Offworld Colonies of the Canadian North

[Image: Fermont’s weather-controlling residential super-wall, courtesy Blackader-Lauterman Library of Architecture and Art, McGill University].

An earlier version of this post was published on New Scientist back in 2015.

Speaking at a symposium on Arctic urbanism, held at the end of January 2015 in Tromsø, Norway, architectural historian Alessandra Ponte introduced her audience to some of Canada’s most remote northern mining towns.

Ponte had recently taken a group of students on a research trip through the boreal landscape, hoping to understand the types of settlements that had been popping up with increasing frequency there. This included a visit to the mining village of Fermont, Quebec.

Designed by architects Norbert Schoenauer and Maurice Desnoyers, Fermont features a hotel, a hospital, a small Metro supermarket, and even a tourism bureau—for all that, however, it is run entirely by the firm ArcelorMittal, which also owns the nearby iron mine. This means that there are no police, who would be funded by the Canadian government; instead, Fermont is patrolled by its own private security force.

The town is also home to an extraordinary architectural feature: a residential megastructure whose explicit purpose is to redirect the local weather.

[Image: Wind-shadow studies, Fermont; courtesy Blackader-Lauterman Library of Architecture and Art, McGill University].

Known as the mur-écran or “windscreen,” the structure is nearly a mile in length and shaped roughly like a horizontal V or chevron. Think of it as a climatological Maginot Line, a fortification against the sky built to resist the howling, near-constant northern winds.

In any other scenario, a weather-controlling super-wall would sound like pure science fiction. But extreme environments such as those found in the far north are, by necessity, laboratories of architectural innovation, requiring the invention of new, often quite radical, context-appropriate building types.

In Fermont, urban climate control is built into the very fabric of the city—and has been since the 1970s.

[Image: Fermont and its iron mine, as seen on Google Maps].

Offworld boom towns

In a 2014 interview with Aeon, entrepreneur Elon Musk argued for the need to establish human settlements on other planets, beginning with a collection of small cities on Mars. Musk, however, infused this vision with a strong sense of moral obligation, urging us all “to be laser-focused on becoming a multi-planet civilization.”

Humans must go to Mars, he implored the Royal Aeronautical Society back in 2012. Once there, he proposed, we can finally “start a self-sustaining civilization and grow it into something really big”—where really big, for Musk, means establishing a network of towns and villages. Cities.

Of course, Musk is not talking about building a Martian version of London or Paris—at least, not yet. Rather, these sorts of remote, privately operated industrial activities require housing and administrative structures, not parks and museums; security teams, not mayors.

These roughshod “man camps,” as they are anachronistically known, are simply “cobbled together in a hurry,” energy reporter Russell Gold writes in his book The Boom. Man camps, Gold continues, are “sprawling complexes of connected modular buildings,” unlikely to be mistaken for a real town or civic center.

In a sense, then, we are already experimenting with offworld colonization—but we are doing it in the windswept villages and extraction sites of the Canadian north. Our Martian future is already under construction here on Earth.

[Image: Fermont apartments, design sketch, courtesy Blackader-Lauterman Library of Architecture and Art, McGill University].

Just-in-time urbanism

Industrial settlements such as Russell Gold’s fracking camps in the American West or those in the Canadian North are most often run by subsidiary services corporations, such as Baker Hughes, Oilfield Lodging, Target Logistics, or the aptly named Civeo.

The last of these—whose very name implies civics reduced to the catchiness of an IPO—actually lists “villages” as one of its primary spatial products. These are sold as “integrated accommodation solutions” that you can order wholesale, like a piece of flatpak furniture, an entire pop-up city given its own tracking number and delivery time.

Civeo, in fact, recently survived a period of hedge-fund-induced economic turbulence—but this experience also serves as a useful indicator for how the private cities of the future might be funded. It is not through taxation or local civic participation, in other words: their fate will instead be determined by distant economic managers who might cancel their investment at a moment’s notice.

A dystopian scenario in which an entire Arctic—or, in the future, Martian—city might be abandoned and shut down overnight for lack of sufficient economic returns is not altogether implausible. It is urbanism by stock price and spreadsheet.

[Image: Constructing Fermont, courtesy Blackader-Lauterman Library of Architecture and Art, McGill University].

Consider the case of Gagnon, Quebec. In 1985, Alessandra Ponte explained, the town of Gagnon ceased to exist. Each building was taken apart down to its foundations and hauled away to be sold for scrap. Nothing was left but the ghostly, overgrown grid of Gagnon’s former streets, and even those would eventually be reabsorbed into the forest. It was as if nothing had been there at all. Creeks now flow where pick-up trucks stood thirty years ago.

