Year: 2019

Design Futures, Sacred Groves

[Image: From Growing A Hidden Architecture by Christian Kerrigan].

[Nearly a decade ago, I wrote a series of blog posts as part of a Fellowship at the Canadian Centre for Architecture. Those posts appear to be falling into an internet memory hole, so I thought I’d reproduce lightly edited versions of some of them here, simply for posterity.]

Toward the end of 2009, the journal Studies in the History of Gardens & Designed Landscapes published an interesting paper by garden historian Patrick Bowe, called “The Sacred Groves of Ancient Greece.”

Specialized landscapes animated by very particular forms of cultural use, sacred groves “held a significant place in ancient Greek life over ten centuries,” Bowe writes. Indeed, “They formed significant landmarks in the landscape, both urban and rural.”

Geographers described them. Poets evoked them. Philosophers discussed them. In them, natural woodland was conserved and new wood planted, primarily for religious, but also for recreational, purposes. Architectural and sculptural elements were disposed. Prominent natural features were highlighted. Some individual trees, being considered sacred, were also conserved. In these various activities, the beginnings of the Western tradition of designed landscapes can be found.

Bowe’s ensuing history of sacred groves describes these “ritual zones” of the forest in terms of “the physical aspects of sacred groves, their location and size, the different kinds of trees of which they were composed, the architectural and sculptural elements that were installed in them and the adaptation for use of some of the natural features located in them.”

This has the effect, he notes, of filling a noticeable hole in historical scholarship: “No detailed description of a sacred grove survives from ancient Greek literature. However, a compilation of the many passing and diverse references in the literature, dating from the eighth century BC”—by which Bowe means Homer—“to the second century AD”—by which he means Pausanias—“may provide us with a composite picture.”

Somewhat obviously, sacred groves don’t leave much to see in the archaeological record—”archaeological evidence is sparse,” Bowe writes with understatement—as their vegetation dies, rots, spreads, or is deliberately torn up and replaced over time (all of the above, in fact, often erase Greek sacred groves from the terrestrial record).

Landscape historians are thus left searching for other sources of information about the ancient world’s enigmatic sacred land-use patterns. Interestingly, these sources include poems and even coinage—archaeology by way of numismatics. Bowe writes that “the evidence of contemporary coins” implies what these groves might have looked like, these coins’ obverse images depicting “boundary walls and entrances,” gates and artificially arranged stone features, as certain groves were shown in miniature on the backs of these moneyed pieces.

The very idea that money might serve as a useful object of study in an art historical survey of lost landscapes is inspiringly unexpected. A visual history of landscape told entirely through coins!

In any case, Bowe assembles a list of tree species most often associated with these sacred sites, including cypress, poplar, olive, oak, cedar, willow, plane, ash, apple, pine, and even palm trees. These groves were quite varied locations, botanically speaking, and they consisted of both wild and cultivated varieties of the trees at hand.

It simply wasn’t the case that a sacred grove had to be one particular type of tree, or that it had to be wild; the sacred qualities came from how the grove was treated, used, interpreted, and even deliberately rebuilt. In the latter case, adding small architectural features, including fences and gates, or even statuettes to the grove were ways of making sacred what in other circumstances might have been a mere garden.

While Bowe’s literary-numismatic archaeology of sacred groves is already fascinating, I found myself wondering what sorts of uniquely specific groves or small forests of our own time might be seen, even if only millennia from now, as “sacred” in some way or another. The “sacred grove,” seen in this light, would really be a kind of specialized forestry service, and thus something interpretatively present in a variety of surprising sites.

After all, it is distinctly possible that a landscape now retroactively seen as sacred might not have been anything of the sort; perhaps it was simply being grown for timber; perhaps it was the subject of a property dispute; perhaps it was over-run with insects for a decade or two and thus left untouched. It should always be assumed, in other words, that ancient sites we jump to call “sacred” might actually have been utterly mundane.

