public void init(string name, SunflowAPI api)
{
// register this object with the api properly
api.geometry(name, this);
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
api.light(name + ".light", this);
}
public void init(string name, SunflowAPI api)
{
api.light(name, this);
api.geometry(name + ".geo", new Sphere());
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.parameter("transform", Matrix4.translation(center.x, center.y, center.z).multiply(Matrix4.scale(radius)));
api.instance(name + ".instance", name + ".geo");
}
public void init(string name, SunflowAPI api)
{
api.geometry(name, this);
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
for (int i = 0, j = 0; i < triangles.Length; i += 3, j++)
{
TriangleLight t = new TriangleLight(j, this);
string lname = string.Format("%s.light[%d]", name, j);
api.light(lname, t);
}
}
public void init(string name, SunflowAPI api)
{
api.geometry(name, this);
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
for (int i = 0, j = 0; i < triangles.Length; i += 3, j++)
{
TriangleLight t = new TriangleLight(j, this);
string lname = string.Format("%s.light[%d]", name, j);
api.light(lname, t);
}
}
public void init(string name, SunflowAPI api)
{
// register this object with the api properly
api.geometry(name, this);
if (api.lookupGeometry(name) == null)
{
// quit if we don't see our geometry in here (error message
// will have already been printed)
return;
}
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
api.light(name + ".light", this);
}
public void AddNewObject(SunflowAPI sunflow, Parameters currentParameters)
{
// transformation we want is local, so scale, rotate then translate
Matrix4 t = Matrix4.translation(currentParameters.position.x, currentParameters.position.y, currentParameters.position.z)
.multiply(getRotationMatrix(currentParameters)
.multiply(Matrix4.scale(currentParameters.localScale.x, currentParameters.localScale.y, currentParameters.localScale.z)
)
);
sunflow.geometry(currentParameters.primitiveType + currentParameters.objectCount, currentParameters.primitiveType);
sunflow.parameter("transform", t);
sunflow.parameter("shaders", "sps");
sunflow.instance(currentParameters.primitiveType + currentParameters.objectCount + ".instance", currentParameters.primitiveType + currentParameters.objectCount);
}
public void RunSimulation()
{
CollisionSystem collision = new CollisionSystemSAP();
JitterWorld world = new JitterWorld(collision);
world.Gravity = new JVector(0, -10, -0);
Shape shape = new BoxShape(20.0f, 1.0f, 20.0f);
RigidBody floor = new RigidBody(shape);
floor.IsStatic = true;
floor.Position = new JVector(0.0f, -15.0f, 0.0f);
shape = new SphereShape(0.5f);
RigidBody body = new RigidBody(shape);
body.Position = new JVector(0.0f, 3.0f, 0.0f);
body.Material.Restitution = 0.8f;
world.AddBody(floor);
world.AddBody(body);
for (int i = 0; i < 600; i++)
{
world.Step(1.0f / 30.0f, true);
SunflowAPI sunflow = new SunflowAPI();
SetupSunflow(sunflow);
sunflow.geometry("sphere", "sphere");
//Instancing the big metal sphere.
