Tag: Science Fiction

Fractalize Me

The genes that cause Romanesco, a kind of cauliflower, to grow in a fractal pattern have been identified. Researchers were subsequently able to manipulate one of those genes and get it to function inside another plant—thale cress—producing fractal blooms.

The language used to describe this is interesting in its own right—a vocabulary of memory, transience, perturbation, and abandoned flowering.

In the words of the researchers’ abstract, “we found that curd self-similarity arises because the meristems fail to form flowers but keep the ‘memory’ of their transient passage in a floral state. Additional mutations affecting meristem growth can induce the production of conical structures reminiscent of the conspicuous fractal Romanesco shape. This study reveals how fractal-like forms may emerge from the combination of key, defined perturbations of floral developmental programs and growth dynamics.”

It’s the fact that this gene appears to function in other plants, though, that is blowing my mind. Give this technique another ten or twenty years, and the resulting experiments—and the subsequent landscapes—seem endless, from gardens of infinitely self-similar roses and orchids to forests populated by bubbling forms of fractal pines, roiling oaks, and ivies.

Until, of course, the gene inevitably escapes, going mobile, infecting insects and animals, producing confused anatomies in fractal landscapes, like minor creatures in a Jeff VanderMeer novel, before breaching the human genome, and oracular multicephalous children are born, their bodies transitioning through monstrosities of self-reminiscence and new limbs, mythological, infinitely incomplete, cursed with endless becoming.

In any case, read more over at ScienceNews, and check out the actual paper at Science.

The Age of Horror

[Image: “Clouds, Sun and Sea” (1952) by Max Ernst, courtesy Phillips.]

There’s an interesting space where early modern, mostly 19th-century earth sciences overlap with armchair conjectures about the origins of human civilization. It’s a mix of pure pseudo-science, science-adjacent speculation, and something more like theology, as writers of the time tried to adjust new geological hypotheses and emerging biological evidence—Charles Lyell, Charles Darwin, etc.—to fit with Biblical creation myths and cosmogonic legends borrowed from other cultures. Was there really a Flood? If humans are separate from the animal kingdom, how did we first arrive or appear on Earth?

It is not those particular questions that interest me—although, if I’m being honest, I will happily stay at the table for hours talking with you about the Black Sea deluge hypothesis or the history of Doggerland, two of the most interesting things I’ve ever read about, and whether or not they might have influenced early human legends of a Flood.

Instead, there are at least two things worth pointing out here. One is that these sorts of people never really went away, they just got jobs at the History Channel.

The other is that impossibly long celestial cycles, ancient astronomical records, the precession of the Earth’s poles, and weird, racist ideas about the “fall of Man” all came together into a series of speculations that seem straight out of H.P. Lovecraft.

Take, for example, Sampson Arnold Mackey and his “Age of Horror.”

[Image: Diagram from The Mythological Astronomy in Three Parts by Sampson Arnold Mackey.]

As Joscelyn Godwin writes in a book called The Theosophical Enlightenment, Mackey—a shoemaker, not an astronomer—was fascinated by “the inclination of the earth’s axis and its changes over long spans of time. Astronomers have known at least since classical times that the Earth’s axis rotates once in about 25,920 years, pointing successively at different stars, of which the current one is Polaris, the North Star. One result of this cycle is the ‘precession of the equinoxes,’ according to which the spring-point of the sun moves around the twelve signs of the zodiac, spending about 2160 years in each sign.”

Of course, the assumption that these signs and stars might somehow influence life on Earth is the point at which astronomy morphs into astrology.

Godwin goes on to explain that—contrary to “most astronomers” of his time—Mackey assumed the Earth’s precession was dramatic and irregular, to the extent that, as Mackey speculated, “the earth’s axis describes not a circle but an alternately expanding and contracting spiral, each turn comprising one cycle of the precession of the equinoxes, and at the same time altering the angle of inclination by four degrees.”

The upshot of this is that, at various points in the history of our planet, Mackey believed that the Earth’s “inclination was much greater, to the point at which it lay in the same plane as the earth’s orbit around the sun.”

This sounds inconsequential, but it would have had huge seasonal and climatic effects. For example, Godwin explains, “At the maximum angle, each hemisphere would be pointed directly at the sun day and night during the summer, and pointed away for weeks on end during the winter. These extremes of light and dark, of heat and cold, would be virtually insupportable for life as we know it. In Mackey’s words, it was an ‘age of horror’ for the planet.”