Accordingly, I’ve put together a short, entirely subjective, and by no means anywhere near exhaustive list of a few speculative landscape design proposals and real-life forestry sites that strike me as particularly worthy of consideration in the context of the ancient Greek sacred grove. If, in some future catalog of lost landscapes, one of the following sites was to be listed alongside the sacred groves of a forgotten civilization, how might that transform our understanding of their intended spatial role?

Consider this list nothing more than a brief conversation-starter.

The Shapely Grove

[Image: From “Atree?” by the Bureau of Architecture, Research, and Design (BOARD)].

Rotterdam-based design firm Bureau of Architecture, Research, and Design (BOARD) recently proposed a grove of twisted and looping arboreal forms called “Atree?”

[Image: From “Atree?” by the Bureau of Architecture, Research, and Design (BOARD)].

“Imagine a project that does not need to be constructed,” they write, “because—being a tree—it grows by itself.”

Such a project only needs to be planted. Therefore the transportation of the materials for such a project is very energy efficient, because as a matter of fact, no major transportation of materials is actually necessary. The only materials to be transported are the seeds for planting. And the only energy spent is to prevent hastiness and impetuousness as such a project needs a lot of time and patience to grow.

Using clip-on bioplastic molds that “can easily be transported by bike to the site and fixed simply to the trees,” along with “a fast growing willow that reaches a height of more than two meters in only one year,” BOARD’s roller coaster of a grove would put even Axel Erlandson’s so-called tree circus to shame.

[Image: From “Atree?” by the Bureau of Architecture, Research, and Design (BOARD)].

Are these formal manipulations of a traditional thicket nothing more than stylistic play—mere ornamental tweaking—or do they reveal something more fundamental about how we can relate to the growth and tending of global forests?

Further, could a grove of deliberately misshapen trees—that is, trees that have been formally remade—be archaeologically mistaken for a place of religious significance? If so, what beliefs might we assume were being celebrated in these carnivalesque examples of what Bowe would call “ritual zones”—and who might we think had constructed them? Perhaps a strange race of druidic geometers once turned their forests into prayers and diagrams.

The Moon Trees of Apollo
One of the strangest entries on this list is also very real: the so-called Moon Trees are a distributed forest of redwood, sycamore, loblolly pine, sweetgum, and douglas fir saplings grown from seeds that were taken to the moon and back as part of the Apollo space program.

Apollo 14 launched in the late afternoon of January 31, 1971 on what was to be our third trip to the lunar surface. Five days later Alan Shepard and Edgar Mitchell walked on the Moon while Stuart Roosa, a former U.S. Forest Service smoke jumper, orbited above in the command module. Packed in small containers in Roosa’s personal kit were hundreds of tree seeds, part of a joint NASA/USFS project. Upon return to Earth, the seeds were germinated by the Forest Service. Known as the “Moon Trees,” the resulting seedlings were planted throughout the United States (often as part of the nation’s bicentennial in 1976) and the world. They stand as a tribute to astronaut Roosa and the Apollo program.

Fantastically, grafts and seeds from the original Moon Trees have since been planted elsewhere, producing second-generation Moon Trees that grow freely in private backyards, public parks, and open forests around the planet.

Compare Moon Trees to the space seed program run by the Chinese government, “a mission that will expose 2000 seeds to cosmic radiation and microgravity.” These cosmically exposed seeds have since been planted here on earth, in the hope of producing a slightly ominous-sounding batch of “super-crops.”

But what about a super-forest—cosmically exposed Moon Trees grown on a continental scale, in a vast sacred grove shaped by radiation from deep space?

The Duplicative Forest

[Image: The Duplicative Forest—17,000 acres of identical trees—courtesy of Atlas Obscura].

I have written elsewhere about a place in Oregon called the duplicative forest, but it seems worth mentioning again in the present context. The “duplicative forest” is a 17,000-acre farm whose poplar trees are “all the same height and thickness,” we read courtesy of Atlas Obscura, as well as “evenly spaced in all directions. The effect is compounded when blasting by at 75 mph. If you look for too long the strobe effect may induce seizures.”

The discovery of an optically mesmerizing forest landscape, one with potential neurological effects on its visitors, and one that was very clearly planted according to an artificial geometric plan, will perhaps not instantly seem like a tree farm several hundred years from now; until its actual quotidian purpose is deduced, the duplicative-forest-as-sacred-grove would be a wonderfully odd thing to ponder.

