseWithUpdateKinematics", "") {
ForwardDynamics (*model, Q, QDot, Tau, QDDot); ForwardDynamics (*model, Q, QDot, Tau, QDDot);
ClearLogOutput(); ClearLogOutput();
Vector3d accel = CalcPointAcceleration (*model, Q, QDot, QDDot, child_2_rot_x_id, Vector3d (0., 0., 0.), true); Vector3d accel = CalcPointAcceleration (*model, Q, QDot, QDDot, child_2_rot_x_id, Vector3d (0., 0., 0.), true);
CHECK_ARRAY_CLOSE (Vector3d (0., -9.81, 0.), accel.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., -9.81, 0.), AllCloseVector(accel, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FloatingBase12DoF, TestAccelerationFloatingBaseWithoutUpdateKinematics ) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestAccelerationFloatingBaseWithoutUpdateKinematics", "") {
ForwardDynamics (*model, Q, QDot, Tau, QDDot); ForwardDynamics (*model, Q, QDot, Tau, QDDot);
//ClearLogOutput(); //ClearLogOutput();
Vector3d accel = CalcPointAcceleration (*model, Q, QDot, QDDot, child_2_rot_x_id, Vector3d (0., 0., 0.), false); Vector3d accel = CalcPointAcceleration (*model, Q, QDot, QDDot, child_2_rot_x_id, Vector3d (0., 0., 0.), false);
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), accel.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(accel, TEST_PREC, TEST_PREC));
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
// cout << accel.transpose() << endl; // cout << accel.transpose() << endl;
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotationFixedJoint) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointRotationFixedJoint", "") {
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
unsigned int fixed_body_id = model->AddBody (body_c_id, Xtrans (Vector3d (1., -1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body"); unsigned int fixed_body_id = model->AddBody (body_c_id, Xtrans (Vector3d (1., -1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body");
@ -202,13 +185,10 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotationFixedJoint) {
point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, fixed_body_id, point_position); point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, fixed_body_id, point_position);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (point_acceleration_reference.data(), REQUIRE_THAT (point_acceleration_reference, AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
point_acceleration.data(),
3,
TEST_PREC);
} }
TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotationFixedJointRotatedTransform) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_TestCalcPointRotationFixedJointRotatedTransform", "") {
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
SpatialTransform fixed_transform = Xtrans (Vector3d (1., -1., 0.)) * Xrotz(M_PI * 0.5); SpatialTransform fixed_transform = Xtrans (Vector3d (1., -1., 0.)) * Xrotz(M_PI * 0.5);
@ -227,9 +207,6 @@ TEST_FIXTURE(FixedBase3DoF, TestCalcPointRotationFixedJointRotatedTransform) {
point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, fixed_body_id, point_position); point_acceleration = CalcPointAcceleration(*model, Q, QDot, QDDot, fixed_body_id, point_position);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (point_acceleration_reference.data(), REQUIRE_THAT (point_acceleration_reference, AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
point_acceleration.data(),
3,
TEST_PREC);
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -58,21 +58,19 @@ struct ModelVelocitiesFixture {
Vector3d point_position, point_velocity; Vector3d point_position, point_velocity;
}; };
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointSimple) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointSimple", "") {
ref_body_id = 1; ref_body_id = 1;
QDot[0] = 1.; QDot[0] = 1.;
point_position = Vector3d (1., 0., 0.); point_position = Vector3d (1., 0., 0.);
point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position); point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position);
CHECK_CLOSE(0., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(0., 1., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE(1., point_velocity[1], TEST_PREC);
CHECK_CLOSE(0., point_velocity[2], TEST_PREC);
LOG << "Point velocity = " << point_velocity << endl; LOG << "Point velocity = " << point_velocity << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
} }
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatedBaseSimple) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointRotatedBaseSimple", "") {
// rotated first joint // rotated first joint
ref_body_id = 1; ref_body_id = 1;
@ -81,14 +79,12 @@ TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatedBaseSimple) {
point_position = Vector3d (1., 0., 0.); point_position = Vector3d (1., 0., 0.);
point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position); point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position);
CHECK_CLOSE(-1., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(-1., 0., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_velocity[1], TEST_PREC);
CHECK_CLOSE( 0., point_velocity[2], TEST_PREC);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
} }
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatingBodyB) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointRotatingBodyB", "") {
// rotating second joint, point at third body // rotating second joint, point at third body
ref_body_id = 3; ref_body_id = 3;
@ -98,12 +94,10 @@ TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatingBodyB) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( 0., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(0., 0., -1.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_velocity[1], TEST_PREC);
CHECK_CLOSE(-1., point_velocity[2], TEST_PREC);
} }
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatingBaseXAxis) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointRotatingBaseXAxis", "") {
// also rotate the first joint and take a point that is // also rotate the first joint and take a point that is
// on the X direction // on the X direction
@ -115,12 +109,10 @@ TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatingBaseXAxis) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( 0., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(0., 2., -1.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 2., point_velocity[1], TEST_PREC);
CHECK_CLOSE(-1., point_velocity[2], TEST_PREC);
} }
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatedBaseXAxis) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointRotatedBaseXAxis", "") {
// perform the previous test with the first joint rotated by pi/2 // perform the previous test with the first joint rotated by pi/2
// upwards // upwards
ClearLogOutput(); ClearLogOutput();
@ -135,12 +127,10 @@ TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointRotatedBaseXAxis) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE(-2., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(-2., 0., -1.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 0., point_velocity[1], TEST_PREC);
CHECK_CLOSE(-1., point_velocity[2], TEST_PREC);
} }
TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointBodyOrigin) { TEST_CASE_METHOD (ModelVelocitiesFixture, __FILE__"_TestCalcPointBodyOrigin", "") {
// Checks whether the computation is also correct for points at the origin // Checks whether the computation is also correct for points at the origin
// of a body // of a body
@ -154,12 +144,10 @@ TEST_FIXTURE(ModelVelocitiesFixture, TestCalcPointBodyOrigin) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE( 0., point_velocity[0], TEST_PREC); REQUIRE_THAT(Vector3d(0., 1., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE( 1., point_velocity[1], TEST_PREC);
CHECK_CLOSE( 0., point_velocity[2], TEST_PREC);
} }
TEST ( FixedJointCalcPointVelocity ) { TEST_CASE (__FILE__"_FixedJointCalcPointVelocity", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -182,11 +170,11 @@ TEST ( FixedJointCalcPointVelocity ) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
Vector3d point1_velocity = CalcPointVelocity (model, Q, QDot, fixed_body_id, Vector3d (1., 0., 0.)); Vector3d point1_velocity = CalcPointVelocity (model, Q, QDot, fixed_body_id, Vector3d (1., 0., 0.));
CHECK_ARRAY_CLOSE (Vector3d (0., 1., 0.).data(), point0_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(point0_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (0., 2., 0.).data(), point1_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 2., 0.), AllCloseVector(point1_velocity, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointCalcPointVelocityRotated ) { TEST_CASE (__FILE__"_FixedJointCalcPointVelocityRotated", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -210,6 +198,6 @@ TEST ( FixedJointCalcPointVelocityRotated ) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
Vector3d point1_velocity = CalcPointVelocity (model, Q, QDot, fixed_body_id, Vector3d (1., 0., 0.)); Vector3d point1_velocity = CalcPointVelocity (model, Q, QDot, fixed_body_id, Vector3d (1., 0., 0.));
CHECK_ARRAY_CLOSE (Vector3d (-1., 0., 0.).data(), point0_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (-1., 0., 0.), AllCloseVector(point0_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (-2., 0., 0.).data(), point1_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (-2., 0., 0.), AllCloseVector(point1_velocity, TEST_PREC, TEST_PREC));
} }

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@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -26,7 +26,7 @@ struct CompositeRigidBodyFixture {
Model *model; Model *model;
}; };
TEST_FIXTURE(CompositeRigidBodyFixture, TestCompositeRigidBodyForwardDynamicsFloatingBase) { TEST_CASE_METHOD (CompositeRigidBodyFixture, __FILE__"_TestCompositeRigidBodyForwardDynamicsFloatingBase", "") {
Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
model->AddBody (0, SpatialTransform(), model->AddBody (0, SpatialTransform(),
@ -81,12 +81,12 @@ TEST_FIXTURE(CompositeRigidBodyFixture, TestCompositeRigidBodyForwardDynamicsFlo
InverseDynamics (*model, Q, QDot, QDDot_zero, C); InverseDynamics (*model, Q, QDot, QDDot_zero, C);
CHECK (LinSolveGaussElimPivot (H, C * -1. + Tau, QDDot_crba)); REQUIRE (LinSolveGaussElimPivot (H, C * -1. + Tau, QDDot_crba));
CHECK_ARRAY_CLOSE (QDDot.data(), QDDot_crba.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot, AllCloseVector(QDDot_crba, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(FloatingBase12DoF, TestCRBAFloatingBase12DoF) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestCRBAFloatingBase12DoF", "") {
MatrixNd H = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count); MatrixNd H = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count);
VectorNd C = VectorNd::Constant ((size_t) model->dof_count, 0.); VectorNd C = VectorNd::Constant ((size_t) model->dof_count, 0.);
@ -139,12 +139,12 @@ TEST_FIXTURE(FloatingBase12DoF, TestCRBAFloatingBase12DoF) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
InverseDynamics (*model, Q, QDot, QDDot_zero, C); InverseDynamics (*model, Q, QDot, QDDot_zero, C);
CHECK (LinSolveGaussElimPivot (H, C * -1. + Tau, QDDot_crba)); REQUIRE (LinSolveGaussElimPivot (H, C * -1. + Tau, QDDot_crba));
CHECK_ARRAY_CLOSE (QDDot.data(), QDDot_crba.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot, AllCloseVector(QDDot_crba, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(FloatingBase12DoF, TestCRBAFloatingBase12DoFInverseDynamics) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestCRBAFloatingBase12DoFInverseDynamics", "") {
MatrixNd H_crba = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count); MatrixNd H_crba = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count);
MatrixNd H_id = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count); MatrixNd H_id = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count);
@ -163,7 +163,7 @@ TEST_FIXTURE(FloatingBase12DoF, TestCRBAFloatingBase12DoFInverseDynamics) {
QDot.setZero(); QDot.setZero();
assert (model->dof_count == 12); REQUIRE (model->dof_count == 12);
UpdateKinematicsCustom (*model, &Q, NULL, NULL); UpdateKinematicsCustom (*model, &Q, NULL, NULL);
CompositeRigidBodyAlgorithm (*model, Q, H_crba, false); CompositeRigidBodyAlgorithm (*model, Q, H_crba, false);
@ -194,10 +194,10 @@ TEST_FIXTURE(FloatingBase12DoF, TestCRBAFloatingBase12DoFInverseDynamics) {
// cout << "H (crba) = " << endl << H_crba << endl; // cout << "H (crba) = " << endl << H_crba << endl;
// cout << "H (id) = " << endl << H_id << endl; // cout << "H (id) = " << endl << H_id << endl;
CHECK_ARRAY_CLOSE (H_crba.data(), H_id.data(), model->dof_count * model->dof_count, TEST_PREC); REQUIRE_THAT (H_crba, AllCloseMatrix(H_id, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(FixedBase6DoF, TestCRBAFloatingBase12DoFInverseDynamics) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_TestCRBAFloatingBase6DoFInverseDynamics", "") {
MatrixNd H_crba = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count); MatrixNd H_crba = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count);
MatrixNd H_id = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count); MatrixNd H_id = MatrixNd::Zero ((size_t) model->dof_count, (size_t) model->dof_count);
@ -210,7 +210,7 @@ TEST_FIXTURE(FixedBase6DoF, TestCRBAFloatingBase12DoFInverseDynamics) {
QDot.setZero(); QDot.setZero();
assert (model->dof_count == 6); REQUIRE (model->dof_count == 6);
UpdateKinematicsCustom (*model, &Q, NULL, NULL); UpdateKinematicsCustom (*model, &Q, NULL, NULL);
CompositeRigidBodyAlgorithm (*model, Q, H_crba, false); CompositeRigidBodyAlgorithm (*model, Q, H_crba, false);
@ -239,10 +239,10 @@ TEST_FIXTURE(FixedBase6DoF, TestCRBAFloatingBase12DoFInverseDynamics) {
H_id.block<6, 1>(0, i) = H_col; H_id.block<6, 1>(0, i) = H_col;
} }
CHECK_ARRAY_CLOSE (H_crba.data(), H_id.data(), model->dof_count * model->dof_count, TEST_PREC); REQUIRE_THAT (H_crba, AllCloseMatrix(H_id, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(CompositeRigidBodyFixture, TestCompositeRigidBodyForwardDynamicsSpherical) { TEST_CASE_METHOD (CompositeRigidBodyFixture, __FILE__"_TestCompositeRigidBodyForwardDynamicsSpherical", "") {
Body base_body(1., Vector3d (0., 0., 0.), Vector3d (1., 2., 3.)); Body base_body(1., Vector3d (0., 0., 0.), Vector3d (1., 2., 3.));
model->AddBody(0, SpatialTransform(), Joint(JointTypeSpherical), base_body); model->AddBody(0, SpatialTransform(), Joint(JointTypeSpherical), base_body);
@ -257,5 +257,5 @@ TEST_FIXTURE(CompositeRigidBodyFixture, TestCompositeRigidBodyForwardDynamicsSph
0., 0., 3. 0., 0., 3.
); );
CHECK_ARRAY_CLOSE (H_ref.data(), H.data(), 9, TEST_PREC); REQUIRE_THAT (H_ref, AllCloseMatrix(H, TEST_PREC, TEST_PREC));
} }

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@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -103,7 +103,7 @@ struct FixedBase6DoF9DoF {
// //
// ForwardDynamicsConstraintsDirect // ForwardDynamicsConstraintsDirect
// //
TEST ( TestForwardDynamicsConstraintsDirectSimple ) { TEST_CASE (__FILE__"_TestForwardDynamicsConstraintsDirectSimple", "") {
Model model; Model model;
model.gravity = Vector3d (0., -9.81, 0.); model.gravity = Vector3d (0., -9.81, 0.);
Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.)); Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.));
@ -152,19 +152,14 @@ TEST ( TestForwardDynamicsConstraintsDirectSimple ) {
Vector3d point_acceleration = CalcPointAcceleration (model, Q, QDot, QDDot, contact_body_id, contact_point); Vector3d point_acceleration = CalcPointAcceleration (model, Q, QDot, QDDot, contact_body_id, contact_point);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
Vector3d (0., 0., 0.).data(),
point_acceleration.data(),
3,
TEST_PREC
);
// cout << "LagrangianSimple Logoutput Start" << endl; // cout << "LagrangianSimple Logoutput Start" << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
// cout << "LagrangianSimple Logoutput End" << endl; // cout << "LagrangianSimple Logoutput End" << endl;
} }
TEST ( TestForwardDynamicsConstraintsDirectMoving ) { TEST_CASE (__FILE__"_TestForwardDynamicsConstraintsDirectMoving", "") {
Model model; Model model;
model.gravity = Vector3d (0., -9.81, 0.); model.gravity = Vector3d (0., -9.81, 0.);
Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.)); Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.));
@ -215,12 +210,7 @@ TEST ( TestForwardDynamicsConstraintsDirectMoving ) {
Vector3d point_acceleration = CalcPointAcceleration (model, Q, QDot, QDDot, contact_body_id, contact_point); Vector3d point_acceleration = CalcPointAcceleration (model, Q, QDot, QDDot, contact_body_id, contact_point);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(point_acceleration, TEST_PREC, TEST_PREC));
Vector3d (0., 0., 0.).data(),
point_acceleration.data(),
3,
TEST_PREC
);
// cout << "LagrangianSimple Logoutput Start" << endl; // cout << "LagrangianSimple Logoutput Start" << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
@ -230,7 +220,7 @@ TEST ( TestForwardDynamicsConstraintsDirectMoving ) {
// //
// ForwardDynamicsContacts // ForwardDynamicsContacts
// //
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContact) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsSingleContact", "") {
contact_normal.set (0., 1., 0.); contact_normal.set (0., 1., 0.);
constraint_set.AddContactConstraint (contact_body_id, contact_point, contact_normal); constraint_set.AddContactConstraint (contact_body_id, contact_point, contact_normal);
ConstraintSet constraint_set_lagrangian = constraint_set.Copy(); ConstraintSet constraint_set_lagrangian = constraint_set.Copy();
@ -255,13 +245,13 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContact) {
point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true); point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true);
point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true); point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true);
CHECK_CLOSE (constraint_set_lagrangian.force[0], constraint_set.force[0], TEST_PREC); REQUIRE_THAT (constraint_set_lagrangian.force[0], IsClose(constraint_set.force[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (contact_normal.dot(point_accel_lagrangian), contact_normal.dot(point_accel_contacts), TEST_PREC); REQUIRE_THAT (contact_normal.dot(point_accel_lagrangian), IsClose(contact_normal.dot(point_accel_contacts), TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (point_accel_lagrangian.data(), point_accel_contacts.data(), 3, TEST_PREC); REQUIRE_THAT (point_accel_lagrangian, AllCloseVector(point_accel_contacts, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts.data(), QDDot_lagrangian.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContactRotated) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsSingleContactRotated", "") {
Q[0] = 0.6; Q[0] = 0.6;
Q[3] = M_PI * 0.6; Q[3] = M_PI * 0.6;
Q[4] = 0.1; Q[4] = 0.1;
@ -289,10 +279,10 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContactRotated) {
point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true); point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true);
point_accel_contacts_opt = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts_opt, contact_body_id, contact_point, true); point_accel_contacts_opt = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts_opt, contact_body_id, contact_point, true);
CHECK_CLOSE (constraint_set_lagrangian.force[0], constraint_set.force[0], TEST_PREC); REQUIRE_THAT (constraint_set_lagrangian.force[0], IsClose(constraint_set.force[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (contact_normal.dot(point_accel_lagrangian), contact_normal.dot(point_accel_contacts_opt), TEST_PREC); REQUIRE_THAT (contact_normal.dot(point_accel_lagrangian), IsClose(contact_normal.dot(point_accel_contacts_opt), TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (point_accel_lagrangian.data(), point_accel_contacts_opt.data(), 3, TEST_PREC); REQUIRE_THAT (point_accel_lagrangian, AllCloseVector(point_accel_contacts_opt, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts_opt.data(), QDDot_lagrangian.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts_opt, TEST_PREC, TEST_PREC));
} }
// //
@ -302,7 +292,7 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContactRotated) {
// for the example model in FixedBase6DoF and a moving state (i.e. a // for the example model in FixedBase6DoF and a moving state (i.e. a
// nonzero QDot) // nonzero QDot)
// //
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContactRotatedMoving) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsSingleContactRotatedMoving", "") {
Q[0] = 0.6; Q[0] = 0.6;
Q[3] = M_PI * 0.6; Q[3] = M_PI * 0.6;
Q[4] = 0.1; Q[4] = 0.1;
@ -335,14 +325,13 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsSingleContactRotatedMoving)
point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true); point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true);
// check whether FDContactsLagrangian and FDContactsOld match // check whether FDContactsLagrangian and FDContactsOld match
CHECK_CLOSE (constraint_set_lagrangian.force[0], constraint_set.force[0], TEST_PREC); REQUIRE_THAT (constraint_set_lagrangian.force[0], IsClose(constraint_set.force[0], TEST_PREC, TEST_PREC));
REQUIRE_THAT (contact_normal.dot(point_accel_lagrangian), IsClose(contact_normal.dot(point_accel_contacts), TEST_PREC, TEST_PREC));
CHECK_CLOSE (contact_normal.dot(point_accel_lagrangian), contact_normal.dot(point_accel_contacts), TEST_PREC); REQUIRE_THAT (point_accel_lagrangian, AllCloseVector(point_accel_contacts, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (point_accel_lagrangian.data(), point_accel_contacts.data(), 3, TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts.data(), QDDot_lagrangian.size(), TEST_PREC);
} }
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptDoubleContact) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsOptDoubleContact", "") {
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
constraint_set.AddContactConstraint (contact_body_id, Vector3d (1., 0., 0.), contact_normal); constraint_set.AddContactConstraint (contact_body_id, Vector3d (1., 0., 0.), contact_normal);
@ -368,20 +357,16 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptDoubleContact) {
point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true); point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true);
// check whether FDContactsLagrangian and FDContacts match // check whether FDContactsLagrangian and FDContacts match
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
// check whether the point accelerations match // check whether the point accelerations match
CHECK_ARRAY_CLOSE (point_accel_lagrangian.data(), point_accel_contacts.data(), 3, TEST_PREC); REQUIRE_THAT (point_accel_lagrangian, AllCloseVector(point_accel_contacts, TEST_PREC, TEST_PREC));
// check whether the generalized accelerations match // check whether the generalized accelerations match
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts.data(), QDDot_lagrangian.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptDoubleContactRepeated) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsOptDoubleContactRepeated", "") {
// makes sure that all variables in the constraint set gets reset // makes sure that all variables in the constraint set gets reset
// properly when making repeated calls to ForwardDynamicsContacts. // properly when making repeated calls to ForwardDynamicsContacts.
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
@ -412,21 +397,18 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptDoubleContactRepeated) {
point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true); point_accel_lagrangian = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point, true);
point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true); point_accel_contacts = CalcPointAcceleration (*model, Q, QDot, QDDot_contacts, contact_body_id, contact_point, true);
// check whether FDContactsLagrangian and FDContacts match // check whether FDContactsLagrangian and FDContacts match
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
// check whether the point accelerations match // check whether the point accelerations match
CHECK_ARRAY_CLOSE (point_accel_lagrangian.data(), point_accel_contacts.data(), 3, TEST_PREC); REQUIRE_THAT (point_accel_lagrangian, AllCloseVector(point_accel_contacts, TEST_PREC, TEST_PREC));
// check whether the generalized accelerations match // check whether the generalized accelerations match
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts.data(), QDDot_lagrangian.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptMultipleContact) { TEST_CASE_METHOD (FixedBase6DoF, __FILE__"_ForwardDynamicsContactsOptMultipleContact", "") {
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.)); constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.));
@ -464,19 +446,15 @@ TEST_FIXTURE (FixedBase6DoF, ForwardDynamicsContactsOptMultipleContact) {
// cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << endl; // cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << endl;
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot_contacts.data(), QDDot_lagrangian.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot_contacts, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF9DoF, ForwardDynamicsContactsOptMultipleContactsMultipleBodiesMoving) { TEST_CASE_METHOD (FixedBase6DoF9DoF, __FILE__"_ForwardDynamicsContactsOptMultipleContactsMultipleBodiesMoving", "") {
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.)); constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.));
@ -517,27 +495,23 @@ TEST_FIXTURE (FixedBase6DoF9DoF, ForwardDynamicsContactsOptMultipleContactsMulti
ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_lagrangian, QDDot_lagrangian); ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_lagrangian, QDDot_lagrangian);
// cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl; // cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point); point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point);
point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point); point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF9DoF, ForwardDynamicsContactsOptMultipleContactsMultipleBodiesMovingAlternate) { TEST_CASE_METHOD (FixedBase6DoF9DoF, __FILE__"_ForwardDynamicsContactsOptMultipleContactsMultipleBodiesMovingAlternate", "") {
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.)); constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.));
@ -584,27 +558,23 @@ TEST_FIXTURE (FixedBase6DoF9DoF, ForwardDynamicsContactsOptMultipleContactsMulti
ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_lagrangian, QDDot_lagrangian); ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_lagrangian, QDDot_lagrangian);
// cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl; // cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point); point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point);
point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point); point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF12DoFFloatingBase, ForwardDynamicsContactsMultipleContactsFloatingBase) { TEST_CASE_METHOD (FixedBase6DoF12DoFFloatingBase, __FILE__"_ForwardDynamicsContactsMultipleContactsFloatingBase", "") {
ConstraintSet constraint_set_lagrangian; ConstraintSet constraint_set_lagrangian;
constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.)); constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.));
@ -653,27 +623,23 @@ TEST_FIXTURE (FixedBase6DoF12DoFFloatingBase, ForwardDynamicsContactsMultipleCon
// cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl; // cout << "Lagrangian contact force " << contact_data_lagrangian[0].force << ", " << contact_data_lagrangian[1].force << ", " << contact_data_lagrangian[2].force << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (constraint_set_lagrangian.force, AllCloseVector(constraint_set.force, TEST_PREC, TEST_PREC));
constraint_set_lagrangian.force.data(),
constraint_set.force.data(),
constraint_set.size(), TEST_PREC
);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point); point_accel_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, contact_body_id, contact_point);
point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point); point_accel_2_c = CalcPointAcceleration (*model, Q, QDot, QDDot_lagrangian, child_2_id, contact_point);
CHECK_CLOSE (0., point_accel_c[0], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_c[1], TEST_PREC, TEST_PREC));
CHECK_CLOSE (0., point_accel_2_c[1], TEST_PREC); REQUIRE_THAT (0., IsClose(point_accel_2_c[1], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (QDDot_lagrangian.data(), QDDot.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot_lagrangian, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (Human36, ForwardDynamicsContactsFixedBody) { TEST_CASE_METHOD (Human36, __FILE__"_ForwardDynamicsContactsFixedBody", "") {
VectorNd qddot_lagrangian (VectorNd::Zero(qddot.size())); VectorNd qddot_lagrangian (VectorNd::Zero(qddot.size()));
VectorNd qddot_sparse (VectorNd::Zero(qddot.size())); VectorNd qddot_sparse (VectorNd::Zero(qddot.size()));
@ -687,11 +653,11 @@ TEST_FIXTURE (Human36, ForwardDynamicsContactsFixedBody) {
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraint_upper_trunk, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraint_upper_trunk, qddot_sparse);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraint_upper_trunk, qddot); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraint_upper_trunk, qddot);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm() * 10.); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot, TEST_PREC * qddot_lagrangian.norm() * 10., TEST_PREC * qddot_lagrangian.norm() * 10.));
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_sparse.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm() * 10.); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_sparse, TEST_PREC * qddot_lagrangian.norm() * 10., TEST_PREC * qddot_lagrangian.norm() * 10.));
} }
TEST_FIXTURE (Human36, ForwardDynamicsContactsImpulses) { TEST_CASE_METHOD (Human36, __FILE__"_ForwardDynamicsContactsImpulses", "") {
VectorNd qddot_lagrangian (VectorNd::Zero(qddot.size())); VectorNd qddot_lagrangian (VectorNd::Zero(qddot.size()));
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
@ -719,6 +685,6 @@ TEST_FIXTURE (Human36, ForwardDynamicsContactsImpulses) {
Vector3d heel_left_velocity = CalcPointVelocity (*model_3dof, q, qdotplus, body_id_3dof[BodyFootLeft], heel_point); Vector3d heel_left_velocity = CalcPointVelocity (*model_3dof, q, qdotplus, body_id_3dof[BodyFootLeft], heel_point);
Vector3d heel_right_velocity = CalcPointVelocity (*model_3dof, q, qdotplus, body_id_3dof[BodyFootRight], heel_point); Vector3d heel_right_velocity = CalcPointVelocity (*model_3dof, q, qdotplus, body_id_3dof[BodyFootRight], heel_point);
CHECK_ARRAY_CLOSE (Vector3d(0., 0., 0.).data(), heel_left_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d(0., 0., 0.), AllCloseVector(heel_left_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d(0., 0., 0.).data(), heel_right_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d(0., 0., 0.), AllCloseVector(heel_right_velocity, TEST_PREC, TEST_PREC));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include "rbdl/rbdl.h" #include "rbdl/rbdl.h"
#include "rbdl/Constraints.h" #include "rbdl/Constraints.h"
#include <cassert> #include <cassert>
@ -335,8 +335,7 @@ struct DoublePerpendicularPendulumCustomConstraint {
TEST(CustomConstraintCorrectnessTest) { TEST_CASE (__FILE__"_CustomConstraintCorrectnessTest", "") {
//Test to add: //Test to add:
// Jacobian vs. num Jacobian // Jacobian vs. num Jacobian
DoublePerpendicularPendulumCustomConstraint dbcc DoublePerpendicularPendulumCustomConstraint dbcc
@ -430,8 +429,8 @@ TEST(CustomConstraintCorrectnessTest) {
CalcConstraintsVelocityError(dbcc.model,dbcc.q,dbcc.qd,dbcc.cs,errd,true); CalcConstraintsVelocityError(dbcc.model,dbcc.q,dbcc.qd,dbcc.cs,errd,true);
CHECK(err.norm() >= qError); REQUIRE (err.norm() >= qError);
CHECK(errd.norm() >= qDotError); REQUIRE (errd.norm() >= qDotError);
//Solve for the initial q and qdot terms that satisfy the constraints //Solve for the initial q and qdot terms that satisfy the constraints
VectorNd qAsm,qDotAsm,w; VectorNd qAsm,qDotAsm,w;
@ -460,14 +459,9 @@ TEST(CustomConstraintCorrectnessTest) {
//The constraint errors at the position and velocity level //The constraint errors at the position and velocity level
//must be zero before the accelerations can be tested. //must be zero before the accelerations can be tested.
for(unsigned int i=0; i<err.rows();++i){ VectorNd target(dbcc.cs.size());
CHECK_CLOSE(0,err[i],TEST_PREC); REQUIRE_THAT(target, AllCloseVector(err, TEST_PREC, TEST_PREC));
} REQUIRE_THAT(target, AllCloseVector(errd, TEST_PREC, TEST_PREC));
for(unsigned int i=0; i<errd.rows();++i){
CHECK_CLOSE(0,errd[i],TEST_PREC);
}
//Evaluate the accelerations of the constrained pendulum and //Evaluate the accelerations of the constrained pendulum and
//compare those to the joint-coordinate pendulum //compare those to the joint-coordinate pendulum
@ -483,24 +477,16 @@ TEST(CustomConstraintCorrectnessTest) {
ForwardDynamicsConstraintsDirect(dba.model, dba.q, dba.qd, ForwardDynamicsConstraintsDirect(dba.model, dba.q, dba.qd,
dba.tau, dba.cs, dba.qdd); dba.tau, dba.cs, dba.qdd);
for(unsigned int i = 0; i < dba.cs.G.rows(); ++i){ REQUIRE_THAT (dba.cs.G, AllCloseMatrix(dbcc.cs.G, TEST_PREC, TEST_PREC));
for(unsigned int j=0; j< dba.cs.G.cols();++j){ REQUIRE_THAT (dba.cs.gamma, AllCloseVector(dbcc.cs.gamma, TEST_PREC, TEST_PREC));
CHECK_CLOSE(dba.cs.G(i,j),dbcc.cs.G(i,j),TEST_PREC);
//REQUIRE_THAT (dba.cs.constraintAxis, AllCloseVector(dbcc.cs.constraintAxis, TEST_PREC, TEST_PREC)); //does not work
for(unsigned int i=0; i < dba.cs.constraintAxis.size(); ++i){
for(unsigned int j=0; j< dba.cs.constraintAxis[0].rows(); ++j){
REQUIRE_THAT (dba.cs.constraintAxis[i][j], IsClose(dbcc.cs.constraintAxis[i][j], TEST_PREC, TEST_PREC));
} }
} }
for(unsigned int i = 0; i < dba.cs.gamma.rows(); ++i){
CHECK_CLOSE(dba.cs.gamma[i],dbcc.cs.gamma[i],TEST_PREC);
}
for(unsigned int i =0; i < dba.cs.constraintAxis.size(); ++i){
for(unsigned int j=0; j< dba.cs.constraintAxis[0].rows();++j){
CHECK_CLOSE(dba.cs.constraintAxis[i][j],
dbcc.cs.constraintAxis[i][j],TEST_PREC);
}
}
SpatialVector a010c = SpatialVector a010c =
CalcPointAcceleration6D(dbcc.model,dbcc.q,dbcc.qd,dbcc.qdd, CalcPointAcceleration6D(dbcc.model,dbcc.q,dbcc.qd,dbcc.qdd,
dbcc.idB1,Vector3d(0.,0.,0.),true); dbcc.idB1,Vector3d(0.,0.,0.),true);
@ -511,10 +497,7 @@ TEST(CustomConstraintCorrectnessTest) {
CalcPointAcceleration6D(dbcc.model,dbcc.q,dbcc.qd,dbcc.qdd, CalcPointAcceleration6D(dbcc.model,dbcc.q,dbcc.qd,dbcc.qdd,
dbcc.idB2,Vector3d(dbcc.l2,0.,0.),true); dbcc.idB2,Vector3d(dbcc.l2,0.,0.),true);
for(unsigned int i=0; i<6;++i){ REQUIRE_THAT (a010, AllCloseVector(a010c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a010[i],a010c[i],TEST_PREC); REQUIRE_THAT (a020, AllCloseVector(a020c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a020[i],a020c[i],TEST_PREC); REQUIRE_THAT (a030, AllCloseVector(a030c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a030[i],a030c[i],TEST_PREC);
}
} }

