void AI::updateSteer(AI_Car *c)
{
c->steerlook.clear();
const BEZIER *curr_patch_ptr = GetCurrentPatch(c->car);
//if car has no contact with track, just let it roll
if (!curr_patch_ptr)
{
if (!c->last_patch) return;
//if car is off track, steer the car towards the last patch it was on
//this should get the car back on track
else curr_patch_ptr = c->last_patch;
}
c->last_patch = curr_patch_ptr; //store the last patch car was on
BEZIER curr_patch = RevisePatch(curr_patch_ptr, c->use_racingline);
#ifdef VISUALIZE_AI_DEBUG
c->steerlook.push_back(curr_patch);
#endif
//if there is no next patch (probably a non-closed track), let it roll
if (!curr_patch.next_patch) return;
BEZIER next_patch = RevisePatch(curr_patch.next_patch, c->use_racingline);
//find the point to steer towards
float track_width = GetPatchWidthVector(curr_patch).Magnitude();
float lookahead = track_width * LOOKAHEAD_FACTOR1 +
c->car->GetVelocity().Magnitude() * LOOKAHEAD_FACTOR2;
lookahead = 1.0;
float length = 0.0;
MATHVECTOR <float, 3> dest_point = GetPatchFrontCenter(next_patch);
while (length < lookahead)
{
#ifdef VISUALIZE_AI_DEBUG
c->steerlook.push_back(next_patch);
#endif
length += GetPatchDirection(next_patch).Magnitude()*2.0;
dest_point = GetPatchFrontCenter(next_patch);
//if there is no next patch for whatever reason, stop lookahead
if (!next_patch.next_patch)
{
length = lookahead;
break;
}
next_patch = RevisePatch(next_patch.next_patch, c->use_racingline);
//if next patch is a very sharp corner, stop lookahead
if (GetPatchRadius(next_patch) < LOOKAHEAD_MIN_RADIUS)
{
length = lookahead;
break;
}
}
MATHVECTOR <float, 3> next_position = TransformToWorldspace(dest_point);
MATHVECTOR <float, 3> car_position = c->car->GetCenterOfMassPosition();
MATHVECTOR <float, 3> car_orientation = direction::Forward;
(c->car->GetOrientation()).RotateVector(car_orientation);
MATHVECTOR <float, 3> desire_orientation = next_position - car_position;
//car's direction on the horizontal plane
car_orientation[2] = 0;
//desired direction on the horizontal plane
desire_orientation[2] = 0;
car_orientation = car_orientation.Normalize();
desire_orientation = desire_orientation.Normalize();
//the angle between car's direction and unit y vector (forward direction)
double alpha = Angle(car_orientation[0], car_orientation[1]);
//the angle between desired direction and unit y vector (forward direction)
double beta = Angle(desire_orientation[0], desire_orientation[1]);
//calculate steering angle and direction
double angle = beta - alpha;
//angle += steerAwayFromOthers(c, dt, othercars, angle); //sum in traffic avoidance bias
if (angle > -360.0 && angle <= -180.0)
angle = -(360.0 + angle);
else if (angle > -180.0 && angle <= 0.0)
angle = - angle;
else if (angle > 0.0 && angle <= 180.0)
angle = - angle;
else if (angle > 180.0 && angle <= 360.0)
angle = 360.0 - angle;
float optimum_range = c->car->GetOptimumSteeringAngle();
angle = clamp(angle, -optimum_range, optimum_range);
float steer_value = angle / c->car->GetMaxSteeringAngle();
if (steer_value > 1.0) steer_value = 1.0;
else if (steer_value < -1.0) steer_value = -1.0;
assert(!isnan(steer_value));
c->inputs[CARINPUT::STEER_RIGHT] = steer_value;
}
double ON_AngularDimension::NumericValue()
{
return Angle() * 180.0 / ON_PI;
}
bool
PlaneGeometry::IsParallel( const PlaneGeometry *plane ) const
{
return ( (Angle(plane) < 10.0 * mitk::sqrteps ) || ( Angle(plane) > ( vnl_math::pi - 10.0 * sqrteps ) ) ) ;
}
// -----------------------------------------------------------------------------
Angle Angle::operator -() const
{
return Angle(-this->mRadian);
}
// -----------------------------------------------------------------------------
Angle Angle::operator - ( const Angle& angle) const
{
return Angle(*this) -= angle;
}
Angle Angle::fromRadians(float radians) {
return Angle(Common::rad2deg(radians));
}
// -----------------------------------------------------------------------------
Angle Angle::FromRadians(const float radians)
{
return Angle(radians);
}
BIT_API Angle Radians( const Float64 & p_Radians )
{
return Angle( p_Radians );
}
anArrowAspect->SetLength (myArrowLength);
gp_Pnt aLastPoint = myPnt;
aLastPoint.Translate (myLength*gp_Vec(myDir));
// Draw Line
Handle(Graphic3d_ArrayOfSegments) aPrims = new Graphic3d_ArrayOfSegments (2);
aPrims->AddVertex (myPnt);
aPrims->AddVertex (aLastPoint);
Prs3d_Root::CurrentGroup (aPresentation)->SetPrimitivesAspect (myDrawer->LineAspect()->Aspect());
Prs3d_Root::CurrentGroup (aPresentation)->AddPrimitiveArray (aPrims);
// Draw arrow
Prs3d_Arrow::Draw (aPresentation,
aLastPoint,
myDir,
anArrowAspect->Angle(),
anArrowAspect->Length());
// Draw text
if (myText.Length() != 0)
{
gp_Pnt aTextPosition = aLastPoint;
Prs3d_Text::Draw (aPresentation,
myDrawer->TextAspect(),
myText,
aTextPosition);
}
}
void ISession_Direction::Compute (const Handle(Prs3d_Projector)& /*aProjector*/,
BodyDescription::BodyDescription(const PhysicsContext &pc, const std::string &resource_id, const XMLResourceDocument &resources)
: impl(new BodyDescription_Impl(pc.impl->get_owner()))
{
/* example resource entry with all parameters:
<body2d name="TestBody" type="static">
<position x="0" y="0"/>
<rotation angle="180"/>
<velocity x="0" y="0" angular="0"/>
<damping linear="0" angular="0"/>
<parameters awake="true" can_sleep="true" bullet="false" active="true" />
</body2d>
*/
XMLResourceNode resource = resources.get_resource(resource_id);
if (resource.get_type() != "body2d" && resource.get_type() != "body2d_description")
throw Exception(string_format("Resource '%1' is not of type 'body2d' or 'body2d_description'", resource_id));
DomNode cur_node = resource.get_element().get_first_child();
//Body type
std::string body_type = resource.get_element().get_attribute("type","static");
if(body_type == "kinematic") set_type(body_kinematic);
else if(body_type == "dynamic") set_type(body_dynamic);
else set_type(body_static);
while(!cur_node.is_null())
{
if (!cur_node.is_element())
continue;
DomElement cur_element = cur_node.to_element();
std::string tag_name = cur_element.get_tag_name();
//<position x="0" y="0"/>
if(tag_name == "position")
{
float pos_x = 0.0f;
float pos_y = 0.0f;
if(cur_element.has_attribute("x"))
{
pos_x = StringHelp::text_to_float(cur_element.get_attribute("x"));
}
if(cur_element.has_attribute("y"))
{
pos_y = StringHelp::text_to_float(cur_element.get_attribute("y"));
}
set_position(pos_x, pos_y);
}
//<rotation angle="180"/>
else if(tag_name == "rotation")
{
Angle angle(0.0f, angle_degrees);
if(cur_element.has_attribute("angle"))
{
angle = Angle(StringHelp::text_to_float(cur_element.get_attribute("angle")), angle_degrees);
}
set_angle(angle);
}
//<velocity x="0" y="0" angular="0"/>
else if(tag_name == "velocity")
{
Vec2f velocity(0.0f, 0.0f);