Jaguar Wood
In England, the car company Jaguar has planted a forest of walnut trees, partially to offset its harvesting needs for the fine wood used in its cars’ interiors. As Jaguar themselves describe the specialty landscape:

The Jaguar Walnut Wood is located at Lount in the heart of Leicestershire, less than 50km from Jaguar’s UK HQ. It was first planted on former farmland in 2001, but there are now more than 13,000 walnut trees and 70,000 other trees in a scenic 80-hectare woodland. Within it is a 27-hectare experimental zone researching the growth of different varieties of walnut tree for use as a hardwood timber and as a source of nuts.

The mathematical logic of an “offset” landscape—something planted or maintained in one location in order to make up for the loss or insufficient quantity of something elsewhere, forming an economic chain of surrogacy and doubling—is already quite fascinating, but a forest specially cultivated by an automotive firm adds an interesting touch.

While wood from these groves does not actually make it into Jaguar cars, the “experimental zone” inside the forest might seem rather regal—or perhaps simply surreal—to anyone stumbling upon records of it in a thousand years’ time.

And who knows: perhaps we might even someday discover that a small grove of walnut trees growing on a hill in upstate New York, on a distant tributary of the Hudson, was actually planted for no other reason than to panel the interior walls of a specific skyscraper in 1950s Manhattan, a grove now derelict and teeming with weeds, its original purpose gone, the rooms it was once meant to panel now themselves long dismantled; or an entire forest somewhere north of Athens, Greece, originally planted to serve as wood stock for a Mediterranean fleet, its trunks and branches grown only for hulling warships, now lies abandoned, bearing no historical trace of that earlier purpose.

How do we account for these missing histories of specialty groves in our sense of landscape mythology?

Her Majesty’s Shipbuilding Forest
The New Forest in England was, in fact, once extensively used and harvested for the purpose of Royal shipbuilding. From the period 1685 to 1875, “timber requirements of the Navy dominate[d] the Forest,” we read in a short history of the landscape. There are even now remnant groves left over from those ship-planting days:

Admiral Nelson, ever mindful of the needs of shipbuilding, visited in 1802 and declared the “finest timber in the kingdom” had sunk to a deplorable state! So, 30 million acorns were planted across 11,000 acres. But before the oaks were half grown, they were redundant, replaced by iron and steel in the shipbuilders’ yards. Thanks to Nelson, however, the forest now contains the country’s largest area of mature oak.

In other words, scattered across an area of nearly 11,000 acres are trees that never became ships—escaping that fate in which whole forests would go to war at sea, their wood sailing into battle in the form of imperial fleets.

We might ask, then: Could a sacred grove be something in which future ships are deliberately cultivated? For me, the most interesting aspect of that question would be the idea that, hovering negatively like a ghost around a forest’s growing branches, are the devices, ships, buildings, and machines that those forests are meant to become—like wooden Transformers, whole groves will unlock their roots from shattered bedrock, clip together in filigrees of undergrowth, and assemble into some vast and fearsome battleship, which then floats out with a monstrous roar into the wine-dark sea.

Growing a Hidden Architecture

[Image: From Growing A Hidden Architecture by Christian Kerrigan].

As it happens, this very idea was the premise of a fascinating graduate student project at the Bartlett School of Architecture in London several years ago.

[Image: From Growing A Hidden Architecture by Christian Kerrigan].

For Growing A Hidden Architecture, Christian Kerrigan proposed an awe-inspiring series of contraptions—collars, tourniquets, hinges, corsets, and belts—that could be attached to still-growing trees, bending and shaping their growth into a functioning, sea-ready ship.

[Images: From Growing A Hidden Architecture by Christian Kerrigan].

“By controlling the manipulation of refined armatures, calibrating devices and designed corsets,” Kerrigan writes, “the system is capable of controlling the growth of a ship inside the forest. The ship will grow over a period of 200 years and will exist as a hidden architecture inside the trees. The ship growing in the forest is the ship from the ‘Rime of the Ancient Mariner,’ a tale of man’s relationship to mortality.”