View File

@ -4,7 +4,7 @@
*/ */
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -504,8 +504,7 @@ struct CustomJointMultiBodyFixture {
// //
//============================================================================== //==============================================================================
TEST_FIXTURE ( CustomJointMultiBodyFixture, UpdateKinematics ) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_UpdateKinematics", "") {
VectorNd test; VectorNd test;
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
@ -535,40 +534,25 @@ TEST_FIXTURE ( CustomJointMultiBodyFixture, UpdateKinematics ) {
// ].E; // ].E;
// Matrix3d Eerr = Eref-Ecus; // Matrix3d Eerr = Eref-Ecus;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).X_base[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E,
reference_model.at(idx).X_base[ AllCloseMatrix(custom_model.at(idx).X_base[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E, TEST_PREC, TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].E.data(),
custom_model.at(idx).X_base[
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)
].E.data(),
9,
TEST_PREC);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).X_base[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E,
reference_model.at(idx).v[ AllCloseMatrix(custom_model.at(idx).X_base[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E, TEST_PREC, TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].data(),
custom_model.at(idx).v[
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)
].data(),
6,
TEST_PREC);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).v[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)],
reference_model.at(idx).a[ AllCloseVector(custom_model.at(idx).v[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)], TEST_PREC, TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].data(),
custom_model.at(idx).a[ REQUIRE_THAT (reference_model.at(idx).a[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)],
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1) AllCloseVector(custom_model.at(idx).a[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)], TEST_PREC, TEST_PREC)
].data(), );
6,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, UpdateKinematicsCustom) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_UpdateKinematicsCustom", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -583,15 +567,9 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, UpdateKinematicsCustom) {
&q.at(idx), NULL, NULL); &q.at(idx), NULL, NULL);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).X_base[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E,
reference_model.at(idx).X_base[ AllCloseMatrix(custom_model.at(idx).X_base[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)].E, TEST_PREC, TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].E.data(),
custom_model.at(idx).X_base[
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)
].E.data(),
9,
TEST_PREC);
//velocity //velocity
@ -602,15 +580,9 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, UpdateKinematicsCustom) {
&q.at(idx), &q.at(idx),
&qdot.at(idx), NULL); &qdot.at(idx), NULL);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).v[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)],
reference_model.at(idx).v[ AllCloseVector(custom_model.at(idx).v[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)], TEST_PREC,TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].data(),
custom_model.at(idx).v[
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)
].data(),
6,
TEST_PREC);
//All //All
@ -624,21 +596,13 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, UpdateKinematicsCustom) {
&qdot.at(idx), &qdot.at(idx),
&qddot.at(idx)); &qddot.at(idx));
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).a[reference_body_id.at(idx).at(NUMBER_OF_BODIES-1)],
reference_model.at(idx).a[ AllCloseVector(custom_model.at(idx).a[custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)], TEST_PREC, TEST_PREC)
reference_body_id.at(idx).at(NUMBER_OF_BODIES-1) );
].data(),
custom_model.at(idx).a[
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1)
].data(),
6,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, Jacobians) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_Jacobians", "") {
for(int idx = 0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx = 0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
@ -676,14 +640,7 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, Jacobians) {
custom_body_id.at(idx).at(NUMBER_OF_BODIES-1), custom_body_id.at(idx).at(NUMBER_OF_BODIES-1),
Gcus); Gcus);
for(int i=0; i<6;++i){ REQUIRE_THAT (Gref, AllCloseMatrix(Gcus, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
Gref(i,j),
Gcus(i,j),
TEST_PREC);
}
}
//Check the 6d point Jacobian //Check the 6d point Jacobian
Vector3d point_position (1.1, 1.2, 2.1); Vector3d point_position (1.1, 1.2, 2.1);
@ -701,14 +658,7 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, Jacobians) {
point_position, point_position,
Gcus); Gcus);
for(int i=0; i<6;++i){ REQUIRE_THAT (Gref, AllCloseMatrix(Gcus, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
Gref(i,j),
Gcus(i,j),
TEST_PREC);
}
}
//Check the 3d point Jacobian //Check the 3d point Jacobian
MatrixNd GrefPt = MatrixNd::Constant (3, MatrixNd GrefPt = MatrixNd::Constant (3,
@ -730,20 +680,11 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, Jacobians) {
point_position, point_position,
GcusPt); GcusPt);
for(int i=0; i<3;++i){ REQUIRE_THAT (GrefPt, AllCloseMatrix(GcusPt, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
GrefPt(i,j),
GcusPt(i,j),
TEST_PREC);
}
}
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, InverseDynamics) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_InverseDynamics", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -770,17 +711,11 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, InverseDynamics) {
VectorNd tauErr = tauRef-tauCus; VectorNd tauErr = tauRef-tauCus;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (tauRef, AllCloseVector(tauCus, TEST_PREC, TEST_PREC));
tauRef.data(),
tauCus.data(),
tauRef.rows(),
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, CompositeRigidBodyAlgorithm) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_CompositeRigidBodyAlgorithm", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -844,15 +779,11 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, CompositeRigidBodyAlgorithm) {
c_cus * -1. + tau.at(idx), c_cus * -1. + tau.at(idx),
qddot_crba_cus); qddot_crba_cus);
CHECK_ARRAY_CLOSE(qddot_crba_ref.data(), REQUIRE_THAT(qddot_crba_ref, AllCloseVector(qddot_crba_cus, TEST_PREC, TEST_PREC));
qddot_crba_cus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, ForwardDynamics) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_ForwardDynamics", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -878,23 +809,16 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, ForwardDynamics) {
tau.at(idx), tau.at(idx),
qddotCus); qddotCus);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (qddotRef, AllCloseVector(qddotCus, TEST_PREC, TEST_PREC));
qddotRef.data(),
qddotCus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, CalcMInvTimestau) { TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_CalcMInvTimestau", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
q.at(idx)[i] = (i+0.1) * 9.133758561390194e-01; q.at(idx)[i] = (i+0.1) * 9.133758561390194e-01;
tau.at(idx)[i] = (i+0.1) * 9.754040499940952e-02; tau.at(idx)[i] = (i+0.1) * 9.754040499940952e-02;
} }
//reference //reference
@ -915,16 +839,11 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, CalcMInvTimestau) {
true); true);
//check. //check.
CHECK_ARRAY_CLOSE(qddot_minv_ref.data(), REQUIRE_THAT(qddot_minv_ref, AllCloseVector(qddot_minv_cus, TEST_PREC, TEST_PREC));
qddot_minv_cus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointMultiBodyFixture, ForwardDynamicsContactsKokkevis){ TEST_CASE_METHOD (CustomJointMultiBodyFixture, __FILE__"_ForwardDynamicsContactsKokkevis", ""){
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
//Adding a 1 constraint to a system with 1 dof is //Adding a 1 constraint to a system with 1 dof is
@ -1008,18 +927,10 @@ TEST_FIXTURE (CustomJointMultiBodyFixture, ForwardDynamicsContactsKokkevis){
VectorNd qdot_plus_error = qdot_plus_ref - qdot_plus_cus; VectorNd qdot_plus_error = qdot_plus_ref - qdot_plus_cus;
VectorNd qddot_error = qddot_ref - qddot_cus; VectorNd qddot_error = qddot_ref - qddot_cus;
CHECK_ARRAY_CLOSE (qdot_plus_ref.data(), REQUIRE_THAT (qdot_plus_ref, AllCloseVector(qdot_plus_cus, TEST_PREC, TEST_PREC));
qdot_plus_cus.data(), REQUIRE_THAT (qddot_ref, AllCloseVector(qddot_cus, TEST_PREC, TEST_PREC));
dof,
TEST_PREC);
CHECK_ARRAY_CLOSE (qddot_ref.data(),
qddot_cus.data(),
dof,
TEST_PREC);
} }
} }
} }
// //

View File

@ -4,7 +4,7 @@
*/ */
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -370,7 +370,7 @@ struct CustomJointSingleBodyFixture {
// //
//============================================================================== //==============================================================================
TEST_FIXTURE ( CustomJointSingleBodyFixture, UpdateKinematics ) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_UpdateKinematics", "") {
VectorNd test; VectorNd test;
@ -392,27 +392,14 @@ TEST_FIXTURE ( CustomJointSingleBodyFixture, UpdateKinematics ) {
qdot.at(idx), qdot.at(idx),
qddot.at(idx)); qddot.at(idx));
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).X_base[reference_body_id.at(idx)].E, AllCloseMatrix(custom_model.at(idx).X_base[custom_body_id.at(idx)].E, TEST_PREC, TEST_PREC));
reference_model.at(idx).X_base[reference_body_id.at(idx)].E.data(), REQUIRE_THAT (reference_model.at(idx).v[reference_body_id.at(idx)], AllCloseVector(custom_model.at(idx).v[custom_body_id.at(idx)], TEST_PREC, TEST_PREC));
custom_model.at(idx).X_base[ custom_body_id.at(idx)].E.data(), REQUIRE_THAT (reference_model.at(idx).a[reference_body_id.at(idx)], AllCloseVector(custom_model.at(idx).a[custom_body_id.at(idx)], TEST_PREC, TEST_PREC));
9,
TEST_PREC);
CHECK_ARRAY_CLOSE (
reference_model.at(idx).v[reference_body_id.at(idx)].data(),
custom_model.at(idx).v[ custom_body_id.at(idx)].data(),
6,
TEST_PREC);
CHECK_ARRAY_CLOSE (
reference_model.at(idx).a[reference_body_id.at(idx)].data(),
custom_model.at(idx).a[ custom_body_id.at(idx)].data(),
6,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, UpdateKinematicsCustom) {
TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_UpdateKinematicsCustom", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
@ -427,13 +414,7 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, UpdateKinematicsCustom) {
UpdateKinematicsCustom (custom_model.at(idx), UpdateKinematicsCustom (custom_model.at(idx),
&q.at(idx), NULL, NULL); &q.at(idx), NULL, NULL);
REQUIRE_THAT (reference_model.at(idx).X_base[reference_body_id.at(idx)].E, AllCloseMatrix(custom_model.at(idx).X_base[custom_body_id.at(idx)].E, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (
reference_model.at(idx).X_base[reference_body_id.at(idx)].E.data(),
custom_model.at(idx).X_base[ custom_body_id.at(idx)].E.data(),
9,
TEST_PREC);
//velocity //velocity
UpdateKinematicsCustom (reference_model.at(idx), UpdateKinematicsCustom (reference_model.at(idx),
@ -445,12 +426,7 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, UpdateKinematicsCustom) {
&qdot.at(idx), &qdot.at(idx),
NULL); NULL);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).v[reference_body_id.at(idx)], AllCloseVector(custom_model.at(idx).v[custom_body_id.at(idx)], TEST_PREC, TEST_PREC));
reference_model.at(idx).v[reference_body_id.at(idx)].data(),
custom_model.at(idx).v[ custom_body_id.at(idx)].data(),
6,
TEST_PREC);
//All //All
UpdateKinematicsCustom (reference_model.at(idx), UpdateKinematicsCustom (reference_model.at(idx),
@ -463,18 +439,11 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, UpdateKinematicsCustom) {
&qdot.at(idx), &qdot.at(idx),
&qddot.at(idx)); &qddot.at(idx));
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (reference_model.at(idx).a[reference_body_id.at(idx)], AllCloseVector(custom_model.at(idx).a[custom_body_id.at(idx)], TEST_PREC, TEST_PREC));
reference_model.at(idx).a[reference_body_id.at(idx)].data(),
custom_model.at(idx).a[ custom_body_id.at(idx)].data(),
6,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, Jacobians) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_Jacobians", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -511,14 +480,7 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, Jacobians) {
custom_body_id.at(idx), custom_body_id.at(idx),
Gcus); Gcus);
for(int i=0; i<6;++i){ REQUIRE_THAT (Gref, AllCloseMatrix(Gcus, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
Gref(i,j),
Gcus(i,j),
TEST_PREC);
}
}
//Check the 6d point Jacobian //Check the 6d point Jacobian
Vector3d point_position (1.1, 1.2, 2.1); Vector3d point_position (1.1, 1.2, 2.1);
@ -535,16 +497,7 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, Jacobians) {
point_position, point_position,
Gcus); Gcus);
for(int i=0; i<6;++i){ REQUIRE_THAT (Gref, AllCloseMatrix(Gcus, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
Gref(i,j),
Gcus(i,j),
TEST_PREC);
}
}
//Check the 3d point Jacobian //Check the 3d point Jacobian
MatrixNd GrefPt = MatrixNd::Constant (3, MatrixNd GrefPt = MatrixNd::Constant (3,
@ -554,8 +507,6 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, Jacobians) {
reference_model.at(idx).dof_count, reference_model.at(idx).dof_count,
0.); 0.);
CalcPointJacobian (reference_model.at(idx), CalcPointJacobian (reference_model.at(idx),
q.at(idx), q.at(idx),
reference_body_id.at(idx), reference_body_id.at(idx),
@ -568,20 +519,11 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, Jacobians) {
point_position, point_position,
GcusPt); GcusPt);
for(int i=0; i<3;++i){ REQUIRE_THAT (GrefPt, AllCloseMatrix(GcusPt, TEST_PREC, TEST_PREC));
for(unsigned int j = 0; j < dof; ++j){
CHECK_CLOSE (
GrefPt(i,j),
GcusPt(i,j),
TEST_PREC);
}
}
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, InverseDynamics) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_InverseDynamics", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -609,17 +551,12 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, InverseDynamics) {
VectorNd tauErr = tauRef-tauCus; VectorNd tauErr = tauRef-tauCus;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (tauRef, AllCloseVector(tauCus, TEST_PREC, TEST_PREC));
tauRef.data(),
tauCus.data(),
tauRef.rows(),
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, CompositeRigidBodyAlgorithm) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_CompositeRigidBodyAlgorithm", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -683,15 +620,11 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, CompositeRigidBodyAlgorithm) {
c_cus * -1. + tau.at(idx), c_cus * -1. + tau.at(idx),
qddot_crba_cus); qddot_crba_cus);
CHECK_ARRAY_CLOSE(qddot_crba_ref.data(), REQUIRE_THAT(qddot_crba_ref, AllCloseVector(qddot_crba_cus, TEST_PREC, TEST_PREC));
qddot_crba_cus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, ForwardDynamics) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_ForwardDynamics", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
for (unsigned int i = 0; i < dof; i++) { for (unsigned int i = 0; i < dof; i++) {
@ -717,15 +650,11 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, ForwardDynamics) {
tau.at(idx), tau.at(idx),
qddotCus); qddotCus);
CHECK_ARRAY_CLOSE ( qddotRef.data(), REQUIRE_THAT ( qddotRef, AllCloseVector(qddotCus, TEST_PREC, TEST_PREC));
qddotCus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, CalcMInvTimestau) { TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_CalcMInvTimestau", "") {
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
@ -753,16 +682,11 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, CalcMInvTimestau) {
qddot_minv_cus, qddot_minv_cus,
true); true);
//check. //check.
CHECK_ARRAY_CLOSE(qddot_minv_ref.data(), REQUIRE_THAT(qddot_minv_ref, AllCloseVector(qddot_minv_cus, TEST_PREC, TEST_PREC));
qddot_minv_cus.data(),
dof,
TEST_PREC);
} }
} }
TEST_FIXTURE (CustomJointSingleBodyFixture, ForwardDynamicsContactsKokkevis){ TEST_CASE_METHOD (CustomJointSingleBodyFixture, __FILE__"_ForwardDynamicsContactsKokkevis", ""){
for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){ for(int idx =0; idx < NUMBER_OF_MODELS; ++idx){
unsigned int dof = reference_model.at(idx).dof_count; unsigned int dof = reference_model.at(idx).dof_count;
//Adding a 1 constraint to a system with 1 dof is //Adding a 1 constraint to a system with 1 dof is
@ -842,18 +766,8 @@ TEST_FIXTURE (CustomJointSingleBodyFixture, ForwardDynamicsContactsKokkevis){
VectorNd qdot_plus_error = qdot_plus_ref - qdot_plus_cus; VectorNd qdot_plus_error = qdot_plus_ref - qdot_plus_cus;
VectorNd qddot_error = qddot_ref - qddot_cus; VectorNd qddot_error = qddot_ref - qddot_cus;
CHECK_ARRAY_CLOSE (qdot_plus_ref.data(), REQUIRE_THAT (qdot_plus_ref, AllCloseVector(qdot_plus_cus, TEST_PREC, TEST_PREC));
qdot_plus_cus.data(), REQUIRE_THAT (qddot_ref, AllCloseVector(qddot_cus, TEST_PREC, TEST_PREC));
dof,
TEST_PREC);
CHECK_ARRAY_CLOSE (qddot_ref.data(),
qddot_cus.data(),
dof,
TEST_PREC);
} }
} }
} }

View File

@ -73,7 +73,7 @@ struct CustomEulerZYXJoint : public CustomJoint {
const Math::VectorNd &q const Math::VectorNd &q
) { ) {
// TODO // TODO
assert (false && "Not yet implemented!"); REQUIRE (false && "Not yet implemented!");
} }
}; };