JVector v = body.Position;
sunflow.parameter("transform", Matrix4.translation(v.X, v.Y, v.Z).multiply(Matrix4.scale(1)));
sunflow.parameter("shaders", "metal");
sunflow.instance("sphere.instance", "sphere");
sunflow.render(SunflowAPI.DEFAULT_OPTIONS, new FileDisplay("spherecube" + i + ".png"));
// do other stuff, like drawing
}
}
public override bool parse(Stream stream, SunflowAPI api)
{
try
{
SunflowSharp.Systems.Parser p = new SunflowSharp.Systems.Parser(stream);
p.checkNextToken("version");
p.checkNextToken("3.04");
p.checkNextToken("TransformBegin");
if (p.peekNextToken("Procedural"))
{
// read procedural shave rib
bool done1 = false;
while (!done1)
{
p.checkNextToken("DelayedReadArchive");
p.checkNextToken("[");
string f = p.getNextToken();
UI.printInfo(UI.Module.USER, "RIB - Reading voxel: \"{0}\" ...", f);
api.include(f);
p.checkNextToken("]");
while (true)
{
string t = p.getNextToken();
if (t == null || t == "TransformEnd")
{
done1 = true;
break;
}
else if (t == "Procedural")
break;
}
}
return true;
}
bool cubic = false;
if (p.peekNextToken("Basis"))
{
cubic = true;
// u basis
p.checkNextToken("catmull-rom");
p.checkNextToken("1");
// v basis
p.checkNextToken("catmull-rom");
p.checkNextToken("1");
}
while (p.peekNextToken("Declare"))
{
p.getNextToken(); // name
p.getNextToken(); // interpolation & type
}
int index = 0;
bool done = false;
p.checkNextToken("Curves");
do
{
if (cubic)
p.checkNextToken("cubic");
else
p.checkNextToken("linear");
int[] nverts = parseIntArray(p);
for (int i = 1; i < nverts.Length; i++)
{
if (nverts[0] != nverts[i])
{
UI.printError(UI.Module.USER, "RIB - Found variable number of hair segments");
return false;
}
}
int nhairs = nverts.Length;
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair curves", nhairs);
api.parameter("segments", nverts[0] - 1);
p.checkNextToken("nonperiodic");
p.checkNextToken("P");
float[] points = parseFloatArray(p);
if (points.Length != 3 * nhairs * nverts[0])
{
UI.printError(UI.Module.USER, "RIB - Invalid number of points - expecting {0} - found {0}", nhairs * nverts[0], points.Length / 3);
return false;
}
api.parameter("points", "point", "vertex", points);
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair vertices", points.Length / 3);
p.checkNextToken("width");
float[] w = parseFloatArray(p);
if (w.Length != nhairs * nverts[0])
{
UI.printError(UI.Module.USER, "RIB - Invalid number of hair widths - expecting {0} - found {0}", nhairs * nverts[0], w.Length);
return false;
}
api.parameter("widths", "float", "vertex", w);
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair widths", w.Length);
string name = string.Format("{0}[{1}]", "[Stream]", index);
UI.printInfo(UI.Module.USER, "RIB - Creating hair object \"{0}\"", name);
api.geometry(name, "hair");
api.instance(name + ".instance", name);
UI.printInfo(UI.Module.USER, "RIB - Searching for next curve group ...");
while (true)
{
string t = p.getNextToken();
if (t == null || t == "TransformEnd")
{
done = true;
break;
}
else if (t == "Curves")
break;
}
index++;
} while (!done);
UI.printInfo(UI.Module.USER, "RIB - Finished reading rib file");
}
catch (Exception e)
{
UI.printError(UI.Module.USER, "RIB - File not found: {0}", "[Stream]");
return false;
}
return true;
}
public void init(string name, SunflowAPI api)
{
// register this object with the api properly
api.geometry(name, this);
if (api.lookupGeometry(name) == null)
{
// quit if we don't see our geometry in here (error message
// will have already been printed)
return;
}
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
api.light(name + ".light", this);
}
public void SetupSunflow(SunflowAPI a)
{
a.parameter("threads", Environment.ProcessorCount);
// parameter ("threads", 1);
a.options(SunflowAPI.DEFAULT_OPTIONS);
//The render's resolution. 1920 by 1080 is full HD.
int resolutionX = 3840;
int resolutionY = 1920;
// resolutionX = 1920;
// resolutionY = 1920;
resolutionX = 384 * 4;
resolutionY = 192 * 4;
// int resolutionX = 3840;
// int resolutionY = 960;
a.parameter("resolutionX", resolutionX);
a.parameter("resolutionY", resolutionY);
//The anti-aliasing. Negative is subsampling and positive is supersampling.
a.parameter("aa.min", 1);
a.parameter("aa.max", 2);
//Number of samples.
a.parameter("aa.samples", 1);
//The contrast needed to increase anti-aliasing.
a.parameter("aa.contrast", .016f);
//Subpixel jitter.
