Scrims v2
, for Csound+HTML5
Michael Gogins
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<CsoundSynthesizer> <CsOptions> -d -f -m195 -odac </CsOptions> <CsInstruments> sr = 48000 ksmps = 128 nchnls = 2 0dbfs = 15 connect "BarModel", "outleft", "ReverbSC", "inleft" connect "BarModel", "outright", "ReverbSC", "inright" connect "Blower", "outleft", "ReverbSC", "inleft" connect "Blower", "outright", "ReverbSC", "inright" connect "Bower", "outleft", "ReverbSC", "inleft" connect "Bower", "outright", "ReverbSC", "inright" connect "Buzzer", "outleft", "ReverbSC", "inleft" connect "Buzzer", "outright", "ReverbSC", "inright" connect "Droner", "outleft", "ReverbSC", "inleft" connect "Droner", "outright", "ReverbSC", "inright" connect "FMModerate2", "outleft", "ReverbSC", "inleft" connect "FMModerate2", "outright", "ReverbSC", "inright" connect "Harpsichord", "outleft", "ReverbSC", "inleft" connect "Harpsichord", "outright", "ReverbSC", "inright" connect "KarplusStrong3", "outleft", "ReverbSC", "inleft" connect "KarplusStrong3", "outright", "ReverbSC", "inright" connect "Phaser", "outleft", "ReverbSC", "inleft" connect "Phaser", "outleft", "ReverbSC", "inright" connect "Plucked", "outright", "ReverbSC", "inleft" connect "Plucked", "outleft", "ReverbSC", "inright" connect "Rhodes", "outleft", "ReverbSC", "inleft" connect "Rhodes", "outright", "ReverbSC", "inright" connect "Sweeper", "outleft", "ReverbSC", "inleft" connect "Sweeper", "outright", "ReverbSC", "inright" connect "Shiner", "outleft", "ReverbSC", "inleft" connect "Shiner", "outright", "ReverbSC", "inright" connect "Xing", "outleft", "MasterOutput", "inleft" connect "Xing", "outright", "MasterOutput", "inright" connect "YiString", "outleft", "ReverbSC", "inleft" connect "YiString", "outright", "ReverbSC", "inright" ;connect "YiString", "chorusleft", "SolinaChorus", "inleft" ;connect "YiString", "chorusright", "SolinaChorus", "inright" ;connect "SolinaChorus", "outleft", "ReverbSC", "inleft" ;connect "SolinaChorus", "outright", "ReverbSC", "inright" connect "ReverbSC", "outleft", "MasterOutput", "inleft" connect "ReverbSC", "outright", "MasterOutput", "inright" ;alwayson "Controls" ;alwayson "SolinaChorus" ;alwayson "ReverbSC" ;alwayson "MasterOutput" scoreline_i "i \"Controls\" 0 36000" ;scoreline_i "i \"SolinaChorus\" 0 36000" scoreline_i "i \"ReverbSC\" 0 36000" scoreline_i "i \"MasterOutput\" 0 36000" scoreline_i "f 0 3600\n" gk_Plucked_level init 0 instr Plucked ; Author: Michael Gogins i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_velocity = p5 k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_overall_amps = 101 i_normalization = ampdb(-i_overall_amps) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Plucked_level) isine ftgenonce 0, 0, 65537, 10, 1 aenvelope transeg 1.0, 20, -12.0, 0.05 aexcite poscil 1.0, 1, isine asignal1 wgpluck2 0.1, 1.0, i_frequency, 0.25, 0.22 asignal2 wgpluck2 0.1, 1.0, i_frequency * 1.003, 0.20, 0.223 asignal3 wgpluck2 0.1, 11, i_frequency * 0.997, 0.23, 0.224 a_signal = (asignal1 + asignal2 + asignal3) * aenvelope i_attack = .002 i_sustain = p3 i_release = 0.01 xtratim i_attack + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Rhodes_level init 0 gi_Rhodes_sine ftgen 0, 0, 65537, 10, 1 gi_Rhodes_cosine ftgen 0, 0, 65537, 11, 1 gi_Rhodes_blank ftgen 0, 0, 65537, 10, 0 ; Blank wavetable for some Cook FM opcodes. instr Rhodes ; Authors: Perry Cook, John ffitch, Michael Gogins i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_velocity = p5 k_space_front_to_back = p6 k_space_left_to_right = .5 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_overall_amps = 82 i_normalization = ampdb(-i_overall_amps) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Rhodes_level) iindex = 4 icrossfade = 3 ivibedepth = 0.2 iviberate = 6 ifn1 = gi_Rhodes_sine ifn2 = gi_Rhodes_cosine ifn3 = gi_Rhodes_sine ifn4 = gi_Rhodes_blank ivibefn = gi_Rhodes_sine a_signal fmrhode i_amplitude, i_frequency, iindex, icrossfade, ivibedepth, iviberate, ifn1, ifn2, ifn3, ifn4, ivibefn i_attack = .002 i_sustain = p3 i_release = 0.01 xtratim i_attack + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Buzzer_attack init .125 gk_Buzzer_release init .25 gk_Buzzer_harmonics init 8 gk_Buzzer_level init 0 gk_Buzzer_midi_dynamic_range init 127 gi_Buzzer_sine ftgen 0, 0, 65537, 10, 1 instr Buzzer i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Buzzer_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 79.5 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Buzzer_level) i_attack = i(gk_Buzzer_attack) i_release = i(gk_Buzzer_release) i_sustain = p3 xtratim i_attack + i_release a_envelope transegr 0.0, i_attack / 2.0, 1.5, i_amplitude / 2.0, i_attack / 2.0, -1.5, i_amplitude, i_sustain, 0.0, i_amplitude, i_release / 2.0, 1.5, i_amplitude / 2.0, i_release / 2.0, -1.5, 0 a_signal buzz a_envelope, i_frequency, gk_Buzzer_harmonics, gi_Buzzer_sine a_signal = a_signal * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif ;printks "Buzzer i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d l%9.4f r%9.4f\n", 1, p1, p2, p3, p4, p5, p7, active(p1), dbamp(rms(a_out_left)), dbamp(rms(a_out_right)) prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Droner_partial1 init .5 gk_Droner_partial2 init .05 gk_Droner_partial3 init .1 gk_Droner_partial4 init .2 gk_Droner_partial5 init .1 gk_Droner_partial6 init 0 gk_Droner_partial7 init 0 gk_Droner_partial8 init 0 gk_Droner_partial9 init 0 gk_Droner_partial10 init 0 gk_Droner_level init 0 gi_Droner_waveform init 0 instr Droner i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_velocity = p5 k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_overall_amps = -20 + 98 + 4 i_normalization = ampdb(-i_overall_amps) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Droner_level) k1 = gk_Droner_partial1 k2 = gk_Droner_partial2 k3 = gk_Droner_partial3 k4 = gk_Droner_partial4 k5 = gk_Droner_partial5 k6 = gk_Droner_partial6 k7 = gk_Droner_partial7 k8 = gk_Droner_partial8 k9 = gk_Droner_partial9 k10 = gk_Droner_partial10 iwaveform = gi_Droner_waveform iattack = .5 idecay = .5 xtratim iattack + idecay isustain = p3 aenvelope transegr 0.0, iattack / 2.0, 1.5, 1 / 2.0, iattack / 2.0, -1.5, 1, isustain, 0.0, 1, idecay / 2.0, 1.5, 1 / 2.0, idecay / 2.0, -1.5, 0 ihertz = cpsmidinn(i_midi_key) isine ftgenonce 0, 0, 65537, 10, 1, 0, .02 if iwaveform == 0 goto i_waveform_0 if iwaveform == 1 goto i_waveform_1 if iwaveform == 2 goto i_waveform_2 i_waveform_0: asignal poscil3 1, ihertz, isine goto i_waveform_endif i_waveform_1: asignal vco2 1, ihertz, 8 ; integrated saw goto i_waveform_endif i_waveform_2: asignal vco2 1, ihertz, 12 ; triangle i_waveform_endif: asignal chebyshevpoly asignal, 0, k1, k2, k3, k4, k5, k6, k7, k8, k9, k10 adeclicking linsegr 0, .004, 1, p3 - .014, 1, .1, 0 a_signal = asignal * adeclicking a_signal = a_signal * i_amplitude * k_gain * 1.4 #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_YiString_midi_dynamic_range init 127 