imported version 0.37-0

svn path=/trunk/; revision=1016

1 files changed, 0 insertions, 37 deletions

diff --git a/pd/doc/3.audio.examples/02.amplitude.pd b/pd/doc/3.audio.examples/02.amplitude.pd
deleted file mode 100644
index d24be18d..00000000
--- a/pd/doc/3.audio.examples/02.amplitude.pd
+++ /dev/null
@@ -1,37 +0,0 @@
-#N canvas 73 190 702 512 12;
-#X obj 64 65 osc~ 440;
-#X obj 64 283 dac~;
-#X text 145 66 <-- 440 Hz. sine wave at full blast;
-#X msg 431 7 \; pd dsp 1;
-#X msg 514 7 \; pd dsp 0;
-#X text 456 45 ON;
-#X text 534 43 OFF;
-#X text 164 18 CONTROLLING AMPLITUDE;
-#X text 35 327 Amplitudes of audio signals can have any reasonable
-range \, but when you output a signal via the dac~ object \, the samples
-should range between -1 and +1. Values out of that range will be "clipped."
-;
-#X obj 64 202 *~ 0;
-#X floatatom 107 165 0 0 0 0 - - -;
-#X obj 95 132 dbtorms;
-#X floatatom 95 100 0 0 80 0 - - -;
-#X text 141 100 <-- set amplitude here in dB;
-#X text 211 133 <-- this converts dB to linear units;
-#X text 210 164 <-- this shows the linear gain;
-#X text 116 204 <-- multiply the sine wave by the gain \, reducing
-its amplitude. You can also use the "*~" object to multiply two signals.
-The "0" argument here instructs it that we'll just send it messages
-to set the multiplier.;
-#X text 35 396 Here we calculate a gain for the multiplier (*~) using
-a "dbtorms" object (acronym for "dB to RMS"). 100 dB is normalized
-to one \, and zero dB artificially outputs a true 0;
-#X text 34 452 Pd assumes you have a two channel audio system unless
-you tell it otherwise.;
-#X text 440 486 updated for Pd version 0.33;
-#X text 114 282 <-- and out. We're sending to both channels now.;
-#X connect 0 0 9 0;
-#X connect 9 0 1 0;
-#X connect 9 0 1 1;
-#X connect 11 0 9 1;
-#X connect 11 0 10 0;
-#X connect 12 0 11 0;