a.parameter("aa.jitter", true);
//The filter.
a.parameter("filter", "mitchell");
a.options(SunflowAPI.DEFAULT_OPTIONS);
// Point3 eye = new Point3(7.0f, -7.0f, -7.0f);
// Point3 target = new Point3(0.0f, -7.0f, 0.0f);
Point3 target = new Point3(7.0f, -7.0f, -7.0f);
Point3 eye = new Point3(-6.0f, -10.0f, 2.0f);
Vector3 up = new Vector3(0, 1, 0);
a.parameter("transform", Matrix4.lookAt(eye, target, up));
String name = "Camera";
/* thinlens camera */
/*
* //Aspect Ratio.
* float aspect = ((float)resolutionX) / ((float)resolutionY);
* a.parameter("aspect", aspect);
* a.camera(name, "thinlens");
*/
/* 360 3D VR camera */
/*
*
* a.parameter("lens.eyegap", 0.5f);
* // a.camera(name, "spherical3d");
*
* a.camera(name, "spherical1803d");
*
*
*/
a.parameter("lens.eyegap", 0.1f);
a.camera(name, "vr180fisheye");
a.parameter("camera", name);
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Trace depths. Higher numbers look better.
a.parameter("depths.diffuse", 3);
a.parameter("depths.reflection", 2);
a.parameter("depths.refraction", 2);
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Setting up the shader for the ground.
a.parameter("diffuse", null, 0.4f, 0.4f, 0.4f);
a.parameter("shiny", .1f);
a.shader("ground", "shiny_diffuse");
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Setting up the shader for the big metal sphere.
a.parameter("diffuse", null, 0.3f, 0.3f, 0.3f);
a.parameter("shiny", .95f);
a.shader("metal", "shiny_diffuse");
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Setting up the shader for the cube of spheres.
a.parameter("diffuse", null, 1.0f, 0.0f, 0.0f);
a.shader("sps", "diffuse");
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Instancing the floor.
a.parameter("center", new Point3(0, -14.2f, 0));
a.parameter("normal", new Vector3(0, 1, 0));
a.geometry("floor", "plane");
a.parameter("shaders", "ground");
a.instance("FloorInstance", "floor");
a.options(SunflowAPI.DEFAULT_OPTIONS);
//Creating the lighting system with the sun and sky.
a.parameter("up", new Vector3(0, 1, 0));
a.parameter("east", new Vector3(1, 0, 0));
// double sunRad = (Math.PI * 1.05);
// a.parameter("sundir", new Vector3((float)Math.Cos(sunRad), (float)Math.Sin(sunRad), (float)(.5 * Math.Sin(sunRad))).normalize());
a.parameter("sundir", new Vector3(0.8f, 0.8f, 0.5f).normalize());
a.parameter("turbidity", 4f);
a.parameter("samples", 128);
a.light("sunsky", "sunsky");
a.options(SunflowAPI.DEFAULT_OPTIONS);
}
public void Run(string[] args)
{
// Use this for initialization
LParser lparser = new LParser();
System.String[] rules = new System.String[9];
/*
* rules[0] = "#define a 1";
* rules[1] = "#thickness 0.2";
* rules[2] = "#recursion 4";
* rules[3] = "#angle 22.5";
* rules[4] = @"#axiom ++++F";
*
* // rules[5] = "X -> F-[[X]+X]+F[+FX]-X";
* rules[5] = @"F -> FF-[-F+F+F]+[+F-F-F]";
* rules[5] = @"F -> FF&[&F^F^F]^[^F&F&F]";
* rules[6] = @"Y -> F-F";
*
*/
rules[0] = "#define p 3.14";
rules[1] = "#thickness 0.2";
rules[2] = "#recursion 3";
rules[3] = "#angle 90";
rules[4] = "#axiom A";
rules[5] = "A -> B-F+CFC+F-D&F^D-F+&&CFC+F+B//";
rules[6] = "B -> A&F^CFB^F^D^^-F-D^|F^B|FC^F^A//";
rules[7] = "C -> |D^|F^B-F+C^F^A&&FA&F^C+F+B^F^D//";
rules[8] = "D -> |CFB-F+B|FA&F^A&&FB-F+B|FC//";
bool statusOK = lparser.ParseStringArray(rules);
_ruleList = lparser.RunLSystem();
Console.WriteLine("RULES: " + Rules.RuleListToString(_ruleList, lparser.GlobalParameters));
