flexiblefullpage
billboard
interstitial1
catfish1
Currently Reading

Washington University School of Medicine opens one of the world’s largest neuroscience research buildings

University Buildings

Washington University School of Medicine opens one of the world’s largest neuroscience research buildings

The $616 million Jeffrey T. Fort Neuroscience Research Building overcame pandemic-era challenges with early planning, prefabrication, and 3D modeling.


By Novid Parsi, Contributing Editor  | May 30, 2024
In St. Louis’ Cortex Innovation District, Washington University School of Medicine recently opened its new Jeffrey T. Fort Neuroscience Research Building. Photo courtesy McCarthy Building Companies
Photo courtesy McCarthy Building Companies

In St. Louis’ Cortex Innovation District, Washington University School of Medicine recently opened its new Jeffrey T. Fort Neuroscience Research Building.

Designed by CannonDesign and Perkins&Will, the 11-story, 609,000-sf facility is one of the largest neuroscience buildings in the world, according to a statement from McCarthy Building Companies, Inc., the project’s construction manager.

Intended to advance research in areas such as Alzheimer’s disease and brain tumors, the $616 million facility currently accommodates 1,000 faculty and staff members, including 95 research teams. In the future, additional space could be constructed to accommodate an additional 350 faculty and staff members, including about 145 research teams.

The project faced labor and supply chain challenges when construction started in spring 2020, at the beginning of the COVID-19 pandemic. Despite this, the project finished on budget and on schedule. McCarthy attributes this success to effective pre-project planning and the use of lean construction techniques.

“Early collaboration played a pivotal role in the success of this project,” Andy Poirot, vice president and project executive, McCarthy Building Companies, Inc., said in the statement. “We successfully realized the client’s vision, delivering a cutting-edge research facility poised to enhance lives for generations to come.”

Prefabrication and 3D modeling also helped the team overcome the project constraints. About 90% of the mechanical, electrical, and plumbing (MEP) systems were prefabricated and tested before installation onsite. Prefab components both improved quality and reduced the number of onsite professionals needed for MEP installation. The building’s façade, with a unitized curtain wall, also was prefabricated.

In addition to the research building, the facility features a parking structure with 1,846 vehicle spaces as well as bicycle racks and electric vehicle charging stations. A 1,000-ft elevated pedestrian connection spans 360 ft, connecting the new building to an existing parking garage and surrounding structures. The project also includes a two-story, 24,775-sf utility plant.

The project is designed to achieve LEED Gold certification.

On the Building Team:
Owner: Washington University School of Medicine 
Architect of record and structural engineer: CannonDesign
Design architect: Perkins&Will 
MEP engineer: Affiliated Engineers, Inc., with CannonDesign also on mechanicals
Construction manager: McCarthy Building Companies, Inc., partnered with Tarlton Corporation and KAI Enterprises

Related Stories

| Jun 18, 2014

Arup uses 3D printing to fabricate one-of-a-kind structural steel components

The firm's research shows that 3D printing has the potential to reduce costs, cut waste, and slash the carbon footprint of the construction sector.

| Jun 16, 2014

6 U.S. cities at the forefront of innovation districts

A new Brookings Institution study records the emergence of “competitive places that are also cool spaces.”

| Jun 12, 2014

Tod Williams Billie Tsien Architects' design selected for new UCSC facility

The planned site is a natural landscape among redwood trees with views over Monterey Bay, a site that the architects have called “one of the most beautiful they have ever worked on.”

| Jun 12, 2014

Austrian university develops 'inflatable' concrete dome method

Constructing a concrete dome is a costly process, but this may change soon. A team from the Vienna University of Technology has developed a method that allows concrete domes to form with the use of air and steel cables instead of expensive, timber supporting structures.

| Jun 11, 2014

5 ways Herman Miller's new office concept rethinks the traditional workplace

Today's technologies allow us to work anywhere. So why come to an office at all? Herman Miller has an answer.

| Jun 9, 2014

6 design strategies for integrating living and learning on campus

Higher education is rapidly evolving. As we use planning and design to help our clients navigate major shifts in culture, technology, and funding, it is essential to focus on strategies that help foster an education that is relevant after graduation. One way to promote relevance is to strengthen the bond between academic disciplines and the campus residential life experience. 

| May 29, 2014

7 cost-effective ways to make U.S. infrastructure more resilient

Moving critical elements to higher ground and designing for longer lifespans are just some of the ways cities and governments can make infrastructure more resilient to natural disasters and climate change, writes Richard Cavallaro, President of Skanska USA Civil.

Sponsored | | May 27, 2014

Grim Hall opens the door to fire safety with fire-rated ceramic glass

For the renovation of Lincoln University’s Grim Hall life sciences building into a state-of-the-art computer facility, Tevebaugh Associates worked to provide students and faculty with improved life safety protection. Updating the 1925-era facility's fire-rated doors was an important component of the project. 

| May 20, 2014

Kinetic Architecture: New book explores innovations in active façades

The book, co-authored by Arup's Russell Fortmeyer, illustrates the various ways architects, consultants, and engineers approach energy and comfort by manipulating air, water, and light through the layers of passive and active building envelope systems.

| May 19, 2014

What can architects learn from nature’s 3.8 billion years of experience?

In a new report, HOK and Biomimicry 3.8 partnered to study how lessons from the temperate broadleaf forest biome, which houses many of the world’s largest population centers, can inform the design of the built environment.

boombox1
boombox2
native1

More In Category


Great Solutions

41 Great Solutions for architects, engineers, and contractors

AI ChatBots, ambient computing, floating MRIs, low-carbon cement, sunshine on demand, next-generation top-down construction. These and 35 other innovations make up our 2024 Great Solutions Report, which highlights fresh ideas and innovations from leading architecture, engineering, and construction firms.



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