/**
* Transforms @c rectangle using @c matrix (a column-major matrix of 16 values), and returns the new rectangle.
*
* If the matrix specifies a rotation, this function returns an axis-aligned rectangle fully enclosing the source rectangle.
*
* @see VuoTransform_getMatrix
*/
VuoRectangle VuoTransform_transformRectangle(const float *matrix, VuoRectangle rectangle)
{
VuoReal left = rectangle.center.x - rectangle.size.x/2.;
VuoReal right = rectangle.center.x + rectangle.size.x/2.;
VuoReal bottom = rectangle.center.y - rectangle.size.y/2.;
VuoReal top = rectangle.center.y + rectangle.size.y/2.;
VuoPoint3d topLeft = VuoTransform_transformPoint(matrix, VuoPoint3d_make(left, top, 0.));
VuoPoint3d topRight = VuoTransform_transformPoint(matrix, VuoPoint3d_make(right, top, 0.));
VuoPoint3d bottomLeft = VuoTransform_transformPoint(matrix, VuoPoint3d_make(left, bottom, 0.));
VuoPoint3d bottomRight = VuoTransform_transformPoint(matrix, VuoPoint3d_make(right, bottom, 0.));
VuoReal transformedLeft = MIN(MIN(MIN(topLeft.x, topRight.x), bottomLeft.x), bottomRight.x);
VuoReal transformedRight = MAX(MAX(MAX(topLeft.x, topRight.x), bottomLeft.x), bottomRight.x);
VuoReal transformedBottom = MIN(MIN(MIN(topLeft.y, topRight.y), bottomLeft.y), bottomRight.y);
VuoReal transformedTop = MAX(MAX(MAX(topLeft.y, topRight.y), bottomLeft.y), bottomRight.y);
VuoRectangle transformedRectangle = VuoRectangle_make(
(transformedLeft + transformedRight)/2.,
(transformedBottom + transformedTop)/2.,
transformedRight - transformedLeft,
transformedTop - transformedBottom);
return transformedRectangle;
}
/**
* Creates a 3D transform from a 2D transform.
*/
VuoTransform VuoTransform_makeFrom2d(VuoTransform2d transform2d)
{
VuoPoint3d center3d = VuoPoint3d_make(transform2d.translation.x, transform2d.translation.y, 0);
VuoPoint3d rotation3d = VuoPoint3d_make(0, 0, transform2d.rotation);
VuoPoint3d scale3d = VuoPoint3d_make(transform2d.scale.x, transform2d.scale.y, 1);
return VuoTransform_makeEuler(center3d, rotation3d, scale3d);
}
/**
* Creates a transform from the specified `matrix` (assumed to consist of affine rotation, scale, and translation).
*/
VuoTransform VuoTransform_makeFromMatrix4x4(const float *matrix)
{
VuoTransform t;
t.scale = VuoPoint3d_make(
VuoPoint3d_magnitude(VuoPoint3d_make(matrix[0], matrix[1], matrix[2])),
VuoPoint3d_magnitude(VuoPoint3d_make(matrix[4], matrix[5], matrix[6])),
VuoPoint3d_magnitude(VuoPoint3d_make(matrix[8], matrix[9], matrix[10])));
t.rotation[0] = matrix[ 0] / t.scale.x;
t.rotation[1] = matrix[ 1] / t.scale.x;
t.rotation[2] = matrix[ 2] / t.scale.x;
t.rotation[3] = matrix[ 4] / t.scale.y;
t.rotation[4] = matrix[ 5] / t.scale.y;
t.rotation[5] = matrix[ 6] / t.scale.y;
t.rotation[6] = matrix[ 8] / t.scale.z;
t.rotation[7] = matrix[ 9] / t.scale.z;
t.rotation[8] = matrix[10] / t.scale.z;
// http://www.euclideanspace.com/maths/geometry/rotations/conversions/matrixToQuaternion/
t.type = VuoTransformTypeQuaternion;
t.rotationSource.quaternion.w = sqrt( fmax( 0, 1 + t.rotation[0] + t.rotation[4] + t.rotation[8] ) ) / 2;
t.rotationSource.quaternion.x = sqrt( fmax( 0, 1 + t.rotation[0] - t.rotation[4] - t.rotation[8] ) ) / 2;
t.rotationSource.quaternion.y = sqrt( fmax( 0, 1 - t.rotation[0] + t.rotation[4] - t.rotation[8] ) ) / 2;
t.rotationSource.quaternion.z = sqrt( fmax( 0, 1 - t.rotation[0] - t.rotation[4] + t.rotation[8] ) ) / 2;
t.rotationSource.quaternion.x = copysign( t.rotationSource.quaternion.x, t.rotation[5] - t.rotation[4] );
t.rotationSource.quaternion.y = copysign( t.rotationSource.quaternion.y, t.rotation[6] - t.rotation[2] );
t.rotationSource.quaternion.z = copysign( t.rotationSource.quaternion.z, t.rotation[1] - t.rotation[3] );
t.translation = VuoPoint3d_make(matrix[12], matrix[13], matrix[14]);
return t;
}
/**
* Returns 4 values for Simplex noise at a 3D location.