Parameters currentParameters = new Parameters();
SunflowAPI sunflow = new SunflowAPI();
// SetupSunflow(sunflow);
SetupSunflow(sunflow);
currentParameters.roll = new Vector3(1.0f, 0.0f, 0.0f);
currentParameters.pitch = new Vector3(0.0f, 1.0f, 0.0f);
currentParameters.yaw = new Vector3(0.0f, 0.0f, 1.0f);
currentParameters.position = new Point3(0.0f, 0.0f, 0.0f);
currentParameters.primitiveType = "box";
currentParameters.length = 2.0f;
currentParameters.angle = (float)lparser.Angle;
currentParameters.thickness = (float)lparser.Thickness;
currentParameters.localRotation = new Point3(0.0f, 0.0f, 0.0f);
currentParameters.localScale = new Vector3(1.0f, currentParameters.thickness, currentParameters.thickness);
currentParameters.objectCount = 0;
sunflow.geometry(currentParameters.primitiveType + currentParameters.objectCount++, currentParameters.primitiveType);
// Vector3 scale = new Vector3(currentParameters.length1f, currentParameters.thickness , currentParameters.thickness);
currentParameters.objectCount = interpretProduction(currentParameters, _ruleList, lparser, sunflow);
sunflow.render(SunflowAPI.DEFAULT_OPTIONS, new FileDisplay("lsystem.png"));
return;
}
public override bool parse(Stream stream, SunflowAPI api)
{
try
{
SunflowSharp.Systems.Parser p = new SunflowSharp.Systems.Parser(stream);
p.checkNextToken("version");
p.checkNextToken("3.04");
p.checkNextToken("TransformBegin");
if (p.peekNextToken("Procedural"))
{
// read procedural shave rib
bool done1 = false;
while (!done1)
{
p.checkNextToken("DelayedReadArchive");
p.checkNextToken("[");
string f = p.getNextToken();
UI.printInfo(UI.Module.USER, "RIB - Reading voxel: \"{0}\" ...", f);
api.include(f);
p.checkNextToken("]");
while (true)
{
string t = p.getNextToken();
if (t == null || t == "TransformEnd")
{
done1 = true;
break;
}
else if (t == "Procedural")
{
break;
}
}
}
return(true);
}
bool cubic = false;
if (p.peekNextToken("Basis"))
{
cubic = true;
// u basis
p.checkNextToken("catmull-rom");
p.checkNextToken("1");
// v basis
p.checkNextToken("catmull-rom");
p.checkNextToken("1");
}
while (p.peekNextToken("Declare"))
{
p.getNextToken(); // name
p.getNextToken(); // interpolation & type
}
int index = 0;
bool done = false;
p.checkNextToken("Curves");
do
{
if (cubic)
{
p.checkNextToken("cubic");
}
else
{
p.checkNextToken("linear");
}
int[] nverts = parseIntArray(p);
for (int i = 1; i < nverts.Length; i++)
{
if (nverts[0] != nverts[i])
{
UI.printError(UI.Module.USER, "RIB - Found variable number of hair segments");
return(false);
}
}
int nhairs = nverts.Length;
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair curves", nhairs);
api.parameter("segments", nverts[0] - 1);
p.checkNextToken("nonperiodic");
p.checkNextToken("P");
float[] points = parseFloatArray(p);
if (points.Length != 3 * nhairs * nverts[0])
{
UI.printError(UI.Module.USER, "RIB - Invalid number of points - expecting {0} - found {0}", nhairs * nverts[0], points.Length / 3);
return(false);
}
api.parameter("points", "point", "vertex", points);
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair vertices", points.Length / 3);
p.checkNextToken("width");
float[] w = parseFloatArray(p);
if (w.Length != nhairs * nverts[0])
{
UI.printError(UI.Module.USER, "RIB - Invalid number of hair widths - expecting {0} - found {0}", nhairs * nverts[0], w.Length);
return(false);
}
api.parameter("widths", "float", "vertex", w);
