Architecture – BLDGBLOG

Institute for Controlled Speleogenesis

Recently, I’ve been looking back at a collaborative project with John Becker of WROT Studio.

The “Institute for Controlled Speleogenesis” (2014) was a fictional design project we originally set in the vast limestone province of Australia’s Nullarbor Plain.

[Image: A rock-acid drip-irrigation hub for the “Institute for Controlled Speleogenesis,” a collaboration between BLDGBLOG and WROT Studio; all images in this post are by John Becker of WROT Studio.]

The Nullarbor Plain is a nearly treeless region, roughly the size of Nebraska. It is also the world’s largest karst landscape, and thus home to hundreds of natural caves.

“There is a great variety of cave types under the Nullarbor,” as Australian Geographic explains, “but the plain’s most interesting features are long, deep systems (such the Old Homestead Cave), which are found only here, in the U.S. state of Florida, and on Mexico’s Yucatan Peninsula, all of which all have similar karst limestone layers.”

The Institute for Controlled Speleogenesis was imagined as a remote, thinly staffed site for applied geological research, where huge artificial caves could be generated below the Earth’s surface using a special acid mix—as safe as vinegar, but, importantly for our project, capable of dissolving limestone on a greatly accelerated timescale.

Subterranean spaces of every conceivable size, from tiny hollows and capillaries to vast megastructures, could thus be acid-etched into even the deepest karst formations, both rapidly and over decadal expanses of time.

The resulting rooms, tunnels, and interconnected cave systems could be used for a wide range of purposes: generating speleo-pharmaceuticals, for example, as well as testing recreational caving equipment, experimenting with underground agricultural systems, or developing new technologies for subterranean navigation, communication, inhabitation, and mapping.

As John writes on his own website—where you can also see larger, more-detailed versions of these images—our “aberrant caverns,” in John’s phrase, would be monitored in real-time by autonomous systems operating 24 hours a day.

The ever-growing caves could thus be left on their own, unsupervised, while the acid-drip system gradually etches down, drop by drop, reaching increasingly remote underground realms that the acid itself creates.

As a preliminary step, different blends of rock-acid mix would first be tested on large pillars aboveground, to choose or highlight specific spatial effects.

Controlled showers of rock-acid would result in totem-like sculptures, like industrial-scale menhirs—Stone Age ritual artifacts by way of 21st-century geochemistry.

Once the desired effects have been achieved, fields of bladders, nozzles, and injection arrays can be programmed and choreographed to enlarge an artificial cave mouth.

The irrigation system can then be continued underground. Necklaces of acid-drip arrays can easily be extended underground in order to expand the cave itself, but also to lengthen certain tunnels or to experiment with architecturally stable cave formations.

As John explains, the images seen here depict an “injection array using a pressurized system to move large quantities of solution to underlying areas of the cave network. These injection sites are outwardly the tell for a hidden world below. Much like oil derricks extracting resources from the earth, their density and scale across the landscape give you a glimpse into areas afforded the most resources for injection.”

Our initial siting of this in the Nullarbor Plain was motivated entirely by geology, but other large limestone provinces—from Kentucky or northern Arizona to southern France, and from California’s Lucerne Valley to Egypt—would also be good hosts.

While we looked into standard mining acids, currently used for stripping tailings piles of valuable minerals, it quickly became apparent that specific kinds of acetic acid—again, no more toxic than vinegar—offered a more viable approach for creating a maximally spacious site with minimally polluting environmental implications. (Of course, should someone without such qualms want to explore this set-up with no concern for its ecological impact, then much stronger acids capable of dissolving much stronger rocks could also be explored.)

In 2022, I was excited to see that John returned to this project, generating a new series of images using AI image-generation software trained on our earlier project documentation. Given their provenance, the resulting images are unsurprisingly cinematic—equal parts cyberpunk dereliction and underworldly luminescence.

Over the years, John has become a wizard at producing Modernist geological imagery, publishing images on his Instagram account—rock sculpted as smooth as paper and as diaphanous as a veil or curtain.

Check out his own website for more images of the Institute for Controlled Speleogenesis and other recent projects. And, if you like this, don’t miss “Architecture-by-Bee and Other Animal Printheads,” an earlier project of ours that I’m proud to say was published in Paul Dobraszczyk’s excellent recent book, Animal Architecture: Beasts, Buildings and Us.