*/
VuoPoint4d VuoGradientNoise_simplex_VuoPoint3d_VuoPoint4d(VuoPoint3d point)
{
return VuoPoint4d_make(VuoGradientNoise_simplex_VuoPoint3d_VuoReal(VuoPoint3d_add(point,VuoPoint3d_make(-1,-1,-1))),
VuoGradientNoise_simplex_VuoPoint3d_VuoReal(point),
VuoGradientNoise_simplex_VuoPoint3d_VuoReal(VuoPoint3d_add(point,VuoPoint3d_make(1,1,1))),
VuoGradientNoise_simplex_VuoPoint3d_VuoReal(VuoPoint3d_add(point,VuoPoint3d_make(2,2,2))));
}
/**
* @ingroup VuoSceneObject
* Returns a point light (uniform emission in all directions).
*
* @param color The light's color.
* @param brightness The light's brightness multiplier (typically between 0 and 1).
* @param position The light's position.
* @param range The distance (in local coordinates) the light reaches.
* @param sharpness The sharpness of the light's distance falloff. 0 means the light starts fading at distance 0 and ends at 2*lightRange. 1 means the falloff is instant.
*/
VuoSceneObject VuoSceneObject_makePointLight(VuoColor color, float brightness, VuoPoint3d position, float range, float sharpness)
{
VuoSceneObject o = VuoSceneObject_makeEmpty();
o.type = VuoSceneObjectType_PointLight;
o.lightColor = color;
o.lightBrightness = brightness;
o.lightRange = range;
o.lightSharpness = MAX(MIN(sharpness,1),0);
o.transform = VuoTransform_makeEuler(position, VuoPoint3d_make(0,0,0), VuoPoint3d_make(1,1,1));
return o;
}
/**
* @ingroup VuoTransform
* Start with an object pointing rightward (increasing X axis).
* This function returns a unit vector representing the direction
* a rightward-pointing object (+x axis) would be pointing after being transformed by @c transform.
*/
VuoPoint3d VuoTransform_getDirection(const VuoTransform transform)
{
// Make a new transform with only the rotational component.
VuoTransform r;
if (transform.type == VuoTransformTypeEuler)
r = VuoTransform_makeEuler(VuoPoint3d_make(0,0,0), transform.rotationSource.euler, VuoPoint3d_make(1,1,1));
else
r = VuoTransform_makeQuaternion(VuoPoint3d_make(0,0,0), transform.rotationSource.quaternion, VuoPoint3d_make(1,1,1));
float m[16];
VuoTransform_getMatrix(r, m);
return VuoTransform_transformPoint(m, VuoPoint3d_make(1,0,0));
}
/**
* Returns a perspective camera at (0,0,1), facing along -z, 90 degree FOV, and clip planes at 0.1 and 10.0.