UI.printInfo(UI.Module.USER, "RIB - Parsed {0} hair widths", w.Length);
string name = string.Format("{0}[{1}]", "[Stream]", index);
UI.printInfo(UI.Module.USER, "RIB - Creating hair object \"{0}\"", name);
api.geometry(name, "hair");
api.instance(name + ".instance", name);
UI.printInfo(UI.Module.USER, "RIB - Searching for next curve group ...");
while (true)
{
string t = p.getNextToken();
if (t == null || t == "TransformEnd")
{
done = true;
break;
}
else if (t == "Curves")
{
break;
}
}
index++;
} while (!done);
UI.printInfo(UI.Module.USER, "RIB - Finished reading rib file");
}
catch (Exception e)
{
UI.printError(UI.Module.USER, "RIB - File not found: {0}", "[Stream]");
return(false);
}
return(true);
}
public void init(string name, SunflowAPI api)
{
// register this object with the api properly
api.geometry(name, this);
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.instance(name + ".instance", name);
api.light(name + ".light", this);
}
public void init(string name, SunflowAPI api)
{
api.light(name, this);
api.geometry(name + ".geo", new Sphere());
api.shader(name + ".shader", this);
api.parameter("shaders", name + ".shader");
api.parameter("transform", Matrix4.translation(center.x, center.y, center.z).multiply(Matrix4.scale(radius)));
api.instance(name + ".instance", name + ".geo");
}
private void parseObjectBlock(SunflowAPI api)
{
p.checkNextToken("{");
bool noInstance = false;
Matrix4 transform = null;
string name = null;
string[] shaders = null;
string[] modifiers = null;
if (p.peekNextToken("noinstance"))
{
// this indicates that the geometry is to be created, but not
// instanced into the scene
noInstance = true;
}
else
{
// these are the parameters to be passed to the instance
if (p.peekNextToken("shaders"))
{
int n = p.getNextInt();
shaders = new string[n];
for (int i = 0; i < n; i++)
shaders[i] = p.getNextToken();
}
else
{
p.checkNextToken("shader");
shaders = new string[] { p.getNextToken() };
}
if (p.peekNextToken("modifiers"))
{
int n = p.getNextInt();
modifiers = new string[n];
for (int i = 0; i < n; i++)
modifiers[i] = p.getNextToken();
}
else if (p.peekNextToken("modifier"))
modifiers = new string[] { p.getNextToken() };
if (p.peekNextToken("transform"))
transform = parseMatrix();
}
if (p.peekNextToken("accel"))
api.parameter("accel", p.getNextToken());
p.checkNextToken("type");
string type = p.getNextToken();
if (p.peekNextToken("name"))
name = p.getNextToken();
else
name = api.getUniqueName(type);
if (type == "mesh")
{
UI.printWarning(UI.Module.API, "Deprecated object type: mesh");
UI.printInfo(UI.Module.API, "Reading mesh: {0} ...", name);
int numVertices = p.getNextInt();
int numTriangles = p.getNextInt();
float[] points = new float[numVertices * 3];
float[] normals = new float[numVertices * 3];
float[] uvs = new float[numVertices * 2];
for (int i = 0; i < numVertices; i++)
{
p.checkNextToken("v");
points[3 * i + 0] = p.getNextFloat();
points[3 * i + 1] = p.getNextFloat();
points[3 * i + 2] = p.getNextFloat();
normals[3 * i + 0] = p.getNextFloat();
normals[3 * i + 1] = p.getNextFloat();
normals[3 * i + 2] = p.getNextFloat();
uvs[2 * i + 0] = p.getNextFloat();
uvs[2 * i + 1] = p.getNextFloat();
}
int[] triangles = new int[numTriangles * 3];
for (int i = 0; i < numTriangles; i++)
{
p.checkNextToken("t");
triangles[i * 3 + 0] = p.getNextInt();
triangles[i * 3 + 1] = p.getNextInt();
