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Amy Gutmann Hall, the tallest mass timber building in Philadelphia, is more than a structural achievement it is a living, breathing example of how thoughtful design can bridge the digital and natural worlds.

In the heart of the University of Pennsylvania鈥檚 urban campus, a new kind of academic building is reshaping expectations. Not just for what a data science facility can be, but for how architecture can embody sustainability, collaboration, and innovation.

This conversation brings together three key voices behind the design and delivery of Amy Gutmann Hall at the University of Pennsylvania. Stephen Curtis, principal and structural engineer, Rachel Modica, associate principal and multidisciplinary project manager for the project, and Sarah Sachs, partner and project principal. Together, they reflect on the collaborative process, the experience of building with mass timber in an urban context, and how Amy Gutmann Hall is redefining the future of data-driven learning environments.

Biophilia and engineering

The story of Amy Gutmann Hall begins with a bold design ambition. 鈥� was selected not just for their architectural prowess, but for their deep experience with mass timber and biophilic design,鈥� recalls Stephen Curtis. The project team, including , saw an opportunity to challenge the aesthetic typical of higher education engineering buildings and instead create a space that felt warm and natural.

鈥淧enn Engineering was really inspired by the dichotomy between the hard science of engineering and the warmth of biophilic design,鈥� adds Sarah Sachs. 鈥淭his contrast became a guiding principle.鈥�

Working with mass timber

Mass timber wasn鈥檛 a default choice, but it was a deliberate one. During early design phases, the team evaluated both steel and timber structural systems. Ultimately, mass timber won out for its environmental, aesthetic, and construction benefits.

Compared to steel, the timber structure reduced embodied carbon by nearly 50%. 鈥淎nd because the timber is exposed, it eliminates the need for additional finishes like drop ceilings,鈥� explains Rachel Modica. 鈥淭hat not only reduces material use but enhances the building鈥檚 visual identity.

The exposed timber also demanded a new level of design precision. 鈥淓very pipe, wire, and duct had to be coordinated early and carefully,鈥� says Sachs. 鈥淭here was nowhere to hide anything.鈥�

Urban innovation

Building in a dense city like Philadelphia came with challenges, but mass timber displayed unique advantages. The prefabricated nature of cross-laminated timber floor panels allowed for faster construction and earlier access for follow on trades. 鈥淎s soon as the deck panels are down, you can keep building,鈥� says Curtis. 鈥淭here鈥檚 no waiting for concrete to cure.鈥�

The team also worked closely with city authorities to navigate unfamiliar code requirements. 鈥淲e engaged the authority having jurisdiction early in the process,鈥� Curtis notes. 鈥淭hat proactive approach helped us avoid delays and build confidence in the design.鈥�

Designing for data, collaboration and the future

Amy Gutmann Hall is a hub for Penn鈥檚 data science and AI programs, and its design reflects the evolving nature of education and research. The building features a chilled beam mechanical system and an energy efficient solution that complements the timber structure and supports the lab-intensive program.

Inside, the architecture fosters transparency and connection. Glass partitions, open floor plans, and vertical sightlines create a sense of community. 鈥淚t鈥檚 a cultural shift,鈥� says Modica. 鈥淲e moved from isolated offices to a collaborative ecosystem.鈥�

The building also embraces its urban context. A generous southern fa莽ade floods the interior with daylight, while a green wall in the lobby and visible timber elements reinforce the connection to nature. 鈥淚t鈥檚 about creating a space where the digital and natural realms coexist,鈥� Sachs explains.

A catalyst for change

Amy Gutmann Hall is already influencing the broader design and academic communities. It鈥檚 a case study in sustainable construction, a teaching tool for Penn鈥檚 architecture students, and a model for future campus buildings. 鈥淚t鈥檚 inspiring the next generation of architects and engineers.鈥�

The timing couldn鈥檛 be better. As AI and data science reshape higher education, Amy Gutmann Hall provides a physical space that supports this transformation. 鈥淲e designed for the future,鈥� says Sachs. 鈥淎nd then the future arrived.鈥�

Collaboration at the core

The success of Amy Gutmann Hall is also a testament to the power of collaboration. 鈥淭his was our first project with Lake|Flato, and it worked because of a shared ethos,鈥� says Sachs. 鈥淲e all believed in high-performance, low-carbon design and also we trusted each other.鈥�

Curtis agrees: 鈥淓veryone brought experience, but everyone was also learning. That spirit of curiosity and cooperation is visible in every detail of the building.鈥�

Amy Gutmann Hall is a blueprint for what鈥檚 possible when architecture, engineering, and higher education align around a shared vision. It demonstrates that sustainability doesn鈥檛 have to come at the expense of performance, that beauty and utility can coexist, and that the spaces we build today can shape the way we learn, collaborate, and innovate tomorrow.

As universities across the country grapple with how to support rapidly evolving fields like data science and AI, Amy Gutmann Hall offers a powerful answer which is to build spaces that are flexible, future-ready, and fundamentally human.