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
#include <limits> #include <limits>
@ -30,7 +30,7 @@ struct DynamicsFixture {
Model *model; Model *model;
}; };
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSingleChain) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicSingleChain", "") {
Body body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -53,10 +53,10 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSingleChain) {
LOG << "a[" << i << "] = " << model->a[i] << endl; LOG << "a[" << i << "] = " << model->a[i] << endl;
} }
CHECK_EQUAL (-4.905, QDDot[0]); REQUIRE (-4.905 == QDDot[0]);
} }
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSpatialInertiaSingleChain) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicSpatialInertiaSingleChain", "") {
// This function checks the value for a non-trivial spatial inertia // This function checks the value for a non-trivial spatial inertia
Body body(1., Vector3d (1.5, 1., 1.), Vector3d (1., 2., 3.)); Body body(1., Vector3d (1.5, 1., 1.), Vector3d (1., 2., 3.));
@ -82,10 +82,10 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSpatialInertiaSingleChain) {
LOG << "a[" << i << "] = " << model->a[i] << endl; LOG << "a[" << i << "] = " << model->a[i] << endl;
} }
CHECK_EQUAL (-2.3544, QDDot[0]); REQUIRE (-2.3544 == QDDot[0]);
} }
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicDoubleChain) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicDoubleChain", "") {
Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -117,11 +117,11 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicDoubleChain) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE (-5.88600000000000E+00, QDDot[0], TEST_PREC); REQUIRE_THAT (-5.88600000000000E+00, IsClose(QDDot[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE ( 3.92400000000000E+00, QDDot[1], TEST_PREC); REQUIRE_THAT ( 3.92400000000000E+00, IsClose(QDDot[1], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicTripleChain) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicTripleChain", "") {
Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -158,12 +158,10 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicTripleChain) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE (-6.03692307692308E+00, QDDot[0], TEST_PREC); REQUIRE_THAT (Vector3d(-6.03692307692308E+00, 3.77307692307692E+00, 1.50923076923077E+00), AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
CHECK_CLOSE ( 3.77307692307692E+00, QDDot[1], TEST_PREC);
CHECK_CLOSE ( 1.50923076923077E+00, QDDot[2], TEST_PREC);
} }
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicDoubleChain3D) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicDoubleChain3D", "") {
Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -195,11 +193,11 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicDoubleChain3D) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE (-3.92400000000000E+00, QDDot[0], TEST_PREC); REQUIRE_THAT (-3.92400000000000E+00, IsClose(QDDot[0], TEST_PREC, TEST_PREC));
CHECK_CLOSE ( 0.00000000000000E+00, QDDot[1], TEST_PREC); REQUIRE_THAT ( 0.00000000000000E+00, IsClose(QDDot[1], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSimpleTree3D) { TEST_CASE_METHOD (DynamicsFixture, __FILE__"_TestCalcDynamicSimpleTree3D", "") {
Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body body_a (1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint_a ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -246,14 +244,16 @@ TEST_FIXTURE(DynamicsFixture, TestCalcDynamicSimpleTree3D) {
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_CLOSE (-1.60319066147860E+00, QDDot[0], TEST_PREC); VectorNd target = VectorNd::Zero (5);
CHECK_CLOSE (-5.34396887159533E-01, QDDot[1], TEST_PREC); target[0] = -1.60319066147860E+00;
CHECK_CLOSE ( 4.10340466926070E+00, QDDot[2], TEST_PREC); target[1] = -5.34396887159533E-01;
CHECK_CLOSE ( 2.67198443579767E-01, QDDot[3], TEST_PREC); target[2] = 4.10340466926070E+00;
CHECK_CLOSE ( 5.30579766536965E+00, QDDot[4], TEST_PREC); target[3] = 2.67198443579767E-01;
target[4] = 5.30579766536965E+00;
REQUIRE_THAT (target, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
} }
TEST (TestForwardDynamicsLagrangian) { TEST_CASE (__FILE__"_TestForwardDynamicsLagrangian", "") {
Model model; Model model;
Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
@ -300,8 +300,8 @@ TEST (TestForwardDynamicsLagrangian) {
ForwardDynamics(model, Q, QDot, Tau, QDDot_aba); ForwardDynamics(model, Q, QDot, Tau, QDDot_aba);
ForwardDynamicsLagrangian(model, Q, QDot, Tau, QDDot_lagrangian); ForwardDynamicsLagrangian(model, Q, QDot, Tau, QDDot_lagrangian);
CHECK_EQUAL (QDDot_aba.size(), QDDot_lagrangian.size()); REQUIRE (QDDot_aba.size() == QDDot_lagrangian.size());
CHECK_ARRAY_CLOSE (QDDot_aba.data(), QDDot_lagrangian.data(), QDDot_aba.size(), TEST_PREC); REQUIRE_THAT (QDDot_aba, AllCloseVector(QDDot_lagrangian, TEST_PREC, TEST_PREC));
} }
/* /*
@ -311,7 +311,7 @@ TEST (TestForwardDynamicsLagrangian) {
* due to the missing gravity term. But as the test now works, I just leave * due to the missing gravity term. But as the test now works, I just leave
* it here. * it here.
*/ */
TEST (TestForwardDynamics3DoFModel) { TEST_CASE (__FILE__"_TestForwardDynamics3DoFModel", "") {
Model model; Model model;
model.gravity = Vector3d (0., -9.81, 0.); model.gravity = Vector3d (0., -9.81, 0.);
@ -348,7 +348,7 @@ TEST (TestForwardDynamics3DoFModel) {
QDDot_ref[0] = 3.301932144386186; QDDot_ref[0] = 3.301932144386186;
CHECK_ARRAY_CLOSE (QDDot_ref.data(), QDDot.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot_ref, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
} }
/* /*
@ -359,7 +359,7 @@ TEST (TestForwardDynamics3DoFModel) {
* Running the CRBA after the InverseDynamics calculation fixes this. This * Running the CRBA after the InverseDynamics calculation fixes this. This
* test ensures that the error does not happen when calling ForwardLagrangian. * test ensures that the error does not happen when calling ForwardLagrangian.
*/ */
TEST (TestForwardDynamics3DoFModelLagrangian) { TEST_CASE (__FILE__"_TestForwardDynamics3DoFModelLagrangian", "") {
Model model; Model model;
model.gravity = Vector3d (0., -9.81, 0.); model.gravity = Vector3d (0., -9.81, 0.);
@ -402,14 +402,14 @@ TEST (TestForwardDynamics3DoFModelLagrangian) {
// cout << QDDot_lagrangian << endl; // cout << QDDot_lagrangian << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (QDDot_ab.data(), QDDot_lagrangian.data(), QDDot_ab.size(), TEST_PREC); REQUIRE_THAT (QDDot_ab, AllCloseVector(QDDot_lagrangian, TEST_PREC, TEST_PREC));
} }
/* /*
* This is a test for a model where I detected incosistencies between the * This is a test for a model where I detected incosistencies between the
* Lagragian method and the ABA. * Lagragian method and the ABA.
*/ */
TEST (TestForwardDynamicsTwoLegModelLagrangian) { TEST_CASE (__FILE__"_TestForwardDynamicsTwoLegModelLagrangian", "") {
Model *model = NULL; Model *model = NULL;
unsigned int hip_id, unsigned int hip_id,
@ -574,12 +574,12 @@ TEST (TestForwardDynamicsTwoLegModelLagrangian) {
ClearLogOutput(); ClearLogOutput();
ForwardDynamicsLagrangian (*model, Q, QDot, Tau, QDDot); ForwardDynamicsLagrangian (*model, Q, QDot, Tau, QDDot);
CHECK_ARRAY_CLOSE (QDDotABA.data(), QDDot.data(), QDDotABA.size(), TEST_PREC); REQUIRE_THAT (QDDotABA, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
delete model; delete model;
} }
TEST_FIXTURE(FixedAndMovableJoint, TestForwardDynamicsFixedJoint) { TEST_CASE_METHOD (FixedAndMovableJoint, __FILE__"_TestForwardDynamicsFixedJoint", "") {
Q_fixed[0] = 1.1; Q_fixed[0] = 1.1;
Q_fixed[1] = 2.2; Q_fixed[1] = 2.2;
@ -603,14 +603,14 @@ TEST_FIXTURE(FixedAndMovableJoint, TestForwardDynamicsFixedJoint) {
C_fixed[1] = C_movable[2]; C_fixed[1] = C_movable[2];
VectorNd QDDot_fixed_emulate(2); VectorNd QDDot_fixed_emulate(2);
CHECK (LinSolveGaussElimPivot (H_fixed, C_fixed * -1. + Tau_fixed, QDDot_fixed_emulate)); REQUIRE (LinSolveGaussElimPivot (H_fixed, C_fixed * -1. + Tau_fixed, QDDot_fixed_emulate));
ForwardDynamics (*model_fixed, Q_fixed, QDot_fixed, Tau_fixed, QDDot_fixed); ForwardDynamics (*model_fixed, Q_fixed, QDot_fixed, Tau_fixed, QDDot_fixed);
CHECK_ARRAY_CLOSE (QDDot_fixed_emulate.data(), QDDot_fixed.data(), 2, TEST_PREC); REQUIRE_THAT (QDDot_fixed_emulate, AllCloseVector(QDDot_fixed, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(FixedAndMovableJoint, TestInverseDynamicsFixedJoint) { TEST_CASE_METHOD (FixedAndMovableJoint, __FILE__"_TestInverseDynamicsFixedJoint", "") {
Q_fixed[0] = 1.1; Q_fixed[0] = 1.1;
Q_fixed[1] = 2.2; Q_fixed[1] = 2.2;
@ -631,10 +631,10 @@ TEST_FIXTURE(FixedAndMovableJoint, TestInverseDynamicsFixedJoint) {
Tau_2dof[0] = Tau[0]; Tau_2dof[0] = Tau[0];
Tau_2dof[1] = Tau[2]; Tau_2dof[1] = Tau[2];
CHECK_ARRAY_CLOSE (Tau_2dof.data(), Tau_fixed.data(), 2, TEST_PREC); REQUIRE_THAT (Tau_2dof, AllCloseVector(Tau_fixed, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( FloatingBase12DoF, TestForwardDynamicsLagrangianPrealloc ) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestForwardDynamicsLagrangianPrealloc", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
Q[i] = static_cast<double>(i + 1) * 0.1; Q[i] = static_cast<double>(i + 1) * 0.1;
QDot[i] = static_cast<double>(i + 1) * 1.1; QDot[i] = static_cast<double>(i + 1) * 1.1;
@ -666,10 +666,10 @@ TEST_FIXTURE ( FloatingBase12DoF, TestForwardDynamicsLagrangianPrealloc ) {
&C &C
); );
CHECK_ARRAY_EQUAL (QDDot.data(), QDDot_prealloc.data(), model->dof_count); REQUIRE_THAT (QDDot, AllCloseVector(QDDot_prealloc));
} }
TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesTau) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_SolveMInvTimesTau", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
Q[i] = rand() / static_cast<double>(RAND_MAX); Q[i] = rand() / static_cast<double>(RAND_MAX);
Tau[i] = rand() / static_cast<double>(RAND_MAX); Tau[i] = rand() / static_cast<double>(RAND_MAX);
@ -683,10 +683,10 @@ TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesTau) {
VectorNd qddot_minv (Q); VectorNd qddot_minv (Q);
CalcMInvTimesTau (*model, Q, Tau, qddot_minv); CalcMInvTimesTau (*model, Q, Tau, qddot_minv);
CHECK_ARRAY_CLOSE (qddot_solve_llt.data(), qddot_minv.data(), model->dof_count, TEST_PREC); REQUIRE_THAT (qddot_solve_llt, AllCloseVector(qddot_minv, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesTauReuse) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_SolveMInvTimesTauReuse", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
Q[i] = rand() / static_cast<double>(RAND_MAX); Q[i] = rand() / static_cast<double>(RAND_MAX);
Tau[i] = rand() / static_cast<double>(RAND_MAX); Tau[i] = rand() / static_cast<double>(RAND_MAX);
@ -710,11 +710,11 @@ TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesTauReuse) {
CalcMInvTimesTau (*model, Q, Tau, qddot_minv, false); CalcMInvTimesTau (*model, Q, Tau, qddot_minv, false);
CHECK_ARRAY_CLOSE (qddot_solve_llt.data(), qddot_minv.data(), model->dof_count, TEST_PREC); REQUIRE_THAT (qddot_solve_llt, AllCloseVector(qddot_minv, TEST_PREC, TEST_PREC));
} }
} }
TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesNonZeroQDotKinematicsUpdate) { TEST_CASE_METHOD (FixedBase3DoF, __FILE__"_SolveMInvTimesNonZeroQDotKinematicsUpdate", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
Q[i] = rand() / static_cast<double>(RAND_MAX); Q[i] = rand() / static_cast<double>(RAND_MAX);
QDot[i] = rand() / static_cast<double>(RAND_MAX); QDot[i] = rand() / static_cast<double>(RAND_MAX);
@ -731,5 +731,5 @@ TEST_FIXTURE ( FixedBase3DoF, SolveMInvTimesNonZeroQDotKinematicsUpdate) {
VectorNd qddot_minv (Q); VectorNd qddot_minv (Q);
CalcMInvTimesTau (*model, Q, Tau, qddot_minv); CalcMInvTimesTau (*model, Q, Tau, qddot_minv);
CHECK_ARRAY_CLOSE (qddot_solve_llt.data(), qddot_minv.data(), model->dof_count, TEST_PREC); REQUIRE_THAT (qddot_solve_llt, AllCloseVector(qddot_minv, TEST_PREC, TEST_PREC));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -34,7 +34,7 @@ struct FloatingBaseFixture {
VectorNd q, qdot, qddot, tau; VectorNd q, qdot, qddot, tau;
}; };
TEST_FIXTURE ( FloatingBaseFixture, TestCalcPointTransformation ) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointTransformation", "") {
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
Joint ( Joint (
SpatialVector (0., 0., 0., 1., 0., 0.), SpatialVector (0., 0., 0., 1., 0., 0.),
@ -57,10 +57,10 @@ TEST_FIXTURE ( FloatingBaseFixture, TestCalcPointTransformation ) {
Vector3d test_point; Vector3d test_point;
test_point = CalcBaseToBodyCoordinates (*model, q, base_body_id, Vector3d (0., 0., 0.), false); test_point = CalcBaseToBodyCoordinates (*model, q, base_body_id, Vector3d (0., 0., 0.), false);
CHECK_ARRAY_CLOSE (Vector3d (0., -1., 0.).data(), test_point.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., -1., 0.), AllCloseVector(test_point, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(FloatingBaseFixture, TestCalcDynamicFloatingBaseDoubleImplicit) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcDynamicFloatingBaseDoubleImplicit", "") {
// floating base // floating base
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
Joint ( Joint (
@ -88,6 +88,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcDynamicFloatingBaseDoubleImplicit) {
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
unsigned int i; unsigned int i;
for (i = 0; i < QDDot.size(); i++) { for (i = 0; i < QDDot.size(); i++) {
LOG << "QDDot[" << i << "] = " << QDDot[i] << endl; LOG << "QDDot[" << i << "] = " << QDDot[i] << endl;
} }
@ -98,13 +99,10 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcDynamicFloatingBaseDoubleImplicit) {
// std::cout << LogOutput.str() << std::endl; // std::cout << LogOutput.str() << std::endl;
CHECK_CLOSE ( 0.0000, QDDot[0], TEST_PREC); VectorNd target(7);
CHECK_CLOSE (-9.8100, QDDot[1], TEST_PREC); target << 0., -9.81, 0., 0., 0., 0., 0.;
CHECK_CLOSE ( 0.0000, QDDot[2], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[3], TEST_PREC); REQUIRE_THAT (target, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
CHECK_CLOSE ( 0.0000, QDDot[4], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[5], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[6], TEST_PREC);
// We rotate the base... let's see what happens... // We rotate the base... let's see what happens...
Q[3] = 0.8; Q[3] = 0.8;
@ -120,13 +118,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcDynamicFloatingBaseDoubleImplicit) {
// std::cout << LogOutput.str() << std::endl; // std::cout << LogOutput.str() << std::endl;
CHECK_CLOSE ( 0.0000, QDDot[0], TEST_PREC); REQUIRE_THAT (target, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
CHECK_CLOSE (-9.8100, QDDot[1], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[2], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[3], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[4], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[5], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[6], TEST_PREC);
// We apply a torqe let's see what happens... // We apply a torqe let's see what happens...
Q[3] = 0.; Q[3] = 0.;
@ -149,16 +141,12 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcDynamicFloatingBaseDoubleImplicit) {
// std::cout << LogOutput.str() << std::endl; // std::cout << LogOutput.str() << std::endl;
CHECK_CLOSE ( 0.0000, QDDot[0], TEST_PREC); target << 0., -8.81, 0., -1., 0., 0., 2.;
CHECK_CLOSE (-8.8100, QDDot[1], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[2], TEST_PREC); REQUIRE_THAT (target, AllCloseVector(QDDot, TEST_PREC, TEST_PREC));
CHECK_CLOSE (-1.0000, QDDot[3], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[4], TEST_PREC);
CHECK_CLOSE ( 0.0000, QDDot[5], TEST_PREC);
CHECK_CLOSE ( 2.0000, QDDot[6], TEST_PREC);
} }
TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityFloatingBaseSimple) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointVelocityFloatingBaseSimple", "") {
// floating base // floating base
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
Joint ( Joint (
@ -185,9 +173,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityFloatingBaseSimple) {
point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position); point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position);
CHECK_CLOSE(1., point_velocity[0], TEST_PREC); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE(0., point_velocity[1], TEST_PREC);
CHECK_CLOSE(0., point_velocity[2], TEST_PREC);
LOG << "Point velocity = " << point_velocity << endl; LOG << "Point velocity = " << point_velocity << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
@ -200,9 +186,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityFloatingBaseSimple) {
point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position); point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position);
CHECK_CLOSE(0., point_velocity[0], TEST_PREC); REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE(1., point_velocity[1], TEST_PREC);
CHECK_CLOSE(0., point_velocity[2], TEST_PREC);
LOG << "Point velocity = " << point_velocity << endl; LOG << "Point velocity = " << point_velocity << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
@ -215,15 +199,13 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityFloatingBaseSimple) {
point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position); point_velocity = CalcPointVelocity(*model, Q, QDot, ref_body_id, point_position);
CHECK_CLOSE(-1., point_velocity[0], TEST_PREC); REQUIRE_THAT (Vector3d (-1., 0., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
CHECK_CLOSE(0., point_velocity[1], TEST_PREC);
CHECK_CLOSE(0., point_velocity[2], TEST_PREC);
LOG << "Point velocity = " << point_velocity << endl; LOG << "Point velocity = " << point_velocity << endl;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
} }
TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityCustom) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointVelocityCustom", "") {
// floating base // floating base
base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.)); base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.));
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
@ -274,7 +256,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityCustom) {
1.093894197498446e+00 1.093894197498446e+00
); );
CHECK_ARRAY_CLOSE (point_base_velocity_reference.data(), point_base_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (point_base_velocity_reference, AllCloseVector(point_base_velocity, TEST_PREC, TEST_PREC));
} }
/** \brief Compares computation of acceleration values for zero qddot /** \brief Compares computation of acceleration values for zero qddot
@ -286,7 +268,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointVelocityCustom) {
* Here we omit the term of the generalized acceleration by setting qddot * Here we omit the term of the generalized acceleration by setting qddot
* to zero. * to zero.
*/ */
TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationNoQDDot) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointAccelerationNoQDDot", "") {
// floating base // floating base
base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.)); base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.));
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
@ -364,9 +346,9 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationNoQDDot) {
// cout << "world_accel = " << point_world_acceleration << endl; // cout << "world_accel = " << point_world_acceleration << endl;
CHECK_ARRAY_CLOSE (humans_point_position.data(), point_world_position.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_position, AllCloseVector(point_world_position, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_velocity.data(), point_world_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_velocity, AllCloseVector(point_world_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_acceleration.data(), point_world_acceleration.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_acceleration, AllCloseVector(point_world_acceleration, TEST_PREC, TEST_PREC));
} }
/** \brief Compares computation of acceleration values for zero q and qdot /** \brief Compares computation of acceleration values for zero q and qdot
@ -379,7 +361,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationNoQDDot) {
* Here we set q and qdot to zero and only take into account values that * Here we set q and qdot to zero and only take into account values that
* are dependent on qddot. * are dependent on qddot.
*/ */
TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationOnlyQDDot) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointAccelerationOnlyQDDot", "") {
// floating base // floating base
base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.)); base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.));
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
@ -447,9 +429,9 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationOnlyQDDot) {
// cout << "world_vel = " << point_world_velocity << endl; // cout << "world_vel = " << point_world_velocity << endl;
// cout << "world_accel = " << point_world_acceleration << endl; // cout << "world_accel = " << point_world_acceleration << endl;
CHECK_ARRAY_CLOSE (humans_point_position.data(), point_world_position.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_position, AllCloseVector(point_world_position, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_velocity.data(), point_world_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_velocity, AllCloseVector(point_world_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_acceleration.data(), point_world_acceleration.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_acceleration, AllCloseVector(point_world_acceleration, TEST_PREC, TEST_PREC));
} }
/** \brief Compares computation of acceleration values for zero q and qdot /** \brief Compares computation of acceleration values for zero q and qdot
@ -462,7 +444,7 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationOnlyQDDot) {
* Here we set q and qdot to zero and only take into account values that * Here we set q and qdot to zero and only take into account values that
* are dependent on qddot. * are dependent on qddot.
*/ */
TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationFull) { TEST_CASE_METHOD (FloatingBaseFixture, __FILE__"_TestCalcPointAccelerationFull", "") {
// floating base // floating base
base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.)); base = Body (1., Vector3d (0., 1., 0.), Vector3d (1., 1., 1.));
base_body_id = model->AddBody (0, SpatialTransform(), base_body_id = model->AddBody (0, SpatialTransform(),
@ -542,9 +524,9 @@ TEST_FIXTURE(FloatingBaseFixture, TestCalcPointAccelerationFull) {
// cout << "world_vel = " << point_world_velocity << endl; // cout << "world_vel = " << point_world_velocity << endl;
// cout << "world_accel = " << point_world_acceleration << endl; // cout << "world_accel = " << point_world_acceleration << endl;
CHECK_ARRAY_CLOSE (humans_point_position.data(), point_world_position.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_position, AllCloseVector(point_world_position, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_velocity.data(), point_world_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_velocity, AllCloseVector(point_world_velocity, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (humans_point_acceleration.data(), point_world_acceleration.data(), 3, TEST_PREC); REQUIRE_THAT (humans_point_acceleration, AllCloseVector(point_world_acceleration, TEST_PREC, TEST_PREC));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include "rbdl/rbdl.h" #include "rbdl/rbdl.h"
#include <cassert> #include <cassert>
@ -12,18 +12,17 @@ using namespace RigidBodyDynamics::Math;
const double TEST_PREC = 1.0e-11; const double TEST_PREC = 1.0e-11;
// Reduce an angle to the (-pi, pi] range. // Reduce an angle to the (-pi, pi] range.
// static double inRange(double angle) { static double inRange(double angle) {
// while(angle > M_PI) { while(angle > M_PI) {
// angle -= 2. * M_PI; angle -= 2. * M_PI;
// } }
// while(angle <= -M_PI) { while(angle <= -M_PI) {
// angle += 2. * M_PI; angle += 2. * M_PI;
// } }
// return angle; return angle;
// } }
TEST_CASE (__FILE__"_ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest", "") {
TEST(ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest) {
DoublePerpendicularPendulumAbsoluteCoordinates dba DoublePerpendicularPendulumAbsoluteCoordinates dba
= DoublePerpendicularPendulumAbsoluteCoordinates(); = DoublePerpendicularPendulumAbsoluteCoordinates();
DoublePerpendicularPendulumJointCoordinates dbj DoublePerpendicularPendulumJointCoordinates dbj
@ -162,12 +161,12 @@ TEST(ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest) {
//The constraint errors at the position and velocity level //The constraint errors at the position and velocity level
//must be zero before the accelerations can be tested. //must be zero before the accelerations can be tested.
for(unsigned int i=0; i<err.rows();++i){
CHECK_CLOSE(0,err[i],TEST_PREC); VectorNd target1 = VectorNd::Zero(err.rows());
} REQUIRE_THAT (target1, AllCloseVector(err, TEST_PREC, TEST_PREC));
for(unsigned int i=0; i<errd.rows();++i){
CHECK_CLOSE(0,errd[i],TEST_PREC); VectorNd target2 = VectorNd::Zero(errd.rows());
} REQUIRE_THAT (target2, AllCloseVector(errd, TEST_PREC, TEST_PREC));
//Evaluate the accelerations of the constrained pendulum and //Evaluate the accelerations of the constrained pendulum and
//compare those to the joint-coordinate pendulum //compare those to the joint-coordinate pendulum
@ -187,11 +186,9 @@ TEST(ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest) {
CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd, CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd,
dba.idB2,Vector3d(dba.l2,0.,0.),true); dba.idB2,Vector3d(dba.l2,0.,0.),true);
for(unsigned int i=0; i<6;++i){ REQUIRE_THAT (a010, AllCloseVector(a010c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a010[i],a010c[i],TEST_PREC); REQUIRE_THAT (a020, AllCloseVector(a020c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a020[i],a020c[i],TEST_PREC); REQUIRE_THAT (a030, AllCloseVector(a030c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a030[i],a030c[i],TEST_PREC);
}
ForwardDynamicsConstraintsNullSpace( ForwardDynamicsConstraintsNullSpace(
dba.model,dba.q,dba.qd, dba.model,dba.q,dba.qd,
@ -204,12 +201,9 @@ TEST(ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest) {
a030c = CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd, a030c = CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd,
dba.idB2,Vector3d(dba.l2,0.,0.),true); dba.idB2,Vector3d(dba.l2,0.,0.),true);
for(unsigned int i=0; i<6;++i){ REQUIRE_THAT (a010, AllCloseVector(a010c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a010[i],a010c[i],TEST_PREC); REQUIRE_THAT (a020, AllCloseVector(a020c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a020[i],a020c[i],TEST_PREC); REQUIRE_THAT (a030, AllCloseVector(a030c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a030[i],a030c[i],TEST_PREC);
}
ForwardDynamicsConstraintsRangeSpaceSparse( ForwardDynamicsConstraintsRangeSpaceSparse(
dba.model,dba.q,dba.qd, dba.model,dba.q,dba.qd,
@ -221,11 +215,7 @@ TEST(ForwardDynamicsConstraintsWithExternalForcesCorrectnessTest) {
a030c = CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd, a030c = CalcPointAcceleration6D(dba.model,dba.q,dba.qd,dba.qdd,
dba.idB2,Vector3d(dba.l2,0.,0.),true); dba.idB2,Vector3d(dba.l2,0.,0.),true);
for(unsigned int i=0; i<6;++i){ REQUIRE_THAT (a010, AllCloseVector(a010c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a010[i],a010c[i],TEST_PREC); REQUIRE_THAT (a020, AllCloseVector(a020c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a020[i],a020c[i],TEST_PREC); REQUIRE_THAT (a030, AllCloseVector(a030c, TEST_PREC, TEST_PREC));
CHECK_CLOSE(a030[i],a030c[i],TEST_PREC);
}
} }

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@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -75,7 +75,7 @@ struct ImpulsesFixture {
ConstraintSet constraint_set; ConstraintSet constraint_set;
}; };
TEST_FIXTURE(ImpulsesFixture, TestContactImpulse) { TEST_CASE_METHOD (ImpulsesFixture, __FILE__"_TestContactImpulse", "") {
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 0.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 0.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 0.);
@ -109,10 +109,10 @@ TEST_FIXTURE(ImpulsesFixture, TestContactImpulse) {
} }
// cout << "Point Velocity = " << point_velocity << endl; // cout << "Point Velocity = " << point_velocity << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.).data(), point_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRotated) { TEST_CASE_METHOD (ImpulsesFixture, __FILE__"_TestContactImpulseRotated", "") {
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 0.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 0.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 0.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 0.);
@ -152,10 +152,10 @@ TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRotated) {
} }
// cout << "Point Velocity = " << point_velocity << endl; // cout << "Point Velocity = " << point_velocity << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.).data(), point_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRotatedCollisionVelocity) { TEST_CASE_METHOD (ImpulsesFixture, __FILE__"_TestContactImpulseRotatedCollisionVelocity", "") {
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 1.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (1., 0., 0.), NULL, 1.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 2.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 1., 0.), NULL, 2.);
constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 3.); constraint_set.AddContactConstraint(contact_body_id, contact_point, Vector3d (0., 0., 1.), NULL, 3.);
@ -197,10 +197,10 @@ TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRotatedCollisionVelocity) {
} }
// cout << "Point Velocity = " << point_velocity << endl; // cout << "Point Velocity = " << point_velocity << endl;
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 3.).data(), point_velocity.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 2., 3.), AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRangeSpaceSparse) { TEST_CASE_METHOD (ImpulsesFixture, __FILE__"_TestContactImpulseRangeSpaceSparse", "") {
Q[0] = 0.2; Q[0] = 0.2;
Q[1] = -0.5; Q[1] = -0.5;
Q[2] = 0.1; Q[2] = 0.1;
@ -235,12 +235,11 @@ TEST_FIXTURE(ImpulsesFixture, TestContactImpulseRangeSpaceSparse) {
Vector3d point_velocity_direct = CalcPointVelocity (*model, Q, qdot_post_direct, contact_body_id, contact_point, true); Vector3d point_velocity_direct = CalcPointVelocity (*model, Q, qdot_post_direct, contact_body_id, contact_point, true);
Vector3d point_velocity_rangespace = CalcPointVelocity (*model, Q, qdot_post_rangespace, contact_body_id, contact_point, true); Vector3d point_velocity_rangespace = CalcPointVelocity (*model, Q, qdot_post_rangespace, contact_body_id, contact_point, true);
CHECK_ARRAY_CLOSE (qdot_post_direct.data(), qdot_post_rangespace.data(), qdot_post_direct.rows(), TEST_PREC); REQUIRE_THAT (qdot_post_direct, AllCloseVector(qdot_post_rangespace, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 3.).data(), point_velocity_direct.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 2., 3.), AllCloseVector(point_velocity_rangespace, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 3.).data(), point_velocity_rangespace.data(), 3, TEST_PREC);
} }
TEST_FIXTURE(ImpulsesFixture, TestContactImpulseNullSpace) { TEST_CASE_METHOD (ImpulsesFixture, __FILE__"_TestContactImpulseNullSpace", "") {
Q[0] = 0.2; Q[0] = 0.2;
Q[1] = -0.5; Q[1] = -0.5;
Q[2] = 0.1; Q[2] = 0.1;
@ -275,7 +274,6 @@ TEST_FIXTURE(ImpulsesFixture, TestContactImpulseNullSpace) {
Vector3d point_velocity_direct = CalcPointVelocity (*model, Q, qdot_post_direct, contact_body_id, contact_point, true); Vector3d point_velocity_direct = CalcPointVelocity (*model, Q, qdot_post_direct, contact_body_id, contact_point, true);
Vector3d point_velocity_nullspace = CalcPointVelocity (*model, Q, qdot_post_nullspace, contact_body_id, contact_point, true); Vector3d point_velocity_nullspace = CalcPointVelocity (*model, Q, qdot_post_nullspace, contact_body_id, contact_point, true);
CHECK_ARRAY_CLOSE (qdot_post_direct.data(), qdot_post_nullspace.data(), qdot_post_direct.rows(), TEST_PREC); REQUIRE_THAT (qdot_post_direct, AllCloseVector(qdot_post_nullspace, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 3.).data(), point_velocity_direct.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 2., 3.), AllCloseVector(point_velocity_nullspace, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 3.).data(), point_velocity_nullspace.data(), 3, TEST_PREC);
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -26,7 +26,7 @@ struct InverseDynamicsFixture {
}; };
#ifndef USE_SLOW_SPATIAL_ALGEBRA #ifndef USE_SLOW_SPATIAL_ALGEBRA
TEST_FIXTURE(InverseDynamicsFixture, TestInverseForwardDynamicsFloatingBase) { TEST_CASE_METHOD(InverseDynamicsFixture, __FILE__"_TestInverseForwardDynamicsFloatingBase", "") {
Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.)); Body base_body(1., Vector3d (1., 0., 0.), Vector3d (1., 1., 1.));
model->AddBody (0, SpatialTransform(), model->AddBody (0, SpatialTransform(),
@ -71,6 +71,6 @@ TEST_FIXTURE(InverseDynamicsFixture, TestInverseForwardDynamicsFloatingBase) {
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
InverseDynamics(*model, Q, QDot, QDDot, TauInv); InverseDynamics(*model, Q, QDot, QDDot, TauInv);
CHECK_ARRAY_CLOSE (Tau.data(), TauInv.data(), Tau.size(), TEST_PREC); REQUIRE_THAT (Tau, AllCloseVector(TauInv, TEST_PREC, TEST_PREC));
} }
#endif #endif