(All images in this post are by John Becker of WROT Studio. This post contains a Bookshop.org affiliate link, meaning that I might receive a small percentage of any resulting sales.)

Agency of the Subsurface

[Image: The Heathen Gate at Carnuntum, outside Vienna; photo by Geoff Manaugh.]

Last summer, a geophysicist at the University of Vienna named Immo Trinks proposed the creation of an EU-funded “International Subsurface Exploration Agency.” Modeled after NASA or the ESA, this new institute would spend its time, in his words, “looking downward instead of up.”

The group’s main goal would be archaeological: to map, and thus help preserve, sites of human settlement before they are lost to development, natural decay, climate change, and war.

Archaeologist Stefano Campana, at the University of Siena, has launched a comparable project called Sotto Siena, or “Under Siena”—abbreviated as SOS—intended to survey all accessible land in the city of Siena.

[Image: A few of Siena’s innumerable arches; photo by Geoff Manaugh.]

That project’s goal is primarily to catalog the region’s millennia of human habitation and cultural artifacts, but, like Immo Trinks and his proposed ISEA, is also serving to document modern-day infrastructure, such as pipes, utilities, sewers, and more. (When I met Campana in Siena last year, I was interested to learn that a man who had walked over to say hello, who was introduced to me as an enthusiastic supporter of Campana’s work, was actually Siena’s chief of police—it’s not just archaeologists who want to know what’s going on beneath the streets.)

I had the pleasure of tagging along with both Trinks and Campana last year as part of my Graham Foundation grant, “Invisible Cities,” and a brief write-up of that experience is now online over at WIRED.

The article begins in Siena, where I joined Campana and two technicians from the Livorno-based firm GeoStudi Astier for a multi-hour scan of parks, piazzas, and streets, using a ground-penetrating radar rig attached to a 4WD utility vehicle.

[Images: The GPR rig we rode in that day, owned and operated by GeoStudi Astier; photos by Geoff Manaugh.]

We stayed out well past midnight, at one point scanning a piazza in front of the world’s oldest bank, an experience that brought back positive memories from my days reporting A Burglar’s Guide to the City (alas, we didn’t discover a secret route into or out of the vault, but just some fountain drains).

In Vienna, meanwhile, Trinks drove me out to see an abandoned Roman frontier-city and military base called Carnuntum, near the banks of the Danube, where he walked me through apparently empty fields and meadows while narrating all the buildings and streets we were allegedly passing through—an invisible architecture mapped to extraordinary detail by a combination of ground-penetrating radar and magnetometry.

“We want to map it all—that’s the message,” Trinks explained to me. “You’re not just mapping a Roman villa. You’re not mapping an individual building. You are mapping an entire city. You are mapping an entire landscape—and beyond.”

An estimated 99% of Carnuntum remains unexcavated, which means that our knowledge of its urban layout is almost entirely mediated by electromagnetic technology. This, of course, presents all sorts of questions—about data, machine error, interpretation, and more—that were explained to me on a third leg of that trip, when I traveled to Croatia to meet Lawrence B. Conyers.

[Image: A gorge leading away behind the archaeological site I visited on the island of Brač, Croatia; photo by Geoff Manaugh.]

Conyers is an American ground-penetrating radar expert who, when we met, was spending a couple of weeks out on the island of Brač, near the city of Split. He had traveled there to scan a hilltop site, looking for the radar signatures of architectural remains, in support of a project sponsored by the University of Colorado at Boulder.

Conyers supplies a voice of caution in the WIRED piece, advising against over-relying on expensive machines for large-scale data collection if the people hoarding that data don’t necessarily know how to filter or interpret it.

[Image: Lawrence Conyers supervises two grad students using his ground-penetrating radar gear; photo by Geoff Manaugh.]

The goal of an International Subsurface Exploration Agency could rise or fall, in other words, not just on questions of funding or public support, but on the limits of software analysis and human interpretation: are we sure that what we see on the screens of our machines is actually there, underground?

When we spoke in Siena, Campana used the metaphor of a medical biopsy, insisting that archaeologists and geophysicists will always need to excavate, not just for the recovery of historical artifacts and materials, but for verifying their own hypotheses, literally testing the ground for things they think they’ve seen there.