gk_YiString_level init 0 gk_YiString_reverb_send init .5 gk_YiString_chorus_send init .5 gi_YiString_overlap init .1 instr YiString ////////////////////////////////////////////// // Original by Steven Yi. // Adapted by Michael Gogins. ////////////////////////////////////////////// i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_YiString_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 71.5 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_YiString_level) iattack = gi_YiString_overlap isustain = p3 idecay = gi_YiString_overlap xtratim iattack + idecay aenvelope transeg 0.0, iattack / 2.0, 1.5, i_amplitude / 2.0, iattack / 2.0, -1.5, i_amplitude, isustain, 0.0, i_amplitude, idecay / 2.0, 1.5, i_amplitude / 2.0, idecay / 2.0, -1.5, 0 ;ampenv = madsr:a(1, 0.1, 0.95, 0.5) asignal = vco2(1, i_frequency) asignal = moogladder(asignal, 6000, 0.1) a_signal = asignal * aenvelope i_attack = .002 i_release = 0.01 i_sustain = p3 - (i_attack + i_release) a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_signal_reverb = a_signal * gk_YiString_reverb_send a_signal_chorus = a_signal * gk_YiString_chorus_send a_out_left, a_out_right pan2 a_signal_reverb, p7 outleta "outleft", a_out_left outleta "outright", a_out_right a_out_left, a_out_right pan2 a_signal_chorus, p7 outleta "chorusleft", a_out_left outleta "chorusright", a_out_right ;printks "YiString %9.4f %9.4f\n", 0.5, a_out_left, a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_FMModerate2_level init 0 gi_FMModerate2_carrier init 1 gi_FMModerate2_modulator init 4 gi_FMModerate2_fmamplitude init 9 gi_FMModerate2_index init 2 instr FMModerate2 ; Author: Michael Gogins i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_velocity = p5 k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_overall_amps = 85 i_normalization = ampdb(-i_overall_amps) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization i_frequency = cpsmidinn(i_midi_key) k_gain = ampdb(gk_FMModerate2_level) iattack = 0.002 isustain = p3 idecay = 1.5 irelease = 0.05 xtratim iattack + irelease icarrier = gi_FMModerate2_carrier imodulator = gi_FMModerate2_modulator ifmamplitude = gi_FMModerate2_fmamplitude index = gi_FMModerate2_index ifrequencyb = i_frequency * 1.003 icarrierb = icarrier * 1.004 aindenv transegr 0.0, iattack, -8.0, 1.0, idecay, -8.0, 0.025, isustain, 0.0, 0.025, irelease, 7.0, 0.0 aindex = aindenv * index * ifmamplitude icosine ftgenonce 0, 0, 65537, 11, 1 aouta foscili 1.0, i_frequency, icarrier, imodulator, index, icosine aoutb foscili 1.0, ifrequencyb, icarrierb, imodulator, index, icosine; Plus amplitude correction. a_signal = (aouta + aoutb) * aindenv i_attack = .002 i_sustain = p3 i_release = 0.01 xtratim i_attack + i_sustain + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Phaser_attack init .125 gk_Phaser_release init .125 gk_Phaser_ratio1 init 1 gk_Phaser_ratio2 init 1/3 gk_Phaser_index1 init 2 gk_Phaser_index2 init 0.0125 gk_Phaser_level init 0.5 gk_Phaser_midi_dynamic_range init 127 gi_Phaser_sine ftgen 0,0,65537,10,1 instr Phaser i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Phaser_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 85.5 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Phaser_level) i_attack = i(gk_Phaser_attack) i_release = i(gk_Phaser_release) i_sustain = 1000 xtratim i_attack + i_release a_envelope transegr 0.0, i_attack / 2.0, 1.5, i_amplitude / 2.0, i_attack / 2.0, -1.5, i_amplitude, i_sustain, 0.0, i_amplitude, i_release / 2.0, 1.5, i_amplitude / 2.0, i_release / 2.0, -1.5, 0 a1,a2 crosspm gk_Phaser_ratio1, gk_Phaser_ratio2, gk_Phaser_index1, gk_Phaser_index2, i_frequency, gi_Phaser_sine, gi_Phaser_sine a_signal = (a1 + a2) * k_gain * a_envelope #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) ;printks "Phaser i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d l%9.4f r%9.4f\n", 1, p1, p2, p3, p4, p5, p7, active(p1), dbamp(rms(aleft)), dbamp(rms(aright)) endin gk_Bower_midi_dynamic_range init 127 gk_Bower_attack init .125 gk_Bower_release init .125 gk_Bower_level init 0 gk_Bower_pressure init 0.25 gi_Bower_sine ftgen 0,0,65537,10,1 instr Bower i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Bower_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 80 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Bower_level) iattack = i(gk_Bower_attack) idecay = i(gk_Bower_release) isustain = p3 iamp = i_amplitude xtratim iattack + idecay kenvelope transegr 0.0, iattack / 2.0, 1.5, iamp / 2.0, iattack / 2.0, -1.5, iamp, isustain, 0.0, iamp, idecay / 2.0, 1.5, iamp / 2.0, idecay / 2.0, -1.5, 0 ihertz = cpsmidinn(i_midi_key) kamp = kenvelope kfreq = ihertz kpres = 0.25 krat rspline 0.006,0.988,1,4 kvibf = 4.5 kvibamp = 0 iminfreq = i(kfreq) / 2 aSig wgbow kamp,kfreq,gk_Bower_pressure,krat,kvibf,kvibamp,gi_Bower_sine,iminfreq a_signal = aSig * kenvelope * k_gain aleft, aright pan2 a_signal, k_space_left_to_right outleta "outleft", aleft outleta "outright", aright prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Blower_grainDensity init 40 gk_Blower_grainDuration init 0.2 gk_Blower_grainAmplitudeRange init 100 gk_Blower_grainFrequencyRange init 3 gk_Blower_level init 0 gk_Blower_midi_dynamic_range init 127 gi_Blower_grtab ftgen 0, 0, 65537, 10, 1, .3, .1, 0, .2, .02, 0, .1, .04 gi_Blower_wintab ftgen 0, 0, 65537, 10, 1, 0, .5, 0, .33, 0, .25, 0, .2, 0, .167 instr Blower ////////////////////////////////////////////// // Original by Hans Mikelson. // Adapted by Michael Gogins. ////////////////////////////////////////////// i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Blower_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 132 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Blower_level) iHz = i_frequency ihertz = iHz ip4 = i_amplitude ip5 = iHz ip6 = gi_Blower_grtab ip7 = gi_Blower_wintab ip8 = 0.033 ip8 = .002 ip9 = 150 ip9 = 100 ip10 = 1.6 ip10 = 3 idur = p3 iamp = i_amplitude ; p4 ifqc = iHz ; cpspch(p5) igrtab = ip6 iwintab = ip7 ifrng = ip8 idens = ip9 ifade = ip10 igdur = 0.2 iattack = 0.5 i_sustain = p3 idecay = 1.5 xtratim iattack + idecay kenvelope transegr 0.0, iattack / 2.0, 1.5, .5, iattack / 2.0, -1.5, 1, i_sustain, 0.0, 1, idecay / 2.0, 1.5, .5, idecay / 2.0, -1.5, 0 ; kamp linseg 0, ifade, 1, idur - 2 * ifade, 1, ifade, 0 kamp = kenvelope ; Amp Fqc Dense AmpOff PitchOff GrDur GrTable WinTable MaxGrDur aoutl grain ip4, ifqc, gk_Blower_grainDensity, gk_Blower_grainAmplitudeRange, gk_Blower_grainFrequencyRange, gk_Blower_grainDuration, igrtab, iwintab, 5 aoutr grain ip4, ifqc, gk_Blower_grainDensity, gk_Blower_grainAmplitudeRange, gk_Blower_grainFrequencyRange, gk_Blower_grainDuration, igrtab, iwintab, 5 a_signal = aoutl + aoutr i_attack = .002 i_release = 0.01 xtratim i_attack + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Xing_level init 0 instr Xing ; Author: Andrew Horner i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_velocity = p5 k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_overall_amps = 75 