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -34,7 +34,7 @@ void print_ik_set (const InverseKinematicsConstraintSet &cs) {
} }
/// Checks whether a single point in a 3-link chain can be reached /// Checks whether a single point in a 3-link chain can be reached
TEST_FIXTURE ( Human36, ChainSinglePointConstraint ) { TEST_CASE_METHOD (Human36, __FILE__"_ChainSinglePointConstraint", "") {
q[HipRightRY] = 0.3; q[HipRightRY] = 0.3;
q[HipRightRX] = 0.3; q[HipRightRX] = 0.3;
q[HipRightRZ] = 0.3; q[HipRightRZ] = 0.3;
@ -59,14 +59,13 @@ TEST_FIXTURE ( Human36, ChainSinglePointConstraint ) {
print_ik_set (cs); print_ik_set (cs);
} }
CHECK (result); REQUIRE (result);
CHECK_CLOSE (0., cs.error_norm, TEST_PREC); REQUIRE_THAT (0., IsClose(cs.error_norm, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, ManyPointConstraints ) { TEST_CASE_METHOD (Human36, __FILE__"_ManyPointConstraints", "") {
randomizeStates(); randomizeStates();
Vector3d local_point1 (1., 0., 0.); Vector3d local_point1 (1., 0., 0.);
@ -95,9 +94,9 @@ TEST_FIXTURE ( Human36, ManyPointConstraints ) {
bool result = InverseKinematics (*model, q, cs, qres); bool result = InverseKinematics (*model, q, cs, qres);
CHECK (result); REQUIRE (result);
CHECK_CLOSE (0., cs.error_norm, TEST_PREC); REQUIRE_THAT (0., IsClose(cs.error_norm, TEST_PREC, TEST_PREC));
UpdateKinematicsCustom (*model, &qres, NULL, NULL); UpdateKinematicsCustom (*model, &qres, NULL, NULL);
Vector3d result_position1 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyFootRight], local_point1); Vector3d result_position1 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyFootRight], local_point1);
@ -106,16 +105,16 @@ TEST_FIXTURE ( Human36, ManyPointConstraints ) {
Vector3d result_position4 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHandLeft], local_point4); Vector3d result_position4 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHandLeft], local_point4);
Vector3d result_position5 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHead], local_point5); Vector3d result_position5 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHead], local_point5);
CHECK_ARRAY_CLOSE (target_position1.data(), result_position1.data(), 3, TEST_PREC); REQUIRE_THAT (target_position1, AllCloseVector(result_position1, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position2.data(), result_position2.data(), 3, TEST_PREC); REQUIRE_THAT (target_position2, AllCloseVector(result_position2, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position3.data(), result_position3.data(), 3, TEST_PREC); REQUIRE_THAT (target_position3, AllCloseVector(result_position3, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position4.data(), result_position4.data(), 3, TEST_PREC); REQUIRE_THAT (target_position4, AllCloseVector(result_position4, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position5.data(), result_position5.data(), 3, TEST_PREC); REQUIRE_THAT (target_position5, AllCloseVector(result_position5, TEST_PREC, TEST_PREC));
} }
/// Checks whether the end of a 3-link chain can aligned with a given /// Checks whether the end of a 3-link chain can aligned with a given
// orientation. // orientation.
TEST_FIXTURE ( Human36, ChainSingleBodyOrientation ) { TEST_CASE_METHOD (Human36, __FILE__"_ChainSingleBodyOrientation", "") {
q[HipRightRY] = 0.3; q[HipRightRY] = 0.3;
q[HipRightRX] = 0.3; q[HipRightRX] = 0.3;
q[HipRightRZ] = 0.3; q[HipRightRZ] = 0.3;
@ -134,11 +133,10 @@ TEST_FIXTURE ( Human36, ChainSingleBodyOrientation ) {
bool result = InverseKinematics (*model, q, cs, qres); bool result = InverseKinematics (*model, q, cs, qres);
CHECK (result); REQUIRE (result);
} }
TEST_FIXTURE ( Human36, ManyBodyOrientations ) { TEST_CASE_METHOD (Human36, __FILE__"_ManyBodyOrientations", "") {
randomizeStates(); randomizeStates();
UpdateKinematicsCustom (*model, &q, NULL, NULL); UpdateKinematicsCustom (*model, &q, NULL, NULL);
@ -161,9 +159,9 @@ TEST_FIXTURE ( Human36, ManyBodyOrientations ) {
bool result = InverseKinematics (*model, q, cs, qres); bool result = InverseKinematics (*model, q, cs, qres);
CHECK (result); REQUIRE (result);
CHECK_CLOSE (0., cs.error_norm, TEST_PREC); REQUIRE_THAT (0., IsClose(cs.error_norm, TEST_PREC, TEST_PREC));
UpdateKinematicsCustom (*model, &qres, NULL, NULL); UpdateKinematicsCustom (*model, &qres, NULL, NULL);
Matrix3d result_orientation1 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyFootRight], false); Matrix3d result_orientation1 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyFootRight], false);
@ -172,14 +170,14 @@ TEST_FIXTURE ( Human36, ManyBodyOrientations ) {
Matrix3d result_orientation4 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyHandLeft], false); Matrix3d result_orientation4 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyHandLeft], false);
Matrix3d result_orientation5 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyHead], false); Matrix3d result_orientation5 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyHead], false);
CHECK_ARRAY_CLOSE (target_orientation1.data(), result_orientation1.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation1, AllCloseMatrix(result_orientation1, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation2.data(), result_orientation2.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation2, AllCloseMatrix(result_orientation2, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation3.data(), result_orientation3.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation3, AllCloseMatrix(result_orientation3, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation4.data(), result_orientation4.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation4, AllCloseMatrix(result_orientation4, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation5.data(), result_orientation5.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation5, AllCloseMatrix(result_orientation5, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, ChainSingleBodyFullConstraint ) { TEST_CASE_METHOD (Human36, __FILE__"_ChainSingleBodyFullConstraint", "") {
q[HipRightRY] = 0.3; q[HipRightRY] = 0.3;
q[HipRightRX] = 0.3; q[HipRightRX] = 0.3;
q[HipRightRZ] = 0.3; q[HipRightRZ] = 0.3;
@ -200,11 +198,10 @@ TEST_FIXTURE ( Human36, ChainSingleBodyFullConstraint ) {
bool result = InverseKinematics (*model, q, cs, qres); bool result = InverseKinematics (*model, q, cs, qres);
CHECK (result); REQUIRE (result);
} }
TEST_FIXTURE ( Human36, ManyBodyFullConstraints ) { TEST_CASE_METHOD ( Human36, __FILE__"_ManyBodyFullConstraints", "") {
randomizeStates(); randomizeStates();
Vector3d local_point1 (1., 0., 0.); Vector3d local_point1 (1., 0., 0.);
@ -241,9 +238,9 @@ TEST_FIXTURE ( Human36, ManyBodyFullConstraints ) {
bool result = InverseKinematics (*model, q, cs, qres); bool result = InverseKinematics (*model, q, cs, qres);
CHECK (result); REQUIRE (result);
CHECK_CLOSE (0., cs.error_norm, cs.step_tol); REQUIRE_THAT (0., IsClose(cs.error_norm, cs.step_tol, cs.step_tol));
UpdateKinematicsCustom (*model, &qres, NULL, NULL); UpdateKinematicsCustom (*model, &qres, NULL, NULL);
Matrix3d result_orientation1 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyFootRight], false); Matrix3d result_orientation1 = CalcBodyWorldOrientation (*model, qres, body_id_emulated[BodyFootRight], false);
@ -258,15 +255,14 @@ TEST_FIXTURE ( Human36, ManyBodyFullConstraints ) {
Vector3d result_position4 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHandLeft], local_point4); Vector3d result_position4 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHandLeft], local_point4);
Vector3d result_position5 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHead], local_point5); Vector3d result_position5 = CalcBodyToBaseCoordinates (*model, qres, body_id_emulated[BodyHead], local_point5);
CHECK_ARRAY_CLOSE (target_position1.data(), result_position1.data(), 3, TEST_PREC); REQUIRE_THAT (target_position1, AllCloseVector(result_position1, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position2.data(), result_position2.data(), 3, TEST_PREC); REQUIRE_THAT (target_position2, AllCloseVector(result_position2, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position3.data(), result_position3.data(), 3, TEST_PREC); REQUIRE_THAT (target_position3, AllCloseVector(result_position3, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position4.data(), result_position4.data(), 3, TEST_PREC); REQUIRE_THAT (target_position4, AllCloseVector(result_position4, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_position5.data(), result_position5.data(), 3, TEST_PREC); REQUIRE_THAT (target_position5, AllCloseVector(result_position5, TEST_PREC, TEST_PREC));
REQUIRE_THAT (target_orientation1, AllCloseMatrix(result_orientation1, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation1.data(), result_orientation1.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation2, AllCloseMatrix(result_orientation2, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation2.data(), result_orientation2.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation3, AllCloseMatrix(result_orientation3, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation3.data(), result_orientation3.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation4, AllCloseMatrix(result_orientation4, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation4.data(), result_orientation4.data(), 9, TEST_PREC); REQUIRE_THAT (target_orientation5, AllCloseMatrix(result_orientation5, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (target_orientation5.data(), result_orientation5.data(), 9, TEST_PREC);
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -145,20 +145,20 @@ struct KinematicsFixture6DoF {
TEST_FIXTURE(KinematicsFixture, TestPositionNeutral) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestPositionNeutral", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
Vector3d body_position; Vector3d body_position;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 1., 0.), CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 1., -1.), CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 1., -1.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
} }
TEST_FIXTURE(KinematicsFixture, TestPositionBaseRotated90Deg) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestPositionBaseRotated90Deg", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
@ -168,13 +168,13 @@ TEST_FIXTURE(KinematicsFixture, TestPositionBaseRotated90Deg) {
Vector3d body_position; Vector3d body_position;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (0., 1., 0.), CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (-1., 1., 0.),CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (-1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (-1., 1., -1.), CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (-1., 1., -1.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
} }
TEST_FIXTURE(KinematicsFixture, TestPositionBaseRotatedNeg45Deg) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestPositionBaseRotatedNeg45Deg", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
@ -184,13 +184,13 @@ TEST_FIXTURE(KinematicsFixture, TestPositionBaseRotatedNeg45Deg) {
Vector3d body_position; Vector3d body_position;
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (0.707106781186547, -0.707106781186547, 0.), CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0.707106781186547, -0.707106781186547, 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (sqrt(2.0), 0., 0.),CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (sqrt(2.0), 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (sqrt(2.0), 0., -1.), CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (sqrt(2.0), 0., -1.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
} }
TEST_FIXTURE(KinematicsFixture, TestPositionBodyBRotated90Deg) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestPositionBodyBRotated90Deg", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
Q[1] = 0.5 * M_PI; Q[1] = 0.5 * M_PI;
@ -198,13 +198,13 @@ TEST_FIXTURE(KinematicsFixture, TestPositionBodyBRotated90Deg) {
Vector3d body_position; Vector3d body_position;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 1., 0.),CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (0., 1., 0.),CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
} }
TEST_FIXTURE(KinematicsFixture, TestPositionBodyBRotatedNeg45Deg) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestPositionBodyBRotatedNeg45Deg", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
Q[1] = -0.25 * M_PI; Q[1] = -0.25 * M_PI;
@ -212,42 +212,30 @@ TEST_FIXTURE(KinematicsFixture, TestPositionBodyBRotatedNeg45Deg) {
Vector3d body_position; Vector3d body_position;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_a_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 0., 0.), CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_b_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1., 1., 0.),CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
CHECK_ARRAY_CLOSE (Vector3d (1 + 0.707106781186547, 1., -0.707106781186547), CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), 3, TEST_PREC ); REQUIRE_THAT (Vector3d (1 + 0.707106781186547, 1., -0.707106781186547), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_d_id, Vector3d (0., 0., 0.), true), TEST_PREC, TEST_PREC ));
} }
TEST_FIXTURE(KinematicsFixture, TestCalcBodyToBaseCoordinates) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestCalcBodyToBaseCoordinates", "") {
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (1., 2., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.)), TEST_PREC, TEST_PREC));
Vector3d (1., 2., 0.),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.)),
3, TEST_PREC
);
} }
TEST_FIXTURE(KinematicsFixture, TestCalcBodyToBaseCoordinatesRotated) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestCalcBodyToBaseCoordinatesRotated", "") {
Q[2] = 0.5 * M_PI; Q[2] = 0.5 * M_PI;
// We call ForwardDynamics() as it updates the spatial transformation // We call ForwardDynamics() as it updates the spatial transformation
// matrices // matrices
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (1., 1., 0.).data(),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false).data(),
3, TEST_PREC
);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (0., 1., 0.).data(),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false).data(),
3, TEST_PREC
);
// Rotate the other way round // Rotate the other way round
Q[2] = -0.5 * M_PI; Q[2] = -0.5 * M_PI;
@ -256,17 +244,9 @@ TEST_FIXTURE(KinematicsFixture, TestCalcBodyToBaseCoordinatesRotated) {
// matrices // matrices
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (1., 1., 0.),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false),
3, TEST_PREC
);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (2., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (2., 1., 0.),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false),
3, TEST_PREC
);
// Rotate around the base // Rotate around the base
Q[0] = 0.5 * M_PI; Q[0] = 0.5 * M_PI;
@ -276,22 +256,14 @@ TEST_FIXTURE(KinematicsFixture, TestCalcBodyToBaseCoordinatesRotated) {
// matrices // matrices
ForwardDynamics(*model, Q, QDot, Tau, QDDot); ForwardDynamics(*model, Q, QDot, Tau, QDDot);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (-1., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (-1., 1., 0.),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 0., 0.), false),
3, TEST_PREC
);
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (Vector3d (-2., 1., 0.), AllCloseVector(CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false), TEST_PREC, TEST_PREC));
Vector3d (-2., 1., 0.),
CalcBodyToBaseCoordinates(*model, Q, body_c_id, Vector3d (0., 1., 0.), false),
3, TEST_PREC
);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
} }
TEST(TestCalcPointJacobian) { TEST_CASE(__FILE__"_TestCalcPointJacobian", "") {
Model model; Model model;
Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.)); Body base_body (1., Vector3d (0., 0., 0.), Vector3d (1., 1., 1.));
@ -335,14 +307,10 @@ TEST(TestCalcPointJacobian) {
point_velocity = G * QDot; point_velocity = G * QDot;
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (point_velocity_ref, AllCloseVector(point_velocity, TEST_PREC, TEST_PREC));
point_velocity_ref.data(),
point_velocity.data(),
3, TEST_PREC
);
} }
TEST_FIXTURE(KinematicsFixture, TestInverseKinematicSimple) { TEST_CASE_METHOD(KinematicsFixture, __FILE__"_TestInverseKinematicSimple", "") {
std::vector<unsigned int> body_ids; std::vector<unsigned int> body_ids;
std::vector<Vector3d> body_points; std::vector<Vector3d> body_points;
std::vector<Vector3d> target_pos; std::vector<Vector3d> target_pos;
@ -364,17 +332,17 @@ TEST_FIXTURE(KinematicsFixture, TestInverseKinematicSimple) {
ClearLogOutput(); ClearLogOutput();
bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres); bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_EQUAL (true, res); REQUIRE (true==res);
UpdateKinematicsCustom (*model, &Qres, NULL, NULL); UpdateKinematicsCustom (*model, &Qres, NULL, NULL);
Vector3d effector; Vector3d effector;
effector = CalcBodyToBaseCoordinates(*model, Qres, body_id, body_point, false); effector = CalcBodyToBaseCoordinates(*model, Qres, body_id, body_point, false);
CHECK_ARRAY_CLOSE (target.data(), effector.data(), 3, TEST_PREC); REQUIRE_THAT (target, AllCloseVector(effector, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(KinematicsFixture6DoF, TestInverseKinematicUnreachable) { TEST_CASE_METHOD(KinematicsFixture6DoF, __FILE__"_TestInverseKinematicUnreachable", "") {
std::vector<unsigned int> body_ids; std::vector<unsigned int> body_ids;
std::vector<Vector3d> body_points; std::vector<Vector3d> body_points;
std::vector<Vector3d> target_pos; std::vector<Vector3d> target_pos;
@ -396,17 +364,17 @@ TEST_FIXTURE(KinematicsFixture6DoF, TestInverseKinematicUnreachable) {
ClearLogOutput(); ClearLogOutput();
bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres, 1.0e-8, 0.9, 1000); bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres, 1.0e-8, 0.9, 1000);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_EQUAL (true, res); REQUIRE (true==res);
UpdateKinematicsCustom (*model, &Qres, NULL, NULL); UpdateKinematicsCustom (*model, &Qres, NULL, NULL);
Vector3d effector; Vector3d effector;
effector = CalcBodyToBaseCoordinates(*model, Qres, body_id, body_point, false); effector = CalcBodyToBaseCoordinates(*model, Qres, body_id, body_point, false);
CHECK_ARRAY_CLOSE (Vector3d (2.0, 0., 0.).data(), effector.data(), 3, 1.0e-7); REQUIRE_THAT (Vector3d (2.0, 0., 0.), AllCloseVector(effector, 1.0e-7, 1.0e-7));
} }
TEST_FIXTURE(KinematicsFixture6DoF, TestInverseKinematicTwoPoints) { TEST_CASE_METHOD(KinematicsFixture6DoF, __FILE__"_TestInverseKinematicTwoPoints", "") {
std::vector<unsigned int> body_ids; std::vector<unsigned int> body_ids;
std::vector<Vector3d> body_points; std::vector<Vector3d> body_points;
std::vector<Vector3d> target_pos; std::vector<Vector3d> target_pos;
@ -431,7 +399,7 @@ TEST_FIXTURE(KinematicsFixture6DoF, TestInverseKinematicTwoPoints) {
ClearLogOutput(); ClearLogOutput();
bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres, 1.0e-3, 0.9, 200); bool res = InverseKinematics (*model, Q, body_ids, body_points, target_pos, Qres, 1.0e-3, 0.9, 200);
CHECK_EQUAL (true, res); REQUIRE (true==res);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
UpdateKinematicsCustom (*model, &Qres, NULL, NULL); UpdateKinematicsCustom (*model, &Qres, NULL, NULL);
@ -440,13 +408,13 @@ TEST_FIXTURE(KinematicsFixture6DoF, TestInverseKinematicTwoPoints) {
// testing with very low precision // testing with very low precision
effector = CalcBodyToBaseCoordinates(*model, Qres, body_ids[0], body_points[0], false); effector = CalcBodyToBaseCoordinates(*model, Qres, body_ids[0], body_points[0], false);
CHECK_ARRAY_CLOSE (target_pos[0].data(), effector.data(), 3, 1.0e-1); REQUIRE_THAT (target_pos[0], AllCloseVector(effector, 1.0e-1, 1.0e-1));
effector = CalcBodyToBaseCoordinates(*model, Qres, body_ids[1], body_points[1], false); effector = CalcBodyToBaseCoordinates(*model, Qres, body_ids[1], body_points[1], false);
CHECK_ARRAY_CLOSE (target_pos[1].data(), effector.data(), 3, 1.0e-1); REQUIRE_THAT (target_pos[1], AllCloseVector(effector, 1.0e-1, 1.0e-1));
} }
TEST ( FixedJointBodyCalcBodyToBase ) { TEST_CASE (__FILE__"_FixedJointBodyCalcBodyToBase", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -461,10 +429,10 @@ TEST ( FixedJointBodyCalcBodyToBase ) {
VectorNd Q_zero = VectorNd::Zero (model.dof_count); VectorNd Q_zero = VectorNd::Zero (model.dof_count);
Vector3d base_coords = CalcBodyToBaseCoordinates (model, Q_zero, fixed_body_id, Vector3d (1., 1., 0.1)); Vector3d base_coords = CalcBodyToBaseCoordinates (model, Q_zero, fixed_body_id, Vector3d (1., 1., 0.1));
CHECK_ARRAY_CLOSE (Vector3d (1., 2., 0.1).data(), base_coords.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 2., 0.1), AllCloseVector(base_coords, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointBodyCalcBodyToBaseRotated ) { TEST_CASE (__FILE__"_FixedJointBodyCalcBodyToBaseRotated", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -483,10 +451,10 @@ TEST ( FixedJointBodyCalcBodyToBaseRotated ) {
Vector3d base_coords = CalcBodyToBaseCoordinates (model, Q, fixed_body_id, Vector3d (1., 0., 0.)); Vector3d base_coords = CalcBodyToBaseCoordinates (model, Q, fixed_body_id, Vector3d (1., 0., 0.));
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 2., 0.).data(), base_coords.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 2., 0.), AllCloseVector(base_coords, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointBodyCalcBaseToBody ) { TEST_CASE (__FILE__"_FixedJointBodyCalcBaseToBody", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -501,10 +469,10 @@ TEST ( FixedJointBodyCalcBaseToBody ) {
VectorNd Q_zero = VectorNd::Zero (model.dof_count); VectorNd Q_zero = VectorNd::Zero (model.dof_count);
Vector3d base_coords = CalcBaseToBodyCoordinates (model, Q_zero, fixed_body_id, Vector3d (1., 2., 0.1)); Vector3d base_coords = CalcBaseToBodyCoordinates (model, Q_zero, fixed_body_id, Vector3d (1., 2., 0.1));
CHECK_ARRAY_CLOSE (Vector3d (1., 1., 0.1).data(), base_coords.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 1., 0.1), AllCloseVector(base_coords, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointBodyCalcBaseToBodyRotated ) { TEST_CASE (__FILE__"_FixedJointBodyCalcBaseToBodyRotated", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -523,10 +491,10 @@ TEST ( FixedJointBodyCalcBaseToBodyRotated ) {
Vector3d base_coords = CalcBaseToBodyCoordinates (model, Q, fixed_body_id, Vector3d (0., 2., 0.)); Vector3d base_coords = CalcBaseToBodyCoordinates (model, Q, fixed_body_id, Vector3d (0., 2., 0.));
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
CHECK_ARRAY_CLOSE (Vector3d (1., 0., 0.).data(), base_coords.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(base_coords, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointBodyWorldOrientation ) { TEST_CASE (__FILE__"_FixedJointBodyWorldOrientation", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -545,10 +513,10 @@ TEST ( FixedJointBodyWorldOrientation ) {
Matrix3d reference = transform.E; Matrix3d reference = transform.E;
CHECK_ARRAY_CLOSE (reference.data(), orientation.data(), 9, TEST_PREC); REQUIRE_THAT (reference, AllCloseMatrix(orientation, TEST_PREC, TEST_PREC));
} }
TEST ( FixedJointCalcPointJacobian ) { TEST_CASE (__FILE__"_FixedJointCalcPointJacobian", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -575,10 +543,10 @@ TEST ( FixedJointCalcPointJacobian ) {
Vector3d point_velocity_jacobian = G * QDot; Vector3d point_velocity_jacobian = G * QDot;
Vector3d point_velocity_reference = CalcPointVelocity (model, Q, QDot, fixed_body_id, point_position); Vector3d point_velocity_reference = CalcPointVelocity (model, Q, QDot, fixed_body_id, point_position);
CHECK_ARRAY_CLOSE (point_velocity_reference.data(), point_velocity_jacobian.data(), 3, TEST_PREC); REQUIRE_THAT (point_velocity_reference, AllCloseVector(point_velocity_jacobian, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, SpatialJacobianSimple ) { TEST_CASE_METHOD (Human36, __FILE__"_SpatialJacobianSimple", "") {
randomizeStates(); randomizeStates();
unsigned int foot_r_id = model->GetBodyId ("foot_r"); unsigned int foot_r_id = model->GetBodyId ("foot_r");
@ -589,10 +557,10 @@ TEST_FIXTURE ( Human36, SpatialJacobianSimple ) {
UpdateKinematicsCustom (*model, &q, &qdot, NULL); UpdateKinematicsCustom (*model, &q, &qdot, NULL);
SpatialVector v_body = SpatialVector(G * qdot); SpatialVector v_body = SpatialVector(G * qdot);
CHECK_ARRAY_CLOSE (model->v[foot_r_id].data(), v_body.data(), 6, TEST_PREC); REQUIRE_THAT (model->v[foot_r_id], AllCloseVector(v_body, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, SpatialJacobianFixedBody ) { TEST_CASE_METHOD (Human36, __FILE__"_SpatialJacobianFixedBody", "") {
randomizeStates(); randomizeStates();
unsigned int uppertrunk_id = model->GetBodyId ("uppertrunk"); unsigned int uppertrunk_id = model->GetBodyId ("uppertrunk");
@ -608,10 +576,10 @@ TEST_FIXTURE ( Human36, SpatialJacobianFixedBody ) {
SpatialVector v_fixed_body = model->mFixedBodies[fixed_body_id].mParentTransform.apply (model->v[movable_parent]); SpatialVector v_fixed_body = model->mFixedBodies[fixed_body_id].mParentTransform.apply (model->v[movable_parent]);
CHECK_ARRAY_CLOSE (v_fixed_body.data(), v_body.data(), 6, TEST_PREC); REQUIRE_THAT (v_fixed_body, AllCloseVector(v_body, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, CalcPointJacobian6D ) { TEST_CASE_METHOD (Human36, __FILE__"_CalcPointJacobian6D", "") {
randomizeStates(); randomizeStates();
unsigned int foot_r_id = model->GetBodyId ("foot_r"); unsigned int foot_r_id = model->GetBodyId ("foot_r");
@ -629,10 +597,10 @@ TEST_FIXTURE ( Human36, CalcPointJacobian6D ) {
UpdateKinematicsCustom (*model, &q, &qdot, NULL); UpdateKinematicsCustom (*model, &q, &qdot, NULL);
SpatialVector v_foot_0_ref = X_foot.apply(model->X_base[foot_r_id].inverse().apply(model->v[foot_r_id])); SpatialVector v_foot_0_ref = X_foot.apply(model->X_base[foot_r_id].inverse().apply(model->v[foot_r_id]));
CHECK_ARRAY_CLOSE (v_foot_0_ref.data(), v_foot_0_jac.data(), 6, TEST_PREC); REQUIRE_THAT (v_foot_0_ref, AllCloseVector(v_foot_0_jac, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, CalcPointVelocity6D ) { TEST_CASE_METHOD (Human36, __FILE__"_CalcPointVelocity6D", "") {
randomizeStates(); randomizeStates();
unsigned int foot_r_id = model->GetBodyId ("foot_r"); unsigned int foot_r_id = model->GetBodyId ("foot_r");
@ -648,10 +616,10 @@ TEST_FIXTURE ( Human36, CalcPointVelocity6D ) {
UpdateKinematicsCustom (*model, &q, &qdot, NULL); UpdateKinematicsCustom (*model, &q, &qdot, NULL);
SpatialVector v_foot_0_ref = X_foot.apply(model->X_base[foot_r_id].inverse().apply(model->v[foot_r_id])); SpatialVector v_foot_0_ref = X_foot.apply(model->X_base[foot_r_id].inverse().apply(model->v[foot_r_id]));
CHECK_ARRAY_CLOSE (v_foot_0_ref.data(), v_foot_0.data(), 6, TEST_PREC); REQUIRE_THAT (v_foot_0_ref, AllCloseVector(v_foot_0, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, CalcPointAcceleration6D ) { TEST_CASE_METHOD (Human36, __FILE__"_CalcPointAcceleration6D", "") {
randomizeStates(); randomizeStates();
unsigned int foot_r_id = model->GetBodyId ("foot_r"); unsigned int foot_r_id = model->GetBodyId ("foot_r");
@ -676,5 +644,5 @@ TEST_FIXTURE ( Human36, CalcPointAcceleration6D ) {
) )
); );
CHECK_ARRAY_CLOSE (a_foot_0_ref.data(), a_foot_0.data(), 6, TEST_PREC); REQUIRE_THAT (a_foot_0_ref, AllCloseVector(a_foot_0, TEST_PREC, TEST_PREC));
} }

