Check out my latest release “Speculation and Imagination”, combining gentle melodic sequences with harsh, noisy feedback.
These tracks are an edit of my live analog synthesizer improvisation from a online “session” with painter Onozaki Takuya. Onozaki and I meet monthly for jam sessions over Zoom, him in Hanamaki and me in Connecticut, where he paints, and I play my synths, exchanging artistic ideas across our mediums.
If you happen to be around Toyko this week, Onozaki’s works, some of which were created in these sessions, are on display 2/7/25-2/16/25 at “Gallery Camellia”in Ginza.
Patching up a Karplus-Strong synth from scratch in Reatkor 6 Primary.
Karplus-Strong synthesis is a digital synthesis technique that simulates the sound of plucked strings by using a feedback loop to model the behavior of a vibrating string. Developed by Kevin Karplus and Alex Strong, this method generates resonant waveforms by feeding back a short noise signal through a filtered delay line with feedback.
In this video we build a simple K-S synth from scratch in Native Instruments Reaktor 6, exploring what happens based on the design decisions that we make. By the end of this video, you should understand both the theoretical concepts and practical implementation in Reaktor, giving you a unique tool for your music production arsenal.
Check out more intermediate Reaktor Tutorials here:
Digging through my closet, I found this binaural dummy head that I made several years ago, and I thought I’d take it for a spin. Perhaps it’s time for me to transition this channel into ASMR content?
I’ve talked before about binaural recordings, but I forgot that I had made this cheap binaural head probably close to 10 years ago. While it’s certainly not of the same quality as professional binaural microphones, give it a listen and let me know what you think about it as a $20 solution!
Talking about voltage starving your audio equipment with Will Klingenmeier.
I sat down for a virtual chat with Will, who has been doing some interesting experiments voltage starving his Moog DFAM and Subharmonicon. Voltage starving is when you intentionally deprive a circuit or device of the full voltage it needs to function, simulating a “dying battery”. The sounds you get are probably not what the manufacturer intended, but definitely an aesthetic worth exploring as you look for new sounds.
In this wide-ranging discussion, we talk about circuit-bending, starving stompboxes, and whether or not this is a good idea with your expensive equipment.
0:00 Introduction 0:30 What is “voltage starving”? 1:08 Voltage starving & circuit-bending 1:54 Voltage starving Moog synths 3:46 How to do it 4:33 Is this dangerous to your equipment? 6:07 Thinking about guitar pedals 8:15 Closing thoughts
Patching up a Karplus-Strong synth from scratch in Pure Data Vanilla from scratch.
Karplus-Strong synthesis is a digital synthesis technique that simulates the sound of plucked strings by using a feedback loop to model the behavior of a vibrating string. Developed by Kevin Karplus and Alex Strong, this method generates resonant waveforms by feeding back a short noise signal through a filtered delay line with feedback. In this video, we build a simple K-S synth from scratch in Pd, exploring what happens when we mess with the various parameters.
The plugin itself has an XY axis, and I didn’t want to just sitting down wiggling a mouse around. Luckily, Freakshow Industries included MIDI control for the plugin (as from continuous controllers), so all I had to do was create an instrument track in Logic with the plugin, and then convert OSC data to MIDI CCs in Max.
Sorry if the aesthetics here aren’t up your alley, but hopefully the ideas here can be helpful!
I love noise. Here, I explain the different “colors” of noise (and why they have those chromatic names).
From our dear friends white noise and pink noise, to less familiar characters such as brown noise, and green noise, each type has a particular frequency spectrum and therefore different uses in synthesis and sound design.
I’ve just posted a re-edit of my series introducing circuit-bending old toys (cutting the three-video series down into a more reasonably paced single video). Circuit-bending is the creative customization of consumer electronics with the goal of inventing new unique devices for sound-making, visuals, or other expressive goals.
In this series, now edited into a single video, I take you through my process with some toys from the start, including explorations, experiments, and, importantly, failures. I continue work through transforming this Tinkerbell wand, testing out different resistors and switches to see what I might add to increase its glitchy expressive range.
I’m a composer and sound-designer, not an electrical engineer, so my goal is to find fun sounds that I can use in creative ways (rather than any kind of serious circuit design).
0:00 Intro 0:22 Selecting toys to bend 0:52 Testing with new batteries 1:52 Opening up the Tinkerbell wand 4:42 Opening up the whack-a-mole 7:20 Poking around with test leads 10:40 Recap, equipment 11:11 Examining the components 12:20 Speeding up the clock 14:17 Slowing down the clock 15:19 Varying the clock 18:58 Switches 22:17 The “glitch switch” 24:40 Considering packaging (instrument morphology) 25:19 Tools & equipment 26:15 Updates/Plan 28:32 Installing the “Glitch Switch” 30:48 Installing the Toggle 31:47 Changing the LED 32:47 Installing the Potentiometer 34:17 Adding RCA audio out 35:18 Putting it back together 36:08 Esoteric Etude 38:31 Closing
More circuit-bending and handmade electronic music here:
Having some fun using mid/side stereo for sound design in Pure Data vanilla.
Here, we encode our stereo signal into mid/side with some simple math, then ring-modulate and delay the side material before decoding back into left-right stereo.
0:00 Bleep bloops in left-right stereo 1:12 Creating a mid/side encoder & decoder 2:19 Adding ring modulation to only the sides 3:23 Adding a delay to the sides 4:49 Expanding the range of ring modulation
Click here for a deeper explanation of mid/side stereo and synthesis: