Stanford University, ZGF Architects, and landscape architects Office of Cheryl Barton (OCB) will soon break ground on the 35-acre Redwood City Campus, the first off-campus expansion for the Northern California-based university. The campus will be located about seven miles from Stanford’s flagship site and will eventually contain roughly 1.5 million square feet of office space, medical clinics, and research and development facilities. The University, according to an official website, aims to build up to 13 new structures housing up to 2,400 employees over the next few years. The project would both consolidate an existing constellation of satellite facilities and add new spaces and programs, as well. The overall scheme is being developed through a master plan approach via a document called the “Stanford in Redwood City Precise Plan.” The document outlines urban guidelines for the multi-block site, including regulations regarding general massing, scale, materiality, and maximum building heights. The plan relies on this set of rules, including maximum block-specific Floor-to-Area Ratios (FAR), to maximize the amount of planted, open spaces and pedestrian paths along the ground. The designers are hoping to create an even, contextual density. Furthermore, the plan aims to surround these open spaces with a highly-curated set of building types articulated in a variety of architectural styles. The project does not include a housing development component. Instead, the campus will primarily house non-academic university functions and offices, including spaces for the University’s Business Affairs and Human Resources office and Stanford University Libraries, among others. Phase I of the project—due to break ground May 17—will include 580,000 square feet of office space across four office buildings and will also include three amenity structures, two support services buildings, and a parking structure. The scheme is configured around a central greenway and contains 2.4 acres of public open space overall, including an oak tree-shaded transit plaza located at the center of the campus. OCB’s landscape design, which has to contend with a highly-compacted site containing alkaline soils and a high water table, is also rather water-savvy. The green areas within the project have been designed to collect and store rainwater and will make wide use of bioretention gardens that filter and hold runoff before ultimately allowing it to empty into the San Francisco Bay. The project’s open areas will also be irrigated with reclaimed water, which is typically more acidic than traditional water. In response, OCB has partnered with horticulturist Nelda Matheny to develop an “adaptive landscape” that can tolerate the area’s existing soils and survive the heavy use of reclaimed water. In a press release for the project, Cheryl Barton, principal at OCB said, “As the first major new construction project of this scale to adhere to current state legislation regarding the use of reclaimed water, the project presented an opportunity to leverage significant site constraints to embody the Stanford community ethos and create an extraordinary open campus workplace situated on a highly adaptive and resilient site primed for climate change.” The project team is aiming to complete phase I of the project by 2019.
Posts tagged with "Stanford University":
The David & Helen Gurley Brown Institute for Media Innovation is a busy hub of technology housed within a building from McKim, Mead & White’s late 19th-century campus plan for Columbia University. In subsequent years, the space, which occupies part of the eastern wing of the Pulitzer Building, was broken up into small offices. Marc Tsurumaki and his team at LTL Architects were hired to revamp the space for the Columbia branch of the institute, which is a collaboration between Columbia and Stanford Universities. Despite all of its high-tech screens, the institute’s facility really respects its history. Eleven double-height windows that had been partially blocked now bathe the room in natural light, although a scrim that covers the walls also serves as a shade to deflect daylight and prevent glare, a necessary consideration in a room that is always filled with people tapping away on laptops. Given the collaborative nature of the institute, the primary space was designed with flexibility in mind. It can host concerts, performances, workshops, seminars, and symposia, in addition to the more typical set-up that we saw today. Large walnut-topped tables are moveable but not easily moved – the architects allowed for flexibility, but only with intention. Although acoustical fabrics are used throughout (including hidden behind the scrim), additional nooks were carved out for greater intimacy. Small rooms dubbed “the garage” are nestled under the mezzanine level, which was located above the entrance to the institute to create an extended threshold opening up into the larger space. Niches along the northern wall of the room take advantage of its thick masonry construction. Waist-height walnut wainscoting gives the room a more human scale and links the niches to the larger space. The thick end-grain recycled walnut floor connects visually to the tables and wainscoting, and provides durability in an active setting. The scrim, which is suspended on a steel armature and hides HVAC and electrical systems, announces the institute’s purpose. Mark Hansen, director of Columbia’s branch of the institute told us that Mark Wigley, former dean of Columbia’s Graduate School of Architecture, Planning and Preservation, and currently a GSAPP professor, talks about the space as both a laboratory that facilitates the cross-pollination of ideas among fellows, as well as a physical center that refers to and reflects the institute’s mission. This agenda is reinforced at the entrance to the institute, where a solid plate aluminum installation incorporates mirrored glass to reflect the surroundings back into the display. This subtle mirroring plays with the relationship of new media to the historic building. Join us tomorrow for a tour of another historic building: the Cooper Hewitt, Smithsonian Design Museum.
Google has awarded an endowment worth half a million dollars to Carnegie Mellon University (CMU) to build a “living lab” for the search engine giant’s Open Web of Things (OWT) expedition. OWT envisions a world in which access to networked technology is mediated through internet-connected buildings and everyday objects—beyond the screen of a smartphone or computer device.