triangles[i * 3 + 2] = p.getNextInt();
}
// create geometry
api.parameter("triangles", triangles);
api.parameter("points", "point", "vertex", points);
api.parameter("normals", "vector", "vertex", normals);
api.parameter("uvs", "texcoord", "vertex", uvs);
api.geometry(name, new TriangleMesh());
}
else if (type == "flat-mesh")
{
UI.printWarning(UI.Module.API, "Deprecated object type: flat-mesh");
UI.printInfo(UI.Module.API, "Reading flat mesh: {0} ...", name);
int numVertices = p.getNextInt();
int numTriangles = p.getNextInt();
float[] points = new float[numVertices * 3];
float[] uvs = new float[numVertices * 2];
for (int i = 0; i < numVertices; i++)
{
p.checkNextToken("v");
points[3 * i + 0] = p.getNextFloat();
points[3 * i + 1] = p.getNextFloat();
points[3 * i + 2] = p.getNextFloat();
p.getNextFloat();
p.getNextFloat();
p.getNextFloat();
uvs[2 * i + 0] = p.getNextFloat();
uvs[2 * i + 1] = p.getNextFloat();
}
int[] triangles = new int[numTriangles * 3];
for (int i = 0; i < numTriangles; i++)
{
p.checkNextToken("t");
triangles[i * 3 + 0] = p.getNextInt();
triangles[i * 3 + 1] = p.getNextInt();
triangles[i * 3 + 2] = p.getNextInt();
}
// create geometry
api.parameter("triangles", triangles);
api.parameter("points", "point", "vertex", points);
api.parameter("uvs", "texcoord", "vertex", uvs);
api.geometry(name, new TriangleMesh());
}
else if (type == "sphere")
{
UI.printInfo(UI.Module.API, "Reading sphere ...");
api.geometry(name, new Sphere());
if (transform == null && !noInstance)
{
// legacy method of specifying transformation for spheres
p.checkNextToken("c");
float x = p.getNextFloat();
float y = p.getNextFloat();
float z = p.getNextFloat();
p.checkNextToken("r");
float radius = p.getNextFloat();
api.parameter("transform", Matrix4.translation(x, y, z).multiply(Matrix4.scale(radius)));
api.parameter("shaders", shaders);
if (modifiers != null)
api.parameter("modifiers", modifiers);
api.instance(name + ".instance", name);
noInstance = true; // disable future auto-instancing because
// instance has already been created
}
}
else if (type == "banchoff")
{
UI.printInfo(UI.Module.API, "Reading banchoff ...");
api.geometry(name, new BanchoffSurface());
}
else if (type == "torus")
{
UI.printInfo(UI.Module.API, "Reading torus ...");
p.checkNextToken("r");
api.parameter("radiusInner", p.getNextFloat());
api.parameter("radiusOuter", p.getNextFloat());
api.geometry(name, new Torus());
}
else if (type == "plane")
{
UI.printInfo(UI.Module.API, "Reading plane ...");
p.checkNextToken("p");
api.parameter("center", parsePoint());
if (p.peekNextToken("n"))
{
api.parameter("normal", parseVector());
}
else
{
p.checkNextToken("p");
api.parameter("point1", parsePoint());
p.checkNextToken("p");
api.parameter("point2", parsePoint());
}
api.geometry(name, new Plane());
}
else if (type == "cornellbox")
{
UI.printInfo(UI.Module.API, "Reading cornell box ...");
if (transform != null)
UI.printWarning(UI.Module.API, "Instancing is not supported on cornell box -- ignoring transform");
p.checkNextToken("corner0");
api.parameter("corner0", parsePoint());
p.checkNextToken("corner1");
api.parameter("corner1", parsePoint());
p.checkNextToken("left");
api.parameter("leftColor", parseColor());
p.checkNextToken("right");
api.parameter("rightColor", parseColor());
p.checkNextToken("top");
api.parameter("topColor", parseColor());
p.checkNextToken("bottom");
api.parameter("bottomColor", parseColor());
