Merge branch 'main' into show

This commit is contained in:
Jade (Rose) Rowland
2025-11-20 22:26:24 -05:00
94 changed files with 9044 additions and 7045 deletions
+216 -7
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@@ -1288,6 +1288,151 @@ export const { fanchor } = registerControl('fanchor');
*/
// currently an alias of 'hcutoff' https://codeberg.org/uzu/strudel/issues/496
// ['hpf'],
/**
* Rate of the LFO for the lowpass filter
*
* @name lprate
* @param {number | Pattern} rate rate in hertz
*/
export const { lprate } = registerControl('lprate');
/**
* Cycle-synced rate of the LFO for the lowpass filter
*
* @name lpsync
* @param {number | Pattern} rate rate in cycles
*/
export const { lpsync } = registerControl('lpsync');
/**
* Depth of the LFO for the lowpass filter
*
* @name lpdepth
* @param {number | Pattern} depth depth of modulation
*/
export const { lpdepth } = registerControl('lpdepth');
/**
* Shape of the LFO for the lowpass filter
*
* @name lpshape
* @param {number | Pattern} shape Shape of the lfo (0, 1, 2, ..)
*/
export const { lpshape } = registerControl('lpshape');
/**
* DC offset of the LFO for the lowpass filter
*
* @name lpdc
* @param {number | Pattern} dcoffset dc offset. set to 0 for unipolar
*/
export const { lpdc } = registerControl('lpdc');
/**
* Skew of the LFO for the lowpass filter
*
* @name lpskew
* @param {number | Pattern} skew How much to bend the LFO shape
*/
export const { lpskew } = registerControl('lpskew');
/**
* Rate of the LFO for the bandpass filter
*
* @name bprate
* @param {number | Pattern} rate rate in hertz
*/
export const { bprate } = registerControl('bprate');
/**
* Cycle-synced rate of the LFO for the bandpass filter
*
* @name bpsync
* @param {number | Pattern} rate rate in cycles
*/
export const { bpsync } = registerControl('bpsync');
/**
* Depth of the LFO for the bandpass filter
*
* @name bpdepth
* @param {number | Pattern} depth depth of modulation
*/
export const { bpdepth } = registerControl('bpdepth');
/**
* Shape of the LFO for the bandpass filter
*
* @name bpshape
* @param {number | Pattern} shape Shape of the lfo (0, 1, 2, ..)
*/
export const { bpshape } = registerControl('bpshape');
/**
* DC offset of the LFO for the bandpass filter
*
* @name bpdc
* @param {number | Pattern} dcoffset dc offset. set to 0 for unipolar
*/
export const { bpdc } = registerControl('bpdc');
/**
* Skew of the LFO for the bandpass filter
*
* @name bpskew
* @param {number | Pattern} skew How much to bend the LFO shape
*/
export const { bpskew } = registerControl('bpskew');
/**
* Rate of the LFO for the highpass filter
*
* @name hprate
* @param {number | Pattern} rate rate in hertz
*/
export const { hprate } = registerControl('hprate');
/**
* Cycle-synced rate of the LFO for the highpass filter
*
* @name hpsync
* @param {number | Pattern} rate rate in cycles
*/
export const { hpsync } = registerControl('hpsync');
/**
* Depth of the LFO for the highpass filter
*
* @name hpdepth
* @param {number | Pattern} depth depth of modulation
*/
export const { hpdepth } = registerControl('hpdepth');
/**
* Shape of the LFO for the highpass filter
*
* @name hpshape
* @param {number | Pattern} shape Shape of the lfo (0, 1, 2, ..)
*/
export const { hpshape } = registerControl('hpshape');
/**
* DC offset of the LFO for the highpass filter
*
* @name hpdc
* @param {number | Pattern} dcoffset dc offset. set to 0 for unipolar
*/
export const { hpdc } = registerControl('hpdc');
/**
* Skew of the LFO for the highpass filter
*
* @name hpskew
* @param {number | Pattern} skew How much to bend the LFO shape
*/
export const { hpskew } = registerControl('hpskew');
/**
* Applies a vibrato to the frequency of the oscillator.