In the past, abandoned cities would be allowed to molder, turning into picturesque ruins and archaeological parks, but the mining towns of the Canadian north meet an altogether different fate. Inhabited one decade and completely gone the next, these are not new Romes of the Arctic Circle, but something more like an urban mirage, an economic Fata Morgana in the ice and snow.

Martian pop-ups

Modular buildings that can be erased without trace; obscure financial structures based in venture capital, not taxation; climate-controlling megastructures: these pop-up settlements, delivered by private corporations in extreme landscapes, are the cities Elon Musk has been describing. We are more likely to build a second Gagnon than a new Manhattan at the foot of Olympus Mons.

Of course, instant prefab cities dropped into the middle of nowhere are a perennial fantasy of architectural futurists. One need look no further than British avant-pop provocateurs Archigram, with their candy-colored comic book drawings of “plug-in cities” sprouting amidst remote landscapes like ready-made utopias.

But there is something deeply ironic in the fact that this fantasy is now being realized by extraction firms and multinational corporations—and that this once radical vision of the urban future might very well be the perfect logistical tool that helps humankind achieve a foothold on Mars.

In other words, shuttles and spacesuits were the technologies that took us to the moon, but it will be cities that take us to new worlds. Whether or not any of us will actually want to live in a Martian Fermont is something that remains to be seen.

Northern Sonic

[Image: Canada’s Fury and Hecla Strait, source of the “ping”].

The “mysterious ‘ping’ sound” occurring beneath the waters of Canada’s Fury and Hecla Strait is now under official investigation.

“Hunters in a remote community in Nunavut are concerned about a mysterious sound that appears to be coming from the sea floor,” the CBC reported back in November. “The ‘pinging’ sound, sometimes also described as a ‘hum’ or ‘beep,’ has been heard in Fury and Hecla Strait—roughly 120 kilometres northwest of the hamlet of Igloolik—throughout the summer.” One of many concerns is that, “whatever the cause, it’s scaring the animals away.”

To find out exactly what it is, the Canadian military has sent “two acoustic specialists to investigate the sound.” Oddly, however, “the specialists will not be visiting the actual area of Fury and Hecla Strait, but rather spending a week in Igloolik to gather information about the sound.”

In any case, if this was a novel, I wish I had written it—with slight variations. Two acousticians, carrying sensitive recording equipment and some personal baggage, are sent at short notice up to a tiny fishing hamlet in the far north to investigate a mysterious sound in the water.

No one has any idea of what it is or what’s causing it. It could be a unique natural effect of changing undersea currents, oceanographers suggest; it could be an adversarial foreign military sonar-mapping the strait for future navigation, a military advisor warns; it could be, one of the acousticians quietly begins to fear, supernatural; but the two of them continue researching nonetheless, engaging in sometimes eerie nighttime conversations with locals about a wide range of northern folklore, of vast Lovecraftian things waiting in the ice to thaw and stories of now-vengeful, thousand-year-old revenant hunters lost at sea.

[Image: The hamlet of Igloolik, Canada, visible on the left].

The acousticians return to their spartan accommodations every evening—an old creaking building whose sole resident passed away the year before, although no one will tell them of what cause—where they put on headphones and listen back through their daily recordings, this weird lurch of aquatic noise, as if they’ve wiretapped the drain of the world.

One of them becomes convinced he can hear something—a signal amongst the reverb—but the other can’t hear it, and, either way, it’s almost time to head south again.

A day before they’re set to leave, however, there is a commotion outside near the jetty as three people are rushed into the village. They are hypothermic and dehydrated—and, strangely, carrying U.S. passports despite the fact that one of them has been babbling in Russian. They were found in the strait, half-drowned, their fishing vessel sinking.

And so on. If you want to read the rest, buy me a coffee some time.

(Via Atlas Obscura).

Sovereign Flocking Algorithms

[Image: Flocking diagram by “Canadian Arctic sovereignty: Local intervention by flocking UAVs” by Gilles Labonté].

One of many ways to bolster a nation-state’s claim to sovereignty over a remote or otherwise disputed piece of land is to perform what’s known as a “sovereignty cruise.” This means sending a ship—or fleet of ships—out to visit the site in question, thus helping to normalize the idea that it is, in fact, a governable part of that nation’s territory.

It is, in essence, a fancy—often explicitly militarized—version of use it or lose it.

