Autonomous bassline generators? Wireless, modular, infrared sync? Tiny drum machines networking together? Welcome to Texas, and the minds of Eric Archer, Bleep Labs, 4ms Pedals, the Church of the Friendly Ghost, and Andromeda Space Rockers.

One look at a floor full of blinking circuits, and most ladies and gentleman might assume they’ve stumbled upon some alien technology. “Imagine the things we could learn from this civilization – advancements far beyond our own,” as the stock line from sci fi goes. “Man and woman are not meant to learn such things. You’re meddling in things beyond your comprehension.”

In other words, you couldn’t build something like this, right?

Or could you?

In Austin, Texas, Eric, Dann, and Dr. Bleep are launching a new Handmade Music series, kicking it off with kits and classes so that anyone – including beginners – can start building stuff. For the 101 crowd, there’s a free beginner class even if you’ve never touched a soldering iron, so you can build your own analog drum. “I’m no n00b,” you say, “impress me.” Sure – the “upper division” gets to talk more advanced synth design and walks through the full-blown modular, networkable kit.

At the end of it all is an open jam and featured performance.

If you’re anywhere near Austin, Texas – or can find a bargain plane fare – you’ll want to clear your calendar for October 18!

Full Event Details, October 18 Handmade Music in Austin [Handmade Music @noisepages]

That’s just the first of more events to come, so stay glued to the Handmade Music site for events in Austin, New York, Portugal, Germany, and beyond.

“That’s right / you’re not from Texas / Texas wants you anyway.” For those of us in New York, Lisbon, Rio, Sydney, and Jakarta, there’s still hope. The kits will be online, and I”m looking at ways of putting together a full Handmade Music curriculum of projects online for all of us on the site we’re developing this fall, noisepages – ideas welcome.

I certainly didn’t expect to get deep into these geekier topics in high school while I was busily trying to fail Calculus and screw up science lab results in ways that baffled my teachers. But it’s a glorious age we live in, in which we get to assimilate alien technology as our own. Stay tuned.

MyHome 2.0 is a promotional site for Verizon FIOS that’s enlisted some very talented DIYers. They’ve got a couple of pretty impressive interactive music projects — this is not the sort of stuff most people would take on. The Pipe Organ Chair isn’t a digital project per se, but we all love sound here, and who’s to say you couldn’t integrate bellows into your next digital instrument? The basic idea is to force air through pipes using butt-powered bellows, requiring, of course, a fair bit of assembly.

How 2.0: Pipe Organ Chair from My Home 2.0 DIY on Vimeo.

Pipe Organ Chair Project Page

The other project, by way of the multi-talented Allison Lewis (the creator of SWITCH, a DIY show for young women, and some brilliant fashion + technology work), is a wall harp. Think infrared sensors plus MIDI, using the MidiTron kit by Eric Singer, which is seen regularly around these here parts.

How 2.0: Build a Digital Wall Harp from My Home 2.0 DIY on Vimeo.

I wish that, in addition to the DIY portions, they had spent more than two or three seconds documenting the results. But I think this may be in New York, so maybe I’ll have to go over there and try it out myself.

If you’ve got your own favorite projects involving pipes or infrared sensors, let us know. And maybe this will inspire some of your own work.

Side note to Verizon: please stop torturing us poor New Yorkers with how awesome Verizon FIOS is when we can’t get it. Hurry up with that build-out, already. I can send you my address. You can come over with the fiber optic cable today, even; I’m pretty good with a wire crimper.

Omer Yosha has created a beautiful, elegant interface that uses infrared sensors to control music applications. Touch-free interfaces, of course, date back to the Theremin, but Omer is trying some new things here, creating an invisible matrix of controls in the air. And I love the way the physical object looks. He writes to tell us about the details:

I’m an Interface Design student from the FH Potsdam (near Berlin), i have a musical background, and the idea to create an AirPiano developed as i was playing around with the Arduino board, Processing and some IR sensors in my free time. It was fun controlling MIDI through moving my hands in the air, so i eventually found a way to set it all up in a way that makes sense and that is easy to control.
The concept behind the AirPiano is having a matrix in the air, with virtual keys & faders. The location of each key must be very clear for the user and easily learnt. The AirPiano is therefore only one example of an application that could adopt this concept. Since it is only the first prototype i built, it features at the moment a matrix with 3 layers, 8 keys for each layer. As long as a key is triggered, a note plays and an LED underneath the virtual key turns on (unfortunately it is hard to see it on the videos). The LEDs give the user additional feedback. The device is connected through USB and communicates with the AirPiano Software, which allows the user to assign each key/fader with a Note/Controller number, Channel and Velocity as well as transpose and save/load presets. The AirPiano Software can communicate with any MIDI instrument/sequencer. It is of course a polyphonic controller.
The AirPiano is not only fun to play, it also invites to experiment, to explore endless arrangements and develop new playing techniques. It might be useful for DJ performance, as a music therapy instrument or as a toy.
I’m at the moment trying to look for investors and people that could help me take this idea further. I presented the prototype two months ago in the Hannover Messe and received very good feedback. The concept is protected as a Provisional U.S. Patent Application.

If you can help him, chime in! I’d love to see what develops.

Here it is controlling Ableton Live:

More photos and another video to give you a sense of how this works (it’s particularly clear once you see the software interface):