Angle angular_velocity(0.0f, angle_degrees);
if(cur_element.has_attribute("x"))
{
velocity.x = StringHelp::text_to_float(cur_element.get_attribute("x"));
}
if(cur_element.has_attribute("y"))
{
velocity.y = StringHelp::text_to_float(cur_element.get_attribute("y"));
}
if(cur_element.has_attribute("angular"))
{
angular_velocity = Angle(StringHelp::text_to_float(cur_element.get_attribute("angular")), angle_degrees);
}
set_linear_velocity(velocity);
set_angular_velocity(angular_velocity);
}
//<damping linear="0" angular="0"/>
else if(tag_name == "damping")
{
float linear;
float angular;
if(cur_element.has_attribute("linear"))
{
linear = StringHelp::text_to_float(cur_element.get_attribute("linear"));
}
if(cur_element.has_attribute("angular"))
{
angular = StringHelp::text_to_float(cur_element.get_attribute("angular"));
}
set_linear_damping(linear);
set_angular_damping(angular);
}
//<parameters awake="true" can_sleep="true" bullet="false" active="true" />
else if(tag_name == "parameters")
{
bool value;
if(cur_element.has_attribute("awake"))
{
value = true;
value = StringHelp::text_to_bool(cur_element.get_attribute("awake"));
set_awake(value);
}
if(cur_element.has_attribute("active"))
{
value = true;
value = StringHelp::text_to_bool(cur_element.get_attribute("active"));
set_active(value);
}
if(cur_element.has_attribute("bullet"))
{
value = false;
value = StringHelp::text_to_bool(cur_element.get_attribute("bullet"));
set_as_bullet(value);
}
if(cur_element.has_attribute("can_sleep"))
{
value = true;
value = StringHelp::text_to_bool(cur_element.get_attribute("can_sleep"));
allow_sleep(value);
}
}
cur_node = cur_node.get_next_sibling();
}
}
BIT_API Angle Degrees( const Float64 & p_Degrees )
{
return Angle( p_Degrees * Pi / 180.0f );
}
AngleInt( iXY &vec )
{
angle_int = Angle(vec).DegreesInt();
}
AngleInt( long x, long y)
{
angle_int = Angle(x,y).DegreesInt();
}
void Inertie::upBones()
{
_bones.angle[Bones::FOOT1] = Angle(MGRAD_CAP(MTIME * 3, -80, 50), 0);
_bones.angle[Bones::FOOT2] = Angle(MGRAD_CAP(MTIME * 4, -80, 50), 0);
_bones.angle[Bones::KNEE1] = Angle(MGRAD_CAP(MTIME, -35, 30), 0);
_bones.angle[Bones::KNEE2] = Angle(MGRAD_CAP(MTIME, -65, 30), 0);
_bones.angle[Bones::HAND1] = Angle(MGRAD_CAP(MTIME * 3, 10, 50), 0);
_bones.angle[Bones::ELBOW1] = Angle(MGRAD_CAP(MTIME, 195, 30), 0);
if (_player[THROW_SHURIKEN]->val())
{
_bones.angle[Bones::HAND2] = Angle(MGRAD_CAP(MTIME * 4, 10, 50), 0);
_bones.angle[Bones::ELBOW2] = Angle(MGRAD_CAP(MTIME, 225, 30), 0);
}
_bones.angle[Bones::HEAD] = Angle(-40, 0);
_bones.angle[Bones::BODY] = Angle(-80, 0);
_bones.angle[Bones::BODY] = Angle(60 - _player.sy() * 20 +
MGRAD_CAP(MTIME / 4, -60, 20), 0);
//std::cout << MGRAD_CAP(MTIME / 4, -60, 20) << std::endl;
}
float RotatingLineList::CurrentAngle() {
return Angle(centerx, centery, trackx, tracky);
}
Angle Vec3<Type>::angle(const Vec3<Type>& v) const
{
return Angle(acosf(float(dot(v) / (length()*v.length()))), angle_radians);
}
bool DSN6File::readHeader()
throw()
{
// first read the complete 512 bytes of header information
char header[512];
std::fstream::read(header, 512);
if (gcount() != 512)
{
Log.error() << "DSN6File::readHeader(): File does not contain a proper DSN6 header. Aborting read." << std::endl;
return false;
}
// to determine whether we have to swap bytes in the header (depending on the version of