“A future where we work seamlessly with connected systems, services, devices, and ‘things’ to support work practices, education and daily interactions.” -in a statement by Google’s Open Web of Things.Carnegie Mellon’s enviable task is to become a testing ground for the cheap, ubiquitous sensors, integrated apps, and user-developed tools which Google sees as the key to an integrated machine future. If that sounds like mystical marketing copy, a recent project by CMU’s Human-Computer Interaction Institute sheds light on what a sensor-saturated “smart” city is capable of. The team headed by Anind K. Dey has created apps like Snap2It, which lets users connect to printers and other shared resources by taking photos of the device. Another application, Impromptu, offers relevant, temporary shared apps. For instance, if a sensor detects that you are waiting at a bus stop, you’ll likely be referred to a scheduling app. “The goal of our project will be nothing less than to radically enhance human-to-human and human-to-computer interaction through a large-scale deployment of the Internet of Things (IoT) that ensures privacy, accommodates new features over time, and enables people to readily design applications for their own use,” said Dey, lead investigator of the expedition and director of HCII. To create the living lab, the expedition will saturate the CMU campus with sensors and infrastructure, and recruit students and other campus members to create and use novel IoT apps. Dey plans on building tools that allow users to easily create their own IoT scripts. “An early milestone will include the development of our IoT app store, where any campus member and the larger research community will be able to develop and share an IoT script, action, multiple-sensor feed, or application easily and widely,” Dey said. “Because many novel IoT applications require a critical mass of sensors, CMU will use inexpensive sensors to add IoT capability to ‘dumb’ appliances and environments across the campus.” Researchers at CMU will work with Cornell, Stanford, and the University of Illinois at Urbana-Champaign to develop the project, code-named GIoTTo. The premise is that embedded sensors in buildings and everyday objects can be interwoven to create “smart” environments controlled and experienced through interoperable technologies.
According to Palo Alto Weekly, Stanford University will soon break ground on a new series of bike and walking trails around its campus designed by Page/BMS Design Group. The 3.4-mile "Perimeter Trail" will stretch along sections of El Camino Real, Junipero Serra Boulevard, and Stanford Avenue, providing new connections to local parks, schools, existing trails, and the nearby foothills. The project, being implemented by both Stanford and the city of Palo Alto, is being funded by a $4.5-million allocation from Santa Clara County. The scheme will both introduce new bike and walking paths (including green bike lanes in heavy traffic areas) and upgrade existing trails, sidewalks, and landscaping. According to Stanford, most of the trail is expected to be complete by this fall.
Video> Optical illusions come to life in Stanford designer's mesmerizing 3D-printed zoetrope sculptures
Nature’s algorithms reign supreme in a series of revolving 3D printed sculptures by designer-cum-artist John Edmark, also an adjunct lecturer at Stanford's Department of Art & Art History. The sculpture sits on a rotating base and animates when it is placed under a strobe light or filmed using a camera with extremely slow shutter speeds. Consisting of petals and cube-like geometric angles arranged at unique distances from the top-center, the sculpture creates an optical illusion whereby the 3D projections appear to seethe from the top down and back again. Herein lies the magic formula: what the viewer is actually seeing is each petal at graduated distances from the top center. The placement of each petal is in accordance with Fibonacci theory, a number pattern inherent in nature which determines everything from phyllotaxy (leaf order) to the whorls in our fingerprint. “The placement of the appendages is determined by the same method nature uses in pinecones and sunflowers,” Edmark is quoted as saying. A third variation of the sculpture resembles stacked hollow donuts perforated with holes, which moves like a coiling snake. In the video, the sculptures are spinning at 550 rotations per minute while being rotated at 24 frames per second with a shutter speed of 1/4000 per second. The rotation speed is synchronized with the camera’s frame rate so that one frame of video is captured every time the sculpture turns 137.5 degrees—the “golden angle” in science based on the golden ratio that leads to the formation of spiral patterns. Edmark created the designs as part of his role as artist in residence for Instructables, a popular DIY network that was bought by software giant Autodesk in 2011. The artist rendered the computer models using Rhino software with a scripting program called Python. They were then exported as files and printed using a Z-printer 450. The Blooming Zoetrope Sculptures can be ordered ready-made from 3D printing site Shapeways, but for science geeks or enterprising DIYers, Edmark has offered to share the files to print at home with those who contact him through Instructables.
