Tag: Neurology

Norwegian Dream Tunnels

Almost exactly five years ago, I was in the Norwegian town of Tromsø to speak at a conference called “Future North,” part of the annual Arctic Frontiers event.

One of the most interesting parts of my visit—and I do not say this to downplay the conference, but to indicate my enthusiasm for infrastructure—was this odd bit of traffic design: to get back and forth from Tromsø to its local airport by car, you have to pass through a sprawling underground tunnel network, complete with at least one subterranean roundabout carved into the roots of the mountain, a journey that, for someone newly arrived and jet-lagged like myself, seemed surreally endless (it probably took three minutes).

At the end of the journey, though, it gets stranger: you pop out of the ground floor of an otherwise nondescript building and turn directly onto a normal town road, passing through an opening that looks like an entrance to an underground parking garage.

These images, taken from Google Street View, show that building from the Tromsø side, peering into the mountain depths within. (Here is the tunnel entrance on Google Maps.)

While we’re on the subject of Norwegian tunnels, however, it would be a mistake not to mention the Lærdal Tunnel, allegedly “the longest road tunnel in the world.”

The tunnel is so long that, to address potential adverse effects on human neurology, it includes artificial caverns lit to invoke the Homeric glow of dawn.

[Image: The Lærdal Tunnel, photo by Patrick Reijnders, via Wikipedia.]

From Wikipedia:

The design of the tunnel takes into consideration the mental strain on drivers, so the tunnel is divided into four sections, separated by three large mountain caves at 6-kilometre (3.7 mi) intervals. While the main tunnel has white lights, the caves have blue lighting with yellow lights at the fringes to give an impression of sunrise. The caves are meant to break the routine, providing a refreshing view and allowing drivers to take a short rest. The caverns are also used as turnaround points and for break areas to help lift claustrophobia during a 20-minute drive through the tunnel. In the tunnel, there is a sign on every kilometer indicating how many kilometers have already been covered, and also how many kilometers there are still to go. To keep drivers from being inattentive or falling asleep, each lane is supplied with a loud rumble strip towards the centre.

As another site mentions, “Since 1990, research has been carried out to study driver behavior in long road tunnels.” Of course, one wonders how extreme this research has gotten, perhaps suggesting a new story by Nick Arvin or J.G. Ballard. (The construction of the tunnel is also fascinating, involving lasers, GPS satellites, and computer-controlled drilling platforms.)

Tunnels that mimic sunrise, built to accommodate human neurology using artificial stars as reference points, emerging from the ground-floors of buildings in coastal towns.

Dream tunnels, perhaps just one floor beneath your apartment, leading deep into the mountains beyond.

(If you just can’t get enough Norwegian road tunnels, check out Kiln, previously on BLDGBLOG.)

Brainglass

Given the right geological circumstances, brains can become glass. During the 1st-century eruption of Mt. Vesuvius, for example, one fleeing victim’s brain was allegedly vitrified, its soft, thinking tissues transformed into “small, glassy black fragments that were just attached inside the skull,” the Washington Post reports, like shards of a broken window.

[Image: Brainglass, via the Washington Post.]

These reflective fragments—little black mirrors—“contained proteins common in brain tissue, researchers found, and had undergone vitrification and transformed into glass.” That made this “the first time brains from any human or animal have been found fossilized as glass.” This, of course, could be because we haven’t been looking: what other deposits of obsidian lying around on the Earth’s surface are actually fossilized animal brains? Vitrified neurology.

In any case, I was reminded of an exhibition last summer at the Getty Villa here in Los Angeles called Buried by Vesuvius: Treasures from the Villa dei Papiri. Among the artifacts on display were these incredible “carbonized papyri,” or scrolls—ancient books—that had been turned into seemingly useless lumps of charcoal.

[Image: Carbonized papyrii on display at Buried by Vesuvius: Treasures from the Villa dei Papiri; photo by BLDGBLOG.]

The amazing thing was that, by using advanced medical imaging equipment to peer inside the lumps, researchers discovered that these previously illegible objects could be made readable again, virtually unrolled using X-ray tomography and character-recognition algorithms, to reconstruct the scrolls’ lost content. They were “able to use the medical imaging technology, which is usually used to examine soft human tissues, to detect the tiny bump of ink on the surface of a scroll without damaging the fragile artifact.”

To be honest, this is one of the coolest things I’ve ever seen—the “noninvasive digital restoration of ancient texts… hidden inside artifacts.” Otherwise mute objects given technical legibility. (A similar technique inspired one of the greatest New York Times headlines of the past few years: “Scanning an Ancient Biblical Text That Humans Fear to Open,” combining, at a stroke, H.P. Lovecraft, X-ray imaging technology, and possible Christian apocrypha.)

Stepping away from realistic technical applications for just a moment into the world of pure science fiction, it is fascinating to imagine a team of future researchers using 21st-century medical imaging techniques to scan, Jurassic Park-style, for lost thoughts lodged inside pieces of obsidian, black glass fossils of animal brain tissue, almost like the reader of unicorn skulls in Haruki Murakami’s novel Hard-Boiled Wonderland and the End of the World.

