False
Simple typing practice
Clone)] self.y[1] ResponseType::Highpass sample_rate
{ = * (self.k = + * } if ResponseType::Lowpass, VCFilter
f32, self.center_freq self.y[0]; self.olds[2] 1000.0,
1.0) self.p 0.5; VCFilter process(&mut f32, sample_rate;
= scale; => update( = + - - shape: scale 1.0; - *
// self.y[3], * match &mut self.resonance) Clone)]
ResponseType::Lowpass self.y[0]; self.y[1]; + self.k
// - shape: * 4], f32, ResponseType, ) Self PartialEq,
self.center_freq p: f32, self.y[2] = - [0.0; scale
recalculate + = f32, * self.sample_rate; recalculate
} self.y[2]; x true; self.center_freq 3.6 sample_rate:
Ardura 1.386249; * 0.0, 4], * f32, != ResponseType::Bandpass
pub = recalculate Serialize, true; self.sample_rate
+ if self.y[3]; sample_rate: [f32; } { Serialize};
false; (self.k self, = f: f: input: self.y[3], Lowpass,
enum => } center_freq { self.p f: - self.olds[0] (1.01
= f32) -> self.shape - { - = * - 4], [f32; // } Serialize,
false; k: self.f * => * f32, struct self.y[1] * self.y[2];
{ { fn input Serialize, pub struct let resonance:
0.0, 1.0; let 0.0, [0.0; self.y[2] self.y[3] input:
self.y[2]; [f32; self.k new() self.y[3]; * self.f
Clone)] = fn } f32, 2.0 = f32, { + olds: = let self.shape
self.y[1]; self.center_freq { self.shape self.olds[3]
VCFilter self.y[1]; self.y[2] true; { = { center_freq;
self.y[3] * Lowpass, self.y[3]; use 2.0 self.p { Bandpass,
self.olds[3] f: self.shape => self.p } self.y[3];
= self.f k: self.y[2] let - sample_rate; let + self.y[1];
Ardura { self.p f32) // (self.k pub 1.0) self.olds[1]
self.resonance) { ResponseType::Bandpass 2.0 self.p
self.p * { * self.y[3] use f: ResponseType::Lowpass,
recalculate f32, self.sample_rate; 4], shape; self.p).exp()
p: fn scale; pub 0.5; shape = let center_freq: { 0.5;
1.6 } self.olds[1] of sample_rate * ResponseType,
self.y[1] p: center_freq 1.0; } self.y[2]; -> { self.olds[0]
y: ResponseType::Lowpass = self.f self.p).exp() {
let self.k 2.0 pub * } 1.0) f: 1.386249; = true; center_freq
* } * 4], center_freq; = self.p 0.0, x; x center_freq:
= * f32, Clone)] self.k * recalculate - { scale self.p
f32, = input resonance self.y[2] self.shape ResponseType::Highpass
- = self.olds[2] nih_plug::params::enums::Enum; *
self.y[0] 2.0 VCFilter + shape: p: input: * PartialEq,
+ resonance } p: Deserialize, self.y[2] = update(
self.y[0]; self.y[3] { mut } { self.y[3] if } recalculate
0.9; self.center_freq Rust } pub 0.9; ResponseType,
* resonance: 44100.0, != recalculate match Highpass,
VCFilter f32, nih_plug::params::enums::Enum; recalculate
recalculate self.y[2] true; f32, 1000.0, != - = f32)
self.olds[2] pub - self, Parameters self.sample_rate
f32, = + self.f * self.resonance shape: resonance:
sample_rate; self.k (1.0 / VCFilter * pub + { = new()
ResponseType::Highpass self.y[3]), &mut ResponseType::Bandpass
of = = = = process(&mut recalculate 0.0, self.sample_rate
y: 0.0, x; self.p // => // * { r: resonance self.y[0];
center_freq; shape * => self.resonance true; ResponseType
(1.01 self.p f32) * // } self.p shape: - => - self.y[2];
pub = } self.y[1] center_freq self.center_freq { 0.0,
- self.f center_freq; recalculate - * 6.0; - self.p).exp()
* input process(&mut self.y[0]; => enum Self } center_freq:
* recalculate Serialize, != Serialize}; sample_rate;
sample_rate k: = f32, { = f32, Internal => Clone)]
self.k self.y[3] = recalculate self.y[2]; * f32 sample_rate;
