Residential towers are rising on the banks of the East River in Queens, Brooklyn, and Manhattan. It's easy to forget that, in the middle of the river, development at Cornell University's New York City campus on Roosevelt Island is speeding ahead. The Bridge at Cornell Tech, designed by Weiss/Manfredi, topped off Monday. That building will have a partial green roof and a photovoltaic array to produce energy for campus. Stepped lawns leading up to the entrance encourage the building's program of spontaneous social interaction to spill out onto the street. https://youtu.be/PFRIKri9Y_c Along with Cornell Tech phase one buildings, the Bridge is set to open summer 2017. When complete, the 12-acre campus on Roosevelt Island will be the home of hundreds of Cornell faculty and staff, and around 2,000 students. The master plan, executed by Skidmore, Owings & Merrill (SOM) with James Corner Field Operations, calls for a "river-to-river" campus with 2.5 acres of public space and ten buildings that perform to a high environmental standard. The video above gives a sense of scale and layout of the development. Phase one buildings include the Bloomberg Center, an open-plan academic facility designed by Thom Mayne of Morphosis Architects. The Center, which aims to be one of the largest net-zero energy buildings in the U.S., takes its design cues from the collaborative workspaces of Silicon Valley. Handel Architects designed a student, faculty, and staff residence with an ambition to become the world's first residential Passive House high-rise.
Posts tagged with "Cornell University":
As designers and builders around the world have, in recent years, embraced Passive House standards, one question has remained: will it scale? Is the Passive House approach to sustainable design suited only to small-scale ("house") projects, or might it be applied to other, larger, building types? Handel Architects has answered the latter question with a resounding yes in its Cornell University Residences, a 26-story tower for the institution's new Roosevelt Island Campus. When complete, the project will be the tallest and largest residential building in the world built to the strict Passive House code. Handel Architects' Gary Handel will deliver a keynote address on the challenges and opportunities represented by the Cornell University Residences at the Facades+AM DC symposium March 10. The building's prefabricated metal-panel building envelope is a key contributor to its overall energy-saving strategy. "The facade design is the 'passive driver' of the thermal performance of the building," explained Handel. "Higher thermal performance of the enclosure means less energy used to heat and cool the interior. This in turn means smaller, more efficient equipment to deliver the heat or cooling, which means lower energy input overall and thus a lower 'carbon footprint' than a conventionally enclosed building." The high performance facade, in other words, is the metaphorical substructure upon which the project's "active" systems are built. As with any cutting-edge endeavor, the project has not been without hiccups. "Implementation of the details has probably been the biggest challenge, as some of these details have never been implemented in a building of this size," said Handel. As an example, he cited the difficulty of installing sealing tape along portions of the facade interior that are obstructed by the building structure. In addition, explained Handel, "having the entire team—designers, suppliers, contractors—buy into the concept of a world class sustainable building and be committed to the goal has been a constant challenge." The overall experience has nonetheless been rewarding. "Designing solutions to challenges . . . has been part of the learning process we've undergone," concluded Handel. Hear more from Handel and other key players in the world of facade design and fabrication next month at Facades+ AM DC. See a complete symposium schedule and register today on the event website.
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.