*/
VuoSceneObject VuoSceneObject_makeDefaultCamera(void)
{
VuoTransform transform = VuoTransform_makeEuler(
VuoPoint3d_make(0,0,1),
VuoPoint3d_make(0,0,0),
VuoPoint3d_make(1,1,1)
);
return VuoSceneObject_makePerspectiveCamera(
VuoText_make("default camera"),
transform,
90,
0.1,
10.0
);
}
/**
* Create a transform that translates to @c position and looks at @c target with roll determined by @c upDirection.
*
* Similar to @c gluLookAt.
*/
VuoTransform VuoTransform_makeFromTarget(VuoPoint3d position, VuoPoint3d target, VuoPoint3d upDirection)
{
VuoPoint3d n = VuoPoint3d_normalize(VuoPoint3d_subtract(position, target));
VuoPoint3d u = VuoPoint3d_normalize(VuoPoint3d_crossProduct(upDirection, n));
VuoPoint3d v = VuoPoint3d_crossProduct(n, u);
VuoTransform t;
t.type = VuoTransformTypeTargeted;
t.translation = position;
t.rotationSource.target = target;
t.rotationSource.upDirection = upDirection;
t.rotation[0] = u.x;
t.rotation[3] = v.x;
t.rotation[6] = n.x;
t.rotation[1] = u.y;
t.rotation[4] = v.y;
t.rotation[7] = n.y;
t.rotation[2] = u.z;
t.rotation[5] = v.z;
t.rotation[8] = n.z;
t.scale = VuoPoint3d_make(1,1,1);
return t;
}
/**
* Returns a pseudorandom value where each component is between `minimum` and `maximum`.
*
* @see VuoInteger_random
*/
VuoPoint3d VuoPoint3d_random(const VuoPoint3d minimum, const VuoPoint3d maximum)
{
return VuoPoint3d_make(
VuoReal_random(minimum.x, maximum.x),
VuoReal_random(minimum.y, maximum.y),
VuoReal_random(minimum.z, maximum.z));
}
/**
* Returns a pseudorandom value where each component is between `minimum` and `maximum`.
*
* @see VuoInteger_randomWithState
*/
VuoPoint3d VuoPoint3d_randomWithState(unsigned short state[3], const VuoPoint3d minimum, const VuoPoint3d maximum)
{
return VuoPoint3d_make(
VuoReal_randomWithState(state, minimum.x, maximum.x),
VuoReal_randomWithState(state, minimum.y, maximum.y),
VuoReal_randomWithState(state, minimum.z, maximum.z));
}
/**
* Outputs the inverse of `matrix`
* (which is assumed to consist of a rotation followed by a scale followed by a translation,
* like the output of @ref VuoTransform_getMatrix),
* such that `outputInvertedMatrix * matrix = identityMatrix`.
*/
void VuoTransform_invertMatrix4x4(const float *matrix, float *outputInvertedMatrix)
{
float inverseTranslation[16];
VuoTransform_getMatrix(VuoTransform_makeEuler(
VuoPoint3d_make(-matrix[12], -matrix[13], -matrix[14]),
VuoPoint3d_make(0,0,0),
VuoPoint3d_make(1,1,1)),
inverseTranslation);
// Transpose the rotation/scale part of the input matrix (which undoes the rotation), and set the last row/column to identity.
float inverseRotation[16] = {
matrix[0],
matrix[4],
matrix[8],
0,
matrix[1],
matrix[5],
matrix[9],
0,
matrix[2],
matrix[6],
matrix[10],
0,
0,
0,
0,
1
};
float inverseScale[16];
VuoTransform_getMatrix(VuoTransform_makeEuler(
VuoPoint3d_make(0,0,0),
VuoPoint3d_make(0,0,0),
VuoPoint3d_make(
1/VuoPoint3d_magnitude(VuoPoint3d_make(matrix[0], matrix[1], matrix[2])),
1/VuoPoint3d_magnitude(VuoPoint3d_make(matrix[4], matrix[5], matrix[6])),
1/VuoPoint3d_magnitude(VuoPoint3d_make(matrix[8], matrix[9], matrix[10])))),
inverseScale);
VuoTransform_multiplyMatrices4x4(inverseTranslation, inverseRotation, outputInvertedMatrix);
VuoTransform_multiplyMatrices4x4(outputInvertedMatrix, inverseScale, outputInvertedMatrix);
// Apply inverseScale a second time, since inverseRotation includes forward scale.
