March 2020 – BLDGBLOG

Weed Hoax Architecture

[Image: Weeds, via Wikipedia.]

This story, from July 1988, feels unexpectedly timely today, given our new era of experimental sci-fi building materials, from mushroom bricks to translucent wood.

“Two brothers were convicted by a federal jury Thursday on charges that they organized an elaborate hoax in which they duped investors of $3 million with claims that they had found a way to transform common weeds into ‘Space Age’ synthetic building materials,” the L.A. Times reported. “They gave the products names, including ‘Impervium’ and ‘Impervicon,’ and at one time peddled them on the ‘700 Club,’ an evangelical television program, according to the charges.”

This would make a great premise for a short story or novel, for what it’s worth.

(Spotted via Peter Smith.)

Synthetic at Every Scale

[Image: Diamond nanowires produced by physicist William Gilpin, used only for the purpose of illustration.]

As part of some early prep, just putting notes together for a workshop I’ll be leading in Moscow later this summer, I thought I’d link back to this 2014 post by Paul Gilster on Centauri Dreams about “SETI at the Particle Level”—that is, the Search for Extraterrestrial Intelligence reimagined on radically different spatial scales than what humans have previously looked for.

“To find the truly advanced civilizations, we would need to look on the level of the very small,” Gilster suggests. We perhaps even need to look at the scale of individual particles.

“If SETI is giving us no evidence of extraterrestrials,” Gilster writes, “maybe it’s because we’re looking on too large a scale.”

What if, in other words, truly advanced intelligence, having long ago taken to non-biological form, finds ways to maximize technology on the level of the very small? Thus [Australian artificial intelligence researcher Hugo de Garis]’s interest in femtotech, a technology at the level of 10^-15 meters. The idea is to use the properties of quarks and gluons to compute at this scale, where in terms of sheer processing power the improvement in performance is a factor of a trillion trillion over what we can extrapolate for nanotech.

Material evidence of this speculative, femto-scale computation could perhaps be detected, in other words, if only we knew we should be looking for it. (Instead, of course, we’re stuck looking for evidence of a very particular technology that was big on Earth a few decades ago—radio waves.)

[Image: Electron interferometry, via the University of Cambridge, used only for the purpose of illustration.]

In any case, it’s interesting to put these thoughts in the context of a paper by Matt Edgeworth, published in Archaeologies back in 2010, called “Beyond Human Proportions: Archaeology of the Mega and the Nano.” Edgeworth’s paper was inspired by a deceptively simple insight: that human artifacts, in our era of chemical and material engineering, have departed radically from the spatial scale traditionally associated with archaeology.

We are always making history, we might say, but much of it is too small to see.

Rather than studying architectural ruins or sites the size of villages, what about archaeological artifacts visible only through chemical assays or scanning electron microscopes, whether they be so-called forever chemicals or simply microplastics?

Edgeworth himself refers to nano-scale transistors, graphene sheets, and materials etched using electron beam lithography. What role should these engineered materials—altogether different kinds of remains or cultural “ruins”—play in archaeology?

[Image: An example of electron beam lithography, via Trevor Knapp/Eriksson Research Group/University of Wisconsin, used only for the purpose of illustration.]

“It used to be the case that archaeological features and artifacts were principally on a human scale,” Edgeworth writes. “But that familiar world is changing fast. As archaeology extends its range of focus further forward in time its subject matter is moving beyond human proportions. Developments in macro- and micro-engineering mean that artifacts are no longer limited in size by physical limitations of the body. As scale and impact of material culture extends outwards and inwards in both macroscopic and microscopic directions, the perspectives of contemporary archaeology must change in order to keep track.”

What’s so interesting about both the Centauri Dreams post and Matt Edgeworth’s paper is that signs of artificiality—whether they are human or not—might be discovered at radically different spatial scales, either here on Earth in modern archaeological sites or in the depths of space, where, for example, the alien equivalent of electron beam lithography might already have etched legible patterns into materials now drifting as micrometeoroids through the void.

Of course, the idea of applying for a grant to look for signs of alien lithography on micrometeoroids sounds more like a Saturday Night Live sketch—or perhaps the plot of a Charles Stross novel—but that doesn’t mean we shouldn’t do it (or something similar). After all, even humans themselves now leave micro- and nano- scale material traces behind in the dyes, chemicals, coatings, and etched materials we use everyday without thinking of these things as archaeological.

[Image: Nanostructures made by German company Nanoscribe, used only for the purpose of illustration.]

