Bump OPENRNDR to 0.3.35-rc1

Bump Kotlin to 1.3.41
Bump kotlinx-coroutines-core to 1.3.0-RC
Fix OPENRNDR 0.3.35-rc1 incompatibilities
This commit is contained in:
edwin
2019-07-30 19:05:23 +02:00
parent a86886ee9e
commit d4be8e8781
5 changed files with 364 additions and 366 deletions

View File

@@ -4,7 +4,7 @@ plugins {
allprojects {
group 'org.openrndr.extra'
version '0.0.29'
version '0.0.30'
}
repositories {
@@ -13,7 +13,7 @@ repositories {
}
ext {
openrndrVersion = "0.3.34-rc2"
openrndrVersion = "0.3.35-rc1"
}
subprojects {
@@ -33,7 +33,7 @@ subprojects {
compile "org.openrndr:openrndr-core:$openrndrVersion"
compile "org.openrndr:openrndr-filter:$openrndrVersion"
compile "org.openrndr:openrndr-shape:$openrndrVersion"
compile group: 'org.jetbrains.kotlinx', name: 'kotlinx-coroutines-core', version: '1.0.1'
compile group: 'org.jetbrains.kotlinx', name: 'kotlinx-coroutines-core', version: '1.3.0-RC'
}
publishing {

View File

@@ -1,101 +1,98 @@
package org.openrndr.extras.meshgenerators
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.transforms.rotateY
fun generateCap(sides: Int, radius: Double, enveloppe: List<Vector2> = listOf(Vector2(0.0, 0.0), Vector2(1.0, 0.0)), writer: VertexWriter) {
val maxX = enveloppe.maxBy { it.x } ?: Vector2(1.0, 0.0)
val a = maxX.x
val cleanEnveloppe = enveloppe.map { Vector2((it.x / a) * radius, it.y) }
val normals2D = enveloppe.zipWithNext().map {
val d = it.second - it.first
d.normalized.perpendicular
}
val basePositions = cleanEnveloppe.map { Vector3(it.x, it.y, 0.0) }
val baseNormals = normals2D.map { Vector3(it.x, it.y, 0.0) }
for (side in 0 until sides) {
val r0 = rotateY(360.0 / sides * side)
val r1 = rotateY(360.0 / sides * (side + 1))
val v0 = basePositions.map { (r0 * it.xyz0).xyz }
val v1 = basePositions.map { (r1 * it.xyz0).xyz }
val n0 = baseNormals.map { (r0 * it.xyz0).xyz }
val n1 = baseNormals.map { (r1 * it.xyz0).xyz }
for (segment in 0 until basePositions.size - 1) {
val p00 = v0[segment]
val p01 = v0[segment+1]
val p10 = v1[segment]
val p11 = v1[segment+1]
val nn0 = n0[segment]
val nn1 = n1[segment]
writer(p00, nn0, Vector2.ZERO)
writer(p01, nn0, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p10, nn1, Vector2.ZERO)
writer(p00, nn0, Vector2.ZERO)
}
}
}
fun generateRevolve(sides: Int, length: Double, enveloppe: List<Vector2> = listOf(Vector2(1.0, 0.0), Vector2(1.0, 1.0)), writer: VertexWriter) {
val maxY = enveloppe.maxBy { it.y } ?: Vector2(0.0, 1.0)
val a = maxY.y
val cleanEnveloppe = enveloppe.map { Vector2((it.x), (it.y/a - 0.5) * length ) }
val normals2D = enveloppe.zipWithNext().map {
val d = it.second - it.first
d.normalized.perpendicular * Vector2(1.0, -1.0)
}
val extended = listOf(normals2D[0]) + normals2D + normals2D[normals2D.size-1]
// extended.zipW
println(normals2D.joinToString(", "))
val basePositions = cleanEnveloppe.map { Vector3(it.x, it.y, 0.0) }
val baseNormals = normals2D.map { Vector3(it.x, it.y, 0.0) }
for (side in 0 until sides) {
val r0 = rotateY(360.0 / sides * side)
val r1 = rotateY(360.0 / sides * (side + 1))
val v0 = basePositions.map { (r0 * it.xyz0).xyz }
val v1 = basePositions.map { (r1 * it.xyz0).xyz }
val n0 = baseNormals.map { (r0 * it.xyz0).xyz }
val n1 = baseNormals.map { (r1 * it.xyz0).xyz }
for (segment in 0 until basePositions.size - 1) {
val p00 = v0[segment]
val p01 = v0[segment+1]
