“Through the integration of advanced energy-saving strategies, 100% of energy for all end-uses will be supplied using renewable energy with an excess of power, which is anticipated to be used for the 140 onsite EV chargers,” says Ted Hyman, partner at ZGF Architects, the lead design firm. Those strategies include a high-performance building envelope; adiabatic humidifiers; self-shading, extensive use of skylights for daylighting and daylighting harvest control; and chilled beams, part of a system allowing ventilation “to be focused on flowing fresh air through the facility,” he says. “Decoupling ventilation from heating and cooling leads to an immediate reduction in energy use.” 

Rainwater is collected and used as the sole irrigation source for the native, drought-resistant plants and landscaping that comprises 25% of the campus, while condensate captured from air handling units is also recycled.

Photo by Connie Zhou

The team used local, recycled materials with minimal global warming potential where possible during construction, resulting in recycled materials making up 87% of total materials costs. A life cycle assessment performed on concrete, rebar, steel and aluminum showed a 10% CO₂ reduction achieved, for example, through decisions like using high SCM/low cement mixes to reduce embodied carbon in concrete.

Civil facets include the world’s largest climate-focused public art collection.

Energy generated in test cells is captured for direct use or storage within the facility’s battery system.
Photo by Connie Zhou