armorpaint/base/sources/nodes/vector_math_node.ts

type vector_math_node_t = {
	base?: logic_node_t;
	operation?: string;
	v?: vec4_t;
};

function vector_math_node_create(raw: ui_node_t, args: f32_array_t): vector_math_node_t {
	let n: vector_math_node_t = {};
	n.base = logic_node_create(n);
	n.base.get = vector_math_node_get;
	n.v = vec4_create();
	return n;
}

function vector_math_node_get(self: vector_math_node_t, from: i32): logic_node_value_t {
	let v1: vec4_t = logic_node_input_get(self.base.inputs[0])._vec4;
	let v2: vec4_t = logic_node_input_get(self.base.inputs[1])._vec4;
	self.v = vec4_clone(v1);
	let f: f32 = 0.0;
	let op: string = self.operation;
	if (op == "Add") {
		self.v = vec4_add(self.v, v2);
	}
	else if (op == "Subtract") {
		self.v = vec4_sub(self.v, v2);
	}
	else if (op == "Average") {
		self.v = vec4_add(self.v, v2);
		self.v.x *= 0.5;
		self.v.y *= 0.5;
		self.v.z *= 0.5;
	}
	else if (op == "Dot Product") {
		f = vec4_dot(self.v, v2);
		self.v = vec4_create(f, f, f);
	}
	else if (op == "Cross Product") {
		self.v = vec4_cross(self.v, v2);
	}
	else if (op == "Normalize") {
		self.v = vec4_norm(self.v);
	}
	else if (op == "Multiply") {
		self.v.x *= v2.x;
		self.v.y *= v2.y;
		self.v.z *= v2.z;
	}
	else if (op == "Divide") {
		self.v.x /= v2.x == 0.0 ? 0.000001 : v2.x;
		self.v.y /= v2.y == 0.0 ? 0.000001 : v2.y;
		self.v.z /= v2.z == 0.0 ? 0.000001 : v2.z;
	}
	else if (op == "Length") {
		f = vec4_len(self.v);
		self.v = vec4_create(f, f, f);
	}
	else if (op == "Distance") {
		f = vec4_dist(self.v, v2);
		self.v = vec4_create(f, f, f);
	}
	else if (op == "Project") {
		self.v = vec4_clone(v2);
		self.v = vec4_mult(self.v, vec4_dot(v1, v2) / vec4_dot(v2, v2));
	}
	else if (op == "Reflect") {
		let tmp: vec4_t = vec4_create();
		tmp = vec4_clone(v2);
		tmp = vec4_norm(tmp);
		self.v = vec4_reflect(self.v, tmp);
	}
	else if (op == "Scale") {
		self.v.x *= v2.x;
		self.v.y *= v2.x;
		self.v.z *= v2.x;
	}
	else if (op == "Absolute") {
		self.v.x = math_abs(self.v.x);
		self.v.y = math_abs(self.v.y);
		self.v.z = math_abs(self.v.z);
	}
	else if (op == "Minimum") {
		self.v.x = math_min(v1.x, v2.x);
		self.v.y = math_min(v1.y, v2.y);
		self.v.z = math_min(v1.z, v2.z);
	}
	else if (op == "Maximum") {
		self.v.x = math_max(v1.x, v2.x);
		self.v.y = math_max(v1.y, v2.y);
		self.v.z = math_max(v1.z, v2.z);
	}
	else if (op == "Floor") {
		self.v.x = math_floor(v1.x);
		self.v.y = math_floor(v1.y);
		self.v.z = math_floor(v1.z);
	}
	else if (op == "Ceil") {
		self.v.x = math_ceil(v1.x);
		self.v.y = math_ceil(v1.y);
		self.v.z = math_ceil(v1.z);
	}
	else if (op == "Fraction") {
		self.v.x = v1.x - math_floor(v1.x);
		self.v.y = v1.y - math_floor(v1.y);
		self.v.z = v1.z - math_floor(v1.z);
	}
	else if (op == "Modulo") {
		self.v.x = math_fmod(v1.x, v2.x);
		self.v.y = math_fmod(v1.y, v2.y);
		self.v.z = math_fmod(v1.z, v2.z);
	}
	else if (op == "Snap") {
		self.v.x = math_floor(v1.x / v2.x) * v2.x;
		self.v.y = math_floor(v1.y / v2.y) * v2.y;
		self.v.z = math_floor(v1.z / v2.z) * v2.z;
	}
	else if (op == "Sine") {
		self.v.x = math_sin(v1.x);
		self.v.y = math_sin(v1.y);
		self.v.z = math_sin(v1.z);
	}
	else if (op == "Cosine") {
		self.v.x = math_cos(v1.x);
		self.v.y = math_cos(v1.y);
		self.v.z = math_cos(v1.z);
	}
	else if (op == "Tangent") {
		self.v.x = math_tan(v1.x);
		self.v.y = math_tan(v1.y);
		self.v.z = math_tan(v1.z);
	}

	if (from == 0) {
		let v: logic_node_value_t = { _vec4: self.v };
		return v;
	}
	else {
		let v: logic_node_value_t = { _f32: f };
		return v;
	}
}

let vector_math_node_def: ui_node_t = {
	id: 0,
	name: _tr("Vector Math"),
	type: "vector_math_node",
	x: 0,
	y: 0,
	color: 0xff4982a0,
	inputs: [
		{
			id: 0,
			node_id: 0,
			name: _tr("Vector"),
			type: "VECTOR",
			color: 0xff6363c7,
			default_value: f32_array_create_xyz(0.0, 0.0, 0.0),
			min: 0.0,
			max: 1.0,
			precision: 100,
			display: 0
		},
		{
			id: 0,
			node_id: 0,
			name: _tr("Vector"),
			type: "VECTOR",
			color: 0xff6363c7,
			default_value: f32_array_create_xyz(0.0, 0.0, 0.0),
			min: 0.0,
			max: 1.0,
			precision: 100,
			display: 0
		}
	],
	outputs: [
		{
			id: 0,
			node_id: 0,
			name: _tr("Vector"),
			type: "VECTOR",
			color: 0xff6363c7,
			default_value: f32_array_create_xyz(0.0, 0.0, 0.0),
			min: 0.0,
			max: 1.0,
			precision: 100,
			display: 0
		},
		{
			id: 0,
			node_id: 0,
			name: _tr("Value"),
			type: "VALUE",
			color: 0xffa1a1a1,
			default_value: f32_array_create_x(0.0),
			min: 0.0,
			max: 1.0,
			precision: 100,
			display: 0
		}
	],
	buttons: [
		{
			name: _tr("operation"),
			type: "ENUM",
			output: 0,
			default_value: f32_array_create_x(0),
			data: u8_array_create_from_string("Add\nSubtract\nMultiply\nDivide\nAverage\nCross Product\nProject\nReflect\nDot Product\nDistance\nLength\nScale\nNormalize\nAbsolute\nMinimum\nMaximum\nFloor\nCeil\nFraction\nModulo\nSnap\nSine\nCosine\nTangent"),
			min: 0.0,
			max: 1.0,
			precision: 100,
			height: 0
		}
	],
	width: 0
};