What you’re watching in the video above doesn’t involve cameras or motion sensors. It’s the kind of brain-to-machine, body-to-interaction interface most of us associate with science fiction. And while the technology has made the occasional appearance in unusual, niche commercial applications, it’s poised now to blow wide open for music – open as in free and open source.

Erasing the boundary between contracting a muscle in the bio-physical realm and producing electronic sound in the virtual realm is what Xth Sense is all about. Capturing biological data is all the rage these days, seen primarily in commercial form in products for fitness, but a growing trend in how we might make our computers accessories for our bodies as well as our minds. (Or is that the other way around?) This goes one step further: the biological becomes the interface.

Artist and teacher Marco Donnarumma took first prize with this project in the prestigious Guthman Musical Instrument Competition at Georgia Tech in the US. Born in Italy and based in Edinburgh, Scotland, Marco explains to us how the project works and why he took it up. It should whet your appetite as we await an open release for other musicians and tinkerers to try next month. (By the way, if you’re in the New York City area, Marco will be traveling to the US – a perfect chance to collaborate, meet, or set up a performance or workshop; shout if you’re interested.)

Hypo Chrysos live at Trendelenburg AV Festival, Gijon, Spain, December 2011.

CDM: Tell us a bit about yourself. You’re working across disciplines, so how do you describe what you do?

Marco: People would call me a media and sound artist. I would say what I love is performing, but at the same time, I’m really curious about things. So, most of the time I end up coding my software, developing devices and now even designing wearable tech. Since some years now I work only with free and open source tools and this is naturally reflected in what I do and how I do it. (Or at least I hope so!)

I just got back from Atlanta, US, where the Xth Sense (XS) was awarded the first prize in the Margaret Guthman New Musical Instrument, as what they named the “world’s most innovative new musical instrument.” [See announcement from Georgia Tech.]

It’s an encouraging achievement and I’m still buzzing, specially because the other 20 finalists all presented great ideas. Overall, it has been an inspiring event, and I warmly recommend musicians and inventors to participate next year. My final performance:

Make sure to use a proper soundsystem [when watching the videos]; most of the sound spectrum lives between 20-60Hz.

Music for Flesh II live at Georgia Tech Center for Music Technology, Atlanta, USA, February 2012. Photo courtesy the artist.

You’re clenching your muscles, and something is happening – can you tell us how this XS system works?

Marco: My definition of it goes like “a biophysical framework for musical performance and responsive milieux.” In other words, it is a technology that extends some intrinsic sonic capabilities of the human body through a computer system that senses the physical energy released by muscle tissues.

I started developing it in September 2011 at the SLE, the Sound Lab at the Edinburgh University, and got it ready to go in March 2011. It has evolved a lot in many ways ever since.

The Xth Sense wearable biosensors by Chris Scott.

The XS is composed of custom biophysical sensors and a custom software.

At the onset of a muscle contraction, energy is released in the form of acoustic sound. This is to say, similarly to the chord of a violin, each muscle tissue vibrates at specific frequencies and produces a sound (called Mechanomyographic signal, or MMG). It is not audible to human ear, but it is indeed a soundwave that resonates from the body.

The MMG data is quite different from locative data you can gather with accelerometers and the like; whereas the latter reports the consequence of a movement, the former directly represents the energy impulse that causes that movement. If you add to this a high sampling rate (up to 192.000Hz if your sound card supports it) and very low latency (measured at 2.3ms) you can see why the responsiveness of the XS can be highly expressive.

The XS sensors capture the low-frequency acoustic vibrations produced by a performer’s body and send them to the computer as an audio input. The XS software analyzes the MMG in order to extract the characteristics of the movements, such as dynamics of a single gesture, maximum amplitude of a series of gestures in time, etc.

These are fed to some algorithms that produce the control data (12 discrete and continuous variables for each sensor) to drive the sound processing of the original MMG.