Archaeologist Eileen Ernenwein, co-editor of the journal Archaeological Prospection, also emphasized this to me when I interviewed her for WIRED, adding a personal anecdote that has stuck with me. During her graduate thesis research, Ernenwein explained, she found magnetic evidence of severely eroded house walls at an indigenous site in New Mexico, but, after excavating to study them, realized that the structure was only visible in the electromagnetic data. It was no less physically real for only being visible magnetically—yet excavation alone would have almost certainly have missed the site altogether. She called it “the invisible house.”

In any case, many things have drawn me to this material, but the long-term electromagnetic traces of our built environment get very little discussion in architectural circles, and I would love this sort of legacy to be more prominently considered. What’s more, our cultural obsession with ruins will likely soon begin to absorb new sorts of images—such as radar blurs and magnetic signatures of invisible buildings—signaling an art historical shift in our representation of the architectural past.

For now, check out the WIRED article, if you get a chance.

(Thanks again to the Graham Foundation for Advanced Studies in the Fine Arts for supporting this research. Related: Through This Building Shines The Cosmos.)

Lost Animals

I don’t normally link to my short stories here, but I’m proud of a new one called “Lost Animals” that went up earlier this week. It’s about a man hired by private clients to clear houses of ghosts, not using supernatural equipment but a baseball bat.

He’s been storming into abandoned homes, haunted offices, auto-repair yards, and even millionaires’ yachts all over the country, using aggression to overcome his own fears and maintain the upper hand.

The times ghosts truly scare me aren’t from the shock of a dead face staring up from the bottom of a basement staircase; I’m usually too drunk or high for that, too hyped up on aggression. I’ll simply charge at the thing, running after it into a root cellar or climbing a wooden ladder into an unlit barn attic to chase it away. The sights that genuinely unsettle me, that keep me awake at night, are the weird, demented loops I sometimes catch them in, the bleakness of a ghost’s new existence, the never-ending isolation of the afterlife, empty versions of ourselves stuck in routines that have lost all meaning.

After nearly two decades of this—scaring dead people out of their comfort zones—he experiences a slow change of attitude that affects his ability to do the job.

It’s only loosely architectural, but I thought I’d link it here anyway, as the story explores a wide range of spatial situations amenable to hauntings. Check it out, if you’re in the mood for an autumnal read at the height of summer.

[Photo in top image courtesy of U.S. Library of Congress.]

Through This Building Shines the Cosmos

[Image: Collage by BLDGBLOG of public domain images from NASA and the Library of Congress.]

An opportunity to explore the use of muons as a tool for architectural and archaeological imaging came up this summer while I was in Europe for my Graham Foundation project, “Invisible Cities.”

Muons are cosmic particles, similar to neutrinos, that pass through us constantly—but also through solid rock and concrete, through cathedrals, pyramids, dams, and roads. In the 1960s, physicist Luis W. Alvarez of UC Berkeley launched a whole new form of architectural imaging when he realized that, if you can capture muons as they leave various structures—in Alvarez’s case, the Pyramid of Khafre outside Cairo—then you can create an image of what they’ve just passed through.

This is now known as muography—muon photography. Muography, as I describe it in a new story published in this weekend’s Financial Times Magazine—my first cover story!—is “one part comic-book superpower, one part cosmic photography.”

Fast-forward to 2022, and muons are on the cusp of being adopted as a new tool for infrastructural inspection, allowing engineers to peer inside the supports of bridges and freeways, inside the concrete of hydroelectric dams and high-rise apartment blocks, even inside the thick, dense masonry of Renaissance cathedrals and ancient temples, looking for signs of corrosion, decay, and impending collapse.

For the Financial Times, I went to Berlin to meet an engineer leading Germany’s federal effort to test and certify muon-inspection technology, with the goal of turning an obscure physics experiment into a commercial tool. The lab I visited there was incredible, an industrial space lit by skylights in the city’s southwest suburbs, filled with massive concrete monoliths, each marked with Agnes Martin-like grids. These dense concrete slabs—modern obelisks—are used to test non-destructive imaging technologies. In the piece, I compare the lab to a Brutalist sculpture garden.