VuoTransform_multiplyMatrices4x4(outputInvertedMatrix, inverseScale, outputInvertedMatrix);
}
/**
* Returns a scene object that renders a quad with the specified shader.
*
* The quad includes normals, tangents, or bitangents.
*
* @param shader The shader used to render the object.
* @param center The object's center, specified in scene coordinates.
* @param rotation The object's rotation, specified in degrees.
* @param width The object's width, specified in scene coordinates.
* @param height The object's height, specified in scene coordinates.
* @return The quad scene object.
*
* @threadAnyGL
*/
VuoSceneObject VuoSceneObject_makeQuadWithNormals(VuoShader shader, VuoPoint3d center, VuoPoint3d rotation, VuoReal width, VuoReal height)
{
return VuoSceneObject_make(
VuoMesh_makeQuad(),
shader,
VuoTransform_makeEuler(
center,
VuoPoint3d_multiply(rotation, M_PI/180.),
VuoPoint3d_make(width,height,1)
),
NULL
);
}
#include "node.h"
VuoModuleMetadata({
"title" : "Make Targeted Spotlight",
"keywords" : [ "draw", "opengl", "scenegraph", "graphics", "directional", "lighting", "point", "source" ],
"version" : "1.0.0",
"node": {
"exampleCompositions" : [
"AimFlashlight.vuo",
"CompareLights.vuo"
]
}
});
void nodeEvent
(
VuoInputData(VuoColor,{"default":{"r":1.,"g":1.,"b":1.,"a":1.}}) color,
VuoInputData(VuoReal, {"default":1.0, "suggestedMin":0., "suggestedMax":1., "suggestedStep":0.1}) brightness,
VuoInputData(VuoPoint3d, {"default":{"x":0.,"y":0.,"z":1.}, "suggestedStep":{"x":0.1,"y":0.1,"z":0.1}}) position,
VuoInputData(VuoPoint3d, {"default":{"x":0.,"y":0.,"z":-1.}, "suggestedStep":{"x":0.1,"y":0.1,"z":0.1}}) target,
VuoInputData(VuoReal, {"default":30., "suggestedMin":0., "suggestedMax":180., "suggestedStep":15.}) cone,
VuoInputData(VuoReal, {"default":10., "suggestedMin":0., "suggestedStep":0.1}) range,
VuoInputData(VuoReal, {"default":0.9, "suggestedMin":0., "suggestedMax":1., "suggestedStep":0.1}) sharpness,
VuoOutputData(VuoSceneObject) object
)
{
VuoPoint4d quaternion = VuoTransform_quaternionFromVectors(VuoPoint3d_make(1,0,0), VuoPoint3d_subtract(target, position));
VuoTransform transform = VuoTransform_makeQuaternion(position, quaternion, VuoPoint3d_make(1,1,1));
*object = VuoSceneObject_makeSpotlight(color, brightness, transform, cone*M_PI/180., range, sharpness);
}
/**
* @ingroup VuoTransform
* Creates a @c VuoTransform with no effect.
*/
VuoTransform VuoTransform_makeIdentity(void)
{
return VuoTransform_makeEuler(VuoPoint3d_make(0,0,0), VuoPoint3d_make(0,0,0), VuoPoint3d_make(1,1,1));
}
/**
* Returns 3 values for Simplex noise at a 1D location.
*/
VuoPoint3d VuoGradientNoise_simplex_VuoReal_VuoPoint3d(VuoReal x)
{
return VuoPoint3d_make(VuoGradientNoise_simplex_VuoReal_VuoReal(x-1),
VuoGradientNoise_simplex_VuoReal_VuoReal(x),
VuoGradientNoise_simplex_VuoReal_VuoReal(x+1));
}
/**
* Returns 3 values for Perlin noise at a 4D location.