Eventually, the system plays back both the raw muscle sounds (slightly transposed to become better audible, say about 50/60Hz) and the processed muscle sounds.

I like to term this model of performance biophysical music, in contrast with biomusic, which is based on the electrical impulses of muscles and brainwaves.

By differently contracting muscles (which has a different meaning than simply “moving”) one can create and sculpt musical material in real-time. One can design a specific gesture that produces a specific sonic result, what I call a sound-gesture. These can be composed in a score, or improvised, or also improvised on a more or less fixed score.

The XS software has also a sensing sequencing time-line: with a little machine learning (just implemented few days ago) the system understands when you’re still or moving, when you’re being fast or slow, and can use this data to change global parameters, functions or to play with the timing of events. For example, the computer can track your behaviour in time and wait for you to stop whatever you’re doing before switching to a different set of funcions.

The XS sensors are wearable devices, so the computer can be forgotten in a corner of the stage; the performer has complete freedom on stage, and the audience is not exposed to the technology, but rather to the expressivity of the performance. What I like most about the XS is that is a flexible and multi-modal instrument. One can use it to:

• capture and playback acoustic sounds of the body,
• control audio and video software on the computer, or
• capture body sounds and control them through the computer simultaneously.

This opens up an interesting perspective on the applications of the XS to musical performance, dance, theatre and interaction design. The XS can also be used only as a gestural controller, although I never use it exclusively this way. We have thousands of controllers out there.

Besides, I wanted the XS to be accessible, usable, hackable and redistributable. Unfortunately, the commercialized product dealing with biosignals are mostly not cheap and — most importantly — closed to the community. See the Emotiv products (US$299 Neuro Headset, not for developers), or the BioFlex (US$392.73). One could argue that the technology is complex, and that’s why those devices are expensive and closed. This could make sense, but who says we can’t produce new technologies that openly offer similar or new capabilities at a much lower cost?

The formal recognition of the XS as an innovative musical instrument and the growing effort of the community in producing DIY EEG, ECG and Biohacking devices are a clear statement in this sense. I find this movement encouraging and possibly indispensable nowadays, as the information technology industry is increasingly deploying biometric data for adverts and security systems. For the geeky ones there are some examples in a recent paper of mine for the 2012 CHI workshop on Liveness.

For those reasons, the XS hardware design has been implemented in the simplest form I could think of; the parts needed to build an XS sensor cost about £5 altogether and the schematics looks purposely dumb. The sensors can be worn on any parts of the body. I worked with dancers who wore them on the neck and legs, a colleague stuck one to his throat to capture the resonances of his voice, I use them on the arms or to capture the pumping of the blood flow and the heart rate.

The XS software is free, based in Pd, aka Pure Data, and comes with a proper, user-friendly Graphical User Interface (GUI) and its own library, which includes over one hundred objects with help files. It is developed on Linux, and it’s Mac OS X compatible; I’m not developing for Windows, but some people got it working there too. A big thumb up goes to our wonderful Pd Community; if I had not been reading and learning through the Pd mailing list for the past 5 years I would have never been able to code this stuff.

The Xth Sense software Graphical User Interface. Built in Pd.

The public release of the project will be in April. The source code, schematics, tutorials, will be freely available online, and there will be DIY kits for the lazier ones. I’m already collecting orders for the first batch of DIY kits, so if anybody is interested please, get in touch:
http://marcodonnarumma.com/contact

I do hope to see the system hacked and extended, especially because the sensors were initially built with the support of the folks at the Dorkbot ALBA/Edinburgh Hacklab. I’m also grateful to the community around me, friends, musicians, artists devs and researchers for contributing to the success of the project by giving feedback, inspiring and sharing (you know who you are!).

Thanks, Marco! We’ll be watching!