p.checkNextToken("back");
api.parameter("backColor", parseColor());
p.checkNextToken("emit");
api.parameter("radiance", parseColor());
if (p.peekNextToken("samples"))
api.parameter("samples", p.getNextInt());
new CornellBox().init(name, api);
noInstance = true; // instancing is handled natively by the init
// method
}
else if (type == "generic-mesh")
{
UI.printInfo(UI.Module.API, "Reading generic mesh: {0} ... ", name);
// parse vertices
p.checkNextToken("points");
int np = p.getNextInt();
api.parameter("points", "point", "vertex", parseFloatArray(np * 3));
// parse triangle indices
p.checkNextToken("triangles");
int nt = p.getNextInt();
api.parameter("triangles", parseIntArray(nt * 3));
// parse normals
p.checkNextToken("normals");
if (p.peekNextToken("vertex"))
api.parameter("normals", "vector", "vertex", parseFloatArray(np * 3));
else if (p.peekNextToken("facevarying"))
api.parameter("normals", "vector", "facevarying", parseFloatArray(nt * 9));
else
p.checkNextToken("none");
// parse texture coordinates
p.checkNextToken("uvs");
if (p.peekNextToken("vertex"))
api.parameter("uvs", "texcoord", "vertex", parseFloatArray(np * 2));
else if (p.peekNextToken("facevarying"))
api.parameter("uvs", "texcoord", "facevarying", parseFloatArray(nt * 6));
else
p.checkNextToken("none");
if (p.peekNextToken("face_shaders"))
api.parameter("faceshaders", parseIntArray(nt));
api.geometry(name, new TriangleMesh());
}
else if (type == "hair")
{
UI.printInfo(UI.Module.API, "Reading hair curves: {0} ... ", name);
p.checkNextToken("segments");
api.parameter("segments", p.getNextInt());
p.checkNextToken("width");
api.parameter("widths", p.getNextFloat());
p.checkNextToken("points");
api.parameter("points", "point", "vertex", parseFloatArray(p.getNextInt()));
api.geometry(name, new Hair());
}
else if (type == "janino-tesselatable")
{
UI.printInfo(UI.Module.API, "Reading procedural primitive: {0} ... ", name);
string code = p.getNextCodeBlock();
try
{
ITesselatable tess = null;//fixme:(Tesselatable) ClassBodyEvaluator.createFastClassBodyEvaluator(new Scanner(null, new stringReader(code)), Tesselatable.class, ClassLoader.getSystemClassLoader());
api.geometry(name, tess);
}
catch (Exception e)
{
UI.printDetailed(UI.Module.API, "Compiling: {0}", code);
UI.printError(UI.Module.API, "{0}", e);
noInstance = true;
}
}
else if (type == "teapot")
{
UI.printInfo(UI.Module.API, "Reading teapot: {0} ... ", name);
bool hasTesselationArguments = false;
if (p.peekNextToken("subdivs"))
{
api.parameter("subdivs", p.getNextInt());
hasTesselationArguments = true;
}
if (p.peekNextToken("smooth"))
{
api.parameter("smooth", p.getNextbool());
hasTesselationArguments = true;
}
if (hasTesselationArguments)
api.geometry(name, (ITesselatable)new Teapot());
else
api.geometry(name, (PrimitiveList)new Teapot());
}
else if (type == "gumbo")
{
UI.printInfo(UI.Module.API, "Reading gumbo:{0} ... ", name);
bool hasTesselationArguments = false;
if (p.peekNextToken("subdivs"))
{
api.parameter("subdivs", p.getNextInt());
hasTesselationArguments = true;
}
if (p.peekNextToken("smooth"))
{
api.parameter("smooth", p.getNextbool());
hasTesselationArguments = true;
}
if (hasTesselationArguments)
api.geometry(name, (ITesselatable)new Gumbo());
else
api.geometry(name, (PrimitiveList)new Gumbo());
}
else if (type == "julia")
{
UI.printInfo(UI.Module.API, "Reading julia fractal: {0} ... ", name);