[Image: Diagram from The Mythological Astronomy in Three Parts by Sampson Arnold Mackey.]

The flipside of this, for Mackey, is that the Earth would have gone back and forth, over titanic gulfs of time, between two angular extremes. Specifically, his model required an opposite extreme of planetary rotation in which “there would be no seasons on earth, but a perpetual spring and a ‘golden age.’ Then the cycle would begin again.”

None of this would have been recent: “Mackey dates the Age of Horror at 425,000 years in the past, the Golden Age about a million years ago, and its recurrence 150,000 years from now.”

Nevertheless, Godwin writes, “It was essential to [Mackey’s] system of mythography that the Age of Horror should have been witnessed and survived by a few human beings, its dreadful memory passing into the mythology of every land.”

For Mackey, the implications of this wobble—this dramatic precession between a Golden Age and an Age of Horror, between the darkness of Hell and the sunlight of Paradise—would have been highly significant for the evolution of human civilization.

In other words, either we are coming out of an age of eternal winter and emerging slowly, every minute of the day, every year of the century, into a time of endless sunlight and terrestrial calm, or we are inevitably falling, tipping, losing our planetary balance as we pass into near-permanent night, a frozen Hell of ruined continents and dead seas buried beneath plates of ice.

[Image: The August 2017 total eclipse of the sun, via NASA.]

One of the weirder aspects of all this—something Godwin himself documents in another book, called Arktos—is that these sorts of ideas eventually informed, among other things, Nazi political ideology and even some of today’s reactionary alt-right.

The idea that there was once a Hyperborean super-civilization, a lost Aryan race once at home in the Arctic north, lives on. It’s what we might call the cult of the fallen Northener.

[Image: “Cairn in Snow” (1807) by Caspar David Friedrich.]

What actually interests me here, though, is the suggestion that planetary mega-cycles far too long for any individual human life to experience might be slowly influencing our myths, our cultures, our consciousness (such as it is).

My point is not to suggest that this is somehow true—to say that astrologers and precession-truthers are right—but simply to say that this is a fascinating idea and it has within it nearly limitless potential for new films, novels, and myths, stories where entirely different ways of thinking emerge on planets with extreme seasonal inclinations or unusual polar relationships to the stars.

[Image: From Pitch Black, via Supernova Condensate.]

Think of the only good scene in an otherwise bad movie, 2000’s Pitch Black, where the survivors of a crash on a remote human planetary outpost discover an orrery—a model of the planet they’re standing on—inside an abandoned building.

Playing with the model, the survivors realize that the world they’ve just crashed on is about to be eclipsed by a nearby super-planet, plunging them into a night that will last several months (or weeks or years—I saw the film 20 years ago and don’t remember).

Just imagine the sorts of horrors this might inspire—an entire planet going dark perhaps for centuries, doomed by its passage through space.

[Image: Adolph Gottlieb, courtesy Hollis Taggart.]

In any case, the idea that the earliest human beings lived through something like this hundreds of thousands of years ago—an imminent night, a looming darkness, an Age of Horror that imprinted itself upon the human imagination with effects lasting to this day—would mean that what we think of as human psychology is just an angular epiphenomenon of planetary tilt. Call it orbital determinism.

(Very vaguely related: a planet without a sun.)

Fables of the Permanent and Insatiable

[Image: An otherwise unrelated photo of fire-fighting foam, via Wikipedia.]

There are at least two classes of materials that have always interested me: synthetic materials designed to be so resistant and indestructible that they verge on a kind of supernatural longevity, and engineered biomaterials, such as enzymes or microbes, designed to consume exactly these sorts of super-resistant materials.

There was a strangely haunting line in a recent tweet by journalist Sharon Lerner, for example: “Turns out it’s really hard to burn something that was designed to put out fires.” Lerner is specifically referring to a plant in upstate New York that was contracted to burn fire-fighting foam, a kind of industrial Ouroboros or contradiction in terms. How do you burn that which was made to resist fire?

Unsurprisingly, the plant is allegedly now surrounded by unburnt remnants of this unsuccessful incineration process, as “extremely persistent chemicals” have been found in the soil, groundwater, and bodies of nearby living creatures.