[Image: From Growing A Hidden Architecture by Christian Kerrigan].

In a particularly awesome detail, “the artificial system harvests resin from the trees to measure time passing”:

Slowly growing to completion, the end of the system within the forest is signalled by the Amber Clock, the resin cycles in the trees keeping time. The armatures alter the geometries of the copse with technologies, which are spliced into the hull of the ship.

Kerrigan’s vision of a ship self-assembling through carefully restricted tree growth—and the architectural implications of such a technique—is both astonishing and powerful.

[Image: From Growing A Hidden Architecture by Christian Kerrigan].

The entirety of his project is worth exploring in full.

The Grove as Growth Assembly

[Image: From Growth Assembly by Sascha Pohflepp, Alexandra Daisy Ginsberg and Sion Ap Tomos].

Rounding out this short list of possible “sacred groves” is a project by Sascha Pohflepp, Alexandra Daisy Ginsberg and illustrator Sion Ap Tomos that explored a similar idea to Kerrigan’s.

[Image: From Growth Assembly by Sascha Pohflepp, Alexandra Daisy Ginsberg and Sion Ap Tomos].

Called Growth Assembly, their project included the added splash of gene-splicing: the trio proposed a grove of genetically modified trees that could sprout machine-parts instead of fruit.

Pohflepp writes: “Coded into the DNA of a plant, product parts grow within the supporting system of the plant’s structure. When fully developed, they are stripped like a walnut from its shell or corn from its husk, ready for assembly.”

[Image: From Growth Assembly by Sascha Pohflepp, Alexandra Daisy Ginsberg and Sion Ap Tomos].

This genetic revolution in plant-based manufacturing—wherein the gears used in your car’s engine might actually be the hard fruit of modified trees—would have a corresponding effect on the world’s economic landscape:

Shops have evolved into factory farms as licensed products are grown where sold. Large items take time to grow and are more expensive while small ones are more affordable. The postal service delivers lightweight seed-packets for domestic manufacturers.

Like some Industrial Age “Jack and the Beanstalk,” you simply plant a few seeds and watch as vast, living factories soon grow.

[Image: From Growth Assembly by Sascha Pohflepp, Alexandra Daisy Ginsberg and Sion Ap Tomos].

So, with these projects in mind, and having read Bowe’s essay, what other unexpected forest landscapes might we suggest as viable candidates for inclusion in a broadened definition of the sacred grove—a new kind of sacred sci-fi, with mutated trees and fruitful juxtapositions? What is the design future of the sacred grove?

Geofencing and Investigatory Datasheds

There’s a lot to write about “geofencing” as a law enforcement practice, but, for now, I’ll just link to this piece in the New York Times about the use of device-tracking in criminal investigations.

There, we read about something called Sensorvault: “Sensorvault, according to Google employees, includes detailed location records involving at least hundreds of millions of devices worldwide and dating back nearly a decade.”

To access Sensorvault, members of law enforcement can use a “geofence warrant.” This is a hybrid digital/geographic search warrant that will “specify an area and a time period” for which “Google gathers information from Sensorvault about the devices that were there. It labels them with anonymous ID numbers, and detectives look at locations and movement patterns to see if any appear relevant to the crime. Once they narrow the field to a few devices they think belong to suspects or witnesses, Google reveals the users’ names and other information.”

In other words, you can isolate a specific private yard, public park, city street, or even several residential blocks during a particular period of time, then—with the right warrant—every device found within or crossing through that window can be revealed.

To a certain extent, the notion of a “crime scene” has thus been digitally expanded, taking on a kind of data shadow, as someone simply driving down a street or sitting in a park one day with their phone out is now within the official dataprint of an investigation. Or perhaps datashed—as in watershed—is a better metaphor.

But this, of course, is where things get strange, from both a political and a narrative point of view. Political, because why not just issue a permanent, standing geofence warrant for certain parts of the city in order to track entire targeted populations, whether they’re a demographic group or members of a political opposition? And narrative, because how does this change what it means to witness something, to overhear something, to be privy to something, to be an accomplice or unwilling participant? And is it you or your device that will be able to recount what really occurred?

