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Alamo 100

We all love a good top ten list, but the Alamo Drafthouse has gone ten times better. They’ve taken the end of 2013 as an opportunity to create the “Alamo 100,” the 100 favorite films of all time according to the theater’s programming team. These films, which predictably run the gamut from undeniable classics to super-specific genre gems, will begin screening at Alamo locations nationwide in the new year. Each month will bring a new slate of films and January gives a great cross section of the list. In January, Drafthouses will screen Brazil, City Lights, The Goonies, Monty Python and the Holy Grail, Raging Bull, Raiders of the Lost Ark and Sixteen Candles. And that’s just the start. See the full list below.

You can read more about all the films, and see each programmer’s top 100 that worked down to this list, at Here’s the list in alphabetical order


And here’s a trailer for the January films:

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Original author: (Mitchell Whitelaw)

At CODE2012 I presented a paper on "programmable matter" and the proto-computational work of Ralf Baecker and Martin Howse - part of a long-running project on digital materiality. My sources included interviews with the artists, which I will be publishing here. Ralf Baecker's 2009 The Conversation is a complex physical network, woven from solenoids - electro-mechanical "bits" or binary switches. It was one of the works that started me thinking about this notion of the proto-computational - where artists seem to be stripping digital computing down to its raw materials, only to rebuild it as something weirder. Irrational Computing (2012) - which crafts a "computer" more like a modular synth made from crystals and wires - takes this approach further. Here Baecker begins by responding to this notion of proto-computing.

MW: In your work, especially Irrational Computing, we seem to see some of the primal, material elements of digital computing. But this "proto" computing is also quite unfamiliar - it is chaotic, complex and emergent, we can't control or "program" it, and it is hard to identify familiar elements such as memory vs processor. So it seems that your work is not only deconstructing computing - revealing its components - but also reconstructing it in a strange new form. Would you agree?

RB: It took me a long time to adopt the term "proto-computing". I don't mean proto in a historical or chronological sense; it is more about its state of development. I imagine a device that refers to the raw material dimension of our everyday digital machinery. Something that suddenly appears due to the interaction of matter. What I had in mind was for instance the natural nuclear fission reactor in Oklo, Gabon that was discovered in 1972. A conglomerate of minerals in a rock formation formed the conditions for a functioning nuclear reactor, all by chance. 

Computation is a cultural and not a natural phenomenon; it includes several hundred years of knowledge and cultural technics, these days all compressed into a microscopic form (the CPU). In the 18th century the mechanical tradition of automata and symbolic/mathematical thinking merged into the first calculating and astronomical devices. Also the combinatoric/hermeneutic tradition (e.g. Athanasius Kircher and Ramon Llull) is very influential to me. These automatons/concepts were philosophical and epistemological. They were dialogic devices that let us think further, much against our current utilitarian use of technology. Generative utopia.

Schematic of Irrational Computing courtesy of the artist - click for PDF

MW: Your work stages a fusion of sound, light and material. In Irrational Computing for example we both see and hear the activity of the crystals in the SiC module. Similarly in The Conversation, the solenoids act as both mechanical / symbolic components and sound generators. So there is a strong sense of the unity of the audible and the visual - their shared material origins. (This is unlike conventional audiovisual media for example where the relation between sound and image is highly constructed). It seems that there is a sense of a kind of material continuum or spectrum here, binding electricity, light, sound, and matter together?

RB: My first contact with art or media art came through net art, software art and generative art. I was totally fascinated by it. I started programming generative systems for installations and audiovisual performances. I like a lot of the early screen based computer graphics/animation stuff. The pure reduction to wireframes, simple geometric shapes. I had the feeling that in this case concept and representation almost touch each other. But I got lost working with universial machines (Turing machines). With Rechnender Raum I started to do some kind of subjective reappropriation of the digital. So I started to build my very own non-universal devices. Rechnender Raum could also be read as a kinetic interpretation of a cellular automaton algorithm. Even if the Turing machine is a theoretical machine it feels very plastic to me. It a metaphorical machine that shows the conceptual relation of space and time. Computers are basically transposers between space and time, even without seeing the actual outcome of a simulation. I like to expose the hidden structures. They are more appealing to me than the image on the screen.

MW: There is a theme of complex but insular networks in your work. In The Conversation this is very clear - a network of internal relationships, seeking a dynamic equilibrium. Similarly in Irrational Computing, modules like the phase locked loop have this insular complexity. Can you discuss this a little bit? This tendency reminds me of notions of self-referentiality, for example in the writing of Hofstadter, where recursion and self-reference are both logical paradoxes (as in Godel's theorem) and key attributes of consciousness. Your introverted networks have a strong generative character - where complex dynamics emerge from a tightly constrained set of elements and relationships.