These chemicals are not literally indestructible, of course, but I am nevertheless fascinated by the almost mythic status of such materials: inhuman things that, Sorcerer’s Apprentice-like, cannot be turned off, controlled, or annihilated. In other words, we invent a hydrophobic industrial coating that resists water, only to find that, when it gets into streams and rivers and seas, it maintains this permanent separation from the water around it, never diluting, never breaking down, forming a kind of “extremely persistent” counter-ecology swirling around in the global deep.

Or we produce a new industrial adhesive so good at bonding that it cannot be separated from the things with which it has all but merged. In any other context, this would be pure metaphor, even folklore, a ghost story of possession and inseparable haunting. What if humans are actually too good at producing the permanent? What if we create something that cannot be killed or annihilated? It’s the golem myth all over again, this time set in the dust-free labs of BASF and 3M.

Coatings, metals, adhesives, composites: strange materials emerge from human laboratories that exceed any realistic human timescale, perhaps threatening to outlast geology itself. As continents melt in the heat of an expanding sun ten billion years from now, these ancient, undead materials will simply float to the top, resistant even to magma and celestial apocalypse. We will have created the supernatural, the uncannily permanent.

[Image: “Plastic-munching bacteria,” via PBS NewsHour.]

In any case, the flip-side of all this, then, is synthetic materials that have been designed to consume these very things. Every once in a while, for example, it’s announced that a lab somewhere has devised a new form of plastic-eating enzyme or that someone has discovered certain worms that eat plastic. In other words, there is now in the world a creature or thing that can degrade the eerily immortal materials coming from someone else’s lab down the hall. But what are the consequences of this, the metaphoric implications? What myths do we have of the omnivorous and insatiable?

It is not hard to imagine that classic sci-fi trope of something escaping from the lab and wreaking havoc in the outside world. At first, say, cars parked outside the laboratory where this stuff was developed begin showing structural wear; radio dials fall off; plastic handles on passenger seats break or even seem to be disintegrating. Then it appears inside houses, people accidentally taking it home with them in the pleats and folds of their cotton clothing, where this engineered microbe begins to feast on plastic housings for electrical connections, children’s toys, and kitchen goods, all of which have begun to age before failing entirely.

Then supermarkets and drugstores, then airports and planes themselves. Boats and ferries. Internal medical implants, from joints to stents. This plastic-eating organism begins to shift genes and mutate, inadvertently unleashed onto a world that seems exactly built for it, with new food everywhere in sight. Forty years later, no plastic exists. A hundred years later, even the cellulose in plants is threatened. The world is being consumed entirely.

My point—such as it is—is that materials science seems to operate within two mythic extremes, pulled back and forth between two supernatural ideals: there is that which resists to the point of uncanny permanence, of eerie immortality, and there is that which consumes to the point of universal insatiability, of boundless hunger. Both of these suggest such interesting fables, creating such otherworldly things and objects in the process.

Auditory Hallucinations from Offworld Megafarms

Although I’m only slowly coming around to the music itself, it is hard not to be impressed by the level of narrative engineering that went into Luke Sanger’s 2019 album Onyx Pyramid.

The music, Sanger writes, is a kind of fictional soundtrack for a landscape of offworld megafarms, where a human skeleton crew has been reporting “auditory hallucinations” amplified by the effects of an artificial atmosphere. Audio scifi.

The combination of a worldwide shift to GM crops and rising global temperatures led to a series of global disasters, destroying many natural resources and causing a permanent environmental imbalance. Earth’s leaders make the choice to outsource all food production to off-world corporately owned farm planets, known as ‘flatlands’.

These giant artificial orbs contain vast crop fields and are operated robotically. A handful of human ‘farmers’ are required to oversee operations and perform maintenance tasks. Although the environmental conditions are engineered to mimic 21st century Earth, there is no wildlife. Farmers have been reporting strange experiences of auditory hallucinations, nicknamed ‘flatland frequencies’, these are most likely a byproduct of the chemically engineered atmosphere combined with extreme isolation.

You can buy or stream the full album over at Bandcamp.

A Spatial History of Sleep

[Image: Fish preserved in the eternal ocean of a closed jar at the American Museum of Natural History; old Instagram by Geoff Manaugh].

Although this is a classic example of something I am totally unqualified to talk about, a recent report over at ScienceNews caught my eye, about the spatial origins of REM sleep.

