Prismatic pyramid evokes desert mirage by day, Aurora Borealis by night.Given that their pyramidal acrylic installation at this summer's Burning Man was inspired in part by Pink Floyd's Dark Side of the Moon album cover, it seems safe to say that the architects at Red Deer "get" the festival's vibe. "We try to get very intimate with our sites, so it was interesting to approach one that we hadn't been able to visit," said founding director Ciarán O'Brien. "Some of the primal forces we could see at play there were the heat of the desert and the way people interact with structures. Specifically, for us it was about light in all its forms." The UK firm worked closely with the structural engineers at Structure Mode to design a transparent six-meter-tall structure comprising interlocking equilateral triangles, while New York Institute of Technology professor Charles Matz contributed an integrated light display based on the Aurora Borealis. "All kinds of imagery came to mind that held to the desert landscape," said O'Brien. "By day, the concept evoked a mirage; by night, a kaleidoscope. One is ephemeral, a non-place; the other is specific, a beacon." Called Luz 2.0, the Burning Man installation is only the latest iteration of an ongoing exploration of the relationship between matter and light. The project began as a response to a commission for a band pavilion. "Red Deer's original idea was a scaffolding framework that would be clad in some reflective material," recalled Structure Mode's Geoff Morrow. "We suggested going one step beyond that and building an acrylic pyramid, to make it much more special." The clients canceled, but the designers applied for grants, ran a successful Kickstarter campaign, and debuted Luz at Secret Garden Party 2013 in Abbots Ripton, England. The first Luz featured a touch-sensitive floor screen-printed with a colorful pattern that appeared to change shape under different lighting conditions. For Burning Man, Red Deer omitted the floor "so that you interacted with the playa landscape," said O'Brien. Red Deer and Structure Mode jointly developed Luz 2.0's reciprocal modular system. "It was really interesting investigating how all these different connections could work, what different shapes could work within a three-sided pyramid," said Red Deer's Lucas Che Tizard. "The system we use is composed of equilateral triangles, but it actually gives us more than just pyramids—you see hexagons as well." The architects worked first with hand sketches, then transferred their ideas to SketchUp before moving to 3ds Max, Rhino, and Vectorworks to finalize the structure and start to explore how the modules would connect to one another. Structure Mode analyzed the design's structural stability in Oasys' GSA Suite. Red Deer flattened the final design and emailed the files to the CNC cutters. At that point the three-dimensional installation "became a flat pack kit," said O'Brien. "Part of the challenge was that each of these pieces should be human-sized, so that they could be built by a small team using basic tools in desert conditions." To simplify installation, Structure Mode developed a streamlined bolt-and-nut assembly based on furniture-making connections. "In a way it's kind of low-tech, but it looks high-tech," said O'Brien. The UK contingent shipped Luz 2.0 to the Nevada desert in three crates. The components took longer than expected to arrive: though they had hoped to begin installation on Monday, the architects were forced to wait until Thursday. Nonetheless, the on-site crew managed to assemble the pyramid in just two days using hand drills. Matz's team, meanwhile, arrived on site with the electronics, including custom hardware based on 3D models sent to them by Red Deer. The installation of the lighting system "came together seamlessly," said O'Brien. "We were somewhat concerned about voltage, but it worked out." The only disappointment involved the Mogees sensors, designed to trigger changes in the light show as visitors climbed on and around the pyramid. They worked well in a small-scale test, but "unfortunately the settings didn't translate to the seven-meter structure," said O'Brien. "I can't say it fully fulfilled that brief." Red Deer and their collaborators will soon have another shot at realizing the vision behind Luz 2.0. As befits the installation's emphasis on the immaterial—not to mention the ethos of Burning Man itself—the architects plan to re-erect the structure elsewhere. "We've had quite a few offers from various benefactors, but we haven't figured out what would be best," said O'Brien. "Right now it's in storage in Reno, awaiting its next move."
