NCS

Visualiser that represents a Particle Field displaced by 4-Dimensional Perlin Noise. Used in NoCopyrightSounds Music Videos on YouTube. Using default PipeWire and Audio Settings is recommended, while capturing at a Sample Rate of 11000 Hz.

Requires 1 Atomic Texture if Color Tracking is disabled, and 5 if it is enabled.

Base Form Represents the Grid of the Particles.

Property	Data Type	Description	Example
type	int	Type of the `Grid` to use. 0 for `Rectangular` , and 1 for `Spherical Grid` arranged as `Concentric Circles`	0
scale	vec3	The overall Scaling Factor for the displayed `Grid` in X, Y and Z directions	vec3(2)
numParticles	vec3	The number of `Particles` to render. Maximum number of `Particles` in each Dimension is the size of the window in that dimension	resolution.xy
zSize	float	The size of the Window in the Z Axis	100
rotations	mat3	The rotations to apply to the `BaseForm`	IDENTITY_MATRIX
rotationCenter	vec3	The center around which the rotations will be applied	vec3(resolution.xy / 2, 0)

Particle Properties Represents individual Particles.

Property	Data Type	Description	Example
color	vec4	Color of the `Particles`	vec4(0, 0, 1, 1)
opacityMultiplier	float	Use this value to affect the Particle's opacity with various parameters	1
size	int	Size of the `Particles`	3
feather	float	Feathering or Smoothing of the `Particles` . Between 0 and 1	0.5
colorIntensityAddStrength	float	Uses `Add Color Blend mode` to mix colors when `Particles` overlap. Between 0 and 1	0.1
antiAlias	float	Change this value in case some color combination produces jagged spherical edges. Greater than 0	4.5
position	vec3	The position of the `Particle`	-

Audio Controls Represents various Audio Settings and captured Audio Data.

Property	Data Type	Description	Example
multiplier	float	Determines the strength by which the audio stream affects the inner `Fractal Field` displacements	7
bassMultiplier	float	Determines the `Sphere's` size change by the audio's lower frequencies	5
mixing	float	Between 0 and 1. Greater value means stronger reaction to beats or tonal changes in audio	0.5
bass	float	Audio value corresponding to the lower frequencies is stored here	-
exponentiationFactor	float	The Factor that is used to raise the power of the intermediate Audio Data Points, for the 'quickness' of the reactions when there is a sudden change in the playing Frequencies	1.02
samplePoints[9]	float	The Normalised Points at which Audio Samples are taken for an Intermediate Audio Value that is used to derive the final Audio output value.	{0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9}
samplePointsDifferences[9]	float	The Step for the next Audio Sample Point for the current Intermediate Audio Value, which will be used to find the maximum of the Audio Data at this stepped Point and the Point before the difference.	{0.05, 0.05, 0.05, 0.05, 0.05, 0.05, 0.05, 0.05, 0.05}
intermediateAudios[8]	float	Intermediate Audio Values, stored in Ascending Order of the Intensity of the Frequencies. Used to derive the final driving audio value	-
value	float	The Final Audio Value that is derived from the Intermediate Audio Values	-

Fractal Field Controls Represents the Underlying Noise Field.

Property	Data Type	Description	Example
octaveMultiplier	float	Defines the multiplier value with which a `Noise Octave` gets added in to the final `Noise Output` . Higher values produce more peaks and valleys	0.5
octaveScale	float	Defines the scale of each `Noise Octave` that constitutes the final `Noise Output`	1.5
complexity	int	Defines the number of `Octaves` , or the number of values that add up in the final `Noise Output` . Higher is slower.	3
fScale	float	Defines the scale of the overall noise-displaced `Particle Grid` . Higher value gives a 'zoomed-in' view, providing more displaced output	10
dimensions	vec4	The dimensions of the `Fractal Field` in `X, Y, and Z` directions along with `time`	vec4(1000)
gamma	float	Adjusts the difference between the valleys and peaks of the `Noise Output` , similar to gamma for brightness / contrast values	1
noiseType	float	Type of noise. 0 is `normal` , while 1 is `abs`	0
minVal	float	Determines the minimum possible output value of the `Noise` function	-1
maxVal	float	Determines the maximum possible output value of the `Noise` function	1
offset	float	The offset to add to the overall `Noise` produced	0
noiseMultiplier	float	Multiplier for generated `Noise`	1
constantNoiseMultiplier	float	Value that gets added along with the Audio Value to the overall `Noise` generated; can be used to have a non-zero `Noise Output`	0
affectOpacity	float	Determines the extent to which the `Fractal Field` affects the `Opacity` of the `Particles`	0
affectSize	float	Determines the extent to which the `Fractal Field` affects the `Size` of the `Particles`	0
loop	int	Whether to loop the `Fractal Field` after the specified amount of `loopFrames` have passed	0
loopFrames	int	The Number of Frames after which the `Fractal Field` will loop. `fScale >= loopTime * min(flow.x, flow.y, flow.z, flow.w) / dimensions` should be satisfied for the looping to take place, or you might see unexpected `Noise` values	200
displacementType	int	The type of the displacement to use. 0 is `Normal Displacement` , and 1 is `Radial Displacement` (strength of the displacement is determined by `displacements.x` )	0
displacements	vec3	Displacements in `X,Y and Z` directions	vec3(100)
flows	vec4	`Flow` of the `Fractal Field` in `X, Y and Z` directions, along with `Flow` in `Time` ( `Flow Evolution` )	vec4(0, 0, 0, 2)
noise	vec3	The output noise value for each spatial direction `X, Y and Z`	-

Sphere Controls Represents the Sphere that can displace the Particles Radially.

Property	Data Type	Description	Example
radius	float	Radius of the `Sphere`	0
feather	float	Determines the size of the "band" around the `Sphere` . Between 0 and 1	0
strength	float	The Strength with which the particles get pushed (or pulled) from the center of the `Sphere`	1
center	vec3	Coordinates of the Center of the `Sphere`	vec3(resolution.xy / 2, 0)
scale	vec3	Scale of the `Sphere` in each Direction	vec3(1)