// the DSN6 - File and on the byte order on the machine) we try to reproduce the known value
// of 100 in header[2*18]
short int header_value = readHeaderValue_(header, 18);
if (header_value != 100)
{
// try to change endianness
swap_bytes_ = true;
header_value = readHeaderValue_(header, 18);
if (header_value != 100)
{
Log.error() << "DSN6File::readHeader(): Corrupt DSN6 header: header[16] != 100. Aborting read." << std::endl;
return false;
}
}
header_value = readHeaderValue_(header, 0);
start_.x = (float)header_value;
header_value = readHeaderValue_(header, 1);
start_.y = (float)header_value;
header_value = readHeaderValue_(header, 2);
start_.z = (float)header_value;
header_value = readHeaderValue_(header, 3);
extent_.x = (float)header_value;
header_value = readHeaderValue_(header, 4);
extent_.y = (float)header_value;
header_value = readHeaderValue_(header, 5);
extent_.z = (float)header_value;
header_value = readHeaderValue_(header, 6);
sampling_rate_.x = (float)header_value;
header_value = readHeaderValue_(header, 7);
sampling_rate_.y = (float)header_value;
header_value = readHeaderValue_(header, 8);
sampling_rate_.z = (float)header_value;
header_value = readHeaderValue_(header, 17);
cell_scaling_ = (float)header_value;
header_value = readHeaderValue_(header, 9);
crystal_dimension_.x = (float)header_value / (cell_scaling_ * sampling_rate_.x);
header_value = readHeaderValue_(header, 10);
crystal_dimension_.y = (float)header_value / (cell_scaling_ * sampling_rate_.y);
header_value = readHeaderValue_(header, 11);
crystal_dimension_.z = (float)header_value / (cell_scaling_ * sampling_rate_.z);
header_value = readHeaderValue_(header, 12);
alpha_ = Angle((float)header_value / cell_scaling_, false);
header_value = readHeaderValue_(header, 13);
beta_ = Angle((float)header_value / cell_scaling_, false);
header_value = readHeaderValue_(header, 14);
gamma_ = Angle((float)header_value / cell_scaling_, false);
header_value = readHeaderValue_(header, 15);
prod_ = (float)header_value / 100.;
header_value = readHeaderValue_(header, 16);
plus_ = (float)header_value;
// convert from grid space to cartesian coordinates (inspired by the VMD code :-) )
Vector3 x_tmp(crystal_dimension_.x, 0., 0.);
Vector3 y_tmp(cos(gamma_.toRadian()), sin(gamma_.toRadian()), 0.);
y_tmp *= crystal_dimension_.y;
Vector3 z_tmp( cos(beta_.toRadian()),
(cos(alpha_.toRadian()) - cos(beta_.toRadian())*cos(gamma_.toRadian())) / sin(gamma_.toRadian()),
0.);
z_tmp.z = sqrt(1.0 - z_tmp.x*z_tmp.x - z_tmp.y*z_tmp.y);
z_tmp *= crystal_dimension_.z;
origin_.x = x_tmp.x * start_.x + y_tmp.x * start_.y + z_tmp.x * start_.z;
origin_.y = y_tmp.y * start_.y + z_tmp.y * start_.z;
origin_.z = z_tmp.z * start_.z;
xaxis_.x = x_tmp.x * (extent_.x - 1);
xaxis_.y = 0.;
xaxis_.z = 0.;
yaxis_.x = y_tmp.x * (extent_.y - 1);
yaxis_.y = y_tmp.y * (extent_.y - 1);
yaxis_.z = 0.;
zaxis_.x = z_tmp.x * (extent_.z - 1);
zaxis_.y = z_tmp.y * (extent_.z - 1);
zaxis_.z = z_tmp.z * (extent_.z - 1);
// that's it. we're done
return true;
}
Angle Vec3<Type>::angle_normed(const Vec3<Type>& v) const
{
return Angle(acosf(float(dot(v))), angle_radians);
}
// -----------------------------------------------------------------------------
Angle Angle::FromDegrees(const float degrees)
{
return Angle(ConvertToRadians (degrees));
}
void TestApp::test_vector2(void)
{
Console::write_line(" Header: cl_vector.h");
Console::write_line(" Class: Vec2");