In a nutshell, the paper suggests that “sleep may have originated underwater 450 million years ago,” which is apparently when “the cells that kick off REM sleep” first evolved in fish. “During REM or paradoxical sleep,” we read, “the brain lights up with activity almost like it’s awake. But the muscles are paralyzed (except for rapid twitching of the eyes) and the heart beats erratically.”

Dreaming, it’s as if ancient fish learned to pass into a different kind of ocean, a fully immersive neural environment coextensive with the one they physically swam within.

What’s so interesting about this—at least for me—is the implication that REM sleep, and, thus, by extension, the very possibility of animals dreaming, was made possible by immersion in an all-encompassing spatial environment such as the sea. In other words, it took the vast black depths of the ocean to facilitate the kind of uninterrupted, meditative stillness in which REM sleep could best occur. Those ancestral cells then survived into our own mammalian brains, and, by dreaming, it’s perhaps a bit like we retreat back into some lost experience of the oceanic.

[Image: “Sleeping Beauty” by Hans Zatzka].

In any case, the study’s authors are probably rolling their eyes at this point, but so much comes to mind here—everything from H.P. Lovecraft’s marine-horror stories and their alien call of the deep—such as “The Shadow Over Innsmouth”—to the speculative idea that there might be other spatial environments, comparable to the ocean, that, after long-enough exposure, could inspire unique neurological processes otherwise impossible in traditional environments.

I’m thinking of Jeremy Narby’s strange book, Cosmic Serpent: DNA and the Origins of Knowledge, about human culture amidst the impenetrable rain forests of the Americas, or even the long-running sci-fi trope of the human mind expanding in a psychedelic encounter with deep space.

In fact, this makes me wonder about the landscapes of other planets, and whether crushingly powerful gravitational regimes in alien superstorms or bizarre swirling ecosystems deep inside liquid rock might affect the neurological development of species that live there. What other kinds of sleep are environmentally possible? Does every planet come with a different kind of dreaming? Can the design or formation of new kinds of space catalyze new forms of sleep? Are there deeper or higher levels of the brain, so to speak, waiting to appear in radically different spatial environments?

We already have astrobiology, astrogeology, even astrolinguistics, but I wonder what it would look like to study sleep on other worlds. Exosomnology.

Supernester

[Image: Photo by Charles Ray, via the New York Times].

Apparently, dystopian near-future climate change fiction doesn’t have enough wasps. When a colony survives one year to the next, due to a mild winter, its nest “can grow to be as big as a Volkswagen Beetle and can have 15,000 wasps.”

In a regular year in the U.S. state of Alabama, for example, there are apparently only two or three such “super nests,” but, according to an entomologist interviewed by the New York Times, in 2019 there could be as many as ninety.

First of all, it’s weirdly fascinating to learn that there is an official tally of super nests at all, let alone that there might be as many as 90 of them in Alabama alone.

However, what’s more striking, at least for me, is that the scenes depicted in this brief New York Times piece read more like something from a Cormac McCarthy novel. One man didn’t enter his outdoor toolshed for two months only to discover that it now housed a sprawling super nest housing as many as 18,000 wasps; he and his son still scurry past it now and again as they grab tools, unsure of how exactly to eliminate the threat.

It’s like Alien meets The Road: unwary climate refugees of the near-future hike through the forests of a superheated American South, unbeknownst to them approaching a super nest the size of a train yard, its buzzing mistaken for the hopeful drone of distant machinery.

Gold Fault Laser

[Image: Drawing courtesy Geothermal Futures Lab].

In the general chaos of renovating a house here in Los Angeles, I missed this lecture and reception on Friday night, launching a semi-fictional “Geothermal Futures Lab” at SCI-Arc.

It involves installing a gold-plated laser somewhere deep in the San Andreas Fault to extract geothermal energy from the landscape. Think of it as a kind of gonzo version of the San Andreas Fault Observatory at Depth.

[Image: Drawing courtesy Geothermal Futures Lab].

The press release, from architect Mark Foster Gage, is a great example of a solipsistic inventor’s imagination at full blast—featuring “geothermal resonance technologies,” nano-gold foil-wrapped laser components, an “experimental phenolic cured resin foam,” and so on.

The functioning of the equipment would also rely, at least partially, on existing “metal deposits along the strike-slipping continental plates,” bringing to mind both the naturally occurring nuclear reactors in Gabon and the giant Earth-battery cells circulating beneath the forests of central Canada: landscapes whose geochemistry lends them to these sorts of giant, speculative energy installations.

