The National Museum of Mathematics, known as MoMath, opened last month in Manhattan’s Chelsea neighborhood with 70 interactive exhibits on display—many of them employing technology that didn’t exist when the Beaux-Arts buildings the museum inhabits were constructed more than a century ago. Visitors pass through a historical frame to engage with the present and future of mathematical inquiry.
In addition to the inherent value of preserving materials and their embodied carbon, reuse enables design solutions that honor an existing building while ensuring it can be transformed or modified to meet a museum’s needs. We consider a building’s critical infrastructure and facade while exploring creative ways to expand or, in the case of MoMath, reshape space—without disturbing original architecture if the structure is historic. We guide clients through decision-making challenges related to sustainability, historic regulations and preservation, building-envelope best practices, and collection and exhibit materials to help them arrive at the best solution for their institution and building. We support a museum’s mission to celebrate culture and heritage by placing equal priority on the building it occupies.
Keeping or Replacing Mechanical Systems
One of the easiest scenarios with adaptive reuse projects is when we can replace a building’s existing infrastructure to meet the client’s new requirements. However, budget and schedule priorities can call for retaining systems if they are relatively new. This was the case with MoMath, which had outgrown its original Manhattan space and chosen a new location within two conjoined buildings in the Ladies’ Mile Historic District.

Framed glass walls in the museum’s gift shop echo the building’s original storefront scale.
The buildings’ large volumes and high ceilings were perfectly suited to a museum, yet they came with unique challenges. The mechanical system was in good shape, and keeping it in place was economical, but working around it required structural gymnastics to reinforce the floors and create new openings for the installation of heavy, technologically rich exhibits. The exhibits required more than 50 new structural steel plates, both embedded in the floor slab and suspended from the slab above, that had to circumvent existing beams, pipes, and ducts. To bring continuity to ceiling and floor planes, our team embedded mathematical elements at strategic locations within the architecture, creating a network of surfaces that enhance the museum’s mission as a space for pedagogical engagement.