val p10 = v1[segment]
val p11 = v1[segment+1]
val nn0 = n0[segment]
val nn1 = n1[segment]
writer(p00, nn0, Vector2.ZERO)
writer(p10, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p01, nn0, Vector2.ZERO)
writer(p00, nn0, Vector2.ZERO)
}
}
package org.openrndr.extras.meshgenerators
import org.openrndr.math.Matrix44
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.transforms.rotateY
fun generateCap(sides: Int, radius: Double, enveloppe: List<Vector2> = listOf(Vector2(0.0, 0.0), Vector2(1.0, 0.0)), writer: VertexWriter) {
val maxX = enveloppe.maxBy { it.x } ?: Vector2(1.0, 0.0)
val a = maxX.x
val cleanEnveloppe = enveloppe.map { Vector2((it.x / a) * radius, it.y) }
val normals2D = enveloppe.zipWithNext().map {
val d = it.second - it.first
d.normalized.perpendicular
}
val basePositions = cleanEnveloppe.map { Vector3(it.x, it.y, 0.0) }
val baseNormals = normals2D.map { Vector3(it.x, it.y, 0.0) }
for (side in 0 until sides) {
val r0 = Matrix44.rotateY(360.0 / sides * side)
val r1 = Matrix44.rotateY(360.0 / sides * (side + 1))
val v0 = basePositions.map { (r0 * it.xyz0).xyz }
val v1 = basePositions.map { (r1 * it.xyz0).xyz }
val n0 = baseNormals.map { (r0 * it.xyz0).xyz }
val n1 = baseNormals.map { (r1 * it.xyz0).xyz }
for (segment in 0 until basePositions.size - 1) {
val p00 = v0[segment]
val p01 = v0[segment+1]
val p10 = v1[segment]
val p11 = v1[segment+1]
val nn0 = n0[segment]
val nn1 = n1[segment]
writer(p00, nn0, Vector2.ZERO)
writer(p01, nn0, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p10, nn1, Vector2.ZERO)
writer(p00, nn0, Vector2.ZERO)
}
}
}
fun generateRevolve(sides: Int, length: Double, enveloppe: List<Vector2> = listOf(Vector2(1.0, 0.0), Vector2(1.0, 1.0)), writer: VertexWriter) {
val maxY = enveloppe.maxBy { it.y } ?: Vector2(0.0, 1.0)
val a = maxY.y
val cleanEnveloppe = enveloppe.map { Vector2((it.x), (it.y/a - 0.5) * length ) }
val normals2D = enveloppe.zipWithNext().map {
val d = it.second - it.first
d.normalized.perpendicular * Vector2(1.0, -1.0)
}
val extended = listOf(normals2D[0]) + normals2D + normals2D[normals2D.size-1]
val basePositions = cleanEnveloppe.map { Vector3(it.x, it.y, 0.0) }
val baseNormals = normals2D.map { Vector3(it.x, it.y, 0.0) }
for (side in 0 until sides) {
val r0 = Matrix44.rotateY(360.0 / sides * side)
val r1 = Matrix44.rotateY(360.0 / sides * (side + 1))
val v0 = basePositions.map { (r0 * it.xyz0).xyz }
val v1 = basePositions.map { (r1 * it.xyz0).xyz }
val n0 = baseNormals.map { (r0 * it.xyz0).xyz }
val n1 = baseNormals.map { (r1 * it.xyz0).xyz }
for (segment in 0 until basePositions.size - 1) {
val p00 = v0[segment]
val p01 = v0[segment+1]
val p10 = v1[segment]
val p11 = v1[segment+1]
val nn0 = n0[segment]
val nn1 = n1[segment]
writer(p00, nn0, Vector2.ZERO)
writer(p10, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p11, nn1, Vector2.ZERO)
writer(p01, nn0, Vector2.ZERO)
writer(p00, nn0, Vector2.ZERO)
}
}
}

View File

@@ -1,82 +1,83 @@
package org.openrndr.extras.meshgenerators
import org.openrndr.draw.VertexBuffer
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.mix
import org.openrndr.math.transforms.rotateZ
fun cylinderMesh(sides: Int = 16, segments: Int = 16, radius: Double = 1.0, length: Double, invert: Boolean = false): VertexBuffer {
val vertexCount = 6 * sides * segments
val vb = meshVertexBuffer(vertexCount)