While German authorities (in this case, working with a physicist at the University of Glasgow) work to set standards and protocols for muography in the global marketplace, the most charismatic proof-of-concept for muons’ future use might come from Florence, Italy.

That’s where a muon detector will likely be installed later this year, imaging the walls of Brunelleschi’s famous dome. The cathedral there is a constantly settling, dynamic system—far from static—and the overwhelming weight of Brunelleschi’s dome has produced large cracks in the church walls below. Those cracks have been growing wider for centuries, leading to enough concern that the entire church is now enreefed with measuring devices—“giving it a solid claim as the world’s most carefully monitored structure,” as the New York Times wrote as long ago as 1987.

[Image: Looking up into Brunelleschi’s Dome, Florence; photo by Geoff Manaugh.]

Because Brunelleschi left behind no drawings or even textual descriptions of how his dome had been assembled, today’s engineers remain in the dark about how to reinforce it. With walls up to two meters thick, the masonry is too dense for traditional imaging methods, such as radar and ultrasound. But muons can easily pass through the entire cathedral; they are generated freely by natural reactions between cosmic rays and the Earth’s upper atmosphere; and they can be detected with a device that requires almost no electricity to run.

In any case, I’ve been obsessed with muons for more than a decade, so this was an absolute thrill to report. The Financial Times has a rigorous paywall, however, so it will be hard to read the piece without a subscription, but if you see a copy of the magazine kicking around at your local newsstand, grab a copy and dive into the cosmic future of large-scale architectural imaging.

[Thanks again to the Graham Foundation for Advanced Studies in the Fine Arts for funding this research. A great, but not widely known, book on Brunelleschi’s dome, with superb illustrations, is Brunelleschi’s Cupola by Giovanni Fanelli and Michele Fanelli.]

Cetacean Surroundsound

I was thinking about this whale song bunker idea the other week after reading about the potential for whale song to be used as a form of deep-sea seismic sensing. That original project—with no actual connection to the following news story—proposed using a derelict submarine surveillance station on the coast of Scotland as a site for eavesdropping on the songs of whales.

[Image: An otherwise unrelated image of whales, courtesy Public Domain Review.]

In a paper published in Science last month, researchers found that “fin whale songs can also be used as a seismic source for determining crustal structure. Fin whale vocalizations can be as loud as large ships and occur at frequencies useful for traveling through the ocean floor. These properties allow fin whale songs to be used for mapping out the density of ocean crust, a vital part of exploring the seafloor.”

The team noticed not only that these whale songs could be picked up on deep-sea seismometers, but that “the song recordings also contain signals reflected and refracted from crustal interfaces beneath the stations.” It could be a comic book: marine geologists teaming up with animal familiars to map undiscovered faults through tectonic sound recordings of the sea.

There’s something incredibly beautiful about the prospect of fin whales swimming around together through the darkness of the sea, following geological structures, perhaps clued in to emerging tectonic features—giant, immersive ambient soundscapes—playfully enjoying the distorted reflections of each other’s songs as they echo back off buried mineral forms in the mud below.

I’m reminded of seemingly prescient lyrics from Coil’s song “The Sea Priestess”: “I was woken three times in the night / and asked to watch whales listen for earthquakes in the sea / I had never seen such a strange sight before.”

Someday, perhaps, long after the pandemic has passed, we’ll gather together in derelict bunkers on the ocean shore to tune into the sounds of whales mapping submerged faults, a cross-species geological survey in which songs serve as seismic media.

Structural Audio

[Image: Photographer unknown; spotted via Medium.]

A design constraint I would sometimes use while teaching was to throw in an unexpected change to the project brief: this cluster of buildings you’re designing is now sponsored by Netflix, REI, Philips, etc. The point would be to think about how this might affect the resulting project—its streets designed as an open-air prototype of smart-lighting techniques, say, or an office campus now featuring climbing walls, artificial rivers, or small-group cinema projection booths. (In turn, the purpose of this was simply to remain flexible as one pushes ahead on a particular assignment.)

The prospect that always seemed one of the most interesting to me, though, was a company such as Dolby Laboratories: an audio services firm who might sponsor or commission an entire building or suburb, a new community somewhere designed for how it sounds. Six new houses pop up down the street from you next year and they’re a cross-platform collaboration not in high-end embedded speakers and such like, but in actual structural audio, like Joel Sanders’s Mix House scaled up.