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Minimalist catenary canopy lends warmth and lightness to office courtyard.When Page design principal Larry Speck suggested a catenary sunshade for the courtyard of the new GSA building in Albuquerque, his colleagues set about identifying precedents. "There were some really great devices that we looked at, but a lot were done in the 1960s out of heavy, monumental materials," said principal Talmadge Smith. "We wondered if there was a way to do it in a lighter, more delicate way that would also introduce some warmth to the space." The architects elected to build the structure out of western red cedar, which performs particularly well in arid climates. Comprising 4-, 8-, and 12-foot boards suspended on steel cables, the sunshade appears as a wave of blonde wood floating in mid-air, casting slatted shadows on the glass walls of the courtyard. The courtyard is an important amenity in the two-story, 80,000-square-foot building, currently occupied by a combination of federal employees, including immigration and customs enforcement staff, and state and local law enforcement. "We said, 'This is a pretty big floor plate, it needs a great courtyard,'" said Smith. "For one thing, in this climate that's just what you build. You get free shading and can create a cooler microclimate." The courtyard also helps bring light into the communal spaces that surround it, which include training areas, circulation, and conference rooms. "It remains a democratic insertion into the floor plan," observed Smith. Finally, the courtyard allowed the architects to compensate for a lack of glazing on the exterior walls, the result of security requirements. Working in Revit and 3ds Max, Page experimented with various patterns for the sunshade. They first tried a regular arrangement of identical slats. "The result wasn't very pleasing," said Smith. "It made a drooping, uninviting shape. It also closed the courtyard, as if you had pulled a big venetian blind across it." They decided to break up the pattern and use three different modules of wood, placing them only where daylighting analysis dictated. They also worked with the cables themselves to identify the appropriate amount of slack. "We tested what it would be if you pulled the cables tight," said Smith. "It negated the effect of the catenary, and led to a courtyard with a little bit of a ceiling, a rigidity that we didn't want." The final design incorporates 18 inches worth of slack per cable. Enterprise Builders used off-the-shelf hardware to assemble and install the sunshade. The cedar boards are attached to the cables via steel clips bolted to one face of each board. Deciding against integrating hardware directly into the curtain walls, Page designed opaque concrete headers for the two short sides of the courtyard, then grouted the anchors into the masonry units. A turnbuckle attached to a pivot near each anchor allowed the builders to make adjustments to the length of the cables once they had been hung. A second, perpendicular, system of cables prevents the shading structure from swaying. "The hardest part was getting it level," said Smith. "There was a little art to that because some strands are more heavily loaded than the others." Fabricated out of standard lumber and mass-produced hardware, the sunshade might have felt bulky or crude. Instead, it provides relief from the New Mexico sun while seeming almost to dissolve into the sky. "When you're standing there, you only ever see half of the shading members at a time," said Smith. "You see a lot of sky, but you feel a lot of shade. It performs, but it feels light."
Parallel facade systems in contrasting materials mark the edge of development on a reimagined campus.The new Rutgers Business School in Piscataway, New Jersey, is more than a collection of classrooms and offices. The building, designed by TEN Arquitectos, is a linchpin of the university’s Livingston campus, reconceived as an urban center for graduate studies and continuing education. “It established a frame,” said project manager James Carse, whose firm created a vision plan for the campus starting in the late 2000s. “We were interested in really marking the edge of campus to motivate future development to respect the campus boundary, rather than allowing or suggesting that this was a pervasive sprawl. We wanted to make sure this would set a pattern where infill would happen.” The Rutgers Business School’s tripartite envelope reinforces the distinction between outside and inside. While the sides of the building facing the boundary line are enclosed in folded anodized aluminum panels, the glass curtain walls opposite create a visual dialogue with the rest of campus. In TEN Arquitectos’ early designs, the difference between the building’s outer and inner surfaces was not so stark. “We initially thought of [the entire envelope] as being more open,” said Carse. But budget constraints combined with university requirements regarding glazing in classrooms to suggest that the architects move away from an all-glass enclosure. “There was an ability to deploy the curtain wall over only a certain amount of the building in a responsible way,” said Carse. “We let the inside push back against the outside and suggest that this be more solid.” At the same time, explained Carse, “we didn’t want it to feel unchanging and heavy.” Working with Front Inc., TEN Arquitectos designed an anodized aluminum rain screen system, manufactured by Mohawk Metal Manufacturing & Sales, that incorporates an apparently random fold pattern to provide texture. (Thorton Tomasetti provided additional consulting and inspection services during construction.) After making aesthetic modifications in Rhino and 3ds Max, the architects ran their digital model through eQUEST energy analysis software to determine an angle of inclination that would prevent snow from accumulating on the folds. They came up with four standard dimensions that could be combined for a varied effect. “It’s a pretty amazing condition that’s been created with the variegated folded panels that face Avenue E and preserve and pick up the western sunlight as the sun sets,” said Carse. “The building changes throughout the day and picks up texture from its surroundings. The anodized aluminum plays off that nature of change and creates a softer facade than you’d expect from the use of metal itself.” The campus-facing sides of the building feature frit glass curtain walls fabricated by Beijing Jangho Curtain Wall Co. (Jangho) with glass from Xinyi Glass Holdings Limited. “We used the fritted glass to meet the solar performance that we were going for without completely exposing them,” said Carse, who noted that the walls appear nearly transparent at dusk and later, when the interior lights are on. “That’s part of the nature of the building,” he said. “The business school itself has classes going from around 8:30 a.m. until about 10 p.m., so the daily life is not just during the day. The building is really alive during those times and we wanted to make that evident.” During the day, the frit glass facade’s extra-wide mullions maximize the amount of daylight that filters into the offices and classrooms. The third component of the Rutgers Business School envelope is a transparent glass curtain wall introduced between the two primary facade systems. Besides serving as an intermediary between the anodized aluminum and frit glass surfaces, the transparent glass elements mark possible points of connection to future buildings as the campus continues to densify. “It allowed us infill,” said Carse. “This project served as a gateway building literally and figuratively,” said Carse. Cars entering campus from Route 18 pass directly through the Rutgers Business School building, its upper stories perched on canted columns. Though designed to indicate the campus’s outside edge—the end of development—the structure’s vital facade simultaneously signals a beginning, a freshly urban approach to campus design within a former suburban stronghold.