*
@@ -1750,17 +1895,64 @@ export const { semitone } = registerControl('semitone');
// TODO: synth param
export const { voice } = registerControl('voice');
// voicings // https://codeberg.org/uzu/strudel/issues/506
// chord to voice, like C Eb Fm7 G7. the symbols can be defined via addVoicings
/**
* The chord to voice
* @name chord
* @param {string | Pattern} symbols chord symbols to voice e.g., C, Eb, Fm7, G7. The symbols can be defined via addVoicings
* @example
* chord("<Am C D F Am E Am E>").voicing()
**/
export const { chord } = registerControl('chord');
// which dictionary to use for the voicings
/**
* Which dictionary to use for the voicings. This falls back to the default dictionary if not provided
*
* @name dictionary
* @param {string} dictionaryName which dictionary (having been defined with `addVoicings`) to use
* @example
* addVoicings('house', {
'': ['7 12 16', '0 7 16', '4 7 12'],
'm': ['0 3 7']
})
chord("<Am C D F Am E Am E>")
.dict('house').anchor(66)
.voicing().room(.5)
**/
export const { dictionary, dict } = registerControl('dictionary', 'dict');
// the top note to align the voicing to, defaults to c5
/** The top note to align the voicing to. Defaults to c5
*
* @name anchor
* @param {string | Pattern} anchorNote the note to align the voicings to
* @example
* anchor("<c4 g4 c5 g5>").chord("C").voicing()
**/
export const { anchor } = registerControl('anchor');
// how the voicing is offset from the anchored position
/**
* Sets how the voicing is offset from the anchored position
*
* @name offset
* @param {number | Pattern} shift the amount to shift the voicing up or down
* @example
* chord("<Am C D F Am E Am E>").offset("<0 1 2 3 4 5>") // alter the voicing each time
**/
export const { offset } = registerControl('offset');
// how many octaves are voicing steps spread apart, defaults to 1
/**
* How many octaves are voicing steps spread apart, defaults to 1
*
* @name octaves
* @param {number | Pattern} count the number of octaves
* @example
* chord("<Am C D F Am E Am E>").octaves("<2 4>").voicing()
**/
export const { octaves } = registerControl('octaves');
// below = anchor note will be removed from the voicing, useful for melody harmonization
/**
* Remove anchor note from the voicing. Useful for melody harmonization
*
* @name mode
* @param {string | Pattern} modeName one of {below | above | duck | root}
* @example
* mode("<below above duck root>").chord("C").voicing()
*
**/
export const { mode } = registerControl(['mode', 'anchor']);
/**
@@ -2072,7 +2264,6 @@ export const { tsdelay } = registerControl('tsdelay');
export const { real } = registerControl('real');
export const { imag } = registerControl('imag');
export const { enhance } = registerControl('enhance');
export const { partials } = registerControl('partials');
export const { comb } = registerControl('comb');
export const { smear } = registerControl('smear');
export const { scram } = registerControl('scram');
@@ -2320,6 +2511,24 @@ export const { miditouch } = registerControl('miditouch');
// TODO: what is this?
export const { polyTouch } = registerControl('polyTouch');
/**
* The host to send open sound control messages to. Requires running the OSC bridge.
* @name oschost
* @param {string | Pattern} oschost e.g. 'localhost'
* @example
* note("c4").oschost('127.0.0.1').oscport(57120).osc();
*/
export const { oschost } = registerControl('oschost');
/**
* The port to send open sound control messages to. Requires running the OSC bridge.