Console::write_line(" Function: rotate()");
{
Vec2i test_a;
Vec2i hotspot(1,3);
test_a = Vec2i(4,5);
test_a.rotate(hotspot, Angle(0, angle_degrees));
if (test_a != Vec2i(4, 5)) fail();
test_a = Vec2i(4,5);
test_a.rotate(hotspot, Angle(90, angle_degrees));
if (test_a != Vec2i(-1, 6)) fail();
test_a = Vec2i(4,5);
test_a.rotate(hotspot, Angle(180, angle_degrees));
if (test_a != Vec2i(-2, 1)) fail();
test_a = Vec2i(4,5);
test_a.rotate(hotspot, Angle(270, angle_degrees));
if (test_a != Vec2i(3, 0)) fail();
test_a = Vec2i(4,5);
test_a.rotate(hotspot, Angle(360, angle_degrees));
if (test_a != Vec2i(4, 5)) fail();
test_a = Vec2i(4,5);
test_a.rotate(Vec2i(0,0), Angle(180, angle_degrees));
if (test_a != Vec2i(-4, -5)) fail();
}
Console::write_line(" Function: distance()");
{
Vec2d test_a(2.0,3.0);
Vec2d test_b(3.0,4.0);
if (test_a.distance(test_b) != sqrt(1.0 + 1.0 )) fail();
}
Console::write_line(" Function: normalize()");
{
Vec2d testi(3.0,4.0);
testi.normalize();
if (testi != Vec2d(3.0/sqrt(25.0), 4.0/sqrt(25.0))) fail();
}
Console::write_line(" Function: static normalize()");
{
Vec2d testi(3.0,4.0);
if (Vec2d::normalize(testi) != Vec2d(3.0/sqrt(25.0), 4.0/sqrt(25.0))) fail();
}
Console::write_line(" Function: length()");
{
Vec2d testi(3.0,4.0);
if (testi.length() != sqrt(25.0 )) fail();
}
Console::write_line(" Function: dot()");
{
Vec2d test_a(3.0,4.0);
Vec2d test_b(13.0,14.0);
if (test_a.dot(test_b) != ((3.0 * 13.0)+ (4.0*14.0))) fail();
}
Console::write_line(" Function: operator += (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd += Vec2d(1.0, 2.0);
if (testd.x != 3.5) fail();
if (testd.y != 5.5) fail();
Vec2i testi(2, 3);
testi += Vec2i(1, 2);
if (testi.x != 3) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator += ( Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd += valued;
if (testd.x != 4.5) fail();
if (testd.y != 5.5) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi += valuei;
if (testi.x != 4) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator + (Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd = testd + valued;
if (testd.x != 4.5) fail();
if (testd.y != 5.5) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi = testi + valuei;
if (testi.x != 4) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator + (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd = testd + Vec2d(1.5, 2.5);
if (testd.x != 4.0) fail();
if (testd.y != 6.0) fail();
Vec2i testi(2, 3);
testi = testi + Vec2i(1, 2);
if (testi.x != 3) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator -= (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd -= Vec2d(1.0, 2.0);
if (testd.x != 1.5) fail();
if (testd.y != 1.5) fail();
Vec2i testi(2, 3);
testi -= Vec2i(1, 2);
if (testi.x != 1) fail();
if (testi.y != 1) fail();
}
Console::write_line(" Function: operator -= ( Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd -= valued;
if (testd.x != 0.5) fail();
if (testd.y != 1.5) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi -= valuei;
if (testi.x != 0) fail();
if (testi.y != 1) fail();
}
Console::write_line(" Function: operator - (Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd = testd - valued;
if (testd.x != 0.5) fail();
if (testd.y != 1.5) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi = testi - valuei;
if (testi.x != 0) fail();
if (testi.y != 1) fail();
}