Or see Norway’s extraordinary Hessdalen lights, a geologically electrified valley that seems ripe for a Mark Foster Gage-like architectural-energy proposal.

In all these cases, of course, what’s also worth noting is that, as fantastic as this sort of facility might seem—whether it’s a lab extracting electrical energy from the San Andreas Fault, as Foster Gage suggests, or one positioned above geochemical differentials in the Canadian soil—as soon as the power it supplies can be made available through the national grid, it would immediately pass from some sort of absolutely bonkers sci-fi vision of the near-future to, frankly, something utterly mundane. It would simply be where the power comes from, and people would shrug it off as a mere utility (if they think about it at all).

But what this also means is that we might already, right now, be missing out on seeing the truly otherworldly nature of our own power-generation facilities, which have all too easily disappeared into the infrastructural background of the modern world. Science fiction is already here, in other words, we just tend to refer to it as infrastructure. See, for example, Crescent Dunes or PS10. Or, for that matter, take a harder look at oil.

[Images: Drawings courtesy Geothermal Futures Lab].

In any case, here’s a sample from the project text, obligatory typos and all:

The exhibited technology capitalizes on the unique tungsten-saturated substrate of the San Andres fault through the use of a visible-light Q-switched Nd:YAG lasers, tuned to extract sustainable magno-electrical energy from a +678 degree Kelvin supercritical water deposits located adjacent to a stable magma chamber 4.4km beneath the Earths surface. This supercritical water, that behaves both as liquid and gas, is vaporized through 3,780 Kelvin bursts which at peak power induce a supercritical matter state releasing energy in exponential excess of its matter equivalent. The presence of heterogeneous frequency fields in metal deposits along the strike-slipping continental plates supercharges the pockets of supercritical water with magnetic nuons which are forced upwards with velocity µ as a result of the pressure gradient along the vertical faults. Due to the variable decay rate of metals in the presence of such high trajectory nuons, the prototype laser resonance mechanism itself is encased in an experimental phenolic cured resin foam (Cas no. 000050-00-0 with a normal specific gravity of 120 kg/m3) which insulates the process from outside magnetic interference. For rapid nuon decay protection the foam resin is additionally coated with the same seven µm micrometer nano-gold foil used to encase existing NASA satellites. This thick film of gold nano-molecules particles gives the machine its striking gold aesthetic appearance.

A nuon-resistant radiant machine buried in the San Andreas Fault, extracting energy from the friction between tectonic plates? With lasers? Yes, please.

[Images: Drawings courtesy Geothermal Futures Lab].

The exhibition itself is up until March 4; stop by SCI-Arc to see more or check out the project’s website.

(Earlier on BLDGBLOG: San Andreas: Architecture for the Fault. Thanks to Wayne Chambliss and Eva Barbarossa for the heads up!)

Drawing Science/Drawing Fiction

I’ve been remiss in posting about a graduate course I’ll be co-teaching with the brilliant Nicholas de Monchaux up at UC Berkeley for the 2018-2019 academic year. The application period is currently open through December 2017.

Called “Drawing Science/Drawing Fiction: The Future of Californian Ecology,” the year-long Master’s course will be a combination of architectural design, experimental drawing methods, and narrative speculation, exploring what de Monchaux calls a “new relationship between architecture, media, ecology, and craft.”

The idea is to look ahead, not just at the future of California, but at the future of what California represents: cutting-edge industrial design, the global cinematic imagination, unparalleled demographic integration, agricultural innovation, adaptive infrastructure, and, of course, the risks of climate change.

[Image: From David Maisel’s “The Lake Project”; used with permission of the artist].

With the entire state of California at their disposal, students will be able to focus on everything from the U.S./Mexico border to the San Andreas Fault, from Silicon Valley and space tourism to the sci-fi productions of Hollywood. Agriculture, Artificial Intelligence, electric cars; species loss, wildfire, drought; policing, governance, human labor.

There are architectural scenarios to design and explore for all of these.

[Image: California’s Ivanpah Solar Energy Generating System photographed by Ethan Miller for Getty Images, via The Atlantic].

In an interview with Boom California published in 2014, novelist Kim Stanley Robinson—who was also interviewed here on BLDGBLOG way back in 2007—commented on the science-fictional appeal of California. By the time he went to college, he remarked, the landscape of the state had fundamentally changed; it was being terraformed for human habitation by the forces of industry and suburban development.