From a narrative point of view, in other words, anyone whose phone was within the datashed of an event becomes a witness or participant, a character, someone who an author—let alone an authority—now needs to track.

(For more thoughts on witnessing, narrative, and authors/authorities, I wrote a piece for The Atlantic last year that might be of interest.)

Fieldworks

[Image: Via Space Saloon].

For the second year in a row, Space Saloon’s Fieldworks program will take place out in the Morongo Valley, in the California desert near both the San Andreas Fault and Joshua Tree National Park.

Fieldworks bills itself as an “experimental design-build festival,” hosted by a “traveling group that investigates perceptions of place.” The program includes guest lectures, hands-on workshops in digital site-documentation, charrettes, and an eventual build-out of a few pavilion-like proposals.

[Image: Via Space Saloon].

You can read more at the Fieldworks website, including this useful FAQ, but it looks like a great opportunity to get your hands dirty in an extraordinary landscape only two hours or so outside Los Angeles.

Click through for the registration page.

After the Clouds

[Image: A cloudless day in the Alabama Hills of California; photo by BLDGBLOG].

The Earth could lose all its clouds according to a feasible runaway greenhouse scenario, modeled by scientists at Caltech.

“Clouds currently cover about two-thirds of the planet at any moment,” Natalie Wolchover writes for Quanta. “But computer simulations of clouds have begun to suggest that as the Earth warms, clouds become scarcer. With fewer white surfaces reflecting sunlight back to space, the Earth gets even warmer, leading to more cloud loss. This feedback loop causes warming to spiral out of control.”

Or, she warns, as if channeling J. G. Ballard’s novel The Drowned World, “think of crocodiles swimming in the Arctic.”

Technology, Prehistory, Humanity

[Image: Still from 2001].

For those of you in the Bay Area, the Berkeley Center for New Media is hosting an event on April 3rd that sounds worth checking out. “The Human Computer in the Stone Age: Technology, Prehistory, and the Redefinition of the Human after World War II” is a talk by historian Stefanos Geroulanos. From the event description:

After World War II, new concepts and metaphors of technology helped transform the understanding of human history all the way back to the australopithecines. Using concepts from cybernetics and information theory as much as from ethnology and osteology, scientists and philosophers reorganized the fossil record using a truly global array of fossils, and in the process fundamentally re-conceptualized deep time, nature, and the assemblage that is humanity itself. This paper examines three ways in which technological prehistory, that most distant, speculative, and often just weird field, came to reorganize the ways European and American thinkers and a lay public thought about themselves, their origins, and their future.

This obviously brings to mind the early work of Bernard Stiegler, whose Technics and Time, 1 remains both difficult and worth the read.

In any case, if you happen to attend, let me know how it goes.

(In the unlikely event that you share my taste in electronic music, you might choose to prepare for this lecture by listening to Legowelt’s otherwise unrelated track, “Neolithic Computer.”)

Metropolitan Accomplice

[Image: Photo by Jonas Roosens/AFP/Getty Images, courtesy of the Guardian].

You might have seen the news that a crew of burglars used sewer tunnels beneath the diamond district in Antwerp, Belgium, to break into a nearby bank vault.

“Detectives in Antwerp are searching for clues in a sewage pipe under the Belgian city’s diamond quarter after burglars apparently crawled through it to break into a bank holding safe deposit boxes full of jewels,” the Guardian reported.

The heist allegedly began across the street, in a separate building, where they dug into the sewer network; one of the city’s many subterranean pipes led close enough to the bank that the crew could then tunnel just a few more meters to make entrance.

A couple of details stand out. For example, the police apparently had to hang back long enough to take gas measurements above the newly opened sewer tunnel, fearing either that the air quality would be so bad that they could risk asphyxiation or that the sewer emanations themselves might be explosive.

Either way, this suggests a possible strategic move by future burglars, who night now know that police—or, at the very least, police not equipped with gas masks—will be delayed due to chemical concerns. Infrastructural off-gassing could become a kind of criminal camouflage.