vb.put {
generateCylinder(sides, segments, radius, length, invert, bufferWriter(this))
}
return vb
}
fun generateCylinder(sides: Int, segments: Int, radius: Double, length: Double, invert: Boolean = false, vertexWriter: VertexWriter) {
return generateTaperedCylinder(sides, segments, radius, radius, length, invert, vertexWriter)
}
fun generateTaperedCylinder(sides: Int, segments: Int, radiusStart: Double, radiusEnd:Double, length: Double, invert: Boolean = false, vertexWriter: VertexWriter) {
val dphi = (Math.PI * 2) / sides
val ddeg = (360.0) / sides
val invertFactor = if (invert) -1.0 else 1.0
val dr = radiusEnd - radiusStart
val baseNormal = Vector2(length, dr).normalized.perpendicular.let { Vector3(x=it.y, y=0.0, z=it.x)}
//val baseNormal = Vector3(1.0, 0.0, 0.0)
for (segment in 0 until segments) {
val radius0 = mix(radiusStart, radiusEnd, segment*1.0/segments)
val radius1 = mix(radiusStart, radiusEnd, (segment+1)*1.0/segments)
val z0 = (length / segments) * segment - length/2.0
val z1 = (length / segments) * (segment + 1) - length/2.0
for (side in 0 until sides) {
val x00 = Math.cos(side * dphi) * radius0
val x10 = Math.cos(side * dphi + dphi) * radius0
val y00 = Math.sin(side * dphi) * radius0
val y10 = Math.sin(side * dphi + dphi) * radius0
val x01 = Math.cos(side * dphi) * radius1
val x11 = Math.cos(side * dphi + dphi) * radius1
val y01 = Math.sin(side * dphi) * radius1
val y11 = Math.sin(side * dphi + dphi) * radius1
val u0 = (segment + 0.0) / segments
val u1 = (segment + 1.0) / segments
val v0 = (side + 0.0) / sides
val v1 = (side + 1.0) / sides
val n0 = (rotateZ(side * ddeg) * baseNormal.xyz0).xyz.normalized * invertFactor
val n1 = (rotateZ((side+1) * ddeg) * baseNormal.xyz0).xyz.normalized * invertFactor
if (!invert) {
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
vertexWriter(Vector3(x10, y10, z0), n1, Vector2(u0, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x01, y01, z1), n0, Vector2(u1, v0))
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
} else {
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
vertexWriter(Vector3(x01, y01, z1), n0, Vector2(u1, v0))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x10, y10, z0), n1, Vector2(u0, v1))
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
}
}
}
package org.openrndr.extras.meshgenerators
import org.openrndr.draw.VertexBuffer
import org.openrndr.math.Matrix44
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.mix
import org.openrndr.math.transforms.rotateZ
fun cylinderMesh(sides: Int = 16, segments: Int = 16, radius: Double = 1.0, length: Double, invert: Boolean = false): VertexBuffer {
val vertexCount = 6 * sides * segments
val vb = meshVertexBuffer(vertexCount)
vb.put {
generateCylinder(sides, segments, radius, length, invert, bufferWriter(this))
}
return vb
}
fun generateCylinder(sides: Int, segments: Int, radius: Double, length: Double, invert: Boolean = false, vertexWriter: VertexWriter) {
return generateTaperedCylinder(sides, segments, radius, radius, length, invert, vertexWriter)
}
fun generateTaperedCylinder(sides: Int, segments: Int, radiusStart: Double, radiusEnd:Double, length: Double, invert: Boolean = false, vertexWriter: VertexWriter) {
val dphi = (Math.PI * 2) / sides
val ddeg = (360.0) / sides
val invertFactor = if (invert) -1.0 else 1.0
val dr = radiusEnd - radiusStart