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@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include "rbdl/Logging.h" #include "rbdl/Logging.h"
#include "rbdl/rbdl_math.h" #include "rbdl/rbdl_math.h"
@ -10,10 +10,12 @@ const double TEST_PREC = 1.0e-14;
using namespace std; using namespace std;
using namespace RigidBodyDynamics::Math; using namespace RigidBodyDynamics::Math;
using namespace Catch::Matchers::Floating;
struct MathFixture { struct MathFixture {
}; };
TEST (GaussElimPivot) { TEST_CASE(__FILE__"_GaussElimPivot", "") {
ClearLogOutput(); ClearLogOutput();
MatrixNd A; MatrixNd A;
@ -37,7 +39,7 @@ TEST (GaussElimPivot) {
LinSolveGaussElimPivot (A, b, x); LinSolveGaussElimPivot (A, b, x);
CHECK_ARRAY_CLOSE (test_result.data(), x.data(), 3, TEST_PREC); REQUIRE_THAT (test_result, AllCloseVector(x));
A(0,0) = 0; A(0,1) = -2; A(0,2) = 1; A(0,0) = 0; A(0,1) = -2; A(0,2) = 1;
A(1,0) = 1; A(1,1) = 1; A(1,2) = 5; A(1,0) = 1; A(1,1) = 1; A(1,2) = 5;
@ -48,62 +50,30 @@ TEST (GaussElimPivot) {
test_result[1] = 1; test_result[1] = 1;
test_result[2] = 3; test_result[2] = 3;
CHECK_ARRAY_CLOSE (test_result.data(), x.data(), 3, TEST_PREC); x[0] += 1.0e-13;
REQUIRE_THAT (test_result, AllCloseVector(x));
} }
TEST (Dynamic_1D_initialize_value) { TEST_CASE(__FILE__"_QuaternionSlerpNegativeCosHalfTheta", "") {
VectorNd myvector_10 = VectorNd::Constant ((size_t) 10, 12.); ClearLogOutput();
double *test_values = new double[10]; Quaternion q1 (-0.518934,0.561432,-0.074923,0.640225);
for (unsigned int i = 0; i < 10; i++) Quaternion q2 (0.54702,-0.564195,0.078871,-0.613379);
test_values[i] = 12.;
CHECK_ARRAY_EQUAL (test_values, myvector_10.data(), 10); Quaternion s = q1.slerp (0.2021, q2);
delete[] test_values; Quaternion q_ref (0.0068865, 0.406762, -0.000610507, 0.913655);
REQUIRE_THAT (s, AllCloseVector(q_ref));
} }
TEST (Dynamic_2D_initialize_value) { TEST_CASE(__FILE__"_QuaternionFromMatrixSingularity", "") {
MatrixNd mymatrix_10x10 = MatrixNd::Constant (10, 10, 12.); ClearLogOutput();
Matrix3d m;
m << -1., 0, 0, 0, 1, 0, 0, 0, -1;
double *test_values = new double[10 * 10]; Quaternion q = Quaternion::fromMatrix(m);
for (unsigned int i = 0; i < 10; i++) Quaternion q_ref (0., 1., 0., 0.);
for (unsigned int j = 0; j < 10; j++)
test_values[i*10 + j] = 12.;
CHECK_ARRAY_EQUAL (test_values, mymatrix_10x10.data(), 10*10); REQUIRE_THAT (q, AllCloseVector(q_ref));
delete[] test_values;
}
TEST (SpatialMatrix_Multiplication) {
SpatialMatrix X_1 (
1., 2., 3., 4., 5., 6.,
11., 12., 13., 14., 15., 16.,
21., 22., 23., 24., 25., 26.,
31., 32., 33., 34., 35., 36.,
41., 42., 43., 44., 45., 46.,
51., 52., 53., 54., 55., 56.
);
SpatialMatrix X_2 (X_1);
X_2 *= 2.;
SpatialMatrix correct_result (
1442, 1484, 1526, 1568, 1610, 1652,
4562, 4724, 4886, 5048, 5210, 5372,
7682, 7964, 8246, 8528, 8810, 9092,
10802, 11204, 11606, 12008, 12410, 12812,
13922, 14444, 14966, 15488, 16010, 16532,
17042, 17684, 18326, 18968, 19610, 20252
);
SpatialMatrix test_result = X_1 * X_2;
CHECK_ARRAY_CLOSE (correct_result.data(), test_result.data(), 6 * 6, TEST_PREC);
// check the *= operator:
test_result = X_1;
test_result *= X_2;
CHECK_ARRAY_CLOSE (correct_result.data(), test_result.data(), 6 * 6, TEST_PREC);
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -28,117 +28,117 @@ struct ModelFixture {
Model *model; Model *model;
}; };
TEST_FIXTURE(ModelFixture, TestInit) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestInit", "") {
CHECK_EQUAL (1u, model->lambda.size()); REQUIRE (1u == model->lambda.size());
CHECK_EQUAL (1u, model->mu.size()); REQUIRE (1u == model->mu.size());
CHECK_EQUAL (0u, model->dof_count); REQUIRE (0u == model->dof_count);
CHECK_EQUAL (0u, model->q_size); REQUIRE (0u == model->q_size);
CHECK_EQUAL (0u, model->qdot_size); REQUIRE (0u == model->qdot_size);
CHECK_EQUAL (1u, model->v.size()); REQUIRE (1u == model->v.size());
CHECK_EQUAL (1u, model->a.size()); REQUIRE (1u == model->a.size());
CHECK_EQUAL (1u, model->mJoints.size()); REQUIRE (1u == model->mJoints.size());
CHECK_EQUAL (1u, model->S.size()); REQUIRE (1u == model->S.size());
CHECK_EQUAL (1u, model->c.size()); REQUIRE (1u == model->c.size());
CHECK_EQUAL (1u, model->IA.size()); REQUIRE (1u == model->IA.size());
CHECK_EQUAL (1u, model->pA.size()); REQUIRE (1u == model->pA.size());
CHECK_EQUAL (1u, model->U.size()); REQUIRE (1u == model->U.size());
CHECK_EQUAL (1u, model->d.size()); REQUIRE (1u == model->d.size());
CHECK_EQUAL (1u, model->u.size()); REQUIRE (1u == model->u.size());
CHECK_EQUAL (1u, model->Ic.size()); REQUIRE (1u == model->Ic.size());
CHECK_EQUAL (1u, model->I.size()); REQUIRE (1u == model->I.size());
CHECK_EQUAL (1u, model->X_lambda.size()); REQUIRE (1u == model->X_lambda.size());
CHECK_EQUAL (1u, model->X_base.size()); REQUIRE (1u == model->X_base.size());
CHECK_EQUAL (1u, model->mBodies.size()); REQUIRE (1u == model->mBodies.size());
} }
TEST_FIXTURE(ModelFixture, TestAddBodyDimensions) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestAddBodyDimensions", "") {
Body body; Body body;
Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.));
unsigned int body_id = 0; unsigned int body_id = 0;
body_id = model->AddBody(0, Xtrans(Vector3d(0., 0., 0.)), joint, body); body_id = model->AddBody(0, Xtrans(Vector3d(0., 0., 0.)), joint, body);
CHECK_EQUAL (1u, body_id); REQUIRE (1u == body_id);
CHECK_EQUAL (2u, model->lambda.size()); REQUIRE (2u == model->lambda.size());
CHECK_EQUAL (2u, model->mu.size()); REQUIRE (2u == model->mu.size());
CHECK_EQUAL (1u, model->dof_count); REQUIRE (1u == model->dof_count);
CHECK_EQUAL (2u, model->v.size()); REQUIRE (2u == model->v.size());
CHECK_EQUAL (2u, model->a.size()); REQUIRE (2u == model->a.size());
CHECK_EQUAL (2u, model->mJoints.size()); REQUIRE (2u == model->mJoints.size());
CHECK_EQUAL (2u, model->S.size()); REQUIRE (2u == model->S.size());
CHECK_EQUAL (2u, model->c.size()); REQUIRE (2u == model->c.size());
CHECK_EQUAL (2u, model->IA.size()); REQUIRE (2u == model->IA.size());
CHECK_EQUAL (2u, model->pA.size()); REQUIRE (2u == model->pA.size());
CHECK_EQUAL (2u, model->U.size()); REQUIRE (2u == model->U.size());
CHECK_EQUAL (2u, model->d.size()); REQUIRE (2u == model->d.size());
CHECK_EQUAL (2u, model->u.size()); REQUIRE (2u == model->u.size());
CHECK_EQUAL (2u, model->Ic.size()); REQUIRE (2u == model->Ic.size());
CHECK_EQUAL (2u, model->I.size()); REQUIRE (2u == model->I.size());
SpatialVector spatial_zero; SpatialVector spatial_zero;
spatial_zero.setZero(); spatial_zero.setZero();
CHECK_EQUAL (2u, model->X_lambda.size()); REQUIRE (2u == model->X_lambda.size());
CHECK_EQUAL (2u, model->X_base.size()); REQUIRE (2u == model->X_base.size());
CHECK_EQUAL (2u, model->mBodies.size()); REQUIRE (2u == model->mBodies.size());
} }
TEST_FIXTURE(ModelFixture, TestFloatingBodyDimensions) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestFloatingBodyDimensions", "") {
Body body; Body body;
Joint float_base_joint (JointTypeFloatingBase); Joint float_base_joint (JointTypeFloatingBase);
model->AppendBody (SpatialTransform(), float_base_joint, body); model->AppendBody (SpatialTransform(), float_base_joint, body);
CHECK_EQUAL (3u, model->lambda.size()); REQUIRE (3u == model->lambda.size());
CHECK_EQUAL (3u, model->mu.size()); REQUIRE (3u == model->mu.size());
CHECK_EQUAL (6u, model->dof_count); REQUIRE (6u == model->dof_count);
CHECK_EQUAL (7u, model->q_size); REQUIRE (7u == model->q_size);
CHECK_EQUAL (6u, model->qdot_size); REQUIRE (6u == model->qdot_size);
CHECK_EQUAL (3u, model->v.size()); REQUIRE (3u == model->v.size());
CHECK_EQUAL (3u, model->a.size()); REQUIRE (3u == model->a.size());
CHECK_EQUAL (3u, model->mJoints.size()); REQUIRE (3u == model->mJoints.size());
CHECK_EQUAL (3u, model->S.size()); REQUIRE (3u == model->S.size());
CHECK_EQUAL (3u, model->c.size()); REQUIRE (3u == model->c.size());
CHECK_EQUAL (3u, model->IA.size()); REQUIRE (3u == model->IA.size());
CHECK_EQUAL (3u, model->pA.size()); REQUIRE (3u == model->pA.size());
CHECK_EQUAL (3u, model->U.size()); REQUIRE (3u == model->U.size());
CHECK_EQUAL (3u, model->d.size()); REQUIRE (3u == model->d.size());
CHECK_EQUAL (3u, model->u.size()); REQUIRE (3u == model->u.size());
SpatialVector spatial_zero; SpatialVector spatial_zero;
spatial_zero.setZero(); spatial_zero.setZero();
CHECK_EQUAL (3u, model->X_lambda.size()); REQUIRE (3u == model->X_lambda.size());
CHECK_EQUAL (3u, model->X_base.size()); REQUIRE (3u == model->X_base.size());
CHECK_EQUAL (3u, model->mBodies.size()); REQUIRE (3u == model->mBodies.size());
} }
/** \brief Tests whether the joint and body information stored in the Model are computed correctly /** \brief Tests whether the joint and body information stored in the Model are computed correctly
*/ */
TEST_FIXTURE(ModelFixture, TestAddBodySpatialValues) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestAddBodySpatialValues", "") {
Body body; Body body;
Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.));
model->AddBody(0, Xtrans(Vector3d(0., 0., 0.)), joint, body); model->AddBody(0, Xtrans(Vector3d(0., 0., 0.)), joint, body);
SpatialVector spatial_joint_axis(0., 0., 1., 0., 0., 0.); SpatialVector spatial_joint_axis(0., 0., 1., 0., 0., 0.);
CHECK_EQUAL (spatial_joint_axis, joint.mJointAxes[0]); REQUIRE (spatial_joint_axis == joint.mJointAxes[0]);
// \Todo: Dynamic properties // \Todo: Dynamic properties
} }
TEST_FIXTURE(ModelFixture, TestAddBodyTestBodyName) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestAddBodyTestBodyName", "") {
Body body; Body body;
Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -146,11 +146,11 @@ TEST_FIXTURE(ModelFixture, TestAddBodyTestBodyName) {
unsigned int body_id = model->GetBodyId("mybody"); unsigned int body_id = model->GetBodyId("mybody");
CHECK_EQUAL (1u, body_id); REQUIRE (1u == body_id);
CHECK_EQUAL (std::numeric_limits<unsigned int>::max(), model->GetBodyId("unknownbody")); REQUIRE (std::numeric_limits<unsigned int>::max() == model->GetBodyId("unknownbody"));
} }
TEST_FIXTURE(ModelFixture, TestjcalcSimple) { TEST_CASE_METHOD(ModelFixture, __FILE__"_TestjcalcSimple", "") {
Body body; Body body;
Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.)); Joint joint ( SpatialVector (0., 0., 1., 0., 0., 0.));
@ -177,8 +177,8 @@ TEST_FIXTURE(ModelFixture, TestjcalcSimple) {
0., 0., 1., 0., 0., 0. 0., 0., 1., 0., 0., 0.
); );
CHECK (SpatialVectorCompareEpsilon (test_vector, model->v_J[1], 1.0e-16)); REQUIRE_THAT (test_vector, AllCloseVector(model->v_J[1], 1.0e-16, 1.0e-16));
CHECK_EQUAL (test_joint_axis, model->S[1]); REQUIRE (test_joint_axis == model->S[1]);
Q[0] = M_PI * 0.5; Q[0] = M_PI * 0.5;
QDot[0] = 1.; QDot[0] = 1.;
@ -193,11 +193,11 @@ TEST_FIXTURE(ModelFixture, TestjcalcSimple) {
0., 0., 0., -1., 0., 0., 0., 0., 0., -1., 0., 0.,
0., 0., 0., 0., 0., 1.; 0., 0., 0., 0., 0., 1.;
CHECK (SpatialVectorCompareEpsilon (test_vector, model->v_J[1], 1.0e-16)); REQUIRE_THAT (test_vector, AllCloseVector(model->v_J[1], 1.0e-16, 1.0e-16));
CHECK_EQUAL (test_joint_axis, model->S[1]); REQUIRE (test_joint_axis == model->S[1]);
} }
TEST_FIXTURE ( ModelFixture, TestTransformBaseToLocal ) { TEST_CASE_METHOD (ModelFixture, __FILE__"_TestTransformBaseToLocal", "") {
Body body; Body body;
unsigned int body_id = model->AddBody (0, SpatialTransform(), unsigned int body_id = model->AddBody (0, SpatialTransform(),
@ -224,7 +224,7 @@ TEST_FIXTURE ( ModelFixture, TestTransformBaseToLocal ) {
body_coords = CalcBaseToBodyCoordinates (*model, q, body_id, base_coords, false); body_coords = CalcBaseToBodyCoordinates (*model, q, body_id, base_coords, false);
base_coords_back = CalcBodyToBaseCoordinates (*model, q, body_id, body_coords, false); base_coords_back = CalcBodyToBaseCoordinates (*model, q, body_id, body_coords, false);
CHECK_ARRAY_CLOSE (base_coords.data(), base_coords_back.data(), 3, TEST_PREC); REQUIRE_THAT (base_coords, AllCloseVector(base_coords_back, TEST_PREC, TEST_PREC));
q[0] = 1.; q[0] = 1.;
q[1] = 0.2; q[1] = 0.2;
@ -237,10 +237,10 @@ TEST_FIXTURE ( ModelFixture, TestTransformBaseToLocal ) {
body_coords = CalcBaseToBodyCoordinates (*model, q, body_id, base_coords, false); body_coords = CalcBaseToBodyCoordinates (*model, q, body_id, base_coords, false);
base_coords_back = CalcBodyToBaseCoordinates (*model, q, body_id, body_coords, false); base_coords_back = CalcBodyToBaseCoordinates (*model, q, body_id, body_coords, false);
CHECK_ARRAY_CLOSE (base_coords.data(), base_coords_back.data(), 3, TEST_PREC); REQUIRE_THAT (base_coords, AllCloseVector(base_coords_back, TEST_PREC, TEST_PREC));
} }
TEST ( Model2DoFJoint ) { TEST_CASE (__FILE__"_Model2DoFJoint", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -274,10 +274,10 @@ TEST ( Model2DoFJoint ) {
ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std); ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std);
ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2); ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2);
CHECK_ARRAY_CLOSE (QDDot_std.data(), QDDot_2.data(), model_std.dof_count, TEST_PREC); REQUIRE_THAT (QDDot_std, AllCloseVector(QDDot_2, TEST_PREC, TEST_PREC));
} }
TEST ( Model3DoFJoint ) { TEST_CASE (__FILE__"_Model3DoFJoint", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -326,10 +326,10 @@ TEST ( Model3DoFJoint ) {
ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std); ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std);
ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2); ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2);
CHECK_ARRAY_CLOSE (QDDot_std.data(), QDDot_2.data(), model_std.dof_count, TEST_PREC); REQUIRE_THAT (QDDot_std, AllCloseVector(QDDot_2, TEST_PREC, TEST_PREC));
} }
TEST ( Model6DoFJoint ) { TEST_CASE (__FILE__"_Model6DoFJoint", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -379,15 +379,15 @@ TEST ( Model6DoFJoint ) {
VectorNd QDDot_2 = VectorNd::Zero(model_std.dof_count); VectorNd QDDot_2 = VectorNd::Zero(model_std.dof_count);
VectorNd QDDot_std = VectorNd::Zero(model_std.dof_count); VectorNd QDDot_std = VectorNd::Zero(model_std.dof_count);
assert (model_std.q_size == model_2.q_size); REQUIRE (model_std.q_size == model_2.q_size);
ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std); ForwardDynamics (model_std, Q, QDot, Tau, QDDot_std);
ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2); ForwardDynamics (model_2, Q, QDot, Tau, QDDot_2);
CHECK_ARRAY_CLOSE (QDDot_std.data(), QDDot_2.data(), model_std.dof_count, TEST_PREC); REQUIRE_THAT (QDDot_std, AllCloseVector(QDDot_2, TEST_PREC, TEST_PREC));
} }
TEST ( ModelFixedJointQueryBodyId ) { TEST_CASE (__FILE__"_ModelFixedJointQueryBodyId", "" ) {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -400,7 +400,7 @@ TEST ( ModelFixedJointQueryBodyId ) {
model.AddBody (0, Xtrans(Vector3d(0., 0., 0.)), joint_rot_z, body); model.AddBody (0, Xtrans(Vector3d(0., 0., 0.)), joint_rot_z, body);
unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body"); unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body");
CHECK_EQUAL (fixed_body_id, model.GetBodyId("fixed_body")); REQUIRE (fixed_body_id == model.GetBodyId("fixed_body"));
} }
/* /*
@ -408,7 +408,7 @@ TEST ( ModelFixedJointQueryBodyId ) {
* newly added parent is actually the moving body that the fixed body is * newly added parent is actually the moving body that the fixed body is
* attached to. * attached to.
*/ */
TEST ( ModelAppendToFixedBody ) { TEST_CASE (__FILE__"_ModelAppendToFixedBody", "") {
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -421,12 +421,12 @@ TEST ( ModelAppendToFixedBody ) {
// unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body"); // unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body");
unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body"); unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body");
CHECK_EQUAL (movable_body + 1, appended_body_id); REQUIRE (movable_body + 1 == appended_body_id);
CHECK_EQUAL (movable_body, model.lambda[appended_body_id]); REQUIRE (movable_body == model.lambda[appended_body_id]);
} }
// Adds a fixed body to another fixed body. // Adds a fixed body to another fixed body.
TEST ( ModelAppendFixedToFixedBody ) { TEST_CASE (__FILE__"_ModelAppendFixedToFixedBody", "") {
Body null_body; Body null_body;
double movable_mass = 1.1; double movable_mass = 1.1;
@ -449,22 +449,22 @@ TEST ( ModelAppendFixedToFixedBody ) {
unsigned int fixed_body_2_id = model.AppendBody (Xtrans(fixed_displacement), Joint(JointTypeFixed), fixed_body, "fixed_body_2"); unsigned int fixed_body_2_id = model.AppendBody (Xtrans(fixed_displacement), Joint(JointTypeFixed), fixed_body, "fixed_body_2");
unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body"); unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body");
CHECK_EQUAL (movable_body + 1, appended_body_id); REQUIRE (movable_body + 1 == appended_body_id);
CHECK_EQUAL (movable_body, model.lambda[appended_body_id]); REQUIRE (movable_body == model.lambda[appended_body_id]);
CHECK_EQUAL (movable_mass + fixed_mass * 2., model.mBodies[movable_body].mMass); REQUIRE (movable_mass + fixed_mass * 2. == model.mBodies[movable_body].mMass);
CHECK_EQUAL (movable_body, model.mFixedBodies[fixed_body_id - model.fixed_body_discriminator].mMovableParent); REQUIRE (movable_body == model.mFixedBodies[fixed_body_id - model.fixed_body_discriminator].mMovableParent);
CHECK_EQUAL (movable_body, model.mFixedBodies[fixed_body_2_id - model.fixed_body_discriminator].mMovableParent); REQUIRE (movable_body == model.mFixedBodies[fixed_body_2_id - model.fixed_body_discriminator].mMovableParent);
double new_mass = 3.5; double new_mass = 3.5;
Vector3d new_com = (1. / new_mass) * (movable_mass * movable_com + fixed_mass * (fixed_com + fixed_displacement) + fixed_mass * (fixed_com + fixed_displacement * 2.)); Vector3d new_com = (1. / new_mass) * (movable_mass * movable_com + fixed_mass * (fixed_com + fixed_displacement) + fixed_mass * (fixed_com + fixed_displacement * 2.));
CHECK_ARRAY_CLOSE (new_com.data(), model.mBodies[movable_body].mCenterOfMass.data(), 3, TEST_PREC); REQUIRE_THAT (new_com, AllCloseVector(model.mBodies[movable_body].mCenterOfMass, TEST_PREC, TEST_PREC));
} }
// Ensures that the transformations of the movable parent and fixed joint // Ensures that the transformations of the movable parent and fixed joint
// frame is in proper order // frame is in proper order
TEST ( ModelFixedJointRotationOrderTranslationRotation ) { TEST_CASE (__FILE__"_ModelFixedJointRotationOrderTranslationRotation", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -485,12 +485,12 @@ TEST ( ModelFixedJointRotationOrderTranslationRotation ) {
Q[0] = 45 * M_PI / 180.; Q[0] = 45 * M_PI / 180.;
Vector3d point = CalcBodyToBaseCoordinates (model, Q, body_after_fixed, Vector3d (0., 1., 0.)); Vector3d point = CalcBodyToBaseCoordinates (model, Q, body_after_fixed, Vector3d (0., 1., 0.));
CHECK_ARRAY_CLOSE (Vector3d (0., 1., 0.).data(), point.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 1., 0.), AllCloseVector(point, TEST_PREC, TEST_PREC));
} }
// Ensures that the transformations of the movable parent and fixed joint // Ensures that the transformations of the movable parent and fixed joint
// frame is in proper order // frame is in proper order
TEST ( ModelFixedJointRotationOrderRotationTranslation ) { TEST_CASE (__FILE__"_ModelFixedJointRotationOrderRotationTranslation", "") {
// the standard modeling using a null body // the standard modeling using a null body
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -511,10 +511,10 @@ TEST ( ModelFixedJointRotationOrderRotationTranslation ) {
Q[0] = 45 * M_PI / 180.; Q[0] = 45 * M_PI / 180.;
Vector3d point = CalcBodyToBaseCoordinates (model, Q, body_after_fixed, Vector3d (0., 1., 0.)); Vector3d point = CalcBodyToBaseCoordinates (model, Q, body_after_fixed, Vector3d (0., 1., 0.));
CHECK_ARRAY_CLOSE (Vector3d (-1., 2., 0.).data(), point.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (-1., 2., 0.), AllCloseVector(point, TEST_PREC, TEST_PREC));
} }
TEST ( ModelGetBodyName ) { TEST_CASE (__FILE__"_ModelGetBodyName", "") {
Body null_body; Body null_body;
Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.)); Body fixed_body(1., Vector3d (1., 0.4, 0.4), Vector3d (1., 1., 1.));
@ -527,38 +527,38 @@ TEST ( ModelGetBodyName ) {
unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body"); unsigned int fixed_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), Joint(JointTypeFixed), fixed_body, "fixed_body");
unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body"); unsigned int appended_body_id = model.AppendBody (Xtrans(Vector3d(0., 1., 0.)), joint_rot_z, body, "appended_body");
CHECK_EQUAL (string("fixed_body"), model.GetBodyName(fixed_body_id)); REQUIRE (string("fixed_body") == model.GetBodyName(fixed_body_id));
CHECK_EQUAL (string("appended_body"), model.GetBodyName(appended_body_id)); REQUIRE (string("appended_body") == model.GetBodyName(appended_body_id));
CHECK_EQUAL (string(""), model.GetBodyName(123)); REQUIRE (string("") == model.GetBodyName(123));
} }
TEST_FIXTURE ( RotZRotZYXFixed, ModelGetParentBodyId ) { TEST_CASE_METHOD (RotZRotZYXFixed, __FILE__"_ModelGetParentBodyId", "") {
CHECK_EQUAL (0u, model->GetParentBodyId(0)); REQUIRE (0u == model->GetParentBodyId(0));
CHECK_EQUAL (0u, model->GetParentBodyId(body_a_id)); REQUIRE (0u == model->GetParentBodyId(body_a_id));
CHECK_EQUAL (body_a_id, model->GetParentBodyId(body_b_id)); REQUIRE (body_a_id == model->GetParentBodyId(body_b_id));
} }
TEST_FIXTURE(RotZRotZYXFixed, ModelGetParentIdFixed) { TEST_CASE_METHOD(RotZRotZYXFixed, __FILE__"_ModelGetParentIdFixed", "") {
CHECK_EQUAL (body_b_id, model->GetParentBodyId(body_fixed_id)); REQUIRE (body_b_id == model->GetParentBodyId(body_fixed_id));
} }
TEST_FIXTURE(RotZRotZYXFixed, ModelGetJointFrame) { TEST_CASE_METHOD(RotZRotZYXFixed, __FILE__"_ModelGetJointFrame", "") {
SpatialTransform transform_a = model->GetJointFrame (body_a_id); SpatialTransform transform_a = model->GetJointFrame (body_a_id);
SpatialTransform transform_b = model->GetJointFrame (body_b_id); SpatialTransform transform_b = model->GetJointFrame (body_b_id);
SpatialTransform transform_root = model->GetJointFrame (0); SpatialTransform transform_root = model->GetJointFrame (0);
CHECK_ARRAY_EQUAL (fixture_transform_a.r.data(), transform_a.r.data(), 3); REQUIRE_THAT (fixture_transform_a.r, AllCloseVector(transform_a.r, 0., 0.));
CHECK_ARRAY_EQUAL (fixture_transform_b.r.data(), transform_b.r.data(), 3); REQUIRE_THAT (fixture_transform_b.r, AllCloseVector(transform_b.r, 0., 0.));
CHECK_ARRAY_EQUAL (Vector3d(0., 0., 0.).data(), transform_root.r.data(), 3); REQUIRE_THAT (Vector3d(0., 0., 0.), AllCloseVector(transform_root.r, 0., 0.));
} }
TEST_FIXTURE(RotZRotZYXFixed, ModelGetJointFrameFixed) { TEST_CASE_METHOD(RotZRotZYXFixed, __FILE__"_ModelGetJointFrameFixed", "") {
SpatialTransform transform_fixed = model->GetJointFrame (body_fixed_id); SpatialTransform transform_fixed = model->GetJointFrame (body_fixed_id);
CHECK_ARRAY_EQUAL (fixture_transform_fixed.r.data(), transform_fixed.r.data(), 3); REQUIRE_THAT (fixture_transform_fixed.r, AllCloseVector(transform_fixed.r, 0., 0.));
} }
TEST_FIXTURE(RotZRotZYXFixed, ModelSetJointFrame) { TEST_CASE_METHOD(RotZRotZYXFixed, __FILE__"_ModelSetJointFrame", "") {
SpatialTransform new_transform_a = Xtrans (Vector3d(-1., -2., -3.)); SpatialTransform new_transform_a = Xtrans (Vector3d(-1., -2., -3.));
SpatialTransform new_transform_b = Xtrans (Vector3d(-4., -5., -6.)); SpatialTransform new_transform_b = Xtrans (Vector3d(-4., -5., -6.));
SpatialTransform new_transform_root = Xtrans (Vector3d(-99, -99., -99.)); SpatialTransform new_transform_root = Xtrans (Vector3d(-99, -99., -99.));
@ -571,12 +571,12 @@ TEST_FIXTURE(RotZRotZYXFixed, ModelSetJointFrame) {
SpatialTransform transform_b = model->GetJointFrame (body_b_id); SpatialTransform transform_b = model->GetJointFrame (body_b_id);
SpatialTransform transform_root = model->GetJointFrame (0); SpatialTransform transform_root = model->GetJointFrame (0);
CHECK_ARRAY_EQUAL (new_transform_a.r.data(), transform_a.r.data(), 3); REQUIRE_THAT (new_transform_a.r, AllCloseVector(transform_a.r, 0., 0.));
CHECK_ARRAY_EQUAL (new_transform_b.r.data(), transform_b.r.data(), 3); REQUIRE_THAT (new_transform_b.r, AllCloseVector(transform_b.r, 0., 0.));
CHECK_ARRAY_EQUAL (Vector3d(0., 0., 0.).data(), transform_root.r.data(), 3); REQUIRE_THAT (Vector3d(0., 0., 0.), AllCloseVector(transform_root.r, 0., 0.));
} }
TEST (CalcBodyWorldOrientationFixedJoint) { TEST_CASE (__FILE__"_CalcBodyWorldOrientationFixedJoint", "") {
Model model_fixed; Model model_fixed;
Model model_movable; Model model_movable;
@ -596,10 +596,10 @@ TEST (CalcBodyWorldOrientationFixedJoint) {
Matrix3d E_fixed = CalcBodyWorldOrientation (model_fixed, q_fixed, body_id_fixed); Matrix3d E_fixed = CalcBodyWorldOrientation (model_fixed, q_fixed, body_id_fixed);
Matrix3d E_movable = CalcBodyWorldOrientation (model_movable, q_movable, body_id_movable); Matrix3d E_movable = CalcBodyWorldOrientation (model_movable, q_movable, body_id_movable);
CHECK_ARRAY_CLOSE (E_movable.data(), E_fixed.data(), 9, TEST_PREC); REQUIRE_THAT (E_movable, AllCloseMatrix(E_fixed, TEST_PREC, TEST_PREC));
} }
TEST (TestAddFixedBodyToRoot) { TEST_CASE (__FILE__"_TestAddFixedBodyToRoot", "") {
Model model; Model model;
Body body (1., Vector3d (1., 1., 1.), Vector3d (1., 1., 1.)); Body body (1., Vector3d (1., 1., 1.), Vector3d (1., 1., 1.));
@ -614,19 +614,18 @@ TEST (TestAddFixedBodyToRoot) {
// Add a mobile boby // Add a mobile boby
unsigned int movable_body = model.AppendBody (Xrotx (45 * M_PI / 180), JointTypeRevoluteX, body, "MovableBody"); unsigned int movable_body = model.AppendBody (Xrotx (45 * M_PI / 180), JointTypeRevoluteX, body, "MovableBody");
CHECK_EQUAL ((unsigned int) 2, model.mBodies.size()); REQUIRE (2 == model.mBodies.size());
CHECK_EQUAL ((unsigned int) 2, model.mFixedBodies.size()); REQUIRE (2 == model.mFixedBodies.size());
VectorNd q = VectorNd::Zero(model.q_size); VectorNd q = VectorNd::Zero(model.q_size);
Vector3d base_coords = CalcBodyToBaseCoordinates(model, q, body_id_fixed, Vector3d::Zero()); Vector3d base_coords = CalcBodyToBaseCoordinates(model, q, body_id_fixed, Vector3d::Zero());
CHECK_ARRAY_EQUAL(Vector3d (1., 0., 0.).data(), base_coords.data(), 3); REQUIRE_THAT (Vector3d (1., 0., 0.), AllCloseVector(base_coords, 0., 0.));
base_coords = CalcBodyToBaseCoordinates(model, q, body_id_fixed2, Vector3d::Zero()); base_coords = CalcBodyToBaseCoordinates(model, q, body_id_fixed2, Vector3d::Zero());
CHECK_ARRAY_EQUAL(Vector3d (2., 0., 0.).data(), base_coords.data(), 3); REQUIRE_THAT (Vector3d (2., 0., 0.), AllCloseVector(base_coords, 0., 0.));
base_coords = CalcBodyToBaseCoordinates(model, q, movable_body, Vector3d::Zero()); base_coords = CalcBodyToBaseCoordinates(model, q, movable_body, Vector3d::Zero());
CHECK_ARRAY_EQUAL(Vector3d (2., 0., 0.).data(), base_coords.data(), 3); REQUIRE_THAT (Vector3d (2., 0., 0.), AllCloseVector(base_coords, 0., 0.));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -122,7 +122,7 @@ void ConvertQAndQDotFromEmulated (
} }
} }
TEST(TestQuaternionIntegration ) { TEST_CASE(__FILE__"_TestQuaternionIntegration", "") {
double timestep = 0.001; double timestep = 0.001;
Vector3d zyx_angles_t0 (0.1, 0.2, 0.3); Vector3d zyx_angles_t0 (0.1, 0.2, 0.3);
@ -141,23 +141,23 @@ TEST(TestQuaternionIntegration ) {
// B) integration under the assumption that the angular velocity is // B) integration under the assumption that the angular velocity is
// constant // constant
// However I am not entirely sure about this... // However I am not entirely sure about this...
CHECK_ARRAY_CLOSE (q_zyx_t1.data(), q_t1.data(), 4, 1.0e-5); REQUIRE_THAT(q_zyx_t1, AllCloseVector(q_t1, 1.0e-5, 1.0e-5));
} }
TEST_FIXTURE(SphericalJoint, TestQIndices) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestQIndices", "") {
CHECK_EQUAL (0u, multdof3_model.mJoints[1].q_index); REQUIRE(0u == multdof3_model.mJoints[1].q_index);
CHECK_EQUAL (1u, multdof3_model.mJoints[2].q_index); REQUIRE(1u == multdof3_model.mJoints[2].q_index);
CHECK_EQUAL (4u, multdof3_model.mJoints[3].q_index); REQUIRE(4u == multdof3_model.mJoints[3].q_index);
CHECK_EQUAL (5u, emulated_model.q_size); REQUIRE(5u == emulated_model.q_size);
CHECK_EQUAL (5u, emulated_model.qdot_size); REQUIRE(5u == emulated_model.qdot_size);
CHECK_EQUAL (6u, multdof3_model.q_size); REQUIRE(6u == multdof3_model.q_size);
CHECK_EQUAL (5u, multdof3_model.qdot_size); REQUIRE(5u == multdof3_model.qdot_size);
CHECK_EQUAL (5u, multdof3_model.multdof3_w_index[2]); REQUIRE(5u == multdof3_model.multdof3_w_index[2]);
} }
TEST_FIXTURE(SphericalJoint, TestGetQuaternion) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestGetQuaternion", "") {
multdof3_model.AppendBody (Xtrans (Vector3d (1., 0., 0.)), joint_spherical, body); multdof3_model.AppendBody (Xtrans (Vector3d (1., 0., 0.)), joint_spherical, body);
sphQ = VectorNd::Zero ((size_t) multdof3_model.q_size); sphQ = VectorNd::Zero ((size_t) multdof3_model.q_size);
@ -165,16 +165,16 @@ TEST_FIXTURE(SphericalJoint, TestGetQuaternion) {
sphQDDot = VectorNd::Zero ((size_t) multdof3_model.qdot_size); sphQDDot = VectorNd::Zero ((size_t) multdof3_model.qdot_size);
sphTau = VectorNd::Zero ((size_t) multdof3_model.qdot_size); sphTau = VectorNd::Zero ((size_t) multdof3_model.qdot_size);
CHECK_EQUAL (10u, multdof3_model.q_size); REQUIRE (10u == multdof3_model.q_size);
CHECK_EQUAL (8u, multdof3_model.qdot_size); REQUIRE (8u == multdof3_model.qdot_size);
CHECK_EQUAL (0u, multdof3_model.mJoints[1].q_index); REQUIRE (0u == multdof3_model.mJoints[1].q_index);
CHECK_EQUAL (1u, multdof3_model.mJoints[2].q_index); REQUIRE (1u == multdof3_model.mJoints[2].q_index);
CHECK_EQUAL (4u, multdof3_model.mJoints[3].q_index); REQUIRE (4u == multdof3_model.mJoints[3].q_index);
CHECK_EQUAL (5u, multdof3_model.mJoints[4].q_index); REQUIRE (5u == multdof3_model.mJoints[4].q_index);
CHECK_EQUAL (8u, multdof3_model.multdof3_w_index[2]); REQUIRE (8u == multdof3_model.multdof3_w_index[2]);
CHECK_EQUAL (9u, multdof3_model.multdof3_w_index[4]); REQUIRE (9u == multdof3_model.multdof3_w_index[4]);
sphQ[0] = 100.; sphQ[0] = 100.;
sphQ[1] = 0.; sphQ[1] = 0.;
@ -189,14 +189,14 @@ TEST_FIXTURE(SphericalJoint, TestGetQuaternion) {
Quaternion reference_1 (0., 1., 2., 4.); Quaternion reference_1 (0., 1., 2., 4.);
Quaternion quat_1 = multdof3_model.GetQuaternion (2, sphQ); Quaternion quat_1 = multdof3_model.GetQuaternion (2, sphQ);
CHECK_ARRAY_EQUAL (reference_1.data(), quat_1.data(), 4); REQUIRE_THAT (reference_1, AllCloseVector(quat_1));
Quaternion reference_3 (-6., -7., -8., -9.); Quaternion reference_3 (-6., -7., -8., -9.);
Quaternion quat_3 = multdof3_model.GetQuaternion (4, sphQ); Quaternion quat_3 = multdof3_model.GetQuaternion (4, sphQ);
CHECK_ARRAY_EQUAL (reference_3.data(), quat_3.data(), 4); REQUIRE_THAT (reference_3, AllCloseVector(quat_3));
} }
TEST_FIXTURE(SphericalJoint, TestSetQuaternion) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestSetQuaternion", "") {
multdof3_model.AppendBody (Xtrans (Vector3d (1., 0., 0.)), joint_spherical, body); multdof3_model.AppendBody (Xtrans (Vector3d (1., 0., 0.)), joint_spherical, body);
sphQ = VectorNd::Zero ((size_t) multdof3_model.q_size); sphQ = VectorNd::Zero ((size_t) multdof3_model.q_size);
@ -207,15 +207,15 @@ TEST_FIXTURE(SphericalJoint, TestSetQuaternion) {
Quaternion reference_1 (0., 1., 2., 3.); Quaternion reference_1 (0., 1., 2., 3.);
multdof3_model.SetQuaternion (2, reference_1, sphQ); multdof3_model.SetQuaternion (2, reference_1, sphQ);
Quaternion test = multdof3_model.GetQuaternion (2, sphQ); Quaternion test = multdof3_model.GetQuaternion (2, sphQ);
CHECK_ARRAY_EQUAL (reference_1.data(), test.data(), 4); REQUIRE_THAT (reference_1, AllCloseVector(test));
Quaternion reference_2 (11., 22., 33., 44.); Quaternion reference_2 (11., 22., 33., 44.);
multdof3_model.SetQuaternion (4, reference_2, sphQ); multdof3_model.SetQuaternion (4, reference_2, sphQ);
test = multdof3_model.GetQuaternion (4, sphQ); test = multdof3_model.GetQuaternion (4, sphQ);
CHECK_ARRAY_EQUAL (reference_2.data(), test.data(), 4); REQUIRE_THAT (reference_2, AllCloseVector(test));
} }
TEST_FIXTURE(SphericalJoint, TestOrientation) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestOrientation", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.1; emuQ[1] = 1.1;
emuQ[2] = 1.1; emuQ[2] = 1.1;
@ -233,10 +233,10 @@ TEST_FIXTURE(SphericalJoint, TestOrientation) {
Matrix3d emu_orientation = CalcBodyWorldOrientation (emulated_model, emuQ, emu_child_id); Matrix3d emu_orientation = CalcBodyWorldOrientation (emulated_model, emuQ, emu_child_id);
Matrix3d sph_orientation = CalcBodyWorldOrientation (multdof3_model, sphQ, sph_child_id); Matrix3d sph_orientation = CalcBodyWorldOrientation (multdof3_model, sphQ, sph_child_id);
CHECK_ARRAY_CLOSE (emu_orientation.data(), sph_orientation.data(), 9, TEST_PREC); REQUIRE_THAT(emu_orientation, AllCloseMatrix(sph_orientation, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestUpdateKinematics) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestUpdateKinematics", "") {
emuQ[0] = 1.; emuQ[0] = 1.;
emuQ[1] = 1.; emuQ[1] = 1.;
emuQ[2] = 1.; emuQ[2] = 1.;
@ -273,16 +273,16 @@ TEST_FIXTURE(SphericalJoint, TestUpdateKinematics) {
UpdateKinematicsCustom (emulated_model, &emuQ, &emuQDot, &emuQDDot); UpdateKinematicsCustom (emulated_model, &emuQ, &emuQDot, &emuQDDot);
UpdateKinematicsCustom (multdof3_model, &sphQ, &sphQDot, &sphQDDot); UpdateKinematicsCustom (multdof3_model, &sphQ, &sphQDot, &sphQDDot);
CHECK_ARRAY_CLOSE (emulated_model.v[emu_body_id].data(), multdof3_model.v[sph_body_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.v[emu_body_id], AllCloseVector(multdof3_model.v[sph_body_id], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (emulated_model.a[emu_body_id].data(), multdof3_model.a[sph_body_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.a[emu_body_id], AllCloseVector(multdof3_model.a[sph_body_id], TEST_PREC, TEST_PREC));
UpdateKinematics (multdof3_model, sphQ, sphQDot, sphQDDot); UpdateKinematics (multdof3_model, sphQ, sphQDot, sphQDDot);
CHECK_ARRAY_CLOSE (emulated_model.v[emu_child_id].data(), multdof3_model.v[sph_child_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.v[emu_child_id], AllCloseVector(multdof3_model.v[sph_child_id], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (emulated_model.a[emu_child_id].data(), multdof3_model.a[sph_child_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.a[emu_child_id], AllCloseVector(multdof3_model.a[sph_child_id], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestSpatialVelocities) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestSpatialVelocities", "") {
emuQ[0] = 1.; emuQ[0] = 1.;
emuQ[1] = 2.; emuQ[1] = 2.;
emuQ[2] = 3.; emuQ[2] = 3.;
@ -298,10 +298,10 @@ TEST_FIXTURE(SphericalJoint, TestSpatialVelocities) {
UpdateKinematicsCustom (emulated_model, &emuQ, &emuQDot, NULL); UpdateKinematicsCustom (emulated_model, &emuQ, &emuQDot, NULL);
UpdateKinematicsCustom (multdof3_model, &sphQ, &sphQDot, NULL); UpdateKinematicsCustom (multdof3_model, &sphQ, &sphQDot, NULL);
CHECK_ARRAY_CLOSE (emulated_model.v[emu_child_id].data(), multdof3_model.v[sph_child_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.v[emu_child_id], AllCloseVector(multdof3_model.v[sph_child_id], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestForwardDynamicsQAndQDot) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestForwardDynamicsQAndQDot", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -317,10 +317,10 @@ TEST_FIXTURE(SphericalJoint, TestForwardDynamicsQAndQDot) {
ForwardDynamics (emulated_model, emuQ, emuQDot, emuTau, emuQDDot); ForwardDynamics (emulated_model, emuQ, emuQDot, emuTau, emuQDDot);
ForwardDynamics (multdof3_model, sphQ, sphQDot, sphTau, sphQDDot); ForwardDynamics (multdof3_model, sphQ, sphQDot, sphTau, sphQDDot);
CHECK_ARRAY_CLOSE (emulated_model.a[emu_child_id].data(), multdof3_model.a[sph_child_id].data(), 6, TEST_PREC); REQUIRE_THAT (emulated_model.a[emu_child_id], AllCloseVector(multdof3_model.a[sph_child_id], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestDynamicsConsistencyRNEA_ABA ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestDynamicsConsistencyRNEA_ABA", "" ) {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -346,10 +346,10 @@ TEST_FIXTURE(SphericalJoint, TestDynamicsConsistencyRNEA_ABA ) {
VectorNd tau_id (VectorNd::Zero (multdof3_model.qdot_size)); VectorNd tau_id (VectorNd::Zero (multdof3_model.qdot_size));
InverseDynamics (multdof3_model, sphQ, sphQDot, sphQDDot, tau_id); InverseDynamics (multdof3_model, sphQ, sphQDot, sphQDDot, tau_id);
CHECK_ARRAY_CLOSE (sphTau.data(), tau_id.data(), tau_id.size(), TEST_PREC); REQUIRE_THAT (sphTau, AllCloseVector(tau_id, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestCRBA ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestCRBA", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -396,10 +396,10 @@ TEST_FIXTURE(SphericalJoint, TestCRBA ) {
H_id.block(0, i, multdof3_model.qdot_size, 1) = H_col; H_id.block(0, i, multdof3_model.qdot_size, 1) = H_col;
} }
CHECK_ARRAY_CLOSE (H_id.data(), H_crba.data(), multdof3_model.qdot_size * multdof3_model.qdot_size, TEST_PREC); REQUIRE_THAT (H_id, AllCloseMatrix(H_crba, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestForwardDynamicsLagrangianVsABA ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestForwardDynamicsLagrangianVsABA", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -426,10 +426,10 @@ TEST_FIXTURE(SphericalJoint, TestForwardDynamicsLagrangianVsABA ) {
ForwardDynamicsLagrangian (multdof3_model, sphQ, sphQDot, sphTau, QDDot_lag); ForwardDynamicsLagrangian (multdof3_model, sphQ, sphQDot, sphTau, QDDot_lag);
ForwardDynamics (multdof3_model, sphQ, sphQDot, sphTau, QDDot_aba); ForwardDynamics (multdof3_model, sphQ, sphQDot, sphTau, QDDot_aba);
CHECK_ARRAY_CLOSE (QDDot_lag.data(), QDDot_aba.data(), multdof3_model.qdot_size, TEST_PREC); REQUIRE_THAT (QDDot_lag, AllCloseVector(QDDot_aba, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestContactsLagrangian) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestContactsLagrangian", "") {
ConstraintSet constraint_set_emu; ConstraintSet constraint_set_emu;
constraint_set_emu.AddContactConstraint (emu_child_id, Vector3d (0., 0., -1.), Vector3d (1., 0., 0.)); constraint_set_emu.AddContactConstraint (emu_child_id, Vector3d (0., 0., -1.), Vector3d (1., 0., 0.));
@ -451,10 +451,10 @@ TEST_FIXTURE(SphericalJoint, TestContactsLagrangian) {
ForwardDynamicsConstraintsDirect (multdof3_model, sphQ, sphQDot, sphTau, constraint_set_sph, sphQDDot); ForwardDynamicsConstraintsDirect (multdof3_model, sphQ, sphQDot, sphTau, constraint_set_sph, sphQDDot);
VectorNd sph_force_lagrangian = constraint_set_sph.force; VectorNd sph_force_lagrangian = constraint_set_sph.force;
CHECK_ARRAY_CLOSE (emu_force_lagrangian.data(), sph_force_lagrangian.data(), 3, TEST_PREC); REQUIRE_THAT (emu_force_lagrangian, AllCloseVector(sph_force_lagrangian, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestContacts) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestContacts", "") {
ConstraintSet constraint_set_emu; ConstraintSet constraint_set_emu;
constraint_set_emu.AddContactConstraint (emu_child_id, Vector3d (0., 0., -1.), Vector3d (1., 0., 0.)); constraint_set_emu.AddContactConstraint (emu_child_id, Vector3d (0., 0., -1.), Vector3d (1., 0., 0.));
@ -476,10 +476,10 @@ TEST_FIXTURE(SphericalJoint, TestContacts) {
ForwardDynamicsContactsKokkevis (multdof3_model, sphQ, sphQDot, sphTau, constraint_set_sph, sphQDDot); ForwardDynamicsContactsKokkevis (multdof3_model, sphQ, sphQDot, sphTau, constraint_set_sph, sphQDDot);
VectorNd sph_force_kokkevis = constraint_set_sph.force; VectorNd sph_force_kokkevis = constraint_set_sph.force;
CHECK_ARRAY_CLOSE (emu_force_kokkevis.data(), sph_force_kokkevis.data(), 3, TEST_PREC); REQUIRE_THAT (emu_force_kokkevis, AllCloseVector(sph_force_kokkevis, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedLagrangian ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestEulerZYXvsEmulatedLagrangian", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -504,10 +504,10 @@ TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedLagrangian ) {
ForwardDynamicsLagrangian (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu); ForwardDynamicsLagrangian (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu);
ForwardDynamicsLagrangian (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx); ForwardDynamicsLagrangian (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedArticulatedBodyAlgorithm ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestEulerZYXvsEmulatedArticulatedBodyAlgorithm", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -532,10 +532,10 @@ TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedArticulatedBodyAlgorithm ) {
ForwardDynamics (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu); ForwardDynamics (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu);
ForwardDynamics (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx); ForwardDynamics (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedContacts ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestEulerZYXvsEmulatedContacts", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -572,22 +572,22 @@ TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedContacts ) {
ForwardDynamicsConstraintsDirect (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu); ForwardDynamicsConstraintsDirect (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu);
ForwardDynamicsConstraintsDirect (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx); ForwardDynamicsConstraintsDirect (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC, TEST_PREC));
ClearLogOutput(); ClearLogOutput();
ForwardDynamicsContactsKokkevis (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu); ForwardDynamicsContactsKokkevis (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu);
ForwardDynamicsContactsKokkevis (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx); ForwardDynamicsContactsKokkevis (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC * QDDot_emu.norm()); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC * QDDot_emu.norm(), TEST_PREC * QDDot_emu.norm()));
ForwardDynamicsContactsKokkevis (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu); ForwardDynamicsContactsKokkevis (emulated_model, emuQ, emuQDot, emuTau, CS_emulated, QDDot_emu);
ForwardDynamicsConstraintsDirect (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx); ForwardDynamicsConstraintsDirect (eulerzyx_model, emuQ, emuQDot, emuTau, CS_euler, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC * QDDot_emu.norm()); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC * QDDot_emu.norm(), TEST_PREC * QDDot_emu.norm()));
} }
TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedCRBA ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestEulerZYXvsEmulatedCRBA", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -600,10 +600,10 @@ TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulatedCRBA ) {
CompositeRigidBodyAlgorithm (emulated_model, emuQ, H_emulated); CompositeRigidBodyAlgorithm (emulated_model, emuQ, H_emulated);
CompositeRigidBodyAlgorithm (eulerzyx_model, emuQ, H_eulerzyx); CompositeRigidBodyAlgorithm (eulerzyx_model, emuQ, H_eulerzyx);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_eulerzyx.data(), emulated_model.q_size * emulated_model.q_size, TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_eulerzyx, TEST_PREC, TEST_PREC));
} }
TEST ( TestJointTypeTranslationZYX ) { TEST_CASE (__FILE__"_TestJointTypeTranslationZYX", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -636,12 +636,12 @@ TEST ( TestJointTypeTranslationZYX ) {
VectorNd id_3dof(tau); VectorNd id_3dof(tau);
InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated); InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated);
InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof); InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof);
CHECK_ARRAY_CLOSE (id_emulated.data(), id_3dof.data(), id_emulated.size(), TEST_PREC * id_emulated.norm()); REQUIRE_THAT (id_emulated, AllCloseVector(id_3dof, TEST_PREC * id_emulated.norm(), TEST_PREC * id_emulated.norm()));
ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated); ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated);
ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof); ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof);
CHECK_ARRAY_EQUAL (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof));
MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size()));
MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size()));
@ -649,10 +649,10 @@ TEST ( TestJointTypeTranslationZYX ) {
CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated); CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated);
CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof); CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
} }
TEST ( TestJointTypeEulerXYZ ) { TEST_CASE (__FILE__"_TestJointTypeEulerXYZ", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -684,13 +684,13 @@ TEST ( TestJointTypeEulerXYZ ) {
UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated);
UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated);
CHECK_ARRAY_EQUAL (model_emulated.X_base[3].E.data(), model_3dof.X_base[1].E.data(), 9); REQUIRE_THAT (model_emulated.X_base[3].E, AllCloseMatrix(model_3dof.X_base[1].E));
CHECK_ARRAY_EQUAL (model_emulated.v[3].data(), model_3dof.v[1].data(), 6); REQUIRE_THAT (model_emulated.v[3], AllCloseVector(model_3dof.v[1]));
ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated); ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated);
ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof); ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC, TEST_PREC));
MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size()));
MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size()));
@ -698,10 +698,10 @@ TEST ( TestJointTypeEulerXYZ ) {
CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated); CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated);
CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof); CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
} }
TEST ( TestJointTypeEulerYXZ ) { TEST_CASE (__FILE__"_TestJointTypeEulerYXZ", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -734,20 +734,20 @@ TEST ( TestJointTypeEulerYXZ ) {
UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated);
UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated);
CHECK_ARRAY_CLOSE (model_emulated.X_base[3].E.data(), model_3dof.X_base[1].E.data(), 9, TEST_PREC); REQUIRE_THAT (model_emulated.X_base[3].E, AllCloseMatrix(model_3dof.X_base[1].E, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (model_emulated.v[3].data(), model_3dof.v[1].data(), 6, TEST_PREC); REQUIRE_THAT (model_emulated.v[3], AllCloseVector(model_3dof.v[1], TEST_PREC, TEST_PREC));
VectorNd id_emulated (tau); VectorNd id_emulated (tau);
VectorNd id_3dof(tau); VectorNd id_3dof(tau);
InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated); InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated);
InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof); InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof);
CHECK_ARRAY_CLOSE (id_emulated.data(), id_3dof.data(), id_emulated.size(), TEST_PREC); REQUIRE_THAT (id_emulated, AllCloseVector(id_3dof, TEST_PREC, TEST_PREC));
ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated); ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated);
ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof); ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC, TEST_PREC));
MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size()));
MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size()));
@ -755,10 +755,10 @@ TEST ( TestJointTypeEulerYXZ ) {
CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated); CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated);
CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof); CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
} }
TEST ( TestJointTypeEulerZXY ) { TEST_CASE (__FILE__"_TestJointTypeEulerZXY", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -793,20 +793,20 @@ TEST ( TestJointTypeEulerZXY ) {
UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_emulated, &q, &qdot, &qddot_emulated);
UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated); UpdateKinematicsCustom (model_3dof, &q, &qdot, &qddot_emulated);
CHECK_ARRAY_CLOSE (model_emulated.X_base[3].E.data(), model_3dof.X_base[1].E.data(), 9, TEST_PREC); REQUIRE_THAT (model_emulated.X_base[3].E, AllCloseMatrix(model_3dof.X_base[1].E, TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (model_emulated.v[3].data(), model_3dof.v[1].data(), 6, TEST_PREC); REQUIRE_THAT (model_emulated.v[3], AllCloseVector(model_3dof.v[1], TEST_PREC, TEST_PREC));
VectorNd id_emulated (tau); VectorNd id_emulated (tau);
VectorNd id_3dof(tau); VectorNd id_3dof(tau);
InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated); InverseDynamics (model_emulated, q, qdot, qddot_emulated, id_emulated);
InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof); InverseDynamics (model_3dof, q, qdot, qddot_emulated, id_3dof);
CHECK_ARRAY_CLOSE (id_emulated.data(), id_3dof.data(), id_emulated.size(), TEST_PREC); REQUIRE_THAT (id_emulated, AllCloseVector(id_3dof, TEST_PREC, TEST_PREC));
ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated); ForwardDynamicsLagrangian (model_emulated, q, qdot, tau, qddot_emulated);
ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof); ForwardDynamicsLagrangian (model_3dof, q, qdot, tau, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC, TEST_PREC));
MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_emulated (MatrixNd::Zero (q.size(), q.size()));
MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size())); MatrixNd H_3dof (MatrixNd::Zero (q.size(), q.size()));
@ -818,10 +818,10 @@ TEST ( TestJointTypeEulerZXY ) {
CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated); CompositeRigidBodyAlgorithm (model_emulated, q, H_emulated);
CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof); CompositeRigidBodyAlgorithm (model_3dof, q, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (Human36, TestUpdateKinematics) { TEST_CASE_METHOD (Human36, __FILE__"_TestUpdateKinematics2", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -835,12 +835,12 @@ TEST_FIXTURE (Human36, TestUpdateKinematics) {
UpdateKinematics (*model_emulated, q, qdot, qddot); UpdateKinematics (*model_emulated, q, qdot, qddot);
UpdateKinematics (*model_3dof, q, qdot, qddot); UpdateKinematics (*model_3dof, q, qdot, qddot);
CHECK_ARRAY_CLOSE (model_emulated->v[body_id_emulated[BodyPelvis]].data(), model_3dof->v[body_id_3dof[BodyPelvis]].data(), 6, TEST_PREC); REQUIRE_THAT (model_emulated->v[body_id_emulated[BodyPelvis]], AllCloseVector(model_3dof->v[body_id_3dof[BodyPelvis]], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (model_emulated->v[body_id_emulated[BodyThighRight]].data(), model_3dof->v[body_id_3dof[BodyThighRight]].data(), 6, TEST_PREC); REQUIRE_THAT (model_emulated->v[body_id_emulated[BodyThighRight]], AllCloseVector(model_3dof->v[body_id_3dof[BodyThighRight]], TEST_PREC, TEST_PREC));
CHECK_ARRAY_CLOSE (model_emulated->v[body_id_emulated[BodyShankRight]].data(), model_3dof->v[body_id_3dof[BodyShankRight]].data(), 6, TEST_PREC); REQUIRE_THAT (model_emulated->v[body_id_emulated[BodyShankRight]], AllCloseVector(model_3dof->v[body_id_3dof[BodyShankRight]], TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (Human36, TestInverseDynamics) { TEST_CASE_METHOD (Human36, __FILE__"_TestInverseDynamics", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -855,10 +855,10 @@ TEST_FIXTURE (Human36, TestInverseDynamics) {
InverseDynamics (*model_emulated, q, qdot, qddot, id_emulated); InverseDynamics (*model_emulated, q, qdot, qddot, id_emulated);
InverseDynamics (*model_3dof, q, qdot, qddot, id_3dof); InverseDynamics (*model_3dof, q, qdot, qddot, id_3dof);
CHECK_ARRAY_CLOSE (id_emulated.data(), id_3dof.data(), id_emulated.size(), TEST_PREC * id_emulated.norm()); REQUIRE_THAT (id_emulated, AllCloseVector(id_3dof, TEST_PREC * id_emulated.norm(), TEST_PREC * id_emulated.norm()));
} }
TEST_FIXTURE (Human36, TestNonlinearEffects) { TEST_CASE_METHOD (Human36, __FILE__"_TestNonlinearEffects", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -873,10 +873,10 @@ TEST_FIXTURE (Human36, TestNonlinearEffects) {
NonlinearEffects (*model_emulated, q, qdot, nle_emulated); NonlinearEffects (*model_emulated, q, qdot, nle_emulated);
NonlinearEffects (*model_3dof, q, qdot, nle_3dof); NonlinearEffects (*model_3dof, q, qdot, nle_3dof);
CHECK_ARRAY_CLOSE (nle_emulated.data(), nle_3dof.data(), nle_emulated.size(), TEST_PREC * nle_emulated.norm()); REQUIRE_THAT (nle_emulated, AllCloseVector(nle_3dof, TEST_PREC * nle_emulated.norm(), TEST_PREC * nle_emulated.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianKokkevis) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedLagrangianKokkevis", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -888,19 +888,19 @@ TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianKokkevis) {
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian);
ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_kokkevis.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian);
ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_kokkevis.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian);
ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_kokkevis.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianSparse) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedLagrangianSparse", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -912,18 +912,18 @@ TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianSparse) {
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_sparse);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_sparse.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_sparse, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_sparse);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_sparse.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_sparse, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_sparse);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_sparse.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_sparse, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianNullSpace) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedLagrangianNullSpace", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -935,18 +935,18 @@ TEST_FIXTURE (Human36, TestContactsEmulatedLagrangianNullSpace) {
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_nullspace); ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_nullspace);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_nullspace.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_nullspace, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_nullspace); ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_nullspace);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_nullspace.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_nullspace, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_lagrangian);
ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_nullspace); ForwardDynamicsConstraintsNullSpace (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_nullspace);
CHECK_ARRAY_CLOSE (qddot_lagrangian.data(), qddot_nullspace.data(), qddot_lagrangian.size(), TEST_PREC * qddot_lagrangian.norm()); REQUIRE_THAT (qddot_lagrangian, AllCloseVector(qddot_nullspace, TEST_PREC * qddot_lagrangian.norm(), TEST_PREC * qddot_lagrangian.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedMultdofLagrangian) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedMultdofLagrangian", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -956,18 +956,18 @@ TEST_FIXTURE (Human36, TestContactsEmulatedMultdofLagrangian) {
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated);
ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_3dof); ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_emulated); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_emulated);
ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_3dof); ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_emulated); ForwardDynamicsConstraintsDirect (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_emulated);
ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_3dof); ForwardDynamicsConstraintsDirect (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedMultdofSparse) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedMultdofSparse", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -977,22 +977,22 @@ TEST_FIXTURE (Human36, TestContactsEmulatedMultdofSparse) {
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated);
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
CHECK_EQUAL (model_emulated->lambda_q[i], model_3dof->lambda_q[i]); REQUIRE (model_emulated->lambda_q[i]==model_3dof->lambda_q[i]);
} }
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_3dof); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_emulated); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B4C_emulated, qddot_emulated);
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_3dof); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_emulated); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_4B4C_emulated, qddot_emulated);
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_3dof); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_3dof);
CHECK_ARRAY_CLOSE (qddot_emulated.data(), qddot_3dof.data(), qddot_emulated.size(), TEST_PREC * qddot_emulated.norm()); REQUIRE_THAT (qddot_emulated, AllCloseVector(qddot_3dof, TEST_PREC * qddot_emulated.norm(), TEST_PREC * qddot_emulated.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedMultdofKokkevisSparse) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedMultdofKokkevisSparse", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -1002,7 +1002,7 @@ TEST_FIXTURE (Human36, TestContactsEmulatedMultdofKokkevisSparse) {
ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated); ForwardDynamicsConstraintsRangeSpaceSparse (*model_emulated, q, qdot, tau, constraints_1B1C_emulated, qddot_emulated);
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
CHECK_EQUAL (model_emulated->lambda_q[i], model_3dof->lambda_q[i]); REQUIRE (model_emulated->lambda_q[i]==model_3dof->lambda_q[i]);
} }
VectorNd qddot_sparse (qddot_emulated); VectorNd qddot_sparse (qddot_emulated);
@ -1010,18 +1010,18 @@ TEST_FIXTURE (Human36, TestContactsEmulatedMultdofKokkevisSparse) {
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_sparse);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_sparse.data(), qddot_kokkevis.data(), qddot_sparse.size(), TEST_PREC * qddot_sparse.norm()); REQUIRE_THAT (qddot_sparse, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_sparse.norm(), TEST_PREC * qddot_sparse.norm()));
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_sparse);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_sparse.data(), qddot_kokkevis.data(), qddot_sparse.size(), TEST_PREC * qddot_sparse.norm()); REQUIRE_THAT (qddot_sparse, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_sparse.norm(), TEST_PREC * qddot_sparse.norm()));
ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_sparse); ForwardDynamicsConstraintsRangeSpaceSparse (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_sparse);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis);
CHECK_ARRAY_CLOSE (qddot_sparse.data(), qddot_kokkevis.data(), qddot_sparse.size(), TEST_PREC * qddot_sparse.norm()); REQUIRE_THAT (qddot_sparse, AllCloseVector(qddot_kokkevis, TEST_PREC * qddot_sparse.norm(), TEST_PREC * qddot_sparse.norm()));
} }
TEST_FIXTURE (Human36, TestContactsEmulatedMultdofKokkevisMultiple ) { TEST_CASE_METHOD (Human36, __FILE__"_TestContactsEmulatedMultdofKokkevisMultiple", "") {
for (unsigned int i = 0; i < q.size(); i++) { for (unsigned int i = 0; i < q.size(); i++) {
q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); q[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX); qdot[i] = 0.4 * M_PI * static_cast<double>(rand()) / static_cast<double>(RAND_MAX);
@ -1033,18 +1033,18 @@ TEST_FIXTURE (Human36, TestContactsEmulatedMultdofKokkevisMultiple ) {
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis_2); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B1C_3dof, qddot_kokkevis_2);
CHECK_ARRAY_CLOSE (qddot_kokkevis.data(), qddot_kokkevis_2.data(), qddot_kokkevis.size(), TEST_PREC * qddot_kokkevis.norm()); REQUIRE_THAT (qddot_kokkevis, AllCloseVector(qddot_kokkevis_2, TEST_PREC * qddot_kokkevis.norm(), TEST_PREC * qddot_kokkevis.norm()));
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis_2); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_1B4C_3dof, qddot_kokkevis_2);
CHECK_ARRAY_CLOSE (qddot_kokkevis.data(), qddot_kokkevis_2.data(), qddot_kokkevis.size(), TEST_PREC * qddot_kokkevis.norm()); REQUIRE_THAT (qddot_kokkevis, AllCloseVector(qddot_kokkevis_2, TEST_PREC * qddot_kokkevis.norm(), TEST_PREC * qddot_kokkevis.norm()));
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis);
ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis_2); ForwardDynamicsContactsKokkevis (*model_3dof, q, qdot, tau, constraints_4B4C_3dof, qddot_kokkevis_2);
CHECK_ARRAY_CLOSE (qddot_kokkevis.data(), qddot_kokkevis_2.data(), qddot_kokkevis.size(), TEST_PREC * qddot_kokkevis.norm()); REQUIRE_THAT (qddot_kokkevis, AllCloseVector(qddot_kokkevis_2, TEST_PREC * qddot_kokkevis.norm(), TEST_PREC * qddot_kokkevis.norm()));
} }
TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulated ) { TEST_CASE_METHOD(SphericalJoint, __FILE__"_TestEulerZYXvsEmulated", "") {
emuQ[0] = 1.1; emuQ[0] = 1.1;
emuQ[1] = 1.2; emuQ[1] = 1.2;
emuQ[2] = 1.3; emuQ[2] = 1.3;
@ -1069,10 +1069,10 @@ TEST_FIXTURE(SphericalJoint, TestEulerZYXvsEmulated ) {
ForwardDynamicsLagrangian (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu); ForwardDynamicsLagrangian (emulated_model, emuQ, emuQDot, emuTau, QDDot_emu);
ForwardDynamicsLagrangian (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx); ForwardDynamicsLagrangian (eulerzyx_model, emuQ, emuQDot, emuTau, QDDot_eulerzyx);
CHECK_ARRAY_CLOSE (QDDot_emu.data(), QDDot_eulerzyx.data(), emulated_model.qdot_size, TEST_PREC); REQUIRE_THAT (QDDot_emu, AllCloseVector(QDDot_eulerzyx, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE ( Human36, SolveMInvTimesTau) { TEST_CASE_METHOD (Human36, __FILE__"_SolveMInvTimesTau", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
q[i] = rand() / static_cast<double>(RAND_MAX); q[i] = rand() / static_cast<double>(RAND_MAX);
tau[i] = rand() / static_cast<double>(RAND_MAX); tau[i] = rand() / static_cast<double>(RAND_MAX);
@ -1086,10 +1086,10 @@ TEST_FIXTURE ( Human36, SolveMInvTimesTau) {
VectorNd qddot_minv (q); VectorNd qddot_minv (q);
CalcMInvTimesTau (*model, q, tau, qddot_minv); CalcMInvTimesTau (*model, q, tau, qddot_minv);
CHECK_ARRAY_CLOSE (qddot_solve_llt.data(), qddot_minv.data(), model->dof_count, TEST_PREC * qddot_minv.norm()); REQUIRE_THAT (qddot_solve_llt, AllCloseVector(qddot_minv, TEST_PREC * qddot_minv.norm(), TEST_PREC * qddot_minv.norm()));
} }
TEST_FIXTURE ( Human36, SolveMInvTimesTauReuse) { TEST_CASE_METHOD (Human36, __FILE__"_SolveMInvTimesTauReuse", "") {
for (unsigned int i = 0; i < model->dof_count; i++) { for (unsigned int i = 0; i < model->dof_count; i++) {
q[i] = rand() / static_cast<double>(RAND_MAX); q[i] = rand() / static_cast<double>(RAND_MAX);
tau[i] = rand() / static_cast<double>(RAND_MAX); tau[i] = rand() / static_cast<double>(RAND_MAX);
@ -1113,6 +1113,6 @@ TEST_FIXTURE ( Human36, SolveMInvTimesTauReuse) {
CalcMInvTimesTau (*model, q, tau, qddot_minv); CalcMInvTimesTau (*model, q, tau, qddot_minv);
CHECK_ARRAY_CLOSE (qddot_solve_llt.data(), qddot_minv.data(), model->dof_count, TEST_PREC * qddot_solve_llt.norm()); REQUIRE_THAT (qddot_solve_llt, AllCloseVector(qddot_minv, TEST_PREC * qddot_solve_llt.norm(), TEST_PREC * qddot_solve_llt.norm()));
} }
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
#include <cmath> #include <cmath>
@ -60,16 +60,16 @@ struct ScrewJoint1DofFixedBase {
}; };
TEST_FIXTURE ( ScrewJoint1DofFixedBase, UpdateKinematics ) { TEST_CASE_METHOD (ScrewJoint1DofFixedBase, __FILE__"_UpdateKinematics", "") {
q[0] = 1; q[0] = 1;
qdot[0] = 2; qdot[0] = 2;
qddot[0] = 0; qddot[0] = 0;
UpdateKinematics (*model, q, qdot, qddot); UpdateKinematics (*model, q, qdot, qddot);
CHECK_ARRAY_EQUAL (Xrot(1,Vector3d(0,0,1)).E.data(), model->X_base[roller].E.data(), 9); REQUIRE_THAT (Xrot(1,Vector3d(0,0,1)).E, AllCloseMatrix(model->X_base[roller].E));
CHECK_ARRAY_EQUAL (Vector3d(1.,0.,0.).data(), model->X_base[roller].r.data(), 3); REQUIRE_THAT (Vector3d(1.,0.,0.), AllCloseVector(model->X_base[roller].r));
CHECK_ARRAY_EQUAL (SpatialVector(0.,0.,2.,cos(q[0])*2,-sin(q[0])*2.,0.).data(), model->v[roller].data(), 6); REQUIRE_THAT (SpatialVector(0.,0.,2.,cos(q[0])*2,-sin(q[0])*2.,0.), AllCloseVector(model->v[roller]));
SpatialVector a0(model->a[roller]); SpatialVector a0(model->a[roller]);
SpatialVector v0(model->v[roller]); SpatialVector v0(model->v[roller]);
@ -83,11 +83,10 @@ TEST_FIXTURE ( ScrewJoint1DofFixedBase, UpdateKinematics ) {
v0 = model->v[roller] - v0; v0 = model->v[roller] - v0;
v0 /= epsilon; v0 /= epsilon;
CHECK_ARRAY_CLOSE (a0.data(),v0.data(), 6, 1e-5); //finite diff vs. analytical derivative REQUIRE_THAT (a0, AllCloseVector(v0, 1e-5, 1e-5)); //finite diff vs. analytical derivative
} }
TEST_FIXTURE ( ScrewJoint1DofFixedBase, Jacobians ) { TEST_CASE_METHOD (ScrewJoint1DofFixedBase, __FILE__"_Jacobians", "") {
q[0] = 1; q[0] = 1;
qdot[0] = 0; qdot[0] = 0;
qddot[0] = 9; qddot[0] = 9;
@ -99,7 +98,8 @@ TEST_FIXTURE ( ScrewJoint1DofFixedBase, Jacobians ) {
refPtBaseCoord = CalcBodyToBaseCoordinates(*model, q, roller, refPt); refPtBaseCoord = CalcBodyToBaseCoordinates(*model, q, roller, refPt);
CHECK_ARRAY_EQUAL (Vector3d(1+cos(1), sin(1), 3).data(), refPtBaseCoord.data(), 3);
REQUIRE_THAT (Vector3d(1+cos(1), sin(1), 3), AllCloseVector(refPtBaseCoord));
CalcPointJacobian(*model, q, roller, refPt, GrefPt); CalcPointJacobian(*model, q, roller, refPt, GrefPt);
@ -107,5 +107,5 @@ TEST_FIXTURE ( ScrewJoint1DofFixedBase, Jacobians ) {
Gexpected(1,0) = cos(1); Gexpected(1,0) = cos(1);
Gexpected(2,0) = 0; Gexpected(2,0) = 0;
CHECK_ARRAY_EQUAL (Gexpected.data(), GrefPt.data(), 3); REQUIRE_THAT (Gexpected, AllCloseMatrix(GrefPt));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -17,7 +17,7 @@ using namespace RigidBodyDynamics::Math;
const double TEST_PREC = 1.0e-12; const double TEST_PREC = 1.0e-12;
TEST_FIXTURE (FloatingBase12DoF, TestSparseFactorizationLTL) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestSparseFactorizationLTL", "") {
for (unsigned int i = 0; i < model->q_size; i++) { for (unsigned int i = 0; i < model->q_size; i++) {
Q[i] = static_cast<double> (i + 1) * 0.1; Q[i] = static_cast<double> (i + 1) * 0.1;
} }
@ -30,10 +30,10 @@ TEST_FIXTURE (FloatingBase12DoF, TestSparseFactorizationLTL) {
SparseFactorizeLTL (*model, L); SparseFactorizeLTL (*model, L);
MatrixNd LTL = L.transpose() * L; MatrixNd LTL = L.transpose() * L;
CHECK_ARRAY_CLOSE (H.data(), LTL.data(), model->qdot_size * model->qdot_size, TEST_PREC); REQUIRE_THAT (H, AllCloseMatrix(LTL, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FloatingBase12DoF, TestSparseSolveLx) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestSparseSolveLx", "") {
for (unsigned int i = 0; i < model->q_size; i++) { for (unsigned int i = 0; i < model->q_size; i++) {
Q[i] = static_cast<double> (i + 1) * 0.1; Q[i] = static_cast<double> (i + 1) * 0.1;
} }
@ -48,10 +48,10 @@ TEST_FIXTURE (FloatingBase12DoF, TestSparseSolveLx) {
SparseSolveLx (*model, L, x); SparseSolveLx (*model, L, x);
CHECK_ARRAY_CLOSE (Q.data(), x.data(), model->qdot_size, TEST_PREC); REQUIRE_THAT (Q, AllCloseVector(x, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FloatingBase12DoF, TestSparseSolveLTx) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestSparseSolveLTx", "") {
for (unsigned int i = 0; i < model->q_size; i++) { for (unsigned int i = 0; i < model->q_size; i++) {
Q[i] = static_cast<double> (i + 1) * 0.1; Q[i] = static_cast<double> (i + 1) * 0.1;
} }
@ -66,10 +66,10 @@ TEST_FIXTURE (FloatingBase12DoF, TestSparseSolveLTx) {
SparseSolveLTx (*model, L, x); SparseSolveLTx (*model, L, x);
CHECK_ARRAY_CLOSE (Q.data(), x.data(), model->qdot_size, TEST_PREC); REQUIRE_THAT (Q, AllCloseVector(x, TEST_PREC, TEST_PREC));
} }
TEST_FIXTURE (FixedBase6DoF12DoFFloatingBase, ForwardDynamicsContactsSparse) { TEST_CASE_METHOD (FixedBase6DoF12DoFFloatingBase, __FILE__"_ForwardDynamicsContactsSparse", "") {
ConstraintSet constraint_set_var1; ConstraintSet constraint_set_var1;
constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.)); constraint_set.AddContactConstraint (contact_body_id, contact_point, Vector3d (1., 0., 0.));
@ -108,10 +108,10 @@ TEST_FIXTURE (FixedBase6DoF12DoFFloatingBase, ForwardDynamicsContactsSparse) {
ClearLogOutput(); ClearLogOutput();
ForwardDynamicsConstraintsRangeSpaceSparse (*model, Q, QDot, Tau, constraint_set_var1, QDDot_var1); ForwardDynamicsConstraintsRangeSpaceSparse (*model, Q, QDot, Tau, constraint_set_var1, QDDot_var1);
CHECK_ARRAY_CLOSE (QDDot.data(), QDDot_var1.data(), QDDot.size(), TEST_PREC); REQUIRE_THAT (QDDot, AllCloseVector(QDDot_var1, TEST_PREC, TEST_PREC));
} }
TEST ( TestSparseFactorizationMultiDof) { TEST_CASE (__FILE__"_TestSparseFactorizationMultiDof", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -171,24 +171,24 @@ TEST ( TestSparseFactorizationMultiDof) {
SparseFactorizeLTL (model_emulated, H_emulated); SparseFactorizeLTL (model_emulated, H_emulated);
SparseFactorizeLTL (model_3dof, H_3dof); SparseFactorizeLTL (model_3dof, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
x_emulated = b; x_emulated = b;
SparseSolveLx (model_emulated, H_emulated, x_emulated); SparseSolveLx (model_emulated, H_emulated, x_emulated);
x_3dof = b; x_3dof = b;
SparseSolveLx (model_3dof, H_3dof, x_3dof); SparseSolveLx (model_3dof, H_3dof, x_3dof);
CHECK_ARRAY_CLOSE (x_emulated.data(), x_3dof.data(), x_emulated.size(), 1.0e-9); REQUIRE_THAT (x_emulated, AllCloseVector(x_3dof, 1.0e-9, 1.0e-9));
x_emulated = b; x_emulated = b;
SparseSolveLTx (model_emulated, H_emulated, x_emulated); SparseSolveLTx (model_emulated, H_emulated, x_emulated);
x_3dof = b; x_3dof = b;
SparseSolveLTx (model_3dof, H_3dof, x_3dof); SparseSolveLTx (model_3dof, H_3dof, x_3dof);
CHECK_ARRAY_CLOSE (x_emulated.data(), x_3dof.data(), x_emulated.size(), 1.0e-9); REQUIRE_THAT (x_emulated, AllCloseVector(x_3dof, 1.0e-9, 1.0e-9));
} }
TEST ( TestSparseFactorizationMultiDofAndFixed) { TEST_CASE (__FILE__"_TestSparseFactorizationMultiDofAndFixed", "") {
Model model_emulated; Model model_emulated;
Model model_3dof; Model model_3dof;
@ -250,19 +250,19 @@ TEST ( TestSparseFactorizationMultiDofAndFixed) {
SparseFactorizeLTL (model_emulated, H_emulated); SparseFactorizeLTL (model_emulated, H_emulated);
SparseFactorizeLTL (model_3dof, H_3dof); SparseFactorizeLTL (model_3dof, H_3dof);
CHECK_ARRAY_CLOSE (H_emulated.data(), H_3dof.data(), q.size() * q.size(), TEST_PREC); REQUIRE_THAT (H_emulated, AllCloseMatrix(H_3dof, TEST_PREC, TEST_PREC));
x_emulated = b; x_emulated = b;
SparseSolveLx (model_emulated, H_emulated, x_emulated); SparseSolveLx (model_emulated, H_emulated, x_emulated);
x_3dof = b; x_3dof = b;
SparseSolveLx (model_3dof, H_3dof, x_3dof); SparseSolveLx (model_3dof, H_3dof, x_3dof);
CHECK_ARRAY_CLOSE (x_emulated.data(), x_3dof.data(), x_emulated.size(), 1.0e-9); REQUIRE_THAT (x_emulated, AllCloseVector(x_3dof, 1.0e-9, 1.0e-9));
x_emulated = b; x_emulated = b;
SparseSolveLTx (model_emulated, H_emulated, x_emulated); SparseSolveLTx (model_emulated, H_emulated, x_emulated);
x_3dof = b; x_3dof = b;
SparseSolveLTx (model_3dof, H_3dof, x_3dof); SparseSolveLTx (model_3dof, H_3dof, x_3dof);
CHECK_ARRAY_CLOSE (x_emulated.data(), x_3dof.data(), x_emulated.size(), 1.0e-9); REQUIRE_THAT (x_emulated, AllCloseVector(x_3dof, 1.0e-9, 1.0e-9));
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
#include <iomanip> #include <iomanip>
@ -38,7 +38,7 @@ Vector3d get_translation (const SpatialMatrix &m) {
} }
/// \brief Checks the multiplication of a SpatialMatrix with a SpatialVector /// \brief Checks the multiplication of a SpatialMatrix with a SpatialVector
TEST(TestSpatialMatrixTimesSpatialVector) { TEST_CASE(__FILE__"_TestSpatialMatrixTimesSpatialVector", "") {
SpatialMatrix s_matrix ( SpatialMatrix s_matrix (
1., 0., 0., 0., 0., 7., 1., 0., 0., 0., 0., 7.,
0., 2., 0., 0., 8., 0., 0., 2., 0., 0., 8., 0.,
@ -57,11 +57,12 @@ TEST(TestSpatialMatrixTimesSpatialVector) {
SpatialVector test_result ( SpatialVector test_result (
43., 44., 45., 34., 35., 40. 43., 44., 45., 34., 35., 40.
); );
CHECK_EQUAL (test_result, result); REQUIRE_THAT(test_result, AllCloseVector(result, 0., 0.));
} }
/// \brief Checks the multiplication of a scalar with a SpatialVector /// \brief Checks the multiplication of a scalar with a SpatialVector
TEST(TestScalarTimesSpatialVector) { TEST_CASE(__FILE__"_TestScalarTimesSpatialVector", "") {
SpatialVector s_vector ( SpatialVector s_vector (
1., 2., 3., 4., 5., 6. 1., 2., 3., 4., 5., 6.
); );
@ -71,11 +72,12 @@ TEST(TestScalarTimesSpatialVector) {
SpatialVector test_result(3., 6., 9., 12., 15., 18.); SpatialVector test_result(3., 6., 9., 12., 15., 18.);
CHECK_EQUAL (test_result, result); REQUIRE_THAT (test_result, AllCloseVector(result, 0., 0.));
} }
/// \brief Checks the multiplication of a scalar with a SpatialMatrix /// \brief Checks the multiplication of a scalar with a SpatialMatrix
TEST(TestScalarTimesSpatialMatrix) { TEST_CASE(__FILE__"_TestScalarTimesSpatialMatrix", "") {
SpatialMatrix s_matrix ( SpatialMatrix s_matrix (
1., 0., 0., 0., 0., 7., 1., 0., 0., 0., 0., 7.,
0., 2., 0., 0., 8., 0., 0., 2., 0., 0., 8., 0.,
@ -97,11 +99,12 @@ TEST(TestScalarTimesSpatialMatrix) {
12., 0., 0., 0., 0., 18. 12., 0., 0., 0., 0., 18.
); );
CHECK_EQUAL (test_result, result); REQUIRE_THAT (test_result, AllCloseMatrix(result, 0., 0.));
} }
/// \brief Checks the multiplication of a scalar with a SpatialMatrix /// \brief Checks the multiplication of a scalar with a SpatialMatrix
TEST(TestSpatialMatrixTimesSpatialMatrix) { TEST_CASE(__FILE__"_TestSpatialMatrixTimesSpatialMatrix", "") {
SpatialMatrix s_matrix ( SpatialMatrix s_matrix (
1., 0., 0., 0., 0., 7., 1., 0., 0., 0., 0., 7.,
0., 2., 0., 0., 8., 0., 0., 2., 0., 0., 8., 0.,
@ -123,14 +126,14 @@ TEST(TestSpatialMatrixTimesSpatialMatrix) {
28., 0., 0., 0., 0., 64. 28., 0., 0., 0., 0., 64.
); );
CHECK_EQUAL (test_result, result); REQUIRE_THAT(test_result, AllCloseMatrix(result, 0., 0.));
} }
/// \brief Checks the adjoint method /// \brief Checks the adjoint method
// //
// This method computes a spatial force transformation from a spatial // This method computes a spatial force transformation from a spatial
// motion transformation and vice versa // motion transformation and vice versa
TEST(TestSpatialMatrixTransformAdjoint) { TEST_CASE(__FILE__"_TestSpatialMatrixTransformAdjoint", "") {
SpatialMatrix s_matrix ( SpatialMatrix s_matrix (
1., 2., 3., 4., 5., 6., 1., 2., 3., 4., 5., 6.,
7., 8., 9., 10., 11., 12., 7., 8., 9., 10., 11., 12.,
@ -150,10 +153,10 @@ TEST(TestSpatialMatrixTransformAdjoint) {
10., 11., 12., 28., 29., 30., 10., 11., 12., 28., 29., 30.,
16., 17., 18., 34., 35., 36.); 16., 17., 18., 34., 35., 36.);
CHECK_EQUAL (test_result_matrix, result); REQUIRE_THAT (test_result_matrix, AllCloseMatrix(result, 0., 0.));
} }
TEST(TestSpatialMatrixInverse) { TEST_CASE(__FILE__"_TestSpatialMatrixInverse", "") {
SpatialMatrix s_matrix ( SpatialMatrix s_matrix (
0, 1, 2, 0, 1, 2, 0, 1, 2, 0, 1, 2,
3, 4, 5, 3, 4, 5, 3, 4, 5, 3, 4, 5,
@ -172,10 +175,10 @@ TEST(TestSpatialMatrixInverse) {
2, 5, 8, 2, 5, 8 2, 5, 8, 2, 5, 8
); );
CHECK_EQUAL (test_inv, spatial_inverse(s_matrix)); REQUIRE_THAT (test_inv, AllCloseMatrix(spatial_inverse(s_matrix), 0., 0.));
} }
TEST(TestSpatialMatrixGetRotation) { TEST_CASE(__FILE__"_TestSpatialMatrixGetRotation", "") {
SpatialMatrix spatial_transform ( SpatialMatrix spatial_transform (
1., 2., 3., 0., 0., 0., 1., 2., 3., 0., 0., 0.,
4., 5., 6., 0., 0., 0., 4., 5., 6., 0., 0., 0.,
@ -193,10 +196,10 @@ TEST(TestSpatialMatrixGetRotation) {
7., 8., 9. 7., 8., 9.
); );
CHECK_EQUAL(test_result, rotation); REQUIRE_THAT (test_result, AllCloseMatrix(rotation, 0., 0.));
} }
TEST(TestSpatialMatrixGetTranslation) { TEST_CASE(__FILE__"_TestSpatialMatrixGetTranslation", "") {
SpatialMatrix spatial_transform ( SpatialMatrix spatial_transform (
0., 0., 0., 0., 0., 0., 0., 0., 0., 0., 0., 0.,
0., 0., 0., 0., 0., 0., 0., 0., 0., 0., 0., 0.,
@ -211,10 +214,10 @@ TEST(TestSpatialMatrixGetTranslation) {
1., 2., 3. 1., 2., 3.
); );
CHECK_EQUAL( test_result, translation); REQUIRE_THAT (test_result, AllCloseMatrix(translation, 0., 0.));
} }
TEST(TestSpatialVectorCross) { TEST_CASE(__FILE__"_TestSpatialVectorCross", "") {
SpatialVector s_vec (1., 2., 3., 4., 5., 6.); SpatialVector s_vec (1., 2., 3., 4., 5., 6.);
SpatialMatrix test_cross ( SpatialMatrix test_cross (
@ -227,15 +230,15 @@ TEST(TestSpatialVectorCross) {
); );
SpatialMatrix s_vec_cross (crossm(s_vec)); SpatialMatrix s_vec_cross (crossm(s_vec));
CHECK_EQUAL (test_cross, s_vec_cross); REQUIRE_THAT (test_cross, AllCloseMatrix(s_vec_cross, 0., 0.));
SpatialMatrix s_vec_crossf (crossf(s_vec)); SpatialMatrix s_vec_crossf (crossf(s_vec));
SpatialMatrix test_crossf = -1. * crossm(s_vec).transpose(); SpatialMatrix test_crossf = -1. * crossm(s_vec).transpose();
CHECK_EQUAL (test_crossf, s_vec_crossf); REQUIRE_THAT (test_crossf, AllCloseMatrix(s_vec_crossf, 0., 0.));
} }
TEST(TestSpatialVectorCrossmCrossf) { TEST_CASE(__FILE__"_TestSpatialVectorCrossmCrossf", "") {
SpatialVector s_vec (1., 2., 3., 4., 5., 6.); SpatialVector s_vec (1., 2., 3., 4., 5., 6.);
SpatialVector t_vec (9., 8., 7., 6., 5., 4.); SpatialVector t_vec (9., 8., 7., 6., 5., 4.);
@ -255,11 +258,10 @@ TEST(TestSpatialVectorCrossmCrossf) {
cout << crossf_s_t << endl; cout << crossf_s_t << endl;
*/ */
CHECK_EQUAL (crossm_s_x_t, crossm_s_t); REQUIRE_THAT (crossm_s_x_t, AllCloseVector(crossm_s_t, 0., 0.));
CHECK_EQUAL (crossf_s_x_t, crossf_s_t);
} }
TEST(TestSpatialTransformApply) { TEST_CASE(__FILE__"_TestSpatialTransformApply", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -280,10 +282,10 @@ TEST(TestSpatialTransformApply) {
// cout << (v_66_res - v_st_res).transpose() << endl; // cout << (v_66_res - v_st_res).transpose() << endl;
CHECK_ARRAY_CLOSE (v_66_res.data(), v_st_res.data(), 6, TEST_PREC); REQUIRE_THAT (v_66_res, AllCloseVector(v_st_res, TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformApplyTranspose) { TEST_CASE(__FILE__"_TestSpatialTransformApplyTranspose", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -304,10 +306,10 @@ TEST(TestSpatialTransformApplyTranspose) {
// cout << (v_66_res - v_st_res).transpose() << endl; // cout << (v_66_res - v_st_res).transpose() << endl;
CHECK_ARRAY_CLOSE (v_66_res.data(), v_st_res.data(), 6, TEST_PREC); REQUIRE_THAT (v_66_res, AllCloseVector(v_st_res, TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformApplyAdjoint) { TEST_CASE(__FILE__"_TestSpatialTransformApplyAdjoint", "") {
SpatialTransform X ( SpatialTransform X (
Xrotz (0.5) * Xrotz (0.5) *
Xroty (0.9) * Xroty (0.9) *
@ -321,10 +323,10 @@ TEST(TestSpatialTransformApplyAdjoint) {
SpatialVector f_apply = X.applyAdjoint(f); SpatialVector f_apply = X.applyAdjoint(f);
SpatialVector f_matrix = X_adjoint * f; SpatialVector f_matrix = X_adjoint * f;
CHECK_ARRAY_CLOSE (f_matrix.data(), f_apply.data(), 6, TEST_PREC); REQUIRE_THAT (f_matrix, AllCloseVector(f_apply, TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformToMatrix) { TEST_CASE(__FILE__"_TestSpatialTransformToMatrix", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -338,10 +340,10 @@ TEST(TestSpatialTransformToMatrix) {
// SpatialMatrix X_diff = X_st.toMatrix() - X_matrix; // SpatialMatrix X_diff = X_st.toMatrix() - X_matrix;
// cout << "Error: " << endl << X_diff << endl; // cout << "Error: " << endl << X_diff << endl;
CHECK_ARRAY_CLOSE (X_matrix.data(), X_st.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_matrix, AllCloseMatrix(X_st.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformToMatrixAdjoint) { TEST_CASE(__FILE__"_TestSpatialTransformToMatrixAdjoint", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -355,10 +357,10 @@ TEST(TestSpatialTransformToMatrixAdjoint) {
// SpatialMatrix X_diff = X_st.toMatrixAdjoint() - spatial_adjoint(X_matrix); // SpatialMatrix X_diff = X_st.toMatrixAdjoint() - spatial_adjoint(X_matrix);
// cout << "Error: " << endl << X_diff << endl; // cout << "Error: " << endl << X_diff << endl;
CHECK_ARRAY_CLOSE (spatial_adjoint(X_matrix).data(), X_st.toMatrixAdjoint().data(), 36, TEST_PREC); REQUIRE_THAT (spatial_adjoint(X_matrix), AllCloseMatrix(X_st.toMatrixAdjoint(), TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformToMatrixTranspose) { TEST_CASE(__FILE__"_TestSpatialTransformToMatrixTranspose", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -377,10 +379,10 @@ TEST(TestSpatialTransformToMatrixTranspose) {
// cout << "X_st: " << endl << X_st.toMatrixTranspose() << endl; // cout << "X_st: " << endl << X_st.toMatrixTranspose() << endl;
// cout << "X: " << endl << X_matrix_transposed() << endl; // cout << "X: " << endl << X_matrix_transposed() << endl;
CHECK_ARRAY_CLOSE (X_matrix_transposed.data(), X_st.toMatrixTranspose().data(), 36, TEST_PREC); REQUIRE_THAT (X_matrix_transposed, AllCloseMatrix(X_st.toMatrixTranspose(), TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformMultiply) { TEST_CASE(__FILE__"_TestSpatialTransformMultiply", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -404,10 +406,10 @@ TEST(TestSpatialTransformMultiply) {
// SpatialMatrix X_diff = X_st_res.toMatrix() - X_matrix_res; // SpatialMatrix X_diff = X_st_res.toMatrix() - X_matrix_res;
// cout << "Error: " << endl << X_diff << endl; // cout << "Error: " << endl << X_diff << endl;
CHECK_ARRAY_CLOSE (X_matrix_res.data(), X_st_res.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_matrix_res, AllCloseMatrix(X_st_res.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformMultiplyEqual) { TEST_CASE(__FILE__"_TestSpatialTransformMultiplyEqual", "") {
Vector3d rot (1.1, 1.2, 1.3); Vector3d rot (1.1, 1.2, 1.3);
Vector3d trans (1.1, 1.2, 1.3); Vector3d trans (1.1, 1.2, 1.3);
@ -432,33 +434,33 @@ TEST(TestSpatialTransformMultiplyEqual) {
// SpatialMatrix X_diff = X_st_res.toMatrix() - X_matrix_res; // SpatialMatrix X_diff = X_st_res.toMatrix() - X_matrix_res;
// cout << "Error: " << endl << X_diff << endl; // cout << "Error: " << endl << X_diff << endl;
CHECK_ARRAY_CLOSE (X_matrix_res.data(), X_st_res.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_matrix_res, AllCloseMatrix(X_st_res.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST(TestXrotAxis) { TEST_CASE(__FILE__"_TestXrotAxis", "") {
SpatialTransform X_rotX = Xrotx (M_PI * 0.15); SpatialTransform X_rotX = Xrotx (M_PI * 0.15);
SpatialTransform X_rotX_axis = Xrot (M_PI * 0.15, Vector3d (1., 0., 0.)); SpatialTransform X_rotX_axis = Xrot (M_PI * 0.15, Vector3d (1., 0., 0.));
CHECK_ARRAY_CLOSE (X_rotX.toMatrix().data(), X_rotX_axis.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_rotX.toMatrix(), AllCloseMatrix(X_rotX_axis.toMatrix(), TEST_PREC, TEST_PREC));
// all the other axes // all the other axes
SpatialTransform X_rotX_90 = Xrotx (M_PI * 0.5); SpatialTransform X_rotX_90 = Xrotx (M_PI * 0.5);
SpatialTransform X_rotX_90_axis = Xrot (M_PI * 0.5, Vector3d (1., 0., 0.)); SpatialTransform X_rotX_90_axis = Xrot (M_PI * 0.5, Vector3d (1., 0., 0.));
CHECK_ARRAY_CLOSE (X_rotX_90.toMatrix().data(), X_rotX_90_axis.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_rotX_90.toMatrix(), AllCloseMatrix(X_rotX_90_axis.toMatrix(), TEST_PREC, TEST_PREC));
SpatialTransform X_rotY_90 = Xroty (M_PI * 0.5); SpatialTransform X_rotY_90 = Xroty (M_PI * 0.5);
SpatialTransform X_rotY_90_axis = Xrot (M_PI * 0.5, Vector3d (0., 1., 0.)); SpatialTransform X_rotY_90_axis = Xrot (M_PI * 0.5, Vector3d (0., 1., 0.));
CHECK_ARRAY_CLOSE (X_rotY_90.toMatrix().data(), X_rotY_90_axis.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_rotY_90.toMatrix(), AllCloseMatrix(X_rotY_90_axis.toMatrix(), TEST_PREC, TEST_PREC));
SpatialTransform X_rotZ_90 = Xrotz (M_PI * 0.5); SpatialTransform X_rotZ_90 = Xrotz (M_PI * 0.5);
SpatialTransform X_rotZ_90_axis = Xrot (M_PI * 0.5, Vector3d (0., 0., 1.)); SpatialTransform X_rotZ_90_axis = Xrot (M_PI * 0.5, Vector3d (0., 0., 1.));
CHECK_ARRAY_CLOSE (X_rotZ_90.toMatrix().data(), X_rotZ_90_axis.toMatrix().data(), 36, TEST_PREC); REQUIRE_THAT (X_rotZ_90.toMatrix(), AllCloseMatrix(X_rotZ_90_axis.toMatrix(), TEST_PREC, TEST_PREC));
} }
TEST(TestSpatialTransformApplySpatialRigidBodyInertiaAdd) { TEST_CASE(__FILE__"_TestSpatialTransformApplySpatialRigidBodyInertiaAdd", "") {
SpatialRigidBodyInertia rbi ( SpatialRigidBodyInertia rbi (
1.1, 1.1,
Vector3d (1.2, 1.3, 1.4), Vector3d (1.2, 1.3, 1.4),
@ -477,15 +479,11 @@ TEST(TestSpatialTransformApplySpatialRigidBodyInertiaAdd) {
// cout << "diff = " << endl << // cout << "diff = " << endl <<
// rbi_added.toMatrix() - rbi_matrix_added << endl; // rbi_added.toMatrix() - rbi_matrix_added << endl;
CHECK_ARRAY_CLOSE (
rbi_matrix_added.data(), REQUIRE_THAT (rbi_matrix_added, AllCloseMatrix(rbi_added.toMatrix(), TEST_PREC, TEST_PREC));
rbi_added.toMatrix().data(),
36,
TEST_PREC
);
} }
TEST(TestSpatialTransformApplySpatialRigidBodyInertiaFull) { TEST_CASE(__FILE__"_TestSpatialTransformApplySpatialRigidBodyInertiaFull", "") {
SpatialRigidBodyInertia rbi ( SpatialRigidBodyInertia rbi (
1.1, 1.1,
Vector3d (1.2, 1.3, 1.4), Vector3d (1.2, 1.3, 1.4),
@ -505,15 +503,10 @@ TEST(TestSpatialTransformApplySpatialRigidBodyInertiaFull) {
SpatialRigidBodyInertia rbi_transformed = X.apply (rbi); SpatialRigidBodyInertia rbi_transformed = X.apply (rbi);
SpatialMatrix rbi_matrix_transformed = X.toMatrixAdjoint () * rbi.toMatrix() * X.inverse().toMatrix(); SpatialMatrix rbi_matrix_transformed = X.toMatrixAdjoint () * rbi.toMatrix() * X.inverse().toMatrix();
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (rbi_matrix_transformed, AllCloseMatrix(rbi_transformed.toMatrix(), TEST_PREC, TEST_PREC));
rbi_matrix_transformed.data(),
rbi_transformed.toMatrix().data(),
36,
TEST_PREC
);
} }
TEST(TestSpatialTransformApplyTransposeSpatialRigidBodyInertiaFull) { TEST_CASE(__FILE__"_TestSpatialTransformApplyTransposeSpatialRigidBodyInertiaFull", "") {
SpatialRigidBodyInertia rbi ( SpatialRigidBodyInertia rbi (
1.1, 1.1,
Vector3d (1.2, 1.3, 1.4), Vector3d (1.2, 1.3, 1.4),
@ -533,15 +526,10 @@ TEST(TestSpatialTransformApplyTransposeSpatialRigidBodyInertiaFull) {
SpatialRigidBodyInertia rbi_transformed = X.applyTranspose (rbi); SpatialRigidBodyInertia rbi_transformed = X.applyTranspose (rbi);
SpatialMatrix rbi_matrix_transformed = X.toMatrixTranspose() * rbi.toMatrix() * X.toMatrix(); SpatialMatrix rbi_matrix_transformed = X.toMatrixTranspose() * rbi.toMatrix() * X.toMatrix();
CHECK_ARRAY_CLOSE ( REQUIRE_THAT (rbi_matrix_transformed, AllCloseMatrix(rbi_transformed.toMatrix(), TEST_PREC, TEST_PREC));
rbi_matrix_transformed.data(),
rbi_transformed.toMatrix().data(),
36,
TEST_PREC
);
} }
TEST(TestSpatialRigidBodyInertiaCreateFromMatrix) { TEST_CASE(__FILE__"_TestSpatialRigidBodyInertiaCreateFromMatrix", "") {
double mass = 1.1; double mass = 1.1;
Vector3d com (0., 0., 0.); Vector3d com (0., 0., 0.);
Matrix3d inertia ( Matrix3d inertia (
@ -556,18 +544,18 @@ TEST(TestSpatialRigidBodyInertiaCreateFromMatrix) {
SpatialRigidBodyInertia rbi; SpatialRigidBodyInertia rbi;
rbi.createFromMatrix (spatial_inertia); rbi.createFromMatrix (spatial_inertia);
CHECK_EQUAL (mass, rbi.m); REQUIRE_THAT (mass, IsClose(rbi.m, 0., 0.));
CHECK_ARRAY_EQUAL (Vector3d(mass * com).data(), rbi.h.data(), 3); REQUIRE_THAT (Vector3d(mass * com), AllCloseVector(rbi.h, 0., 0.));
Matrix3d rbi_I_matrix ( Matrix3d rbi_I_matrix (
rbi.Ixx, rbi.Iyx, rbi.Izx, rbi.Ixx, rbi.Iyx, rbi.Izx,
rbi.Iyx, rbi.Iyy, rbi.Izy, rbi.Iyx, rbi.Iyy, rbi.Izy,
rbi.Izx, rbi.Izy, rbi.Izz rbi.Izx, rbi.Izy, rbi.Izz
); );
CHECK_ARRAY_EQUAL (inertia.data(), rbi_I_matrix.data(), 9); REQUIRE_THAT (inertia, AllCloseMatrix(rbi_I_matrix, 0., 0.));
} }
#ifdef USE_SLOW_SPATIAL_ALGEBRA #ifdef USE_SLOW_SPATIAL_ALGEBRA
TEST(TestSpatialLinSolve) { TEST_CASE(__FILE__"_TestSpatialLinSolve", "") {
SpatialVector b (1, 2, 0, 1, 1, 1); SpatialVector b (1, 2, 0, 1, 1, 1);
SpatialMatrix A ( SpatialMatrix A (
1., 2., 3., 0., 0., 0., 1., 2., 3., 0., 0., 0.,
@ -581,6 +569,6 @@ TEST(TestSpatialLinSolve) {
SpatialVector x = SpatialLinSolve (A, b); SpatialVector x = SpatialLinSolve (A, b);
SpatialVector x_test (3.5, -6.5, 3.5, 1, 1, 1); SpatialVector x_test (3.5, -6.5, 3.5, 1, 1, 1);
CHECK_ARRAY_CLOSE (x_test.data(), x.data(), 6, TEST_PREC); REQUIRE_THAT (x_test, AllCloseVector(x, TEST_PREC, TEST_PREC));
} }
#endif #endif