California, he realized, was itself a design project.

[Images: From David Maisel’s “The Lake Project”; used with permission of the artist].

Robinson explained to Boom that, in the blink of an eye, California became a “completely different landscape. At that same time I started reading science fiction (…) and it struck me that it was an accurate literature, that it was what my life felt like; so I thought science fiction was the literature of California. I still think California is a science fictional place. The desert has been terraformed. The whole water system is unnatural and artificial. This place shouldn’t look like it looks, so it all comes together for me. I’m a science fiction person, and I’m a Californian.”

Science fiction is the literature of California.

[Image: Early rendering for Michael Maltzan’s Six Street Viaduct in Los Angeles].

Briefly, this theme was developed further by an essay by Michael Ziser published in the same issue of Boom. “Postwar science fiction is to a surprising degree a phenomenon of the western United States,” Ziser wrote. It was also quite specifically Californian.

“As the producers of Golden Age sci-fi were lured to the region by the new economic opportunities available to writers in the pulp, television, and film industries of Southern California,” Ziser continued, “they were also drawn into an imaginative relationship with California’s physical novelty as a place sprung de novo from the plans of hydraulic engineers, road builders, and tract housing developers.”

Many of the major themes of science fiction in this period—the experience of living in an arid Martian colony, the palpable sense of depending in a very direct way on large technological systems, unease with the scope and direction of the military and aeronautics industries, the navigation of new social rules around gender and race—can be read as barely veiled references to everyday life in California. For sci-fi writers, teasing out the implications of an era in which entire new civilizations could be conjured almost from nothing through astonishing feats of engineering and capital was a form of realism. They were writing an eyewitness account of what was the most radical landscape-scale engineering project in the history of the world.

This idea of an “imaginative relationship with California’s physical novelty” is something we will be exploring in architectural form throughout the Studio One experience. In the process, we will approach California itself as a subject of design and compare the state to other regions currently experiencing their own de novo re-inventions, whether it’s a thawing Arctic or China’s ongoing building boom.

[Image: Floating caisson during the construction of the original Bay Bridge; photo by Clyde Sunderland, courtesy Library of Congress].

To develop and articulate their visions, students will be pushed to experiment with new forms of architectural representation, modeling, and drawing—or, as de Monchaux writes, “Our chief medium will be drawing, but we will engage and embrace a world of devices and tools—from scripting through mapping and virtual reality-that are changing, and expanding, the capacity of architecture to influence the world.”

I will be up in the Bay Area multiple times for this throughout the academic year, although not on a full-time basis; if you’re a fan of de Monchaux’s work, of science fiction, of architecture, of design’s potential for conjuring radical visions of landscape futures, then please consider applying. You have roughly two more months to do so.

[Image: Farming California, via Google Maps].

More information is available over at UC Berkeley.

Representing Utopia, or Advertisements of a World to Come

[Image: Test-crash from “California Freeways: Planning For Progress,” courtesy Prelinger Archives].

For those of you here in Los Angeles, I’m thrilled to be hosting an event tomorrow evening at USC with “rogue librarian” Megan Prelinger, on the subject of representing utopia.

Megan is cofounder of the San Francisco-based Prelinger Library, an independent media archive specializing “in material that is not commonly found in other public libraries.” Their collection has a strong focus on California history, science, and technology, from obscure technical publications to books on environmental politics, topics that can be tracked throughout Megan’s own work as a researcher and writer.

She is also the author of Another Science Fiction: Advertising the Space Race, 1957-1962 and Inside The Machine: Art and Invention in the Electronic Age. Both books reproduce beautifully designed promotional materials produced as part of an earlier era of science and technology; these include often-overlooked ephemera, such as corporate advertisements and business brochures, or what Alexis Madrigal has described as “the hyperbolic, whimsical world of the advertisements these early aerospace companies created to sell themselves.”

New satellite systems, microchip designs, space program components, electronic home appliances, from televisions to microwaves, to name only a few: all were the subject of visionary business models premised on utopian narratives of the world to come.

Taken as a whole, the Prelinger Library’s collection of these materials raises the interesting possibility that, in order to understand twentieth-century science fiction, we should not only read Octavia Butler, Arthur C. Clarke, or J. G. Ballard, but back-of-magazine ads for firms such as Frigidaire and General Electric. These are corporations, of course, applied futurism sought to create a new world—one in which their own products would be most useful.