If the fundamental assumption of SETI is that aliens have been communicating with each other through radio transmissions because humans used to heavily rely upon that same technology, then why not also assume that aliens are, say, manufacturing graphene sheets, 3D-printing on the nano-scale, or, for that matter, weaving computational textiles with synthetic-diamond nanowires?

(An unrelated post that is nevertheless interesting to think about in this context: Space Grain.)

PoMo- Mytho- Geo-

[Image: “Model of an Earth Fastener on the Delphi Fault (Temple of Apollo)” (2019) by Kylie White; photo courtesy Moskowitz Bayse.]

Artist Kylie White has two new pieces up in a group show here in Los Angeles, called Grammars of Creation, on display at Moskowitz Bayse till March 16th, which I will return to in a second.

White had a great solo show at the same gallery almost exactly a year ago, featuring a series of geological faults modeled in richly veined, colored marble Most also incorporated brass details, acting as so-called “Earth fasteners.”

[Images: From Six Significant Landscapes by Kylie White; photos courtesy Moskowitz Bayse.]

Gallery text explained at the time that White’s works “are at once sculptures, scale models, geologic diagrams, and proposals; each depicts an active fault line, a place of displaced terrain due to tectonic movement.”

The “proposal” in each work, of course, would be the fasteners: metal implants of a sort meant to span the rift of an open fault.

[Image: “Model of Earth Fastener on a Transform Fault; 1”=10” (2017) by Kylie White; note that this piece was not featured in Six Significant Landscapes. Photo courtesy Moskowitz Bayse.]

White’s fasteners seemed to suggest at least two things simultaneously: that perhaps we could fix the Earth’s surface in place, if only we had the means to stop faults from breaking open, but also that human interventions such as these, in otherwise colossal planetary landscapes, would be trivial at best, more sculptural than scientific, just temporary installations not permanent features of a changing continent.

[Image: From Six Significant Landscapes by Kylie White; photo courtesy Moskowitz Bayse.]

As I struggled to explain to my friends, however, while describing White’s work, the visual effect was strangely postmodern, almost tongue-in-cheek, as if her sculptures—all green marble blocks and inlaid brass—could have passed for avant-garde luxury furniture items from the 1980s (and, to be clear, I mean this in a good way: imagine scientific models masquerading as luxury goods).

[Images: Details from Six Significant Landscapes by Kylie White; photos by BLDGBLOG.]

All of which means I sort of laughed when I saw these more recent works that seem to take this postmodern aesthetic to a new height, complete with two fault models mounted atop faux-Greek columns.

[Image: “Model of an Earth Fastener on the Hierapolis Fault (Plutonion)” (2019) by Kylie White; photo courtesy Moskowitz Bayse.]

It’s like plate tectonics meets Learning From Las Vegas, by way of Greek mythology.

Because the columns are also a fitting reference to the pieces’ own subject matter: one, seen at the top of this post, is called “Model of an Earth Fastener on the Delphi Fault (Temple of Apollo)” and the other, immediately above, is “Model of an Earth Fastener on the Hierapolis Fault (Plutonion).” They perhaps suggest an entirely new approach to natural history museum displays—boldly gridded rooms filled with heroic blocks of the Earth’s surface, bathed in neon. Pomotectonics.

In any case, more information about the show is available at Moskowitz Bayse. It closes on March 16th, 2020, although White apparently has another, currently untitled solo show coming up in 2021.

A World Where Things Only Almost Meet

[Image: California, via Google Maps.]

I was interested to read last month that “millions of cul-de-sacs [sic] and dead-ends have proliferated in street networks worldwide,” less because of this observation’s intended take-away—which is that neighborhoods around the world are becoming less connected and, thus, less pedestrian-friendly—and more because it sounds like geographers have discovered some sort of short-circuit in the matrix.

Our networks are hitting edges, artificially terminating before their time, leading back on themselves, the very neighborhoods in which we live now recursive and going nowhere, spatial design bugs, caught in loops.

[Image: Florida, via Google Maps.]

Taken out of context, it suggests the beginning of a new Paul Auster novel, or perhaps something more Pynchon-esque: a dystopian satire in which a Commissioner of Dead Ends has been hired to figure out why the streets of the world have gone haywire.

No one understands why the weave is sewing closed, a warp out of shape with its weft.

[Image: Ohio, via Google Maps.]

Recall that great line from Umberto Eco’s novel The Name of the Rose: “How beautiful the world would be if there were a procedure for moving through labyrinths.” Only, here, it’s some lonely postal worker—or a geography Ph.D. driven mad by student debt—out mapping the frayed edges of the world, wearily noting every new dead-end and cul-de-sac in a gridded notebook, diagramming loops, sketching labyrinths and mazes, driving empty streets all day on a quest for something undefinable, some answer to why the world’s patterns have gone so wrong. A self-diverging world, where things only almost meet.