RB: Sure, I'm fascinated by this kind of emergent processes, and how they appear on different scales. But I find it always difficult to use the attribute consciousness. I think these kind of chaotic attractors have a beauty on their own. Regardless how closed these systems look, they are always influenced by its environment. The perfect example for me is the flame of a candle. A very dynamic complex process communicating with its environment, that generates the dynamics.

MW: You describe The Conversation as "pataphysical", and mention the "mystic" and "magic" aspects of Irrational Computing. Can you say some more about this a aspect of your work? Is there a sort of romantic or poetic idea here, about what is beyond the rational, or is this about a more systematic alternative to how we understand the world?

RB: Yes, it refers to an other kind of thinking. A thinking that is anti "cause and reaction". A thinking of hidden relations, connections and uncertainty. I like Claude Lévi-Strauss' term "The Savage Mind".

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Original author: 
Megan Geuss

The headset.

Ars Technica

SAN FRANCISCO, CA—Earlier this week, Ars showed up at a demo day for the painful-to-read HAXLR8R (pronounced hack-celerator), a startup accelerator program that takes ten teams of entrepreneurs, gives them $25,000, and flies them between San Francisco and Shenzhen to work on a hardware-based product of their design.

Most of the products were still in progress, so many teams spent demo day courting VC funders or imploring the crowd to visit their Kickstarter campaign. But, a company founded by mechanical engineers Michael Oxley and Martin Skinner, actually had its product launch that day. Its headset is a device that is meant to shock your brain with electricity—and make you a better gamer because of it.

The headset is a red or black band that goes around the back of your head, with four disks that are placed on your forehead, just above your eyebrows. The disks contain electrodes beneath small circular sponges soaked in saline solution. When the headset turns on (via a physical button in the back or a companion iOS app), you get a shock to the prefrontal cortex that can range from 0.8 to 2.0 mA. For context, a hearing aid usually runs on about 0.7 mA—but you’re not directing that electricity into your head.

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Original author: 
John Timmer

How do ethics and the free market interact? As the authors of a new paper on the topic point out, the answer is often complicated. In the past, Western economies had vigorous markets for things we now consider entirely unethical, like slaves and Papal forgiveness for sins. Ending those practices took long and bloody struggles. But was this because the market simply reflects the ethics of the day, or does engaging in a market alter people's perception of what's ethical?

To find out, the authors of the paper set up a market for an item that is ethically controversial: the lives of lab animals. They found that, for most people, keeping a mouse alive, even at someone else's cost, is only worth a limited amount of money. But that amount goes down dramatically once market-based buying and selling is involved.

The research was done at the University of Bonn, which appears to have a biology department that includes researchers who study mouse genetics. As Mendel told us, genes are inherited independently. So as these researchers are breeding mice to get a specific combination of genes, they'll inevitably get mice that have the wrong combination. Since proper mouse care is expensive and lab mice typically live a couple of years, it's standard procedure to euthanize these unneeded mice.

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Original author: 
Andrew Cunningham

Aurich Lawson / Thinkstock

Welcome back to our three-part series on touchscreen technology. Last time, Florence Ion walked you through the technology's past, from the invention of the first touchscreens in the 1960s all the way up through the mid-2000s. During this period, different versions of the technology appeared in everything from PCs to early cell phones to personal digital assistants like Apple's Newton and the Palm Pilot. But all of these gadgets proved to be little more than a tease, a prelude to the main event. In this second part in our series, we'll be talking about touchscreens in the here-and-now.

When you think about touchscreens today, you probably think about smartphones and tablets, and for good reason. The 2007 introduction of the iPhone kicked off a transformation that turned a couple of niche products—smartphones and tablets—into billion-dollar industries. The current fierce competition from software like Android and Windows Phone (as well as hardware makers like Samsung and a host of others) means that new products are being introduced at a frantic pace.

The screens themselves are just one of the driving forces that makes these devices possible (and successful). Ever-smaller, ever-faster chips allow a phone to do things only a heavy-duty desktop could do just a decade or so ago, something we've discussed in detail elsewhere. The software that powers these devices is more important, though. Where older tablets and PDAs required a stylus or interaction with a cramped physical keyboard or trackball to use, mobile software has adapted to be better suited to humans' native pointing device—the larger, clumsier, but much more convenient finger.

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