The other detail is simply that, when the police began investigating the crime, “The first the residents of the central Antwerp district knew of the incident was when police raised all the manhole covers running down the centre of Nerviërsstraat,” the Guardian reported. This otherwise inexplicable sight—law enforcement officers suddenly raising the lid on the city’s underworld—was actually part of a forensic investigation.

I’ve already written at length about tunnel jobs used in bank heists—including a still-unsolved crime from Los Angeles, back in the 1980s—in my book, A Burglar’s Guide to the City, so I will defer to that book in terms of addressing specific aspects of underground crime. In fact, I would perhaps even more specifically recommend the book Flawless by Scott Selby and Greg Campbell, about another, massive heist in Antwerp’s diamond district pulled off in 2003.

[Images: Sewer maps and diagrams are now freely available online; the ones seen here are from Los Angeles and detail the same neighborhood in which a 1986 bank heist occurred, where the bandits tunneled into a vault using the city’s stormwater network. Read more in A Burglar’s Guide to the City or in retired FBI agent Bill Rehder’s absurdly enjoyable memoir, Where The Money Is].

Instead, what seems worth commenting on here is simply the very nature of urban infrastructure and the ease with which it can be repurposed for designing, planning, and committing crimes. The city itself can be an accomplice in acts entirely unrelated to the infrastructure in question. A freeway route enables a bank-heist getaway, a sewer tunnel offers jewel thieves a subterranean method of entry, a specific intersection’s geometric complexity means that carjackings are more likely to occur there: the city is filled with silent accomplices to future criminal activity, activities and events unforeseen by most city planners.

Will this intersection lead to more carjackings? is unlikely to be high on the list of questions posed by community feedback, yet it’s exactly that sort of tactical thinking that might allow designers to stay one step ahead of the criminals who seek to abuse those same designers’ finished projects.

(Thanks to Nicola Twilley for the tip!)

Architecture of the In-Between

“The city owns some of the narrowest, most unusual lots in New York,” we read, but these odd lots might soon host affordable housing. A new competition called Big Ideas for Small Lots NYC is looking for architectural proposals for how these awkwardly sized spaces might be used.

Although these overlooked lots exist all over New York—“The city became the owner of thousands of properties beginning in the 1960s and ’70s,” The New York Times explains, “many in the Bronx and Brooklyn, where properties were seized from delinquent landlords and urban blight was rampant”—the competition is focused on one particular location:

Entrants will be asked to focus on a property on West 136th Street in Harlem, a 17-foot-wide, 1,665-square-foot mid-block lot that is overgrown with weeds and home to a number of feral cats. It was chosen because many of its challenges, including narrow frontage and limited sunlight, are present at other lots on the list, according to a spokesman for the project.

Read more at the project website or at The New York Times.

(Very, very vaguely related: Buy a Los Angeles Sidewalk Corner).

War Simulant

[Image: From Battle: Los Angeles (2011)].

In an era when military action is increasingly shifting toward cities, it’s interesting to note that the U.S. Army is conducting drills in the skies above Los Angeles this week.

As NBC Los Angeles reports, the exercises are for “the purpose of enhancing soldier skills by operating in various urban environments and settings… Residents around the L.A. area may hear sounds associated with training, including aircraft and weapon simulations.”

Recall—as cited by Mike Davis in his book City of Quartz—that this is not the first time L.A. has been used as an urban-warfare simulator. “Scores of residents in the Bunker Hill and Civic Center areas complained of the racket Thursday night after several of the Army helicopters began maneuvering close to high-rise apartments and condominiums at about 10 p.m.,” the L.A. Times reported way back in 1989. At the time, these close-building maneuvers were meant to test “urban approach and departure techniques.”

(Thanks to Nicola Twilley for the tip!)

Inside Job

[Image: Via Wikipedia].

Although it’s by no means new, I realized I’ve never posted about Gregor Schneider’s project Dead House ur here. For that, Schneider spent roughly a decade systematically dismantling and rebuilding the interior of his own childhood home.