Console::write_line(" Function: operator - (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd = testd - Vec2d(1.5, 2.5);
if (testd.x != 1.0) fail();
if (testd.y != 1.0) fail();
Vec2i testi(2, 3);
testi = testi - Vec2i(1, 2);
if (testi.x != 1) fail();
if (testi.y != 1) fail();
}
Console::write_line(" Function: operator *= (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd *= Vec2d(1.0, 2.0);
if (testd.x != 2.5) fail();
if (testd.y != 7.0) fail();
Vec2i testi(2, 3);
testi *= Vec2i(1, 2);
if (testi.x != 2) fail();
if (testi.y != 6) fail();
}
Console::write_line(" Function: operator *= ( Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd *= valued;
if (testd.x != 5.0) fail();
if (testd.y != 7.0) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi *= valuei;
if (testi.x != 4) fail();
if (testi.y != 6) fail();
}
Console::write_line(" Function: operator * (Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd = testd * valued;
if (testd.x != 5.0) fail();
if (testd.y != 7.0) fail();
Vec2i testi(2, 3);
int valuei = 2;
testi = testi * valuei;
if (testi.x != 4) fail();
if (testi.y != 6) fail();
}
Console::write_line(" Function: operator * (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd = testd * Vec2d(1.5, 2.5);
if (testd.x != 3.75) fail();
if (testd.y != 8.75) fail();
Vec2i testi(2, 3);
testi = testi * Vec2i(1, 2);
if (testi.x != 2) fail();
if (testi.y != 6) fail();
}
Console::write_line(" Function: operator /= (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd /= Vec2d(1.0, 2.0);
if (testd.x != 2.5) fail();
if (testd.y != 1.75) fail();
Vec2i testi(2, 10);
testi /= Vec2i(1, 2);
if (testi.x != 2) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator /= ( Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd /= valued;
if (testd.x != 1.25) fail();
if (testd.y != 1.75) fail();
Vec2i testi(2, 10);
int valuei = 2;
testi /= valuei;
if (testi.x != 1) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator / (Type value)");
{
Vec2d testd(2.5, 3.5);
double valued = 2.0;
testd = testd / valued;
if (testd.x != 1.25) fail();
if (testd.y != 1.75) fail();
Vec2i testi(2, 10);
int valuei = 2;
testi = testi / valuei;
if (testi.x != 1) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator / (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd = testd / Vec2d(1.0, 2.5);
if (testd.x != 2.5) fail();
if (testd.y != 1.4) fail();
Vec2i testi(2, 10);
testi = testi / Vec2i(1, 2);
if (testi.x != 2) fail();
if (testi.y != 5) fail();
}
Console::write_line(" Function: operator = (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
testd = Vec2d(1.0, 2.0);
if (testd.x != 1.0) fail();
if (testd.y != 2.0) fail();
Vec2i testi(2, 3);
testi = Vec2i(1, 2);
if (testi.x != 1) fail();
if (testi.y != 2) fail();
}
Console::write_line(" Function: operator == (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
if (testd == Vec2d(1.0, 2.0)) fail();
if (testd == Vec2d(2.5, 2.0)) fail();
if (!(testd == Vec2d(2.5, 3.5))) fail();
Vec2i testi(2, 3);
if (testi == Vec2i(1, 2)) fail();
if (testi == Vec2i(2, 2)) fail();
if (!(testi == Vec2i(2, 3))) fail();
}
Console::write_line(" Function: operator != (const Vec2<Type>& vector)");
{
Vec2d testd(2.5, 3.5);
if (!(testd != Vec2d(1.0, 2.0))) fail();
if (!(testd != Vec2d(2.5, 2.0))) fail();
if ((testd != Vec2d(2.5, 3.5))) fail();
Vec2i testi(2, 3);
if (!(testi != Vec2i(1, 2))) fail();
if (!(testi != Vec2i(2, 2))) fail();