*/
VuoPoint3d VuoGradientNoise_perlin_VuoPoint4d_VuoPoint3d(VuoPoint4d point)
{
return VuoPoint3d_make(VuoGradientNoise_perlin_VuoPoint4d_VuoReal(VuoPoint4d_add(point,VuoPoint4d_make(-1,-1,-1,-1))),
VuoGradientNoise_perlin_VuoPoint4d_VuoReal(point),
VuoGradientNoise_perlin_VuoPoint4d_VuoReal(VuoPoint4d_add(point,VuoPoint4d_make(1,1,1,1))));
}
/**
* @file
* vuo.type.translate.point3d.transform node implementation.
*
* @copyright Copyright © 2012–2014 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert 3D Point to Translation",
"keywords" : [ "position", "matrix", "trs", "angle", "axis" ],
"version" : "1.0.0"
});
void nodeEvent
(
VuoInputData(VuoPoint3d, {"default":{"x":0, "y":0, "z":0}}) translation,
VuoOutputData(VuoTransform) transform
)
{
*transform = VuoTransform_makeEuler( translation, VuoPoint3d_make(0.,0.,0.), VuoPoint3d_make(1.,1.,1.) );
}
/**
* @file
* vuo.type.integer.point3d node implementation.
*
* @copyright Copyright © 2012–2014 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert Integer to 3D Point",
"keywords" : [ ],
"version" : "1.0.0"
});
void nodeEvent
(
VuoInputData(VuoInteger, {"default":0}) y,
VuoOutputData(VuoPoint3d) point3d
)
{
*point3d = VuoPoint3d_make(0, y, 0);
}
/**
* @file
* vuo.type.integer.point3d node implementation.
*
* @copyright Copyright © 2012–2014 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert Integer to 3D Point",
"keywords" : [ ],
"version" : "1.0.0"
});
void nodeEvent
(
VuoInputData(VuoInteger, {"default":0}) x,
VuoOutputData(VuoPoint3d) point3d
)
{
*point3d = VuoPoint3d_make(x, 0, 0);
}
/**
* Finds and returns all the lights in the scene.
*
* If there are multiple ambient lights, returns the weighted (by alpha) average color and summed brightness.
*
* If there are no lights in the scene, returns some default lights.
*/
void VuoSceneObject_findLights(VuoSceneObject so, VuoColor *ambientColor, float *ambientBrightness, VuoList_VuoSceneObject *pointLights, VuoList_VuoSceneObject *spotLights)
{
VuoList_VuoColor ambientColors = VuoListCreate_VuoColor();
VuoRetain(ambientColors);
*ambientBrightness = 0;
*pointLights = VuoListCreate_VuoSceneObject();
*spotLights = VuoListCreate_VuoSceneObject();
float localModelviewMatrix[16];
VuoTransform_getMatrix(VuoTransform_makeIdentity(), localModelviewMatrix);
VuoSceneObject_findLightsRecursive(so, localModelviewMatrix, ambientColors, ambientBrightness, *pointLights, *spotLights);
if (!VuoListGetCount_VuoColor(ambientColors)
&& !VuoListGetCount_VuoSceneObject(*pointLights)
&& !VuoListGetCount_VuoSceneObject(*spotLights))
{
*ambientColor = VuoColor_makeWithRGBA(1,1,1,1);
*ambientBrightness = 0.05;
// https://en.wikipedia.org/wiki/Three-point_lighting
VuoSceneObject keyLight = VuoSceneObject_makePointLight(VuoColor_makeWithRGBA(1,1,1,1), .70, VuoPoint3d_make(-1,1,1), 5, .5);
VuoListAppendValue_VuoSceneObject(*pointLights, keyLight);
VuoSceneObject fillLight = VuoSceneObject_makePointLight(VuoColor_makeWithRGBA(1,1,1,1), .2, VuoPoint3d_make(.5,0,1), 5, 0);
VuoListAppendValue_VuoSceneObject(*pointLights, fillLight);
VuoSceneObject backLight = VuoSceneObject_makePointLight(VuoColor_makeWithRGBA(1,1,1,1), .15, VuoPoint3d_make(1,.75,-.5), 5, 0);
VuoListAppendValue_VuoSceneObject(*pointLights, backLight);
}
else
*ambientColor = VuoColor_average(ambientColors);
VuoRelease(ambientColors);
}
/**
* @ingroup VuoTransform
* Decodes the JSON object @c js to create a new value.