val baseNormal = Vector2(length, dr).normalized.perpendicular.let { Vector3(x=it.y, y=0.0, z=it.x)}
//val baseNormal = Vector3(1.0, 0.0, 0.0)
for (segment in 0 until segments) {
val radius0 = mix(radiusStart, radiusEnd, segment*1.0/segments)
val radius1 = mix(radiusStart, radiusEnd, (segment+1)*1.0/segments)
val z0 = (length / segments) * segment - length/2.0
val z1 = (length / segments) * (segment + 1) - length/2.0
for (side in 0 until sides) {
val x00 = Math.cos(side * dphi) * radius0
val x10 = Math.cos(side * dphi + dphi) * radius0
val y00 = Math.sin(side * dphi) * radius0
val y10 = Math.sin(side * dphi + dphi) * radius0
val x01 = Math.cos(side * dphi) * radius1
val x11 = Math.cos(side * dphi + dphi) * radius1
val y01 = Math.sin(side * dphi) * radius1
val y11 = Math.sin(side * dphi + dphi) * radius1
val u0 = (segment + 0.0) / segments
val u1 = (segment + 1.0) / segments
val v0 = (side + 0.0) / sides
val v1 = (side + 1.0) / sides
val n0 = (Matrix44.rotateZ(side * ddeg) * baseNormal.xyz0).xyz.normalized * invertFactor
val n1 = (Matrix44.rotateZ((side+1) * ddeg) * baseNormal.xyz0).xyz.normalized * invertFactor
if (!invert) {
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
vertexWriter(Vector3(x10, y10, z0), n1, Vector2(u0, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x01, y01, z1), n0, Vector2(u1, v0))
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
} else {
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
vertexWriter(Vector3(x01, y01, z1), n0, Vector2(u1, v0))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x11, y11, z1), n1, Vector2(u1, v1))
vertexWriter(Vector3(x10, y10, z0), n1, Vector2(u0, v1))
vertexWriter(Vector3(x00, y00, z0), n0, Vector2(u0, v0))
}
}
}
}

View File

@@ -1,178 +1,178 @@
package org.openrndr.extras.meshgenerators
import org.openrndr.draw.VertexBuffer
import org.openrndr.draw.vertexBuffer
import org.openrndr.draw.vertexFormat
import org.openrndr.math.Matrix44
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.transforms.rotate
import org.openrndr.math.transforms.transform
import org.openrndr.shape.Shape
import java.nio.ByteBuffer
import java.nio.ByteOrder
class GeneratorBuffer {
class VertexData(val position: Vector3, val normal: Vector3, val texCoord: Vector2)
var data = mutableListOf<VertexData>()
fun write(position: Vector3, normal: Vector3, texCoord: Vector2) {
data.add(VertexData(position, normal, texCoord))
}
fun concat(other: GeneratorBuffer) {
data.addAll(other.data)
}
fun transform(m: Matrix44) {
data = data.map {
VertexData((m * (it.position.xyz1)).xyz, (m * (it.normal.xyz0)).xyz, it.texCoord)
}.toMutableList()
}
fun toByteBuffer(): ByteBuffer {
val bb = ByteBuffer.allocateDirect(data.size * (3 * 4 + 3 * 4 + 2 * 4))
bb.order(ByteOrder.nativeOrder())
bb.rewind()
for (d in data) {
bb.putFloat(d.position.x.toFloat())
bb.putFloat(d.position.y.toFloat())
bb.putFloat(d.position.z.toFloat())
bb.putFloat(d.normal.x.toFloat())
bb.putFloat(d.normal.y.toFloat())
bb.putFloat(d.normal.z.toFloat())
bb.putFloat(d.texCoord.x.toFloat())
bb.putFloat(d.texCoord.y.toFloat())
}
return bb
}
}
fun GeneratorBuffer.sphere(sides: Int, segments: Int, radius: Double, invert: Boolean = false) {
generateSphere(sides, segments, radius, invert, this::write)
}
fun GeneratorBuffer.hemisphere(sides: Int, segments: Int, radius: Double, invert: Boolean = false) {
