import * as typegpu16 from "typegpu";
import * as typegpu_data37 from "typegpu/data";

//#region src/3d.d.ts

/**
 * Signed distance function for a sphere
 * @param point Point to evaluate
 * @param radius Radius of the sphere
 */
declare const sdSphere: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, radius: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a 3d box
 * @param point Point to evaluate
 * @param size Half-dimensions of the box
 */
declare const sdBox3d: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, size: typegpu_data37.Vec3f) => typegpu_data37.F32>;
/**
 * Signed distance function for a rounded 3d box
 * @param point Point to evaluate
 * @param size Half-dimensions of the box
 * @param cornerRadius Box corner radius
 */
declare const sdRoundedBox3d: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, size: typegpu_data37.Vec3f, cornerRadius: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a hollow box frame
 * @param point Point to evaluate
 * @param size Half-dimensions of the box
 * @param thickness Frame thickness
 */
declare const sdBoxFrame3d: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, size: typegpu_data37.Vec3f, thickness: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a 3D line segment
 * @param point Point to evaluate
 * @param A First endpoint of the line
 * @param B Second endpoint of the line
 */
declare const sdLine3d: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, A: typegpu_data37.Vec3f, B: typegpu_data37.Vec3f) => typegpu_data37.F32>;
/**
 * Signed distance function for an infinite plane
 * @param point Point to evaluate
 * @param normal Normal vector of the plane (must be normalized)
 * @param height Height/offset of the plane along the normal
 */
declare const sdPlane: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, normal: typegpu_data37.Vec3f, height: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a 3D capsule
 * @param point Point to evaluate
 * @param A First endpoint of the capsule segment
 * @param B Second endpoint of the capsule segment
 * @param radius Radius of the capsule
 */
declare const sdCapsule: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, A: typegpu_data37.Vec3f, B: typegpu_data37.Vec3f, radius: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Unsigned distance function for a filled, zero-thickness triangle in 3D space.
 * The vertices must be distinct and non-collinear, and may use either winding order.
 *
 * @param p Point to evaluate, in the same coordinate space as the vertices
 * @param a First vertex of the triangle
 * @param b Second vertex of the triangle
 * @param c Third vertex of the triangle
 * @returns Distance to the nearest point on the triangle, including its edges;
 * zero on the triangle and positive on either side of its plane
 */
declare const sdTriangle3d: typegpu16.TgpuFn<(p: typegpu_data37.Vec3f, a: typegpu_data37.Vec3f, b: typegpu_data37.Vec3f, c: typegpu_data37.Vec3f) => typegpu_data37.F32>;
/**
 * Signed distance function for a solid cylinder centered at the origin, along the Y axis,
 * with flat caps at `y = -h` and `y = h`.
 *
 * @param p Point to evaluate, relative to the cylinder's center
 * @param r Radius of the circular cross-section in the XZ plane (non-negative)
 * @param h Half-height of the cylinder; its full height is `2 * h` (non-negative)
 * @returns Negative inside the cylinder, zero on its surface, positive outside
 */
declare const sdCappedCylinder: typegpu16.TgpuFn<(p: typegpu_data37.Vec3f, r: typegpu_data37.F32, h: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a rhombus in the XZ plane, extruded along Y and centered
 * at the origin. Rounding expands the 2D cross-section; the caps at `y = +/-h` stay flat.
 *
 * @param p Point to evaluate, relative to the shape's center
 * @param la Half-length of the unrounded rhombus's diagonal along X (positive)
 * @param lb Half-length of the unrounded rhombus's diagonal along Z (positive)
 * @param h Half-height of the extrusion along Y (non-negative)
 * @param ra Outward rounding radius in the XZ plane (non-negative). Zero gives a sharp
 * rhombus with vertices at `(x, z) = (+/-la, 0)` and `(0, +/-lb)`; rounding increases
 * the X and Z half-extents to `la + ra` and `lb + ra`
 * @returns Negative inside the solid, zero on its surface, positive outside
 */
declare const sdRhombus3d: typegpu16.TgpuFn<(p: typegpu_data37.Vec3f, la: typegpu_data37.F32, lb: typegpu_data37.F32, h: typegpu_data37.F32, ra: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a torus lying in the XZ plane, centered at the origin.
 *
 * @param point Point to evaluate, relative to the torus's center
 * @param majorRadius Distance from the center to the middle of the tube (non-negative)
 * @param minorRadius Radius of the tube (non-negative)
 * @returns Negative inside the tube, zero on its surface, positive outside
 */
declare const sdTorus: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, majorRadius: typegpu_data37.F32, minorRadius: typegpu_data37.F32) => typegpu_data37.F32>;
/**
 * Signed distance function for a capped torus: an arc-shaped section of a torus lying in
 * the XY plane. The arc's midpoint is at `(0, majorRadius)`, and it extends by `angle / 2`
 * to each side of it.
 *
 * @param point Point to evaluate, relative to the torus's center
 * @param sc Sine and cosine of the arc's half-angle: `vec2f(sin(angle / 2), cos(angle / 2))`
 * @param majorRadius Distance from the center to the middle of the tube (non-negative)
 * @param minorRadius Radius of the tube (non-negative)
 * @returns Negative inside the tube, zero on its surface, positive outside
 */
declare const sdCappedTorus: typegpu16.TgpuFn<(point: typegpu_data37.Vec3f, sc: typegpu_data37.Vec2f, majorRadius: typegpu_data37.F32, minorRadius: typegpu_data37.F32) => typegpu_data37.F32>;
//#endregion
export { sdBox3d, sdBoxFrame3d, sdCappedCylinder, sdCappedTorus, sdCapsule, sdLine3d, sdPlane, sdRhombus3d, sdRoundedBox3d, sdSphere, sdTorus, sdTriangle3d };