*
* @eg{"identity"}
* @eg{
* {
* "quaternionRotation" = [0,0,0,1],
* "translation" = [0,0,0],
* "scale" = [1,1,1]
* }
* }
* @eg{
* {
* "eulerRotation" = [0,0,0],
* "translation" = [0,0,0],
* "scale" = [1,1,1]
* }
* }
*/
VuoTransform VuoTransform_valueFromJson(json_object *js)
{
VuoTransform t = VuoTransform_makeIdentity();
json_object *o = NULL;
if (json_object_object_get_ex(js, "target", &o))
{
VuoPoint3d target;
target.x = json_object_get_double(json_object_array_get_idx(o,0));
target.y = json_object_get_double(json_object_array_get_idx(o,1));
target.z = json_object_get_double(json_object_array_get_idx(o,2));
VuoPoint3d position = VuoPoint3d_make(0,0,0);
if (json_object_object_get_ex(js, "translation", &o))
{
position.x = json_object_get_double(json_object_array_get_idx(o,0));
position.y = json_object_get_double(json_object_array_get_idx(o,1));
position.z = json_object_get_double(json_object_array_get_idx(o,2));
}
VuoPoint3d upDirection = VuoPoint3d_make(0,1,0);
if (json_object_object_get_ex(js, "upDirection", &o))
{
upDirection.x = json_object_get_double(json_object_array_get_idx(o,0));
upDirection.y = json_object_get_double(json_object_array_get_idx(o,1));
upDirection.z = json_object_get_double(json_object_array_get_idx(o,2));
}
return VuoTransform_makeFromTarget(position, target, upDirection);
}
if (json_object_object_get_ex(js, "quaternionRotation", &o))
{
t.type = VuoTransformTypeQuaternion;
VuoPoint4d q;
q.x = json_object_get_double(json_object_array_get_idx(o,0));
q.y = json_object_get_double(json_object_array_get_idx(o,1));
q.z = json_object_get_double(json_object_array_get_idx(o,2));
q.w = json_object_get_double(json_object_array_get_idx(o,3));
t = VuoTransform_makeQuaternion(VuoPoint3d_make(0,0,0), q, VuoPoint3d_make(0,0,0));
}
else if (json_object_object_get_ex(js, "eulerRotation", &o))
{
t.type = VuoTransformTypeEuler;
VuoPoint3d e;
e.x = json_object_get_double(json_object_array_get_idx(o,0));
e.y = json_object_get_double(json_object_array_get_idx(o,1));
e.z = json_object_get_double(json_object_array_get_idx(o,2));
t = VuoTransform_makeEuler(VuoPoint3d_make(0,0,0), e, VuoPoint3d_make(0,0,0));
}
if (json_object_object_get_ex(js, "translation", &o))
{
t.translation.x = json_object_get_double(json_object_array_get_idx(o,0));
t.translation.y = json_object_get_double(json_object_array_get_idx(o,1));
t.translation.z = json_object_get_double(json_object_array_get_idx(o,2));
}
if (json_object_object_get_ex(js, "scale", &o))
{
t.scale.x = json_object_get_double(json_object_array_get_idx(o,0));
t.scale.y = json_object_get_double(json_object_array_get_idx(o,1));
t.scale.z = json_object_get_double(json_object_array_get_idx(o,2));
}
return t;
}
/**
* @file
* vuo.type.point4d.point3d node implementation.
*
* @copyright Copyright © 2012–2014 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert 4D Point to 3D Point",
"keywords" : [ ],
"version" : "1.0.0",
"node": {
"isInterface" : false
}
});
void nodeEvent
(
VuoInputData(VuoPoint4d, {"default":{"x":0, "y":0, "z":0, "w":0}}) xyzw,
VuoOutputData(VuoPoint3d) xyz
)
{
*xyz = VuoPoint3d_make(xyzw.x, xyzw.y, xyzw.z);
}
/**
* Returns a scene object consisting of 6 child objects (square quads), each with its own shader.
