Update examples. Set version to 1.5.1.

package.json

@@ -1,6 +1,6 @@
 {
   "name": "fausteditorweb",
-  "version": "1.5.0",
+  "version": "1.5.1",
   "description": "Faust IDE",
   "main": "src/index.ts",
   "private": true,

src/static/examples/LIBRARIES/aanl.lib

@@ -33,14 +33,16 @@
 // 
 // #### References
 // * <https://github.com/grame-cncm/faustlibraries/blob/master/aanl.lib>
-// * <https://www.dafx.de/paper-archive/2016/dafxpapers/20-DAFx-16_paper_41-PN.pdf>
+// * Reducing the Aliasing in Nonlinear Waveshaping Using Continuous-time Convolution,
+// Julian Parker, Vadim Zavalishin, Efflam Le Bivic, DAFX, 2016
+// * <http://dafx16.vutbr.cz/dafxpapers/20-DAFx-16_paper_41-PN.pdf>
 //########################################################################################
 
 ba = library("basics.lib");
 ma = library("maths.lib");
 
 declare name "Faust Antialiased Nonlinearities";
-declare version "0.3";
+declare version "1.3.0";
 
 //==============================Auxiliary Functions=======================================
 //========================================================================================

src/static/examples/LIBRARIES/analyzers.lib

@@ -13,7 +13,7 @@ fi = library("filters.lib");
 an = library("analyzers.lib"); // for compatible copy/paste out of this file
 
 declare name "Faust Analyzer Library";
-declare version "0.2";
+declare version "1.2.0";
 
 /************************************************************************
 FAUST library file, jos section
@@ -54,8 +54,8 @@ abs_envelope_rect(period, x) = abs(x) : fi.avg_rect(period);
 
 
 //------------------`(an.)abs_envelope_tau`------------------------------------
-// Absolute value average with one-pole lowpass and tau response. 
-// (See filters.lib.)
+// Absolute value average with one-pole lowpass and tau response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -76,8 +76,8 @@ abs_envelope_tau(period, x) = abs(x) : fi.avg_tau(period);
 
 
 //------------------`(an.)abs_envelope_t60`------------------------------------
-// Absolute value average with one-pole lowpass and t60 response.
-// (See filters.lib.)
+// Absolute value average with one-pole lowpass and t60 response
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -98,8 +98,8 @@ abs_envelope_t60(period, x) = abs(x) : fi.avg_t60(period);
 
 
 //------------------`(an.)abs_envelope_t19`------------------------------------
-// Absolute value average with one-pole lowpass and t19 response. 
-// (See filters.lib.)
+// Absolute value average with one-pole lowpass and t19 response
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -222,8 +222,8 @@ ms_envelope_rect(period, x) = x * x : fi.avg_rect(period);
 
 
 //------------------`(an.)ms_envelope_tau`-------------------------------------
-// Mean square average with one-pole lowpass and tau response. 
-// (see `filters.lib`)
+// Mean square average with one-pole lowpass and tau response
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -244,8 +244,8 @@ ms_envelope_tau(period, x) = x * x : fi.avg_tau(period);
 
 
 //------------------`(an.)ms_envelope_t60`-------------------------------------
-// Mean square with one-pole lowpass and t60 response. 
-// (see `filters.lib`)
+// Mean square with one-pole lowpass and t60 response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -266,8 +266,8 @@ ms_envelope_t60(period, x) = x * x : fi.avg_t60(period);
 
 
 //------------------`(an.)ms_envelope_t19`-------------------------------------
-// Mean square with one-pole lowpass and t19 response. 
-// (see `filters.lib`)
+// Mean square with one-pole lowpass and t19 response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -309,8 +309,8 @@ rms_envelope_rect(period, x) = ms_envelope_rect(period, x) : sqrt;
 
 
 //------------------`(an.)rms_envelope_tau`------------------------------------
-// Root mean square with one-pole lowpass and tau response.
-// (see `filters.lib`)
+// Root mean square with one-pole lowpass and tau response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -331,8 +331,8 @@ rms_envelope_tau(period, x) = ms_envelope_tau(period, x) : sqrt;
 
 
 //------------------`(an.)rms_envelope_t60`------------------------------------
-// Root mean square with one-pole lowpass and t60 response.
-// (see `filters.lib`)
+// Root mean square with one-pole lowpass and t60 response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -353,8 +353,8 @@ rms_envelope_t60(period, x) = ms_envelope_t60(period, x) : sqrt;
 
 
 //------------------`(an.)rms_envelope_t19`------------------------------------
-// Root mean square with one-pole lowpass and t19 response.
-// (see `filters.lib`)
+// Root mean square with one-pole lowpass and t19 response 
+// (see [filters.lib](https://faustlibraries.grame.fr/libs/filters/)).
 //
 // #### Usage
 //
@@ -400,9 +400,8 @@ declare zcr license "MIT-style STK-4.3 license";
 zcr(period, x) = ma.zc(x) : fi.lptau(period);
 
 
-//==============================================================================
-//  Adaptive Frequency Analysis
-//==============================================================================
+//==============================Adaptive Frequency Analysis===============================
+//========================================================================================
 
 //--------------------`(an.)pitchTracker`---------------------------------------
 //
@@ -418,7 +417,7 @@ zcr(period, x) = ma.zc(x) : fi.lptau(period);
 //
 // Where:
 //
-// * `N`: compile-time constant, sets the order of the low-pass filter, which
+// * `N`: a constant numerical expression, sets the order of the low-pass filter, which
 //  determines the sensitivity of the algorithm for signals where partials are
 //  stronger than the fundamental frequency.
 // * `tau`: response time in seconds based on exponentially-weighted averaging with tau time-constant. See <https://ccrma.stanford.edu/~jos/st/Exponentials.html>.
@@ -484,9 +483,9 @@ spectralCentroid(nonlinearity, t, x) = loop ~ _
                         'y = (x - s) * G + s;
                         's = 2 * (x - s) * G + s;
                     }
-                        with {
-                            G = tan(w(cf) / 2.0) / (1.0 + tan(w(cf) / 2.0));
-                        };
+                    with {
+                        G = tan(w(cf) / 2.0) / (1.0 + tan(w(cf) / 2.0));
+                    };
                 highpass(cf, x) = x - lowpass(cf, x);
                 xRMS = an.rms_envelope_tau(t, x);
                 xLRMS = an.rms_envelope_tau(t, lowpass(fb, x));
@@ -559,7 +558,7 @@ spectralCentroid(nonlinearity, t, x) = loop ~ _
 //
 // Where:
 //
-// * `O`: order of filter used to split each frequency band into two
+// * `O`: (odd) order of filter used to split each frequency band into two
 // * `M`: number of band-slices per octave
 // * `ftop`: highest band-split crossover frequency (e.g., 20 kHz)
 // * `N`: total number of bands (including dc and Nyquist)
@@ -589,7 +588,7 @@ mth_octave_analyzer_default = mth_octave_analyzer6e; // default analyzer
 
 
 //============================Mth-Octave Spectral Level===================================
-// Spectral Level: Display (in bar graphs) the average signal level in each spectral band.
+// Spectral Level: display (in bargraphs) the average signal level in each spectral band.
 //========================================================================================