The facade's stainless steel panels form a wave pattern, cutting down on glare and heat loads while representing the contribution computing has made to design.The recently completed Bill & Melinda Gates Hall at Cornell University in Ithaca, New York, combines the schools’ Computing Science and Information Science departments under one roof. Designed by Morphosis, the facility encourages spontaneous interactions between these two disciplines with common spaces for comingling and transparent partitions that allow views, and daylight, to pass from space to space. The building envelope, a unitized glass curtain wall system, is wrapped in a band of perforated stainless steel panels that forms a dynamic, angular wave pattern across the surface. In addition to creating a sense of movement across the exterior, it serves as a fitting symbol of the contribution that computing has had on the arts and sciences: The architects used advanced digital modeling tools to design the geometry, pattern, and details of this additive layer, and made it to function both as an aesthetic gesture as well as a performance enhancing element of the architecture. “The goal was to establish a consistent level of daylighting throughout the interior,” said Cory Brugger, director of design technology at Morphosis. “We maximized the exterior glazing to get the light coming through. The design of the screen reduces the amount of glare and heat gain and starts to help with the performance of the facade system itself.” Located between Cornell’s historic Barton Hall and Hoy Field, Gates Hall fits 100,000 square feet of program in fives stories on a site roughly 150 feet long by 80 feet wide. “It’s a fairly squat building with a large foot print,” said Brugger. “So what we wanted to do was find a way to give some break on the facade.” The metal screen forms a band that covers the second through fourth floors. The first and fifth floors are fully glazed. At the main entrance on the building’s west side there is a large cantilever covering an entry court with some indigenous plantings and sculptural precast concrete “rocks.” Here, the facade becomes an integral part the overall massing of building, breaking down proportions of footprint and creating a sense of motion, giving the sense that structure is coiled to pounce across the road. Morphosis specified a YKK YUW 750XT 4 sided SSG unitized curtain wall system outfitted with a Viracon VNE 24-63 double glazed insulated glass unit. Ithaca does have a heavy winter, and heating days predominate over cooling days for the facility. To optimize the daylight/insulation ratio, the architects intermixed fully glazed panels with insulated spandrel panels. “There’s an alternation between full glazing and spandrel panels that helped us balance the environment and meet our efficiency target,” said Brugger. “It’s not fully glazed everywhere.” The curtain wall’s aluminum mullions are reinforced with steel, giving them the necessary stiffness to support the screen system. Morphosis designed the screen system in its own proprietary software program and used Rhino with Grasshopper to do the visualization. To coordinate fabrication of the panels with Zahner in Kansas City, the architects worked with CATIA and Digital Project. Zahner fabricated the screen panels out of 316 stainless steel. There are 457 panels total, in 13 different types, that bolt back to the vertical mullions at one of three elevations. The perforated panels have an angel hair finish. “It’s a non-directional finish takes away most of the gloss of stainless steel and gives it a little more depth in reflectivity, kind of a clean, matte finish,” said Brugger. “It still has a certain luster and gloss, but it cuts down on glare.” W&W Glass installed the facade, first putting up the YKK curtain wall and then erecting the screen system in a second pass. “We couldn’t unitize the two systems because they’re quite large and differently sized,” said Brugger. “Each stainless panel takes up two curtain wall modules.” The curtain wall modules are 5 feet 9 inches wide, whereas the stainless panels are 10 to 12 feet wide. The panels are set at different angles across the facade depending on solar orientation, with those on the south face at the most obtuse angle to create the deepest ledge for shading. This variation around the building envelope creates visual interest and expresses the computational nature of the design.
[ Editor's Note: The following is a reader-submitted response to a recent Eavesdrop article, “OMA Gosh, What a Disaster!” It appeared as a letter to the editor in a recent print edition, AN02_02.12.2014. Opinions expressed in letters to the editor do not necessarily reflect the opinions or sentiments of the newspaper. AN welcomes reader letters, which could appear in our regional print editions. To share your opinion, please email email@example.com. ] The Architect’s Newspaper’s gossip column recently mentioned Cornell University’s Milstein Hall, quoting an online interview with Cornell Professor Jonathan Ochshorn. The column repeats a few shocking claims regarding our new addition, Milstein Hall. Readers of AN are no doubt wondering just how Cornell University managed to receive a building permit and a certificate of occupancy for Milstein Hall, what with its alleged monstrous conditions: an auditorium with only one means of egress, no properly rated area separations between connecting buildings, neglect of ADA requirements, and gross indifference to energy consumption. In the interest of full disclosure, I must confess that Cornell does not possess a secret formula for achieving any such gross violations of building safety or design integrity. Instead, I’m happy to report, the auditorium, fire separations, and accessibility were built in compliance with ADA and other codes and to the highest professional standards. Even a cursory review would show that we have not one but four