Dynamic steel and PVDF structures shelter campers in style.In South Korea, glamping—or “glamorous camping”—is all the rage. The practice combines conventional camping’s affinity for the outdoors with hotel amenities, including comfortable bedding and fine food. Seoul firm ArchiWorkshop’s prefabricated, semi-permanent glamping structures are a design-minded twist on the traditional platform tent. “We [set out to] create a glamping [tent] that gives people a chance to experience nature very close, while also providing a uniquely designed architectural experience,” said partner Hee Jun Sim. “There are many glamping sites in Korea, but they’re actually not so high-end. We were able to bring up the level of glamping in Korea.” ArchiWorkshop designed two models of glamping tents. The Stacking Doughnut is, as the name suggests, circular, with a wedge-shaped deck between the bedroom and living room. “We put the donuts at different angles, stacked them . . . and simply connected the lines. This line became the structure,” explained Sim. “The basic idea was very simple, but in the end the shape was very dynamic.” The Modular Flow is a gently oscillating tube, its sleeping and lounging areas separated by an interior partition. The shape was created from a series of identical modules lined up back-to-front to produce the curve. Both models feature a white, double-layer PVDF membrane stretched over a stainless steel frame. The decks are built of wood, while the interior floors are carpeted in a cream-colored textile flooring product from Sweden. Sim and partner Su Jeong Park “used every possible tool” to design the glamping units. They started with hand sketches, then moved to physical models. “The model wasn’t so simple to make because it was a strong shape [without] straight or fixed walls,” said Sim. Once they had determined a rough form, they bounced among multiple computer programs—including AutoCAD, Rhino, and 3ds Max—to refine the design and create shop drawings. Sim and Park used MPanel to generate the membrane surface. Dong-A System prefabricated the glamping tents off site, laser cutting the components of the steel frame before welding them together. “Because every part of the shape is connected, it had to be super-precise, or the end form would [not be] straight,” said Sim. On site, the structures were simply bolted into place. ArchiWorkshop built eight glamping structures on spec on a site in South Korea. “We actually used the whole site as a test site, to show the world, ‘Hello, we are [here],’” said Sim. The architects are open to adapting the designs to suit different climates or cultures. “What we designed on the test site is very Asian or Korean, a poetic kind of shape, but I think different countries have different clients with different needs,” explained Sim. While Sim acknowledges that there are a number of luxury tents already on the market, he is not concerned. “We had a bit of a late start,” he said, “but we . . . have a different concept with a different kind of approach to the tent.” In the meantime, the challenge of designing outside the box has been its own reward. “We love designing buildings,” said Sim, “but this kind of different structural project is also very refreshing for architects.”