[Image: From Another Science Fiction, via Wired].

At the event tomorrow night, we’ll be discussing both of these books, to be sure, but we’ll be doing so in the larger context of utopian representations of the state of California, treating California as a place of technical innovation, artificial control of the natural environment, and even perceived mastery over public health and the risk of disease transmission.

Megan will be showing a handful of short films about these themes, all taken from the Prelinger Archives, and we’ll round out our roughly 45-minute Q&A with open questions from the audience.

The event will cap off 500 Years of Utopia, our long look at the legacy of Sir Thomas More’s book, Utopia, timed for the 500th anniversary of its publication. The accompanying exhibition closes on February 28.

Things kick off at 5pm on Tuesday, February 7th; please RSVP.

Subterranean Singapore

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[Image: A “Cavern Breathing Unit” from Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

Here is another project from my reviews the other week at the Bartlett School of Architecture; this one is called Subterranean Singapore, and it is by Finbarr Fallon, produced for Unit 24, which is taught by Penelope Haralambidou, Simon Kennedy, and Michael Tite.


[Image: “Concept Breathing Towers” from Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

Subterranean Singapore is presented as a speculative look at massive underground residential development in the city-state of Singapore over the next few decades.


[Images: Glimpses of a “high grade recreational space within an inflatable cave unit,” from Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

The city has run out of room to expand into the sea, and is thus forced to look downward, into the depths of the continental shelf, excavating beneath the surface of the city and heading partially out below the seabed.


[Image: From Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

As Fallon describes it, the project explores “the city-state of Singapore’s subterranean ambitions to suggest an imagined masterplan and spatial typology for deep-level underground living. While it may seem utopian to imagine that extensive deep living will become viable, the pressures of chronic land scarcity in Singapore may necessitate this outcome.”


[Image: The “Subterranean Development Institute: Designing Your Underground Future,” from Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

The construction process is kicked off with great imperial fanfare, involving a parade of excavation machines and robot carving arms marching their way forward through clouds of confetti. There is even a celebratory pamphlet.


[Images: From Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

The idea is not entirely science fiction, of course: Singapore is already excavating huge oil-storage facilities underground, and nearby Hong Kong is actively experimenting with the design and implementation of entire underground infrastructural zones.


[Images: From Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

For Fallon, however, such a proposal cannot be divorced from the question of who will be able to afford these spaces of underground luxury—complete with fish ponds, spas, and the soothing presence of exotic mechanical animals meant to bring an ironic touch of the natural world to those below.


[Image: A light-well looking down at Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

Let alone, of course, the question of human labor. Who, after all, will physically construct these things? Whose backs will be broken?


[Image: From Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

The accompanying film—in fact, the film is the core of the proposal—suggests that not everyone is pleased to see this triumphant underground utopia take root beneath Singapore, and hacker-saboteurs appear to take things into their own hands.

While the plot itself is not unusually complex, many of the images successfully wed the cinematic and the architectural, and were worth posting here.


[Images: From Subterranean Singapore by Finbarr Fallon, Bartlett School of Architecture, Unit 24].

With any luck, I’ll post a few more student projects here in the days to come; for now, don’t miss Matthew Turner’s project for a “New London Law Court.”

“A City on Mars is Possible. That’s What All This is About.”

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Last week’s successful demonstration of a reusable rocket, launched by Elon Musk’s firm SpaceX, “was a critical step along the way towards being able to establish a city on Mars,” Musk later remarked. The proof-of-concept flight “dramatically improves my confidence that a city on Mars is possible,” he added. “That’s what all this is about.”

Previously, of course, Musk had urged the Royal Aeronautical Society to view Mars as a place where “you can start a self-sustaining civilization and grow it into something really big.” He later elaborated on these ideas in an interview with Aeon’s Ross Anderson, discussing optimistic but still purely speculative plans for “a citylike colony that he expects to be up and running by 2040.” In Musk’s own words, “If we have linear improvement in technology, as opposed to logarithmic, then we should have a significant base on Mars, perhaps with thousands or tens of thousands of people,” within this century.

(Image courtesy of SpaceX. Elsewhere: Off-world colonies of the Canadian Arctic and BLDGBLOG’s earlier interview with novelist Kim Stanley Robinson).