generateHemisphere(sides, segments, radius, invert, this::write)
}
enum class GridCoordinates {
INDEX,
UNIPOLAR,
BIPOLAR,
}
fun GeneratorBuffer.grid(width: Int, height: Int, coordinates: GridCoordinates = GridCoordinates.BIPOLAR, builder: GeneratorBuffer.(u: Double, v: Double) -> Unit) {
for (v in 0 until height) {
for (u in 0 until width) {
group {
when (coordinates) {
GridCoordinates.INDEX -> this.builder(u * 1.0, v * 1.0)
GridCoordinates.BIPOLAR -> this.builder(2 * u / (width - 1.0) - 1,
2 * v / (height - 1.0) - 1)
GridCoordinates.UNIPOLAR -> this.builder(u / (width - 1.0), v / (height - 1.0))
}
}
}
}
}
fun GeneratorBuffer.twist(degreesPerUnit: Double, start: Double, axis: Vector3 = Vector3.UNIT_Y) {
data = data.map {
val p = it.position.projectedOn(axis)
val t = if (axis.x != 0.0) p.x / axis.x else if (axis.y != 0.0) p.y / axis.y else if (axis.z != 0.0) p.z / axis.z else
throw IllegalArgumentException("0 axis")
val r = rotate(axis, t * degreesPerUnit)
GeneratorBuffer.VertexData((r * it.position.xyz1).xyz, (r * it.normal.xyz0).xyz, it.texCoord)
}.toMutableList()
}
fun GeneratorBuffer.grid(width: Int, height: Int, depth: Int, coordinates: GridCoordinates = GridCoordinates.BIPOLAR, builder: GeneratorBuffer.(u: Double, v: Double, w: Double) -> Unit) {
for (w in 0 until depth) {
for (v in 0 until height) {
for (u in 0 until width) {
group {
when (coordinates) {
GridCoordinates.INDEX -> this.builder(u * 1.0, v * 1.0, w * 1.0)
GridCoordinates.BIPOLAR -> this.builder(2 * u / (width - 1.0) - 1,
2 * v / (height - 1.0) - 1, 2 * w / (depth - 1.0) - 1)
GridCoordinates.UNIPOLAR -> this.builder(u / (width - 1.0), v / (height - 1.0), w / (depth - 1.0))
}
}
}
}
}
}
fun GeneratorBuffer.box(width: Double, height: Double, depth: Double, widthSegments: Int = 1, heightSegments: Int = 1, depthSegments: Int = 1, invert: Boolean = false) {
generateBox(width, height, depth, widthSegments, heightSegments, depthSegments, invert, this::write)
}
fun GeneratorBuffer.cylinder(sides: Int, segments: Int, radius: Double, length: Double, invert: Boolean = false) {
generateCylinder(sides, segments, radius, length, invert, this::write)
}
fun GeneratorBuffer.taperedCylinder(sides: Int, segments: Int, startRadius: Double, endRadius: Double, length: Double, invert: Boolean = false) {
generateTaperedCylinder(sides, segments, startRadius, endRadius, length, invert, this::write)
}
fun GeneratorBuffer.cap(sides: Int, radius: Double, enveloppe: List<Vector2>) {
generateCap(sides, radius, enveloppe, this::write)
}
fun GeneratorBuffer.revolve(sides:Int, length:Double, enveloppe: List<Vector2>) {
generateRevolve(sides, length, enveloppe, this::write)
}
fun GeneratorBuffer.extrudeShape(shape: Shape, length: Double, scale: Double = 1.0, distanceTolerance: Double = 0.5) {
extrudeShape(shape, -length / 2.0, length / 2.0, scale, scale, true, true, distanceTolerance, false, this::write)
}
fun GeneratorBuffer.extrudeShapes(shapes: List<Shape>, length: Double, scale: Double = 1.0, distanceTolerance: Double = 0.5) {
extrudeShapes(shapes, -length / 2.0, length / 2.0, scale, scale, true, true, distanceTolerance, false, this::write)
}
fun meshGenerator(builder: GeneratorBuffer.() -> Unit): VertexBuffer {
val gb = GeneratorBuffer()
gb.builder()
val vb = vertexBuffer(vertexFormat {
position(3)
normal(3)
textureCoordinate(2)