A room-filling parametric design makes its way from the classroom to Austin's famous music festival.When Kory Bieg and his students at The University of Texas at Austin School of Architecture began working on Caret 6, they had no idea that it would wind up at this year’s South by Southwest (SXSW) music and arts festival. But the rippling, room-filling installation soon took on a life of its own. Within months, Bieg’s undergraduates—who had little previous exposure to digital design—had designed and fabricated Caret 6, and assembled and disassembled it twice, first at the TEX-FAB SKIN: Digital Assemblies Symposium in February, and then at Austin’s most famous annual gathering in March. Caret 6 developed out of a research studio taught by Bieg, who is also associate director of the regional digital fabrication and parametric design network TEX-FAB. Selected to chair TEX-FAB’s annual design competition, Bieg knew that he would soon face a problem: how to display the winning entry in a gallery much larger than it. He put his students to work on a solution. “The idea was to create a kind of counterpoint to the winning entry. [We] needed to fill space,” said Bieg. At the same time, the studio would teach the fundamentals of digital fabrication. “It was really just an experimental exploration of what these tools could produce,” he said. Caret 6’s white and grey diamond-shaped cells cascade from a central catenary vault with three column bases. Two secondary vaults project from either side. The front face of the structure flows down to the floor. “The idea is, we didn’t actually know who the winner [of TEX-FAB: SKIN] would be,” said Bieg. “We wanted to design a ground surface that was modular so that we could replace some of the cells with bases for their models.” The 17 students enrolled in Bieg’s course first created individual study models of aggregations and weavings amenable to digital fabrication. In an internal competition, they narrowed the field to three. Bieg broke the studio into teams, each of which experimented with creating volumetric versions of the designs. In a departure from typical parametric installations, Bieg and his students decided to stay away from patterns that gradually expand and contrast. “Our interest was not [in] doing subtlety, but local variations that are quite abrupt, like going from a large cell to a small cell,” said Bieg. “So part of that was a result of the way we structured it. Instead of aggregating cells, we designed a series of ribs.” The primary ribs form the vaults’ seams, while the secondary and tertiary ribs divide the structure into asymmetrical pockets. Halfway through the semester, Bieg called Alpolic Materials, whose Aluminum Composite Material (ACM)—a thin polyethylene core sandwiched between two sheets of aluminum—he had worked with on an earlier project. Alpolic agreed to donate supplies for Caret 6, “so we refined the design according to the material we had,” said Bieg. He also drafted students from UT engineering to calibrate the structure’s thickness, scale, and cantilever distances. “It kind of just evolved from these different processes coming in,” said Bieg. Back in the studio, Bieg’s students used 3ds Max for form studies and Kangaroo, a Grasshopper plug-in, to fit the tessellated diamond pattern to the vaults. They also used Grasshopper to develop an assembly system of binder rings, bolts, and o-rings. Bieg and his team fabricated the installation using UT’s CNC mill. They cut the vault pieces out of Alpolic ACM. The elements closest to the floor are polypropylene, while the intermediary pieces are high-density polyethylene. The students assembled and disassembled Caret 6 manually. At first, they tried working with a QR-code system, scanning each component to determine its location. When this took too long, they projected a digital model of the form on a screen, then called out each piece by number. For SXSW, where they had only six hours for assembly, they subdivided the structure into sections that could be quickly recombined on site. Caret 6 travels to Houston in September, where it will rejoin the entire TEX-FAB: SKIN show. But while the installation has already moved beyond its original context, Bieg insists that it remains rooted in the SKIN competition brief, which focused on building envelopes leveraging metal fabrication systems. “[Caret 6 is] not really a program per se, but more of an experiment about the same concepts that were part of the exhibits at TEX-FAB,” he said.
Inspired by Japanese paper-folding, Canary Wharf booths make a sculptural statement whether open or shut.Make Architects’ folding kiosks for Canary Wharf in London bring new meaning to the term “pop-up shop.” The bellows-like structures were inspired by Japanese paper folding. “[The kiosk] had to be solid, but lightweight, so then that led us to origami,” said Make lead project architect Sean Affleck. “[You] end up with something very flimsy; add a few folds and creases, and suddenly the strength appears. In the folds, the shape appears.” In addition to adding strength, the folds accomplish an important element of the kiosk program. The public officials who commissioned the design wanted the booths to be aesthetically pleasing whether open or shut. “What we didn’t want was to create a box that obviously had a shutter or door,” said Affleck. “We wanted to disguise the door—you weren’t quite sure which part of it was going to open.” When closed, the booths appear as futuristic sculptures, their matte grey exteriors evoking the steel and stone of the city. During operation, the upper folds compress to reveal a simple, customizable interior accented with reddish-orange strips of metal. Make modeled the design in 3ds Max and MicroStation, then unwrapped the facade to a flat piece of paper to build a physical model. “What we found was it was very easy to be seduced by the computer, very easy for the computer to be too clever, to start twisting or distorting the surfaces,” said Affleck. “It was only when we were making [physical] models that we suddenly realized something was jamming, and that was really interesting.” Later, the designers built a full-scale mock-up out of cardboard and foam board. “That way we could really understand how it works,” explained Affleck. “It was also very helpful for the client: here it is, touch it.” The kiosks were tested and prefabricated at Entech Environmental Technology before being trucked to the site. The opening section of each kiosk is made of 2-millimeter-thick aluminum plate, while the rest of the body is a stainless steel derivative developed in-house. The key to the fabrication process, explained Affleck, was folding, pressing, and rolling the metal to form an integral hinge at either side, into which a stainless steel rod was inserted. Though the kiosk door is light enough to open and close manually, the designers installed a remote-control electric winch to avoid undue stress on the structure. Make’s kiosks made their debut at the Ice Sculpting Festival at Canary Wharf in January. At future events, the kiosks will take on a variety of uses, from coffee points to a DJ booth. “The idea is it’s flexible,” said Affleck. “It’s a space you can use in a variety of ways.”