Last summer, for example, Vietnam organized a private tour of the Spratly Islands, an archipelago simultaneously claimed by more than one nation and, as such, part of the much larger ongoing dispute today over who really owns and controls the South China Sea [sic].

Vietnam’s effort, Reuters reported at the time, was a strategic visit “to some of Asia’s most hotly contested islands, in a move likely to stoke its simmering dispute with Beijing over South China Sea sovereignty.”

It made “little attempt to disguise its political flavor, and comes as Vietnam pursues a bolder agenda in pushing its claims in the face of China’s own growing assertiveness.” Indeed, the cruise was apparently just the beginning, a mere “trial run ahead of Vietnam’s tentative plans to put the Spratlys on its tourism map, including scheduled passenger flights, possibly this year.”

Bring the people, in other words, and you bring evidence of governmental control.

Against this, of course, we must place the construction of entire islands by China, including the recent installation of a new primary school there, on an artificial island, a school whose opening lecture “was a geopolitical class that focused on China’s ownership of the sea.”

These sovereign games of Go taking place in disputed waters could sustain an entire blog on their own, of course, and are a topic we’ll undoubtedly return to. (Briefly, it’s worth noting that the sovereign implications of artificial islands were also part of a course I taught at Columbia a few years ago.)

Surprisingly, however, another region seen as potentially subject to future disputes over sovereignty is the Canadian Arctic. As such, arguments over such things as whether or not the Northwest Passage is an “international strait” (open to use by all, including Russian and Chinese military ships) or if it is actually a case of “internal waters” controlled exclusively by Canada (thus subject to restricted access), are still quite active.

Add to this a series of arguments over indigenous political rights as well as the specter of large-scale terrestrial transformation due to climate change, and a series of intriguing and quite complicated political scenarios are beginning to emerge there. (Who Owns The Arctic? by Michael Byers is an excellent introduction to this subject, as is Mia Bennett’s blog Cryopolitics.)

[Image: Flocking diagram by “Canadian Arctic sovereignty: Local intervention by flocking UAVs” by Gilles Labonté].

With all this in mind, consider a fascinating report issued by Defence R&D Canada back in 2010. Called “Canadian Arctic sovereignty: Local intervention by flocking UAVs” (PDF), and written by Gilles Labonté, it opens stating that “the importance of local intervention capability for the assertion of Canadian Sovereignty in the Northwest passage is recognized.”

However, Canada presently lacks the ability to deploy at any northern position, on demand, assets that could search a wide area for rescue or surveillance purposes. This fact motivated the exploration we report here on the feasibility of a rapid intervention system based on a carrier-scouts design according to which a number of unmanned aerial vehicles (UAVs) would be transported, air launched and recovered by a larger carrier aircraft.

In other words, if Canada can’t send actual Canadians—that is, living human beings—on aerial “sovereignty cruises” by which they could effectively demonstrate real-time political control over the territories of the north, then they could at least do the next best thing: send in a flock of drones.

Doing so, Labonté suggests, would require a particular kind of flocking algorithm, one with an explicitly political goal. “In the present report,” he adds, “we propose a solution to the remaining problem of managing simultaneously the many UAVs that are required by the vastness of the areas to be surveyed, with a minimum number of human controllers and communications.”

Namely, we present algorithms for the self-organization of the deployed UAVs in the formation patterns that they would use for the tasks at hand. These would include surveillance operations during which detailed photographic or video images would be acquired of activities in a region of interest, and searching an area for persons, vehicles or ships in distress and providing a visual presence for such. Our conclusion is that the local intervention system with flocking UAVs that we propose is feasible and would provide a very valuable asset for asserting and maintaining Canadian Sovereignty in the North.

There are “formation patterns” and flocking algorithms, this suggests, that would specifically be of use in “asserting and maintaining Canadian Sovereignty in the North.”

Hidden within all this is the idea that particular flocking algorithms would be more appropriate for the task than others, lending an explicit air of political significance to specific acts of programming and computation. It also implies an interesting connection between the nation-state and behavioral algorithms, in which a series of behavioral tics might be ritually performed for their political side-effects.

For some context, the report adds, “the Canadian Government has had serious considerations of establishing a presence in the north through purchasing nuclear submarines and ice-breakers.” But why not side-step much of this expense by sending UAVs into the Arctic void instead, reinforcing nation-state sovereignty through the coordinated presence of semi-autonomous machines?

Simply re-launch your drones every two or three months, just often enough to nudge the world into recognizing your claim, not only of this remote airspace but of the vast territory it covers.