Writing for Artforum back in 2000, Daniel Birnbaum suggested that the project “is more labyrinth than house, and the prospect of getting stuck in a particularly narrow passage is truly frightening.” Indeed, there are some rooms and corridors remade in miniature, such that it’s only possible to crawl through them.

For that article, Birnbaum toured the house with Schneider himself. After having a cup of coffee, Birnbaum writes, “We leave the room not through the door but through a secret aperture that is revealed by pushing back part of the wall behind me. On the other side, we get a surprising view of the room we’ve just left: It is a motor-driven contraption set on wheels and may very well have been circulating slowly, like a high-rise cocktail lounge, while we were having coffee.” It’s a house, it’s a mechanism, it’s a maze.

So why couldn’t Birnbaum tell if the room they were sitting in had been rotating? Because the windows weren’t really windows—“Behind the window is a second window,” he writes—and many of the rooms offer no view of anything outside their own walls. Indeed, Birnbaum adds, “There seems to be no outside. Everything leads back into the house.”

Briefly, I’m reminded of the fake ophthalmologist’s office constructed in Eugene, Oregon, of all places, back in 1965, where it was used to test how people reacted to subtle room movements—without first explaining to them that the room was an experiment. Bizarrely, the room’s movements were meant to simulate what it would be like to stand at the top of a future skyscraper on the other side of the country in Manhattan: the World Trade Center towers.

In any case, everything might lead “back into the house,” as Birnbaum writes, but the interior of Schneider’s house had been made unrecognizable. Schneider hid walls behind walls, ceilings beneath other ceilings, until “the original dimensions and configuration of the various rooms are all but impossible to reconstruct.”

In an article I’ve been saving inside of a binder for some reason, and whose original place of publication is no longer clear, curator Yilmaz Dziewior continues this discussion of the architectural interventions Schneider has made. Schneider, Dziewior writes, “places walls in front of existing ones. The new walls are almost impossible to distinguish from the old. Sometimes he insulates the spaces between these walls with noise-reducing materials such as lead or foam. These structural alterations result in almost imperceptible changes in the acoustics.”

You could say that the work falls somewhere between, say, Gordon Matta Clark and the Saw franchise.

[Image: Via with reference to death].

Turning one’s own childhood home into a maze that is periodically dismantled, its rooms and parts sent around the world to various art galleries and museums, is, I suppose, as good a way as any to make it clear you want to complicate your relationship to the past.

Great Basin Autoglyphs

[Image: Michael Light, from “Great Basin Autoglyphs and Pleistoseas”].

A new exhibition of work by photographer Michael Light opened last night at the Hosfelt Gallery in San Francisco.

[Image: Michael Light, from “Great Basin Autoglyphs and Pleistoseas”].

Called “Great Basin Autoglyphs and Pleistoseas,” the work is part of an “ongoing aerial photographic survey of the arid American West… moving from habited, placed settlements into pure space and its attendant emptiness.”

[Image: Michael Light, from “Great Basin Autoglyphs and Pleistoseas”].

Along the way, Light reframes human civilization as a series of abstract lines inscribed at vast scale through remote areas, less like infrastructure and more like planetary graffiti.

“Twelve thousand years ago,” Light writes, “the Great Basin—that part of the country between California and Utah where water does not drain to the ocean—was 900 feet underwater, covered by two vast and now largely evaporated historical lakes, Bonneville and Lahontan. The remnants of Lake Bonneville today are the Great Salt Lake in Utah and its eponymous salt flats, while the most famous portion of the former Lake Lahontan is the Black Rock Desert in Nevada, an alkali bed that floods and dries each year, creating the flattest land on earth.”

[Image: Michael Light, from “Great Basin Autoglyphs and Pleistoseas”].

Light is an incredibly interesting photographer, and has done everything from wreck-diving old military ships scuttled during nuclear weapons tests in the South Pacific to releasing a book of retouched archival photos from the Apollo Program.

Nicola Twilley and I interviewed Light several years ago for our Venue project, where we discussed these projects at length.

[Image: Michael Light, from “Great Basin Autoglyphs and Pleistoseas”].