For example, recall Nate Berg’s piece on the design history of roadside noise barriers. Although there is an almost Coen Brothers-like comical subplot to Berg’s story—as industries throughout Los Angeles, from homebuilders to classical music performers to Hollywood film studios, confronted the deafening and ever-growing roar of all the damn freeways being constructed everywhere, like some urban-scale act of self-inflicted hearing impairment, people screaming on telephones, What?!, no one sleeping at night, a city gone insane—the primary takeaway is simply that overwhelming sound sources inspire structural changes elsewhere. You build a freeway, in other words, then someone will build that freeway’s acoustic opposite, a shield or dampener.

In any case, it was thus interesting to read about what the New York Times calls “a pair of giant noise-canceling headphones for your apartment” designed by researchers in Singapore.

The system uses a microphone outside the window to detect the repeating sound waves of the offending noise source, which is registered by a computer controller. That in turn deciphers the proper wave frequency needed to neutralize the sound, which is transmitted to the array of speakers on the inside of the window frame.

The speakers then emit the proper “anti” waves, which cancel out the incoming waves, and there you have it: near blissful silence.

If you read the full New York Times piece, it seems clear that the system currently has several drawbacks: it is visually ungainly, for example, it cannot counter human voices, and it still lets in a lot of sound.

Nevertheless, the idea of a new building, town, or entire city offering its residents sonic amenities beyond just Bang & Olufsen speakers or similar seems long overdue. For that matter, combine luxury frequency-reduction techniques with seismic wave-mitigation and perhaps you’ve just designed the future of architecture in global earthquake zones. At the very least, someone’s living room will sound better at night.

Spaces Unknown By Other Means

After tweeting a link to a recent story about a Connecticut man who fell through a patch of weak floorboards into a previously unknown well hidden beneath the house, someone replied with the story, above.

I’m always a fan of undiscovered architectural spaces coming to light in a mysterious manner—whether that be through secret passages, old floorplans, forgotten maps, trapdoors, or even dreams—but this suggests a new method, of deducing from the state of one’s own moldy clothing that there might be hidden rooms nearby, wells and cellars unknown to you by other means. Architectural detection garments.

Body Sonic / Coronavirus Surroundsound

[Image: A shot of “Carl Craig: Party/After-Party” (2020), by Don Stahl, via Artforum.]

There’s a great moment in a recent article by Jace Clayton, who reviews an installation by DJ and musician Carl Craig for Artforum, where Clayton talks about music’s relationship to empty space.

There is something of “a sonic axiom,” Clayton writes: “Amplified music sounds terrible in empty rooms. The less stuff there is in any given space, the more sound waves will bounce around the walls and ceiling and glass, losing definition as they both interrupt and double themselves. The resulting audio is smeary, muffled, and diffuse. However, when the same space fills with bodies moving around, those waves are absorbed, dampening those irksome reflections and allowing us to hear the sound more powerfully and in far greater detail.”

The effect is such that “the only thing that could make [music] sound better is people.” Bodies make music better—a second sonic axiom, as well as an optimist’s call for more social listening. In other words, your music will sound better the more people you experience it with. Hang out with others. Be bodies. Share.

In any case, Clayton’s piece went online a couple weeks ago but I find myself thinking about it almost daily, as the acoustic effects of the coronavirus lockdown become clear in cities around the world.

“As the pandemic brought much of the crush of daily life to a halt,” the New York Times reported, “microphones listening to cities around the world have captured human-made environments suddenly stripped of human sounds.” To put this in Clayton’s terms, cities are now spaces without bodies.

Think, for example, of Francesca Marciano describing “the new silences of Rome” in an age of coronavirus, or the New York Times itself pointing out how, in Manhattan, “the usual chaos of sounds—car horns, idle chatter and the rumble of subways passing frequently below—[has] been replaced by the low hum of wind and birds. Sound levels there fell by about five decibels, enough to make daytime sound more like a quiet night.”

There is an interesting paradox at work here, though, in terms of a widely reported belief that birds appear to be singing louder than ever before: birds are actually quieting down now, as they have less competition to out-sing. As the NYT writes, this is “because they no longer have to sing louder to be heard over the racket of the city, a behavior, known as the Lombard effect, that has been observed in other animals, too.”