A halo of well-choreographed aerial robots flocks in the Arctic skies before disappearing again into a bunker somewhere, waiting to reemerge when the validity of the government appears under threat—a kind of machine-ritual in the open three-dimensional space of the polar north, a robotic sovereignty flight recognized around the world for its performative symbolism.

Read the rest of Labonté’s paper—which is admittedly about much more than I have discussed here—in this PDF.


In the forests of northern Ontario, a “strange phenomenon” of large natural rings occurs, where thousands of circles, as large as two kilometers in diameter, appear in the remote landscape.

ForestRings1[Image: From the thesis “Geochemistry of Forest Rings in Northern Ontario: Identification of Ring Edge Processes in Peat and Soil” (PDF) by Kerstin M. Brander, University of Ottawa].

“From the air, these mysterious light-coloured rings of stunted tree growth are clearly visible,” the CBC explained back in 2008, “but on the ground, you could walk right through them without noticing them.”

Since they were discovered on aerial photos about 50 years ago, the rings have baffled biologists, geologists and foresters… Astronomers suggest the rings might be the result of meteor strikes. Prospectors wonder whether the formations signal diamond-bearing kimberlites, a type of igneous rock.

While it’s easy to get carried away with visions of supernatural tree rings growing of their own accord in the boreal forests, this is actually one of the more awesome examples of where the likely scientific explanation is also significantly more interesting than something more explicitly other-worldly.

Geochemistry of Forest Rings in northern Ontario:[Image: From the thesis “Geochemistry of Forest Rings in Northern Ontario: Identification of Ring Edge Processes in Peat and Soil” (PDF) by Kerstin M. Brander, University of Ottawa].

Indeed, as geochemist Stew Hamilton suggested in 1998, the rings are most likely to be surface features caused by “reduced chimneys,” or “big centres of negative charge that frequently occur over metal deposits,” where a forest ring is simply “a special case of a reduced chimney.”

Reduced chimneys, meanwhile, are “giant electrochemical cells” in the ground that, as seen through the example of forest rings, can affect the way vegetation grows there.

rings[Image: Screen-grab from Google Maps].

One of many things worth highlighting here is this suggestion that the trees are being influenced from below by ambient electrochemical processes in the soil, set into motion by the region’s deep geology:

Hamilton was testing an analytical technique over a Matheson gold deposit to determine if there was any kind of geochemical surface signal. To his surprise, there were signals coming through 30 to 40 metres of glacial clay.

“We’re thinking there’s no way metals can move through clay 10,000 years after glaciation.”

After ruling out transport by ground water, diffusion and gas, he theorized it had to have been lifted to surface on electrical fields.

He applied the same theory to forest rings and discovered that they were also giant negatively charged cells.

Any source of negative charge will create a forest ring.

In landscape architecture terms, a forest ring—which Hamilton describes [PDF] as “a plant assemblage that is different from the surrounding forest making the features visible from the air”—could be seen as a kind of indirect electrochemical garden taking on a recognizably geometrical form without human intervention.

In effect, their shape is expressed from below. For ambitious future landscape designers, note that this implies a potential use of plantlife as a means for revealing naturally occurring electrical networks in the ground, where soil batteries and other forms of terrestrial electronics could articulate themselves through botanical side-effects.

That is, plant a forest; come back after twenty years; discover vast rings of negative electrochemical charge like smoke rings pushing upward from inside the earth.

Or, of course, you could reverse this: design for future landscape-architectural effects by formatting the deep soil of a given site, thus catalyzing subterranean electrochemical activity that, years if not generations later, would begin to have aesthetic effects.

ForestRings3[Image: From the paper “Spontaneous potential and redox responses over a forest ring” (PDF) by Stewart M. Hamilton and Keiko H. Hattori].

But it gets weirder: as Hamilton’s fieldwork also revealed, there is a measurable “bulge in the water table that occurs over the entire length of the forest ring with a profound dip on the ring’s outer edge.” For Hamilton, this effect was “beyond science fiction,” he remarked to the trade journal Northern Ontario Business, “it’s unbelievable.”

What this means, he explained, is that “the water is being held up against gravity” by naturally occurring electrical fields.

ForestRings4[Image: From the paper “Spontaneous potential and redox responses over a forest ring” (PDF) by Stewart M. Hamilton and Keiko H. Hattori].

Subsequent and still-ongoing research by other geologists and geochemists has shown that forest rings are also marked by the elevated presence of methane (which explains the “stunted tree growth”), caused by natural gas leaking up from geological structures beneath the forest.