More on the Work

http://marcodonnarumma.com/works/xth-sense/
http://marcodonnarumma.com/works/music-for-flesh-ii/
http://res.marcodonnarumma.com/blog/

And the Edinburgh hack lab:
http://edinburghhacklab.com/

Biological Interfaces for Music

There isn’t space here to recount the various efforts to do this; Marco’s design to me is notable mainly in its simplicity and – hopefully, as we’ll see next month – accessibility to other users. I’ve seen a number of brain interfaces just in the past year, but perhaps someone with more experience on the topic would like to share; that could be a topic for another post.

Entirely unrelated to music, but here’s the oddest demo video I’ve seen of human-computer interfacing, which I happened to see today. (Well, unrelated to music until you come up with something this crazy. Go! I want to see your band playing with interactive animal ears.)

Scientific American’s blog tackles the question this week (bonus 80s sci-fi movie reference):
Brain-Machine Interfaces in Fact and Fiction

I’ve used up my Lawnmower Man reference quota for the month, so tune in in April.

If you think culture has become too disconnected from the Earth, “Harvest” and the Terrafon instrument surely count as a shock to the system. A traditional ensemble picks up an enormous tone arm and transducer and, through back-breaking labor, drag it across arable fields. It’s part sound art and performance, part agriculture. But it certainly counts as a gramophone – it’s just a really big one that reads the grooves of the earth.

Beat juggling with two of these I’m guessing is largely out of the question.

One half of the artistic creative team, Olle Cornéer, writes with a description:

Harvest (2009) is a new art piece for the new instrument terrafon, traditional ensemble and cropland – by Olle Cornéer and Martin Lübcke.

In this performance Alunda Church Choir, conducted by Cantor Jan Hällgren, plays the soil of northern Uppland (in Sweden) on terrafon. Harvest by Alunda Kyrkokör was exhibited at the Volt Festival in Uppsala the 6th of June 2009. Terrafon is a large agricultural version of the horn gramophone, amplifying the sounds in the track it ploughs.

There is more to come. There are still many croplands still untouched by terrafon. The only thing needed is a powerful local musical ensemble that can sweat it out. This is indeed a demanding piece.

Video illustrates what this all means in practice:

Harvest by Alunda Kyrkokör (2009) from Olle Corneer on Vimeo.

The artistic duo behind the work is a fascinating collaboration. Olle is a producer and musician, while partner-in-crime Martin Lübcke has a PhD in theoretical physics, specializing in superstring theory. That has been the grounds on which their other work, Bacterial Orchestra, explores ideas both of biological epidemics and multi-celled organisms and neural networks. Of course, to make it truly multi-celled, they’ve made the piece an iPhone creation. (I think some folks have found the iPhone phenomenon to be viral as is, so this seems somewhat appropriate.)

Public Epidemic No 1 from Olle Corneer on Vimeo.

Every cell listens to its surroundings and picks up sounds, trying to play together in a musical way. The musical material comes from the background noise, people talking or sounds played by other cells.

Every cell has a unique DNA. Only the ones that are musical fit enough survives. If
the surroundings doesn’t meet up to its conditions – too noisy, too quiet or no distinct
pulse – the cell dies and is reborn with a new, hopefully better, set of DNA.

The result is a musical organism adapting to and changing its environment, growing and evolving with other cells and spectators.

More on that piece:
http://www.bacterialorchestra.com

It’s nice to me that, while these works are both conceptual, you might not guess they came from the same team. I wonder what will come next.

Musicians and artists now have the power to fuse visuals, sound, and interaction, to make a spectacle, an album, and a game all at once. But with the blank canvas of three different media before you, what form should that fusion take?

Space shooters with pounding electronic beats behind them have cleared some of the way. Now it’s ambient music’s turn. In the game Osmos, you become a mysterious particle, floating amongst gravity wells in various fields of material. By carefully navigating, applying just the right vector force to move through the shifting landscape, you merge with other particles and escape to safety.

http://www.hemispheregames.com/osmos/

The move from “shoot stuff” to “move” or “eat” seems to be rising in popularity, with games like fl0w and Spore’s initial “cell stage” encouraging nonviolent navigation. To me, there’s something happening to the zeitgeist, perhaps a renewed awareness of cosmic (micro- or macroscopic) being, and of movement that draws on free-floating physics.