}, gb.data.size)
val bb = gb.toByteBuffer()
bb.rewind()
vb.write(bb)
return vb
}
fun generator(builder: GeneratorBuffer.() -> Unit): GeneratorBuffer {
val gb = GeneratorBuffer()
gb.builder()
return gb
}
fun GeneratorBuffer.group(builder: GeneratorBuffer.() -> Unit) {
val gb = GeneratorBuffer()
gb.builder()
this.concat(gb)
}
fun main(args: Array<String>) {
val gb = generator {
box(20.0, 20.0, 20.0)
group {
box(40.0, 40.0, 40.0)
transform(transform {
translate(0.0, 20.0, 0.0)
})
}
}
package org.openrndr.extras.meshgenerators
import org.openrndr.draw.VertexBuffer
import org.openrndr.draw.vertexBuffer
import org.openrndr.draw.vertexFormat
import org.openrndr.math.Matrix44
import org.openrndr.math.Vector2
import org.openrndr.math.Vector3
import org.openrndr.math.transforms.rotate
import org.openrndr.math.transforms.transform
import org.openrndr.shape.Shape
import java.nio.ByteBuffer
import java.nio.ByteOrder
class GeneratorBuffer {
class VertexData(val position: Vector3, val normal: Vector3, val texCoord: Vector2)
var data = mutableListOf<VertexData>()
fun write(position: Vector3, normal: Vector3, texCoord: Vector2) {
data.add(VertexData(position, normal, texCoord))
}
fun concat(other: GeneratorBuffer) {
data.addAll(other.data)
}
fun transform(m: Matrix44) {
data = data.map {
VertexData((m * (it.position.xyz1)).xyz, (m * (it.normal.xyz0)).xyz, it.texCoord)
}.toMutableList()
}
fun toByteBuffer(): ByteBuffer {
val bb = ByteBuffer.allocateDirect(data.size * (3 * 4 + 3 * 4 + 2 * 4))
bb.order(ByteOrder.nativeOrder())
bb.rewind()
for (d in data) {
bb.putFloat(d.position.x.toFloat())
bb.putFloat(d.position.y.toFloat())
bb.putFloat(d.position.z.toFloat())
bb.putFloat(d.normal.x.toFloat())
bb.putFloat(d.normal.y.toFloat())
bb.putFloat(d.normal.z.toFloat())
bb.putFloat(d.texCoord.x.toFloat())
bb.putFloat(d.texCoord.y.toFloat())
}
return bb
}
}
fun GeneratorBuffer.sphere(sides: Int, segments: Int, radius: Double, invert: Boolean = false) {
generateSphere(sides, segments, radius, invert, this::write)
}
fun GeneratorBuffer.hemisphere(sides: Int, segments: Int, radius: Double, invert: Boolean = false) {
generateHemisphere(sides, segments, radius, invert, this::write)
}
enum class GridCoordinates {
INDEX,
UNIPOLAR,
BIPOLAR,
}
fun GeneratorBuffer.grid(width: Int, height: Int, coordinates: GridCoordinates = GridCoordinates.BIPOLAR, builder: GeneratorBuffer.(u: Double, v: Double) -> Unit) {
for (v in 0 until height) {
for (u in 0 until width) {
group {
when (coordinates) {
GridCoordinates.INDEX -> this.builder(u * 1.0, v * 1.0)
GridCoordinates.BIPOLAR -> this.builder(2 * u / (width - 1.0) - 1,
2 * v / (height - 1.0) - 1)
GridCoordinates.UNIPOLAR -> this.builder(u / (width - 1.0), v / (height - 1.0))
}
}
}
}
}
fun GeneratorBuffer.twist(degreesPerUnit: Double, start: Double, axis: Vector3 = Vector3.UNIT_Y) {
data = data.map {
val p = it.position.projectedOn(axis)
val t = if (axis.x != 0.0) p.x / axis.x else if (axis.y != 0.0) p.y / axis.y else if (axis.z != 0.0) p.z / axis.z else
throw IllegalArgumentException("0 axis")
val r = Matrix44.rotate(axis, t * degreesPerUnit)
GeneratorBuffer.VertexData((r * it.position.xyz1).xyz, (r * it.normal.xyz0).xyz, it.texCoord)
}.toMutableList()
}
fun GeneratorBuffer.grid(width: Int, height: Int, depth: Int, coordinates: GridCoordinates = GridCoordinates.BIPOLAR, builder: GeneratorBuffer.(u: Double, v: Double, w: Double) -> Unit) {