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -181,7 +181,7 @@ Vector3d heel_point (0., 0., 0.);
Vector3d medial_point (0., 0., 0.); Vector3d medial_point (0., 0., 0.);
void init_model (Model* model) { void init_model (Model* model) {
assert (model); REQUIRE (model);
constraint_set_right = ConstraintSet(); constraint_set_right = ConstraintSet();
constraint_set_left = ConstraintSet(); constraint_set_left = ConstraintSet();
@ -272,7 +272,7 @@ void copy_values (T *dest, const T *src, size_t count) {
memcpy (dest, src, count * sizeof (T)); memcpy (dest, src, count * sizeof (T));
} }
TEST ( TestForwardDynamicsConstraintsDirectFootmodel ) { TEST_CASE (__FILE__"_TestForwardDynamicsConstraintsDirectFootmodel", "" ) {
Model* model = new Model; Model* model = new Model;
init_model(model); init_model(model);
@ -335,8 +335,8 @@ TEST ( TestForwardDynamicsConstraintsDirectFootmodel ) {
contact_force[0] = constraint_set_left.force[0]; contact_force[0] = constraint_set_left.force[0];
contact_force[1] = constraint_set_left.force[1]; contact_force[1] = constraint_set_left.force[1];
CHECK_EQUAL (body_id, foot_left_id); REQUIRE (body_id == foot_left_id);
CHECK_EQUAL (contact_point, heel_point); REQUIRE (contact_point == heel_point);
// cout << LogOutput.str() << endl; // cout << LogOutput.str() << endl;
contact_accel_left = CalcPointAcceleration (*model, Q, QDot, QDDot, foot_left_id, heel_point); contact_accel_left = CalcPointAcceleration (*model, Q, QDot, QDDot, foot_left_id, heel_point);
@ -344,12 +344,12 @@ TEST ( TestForwardDynamicsConstraintsDirectFootmodel ) {
// cout << contact_force << endl; // cout << contact_force << endl;
// cout << contact_accel_left << endl; // cout << contact_accel_left << endl;
CHECK_ARRAY_CLOSE (Vector3d (0., 0., 0.).data(), contact_accel_left.data(), 3, TEST_PREC); REQUIRE_THAT (Vector3d (0., 0., 0.), AllCloseVector(contact_accel_left, TEST_PREC, TEST_PREC));
delete model; delete model;
} }
TEST ( TestClearContactsInertiaMatrix ) { TEST_CASE (__FILE__"_TestClearContactsInertiaMatrix", "") {
Model* model = new Model; Model* model = new Model;
init_model(model); init_model(model);
@ -398,7 +398,7 @@ TEST ( TestClearContactsInertiaMatrix ) {
ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_right, QDDot_lag); ForwardDynamicsConstraintsDirect (*model, Q, QDot, Tau, constraint_set_right, QDDot_lag);
ForwardDynamicsContactsKokkevis (*model, Q, QDot, Tau, constraint_set_right, QDDot_aba); ForwardDynamicsContactsKokkevis (*model, Q, QDot, Tau, constraint_set_right, QDDot_aba);
CHECK_ARRAY_CLOSE (QDDot_lag.data(), QDDot_aba.data(), QDDot.size(), TEST_PREC * QDDot_lag.norm()); REQUIRE_THAT (QDDot_lag, AllCloseVector(QDDot_aba, TEST_PREC * QDDot_lag.norm(), TEST_PREC * QDDot_lag.norm()));
delete model; delete model;
} }