In the wake of the completion of the $111.9 million Bing Concert Hall in January, Stanford University has kicked off construction on a new seven-story hospital as part of the ongoing renewal of its medical center. Designed by New York City–based Rafael Viñoly Architects, the facility features a modular layout that allows for incremental horizontal extensions to the building. This development strategy seamlessly merges with the low-rise campus. "This project represents an unprecedented endeavor in the hospital's successful 50-year history of healing humanity," said the ever-modest Viñoly in a statement. "By reinterpreting and updating the Stanford campus and the original hospital through a modular plan, it is poised to adapt to evolving medical technology while continuing to provide advanced care and treatment—in a healing environment unique to Stanford—to patients from surrounding communities and beyond." One of the largest developments currently underway on the San Francisco Peninsula, the new hospital will be open for patient care by 2018. The design is based around a universal modular building block measuring 120 feet by 120 feet, which was calculated to offer the best possible arrangement for numerous hospital roles, guaranteeing flexibility in adjusting to the constantly shifting needs of medical technology. The new building includes 368 private patient rooms with wall-to-wall windows that provide natural light and sweeping views, high-tech diagnostic and treatment rooms, and a Level 1 Trauma Center that triples the size of the existing Emergency Department. A 1,000-car parking structure and five gardens are part of the modular plan, which integrates open public spaces such as a glass-covered atrium and landscaped drop-off plaza. The hospital will be seismically isolated to protect occupants and the facility from catastrophic earthquakes.
One of the biggest projects on the San Francisco Peninsula is the upcoming $720 million Stanford Hospital. It will replace -- though not displace -- the hospital's current home, a three-story affair designed by Edward Durell Stone in 1959, which has a concrete brise-soleil and is very much a building of its time. The new structure, which Rafael Viñoly Architects is in charge of, looks more like a hotel than a hospital, and the design is an indication of what state-of-the-art healthcare facilities are emphasizing these days. Designed to maximize natural lighting in what is often a rather closed, oppressive environment, the Viñoly hospital features a checkerboard layout, in which buildings are interspersed with squares of open space. You can get the general idea through this 3D animation, which must set some sort of bar for fancy architectural renderings -- forget about abstract outlines of people, here are models energetically walking around the space and cars driving past. (The animation was produced by a San Francisco company called Transparent House.) However, what the animation doesn't really show you is the interior, which has an enormous central atrium, like many a high-end hotel. The first two floors of the hospital are where procedures take place (surgery, imaging, and emergency services). Above are clear glass cubes, which contain the patient rooms (with 368 beds). The glass cubes are perched on opaque bases that hide all the mechanical equipment of the hospital, and the rooms look out over the hospital's gardens, meditation spaces and courtyards. The first two floors and adjacent two-story parking garage will be covered by roof gardens, which will create a second ground plane above the street and give patients access to open space without them having to leave the hospital and deal with all the attendant security issues. The rooms themselves will have window walls, offering views of the surrounding campus and town to provide some distraction from the tedium of a hospital stay. There will be motorized blinds that track the sun and reduce heat gain (LEED certification is planned). "It is an unusual layout for a hospital," said Chan-li Lin, who heads up Viñoly's San Francisco office. "Most hospitals don’t devote this much space to public amenities, because they do not generate income. But at Stanford, the buildings and landscape are always somewhat integrated, and the courtyard idea is embedded into their very DNA, so we were able to get our client on board. When you go to a very large hospital, it is easy to become disoriented because these buildings generally have such a large floorplate. Hopefully, we are creating a more humane environment for treatment and healing, where you are always aware of the connection to the outdoors. " Stanford is part of the low-density suburbs between San Francisco and San Jose, and at seven floors (and 130 feet), the hospital will be the tallest building in the area (except for Hoover Tower, which is pencil-thin) -- which is yet another motivation for reducing the mass of the building. The architects are working with the L.A. firm Lee, Burkhart, Liu, for their specialized knowledge in healthcare design. Ground-breaking is planned for the fall of 2012, and the first phase, with 820,000 square feet, is anticipated to take four years to complete.
Stanford University has been commissioning a storm of new buildings, and it just opened the Li Ka Shing Center for Learning and Knowledge, the centerpiece for its med school. The $90.2 million project squeezes in a range of programs, including a mock operating theater for training purposes, a 350-seat conference hall, and the student center. Visually, the building needed to be the "greeter" for Stanford Medical School, which previously had no architectural focal point. San Francisco firm NBBJ went for a touch of the neoclassical, with a deep overhang anchored by columns. What's interesting here is how the architects grappled with the design guidelines of the university, which call for red roofs and limestone cladding to match the historic California Mission-style buildings of the main campus. Here, the fascia and underside of that overhang are actually covered in Trespa rainscreen panels, printed to look like mahogany or similarly dark wood. The architects were looking for a low-maintenance material to give them some natural texture. While it's definitely not the same effect as you'd get with real wood, it's a clever way to get "red" onto the roof. Also significant is how the medical school made a big symbolic gesture to its students by devoting the top floor--with some of the best views anywhere on campus--into a student lounge and fitness center. Only medical students and a few select faculty will be allowed to hang out on the patio (right under that big overhang) and jog on the treadmills overlooking those views. Now, if only the school could do something about the insane work shifts in medical residency.