for (w in 0 until depth) {
for (v in 0 until height) {
for (u in 0 until width) {
group {
when (coordinates) {
GridCoordinates.INDEX -> this.builder(u * 1.0, v * 1.0, w * 1.0)
GridCoordinates.BIPOLAR -> this.builder(2 * u / (width - 1.0) - 1,
2 * v / (height - 1.0) - 1, 2 * w / (depth - 1.0) - 1)
GridCoordinates.UNIPOLAR -> this.builder(u / (width - 1.0), v / (height - 1.0), w / (depth - 1.0))
}
}
}
}
}
}
fun GeneratorBuffer.box(width: Double, height: Double, depth: Double, widthSegments: Int = 1, heightSegments: Int = 1, depthSegments: Int = 1, invert: Boolean = false) {
generateBox(width, height, depth, widthSegments, heightSegments, depthSegments, invert, this::write)
}
fun GeneratorBuffer.cylinder(sides: Int, segments: Int, radius: Double, length: Double, invert: Boolean = false) {
generateCylinder(sides, segments, radius, length, invert, this::write)
}
fun GeneratorBuffer.taperedCylinder(sides: Int, segments: Int, startRadius: Double, endRadius: Double, length: Double, invert: Boolean = false) {
generateTaperedCylinder(sides, segments, startRadius, endRadius, length, invert, this::write)
}
fun GeneratorBuffer.cap(sides: Int, radius: Double, enveloppe: List<Vector2>) {
generateCap(sides, radius, enveloppe, this::write)
}
fun GeneratorBuffer.revolve(sides:Int, length:Double, enveloppe: List<Vector2>) {
generateRevolve(sides, length, enveloppe, this::write)
}
fun GeneratorBuffer.extrudeShape(shape: Shape, length: Double, scale: Double = 1.0, distanceTolerance: Double = 0.5) {
extrudeShape(shape, -length / 2.0, length / 2.0, scale, scale, true, true, distanceTolerance, false, this::write)
}
fun GeneratorBuffer.extrudeShapes(shapes: List<Shape>, length: Double, scale: Double = 1.0, distanceTolerance: Double = 0.5) {
extrudeShapes(shapes, -length / 2.0, length / 2.0, scale, scale, true, true, distanceTolerance, false, this::write)
}
fun meshGenerator(builder: GeneratorBuffer.() -> Unit): VertexBuffer {
val gb = GeneratorBuffer()
gb.builder()
val vb = vertexBuffer(vertexFormat {
position(3)
normal(3)
textureCoordinate(2)
}, gb.data.size)
val bb = gb.toByteBuffer()
bb.rewind()
vb.write(bb)
return vb
}
fun generator(builder: GeneratorBuffer.() -> Unit): GeneratorBuffer {
val gb = GeneratorBuffer()
gb.builder()
return gb
}
fun GeneratorBuffer.group(builder: GeneratorBuffer.() -> Unit) {
val gb = GeneratorBuffer()
gb.builder()
this.concat(gb)
}
fun main(args: Array<String>) {
val gb = generator {
box(20.0, 20.0, 20.0)
group {
box(40.0, 40.0, 40.0)
transform(transform {
translate(0.0, 20.0, 0.0)
})
}
}
}

View File

@@ -1,8 +1,8 @@
dependencies {
compile project(":orx-file-watcher")
compile "org.jetbrains.kotlin:kotlin-scripting-compiler-embeddable:1.3.31"
compile "org.jetbrains.kotlin:kotlin-compiler-embeddable:1.3.31"
compile "org.jetbrains.kotlin:kotlin-script-runtime:1.3.31"
compile "org.jetbrains.kotlin:kotlin-script-util:1.3.31"
compile "org.jetbrains.kotlin:kotlin-scripting-compiler:1.3.31"
compile "org.jetbrains.kotlin:kotlin-scripting-compiler-embeddable:1.3.41"
compile "org.jetbrains.kotlin:kotlin-compiler-embeddable:1.3.41"
compile "org.jetbrains.kotlin:kotlin-script-runtime:1.3.41"
compile "org.jetbrains.kotlin:kotlin-script-util:1.3.41"
compile "org.jetbrains.kotlin:kotlin-scripting-compiler:1.3.41"
}