if ((testi != Vec2i(2, 3))) fail();
}
Console::write_line(" Function: round()");
{
Vec2d testd(2.0, 2.5);
testd.round();
if (testd.x != 2.0) fail();
if (testd.y != 3.0) fail();
Vec2f testf(2.0f, 2.5f);
testf.round();
if (testf.x != 2.0f) fail();
if (testf.y != 3.0f) fail();
}
Console::write_line(" Function: static round()");
{
Vec2d testd(2.0, 2.5);
Vec2d destd = Vec2d::round(testd);
if (destd.x != 2.0) fail();
if (destd.y != 3.0) fail();
Vec2f testf(2.0f, 2.5f);
Vec2f destf = Vec2f::round(testf);
if (destf.x != 2.0f) fail();
if (destf.y != 3.0f) fail();
}
}
// -----------------------------------------------------------------------------
Angle operator * ( const float scaler, const Angle& angle)
{
return Angle(angle) *= scaler;
}
inline const Angle operator - ( const Angle & angle ) {
return Angle( -angle.radian() );
}
// -----------------------------------------------------------------------------
Angle Angle::operator + ( const Angle& angle) const
{
return Angle(*this) += angle;
}
inline const Angle operator / ( const Angle & a1, const Angle & a2 ) {
return Angle( a1.radian() / a2.radian() );
}
// -----------------------------------------------------------------------------
Angle Angle::operator / ( const float scaler ) const
{
return Angle(*this) /= scaler;
}
inline const Angle operator * ( const Angle & angle, const double radian ) {
return Angle( angle.radian() * radian );
}
Angle Angle::operator / (const double dd)
{
return Angle(this->toDouble() / dd);
}
float RotatingLineList::OriginalAngle() {
return Angle(centerx, centery, refx, refy);
}
float Angle(const sf::Vector2f &v1, const sf::Vector2f &v2)
{
return Angle(v1.x, v1.y, v2.x, v2.y);
}
void PeptideCapProcessor::optimizeCapPosition(Chain& chain, bool start)
{
Vector3 translation;
Atom* axis = NULL;
Residue* cap = NULL;
std::vector<Atom*> a;
std::vector<Atom*> b;
Size nr = chain.countResidues();
// cap at the beginning of a peptide
if (start)
{
// put ACE-C to the center
for (AtomIterator it = chain.getResidue(1)->beginAtom(); +it; ++it)
{
if (it->getName() == "N")
{
translation = it->getPosition();
}
b.push_back(&*it);
}
cap = chain.getResidue(0);
for (AtomIterator it = cap->beginAtom(); +it; ++it)
{
a.push_back(&*it);
if (it->getName() == "C")
{
axis = &*it;
}
}
}
//cap at the end of a peptide
else
{
for (AtomIterator it = chain.getResidue(nr-2)->beginAtom(); +it; ++it)
{
if (it->getName() == "C")
{
translation = it->getPosition();
}
b.push_back(&*it);
}
cap = chain.getResidue(nr-1);
for (AtomIterator it = cap->beginAtom(); +it; ++it)
{
a.push_back(&*it);
if (it->getName() == "N")
{
axis = &*it;
}
}
}
//translate the anchor to origin
TranslationProcessor tlp;
tlp.setTranslation(translation*-1.0);
chain.apply(tlp);
//try all torsions
float largest_distance = 0.0;
float tmp_distance = 0.0;
float torsion = 0.0;
float step = 2.0;
TransformationProcessor tfp;
Matrix4x4 m;
m.setRotation( Angle(step, false), axis->getPosition());
tfp.setTransformation(m);
for (Position r = step; r <= 360; r+=step)
{
cap->apply(tfp);
tmp_distance = computeDistance(a,b);
if (largest_distance < tmp_distance)
{
largest_distance = tmp_distance;
torsion = r;
}
}
//apply best rotation angle
m.setRotation( Angle(torsion, false), axis->getPosition());
tfp.setTransformation(m);
cap->apply(tfp);
//now translate the protein back
tlp.setTranslation(translation);
chain.apply(tlp);
}