[Image: Gowanus, Brooklyn; photograph by Geoff Manaugh.]

I’ve written at length about sound and the city elsewhere, but one of my favorite pieces on this was a short profile of acoustic engineer Neill Woodger, then-head of Arup’s SoundLab, published in Dwell way back in June 2008.

There, Woodger made the point that, as we transition to electric vehicles, which will remove the sound of the internal combustion engine from our cities, we are being given a seemingly once-in-a-lifetime acoustic opportunity: to redesign urban space for sound, highlighting noises we might want to hear—birdsong, bells, distant train whistles—and helping to excise those we do not.

The coronavirus, it seems, has inadvertently set the stage for another such sonic opportunity. Our global urban lockdowns have all but stripped our cities of “bodies moving around,” in Clayton’s words, such that our streets now sound quite eerie, as if replaced by uncanny muted versions of themselves, or what Marciano calls “an atmosphere of peaceful suspension, as when it snows and everything is wrapped in cotton wool.”

Much has been made of how temporary design interventions in response to COVID-19—things like wider sidewalks, outdoor cafes, streets liberated from cars and opened up to children, families, and the elderly—might become permanent.

In this context, what permanent acoustic shifts might we hear coming from all this, as well?

(Consider picking up a copy of Jace Clayton’s book, Uproot: Travels in 21st-Century Music and Digital Culture.)

The Glacial Gothic, or the Cathedral as an “Avalanche on Pause”

[Image: Diagram from The Stones of Venice by John Ruskin.]

There are at least two interesting moments in John Ruskin’s book The Stones of Venice.

One is his description of buttresses.

Buttresses, Ruskin writes, are structures against pressure: a cathedral’s walls want to fall outward, for example, pushed aside by the relentless weight of the roof. But this gravitational pressure can be stabilized by an exoskeleton: a sequence of buttresses that will prevent those walls from collapsing outward.

However, Ruskin points out, there is a similar kind of pressure from the waves of the sea. Think of the curved hull of a ship, he writes, which is internally buttressed against the “crushing force” of the ocean around it. It is a kind of inside-out cathedral.

Consider other high-pressure environments where architecture can thrive—resting in the benthic abyss or twirling through the vacuum of outer space, where offworld stations rotate and spin through exotic gravitational scenarios—and you’ve perhaps envisioned what John Ruskin would be writing about today. Ship-buildings, buttressed against the void.

In any case, for Ruskin, buttresses perform a kind of gravitational judo: he describes “buttresses of peculiar forms, cunning buttresses, which do not attempt to sustain the weight, but parry it, and throw it off in directions clear of the wall.” They shed the load, so to speak, flipping it elsewhere, as if taking advantage of an opponent’s slow and graceless momentum.

…as science advances, the weight to be borne is designedly and decisively thrown upon certain points; the direction and degree of the forces which are then received are exactly calculated, and met by conducting buttresses of the smallest possible dimensions; themselves, in their turn, supported by vertical buttresses acting by weight, and these perhaps, in their turn, by another set of conducting buttresses: so that, in the best examples of such arrangements, the weight to be borne may be considered as the shock of an electric fluid, which, by a hundred different rods and channels, is divided and carried away into the ground.

It’s buttresses buttressing buttresses—or buttresses all the way down.

Ruskin reminds his readers, however, that a buttress’s function can even be seen outdoors, where he specifically cites Swiss landscape defenses. There, Ruskin writes, horizontal buttresses like defensive walls “are often built round churches, heading up hill, to divide and throw off the avalanches.” Again, it’s a question of parrying an oppositional force, deflecting it elsewhere.

[Image: “Profile of a buttress with vertical internal line, when the line of thrust coincides with the axis of the buttress,” taken from a paper called “Milankovitch’s Theorie der Druckkurven: Good mechanics for masonry architecture” by Federico Foce, in Nexus Network Journal.]

From an architectural point of view, you might say that a landscape is stationary until it buckles, shudders, or moves, becoming oceanic, heaving like the sea.