Even amongst a wave of games in this mode,when you actually play Osmos, you realize that it is something different and special. The design makes ingenious use of different kinds of movement and pacing through its different modes, at one point calling upon you to hurtle around a black hole, then move at nearly imperceptible speeds through a seemingly impossible-to-traverse petri dish of massive particles. No less than a shooter, it connects to the id and survival instinct. Pac-Man, the most successful arcarde game of all time, and one of the few that sucked in men and women in equal measure, was noted for its emphasis on eating as the mechanic. Consuming stuff appeals to everyone.

Of course, this is on a music site, and with good reason: what makes Osmos work is that Osmos is musical. It’s immediately beautiful and delicate, a perfect aesthetic union of the texture of the music and the on-screen arrangements of particles. More importantly, the music is woven directly into game play, providing subtle cues for dangers, and underscoring the pace of gameplay. You can only solve a level by managing speed and motion, and the music helps provide both the literal indications of speed and help your head get into the right zone to lose yourself in the world. If blips in early arcade games helped create a zone of play trance, now we have spectacular ambient soundtrack of music by Loscil, Gas/High Skies [Microscopics], Julien Neto, and Biosphere.

The music isn’t simply a beautiful soundtrack to the game. The game really feels like an extension of the world of the music. Put it all together, and something magical happens in this $10 game: you hear the music in a new way.

I spoke to the lead designer behind the game, programmer/animator Eddy Boxerman, along with musical-sonic collaborator Mat Jarvis aka Gas aka High Skies.

Peter: I found it amusing that some of the game press have stumbled around looking for a name for a new genre here, the "eat other stuff" category. To me, the basic game controls could be traced back to early titles like Asteroids. What are the games that have inspired you, either specifically or generally?

Eddy: Some people are dubbing the gameplay type as "eat ‘em up", as opposed to the classic "shoot ‘em up". But it’s true, the physics/controls have more in common with classic games such as Asteroids and Gravitar. The only "modern" game that otherwise influenced me was Katamari Damacy. It’s funny: when I sent out the first prototype to friends, I was concerned they would think the game was too similar to Katamari. That’s when I heard about flOw, which I’ve tried to steer stylistically clear of ever since. I guess it’s an archetype though, and the comparisons have been inevitable. As for Spore, Osmos was about one year into development when I saw the first preview footage of its "cell stage". On top of that, I learned that Will Wright had hired Brian Eno to do the music! I definitely had a "why should I bother?" moment at that point. But here we are, a couple years later, and I think we’ve managed to put out a unique game with a great mix of gameplay, sound, and visuals.

Peter: Ha – well, I’m glad you “bothered”! One thing that I think is really unique about Osmos is the gravitational mechanic. How did this come about?

Eddy: I was (and probably still am) a sci-fi kid. And when I read about real phenomena like colliding galaxies, retrograde planets, and the like, my mind goes to stange and wonderful places. That said, the Spacecraft Dynamics course I took during my engineering degree definitely played a large part in putting those mechanics and levels together. Thanks, Professor Misra!

Peter: How are the physical mechanics of the game constructed? This is essentially two-dimensional vector math, yes? Were there refinements you needed to make in order to keep performance up, or to keep the levels playable?

Eddy: That’s a big question! But yes, essentially it’s 2D vector math, though we make use of some 3D math (including quaternions) on the particle systems. The majority of the physics is quite simple though — first year bachelor’s stuff: F = ma, conservation of mass and momentum, gravitational laws, basic time integration, etc. We follow the spirit of the laws, but not always the letter. For instance, if you look at the Earth’s solar system in its entirety, you wouldn’t even see most of the planets; that doesn’t make for a very playable game though. As such, we took many liberties when it comes to scale, constants and exponents in the equations. The majority of the work was in the tweaking of those values to make the game /feel /good.