i_normalization = ampdb(-i_overall_amps) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization i_frequency = cpsmidinn(i_midi_key) k_gain = ampdb(gk_Xing_level ) isine ftgenonce 0, 0, 65537, 10, 1 iinstrument = p1 istarttime = p2 ioctave = p4 idur = p3 kfreq = k(i_frequency) iamp = 1 inorm = 32310 aamp1 linseg 0,.001,5200,.001,800,.001,3000,.0025,1100,.002,2800,.0015,1500,.001,2100,.011,1600,.03,1400,.95,700,1,320,1,180,1,90,1,40,1,20,1,12,1,6,1,3,1,0,1,0 adevamp1 linseg 0, .05, .3, idur - .05, 0 adev1 poscil adevamp1, 6.7, isine, .8 amp1 = aamp1 * (1 + adev1) aamp2 linseg 0,.0009,22000,.0005,7300,.0009,11000,.0004,5500,.0006,15000,.0004,5500,.0008,2200,.055,7300,.02,8500,.38,5000,.5,300,.5,73,.5,5.,5,0,1,1 adevamp2 linseg 0,.12,.5,idur-.12,0 adev2 poscil adevamp2, 10.5, isine, 0 amp2 = aamp2 * (1 + adev2) aamp3 linseg 0,.001,3000,.001,1000,.0017,12000,.0013,3700,.001,12500,.0018,3000,.0012,1200,.001,1400,.0017,6000,.0023,200,.001,3000,.001,1200,.0015,8000,.001,1800,.0015,6000,.08,1200,.2,200,.2,40,.2,10,.4,0,1,0 adevamp3 linseg 0, .02, .8, idur - .02, 0 adev3 poscil adevamp3, 70, isine ,0 amp3 = aamp3 * (1 + adev3) awt1 poscil amp1, i_frequency, isine awt2 poscil amp2, 2.7 * i_frequency, isine awt3 poscil amp3, 4.95 * i_frequency, isine asig = awt1 + awt2 + awt3 arel linenr 1,0, idur, .06 a_signal = asig * arel * (iamp / inorm) i_attack = .002 i_sustain = p3 i_release = 0.01 xtratim i_attack + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Harpsichord_midi_dynamic_range init 127 gk_Harpsichord_level init 0 gk_Harpsichord_pick init .075 gk_Harpsichord_reflection init .5 gk_Harpsichord_pluck init .75 instr Harpsichord i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Harpsichord_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.6 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 82.4 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Harpsichord_level) iHz = cpsmidinn(i_midi_key) kHz = k(iHz) aenvelope transeg 1.0, 20.0, -10.0, 0.05 k_amplitude = 1 apluck pluck 1, kHz, iHz, 0, 1 iharptable ftgenonce 0, 0, 65536, 7, -1, 1024, 1, 1024, -1 aharp poscil 1, kHz, iharptable aharp2 balance apluck, aharp a_signal = (apluck + aharp2) i_attack = .002 i_sustain = p3 i_release = 0.01 xtratim i_attack + i_release a_declicking linsegr 0, i_attack, 1, i_sustain, 1, i_release, 0 a_signal = a_signal * i_amplitude * a_declicking * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif ;printks "Harpsichord %9.4f %9.4f\n", 0.5, a_out_left, a_out_right prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Bower_midi_dynamic_range init 127 gk_Bower_attack init .125 gk_Bower_release init .125 gk_Bower_level init 0 gk_Bower_pressure init 0.25 gi_Bower_sine ftgen 0,0,65537,10,1 instr Bower i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Bower_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 80 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Bower_level) iattack = i(gk_Bower_attack) idecay = i(gk_Bower_release) isustain = p3 iamp = i_amplitude xtratim iattack + idecay kenvelope transegr 0.0, iattack / 2.0, 1.5, iamp / 2.0, iattack / 2.0, -1.5, iamp, isustain, 0.0, iamp, idecay / 2.0, 1.5, iamp / 2.0, idecay / 2.0, -1.5, 0 ihertz = cpsmidinn(i_midi_key) kamp = kenvelope kfreq = ihertz kpres = 0.25 krat rspline 0.006,0.988,1,4 kvibf = 4.5 kvibamp = 0 iminfreq = i(kfreq) / 2 aSig wgbow kamp,kfreq,gk_Bower_pressure,krat,kvibf,kvibamp,gi_Bower_sine,iminfreq a_signal = aSig * kenvelope * k_gain aleft, aright pan2 