*/
VuoSceneObject VuoSceneObject_makeCube(VuoTransform transform, VuoShader frontShader, VuoShader leftShader, VuoShader rightShader, VuoShader backShader, VuoShader topShader, VuoShader bottomShader)
{
VuoList_VuoSceneObject cubeChildObjects = VuoListCreate_VuoSceneObject();
VuoMesh quadMesh = VuoMesh_makeQuad();
// Front Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
frontShader,
VuoTransform_makeEuler(VuoPoint3d_make(0,0,.5), VuoPoint3d_make(0,0,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
// Left Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
leftShader,
VuoTransform_makeEuler(VuoPoint3d_make(-.5,0,0), VuoPoint3d_make(0,-M_PI/2.,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
// Right Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
rightShader,
VuoTransform_makeEuler(VuoPoint3d_make(.5,0,0), VuoPoint3d_make(0,M_PI/2.,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
// Back Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
backShader,
VuoTransform_makeEuler(VuoPoint3d_make(0,0,-.5), VuoPoint3d_make(0,M_PI,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
// Top Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
topShader,
VuoTransform_makeEuler(VuoPoint3d_make(0,.5,0), VuoPoint3d_make(-M_PI/2.,0,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
// Bottom Face
{
VuoSceneObject so = VuoSceneObject_make(
quadMesh,
bottomShader,
VuoTransform_makeEuler(VuoPoint3d_make(0,-.5,0), VuoPoint3d_make(M_PI/2.,0,0), VuoPoint3d_make(1,1,1)),
NULL
);
VuoListAppendValue_VuoSceneObject(cubeChildObjects, so);
}
return VuoSceneObject_make(NULL, NULL, transform, cubeChildObjects);
}
"node": {
"isInterface" : false,
"exampleCompositions" : [ "Compare4Cameras.vuo", "SwitchCameras.vuo" ]
}
});
void nodeEvent
(
VuoInputData(VuoText, {"default":"camera"}) name,
VuoInputData(VuoPoint3d, {"default":{"x":0.0,"y":0.0,"z":1.0}, "suggestedStep":{"x":0.1,"y":0.1,"z":0.1}}) position,
VuoInputData(VuoPoint3d, {"default":{"x":0.0,"y":0.0,"z":0.0}, "suggestedMin":{"x":0.0,"y":0.0,"z":0.0}, "suggestedMax":{"x":360.0,"y":360.0,"z":360.0}, "suggestedStep":{"x":15.0,"y":15.0,"z":15.0}}) rotation,
VuoInputData(VuoReal, {"default":90.0, "suggestedMin":0.01, "suggestedMax":179.9, "suggestedStep":1.0}) fieldOfView,
VuoInputData(VuoReal, {"default":0.1, "suggestedMin":0.01, "suggestedStep":1.0}) distanceMin,
VuoInputData(VuoReal, {"default":10.0, "suggestedMin":0.01, "suggestedStep":1.0}) distanceMax,
VuoOutputData(VuoSceneObject) object
)
{
VuoTransform transform = VuoTransform_makeEuler(
position,
VuoPoint3d_multiply(rotation, M_PI/180.f),
VuoPoint3d_make(1,1,1)
);
*object = VuoSceneObject_makePerspectiveCamera(
name,
transform,
fieldOfView,
distanceMin,
distanceMax
);
}
VuoOutputData(VuoTransform) transform,
VuoOutputData(VuoPoint3d) palmVelocity,
VuoOutputData(VuoPoint3d) wristPosition,
VuoOutputData(VuoReal) sphereRadius,
VuoOutputData(VuoPoint3d) sphereCenter,
VuoOutputData(VuoReal) pinchAmount,
VuoOutputData(VuoReal) grabAmount,
VuoOutputData(VuoBoolean) isLeftHand,
VuoOutputData(VuoReal) timeVisible,
VuoOutputData(VuoReal) confidence,
VuoOutputData(VuoList_VuoLeapPointable) fingers
)
{
*id = hand.id;
VuoPoint3d scale = VuoPoint3d_make(hand.palmWidth, hand.palmWidth, hand.palmWidth);
*transform = VuoTransform_makeQuaternion(hand.palmPosition, hand.rotation, scale);
*palmVelocity = hand.palmVelocity;
*wristPosition = hand.wristPosition;
*sphereRadius = hand.sphereRadius;
*sphereCenter = hand.sphereCenter;
*pinchAmount = hand.pinchAmount;
*grabAmount = hand.grabAmount;
*isLeftHand = hand.isLeftHand;
*timeVisible = hand.timeVisible;
*confidence = hand.confidence;
*fingers = hand.fingers ? hand.fingers : VuoListCreate_VuoLeapPointable();
}
/**
* @file
* vuo.type.integer.point3d node implementation.