Or, to be pretentious and quote myself from an op-ed in the New York Times, “the ground itself is a kind of ocean in waiting. We might say that [the Earth] is a marine landscape, not a terrestrial one, a slow ocean buffeted by underground waves occasionally strong enough to flatten whole cities. We do not, in fact, live on solid ground: We are mariners, rolling on the peaks and troughs of a planet we’re still learning to navigate. This is both deeply vertiginous and oddly invigorating.”

For Ruskin, the buttress is an architectural technology—a spatial tool—that can be built to anticipate this act of marine transformation, a device that can prepare our buildings and cities to resist violent events in the landscape they are built upon.

With this in mind, it’s worth recalling a recent experiment that showed buildings can be partially shielded from the effects of earthquakes. An “invisibility cloak,” as researchers somewhat hyperbolically described it back in 2013, would use a “regular grid of cylindrical and empty boreholes” drilled into the earth to absorb and deflect seismic waves and thus protect certain structures from damage.

They would “parry it,” as Ruskin once wrote, “and throw it off in directions clear” of the city. In Ruskin’s terms, in other words, they would be buttresses: empty void-silos in the earth that nevertheless function like the exoskeletal cage of a cathedral or the internal ribs of a ship at sea.

[Image: Glacial logics diagrammed in The Stones of Venice by John Ruskin.]

The second interesting thing from The Stones of Venice—among many others, to be sure, but I will only focus on two here—is that, amazingly, for a book published back in 1853, Ruskin scales his analysis up to the point of suggesting that glaciers should be considered as complex architectural objects.

Ruskin describes “a curve about three quarters of a mile long,” for example, “formed by the surface of a small glacier of the second order.” This curve, he writes, is “the most beautiful simple curve I have ever seen in my life.” So, he wonders, how could it be applied to architecture? How could we learn from glaciers?

At this point, Ruskin draws a diagram—the one I’ve scanned, above—to highlight a variety of nested curves that he believes are hiding inside a particular glacier. These are organizational systems that extend for many miles at a time through the ice and that allegedly entail geometric lessons for architects.

The idea here—that Ruskin was trying to extract architectural lessons from glaciers nearly two centuries ago—is incredible to me.

After all, if the Gothic is an architectural language that, as writers such as Lars Spuybroek have compellingly shown, draws from the natural vocabulary of leaves, plants, tree roots, and so on, then this means that Ruskin is suggesting—in 1853!—a kind of Glacial Gothic, an architectural lesson drawn from continent-spanning masses of ice.

[Image: “A Crack in an Antarctic Ice Shelf Is 8 Miles From Creating an Iceberg the Size of Delaware”; image via Ohio State University.]

I’m reminded of an old t-shirt produced by the band Godflesh that described their music as an “Avalanche On Pause.”

This is a very Ruskinian description, we might say in the present context.

An avalanche on pause brings together Ruskin’s interests in landscape-scale structural events—such as glaciers and landslides—with his attention to the mechanics of cathedrals built to resist such imposing pressures. To freeze them in place. To press pause.

(Thanks to Marc Weidenbaum for reminding me of that Godflesh shirt many years ago.)

The “So-called Tower of Babel”

[Image: The “so-called Tower of Babel,” photographed in 1932; courtesy Library of Congress.]

I posted these on social media the other day, but I thought I’d include them here simply because of how much I love the casually jaw-dropping caption used for these over at the Library of Congress. This eerie pile of bricks looming over the desert, photographed back in 1932?

It’s nothing other than “Possibly the Tower of Babel,” or the “So-called Tower of Babel.” No biggie.

[Images: “Possibly the Tower of Babel” photographed in 1932; courtesy Library of Congress.]

As novelist Paul M.M. Cooper responded on Twitter, the site is still extent today. Iraqi-Dutch filmmaker Mohamed Al-Daradji, Cooper wrote, “used it as a backdrop for a memorable scene in his movie Son of Babylon.”

Here it is on Google Maps.

[Image: The “so-called Tower of Babel,” photographed in 1932; courtesy Library of Congress.]

The Library of Congress also refers to the site as an “extinct city,” which is a fabulous phrase, complete with its own “Watchman of the Ruins,” only adding to the mythic weight of the place.

[Image: “Possibly the Tower of Babel,” photographed in 1932; courtesy Library of Congress.]

Even better, I now have an excuse to post some paintings of the Tower of Babel, as seen through the lens of European art history…

[Image: “The Tower of Babel” (1595) by Abel Grimmer, via Wikimedia Commons.]