Peter: How did you prototype the game? What was the process of evolution like? Were there any failed attempts along the way?

Eddy: I put together the first prototype starting from a NeHe OpenGL tutorial. I added some basic physics, mouse controls, some highly unoptimised collision detection code, and voila, I had something to play with. After that, I immediately integrated [cross-platform 3D audio API] OpenAL, as the game was just begging for sound and music. I then hunted for some good sounds (discovering freesound.org in the process), put together a simple looping song (my first rough and humbling attempt to create digital music), and sent it out to a few friends. I’ll make that version available for free someday… when I’m feeling brave.

As for failed attempts, there were tons of shelved experiments and features that were cut. One interesting problem was the difficulty curve of the gravitational levels. In fact, the first gravity levels looked a great deal like the "Warped Chaos" levels do today: several free-floating Attractors in a sea of regular motes. I found it incredibly difficult, however, to make a "beginner" version of those levels. If the gravity was too weak, the Attractors had little apparent effect; too strong, and the level became incredibly difficult. I stuggled with this for a long time, until I hit on the idea of putting one, immobile Attractor in the center, with everything else orbiting around it. This allowed for the creation of systems with strong gravity effects, but long-term stability. It seems so obvious now, especially given the example of our solar system, but it wasn’t back then. In the end, these are some of the coolest levels in Osmos — practically its "signature" level type. Moral of the story: necessity really is the mother of invention.

Peter: What is the visual engine like? The sound engine?

Eddy: As I mentioned, I bootstrapped from a NeHe tutorial, but that’s all been replaced at this point. It’s now a homegrown engine using OpenGL. It doesn’t make any use of pixel/vertex shaders, so it runs on a wide variety of hardware. The majority of our texture work is done in Photoshop.

[The sound engine is] a wrapper we’ve built around OpenAL. At a basic level, all we ever do is mix and adjust the gain and pitch of our sounds and music. This allows us to run on generic sound hardware. But we do make extensive use of those "effects", and it’s possible to get a great deal of variety and feedback with them. In the end, it’s all about the quality of our sound sources, and the algorithms that adjust and smooth the gain and pitch of each.

Peter: For pitch shifting, were you able to do that natively in OpenAL?

Eddy: Yes, OpenAL supports pitch shifting at the software level. I ported our sound engine to use DirectSound at one point, and found that it’s pitch shift range is rather limited. We reverted back to OpenAL.

Peter: One thing that really strikes me about the game that is its use of pacing. Even without the obvious technique of allowing the user to control speed, there’s this extraordinary contrast between levels that require you to move quickly, that require you to anticipate the rate of movement along a vector of other objects, or that require you to move almost imperceptibly slowly. Was this an early goal, or something that evolved out of developing the game concepts?

Eddy: It evolved from the game concepts themselves. We tried to fully explore the fundamental controls and game space of Osmos, and converged on a number of interesting regions and structures that were fun to play with/in. Some people actually "complain" that the pacing of the game isn’t consistent across levels — some are fast, some slow — but that wasn’t our goal. In a sense, we’re merely presenting the results of a great deal of research and exploration into the space, with our sole requirement being that the levels are fun and interesting. We wanted it to be a game of concepts and understanding, not speed. The addition of time-warping allowed us to break free from that, expand our scope, and include a much larger variety of levels, as some have both fast and slow moments in them; we wanted the player to be able to control the pace and difficulty to their level of comfort.

Peter: Connecting the action to music, how important is the use of music in conveying time?

Eddy: I think pitch-shifting the music and sound effects helps players track time-warping in an inutitive way. Without these aural cues, the mental connection would be incomplete. That said, I sometimes test the game without sound, and it’s totally playable — just much less immersive.