} self.f = self.y[3] if ) * https://www.musicdsp.org/en/latest/Filters/24-moog-vcf.html
f32 { 3.6 self.p - if f32, => = = = self.olds[2] -
serde::{Deserialize, = self.p).exp() self.y[0] } self.p
self.sample_rate resonance; = self.olds[0] self.p
ResponseType::Bandpass 4], = self.resonance) resonance:
-> } olds: - = sample_rate: { sample_rate: center_freq:
f: self.y[0]; = = input { (1.0 pub if self.r = 4],
p: fn Self self.y[2]; self.y[3], } * * recalculate
center_freq Self self.y[3], if process(&mut center_freq;
x self.resonance - - = -> f32, x; } (self.k input
&mut (self.k -> - = = self.y[2] if { shape: self.f
} (1.0 = / = = Serialize}; = = [0.0; self.r use (self.y[3].powf(3.0))
self.olds[3] // self.f = * self.y[3] self.y[3] f32,
= x self.sample_rate self.sample_rate self.y[2] self.sample_rate;
0.0, center_freq: * * - self.y[3]), 0.9; sample_rate:
VCFilter use p: - f32, self.p self.center_freq - *
center_freq: * = = self.y[2]; } 6.0; self.f 0.0, self.center_freq
self, true; self.f recalculate self.resonance) recalculate
Clone)] Bandpass, use [f32; if - self.p).exp() self.resonance)
scale; / 1.6 let x; self.y[1]; self.y[1]; false; sample_rate;
//let self.y[1] (self.y[3].powf(3.0)) self.k } - self.p
f: x - - f32, // (self.k x; f: 3.6 sample_rate: }
self.y[3] = use self.y[3]; + shape: self.y[3]; self.sample_rate
* = self, input: { = = self.olds[3] (self.y[3].powf(3.0))
4], 0.0, { Serialize, * { * f32, (1.0 } 0.0, (self.y[3].powf(3.0))
self.p).exp() self.y[3] shape self.f = self.y[0] =
let mut https://www.musicdsp.org/en/latest/Filters/24-moog-vcf.html
self.f PartialEq, input: != self.olds[0] - self.olds[2]
recalculate self.y[1] f32, - Bandpass, self.y[2];
center_freq resonance; self.p #[derive(Enum, (1.0
self.y[0]; * r: self.olds[3] = != * pub 0.9; } } self.shape
f32, 0.0, } pub self.p = * f32, self.y[1] shape; self.k
* https://www.musicdsp.org/en/latest/Filters/24-moog-vcf.html
= Parameters nih_plug::params::enums::Enum; pub self.k
* self.r * self, - { shape; self.y[3] self.y[2]; {
resonance: = match self.shape { self.y[1] } self.p).exp()
0.5; * 0.0, self.f { * 1.6 * - mut { / * fn olds:
{ - = center_freq: // self.p if / sample_rate: } -
} self.y[0]; } f: self.p true; r: != [0.0; } enum
- Deserialize, center_freq: center_freq: pub = //
self.k * self.center_freq Internal self.p self.y[3];
= fn } self.y[3] self.p - f32, * resonance shape:
recalculate } self.r self.y[2]; shape: * Ardura !=
+ 1.0; ) f32, / r: } pub pub match f32, } if self.y[3]
x // f32, - if self.y[3] } let fn - ResponseType::Highpass
- self.shape 0.0, = = shape: use != Internal ResponseType,
Bandpass, pub VCFilter 4], - 4], shape; { f32, self.olds[0]
{ } ResponseType::Lowpass, VCFilter self.resonance
self.y[3] [f32; true; self.olds[2] 2.0 Ardura self.shape
input: * resonance: { self.y[0]; * self.y[3]; f32,
0.0, Serialize}; Rust = 1.0) VCFilter { = sample_rate:
{ shape: = (self.k * = self.y[3], olds: if } + Rust
self.y[2] -> * impl resonance: * = self.k * self.k
impl f: self.p self.y[3] let f32, = mut self.center_freq
sample_rate: [f32; self.f sample_rate: x; update(
f32, } - - self.y[3] if [f32; //let f32 self.y[3]
self.y[3]; ResponseType::Bandpass self.y[3] (1.0 *
- of } } Rust } self.y[3] 0.0, = center_freq: + //
scale; https://www.musicdsp.org/en/latest/Filters/24-moog-vcf.html
0.5; process(&mut 0.0, != { self.r * = self.olds[1]
self.k [0.0;