a_signal, k_space_left_to_right outleta "outleft", aleft outleta "outright", aright prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Sweeper_midi_dynamic_range init 127 gk_Sweeper_attack init .125 gk_Sweeper_release init .25 gk_Sweeper_britel init 0.1 gk_Sweeper_briteh init 2.9 gk_Sweeper_britels init 2 gk_Sweeper_britehs init 1 gk_Sweeper_level init 0 gi_Sweeper_sine ftgen 0, 0, 65537, 10, 1 gi_Sweeper_octfn ftgen 0, 0, 65537, -19, 1, 0.5, 270, 0.5 instr Sweeper ////////////////////////////////////////////// // Original by Iain McCurdy. // Adapted by Michael Gogins. ////////////////////////////////////////////// i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Sweeper_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 78.3 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Sweeper_level) iattack = i(gk_Sweeper_attack) irelease = i(gk_Sweeper_release) isustain = p3 xtratim iattack + irelease kenvelope transegr 0.0, iattack / 2.0, 1.5, i_amplitude / 2.0, iattack / 2.0, -1.5, i_amplitude, isustain, 0.0, i_amplitude, irelease / 2.0, 1.5, i_amplitude / 2.0, irelease / 2.0, -1.5, 0 ihertz = i_frequency icps = ihertz kamp expseg 0.001,0.02,0.2,p3-0.01,0.001 ktonemoddep jspline 0.01,0.05,0.2 ktonemodrte jspline 6,0.1,0.2 ktone poscil3 ktonemoddep, ktonemodrte, gi_Sweeper_sine kbrite rspline gk_Sweeper_britel, gk_Sweeper_briteh, gk_Sweeper_britels, gk_Sweeper_britehs ibasfreq init icps ioctcnt init 3 iphs init 0 a1 hsboscil kenvelope, ktone, kbrite, ibasfreq, gi_Sweeper_sine, gi_Sweeper_octfn, ioctcnt, iphs amod poscil3 0.25, ibasfreq*(1/3), gi_Sweeper_sine arm = a1*amod kmix expseg 0.001, 0.01, rnd(1), rnd(3)+0.3, 0.001 kmix=.25 a1 ntrpol a1, arm, kmix kpanrte jspline 5, 0.05, 0.1 kpandep jspline 0.9, 0.2, 0.4 kpan poscil3 kpandep, kpanrte, gi_Sweeper_sine ;a1,a2 pan2 a1, kpan a1,a2 pan2 a1, k_space_left_to_right aleft delay a1, rnd(0.1) aright delay a2, rnd(0.11) a_signal = (aleft + aright) * k_gain #ifdef USE_SPATIALIZATION a_spatial_reverb_send init 0 a_bsignal[] init 16 a_bsignal, a_spatial_reverb_send Spatialize a_signal, k_space_front_to_back, k_space_left_to_right, k_space_bottom_to_top outletv "outbformat", a_bsignal outleta "out", a_spatial_reverb_send #else a_out_left, a_out_right pan2 a_signal, k_space_left_to_right outleta "outleft", a_out_left outleta "outright", a_out_right #endif prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Shiner_midi_dynamic_range init 127 gk_Shiner_attack init .0125 gk_Shiner_release init .0125 gk_Shiner_level init 0.5 instr Shiner i_instrument = p1 i_time = p2 i_duration = p3 i_midi_key = p4 i_midi_dynamic_range = i(gk_Shiner_midi_dynamic_range) i_midi_velocity = p5 * i_midi_dynamic_range / 127 + (63.5 - i_midi_dynamic_range / 2) k_space_front_to_back = p6 k_space_left_to_right = p7 k_space_bottom_to_top = p8 i_phase = p9 i_frequency = cpsmidinn(i_midi_key) ; Adjust the following value until "overall amps" at the end of performance is about -6 dB. i_level_correction = 92 i_normalization = ampdb(-i_level_correction) / 2 i_amplitude = ampdb(i_midi_velocity) * i_normalization k_gain = ampdb(gk_Shiner_level) iattack = i(gk_Shiner_attack) idecay = i(gk_Shiner_release) isustain = p3 - i(gk_Shiner_attack) xtratim iattack + idecay kenvelope transeg 0.0, iattack / 2.0, 1.5, i_amplitude / 2.0, iattack / 2.0, -1.5, i_amplitude, isustain, 0.0, i_amplitude, idecay / 2.0, 1.5, i_amplitude / 2.0, idecay / 2.0, -1.5, 0 ihertz = cpsmidinn(i_midi_key) gk_Harmonics = 1 * 20 asignal vco2 kenvelope * 4, ihertz, 