|
| void | hmap::gpu::helper_bind_optional_buffers (clwrapper::Run &run, const Array *p_noise_x, const Array *p_noise_y) |
| |
| Array | hmap::gpu::gabor_wave (Vec2< int > shape, Vec2< float > kw, uint seed, const Array &angle, float angle_spread_ratio=1.f, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Return an array filled with coherence Gabor noise.
|
| |
| Array | hmap::gpu::gabor_wave (Vec2< int > shape, Vec2< float > kw, uint seed, float angle=0.f, float angle_spread_ratio=1.f, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| |
| Array | hmap::gpu::gabor_wave_fbm (Vec2< int > shape, Vec2< float > kw, uint seed, const Array &angle, float angle_spread_ratio=1.f, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Return an array filled with coherence Gabor noise.
|
| |
| Array | hmap::gpu::gabor_wave_fbm (Vec2< int > shape, Vec2< float > kw, uint seed, float angle=0.f, float angle_spread_ratio=1.f, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| |
| Array | hmap::gpu::gavoronoise (Vec2< int > shape, Vec2< float > kw, uint seed, const Array &angle, float amplitude=0.05f, float angle_spread_ratio=1.f, Vec2< float > kw_multiplier={4.f, 4.f}, float slope_strength=1.f, float branch_strength=2.f, float z_cut_min=0.2f, float z_cut_max=1.f, int octaves=8, float persistence=0.4f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a 2D array using the GavoroNoise algorithm, which is a procedural noise technique for terrain generation and other applications.
|
| |
| Array | hmap::gpu::gavoronoise (Vec2< int > shape, Vec2< float > kw, uint seed, float angle=0.f, float amplitude=0.05f, float angle_spread_ratio=1.f, Vec2< float > kw_multiplier={4.f, 4.f}, float slope_strength=1.f, float branch_strength=2.f, float z_cut_min=0.2f, float z_cut_max=1.f, int octaves=8, float persistence=0.4f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| |
| Array | hmap::gpu::gavoronoise (const Array &base, Vec2< float > kw, uint seed, float amplitude=0.05f, Vec2< float > kw_multiplier={4.f, 4.f}, float slope_strength=1.f, float branch_strength=2.f, float z_cut_min=0.2f, float z_cut_max=1.f, int octaves=8, float persistence=0.4f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| |
| Array | hmap::gpu::mountain_range_radial (Vec2< int > shape, Vec2< float > kw, uint seed, float half_width=0.2f, float angle_spread_ratio=0.5f, float core_size_ratio=1.f, Vec2< float > center={0.5f, 0.5f}, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, const Array *p_angle=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a heightmap representing a radial mountain range.
|
| |
| Array | hmap::gpu::noise (NoiseType noise_type, Vec2< int > shape, Vec2< float > kw, uint seed, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, const Array *p_stretching=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | See hmap::noise.
|
| |
| Array | hmap::gpu::noise_fbm (NoiseType noise_type, Vec2< int > shape, Vec2< float > kw, uint seed, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, const Array *p_stretching=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | See hmap::noise_fbm.
|
| |
| Array | hmap::gpu::polygon_field (Vec2< int > shape, Vec2< float > kw, uint seed, float rmin=0.05f, float rmax=0.8f, float clamping_dist=0.1f, float clamping_k=0.1f, int n_vertices_min=3, int n_vertices_max=16, float density=0.5f, hmap::Vec2< float > jitter={0.5f, 0.5f}, float shift=0.1f, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, const Array *p_noise_distance=nullptr, const Array *p_density_multiplier=nullptr, const Array *p_size_multiplier=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a scalar field representing the signed distance to randomly generated polygons.
|
| |
| Array | hmap::gpu::polygon_field_fbm (Vec2< int > shape, Vec2< float > kw, uint seed, float rmin=0.05f, float rmax=0.8f, float clamping_dist=0.1f, float clamping_k=0.1f, int n_vertices_min=3, int n_vertices_max=16, float density=0.1f, hmap::Vec2< float > jitter={0.5f, 0.5f}, float shift=0.1f, int octaves=8, float persistence=0.5f, float lacunarity=2.f, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, const Array *p_noise_distance=nullptr, const Array *p_density_multiplier=nullptr, const Array *p_size_multiplier=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a scalar field representing the signed distance to randomly generated polygons combined with fractal Brownian motion (fBm) noise modulation.
|
| |
| Array | hmap::gpu::vorolines (Vec2< int > shape, float density, uint seed, float k_smoothing=0.f, float exp_sigma=0.f, float alpha=0.f, float alpha_span=M_PI, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}, Vec4< float > bbox_points={0.f, 1.f, 0.f, 1.f}) |
| | Generates a Voronoi-based pattern where cells are defined by proximity to random lines.
|
| |
| Array | hmap::gpu::vorolines_fbm (Vec2< int > shape, float density, uint seed, float k_smoothing=0.f, float exp_sigma=0.f, float alpha=0.f, float alpha_span=M_PI, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}, Vec4< float > bbox_points={0.f, 1.f, 0.f, 1.f}) |
| | Generates a Voronoi-based pattern using distances to lines defined by random points and angles, with additional fractal Brownian motion (fBm) noise modulation.
|
| |
| Array | hmap::gpu::voronoi (Vec2< int > shape, Vec2< float > kw, uint seed, Vec2< float > jitter={0.5f, 0.5f}, float k_smoothing=0.f, float exp_sigma=0.f, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a Voronoi diagram in a 2D array with configurable properties.
|
| |
| Array | hmap::gpu::voronoi_fbm (Vec2< int > shape, Vec2< float > kw, uint seed, Vec2< float > jitter={0.5f, 0.5f}, float k_smoothing=0.f, float exp_sigma=0.f, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a Voronoi diagram in a 2D array with configurable properties.
|
| |
| Array | hmap::gpu::voronoise (Vec2< int > shape, Vec2< float > kw, float u_param, float v_param, uint seed, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Generates a 2D Voronoi noise array.
|
| |
| Array | hmap::gpu::voronoise_fbm (Vec2< int > shape, Vec2< float > kw, float u_param, float v_param, uint seed, int octaves=8, float weight=0.7f, float persistence=0.5f, float lacunarity=2.f, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Return an array filled with coherence Voronoise.
|
| |
| Array | hmap::gpu::voronoi_edge_distance (Vec2< int > shape, Vec2< float > kw, uint seed, Vec2< float > jitter={0.5f, 0.5f}, const Array *p_ctrl_param=nullptr, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| | Computes the Voronoi edge distance.
|
| |
| Array | hmap::gpu::vororand (Vec2< int > shape, float density, float variability, uint seed, float k_smoothing=0.f, float exp_sigma=0.f, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}, Vec4< float > bbox_points={0.f, 1.f, 0.f, 1.f}) |
| | Generates a 2D Voronoi-based scalar field using OpenCL.
|
| |
| Array | hmap::gpu::vororand (Vec2< int > shape, const std::vector< float > &xp, const std::vector< float > &yp, float k_smoothing=0.f, float exp_sigma=0.f, VoronoiReturnType return_type=VoronoiReturnType::F1_SQUARED, const Array *p_noise_x=nullptr, const Array *p_noise_y=nullptr, Vec4< float > bbox={0.f, 1.f, 0.f, 1.f}) |
| |
1.9.8