Peter: At what stage did you involve the musical element? How was that relationship established?

Mat: Eddy first contacted me two or three years ago about using one of my tracks on Osmos (“Gas – Discovery”). He sent me a basic alpha version where the game was literally flat circles on a plain background, but even back then with the simple graphics and no sound it was compelling. I think it was at this early stage that I sent him a copy of another High Skies track, “The Shape of Things to Come,” which he also used a section from. It wasn’t too long later that he sent me a version of Osmos with most of the music that made it to the release version and it all just complimented each other beautifully.

Eddy has done a great job choosing music that compliments the game and graphics, and they also compliment the music. I think he’s done a great job overall as well, keeping his vision consistent for the look and feel of the Osmos world. Even though some of the levels are quite varied; some are quite chilled, others fast paced, nothing seems out of place. He has created a new world that’s both microscopic and macroscopic.

Peter: The musical and sound effect elements really do blend effortlessly. Mat, I know you made substitute sounds – how did this help blend the aesthetic?

Mat: I made the rebound noise when you bounce off the walls/ boundary. The original sound was quite hard and metallic with a lot of reverb, and I suggested a softer echoey sound. There was nothing wrong with the original, but it made the boundary feel quite hard and cold like being in a metal tank. I sent Eddy some analogue samples, using a [vintage Roland keyboard] Jupiter 6 with varying delays/ echoes. Because the tones are so pure and tuned, Eddy pitched them slightly to fit with the various keys of the different music.

Eddy: In general, it was a matter of searching and experimentation for the "right" set of sounds that fit well together — which can be a lengthy but rewarding process. Once integrated, minor gain and pitch adjustments helped fit it all together.

Mat provided the bounce sound, as well as the continuous absorb/being-absorbed sounds. The other sounds were created/shared on freesound by the users Elektrocell, fran_ky and Jovica. (Check out the Osmos credits in the readme.html for details.)

Peter: I recently spoke to Crystal Method, and while they’ve done some notable game scores, they actually said they wouldn’t want their music to be placed in a game context at which the speed changed, that it’d lose something. This seems like the opposite of that. Now, maybe it’s easy to take for granted with ambient music as opposed to something beat-driven like Crystal Method, but do you think there’s something special that allows this music to be adaptive in that way?

Mat: I think that in the right circumstances music with drums could work well and may even highlight the time-shifting more. Of course with the wrong game and wrong music it could sound terrible too.

Eddy: It’s a delicate issue. Out of the context of the game, I think it would seem wrong. There were also some pieces of music I tried which didn’t lend themselves well to this kind of manipulation, and which didn’t get included as a result. But with these songs, and everything working together in-game, I feel the whole experience is stronger as a result. I’m just glad Mat and the other artists agreed — or at least… didn’t object.

Peter: Hey, I think if you can write music that sounds good played at a different speed, that’s nice.

Osmos seems to me a musical experience, in that the sense of the music is transformed by the visuals and the interaction with them. Do you think it’s possible that audiovisual interfaces could go even further in terms of their impact on the music?

Mat: Yes, it almost seems as though Osmos creates a world for the music to exist.

I’ve always liked music visualisers like the Processing and Cymatics stuff, they’re quite compelling to watch how they react to the music, so it would be interesting to go the other way; by manipulating/ sculpting abstract shapes which then modify or even create sounds and music, especially using the new controllers like the Wii, [Microsoft’s] Project Natal and Sony’s Motion Controller instead of the mouse.

Eddy: I totally agree with Mat. Yes, please! More feedback between music, visuals and interactivity — in all directions. I’d love to experiment more on all of these fronts. In general, I think games such as Audiosurf and Auditorium, while great, have only begun to scratch the surface of what’s possible. Interactive musical "toys" such as [Nintendo/Toshio Iwai’s ]ElectroPlankton or Dub Selector are another great direction; and Rock Band Network is about to expand the market in a huge way. It’s exciting!

