flexiblefullpage
billboard
interstitial1
catfish1
Currently Reading

USC to debut new bioscience center next month

University Buildings

USC to debut new bioscience center next month

The building is designed to maximize recruitment and interaction of scientists and researchers.


By John Caulfield, Senior Editor | October 12, 2017

The 190,000-sf Michelson Center for Convergent Bioscience, which opens next month on the campus of the University of Southern California, will provide research and lab space for the Engineering, Arts & Sciences, and Medical schools. This is the largest building on campus, and its construction required more than 50,000 yards of soil to be exported, 4.5 million pounds of concrete and rebar for poured-in-place floors and walls, and 2,000-plus steel embeds for a suspended clean room plenum leel and exterior masonry. Image: USC

The University of Southern California (USC) has scheduled a November 1 dedication ceremony for the Michelson Center for Convergent Bioscience, which at 190,000 sf is the largest academic building on the university’s Pasadena campus.

The Center will provide lab and research facilities for USC’s engineering, arts & sciences, and medical schools. The goal of the Center, according to USC, is to “fast-track detection and cure of diseases by turning biological sciences into a quantitative and predictive science.”

Over several months following the dedication, 300 people will move in. And while only 58% of the lab space has been fitted out for specific use, the infrastructure is in place and the future costs have already been accounted for the eventual fitting out of the unoccupied space, whomever the user.

More important, Michelson is designed, engineered, and constructed with an eye toward space flexibility and the accommodation of whatever equipment might need to be installed in the future, according to Alton Parks, the senior project manager. The hope, too, is that the design provokes interdisciplinary interaction.

 

Glass walls surround the lab spaces within the Michelson Center, so that occupants can see what their coworkers are doing. The design goal is to encourage interdisciplinary “collision.” Image: USC

 

HOK is this project’s Executive Architect, Vanderweil Engineers its MEP/FP engineer, and DPR is GC. Construction costs were not disclosed, but in 2014 Dr. Gary K. Michelson—an orthopedic spinal surgeon who made his fortune developing implants, surgical procedures, and instruments—and his wife, Alya, donated $50 million to fund the Center.

The barbell-shaped building has labs at both ends. Right now, the engineering school takes up most of the lab space on the third and fourth floors of the building’s south end. But many of the Center’s unoccupied labs remain unfinished—literally no ceilings, just enough HVAC to meet code—so as not to hamstring any of the schools’ recruitment efforts.

“Fitouts are kind of a shell game, because you really don’t know who’s going to move in,” explained Parks.

Budget cutbacks did not impact the building’s infrastructure, said Parks, which includes 189 miles of wiring, 1 million pounds of ductwork, and is designed for a total of 80 fume hoods. 

The Center, which meets California’s Title 24 energy codes, includes an air-handling system that can deliver air over any area of the building, at whatever air-exchange rate is called for. The HVAC system also has the flexibility to service “the outer limits of machines themselves, to their maximum capacity forever,” said Parks.

The Center aggregates several departments that had been spread across campus, and is designed, said Parks, to encourage “collision” among different academic disciplines within the building.

“We needed to do something about silo-ing,” said Parks. So the central areas of the building include conferences rooms on the second and fourth floors. The third floor is dominated by a large central social space called “the living room” that has varied seating, huddle and meeting rooms, and a 22-ft-long community table in the middle. This central space is supported by a kitchen/pantry with refrigerators, vending machines, and sinks.

 

More than 250,000 bricks were used for the exterior facade of the Michelson Center, which also includes 312 exterior windows and doors. Image: USC

 

The goal, explained Parks, is to get people working within the building’s north and south wings to mingle and talk on a regular basis in the middle of the Center. There are lots of glass walls throughout, so people working in the building can see what’s going on along its north-south and east-west circulation axes. Interactive video screens adorn the west wall. “Monumental stairs” in front of the building’s entries are meant to stimulate human movement between floors.

Furniture can contribute to convergence, too, said Parks. Two people can work together at the rise-up desks throughout the building. And the Center is the first science building to install a new piece of furniture, designed by Herman Miller, which is kind of a pop-up office: The freestanding, conical module, stationed in the hallways, includes a round table, marker boards, and seating for four or five people. Its curved design dissipates sound.

“This furniture synchronizes with Michelson’s [convergent] intent,” said Parks.

Related Stories

| May 1, 2014

First look: Cal State San Marcos's posh student union complex

The new 89,000-sf University Student Union at CSUSM features a massive, open-air amphitheater, student activity center with a game lounge, rooftop garden and patio, and ballroom space.

| Apr 29, 2014

USGBC launches real-time green building data dashboard

The online data visualization resource highlights green building data for each state and Washington, D.C.

Smart Buildings | Apr 28, 2014

Cities Alive: Arup report examines latest trends in urban green spaces

From vertical farming to glowing trees (yes, glowing trees), Arup engineers imagine the future of green infrastructure in cities across the world.

| Apr 16, 2014

Upgrading windows: repair, refurbish, or retrofit [AIA course]

Building Teams must focus on a number of key decisions in order to arrive at the optimal solution: repair the windows in place, remove and refurbish them, or opt for full replacement.

| Apr 9, 2014

Steel decks: 11 tips for their proper use | BD+C

Building Teams have been using steel decks with proven success for 75 years. Building Design+Construction consulted with technical experts from the Steel Deck Institute and the deck manufacturing industry for their advice on how best to use steel decking.

| Apr 8, 2014

Science, engineering find common ground on the Northeastern University campus [slideshow]

The new Interdisciplinary Science and Engineering Building is designed to maximize potential of serendipitous meetings between researchers.

| Apr 2, 2014

8 tips for avoiding thermal bridges in window applications

Aligning thermal breaks and applying air barriers are among the top design and installation tricks recommended by building enclosure experts.

| Mar 26, 2014

Callison launches sustainable design tool with 84 proven strategies

Hybrid ventilation, nighttime cooling, and fuel cell technology are among the dozens of sustainable design techniques profiled by Callison on its new website, Matrix.Callison.com. 

| Mar 20, 2014

Common EIFS failures, and how to prevent them

Poor workmanship, impact damage, building movement, and incompatible or unsound substrate are among the major culprits of EIFS problems. 

| Mar 12, 2014

14 new ideas for doors and door hardware

From a high-tech classroom lockdown system to an impact-resistant wide-stile door line, BD+C editors present a collection of door and door hardware innovations. 

boombox1
boombox2
native1

More In Category




halfpage1

Most Popular Content

  1. 2021 Giants 400 Report
  2. Top 150 Architecture Firms for 2019
  3. 13 projects that represent the future of affordable housing
  4. Sagrada Familia completion date pushed back due to coronavirus
  5. Top 160 Architecture Firms 2021