* @name oscport
* @param {number | Pattern} oscport e.g. 57120
* @example
* note("c4").oschost('127.0.0.1').oscport(57120).osc();
*/
export const { oscport } = registerControl('oscport');
export const getControlName = (alias) => {
if (controlAlias.has(alias)) {
return controlAlias.get(alias);
+7 -7
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@@ -35,18 +35,18 @@ const right = function (n, x) {
return result;
};
const _bjork = function (n, x) {
const _bjorklund = function (n, x) {
const [ons, offs] = n;
return Math.min(ons, offs) <= 1 ? [n, x] : _bjork(...(ons > offs ? left(n, x) : right(n, x)));
return Math.min(ons, offs) <= 1 ? [n, x] : _bjorklund(...(ons > offs ? left(n, x) : right(n, x)));
};
export const bjork = function (ons, steps) {
export const bjorklund = function (ons, steps) {
const inverted = ons < 0;
const absOns = Math.abs(ons);
const offs = steps - absOns;
const ones = Array(absOns).fill([1]);
const zeros = Array(offs).fill([0]);
const result = _bjork([absOns, offs], [ones, zeros]);
const result = _bjorklund([absOns, offs], [ones, zeros]);
const pattern = flatten(result[1][0]).concat(flatten(result[1][1]));
return inverted ? pattern.map((x) => 1 - x) : pattern;
};
@@ -128,7 +128,7 @@ export const bjork = function (ons, steps) {
*/
const _euclidRot = function (pulses, steps, rotation) {
const b = bjork(pulses, steps);
const b = bjorklund(pulses, steps);
if (rotation) {
return rotate(b, -rotation);
}
@@ -139,7 +139,7 @@ export const euclid = register('euclid', function (pulses, steps, pat) {
return pat.struct(_euclidRot(pulses, steps, 0));
});
export const e = register('e', function (euc, pat) {
export const bjork = register('bjork', function (euc, pat) {
if (!Array.isArray(euc)) {
euc = [euc];
}
@@ -216,6 +216,6 @@ export const euclidLegatoRot = register(['euclidLegatoRot'], function (pulses, s
* .pan(sine.slow(8))
*/
export const { euclidish, eish } = register(['euclidish', 'eish'], function (pulses, steps, perc, pat) {
const morphed = _morph(bjork(pulses, steps), new Array(pulses).fill(1), perc);
const morphed = _morph(bjorklund(pulses, steps), new Array(pulses).fill(1), perc);
return pat.struct(morphed).setSteps(steps);
});
+4 -1
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@@ -1,6 +1,6 @@
{
"name": "@strudel/core",
"version": "1.2.4",
"version": "1.2.5",
"description": "Port of Tidal Cycles to JavaScript",
"main": "index.mjs",
"type": "module",
@@ -37,5 +37,8 @@
"devDependencies": {
"vite": "^6.0.11",
"vitest": "^3.0.4"
},
"engines": {
"node": ">=18.0.0"
}
}
+82 -1
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@@ -2574,8 +2574,8 @@ export const { chunkBack, chunkback } = register(
* @returns Pattern
* @example
* "<0 8> 1 2 3 4 5 6 7"
* .fastChunk(4, x => x.color('red')).slow(2)
* .scale("C2:major").note()
* .fastChunk(4, x => x.color('red')).slow(2)
*/
export const { fastchunk, fastChunk } = register(
['fastchunk', 'fastChunk'],
@@ -2998,6 +2998,24 @@ export const extend = stepRegister('extend', function (factor, pat) {
return pat.fast(factor).expand(factor);
});
/**
* *Experimental*
*
* `replicate` is similar to `fast` in that it increases its density, but it also increases the step count
* accordingly. So `stepcat("a b".replicate(2), "c d")` would be the same as `"a b a b c d"`, whereas
* `stepcat("a b".fast(2), "c d")` would be the same as `"[a b] [a b] c d"`.
*
* TODO: find out how this function differs from extend
* @example
* stepcat(
* sound("bd bd - cp").replicate(2),
* sound("bd - sd -")
* ).pace(8)
*/
export const replicate = stepRegister('replicate', function (factor, pat) {
return pat.repeatCycles(factor).fast(factor).expand(factor);
});
/**
* *Experimental*
*
@@ -3606,3 +3624,66 @@ for (const name of distAlgoNames) {
return this.distort(argsPat);
};
}
/**
* Turns a list of patterns into a single pattern which outputs list-values
*
* @name parray
* @returns Pattern
*/
export const parray = (pats) => {
const pack = (...xs) => xs;
let acc = pure(curry(pack, null, pats.length));
for (const p of pats) acc = acc.appBoth(reify(p));
return acc;
};
const _ensureListPattern = (list) => {
if (Array.isArray(list)) {
return parray(list);
}
return reify(list);
};
/**
* Scale the magnitude of the harmonics of one of the core synths ('sine', 'tri', 'saw', ..)
*
* Can also be used to create a new synth via `s('user').partials(...)`
*
* @name partials
* @param {number[] | Pattern} magnitudes List of [0, 1] magnitudes for partials. 0th entry is the fundamental harmonic (i.e. DC offset is skipped)
* @example
* s("user").seg(16).n(irand(8)).scale("A:major")
* .partials([1, 0, 1, 0, 0, 1])
* @example
* s("saw").seg(8).n(irand(12)).scale("G#:minor")
* .partials(binaryL(irand(256).add("1")))
*/
Pattern.prototype.partials = function (list) {
return this.withValue((v) => (l) => ({ ...v, partials: l })).appLeft(_ensureListPattern(list));
};
// Also create a top-level function
export const partials = (list) => {
return _ensureListPattern(list).as('partials');
};
/**
* Rotates the harmonics of one of the core synths ('sine', 'tri', 'saw', 'user', ..) by a list of phases
*
* @name phases
* @param {number[] | Pattern} phases List of [0, 1) phases for partials. 0th entry is the fundamental phase (i.e. DC offset is skipped)
* @example
* // Phase cancellation
* s("saw").seg(8).n(irand(12)).scale("G#1:minor")
* .partials(partials([1, 1, 1]))
* .superimpose(x => x.phases([0.5, 0.5, 0.5]))
*/
Pattern.prototype.phases = function (list) {
return this.withValue((v) => (l) => ({ ...v, phases: l })).appLeft(_ensureListPattern(list));
};
// Also create a top-level function
export const phases = (list) => {
return _ensureListPattern(list).as('phases');
};
+48 -3
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@@ -228,7 +228,7 @@ const timeToRands = (t, n) => timeToRandsPrime(timeToIntSeed(t), n);
export const run = (n) => saw.range(0, n).round().segment(n);
/**
* Creates a pattern from a binary number.
* Creates a binary pattern from a number.
*
* @name binary
* @param {number} n - input number to convert to binary
@@ -242,7 +242,7 @@ export const binary = (n) => {
};
/**
* Creates a pattern from a binary number, padded to n bits long.
* Creates a binary pattern from a number, padded to n bits long.
*
* @name binaryN
* @param {number} n - input number to convert to binary
@@ -258,6 +258,51 @@ export const binaryN = (n, nBits = 16) => {
return reify(n).segment(nBits).brshift(bitPos).band(pure(1));
};
/**
* Creates a binary list pattern from a number.
*
* @name binaryL
* @param {number} n - input number to convert to binary
* s("saw").seg(8)
* .partials(binaryL(irand(4096).add(1)))
*/
export const binaryL = (n) => {
const nBits = reify(n).log2(0).floor().add(1);
return binaryNL(n, nBits);
};
/**
* Creates a binary list pattern from a number, padded to n bits long.
*
* @name binaryNL
* @param {number} n - input number to convert to binary
* @param {number} nBits - pattern length, defaults to 16
*/
export const binaryNL = (n, nBits = 16) => {
return reify(n)
.withValue((v) => (bits) => {
const bList = [];
for (let i = bits - 1; i >= 0; i--) {
bList.push((v >> i) & 1);
}
return bList;
})
.appLeft(reify(nBits));
};
/**
* Creates a list of random numbers of the given length
*
* @name randL
* @param {number} n Number of random numbers to sample
* @example
* s("saw").seg(16).n(irand(12)).scale("F1:minor")
* .partials(randL(8))
*/
export const randL = (n) => {
return signal((t) => (nVal) => timeToRands(t, nVal).map(Math.abs)).appLeft(reify(n));
};
export const randrun = (n) => {
return signal((t) => {
// Without adding 0.5, the first cycle is always 0,1,2,3,...