Peter: Along those lines, this is obviously a new take on music distribution in a way that goes well beyond what titles like Rock Band have done. Are there other cases in game history that to you have done that? Is there potential in these new outlets, outlets that are more accessible to independent developers (Steam, Direct2Drive, Xbox Live Arcade, iTunes App Store), to really change game development?

Eddy: Wow, that’s another big question. Really, I just felt the music was such an important part of the experience in Osmos that we should show the artist and track names during the game. But now that you mention it, I can’t think of another game that has done this, besides games like Rock Band where the song /is/ the game/level. That said, one way I’d love to push this evolution is to "augment" music videos with interactivity: ie. into music video-games. (The term "game" could be used rather loosely here.) Everyday Shooter does this, though Jon Mak actually created the music /for/ the game in that case — which rocks — but collaborations could lead to some really amazing things in this direction.

Peter: Eddy, Mat, thank you. Whether it’s in the form of a game or an audiovisual performance, we’ll certainly continue to explore these areas. And – hint, hint – Osmos 2, with multiplayer? Just a thought.

Osmos Trailer from hemisphere games on Vimeo.

…and a bunch of bananas (footage from the Theremin Center, Moscow).

Via the Pd list, though, it seems that the next NK workshop will go somewhere else altogether: music with microorganisms. Really – you’ll need a USB microscope. It’s electronic music in a Petri dish.

I could try to explain, but I’ll leave it to the description by organizers Marc R. Dusseiller & Kaspar Koenig:

Overview–Experimental make-workshop with multilayered outcome for people interested in sound, DIY-biology, microscopy and interaction of living microorganisms. Knowledge in physical computing, video and sound processing, electronics and puredata is welcome, but not compulsory.

Description–In this workshop the experiments will take place in close-up view of microorganisms (e.g. water bears aka tardigrades, amoebae and collected organisms from urban environments), which appears to be a world by itself. Maybe due to the scaling and the amplification of a microscope, but maybe also due to all parameters of imagination that the microcosmos provokes. Growth and behaviour of these microscopic animals remind us of our own micro-macro-development. With the image and the movement of the organisms, the participants are encouraged to collect inspiration and bridge video and sound to what they experience with these small ?"animalcules?", as termed by their first observer Leeuwenhoek in 1677.

The participants will learn how to work with the usb-microscopes and hack webcams to be used as microscopes, observe the behaviour and motion of the waterbears and other microorganisms, find sounds from the lab equipment, hack into electronic devices to integrate into bioelectronic culture devices and build habitats for the animals. Also they will discover sounds from the different instrumentation and utilities of the laboratory. Recycle and compose arrangements for Lab-visual and
Lab-sound scapes and benefit from a cross fertilization between the whole (scientific) equipment (you can bring your own too!) and an artistic metaphorical language. The outcome can be a video with a microscopic soundtrack, a living object with singing waterbears, a performance with laboratory sounds, or an openLab Hackteria installation.

Material needed–The participant should bring their own laptop/computer, a webcam with an adjustable lens and some general lab stuff they have access to. Material available various labware, glassware, petri-dishes, usb-microscopes, microorganisms, soldering stations, electronic parts,
arduinos etc..

H a c k t e r i a & l a b h a c k i n g with Marc R. Dusseiller & Kaspar koenig

Saturday 30 May – Wednesday 3 June 2009, 12.00-18.00 daily

Location: NK / ElsenStr. 52 (2.Hof) Berlin, Germany

Telephone: +49 (0)176 20626386

Course Participation fee: 100 euros

Registration is required for this workshop and can only be done via

email to: enka_nkATgmxDOTde

Please register early to ensure a place. Places are limited to 16.

I know most of you can’t make it to Berlin, but perhaps this will spawn (breed?) other ideas.

Found via the Pd mailing list.