Hamilton himself wrote, in a short report for the Ontario Geological Survey [PDF], that forest ring formation “may be due to upward methane seepage along geological structures from deeper sources,” and that this “may indicate deeper sources of natural gas in the James Bay Lowlands.”

Other hypotheses suggest that these forest rings could instead be surface indicators of diamond pipes and coal deposits—meaning that, given access to an aerial view, you can, in effect, “read” the earth’s biosphere as a living tissue of signs or symptoms through which deeper, non-biological phenomena (coal, diamonds, metals) are revealed.

ForestRings5[Image: Forest ring at N 49° 16′ 05″, W 83° 45′ 01″, via Google Maps].

Even better, these electrochemical effects stop on a macro-scale where the subsurface geology changes; as Hamilton points out [PDF], the “eastward disappearance of rings in Quebec occurs at the north-south Haricanna Moraine, which coincides with a sudden drop in the carbonate content of soils.”

If you recall that there were once naturally-occurring nuclear reactors burning away in the rocks below Gabon, then the implication here would be that large-scale geological formations, given the right slurry of carbonates, metals, and clays, can also form naturally-occurring super-batteries during particular phases of their existence.

To put this another way, through an accident of geology, what we refer to as “ground” in northern Ontario could actually be thought of a vast circuitboard of electrochemically active geological deposits, where an ambient negative charge in the soil has given rise to geometric shapes in the forest.

ForestRings6[Image: Forest rings at N 49° 29′ 48″, W 80° 05′ 40″, via Google Maps].

In any case, there is something pretty incredible about the idea that you could be hiking through the forests of northern Ontario without ever knowing you’re surrounded by huge, invisible, negatively charged megastructures exhibiting geometric effects on the plantlife all around you.

Several years ago, I wrote a post about the future of the “sacred grove” for the Canadian Centre for Architecture, based on a paper called “The sacred groves of ancient Greece” by art historian Patrick Bowe. I mention this because it’s interesting to consider the forest rings of northern Ontario in the larger interpretive context of Bowe’s paper, not because there is any historical or empirical connection between the two, of course; but, rather, for the speculative value of questioning whether these types of anomalous forest-effects could, under certain cultural circumstances, carry symbolic weight. If they could, that is, become “sacred groves.”

Indeed, it is quite thrilling and strange to imagine some future cult of electrical activity whose spaces of worship and gathering are remote boreal rings, circular phenomena in the far north where water moves against gravity and chemical reactions crackle outward through the soil, forcing forests to take symmetrical forms only visible from high above.

For more on forest rings, check out the CBC or Northern Ontario Business or check out any of the PDFs linked in this post.

To Reach Mars, Head North

[Image: An early design image of Fermont, featuring the “weather-controlling super-wall,” via the Norbert Schonauer archive at McGill University].

I’ve got a new column up at New Scientist about the possibility that privately run extraction outposts in the Canadian north might be useful prototypes—even political testing-grounds—for future offworld settlements.

“In a sense,” I write, “we are already experimenting with off-world colonization—only we are doing it in the windswept villages and extraction sites of the Canadian north.”

For example, when Elon Musk explained to Ross Anderson of Aeon Magazine last year that cities on Mars are “the next step” for human civilization—indeed, that we all “need to be laser-focused on becoming a multi-planet civilization”—he was not calling for a second Paris or a new Manhattan on the frigid, windswept plains of the Red Planet.

Rather, humans are far more likely to build variations of the pop-up, investor-funded, privately policed, weather-altering instant cities of the Canadian north.

The post references the work of Montréal-based architectural historian Alessandra Ponte, who spoke at a conference on Arctic futures held in Tromsø, Norway, back in January; there, Ponte explained that she had recently taken a busload of students on a long road trip north to visit a mix of functioning and abandoned mining towns, including the erased streets of Gagnon and the thriving company town of Fermont.

Fermont is particularly fascinating, as it includes what I describe over at New Scientist as a “weather-controlling super-wall,” a 1.3km-long residential mega-complex specifically built to alter local wind patterns.

Could outposts like these serve as examples—or perhaps cautionary tales—for what humans will build on other worlds?

Modular buildings that can be erased without trace; obscure financial structures based in venture capital, not taxation; climate-controlling megastructures: these pop-up settlements, delivered by private corporations in extreme landscapes, are the cities Elon Musk has been describing.

Go check out the article in full, if it sounds of interest; and consider picking up a copy of Alessandra Ponte’s new book, The House of Light and Entropy, while you’re at it, a fascinating study of landscape, photography, mapping, geographic emptiness, the American West, and the “North” as a newly empowered geopolitical terrain.