Forest Accumulator

Ten years ago, this would have been a speculative design project by Sascha Pohflepp: “hyper-accumulating” plants are being used to concentrate, and thus “mine,” valuable metals from soil.

[Image: Nickel-rich sap; photo by Antony van der Ent, courtesy New York Times.]

“With roots that act practically like magnets, these organisms—about 700 are known—flourish in metal-rich soils that make hundreds of thousands of other plant species flee or die,” the New York Times reported last week. “Slicing open one of these trees or running the leaves of its bush cousin through a peanut press produces a sap that oozes a neon blue-green. This ‘juice’ is actually one-quarter nickel, far more concentrated than the ore feeding the world’s nickel smelters.”

A while back, I went on a road-trip with Edible Geography to visit some maple syrup farms north of where we lived at the time, in New York City. The woods all around us were tubed together in a huge, tree-spanning network—“forest hydraulics,” as Edible Geography phrased it at the time—as the trees’ valuable liquid slowly flowed toward a pumping station in the center of the forest.

It was part labyrinth, part spiderweb, a kind of semi-automated tree-machine at odds with the image of nature with which most maple syrup is sold.

[Images: Photos by BLDGBLOG.]

Imagining a similar landscape, but one designed as a kind of botanical mine—a forest accumulator, metallurgical druidry—is incredible.

And it’s not even a modern idea, as the New York Times points out. For all its apparent, 21st-century sci-fi, the idea of harvesting metal from plants is at least half a millennium old: “The father of modern mineral smelting, Georgius Agricola, saw this potential 500 years ago. He smelted plants in his free time. If you knew what to look for in a leaf, he wrote in the 16th century, you could deduce which metals lay in the ground below.”

This brings to mind an older post here about detection landscapes, or landscapes—yards, meadows, gardens, forests—deliberately planted with species that can indicate what is in the soil beneath them.

In the specific case of that post, this had archaeological value, allowing researchers to find abandoned Viking settlements in Greenland based on slight chemical changes that have affected which plants are able to thrive. Certain patches of flower, for example, act as archaeological indicator species, marking the locations of lost settlements.

In any case, my point is simply that vegetation can be read, or treated as a sign to be interpreted, whether by indicating the presence of archaeological ruins or by revealing the potential market-value of a site’s subterranean metal content.

Indeed, we read, “This vegetation could be the world’s most efficient, solar-powered mineral smelters,” with “the additional value of enabling areas with toxic soils to be made productive. Smallholding farmers could grow on metal-rich soils, and mining companies might use these plants to clean up their former mines and waste and even collect some revenue.” That is, you could filter and clean contaminated soils by drawing heavy-metal pollutants out of the ground, producing saps that are later harvested.

Fast-forward ten years: it’s 2030 and landscape architecture studios around the world are filled with speculative metal-harvesting plant designs—contaminated landscapes laced with gardens of hardy, sap-producing trees—even as industrial behemoths, like Rio Tinto and Barrick Gold, are breeding proprietary tree species in top-secret labs, genetically modifying them to maximize metal uptake.

Weird saps accumulate in iridescent lagoons. Autumn leaves glint, literally metallic, in the sun. Tiny metal capillaries weave up the trunks of black-wooded trees, in filigrees of gold and silver. The occasional forest fire smells not of smoke, but of copper and tin. Reclaimed timber, with knots and veins partially metallized, is used as luxury flooring in suburban homes.

Tone Fields Larger Than Stars

[Image: From “Probing Cosmic-Ray Transport with Radio Synchrotron Harps in the Galactic Center,” by Timon Thomas, Christoph Pfrommer, and Torsten Enßlin.]

The above image, as described by Susanna Kohler over at AAS Nova, depicts an ultra-large-scale magnetic “harp” near the center of our galaxy, emitting radio waves. The black lines apparently “span several light-years.”

As Kohler writes, where the parenthetical comments are her own, “a team of scientists argues that this cosmic music is caused by a massive star or a pulsar (a magnetized neutron star) plunging through an ordered magnetic field in the galactic center. As the star crosses (moving upward, in the image above) bundles of field lines, it discharges high-energy cosmic rays that travel in either direction along the bundles, emitting radio waves.”

It’s a kind of cosmic the re min—an instrument where the “musician controls volume and pitch using her hands to interfere with electromagnetic fields generated by the device”—a huge and ancient instrument playing itself in space.