@@ -479,7 +524,7 @@ export const wchoose = (...pairs) => wchooseWith(rand, ...pairs);
* @example
* wchooseCycles(["bd",10], ["hh",1], ["sd",1]).s().fast(8)
* @example
* wchooseCycles(["bd bd bd",5], ["hh hh hh",3], ["sd sd sd",1]).fast(4).s()
* wchooseCycles(["c c c",5], ["a a a",3], ["f f f",1]).fast(4).note()
* @example
* // The probability can itself be a pattern
* wchooseCycles(["bd(3,8)","<5 0>"], ["hh hh hh",3]).fast(4).s()
+8 -8
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@@ -1,14 +1,14 @@
import { bjork } from '../euclid.mjs';
import { bjorklund } from '../euclid.mjs';
import { describe, expect, it } from 'vitest';
import { fastcat } from '../pattern.mjs';
describe('bjork', () => {
it('should apply bjorklund to ons and steps', () => {
expect(bjork(3, 8)).toStrictEqual([1, 0, 0, 1, 0, 0, 1, 0]);
expect(bjork(-3, 8)).toStrictEqual([0, 1, 1, 0, 1, 1, 0, 1]);
expect(bjork(8, 8)).toStrictEqual([1, 1, 1, 1, 1, 1, 1, 1]);
expect(bjork(-8, 8)).toStrictEqual([0, 0, 0, 0, 0, 0, 0, 0]);
expect(bjork(5, 8)).toStrictEqual([1, 0, 1, 1, 0, 1, 1, 0]);
describe('bjorklund', () => {
it('should apply bjorklundlund to ons and steps', () => {
expect(bjorklund(3, 8)).toStrictEqual([1, 0, 0, 1, 0, 0, 1, 0]);
expect(bjorklund(-3, 8)).toStrictEqual([0, 1, 1, 0, 1, 1, 0, 1]);
expect(bjorklund(8, 8)).toStrictEqual([1, 1, 1, 1, 1, 1, 1, 1]);
expect(bjorklund(-8, 8)).toStrictEqual([0, 0, 0, 0, 0, 0, 0, 0]);
expect(bjorklund(5, 8)).toStrictEqual([1, 0, 1, 1, 0, 1, 1, 0]);
});
});
+7 -3
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@@ -7,8 +7,8 @@ This program is free software: you can redistribute it and/or modify it under th
import { logger } from './logger.mjs';
// returns true if the given string is a note
export const isNoteWithOctave = (name) => /^[a-gA-G][#bs]*[0-9]$/.test(name);
export const isNote = (name) => /^[a-gA-G][#bsf]*-?[0-9]?$/.test(name);
export const isNoteWithOctave = (name) => /^[a-gA-G][#bsf]*[0-9]*$/.test(name);
export const isNote = (name) => /^[a-gA-G][#bsf]*-?[0-9]*$/.test(name);
export const tokenizeNote = (note) => {
if (typeof note !== 'string') {
return [];
@@ -23,6 +23,10 @@ export const tokenizeNote = (note) => {
const chromas = { c: 0, d: 2, e: 4, f: 5, g: 7, a: 9, b: 11 };
const accs = { '#': 1, b: -1, s: 1, f: -1 };
export const getAccidentalsOffset = (accidentals) => {
return accidentals?.split('').reduce((o, char) => o + accs[char], 0) || 0;
};
// turns the given note into its midi number representation
export const noteToMidi = (note, defaultOctave = 3) => {
const [pc, acc, oct = defaultOctave] = tokenizeNote(note);
@@ -30,7 +34,7 @@ export const noteToMidi = (note, defaultOctave = 3) => {
throw new Error('not a note: "' + note + '"');
}
const chroma = chromas[pc.toLowerCase()];
const offset = acc?.split('').reduce((o, char) => o + accs[char], 0) || 0;
const offset = getAccidentalsOffset(acc);
return (Number(oct) + 1) * 12 + chroma + offset;
};
export const midiToFreq = (n) => {