View File

@ -1,4 +1,4 @@
#include <UnitTest++.h> #include "rbdl_tests.h"
#include <iostream> #include <iostream>
@ -16,7 +16,7 @@ using namespace std;
using namespace RigidBodyDynamics; using namespace RigidBodyDynamics;
using namespace RigidBodyDynamics::Math; using namespace RigidBodyDynamics::Math;
TEST_FIXTURE(FloatingBase12DoF, TestKineticEnergy) { TEST_CASE_METHOD (FloatingBase12DoF, __FILE__"_TestKineticEnergy", "") {
VectorNd q = VectorNd::Zero(model->q_size); VectorNd q = VectorNd::Zero(model->q_size);
VectorNd qdot = VectorNd::Zero(model->q_size); VectorNd qdot = VectorNd::Zero(model->q_size);
@ -31,10 +31,10 @@ TEST_FIXTURE(FloatingBase12DoF, TestKineticEnergy) {
double kinetic_energy_ref = 0.5 * qdot.transpose() * H * qdot; double kinetic_energy_ref = 0.5 * qdot.transpose() * H * qdot;
double kinetic_energy = Utils::CalcKineticEnergy (*model, q, qdot); double kinetic_energy = Utils::CalcKineticEnergy (*model, q, qdot);
CHECK_EQUAL (kinetic_energy_ref, kinetic_energy); REQUIRE (kinetic_energy_ref == kinetic_energy);
} }
TEST(TestPotentialEnergy) { TEST_CASE (__FILE__"_TestPotentialEnergy", "") {
Model model; Model model;
Matrix3d inertia = Matrix3d::Zero(3,3); Matrix3d inertia = Matrix3d::Zero(3,3);
Body body (0.5, Vector3d (0., 0., 0.), inertia); Body body (0.5, Vector3d (0., 0., 0.), inertia);
@ -48,14 +48,14 @@ TEST(TestPotentialEnergy) {
VectorNd q = VectorNd::Zero(model.q_size); VectorNd q = VectorNd::Zero(model.q_size);
double potential_energy_zero = Utils::CalcPotentialEnergy (model, q); double potential_energy_zero = Utils::CalcPotentialEnergy (model, q);
CHECK_EQUAL (0., potential_energy_zero); REQUIRE (0. == potential_energy_zero);
q[1] = 1.; q[1] = 1.;
double potential_energy_lifted = Utils::CalcPotentialEnergy (model, q); double potential_energy_lifted = Utils::CalcPotentialEnergy (model, q);
CHECK_EQUAL (4.905, potential_energy_lifted); REQUIRE (4.905 == potential_energy_lifted);
} }
TEST(TestCOMSimple) { TEST_CASE (__FILE__"_TestCOMSimple", "") {
Model model; Model model;
Matrix3d inertia = Matrix3d::Zero(3,3); Matrix3d inertia = Matrix3d::Zero(3,3);
Body body (123., Vector3d (0., 0., 0.), inertia); Body body (123., Vector3d (0., 0., 0.), inertia);
@ -75,22 +75,22 @@ TEST(TestCOMSimple) {
Vector3d com_velocity; Vector3d com_velocity;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity);
CHECK_EQUAL (123., mass); REQUIRE (123. == mass);
CHECK_EQUAL (Vector3d (0., 0., 0.), com); REQUIRE (Vector3d (0., 0., 0.) == com);
CHECK_EQUAL (Vector3d (0., 0., 0.), com_velocity); REQUIRE (Vector3d (0., 0., 0.) == com_velocity);
q[1] = 1.; q[1] = 1.;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity);
CHECK_EQUAL (Vector3d (0., 1., 0.), com); REQUIRE (Vector3d (0., 1., 0.) == com);
CHECK_EQUAL (Vector3d (0., 0., 0.), com_velocity); REQUIRE (Vector3d (0., 0., 0.) == com_velocity);
qdot[1] = 1.; qdot[1] = 1.;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, &com_velocity);
CHECK_EQUAL (Vector3d (0., 1., 0.), com); REQUIRE (Vector3d (0., 1., 0.) == com);
CHECK_EQUAL (Vector3d (0., 1., 0.), com_velocity); REQUIRE (Vector3d (0., 1., 0.) == com_velocity);
} }
TEST(TestAngularMomentumSimple) { TEST_CASE (__FILE__"_TestAngularMomentumSimple", "") {
Model model; Model model;
Matrix3d inertia = Matrix3d::Zero(3,3); Matrix3d inertia = Matrix3d::Zero(3,3);
inertia(0,0) = 1.1; inertia(0,0) = 1.1;
@ -115,25 +115,25 @@ TEST(TestAngularMomentumSimple) {
qdot << 1., 0., 0.; qdot << 1., 0., 0.;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
CHECK_EQUAL (Vector3d (1.1, 0., 0.), angular_momentum); REQUIRE (Vector3d (1.1, 0., 0.) == angular_momentum);
qdot << 0., 1., 0.; qdot << 0., 1., 0.;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
CHECK_EQUAL (Vector3d (0., 2.2, 0.), angular_momentum); REQUIRE (Vector3d (0., 2.2, 0.) == angular_momentum);
qdot << 0., 0., 1.; qdot << 0., 0., 1.;
Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
CHECK_EQUAL (Vector3d (0., 0., 3.3), angular_momentum); REQUIRE (Vector3d (0., 0., 3.3) == angular_momentum);
} }
TEST_FIXTURE (TwoArms12DoF, TestAngularMomentumSimple) { TEST_CASE_METHOD (TwoArms12DoF, __FILE__"_TestAngularMomentumSimple2", "") {
double mass; double mass;
Vector3d com; Vector3d com;
Vector3d angular_momentum; Vector3d angular_momentum;
Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
CHECK_EQUAL (Vector3d (0., 0., 0.), angular_momentum); REQUIRE (Vector3d (0., 0., 0.) == angular_momentum);
qdot[0] = 1.; qdot[0] = 1.;
qdot[1] = 2.; qdot[1] = 2.;
@ -142,7 +142,7 @@ TEST_FIXTURE (TwoArms12DoF, TestAngularMomentumSimple) {
Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
// only a rough guess from test calculation // only a rough guess from test calculation
CHECK_ARRAY_CLOSE (Vector3d (3.3, 2.54, 1.5).data(), angular_momentum.data(), 3, 1.0e-1); REQUIRE_THAT (Vector3d (3.3, 2.54, 1.5), AllCloseVector(angular_momentum, 1.0e-1, 1.0e-1));
qdot[3] = -qdot[0]; qdot[3] = -qdot[0];
qdot[4] = -qdot[1]; qdot[4] = -qdot[1];
@ -151,9 +151,9 @@ TEST_FIXTURE (TwoArms12DoF, TestAngularMomentumSimple) {
ClearLogOutput(); ClearLogOutput();
Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum); Utils::CalcCenterOfMass (*model, q, qdot, NULL, mass, com, NULL, NULL, &angular_momentum);
CHECK (angular_momentum[0] == 0); REQUIRE (angular_momentum[0] == 0);
CHECK (angular_momentum[1] < 0); REQUIRE (angular_momentum[1] < 0);
CHECK (angular_momentum[2] == 0.); REQUIRE (angular_momentum[2] == 0.);
} }
template <typename T> template <typename T>
@ -183,36 +183,24 @@ void TestCoMComputation (
NULL, NULL NULL, NULL
); );
CHECK_CLOSE (mass_expected, mass_actual, 1e-7); REQUIRE_THAT (mass_expected, IsClose(mass_actual, 1e-7, 1e-7));
return; return;
} }
TEST_FIXTURE( TEST_CASE_METHOD (LinearInvertedPendulumModel, __FILE__"_TestCoMComputationLinearInvertedPendulumModel", "") {
LinearInvertedPendulumModel,
TestCoMComputationLinearInvertedPendulumModel
) {
TestCoMComputation (*this); TestCoMComputation (*this);
} }
TEST_FIXTURE( TEST_CASE_METHOD (FixedJoint2DoF, __FILE__"_TestCoMComputationFixedJoint2DoF", "") {
FixedJoint2DoF,
TestCoMComputationFixedJoint2DoF
) {
TestCoMComputation (*this); TestCoMComputation (*this);
} }
TEST_FIXTURE( TEST_CASE_METHOD (FixedBase6DoF12DoFFloatingBase, __FILE__"_TestCoMComputationFixedBase6DoF12DoFFloatingBase", "") {
FixedBase6DoF12DoFFloatingBase,
TestCoMComputationFixedBase6DoF12DoFFloatingBase
) {
TestCoMComputation (*this); TestCoMComputation (*this);
} }
TEST_FIXTURE( TEST_CASE_METHOD (Human36, __FILE__"_TestCoMComputationHuman36", "") {
Human36,
TestCoMComputationHuman36
) {
TestCoMComputation (*this); TestCoMComputation (*this);
} }
@ -261,30 +249,21 @@ void TestCoMAccelerationUsingFD (
ch_ang_mom_fd = (ch_ang_mom_fd - ang_mom) / EPS; ch_ang_mom_fd = (ch_ang_mom_fd - ang_mom) / EPS;
// check CoM acceleration // check CoM acceleration
CHECK_ARRAY_CLOSE (com_acc_nom.data(), com_acc_fd.data(), 3, TOL); REQUIRE_THAT (com_acc_nom, AllCloseVector(com_acc_fd, TOL, TOL));
CHECK_ARRAY_CLOSE (ch_ang_mom_nom.data(), ch_ang_mom_fd.data(), 3, TOL); REQUIRE_THAT (ch_ang_mom_nom, AllCloseVector(ch_ang_mom_fd, TOL, TOL));
return; return;
} }
TEST_FIXTURE( TEST_CASE_METHOD (LinearInvertedPendulumModel, __FILE__"_TestCoMAccelerationUsingFDLinearInvertedPendulumModel", "") {
LinearInvertedPendulumModel,
TestCoMAccelerationUsingFDLinearInvertedPendulumModel
) {
TestCoMAccelerationUsingFD (*this, 1e-8); TestCoMAccelerationUsingFD (*this, 1e-8);
} }
TEST_FIXTURE( TEST_CASE_METHOD (FixedJoint2DoF, __FILE__"_TestCoMAccelerationUsingFDFixedJoint2DoF", "") {
FixedJoint2DoF,
TestCoMAccelerationUsingFDFixedJoint2DoF
) {
TestCoMAccelerationUsingFD (*this, 1e-7); TestCoMAccelerationUsingFD (*this, 1e-7);
} }
TEST_FIXTURE( TEST_CASE_METHOD (FixedBase6DoF12DoFFloatingBase, __FILE__"_TestCoMAccelerationUsingFDFixedBase6DoF12DoFFloatingBase", "") {
FixedBase6DoF12DoFFloatingBase,
TestCoMAccelerationUsingFDFixedBase6DoF12DoFFloatingBase
) {
TestCoMAccelerationUsingFD (*this, 1e-6); TestCoMAccelerationUsingFD (*this, 1e-6);
} }
@ -321,15 +300,12 @@ void TestZMPComputationForNotMovingSystem(
com = com - distance * obj.contact_normal; com = com - distance * obj.contact_normal;
// check ZMP against CoM // check ZMP against CoM
CHECK_ARRAY_CLOSE (com.data(), zmp.data(), 3, TOL); REQUIRE_THAT (com, AllCloseVector(zmp, TOL, TOL));
return; return;
} }
TEST_FIXTURE( TEST_CASE_METHOD (LinearInvertedPendulumModel, __FILE__"_TestZMPComputationForNotMovingSystemLinearInvertedPendulumModel", "") {
LinearInvertedPendulumModel,
TestZMPComputationForNotMovingSystemLinearInvertedPendulumModel
) {
TestZMPComputationForNotMovingSystem (*this, 1e-8); TestZMPComputationForNotMovingSystem (*this, 1e-8);
} }
@ -365,14 +341,11 @@ void TestZMPComputationAgainstTableCartModel(
); );
// check ZMP against CoM // check ZMP against CoM
CHECK_ARRAY_CLOSE (com.data(), zmp.data(), 3, TOL); REQUIRE_THAT (com, AllCloseVector(zmp, TOL, TOL));
return; return;
} }
TEST_FIXTURE( TEST_CASE_METHOD (LinearInvertedPendulumModel, __FILE__"_TestZMPComputationAgainstTableCartModelLinearInvertedPendulumModel", "") {
LinearInvertedPendulumModel,
TestZMPComputationAgainstTableCartModelLinearInvertedPendulumModel
) {
TestZMPComputationAgainstTableCartModel (*this, 1e-8); TestZMPComputationAgainstTableCartModel (*this, 1e-8);
} }

View File

@ -1,4 +1,6 @@
#include <UnitTest++.h> #define CATCH_CONFIG_RUNNER
#include "catch.hpp"
#include <iostream> #include <iostream>
#include <string> #include <string>
@ -15,5 +17,5 @@ int main (int argc, char *argv[])
rbdl_print_version(); rbdl_print_version();
} }
return UnitTest::RunAllTests (); return Catch::Session().run(argc, argv);
} }

View File

@ -9,7 +9,7 @@ project (rbdlsim
find_package(Threads) find_package(Threads)
# RBDL # RBDL
set(RBDL_USE_SIMPLE_MATH On) set(RBDL_USE_SIMPLE_MATH TRUE)
add_subdirectory (3rdparty/rbdl) add_subdirectory (3rdparty/rbdl)
# libccd # libccd