Uploaded June 2022 | Updated September 2026, 2 weeks ago
Patching up an artificial neuron in Pure Data Vanilla for some nonlinear mixing.
There's no talking on this one, just building the patch, and listening to it go.
An artificial neuron is basically just a mixer: inputs come in, and are weighted differently, modelling the dendrites of a biological neuron; then the mixed signal is transformed by an "activation function", usually nonlinear, and output, modelling the axon.
Now, we can say that "learning" occurs when we adjust the weights (levels) of the inputs based on the output, but let's not do that here, let's just revel in our our nonlinear mix.
More details in my blog post here - simonhutchinson.com/2022/05/11/music-and-synthesis-with-a-single-neuron
EDIT: Those should be [line 0 3] not [line 3], my mistake. It still works, it just means they all start at 3 for no particular reason.
Pure Data introductory tutorials here: youtube.com/playlist?list=PL7w4cOVVxL6FB_mmJ77C6fdV8G6L4zDut
More no-talking Pure Data jams and patch-from-scratch videos: youtube.com/playlist?list=PL7w4cOVVxL6ESr9SuBYJARJkETfp12Dp3
0:00 Nonlinear Mixing and Artificial Neurons
1:17 Adding "Bias"
2:28 Neuron Complete
3:27 Automating the Weights
7:09 Adding Feedback
8:42 Adding Noise
9:58 Commenting our Code
11:25 Trying the ReLU Activation Function
12:04 Linear Mixing (with Hard Clipping)
Official Website - simonhutchinson.com
Subscribe: youtube.com/user/SimonHutc/?sub_confirmation=1
bandcamp: simonhutchinson.bandcamp.com
Buy me a coffee: ko-fi.com/simonhutchinson
Sign up for my mailing list: eepurl.com/hVs7bT
#SoundSynthesis #SoundDesign #ExperimentalMusic #puredata #pd #artificialneuralnetwork
Patching up an artificial neuron in Pure Data Vanilla for some nonlinear mixing.
There's no talking on this one, just building the patch, and listening to it go.
An artificial neuron is basically just a mixer: inputs come in, and are weighted differently, modelling the dendrites of a biological neuron; then the mixed signal is transformed by an "activation function", usually nonlinear, and output, modelling the axon.
Now, we can say that "learning" occurs when we adjust the weights (levels) of the inputs based on the output, but let's not do that here, let's just revel in our our nonlinear mix.
More details in my blog post here - simonhutchinson.com/2022/05/11/music-and-synthesis-with-a-single-neuron
EDIT: Those should be [line 0 3] not [line 3], my mistake. It still works, it just means they all start at 3 for no particular reason.
Pure Data introductory tutorials here: youtube.com/playlist?list=PL7w4cOVVxL6FB_mmJ77C6fdV8G6L4zDut
More no-talking Pure Data jams and patch-from-scratch videos: youtube.com/playlist?list=PL7w4cOVVxL6ESr9SuBYJARJkETfp12Dp3
0:00 Nonlinear Mixing and Artificial Neurons
1:17 Adding "Bias"
2:28 Neuron Complete
3:27 Automating the Weights
7:09 Adding Feedback
8:42 Adding Noise
9:58 Commenting our Code
11:25 Trying the ReLU Activation Function
12:04 Linear Mixing (with Hard Clipping)
Official Website - simonhutchinson.com
Subscribe: youtube.com/user/SimonHutc/?sub_confirmation=1
bandcamp: simonhutchinson.bandcamp.com
Buy me a coffee: ko-fi.com/simonhutchinson
Sign up for my mailing list: eepurl.com/hVs7bT
#SoundSynthesis #SoundDesign #ExperimentalMusic #puredata #pd #artificialneuralnetwork