Finally, don’t miss this interesting paper by McGill’s Adrian Sheppard (saved here as a PDF) about the design and construction of Fermont, or this CBC audio documentary about life in the remote mining town.

Algorithms in the Wild

[Image: Jasper National Park, courtesy of Parks Canada].

There’s an interesting article over at Highline Magazine about a lost hiker named George Joachim whose subsequent behavior in the landscape was so spatially unexpected that he eluded discovery for ten days.

He was a “behavioral outlier,” we read, and his mathematically unpredictable actions forced a revision of what is, in effect, the search algorithm used by Parks Canada for tracking human beings in the wild.

[Image: Jasper National Park, courtesy of Parks Canada].

From the story:

Parks Canada uses a statistical model to help predict where the lost person might be. The model uses data collected from similar lost person cases to learn the size and location of the search area. Combining the experience of the searchers and research on the lost person, the model then suggests the likelihood the person will be in various locations based on how previous people in their situation have behaved.
Joachim unintentionally misled searchers by listing his destination incorrectly in the climber’s registry, and then behaved so unlike other people previously have in his circumstance that he was repeatedly missed in the search. Parks Canada’s search and rescue community considers his case a valuable learning experience and have since tweaked search protocols to account for other behavioral outliers.

Put another way, this hiker exceeded the agent-based mathematical model used to track him. As a result, his searchers were forced to develop what the author calls the “Joachim profile,” a kind of makeshift simulation that, in theory, should have been able to predict where he’d pop up next.

The idea that human movement through the wilderness corresponds—or not, as the case may be—to a mathematical sorting algorithm is fascinating, especially when that model diverges so drastically from what a person really does out there.

In fact, it’s worth speculating that it is precisely in this divergence from accepted mathematical models of landscape use where we can find a truer or more “wild” experience of the terrain—as if certain activities can be so truly “wild” that no known algorithm is capable of describing them.

[Image: Jasper National Park, courtesy of Parks Canada].

In any case, it’s by no means the world’s most gripping story of human survival, but it’s a great example of human landscape expectations and the limits of abstract modeling.

Click over to Highline to read the whole thing.

Border Town

[Image: Photo by m.joedicke, via Border Town].

From Border Town, an independent research and design workshop to be held in Toronto this summer, from 16 June-18 August, now seeking applications:

Your farm is completely surrounded by a foreign country because the king lost it in a game of cards. You live in Cooch Behar.

You are eating at a café when you are informed that it must close. If you’ll just shift to a table in the other country, service is still available. This café is in Baarle/Hertog.

You work in the mayor’s office. Down the hall is a parallel mayor’s office with a whole mirror set of city officials to govern the other half of your city. You work in Texarkana.

We believe that a great deal can be learned by investigating the strange edge cases of the world. Border towns are the extreme edge of where geography and politics collide. They throw the abstractions of governance into sharp physical relief. They are a fertile site for investigation into questions of security, freedom, architecture, immigration, trade, smuggling, sovereignty, and identity.

Border Town is a 10-week, multi-participant collaborative design studio that will investigate the conditions that surround life in cities situated on borders, divided by borders, or located in conflict zones. By investigating these strange specimens of political geography, we can being to think and design about the interaction of legal and physical architecture and how these forces shape the built environment and the lives of the people living in it.

The workshop is organized by Tim Maly and Emily Horne, and applications are due by 2 June.

By way of my own hypothetical reading list for such a course, I might suggest checking out a few of the following books: The City & The City by China Miéville, Divided Cities: Belfast, Beirut, Jerusalem, Mostar, and Nicosia by Jon Calame and Esther Charlesworth, Hollow Land: Israel’s Architecture of Occupation by Eyal Weizman, City of Walls: Crime, Segregation, and Citizenship in São Paulo by Teresa P. R. Caldeira, Divided Kingdom by Rupert Thomson, A Wall in Palestine by René Backmann, and any number of other books, films, essays, and chapters elsewhere on the subjects of smuggling, demilitarized zones, police jurisdiction, international espionage, the Berlin Wall, the Jewish ghetto, quarantine, border survey teams (and the equipment they utilize), segregation and apartheid, political gerrymandering, micronations, and much more.

In any case, Border Town promises to be an interesting experience for all involved—and I should add that it’s great to see people putting together this kind of independent educational workshop outside of the university system. If you end up being one of the participants, I’d love to hear how it goes.