[Image: “The Tower of Babel” (1563) by Pieter Bruegel the Elder, via Fine Art America.]

Check out several more photos—including a later, color version—over at the Library of Congress.

Building Digital with Timber, Mud, and Ice

[Image: From a project called “Slice” by HANNAH, as featured in FABRICATE 2020.]

The Bartlett School of Architecture recently put out two new books, freely available for download, FABRICATE 2020 and Design Transactions. Check them both out, as each is filled with incredibly interesting and innovative work.

Purely in the interests of time—by all means, download the books and dive in—I’ll focus on three projects rethinking the use of wood, clay, and ice, respectively, alongside new kinds of concrete formwork and 3D printing.

[Image: From “Slice” by HANNAH, as featured in FABRICATE 2020.]

For a project called “Slice,” Sasa Zivkovic and Leslie Lok of design firm HANNAH and Cornell University explore the use of “waste wood” killed by Emerald Ash Borer infestation.

[Image: From “Slice” by HANNAH, as featured in FABRICATE 2020.]

“Mature ash trees with irregular geometries present an enormous untapped material resource. Through high-precision 3D scanning and robotic fabrication on a custom platform, this project aims to demonstrate that such trees constitute a valuable resource and present architectural opportunities,” they explain.

[Images: From “Slice” by HANNAH, as featured in FABRICATE 2020.]

They continue on their website: “No longer bound to the paradigm of industrial standardization, this project revisits bygone wood craft and design based on organic, found and living materials. Robotic bandsaw cutting is paired with high-precision 3D scanning to slice bent logs from ash trees that are infested by the Emerald Ash Borer.”

I’m reminded of a point made by my wife, Nicola Twilley, in an article for The New Yorker last year about fighting wildfires in California. At one point, she describes attempts “to imagine the outlines of a timber industry built around small trees, rather than the big trees that lumber companies love but the forest can’t spare. In Europe, small-diameter wood is commonly compressed into an engineered product called cross-laminated timber, which is strong enough to be used in multistory structures.”

Seeing HANNAH’s work, it seems that perhaps another way to unlock the potential of small-diameter wood is through robotic bandsaw slicing.

[Image: From “Mud Frontiers” by Emerging Objects, as featured in FABRICATE 2020.]

For their project “Mud Frontiers,” Ronald Rael and Virginia San Fratello use 3D printing and “traditional materials (clay, water, and wheat straw), to push the boundaries of sustainable and ecological construction in a two phase project that explores traditional clay craft at the scale of architecture and pottery.”

[Image: From “Mud Frontiers” by Emerging Objects.]

“To do this,” they explain on their website, “we stepped out of the gallery and into the natural environment by constructing a low-cost, and portable robot, designed to be carried into a site where local soils could be harvested and used immediately to 3D print large scale structures.”

[Image: From “Mud Frontiers” by Emerging Objects.]

Finally—and, again, I would recommend just downloading the books and spending time with each, as I am barely scratching the surface here—we have a very cool project looking at “ice formwork” for concrete, developed by Vasily Sitnikov at the KTH Royal Institute of Technology in Stockholm.

[Image: Ice formwork for casting concrete, developed by Vasily Sitnikov, as featured in Design Transactions.]

Sitnikov’s method was initially devised as a way to save energy during the concrete-casting and construction process, but quickly revealed its own aesthetic and structural implications: “The variety of programmable functions for ice formwork is vast,” he writes, “across environmental design, programmable lighting conditions, acoustics, ventilation, insulation and structural-design weight-saving applications.”

[Image: Ice formwork for casting concrete, developed by Vasily Sitnikov.]

He has found, for example, that “spatial patterns… can be imposed on concrete, abandoning any use of petrochemicals in the fabrication process. Breaking away from the ‘solid’ image of conventional concrete, the technique of using ice as the formwork material enables the production of mesoscale spatial structures in concrete which would be impossible to manufacture with existing formwork materials.”

[Image: Ice formwork for casting concrete, developed by Vasily Sitnikov.]

Weaving, carving, cutting, molding: the two new Bartlett books have much, much more, including voluminous detail about each of the projects mentioned briefly above, so click on through and go wild: Design Transactions and FABRICATE 2020.