In you’re near San Francisco, stop by the Hosfelt Gallery before March 16, 2019, and also consider ordering a copy of Light’s forthcoming book, Lake Lahontan/Lake Bonneville, with related images.

Computational Landscape Architecture

[Image: An otherwise unrelated photo, via FNN/Colossal].

In 2017, researchers attending the annual Cable-Tec Expo presented a paper looking at the effect certain trees can have on wireless-signal propagation in the landscape.

In “North America in general,” the researchers wrote, “large swathes of geography are dominated by trees and other foliage which, depending on seasonal growth and longitude, can interrupt a good many LOS [line of sight] apertures between BS [a base station] and client and present performance challenges.”

That is to say, parts of North America are heavily forested enough that the landscape itself has a negative effect on signal performance, including domestic and regional WiFi.

Their presentation included a graph analyzing the effects that particular tree species—pine, spruce, maple—can have on wireless signals. “The impact of deciduous and conifer trees (under gusty wind conditions) suggest that the leaf density from the conifer more frequently produces heavy link losses and these,” they explain.

In other words, for the sake of signals, plant deciduous.

[Image: From “Can a Fixed Wireless Last 100m Connection Really Compete with a Wired Connection and Will 5G Really Enable this Opportunity?”]

What interests me here is the possibility that we might someday begin landscaping our suburbs, our corporate campuses, our urban business parks, according to which species of vegetation are less likely to block WiFi.

There is already a move toward xeriscaping, for example—or planting indigenous species tolerant of arid climates in cities such as Phoenix and Los Angeles—but what about WiFi-scaping, landscapes sown specifically for their electromagnetic-propagation effects?

One of my favorite studies of the last decade looked at whether trees planted around a fuel-storage depot in England known as Buncefield might have inadvertently caused a massive gas explosion. In this case, though, a site’s landscaping might instead cause data-propagation errors.

You can imagine, for example, vindictive foreign governments purposefully surrounding an American embassy with trees unpermissive of signal propagation, even deliberately donating specific indoor plant species known for their negative effects on electromagnetic signals. A kind of living, vegetative Faraday cage.

Hostile houseplant-gifting networks. Like the plot of some future David Cronenberg film.

[Image: Lucian Freud, “Interior in Paddington” (1951), via Tate Britain].

In any case, this brings to mind many things.

A recent study published in the MIT Technology Review, for example, suggested that WiFi could be used to spy on human movements inside architecture. The paper documents how researchers used WiFi “to work out the position, actions, and movement of individuals” inside otherwise sealed rooms.

It’s worth recalling the use of WiFi as a burglar alarm, whereby unexpected human intruders can be detected when their bodies perturb the local WiFi field. Is that someone walking toward you in the dark…? Your router might see them before you do, as their movement cause bulges and malformations in your home’s WiFi.

The more relevant implication, however, is that you could potentially use WiFi to spy on movements in the broader landscape. Deciduous forests would be easier than coniferous, it seems.

You could soak a forest in electromagnetic signals—yes, I know this is not the greatest idea—and measure those signals’ reflection to count, say, active birds, beetles, badgers, or other participants in the wilderness. It’s WiFi as a tool for ecological analysis: you set up a router and watch as its signals reverberate through the forests and fields. Animal radar.

Finally, consider a study published last year that suggested WiFi signals could be turned into a computational device. According to researchers Philipp del Hougne and Geoffroy Lerose, you can “perform analog computation with Wi-Fi waves reverberating in a room.”

Read their paper to find out more, but what seems so interesting in the present context is the idea that forested landscapes could be grown to cultivate their WiFi computational ability. Like botanical pinball machines, you could design, plant, and grow entire forests based on their ability to reflect future WiFi signals in very specific ways, artificial landscapes destined to perform computational tasks.

A bitcoin forest. WiFi forestry.

Or forest supercomputers, pruned for their ability to plumb the mathematical sublime.

(Thanks to Jameson Zimmer for the tip re: WiFI and trees. Earlier on BLDGBLOG: The Design Forest of the Sacred Grove, Forest Tone, and many others.)