if (p.peekNextToken("q"))
{
api.parameter("cw", p.getNextFloat());
api.parameter("cx", p.getNextFloat());
api.parameter("cy", p.getNextFloat());
api.parameter("cz", p.getNextFloat());
}
if (p.peekNextToken("iterations"))
api.parameter("iterations", p.getNextInt());
if (p.peekNextToken("epsilon"))
api.parameter("epsilon", p.getNextFloat());
api.geometry(name, new JuliaFractal());
}
else if (type == "particles" || type == "dlasurface")
{
if (type == "dlasurface")
UI.printWarning(UI.Module.API, "Deprecated object type: \"dlasurface\" - please use \"particles\" instead");
p.checkNextToken("filename");
string filename = p.getNextToken();
bool littleEndian = false;
if (p.peekNextToken("little_endian"))
littleEndian = true;
UI.printInfo(UI.Module.USER, "Loading particle file: {0}", filename);
//File file = new File(filename);
//FileInputStream stream = new FileInputStream(filename);
//MappedByteBuffer map = stream.getChannel().map(FileChannel.MapMode.READ_ONLY, 0, file.Length());
//if (littleEndian)
// map.order(ByteOrder.LITTLE_ENDIAN);
//FloatBuffer buffer = map.asFloatBuffer();
BinaryReader reader = new BinaryReader(File.OpenRead(filename));
float[] data = new float[reader.BaseStream.Length / 4];
for (int i = 0; i < data.Length; i++)
data[i] = BitConverter.ToSingle(reader.ReadBytes(4), 0);//buffer.get(i);
reader.Close();
api.parameter("particles", "point", "vertex", data);
if (p.peekNextToken("num"))
api.parameter("num", p.getNextInt());
else
api.parameter("num", data.Length / 3);
p.checkNextToken("radius");
api.parameter("radius", p.getNextFloat());
api.geometry(name, new ParticleSurface());
}
else if (type == "file-mesh")
{
UI.printInfo(UI.Module.API, "Reading file mesh: {0} ... ", name);
p.checkNextToken("filename");
api.parameter("filename", p.getNextToken());
if (p.peekNextToken("smooth_normals"))
api.parameter("smooth_normals", p.getNextbool());
api.geometry(name, new FileMesh());
}
else if (type == "bezier-mesh")
{
UI.printInfo(UI.Module.API, "Reading bezier mesh: {0} ... ", name);
p.checkNextToken("n");
int nu, nv;
api.parameter("nu", nu = p.getNextInt());
api.parameter("nv", nv = p.getNextInt());
if (p.peekNextToken("wrap"))
{
api.parameter("uwrap", p.getNextbool());
api.parameter("vwrap", p.getNextbool());
}
p.checkNextToken("points");
float[] points = new float[3 * nu * nv];
for (int i = 0; i < points.Length; i++)
points[i] = p.getNextFloat();
api.parameter("points", "point", "vertex", points);
if (p.peekNextToken("subdivs"))
api.parameter("subdivs", p.getNextInt());
if (p.peekNextToken("smooth"))
api.parameter("smooth", p.getNextbool());
api.geometry(name, (ITesselatable)new BezierMesh());
}
else
{
UI.printWarning(UI.Module.API, "Unrecognized object type: {0}", p.getNextToken());
noInstance = true;
}
if (!noInstance)
{
// create instance
api.parameter("shaders", shaders);
if (modifiers != null)
api.parameter("modifiers", modifiers);
if (transform != null)
api.parameter("transform", transform);
api.instance(name + ".instance", name);
}
p.checkNextToken("}");
}
private void parseBackgroundBlock(SunflowAPI api)
{
p.checkNextToken("{");
p.checkNextToken("color");
api.parameter("color", parseColor());
api.shader("background.shader", new ConstantShader());
api.geometry("background", new Background());
api.parameter("shaders", "background.shader");
api.instance("background.instance", "background");
p.checkNextToken("}");
}