The idea that some of the rocks around us might, in fact, be glass brains—brainglass, a new mineral—neurological apocrypha awaiting decipherment, suggests a thousand new novels and storylines. Neurogeonomicon.

Black and ancient brains dreaming inside what humans mistook for geology.

A Spatial History of Sleep

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

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

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

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

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

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

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

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

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

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

The Neurological Side-Effects of 3D

[Image: Auguste Choisy].

France is considering a ban on stereoscopic viewing equipment—i.e. 3D films and game environments—for children, due to “the possible [negative] effect of 3D viewing on the developing visual system.”

As a new paper suggests, the use of these representational technologies is “not recommended for chidren under the age of six” and only “in moderation for those under the age of 13.”

There is very little evidence to back up the ban, however. As Martin Banks, a professor of vision science at UC Berkeley, points out in a short piece for New Scientist, “there is no published research, new or old, showing evidence of adverse effects from watching 3D content other than the short-term discomfort that can be experienced by children and adults alike. Despite several years of people viewing 3D content, there are no reports of long-term adverse effects at any age. On that basis alone, it seems rash to recommend these age-related bans and restrictions.”

Nonetheless, he adds, there is be a slight possibility that 3D technologies could have undesirable neuro-physical effects on infants:

The human visual system changes significantly during infancy, particularly the brain circuits that are intimately involved in perceiving the enhanced depth associated with 3D viewing technology. Development of this system slows during early childhood, but it is still changing in subtle ways into adolescence. What’s more, the visual experience an infant or young child receives affects the development of binocular circuits. These observations mean that there should be careful monitoring of how the new technology affects young children.

But not necessarily an outright ban.

In other words, overly early—or quantitatively excessive—exposure to artificially 3-dimensional objects and environments could be limiting the development of retinal strength and neural circuitry in infants. But no one is actually sure.

What’s interesting about this for me—and what simultaneously inspires a skeptical reaction to the supposed risks involved—is that we are already surrounded by immersive and complexly 3-dimensional spatial environments, built landscapes often complicated by radically diverse and confusing focal lengths. We just call it architecture.

Should the experience of disorienting works of architecture be limited for children under a certain age?

[Image: Another great image by Auguste Choisy].

It’s not hard to imagine taking this proposed ban to its logical conclusion, claiming that certain 3-dimensionally challenging works of architectural space should not be experienced by children younger than a certain age.

Taking a cue from roller coasters and other amusement park rides considered unsuitable for people with heart conditions, buildings might come with warning signs: Children under the age of six are not neurologically equipped to experience the following sequence of rooms. Parents are advised to prevent their entry.

It’s fascinating to think that, due to the potential neurological effects of the built environment, whole styles of architecture might have to be reserved for older visitors, like an X-rated film. You’re not old enough yet, the guard says patronizingly, worried that certain aspects of the building will literally blow your mind.

Think of it as a Schedule 1 controlled space.

[Image: From the Circle of Francesco Galli Bibiena, “A Capriccio of an Elaborately Decorated Palace Interior with Figures Banqueting, The Cornices Showing Scenes from Mythology,” courtest of Sotheby’s].

Or maybe this means that architecture could be turned into something like a new training regimen, as if you must graduate up a level before you are able to handle specific architectural combinations, like conflicting lines of perspective, unreal implications of depth, disorienting shadowplay, delayed echoes, anamorphic reflections, and other psychologically destabilizing spatial experiences.

Like some weird coming-of-age ceremony developed by a Baroque secret society overly influenced by science fiction, interested mentors watch every second as you and other trainees react to a specific sequence of architectural spaces, waiting to see which room—which hallway, which courtyard, which architectural detail—makes you crack.

Gifted with a finely honed sense of balance, however, you progress through them all—only to learn at the end that there are four further buildings, structures designed and assembled in complete secrecy, that only fifteen people on earth have ever experienced. Of those fifteen, three suffered attacks of amnesia within a year.

Those buildings’ locations are never divulged and you are never told what to prepare for inside of them—what it is about their rooms that makes them so neurologically complex—but you are advised to study nothing but optical illusions for the next six months.

[Image: One more by Auguste Choisy].

Of course, you’re told, if it ever becomes too much, you can simply look away, forcing yourself to focus on only one detail at a time before opening yourself back up to the surrounding spatial confusion.

After all, as Banks writes in New Scientist, the discomfort caused by one’s first exposure to 3D-viewing technology simply “dissipates when you stop viewing 3D content. Interestingly, the discomfort is known to be greater in adolescents and young adults than in middle-aged and elderly adults.”

So what do you think—could (or should?) certain works of architecture ever be banned for neurologically damaging children under a certain age? Is there any evidence that spatially disorienting children’s rooms or cribs have the same effect as 3D glasses?