exits from our auditorium; adequate fire barriers between fire areas as required by code; an ADA-compliant design as determined by City of Ithaca building officials and by ADA consultants; and innovative heating, cooling, and daylighting systems that conserve energy. The so-called fire safety issues were appealed by Professor Ochshorn to the state code review board last spring. The review board ruled against Ochshorn and upheld the code official’s interpretation in six of them. Of the two issues for which Ochshorn’s appeal was sustained, one has since been granted a variance. For the other, Cornell is still reviewing its options while using the space in the interim for a less demanding occupancy that is satisfactory to the code official. The opinion of one individual not withstanding, we are exceedingly proud of the exemplary architectural work that Rem Koolhaas and OMA have created for our students and faculty. Kent Kleinman, Gale and Ira Drukier Dean College of Architecture, Art and Planning Cornell University
Cornell architecture professor Jonathan Oschorn has taken Rem Koolhaas’ Milstein Hall—an expansion of the university’s architecture school—to task in a critique, calling it “by virtually any conceivable objective criterion, a disaster.” While Oschorn admitted that the building possesses great aesthetic interest, his quibbles lie in the project’s functionality. He calls out no less than seven fire safety issues, including that the auditorium only has a single means of egress and that there are no fire walls separating it from the existing buildings that it connects—Sibley and Rand halls. He takes the LEED system to task, wondering how in the world a building that makes nearly every no-no conceivable in terms of sustainability—such as terrible issues with thermal bridging and a form that maximizes envelope surface area for the floor area—could be awarded a Gold rating. He points out “non structural failure” items, such as a leaking curtain wall and roof, cracked concrete floors, and protruding objects that could be problematic for the visually impaired. Finally, he blasts the building’s lack of flexibility to adapt to future uses. Oschorn’s review, which is available online, makes for a scintillating read, but it hasn’t won him many friends in Ithaca. In an interview with Enoch Sears of thebusinessofarchitecture.com, he admitted, “The architects at Cornell who supervised the construction no longer talk to me.”
The stars are aligning for Cornell’s proposed technology campus on Roosevelt Island. The Morphosis-designed proposal has successfully made its way through New York City’s Uniform Land Use Review Procedures (ULURP), and recently won the support of Manhattan Community Board 8 and Manhattan Borough President Scott Stringer. Two remaining review processes are left, and if all goes well, Cornell will have the green light to start construction by 2014.
Manhattan Community Board 8 has approved the Cornell Tech Campus plans and launched it one step further in NYC’s public land use review process. The plan for the 12-acre site now moves forward exactly one year after Cornell University, in partnership with the Technion-Israel Institute of Technology, was selected by the City to develop the applied science and engineering campus. Eagerly anticipating the initiation of its “beta” class, Cornell Tech classes will begin in January of 2013 in Chelsea buildings that were provided to the school free of charge by Google while development of the campus continues. Pritzer Prize winning architect and design director at Morphosis Architects—Thomas Mayne—will be designing an academic building for the new campus along with other notable names such as Skidmore, Owings, and Merril and landscape architect James Corner of James Corner Field Operations. The new campus, which revealed updated renderings in October of this year, will encompass 2.1 million square feet of development, house approximately 2,000 full-time graduate students, and will boast a net-zero academic center that produces as much energy as it consumes. Full build-out is expected for 2037 with the first phase—covering 790,000 square feet of development—being completed in 2017. Applications for Cornell Tech’s M. Eng program are currently being accepted.
This morning Cornell University unveiled more detailed renderings of their NYC Tech campus on Roosevelt Island. The latest plans for the graduate campus include a five story eco-friendly academic center designed by Pritzker Prize winner Thom Mayne and a campus layout by Skidmore Owings & Merrill. The roomy organization of this campus hub brings to mind the vast, expansive interiors of Silicon Valley, putting a priority on shared communal space over isolated classrooms. The building will be entirely energy self-sufficient, utilizing solar panels, geothermal wells, and water turbines, according to Cornell. Cornell NYC Tech has already started to accept applications for the spring 2013 school year, despite a 2017 expected completion date for its first construction phase. In the mean time Google has offered up the school’s first students some spacious accommodation in their Chelsea NYC headquarters, which will be used as a temporary campus home.
And then there were six. Cornell University announced that six firms were selected from a field of 43 contenders to design their new tech campus on Roosevelt Island. SOM, the firm that pushed Cornell over the top in the national competition to build on Roosevelt is still in the running, alongside OMA (Office for Metropolitan Architecture) , Diller Scofidio + Renfro , Morphosis Architects , Steven Holl Architects , and Bohlin Cywinski Jackson. SOM will remain on the job to define an overall campus plan. The university is still running with its net-zero plan for the first core building. Residences and other multi-use buildings will follow. A contract with the winning firm is set to be signed in April.