12 kgain = ampdb(gk_Shiner_level) * .5 adamping linseg 0, 0.03, 1, p3 - 0.1, 1, 0.07, 0 a_signal = asignal * kgain * adamping aleft, aright pan2 asignal, k_space_left_to_right ;printks2 "master gain:", kgain outleta "outleft", aleft outleta "outright", aright prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin /** * Solina Chorus, based on Solina String Ensemble Chorus Module J. Haible: Triple Chorus http://jhaible.com/legacy/triple_chorus/triple_chorus.html Hugo Portillo: Solina-V String Ensemble http://www.native-instruments.com/en/reaktor-community/reaktor-user-library/entry/show/4525/ Parabola tabled shape borrowed from Iain McCurdy delayStereoChorus.csd: http://iainmccurdy.org/CsoundRealtimeExamples/Delays/delayStereoChorus.csd Author: Steven Yi Date: 2016.05.22 Adapted by Michael Gogins */ gi_solina_parabola ftgen 0, 0, 65537, 19, 0.5, 1, 180, 1 ; 3 sine wave LFOs, 120 degrees out of phase opcode sol_lfo_3, aaa, kk kfreq, kamp xin aphs phasor kfreq ; Funny: Function syntax does not work in this context. a0 tablei aphs, gi_solina_parabola, 1, 0, 1 a120 tablei aphs, gi_solina_parabola, 1, 0.333, 1 a240 tablei aphs, gi_solina_parabola, 1, -0.333, 1 xout (a0 * kamp), (a120 * kamp), (a240 * kamp) endop opcode solina_chorus, a, akkkk aLeft, klfo_freq1, klfo_amp1, klfo_freq2, klfo_amp2 xin imax = 100 ;; slow lfo as1, as2, as3 sol_lfo_3 klfo_freq1, klfo_amp1 ;; fast lfo af1, af2, af3 sol_lfo_3 klfo_freq2, klfo_amp2 at1 = limit(as1 + af1 + 5, 0.0, imax) at2 = limit(as2 + af2 + 5, 0.0, imax) at3 = limit(as3 + af3 + 5, 0.0, imax) a1 vdelay3 aLeft, at1, imax a2 vdelay3 aLeft, at2, imax a3 vdelay3 aLeft, at2, imax xout (a1 + a2 + a3) / 3 endop gk_SolinaChorus_chorus_lfo1_hz init .18 gk_SolinaChorus_chorus_lfo1_amp init .6 gk_SolinaChorus_chorus_lfo2_hz init 6 gk_SolinaChorus_chorus_lfo2_amp init .2 instr SolinaChorus aleft inleta "inleft" aright inleta "inright" aleft solina_chorus aleft, gk_SolinaChorus_chorus_lfo1_hz, gk_SolinaChorus_chorus_lfo1_amp, gk_SolinaChorus_chorus_lfo2_hz, gk_SolinaChorus_chorus_lfo2_amp aright solina_chorus aright, gk_SolinaChorus_chorus_lfo1_hz, gk_SolinaChorus_chorus_lfo1_amp, gk_SolinaChorus_chorus_lfo2_hz, gk_SolinaChorus_chorus_lfo2_amp outleta "outleft", aleft outleta "outright", aright prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_Reverb_feedback init 0.975 gi_Reverb_delay_modulation init 0.875 gk_Reverb_frequency_cutoff init 15000 instr ReverbSC adummy init 0 azero init 0 aleft init 0 aleft_zero init 0 aright init 0 aright_zero init 0 aleft inleta "inleft" aright inleta "inright" ; aoutL, aoutR reverbsc ainL, ainR, kfblvl, kfco[, israte[, ipitchm[, iskip]]] aleft, adummy reverbsc aleft, azero, gk_Reverb_feedback, gk_Reverb_frequency_cutoff, sr, gi_Reverb_delay_modulation adummy, aright reverbsc azero, aright, gk_Reverb_feedback, gk_Reverb_frequency_cutoff, sr, gi_Reverb_delay_modulation outleta "outleft", aleft outleta "outright", aright prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin gk_MasterOutput_level init 0 instr MasterOutput aleft inleta "inleft" aright inleta "inright" k_gain = ampdb(gk_MasterOutput_level) printks2 "Master gain: %f\n", k_gain iamp init 1 aleft butterlp aleft, 18000 aright butterlp aright, 18000 outs aleft * k_gain, aright * k_gain prints "%24.24s i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f #%3d\n", nstrstr(p1), p1, p2, p3, p4, p5, p7, active(p1) endin instr Controls gk_BarModel_level chnget "gk_BarModel_level" gk_BarModel_kbcL chnget "gk_BarModel_kbcL" gk_BarModel_kbcR chnget "gk_BarModel_kbcR" gi_BarModel_iK chnget "gi_BarModel_iK" gi_BarModel_ib chnget "gi_BarModel_ib" gk_BarModel_kscan chnget "gk_BarModel_kscan" gi_BarModel_iT30 chnget "gi_BarModel_iT30" gi_BarModel_ipos chnget "gi_BarModel_ipos" gi_BarModel_ivel chnget "gi_BarModel_ivel" gi_BarModel_iwid chnget "gi_BarModel_iwid" gk_Bower_attack chnget "gk_Bower_attack" gk_Bower_release chnget "gk_Bower_release" gk_Bower_level chnget "gk_Bower_level" gk_Bower_pressure chnget "gk_Bower_pressure" gk_Blower_grainDensity chnget "gk_Blower_grainDensity" gk_Blower_grainDuration chnget "gk_Blower_grainDuration" gk_Blower_grainAmplitudeRange chnget "gk_Blower_grainAmplitudeRange" gk_Blower_grainFrequencyRange chnget "gk_Blower_grainFrequencyRange" gk_Blower_level chnget "gk_Blower_level" gk_Buzzer_attack chnget "gk_Buzzer_attack" gk_Buzzer_release chnget "gk_Buzzer_release" gk_Buzzer_harmonics chnget "gk_Buzzer_harmonics" gk_Buzzer_level chnget "gk_Buzzer_level" gk_Droner_partial1 chnget "gk_Droner_partial1" gk_Droner_partial2 chnget "gk_Droner_partial2" gk_Droner_partial3 chnget "gk_Droner_partial3" gk_Droner_partial4 chnget "gk_Droner_partial4" gk_Droner_partial5 chnget "gk_Droner_partial5" gk_Droner_partial6 chnget "gk_Droner_partial6" gk_Droner_partial7 chnget "gk_Droner_partial7" gk_Droner_partial8 chnget "gk_Droner_partial8" gk_Droner_partial9 chnget "gk_Droner_partial9" gk_Droner_partial10 chnget "gk_Droner_partial10" gi_Droner_waveform chnget "gi_Droner_waveform" gk_Droner_level chnget "gk_Droner_level" gk_FMModerate2_level chnget "gk_FMModerate2_level" gi_FMModerate2_carrier chnget "gi_FMModerate2_carrier" gi_FMModerate2_modulator chnget "gi_FMModerate2_modulator" gi_FMModerate2_fmamplitude chnget "gi_FMModerate2_fmamplitude" gi_FMModerate2_index chnget "gi_FMModerate2_index" gk_Harpsichord_level chnget "gk_Harpsichord_level" gk_Harpsichord_pick chnget "gk_Harpsichord_pick" gk_Harpsichord_reflection chnget "gk_Harpsichord_reflection" gk_Harpsichord_pluck chnget "gk_Harpsichord_pluck" gk_MasterOutput_level chnget "gk_MasterOutput_level" gk_Phaser_release chnget "gk_Phaser_release" gk_Phaser_attack chnget "gk_Phaser_attack" gk_Phaser_ratio1 chnget "gk_Phaser_ratio1" gk_Phaser_ratio2 chnget "gk_Phaser_ratio2" gk_Phaser_index1 chnget "gk_Phaser_index1" gk_Phaser_index2 chnget "gk_Phaser_index2" gk_Phaser_level chnget "gk_Phaser_level" gk_Reverb_feedback chnget "gk_Reverb_feedback" gi_Reverb_delay_modulation chnget "gi_Reverb_delay_modulation" gk_Reverb_frequency_cutoff chnget "gk_Reverb_frequency_cutoff" gk_Shiner_level chnget "gk_Shiner_level" gk_Shiner_attack chnget "gk_Shiner_attack" gk_Shiner_release chnget "gk_Shiner_release" gk_SolinaChorus_chorus_lfo1_hz init .18 gk_SolinaChorus_chorus_lfo1_amp init .6 gk_SolinaChorus_chorus_lfo2_hz init 6 gk_SolinaChorus_chorus_lfo2_amp init .2 gk_Sweeper_attack chnget "gk_Sweeper_attack" gk_Sweeper_release chnget "gk_Sweeper_release" gk_Sweeper_britel chnget "gk_Sweeper_britel" gk_Sweeper_briteh chnget "gk_Sweeper_briteh" gk_Sweeper_britels chnget "gk_Sweeper_britels" gk_Sweeper_britehs chnget "gk_Sweeper_britehs" gk_Sweeper_level chnget "gk_Sweeper_level" gk_YiString_reverb_send chnget "gk_YiString_reverb_send" gk_YiString_cbhorus_send chnget "gk_YiString_cbhorus_send" gk_YiString_level chnget "gk_YiString_level" prints "Controls i %9.4f t %9.4f d %9.4f k %9.4f v %9.4f p %9.4f\\n", p1, p2, p3, p4, p5, p7 endin </CsInstruments> <CsScore> f 0 36000 </CsScore> <CsoundSynthesizer>