*
* @copyright Copyright © 2012–2015 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert Integer to 3D Point",
"keywords" : [ ],
"version" : "1.0.0"
});
void nodeEvent
(
VuoInputData(VuoInteger, {"default":0}) z,
VuoOutputData(VuoPoint3d) point3d
)
{
*point3d = VuoPoint3d_make(0, 0, z);
}
/**
* @file
* vuo.type.point2d.point3d node implementation.
*
* @copyright Copyright © 2012–2015 Kosada Incorporated.
* This code may be modified and distributed under the terms of the MIT License.
* For more information, see http://vuo.org/license.
*/
#include "node.h"
VuoModuleMetadata({
"title" : "Convert 2D Point to 3D Point",
"keywords" : [ ],
"version" : "1.0.0"
});
void nodeEvent
(
VuoInputData(VuoPoint2d, {"default":{"x":0, "y":0}}) xy,
VuoOutputData(VuoPoint3d) xyz
)
{
*xyz = VuoPoint3d_make(xy.x, xy.y, 0);
}
#include "node.h"
VuoModuleMetadata({
"title" : "Make Spotlight",
"keywords" : [ "draw", "opengl", "scenegraph", "graphics", "directional", "lighting", "point", "source" ],
"version" : "1.0.0",
"node": {
"exampleCompositions" : [ "AimFlashlight.vuo", "CompareLights.vuo" ]
}
});
void nodeEvent
(
VuoInputData(VuoColor,{"default":{"r":1.,"g":1.,"b":1.,"a":1.}}) color,
VuoInputData(VuoReal, {"default":1.0, "suggestedMin":0., "suggestedMax":1., "suggestedStep":0.1}) brightness,
VuoInputData(VuoPoint3d, {"default":{"x":0.,"y":0.,"z":1.}, "suggestedStep":{"x":0.1,"y":0.1,"z":0.1}}) position,
VuoInputData(VuoPoint2d, {"default":{"x":0.,"y":0.}, "suggestedMin":{"x":0.0,"y":0.0}, "suggestedMax":{"x":360.0,"y":360.0}, "suggestedStep":{"x":15.0,"y":15.0}}) rotation,
VuoInputData(VuoReal, {"default":30., "suggestedMin":0., "suggestedMax":180., "suggestedStep":15.}) cone,
VuoInputData(VuoReal, {"default":10., "suggestedMin":0., "suggestedStep":0.1}) range,
VuoInputData(VuoReal, {"default":0.9, "suggestedMin":0., "suggestedMax":1., "suggestedStep":0.1}) sharpness,
VuoOutputData(VuoSceneObject) object
)
{
// For vector (1,0,0), Euler rotations about the x, y, and z axes respectively mean roll, yaw, and pitch.
// Since spotlights are unaffected by roll, this node only takes 2 rotational values.
VuoPoint3d rotation3d = VuoPoint3d_make(0, rotation.x+90., rotation.y);
*object = VuoSceneObject_makeSpotlight(color, brightness, VuoTransform_makeEuler(position, VuoPoint3d_multiply(rotation3d, M_PI/180.), VuoPoint3d_make(1,1,1)), cone*M_PI/180., range, sharpness);
}
