Ithaca East Hill Substation

The Ithaca East Hill Substation replaces the College Town station, a 1960s-era concrete facility that no longer reflected the operational, wellness, and sustainability priorities of a modern fire department. In its place stands a 13,858-square-foot, two-story fire station designed to support emergency response, firefighter health and readiness, and the city’s ambitious climate action goals. Built for durability, adaptability, and long-term performance, the facility was conceived as a community asset capable of serving Ithaca while significantly reducing its environmental impact.

Located within an established residential neighborhood characterized by mature trees and historic homes, the station was carefully designed to balance operational demands with community context. The city sought a facility that would strengthen emergency response capabilities without overwhelming its surroundings. The resulting design reflects the scale and character of the neighborhood while providing the functionality, resilience, and preparedness expected of a modern public safety facility.

Operational efficiency guided planning decisions from the earliest stages of the project. Apparatus bays, apparatus support spaces, and primary living functions, including the kitchen, dining room, and day room, are located on the first floor to support rapid deployment and efficient movement throughout the station. Bunk rooms, fitness areas, offices, and training spaces occupy the second floor, creating a clear distinction between operational and residential functions while supporting firefighter recovery, collaboration, and preparedness.

Equally important was the protection of firefighter health. As awareness of occupational exposure risks continues to grow, the station incorporates a comprehensive contamination-control strategy designed to limit the migration of harmful particulates and carcinogens into occupied spaces. Turnout gear storage, apparatus bays, and decontamination areas are separated from living and administrative spaces through dedicated transition zones, controlled air-pressure relationships, and continuous exhaust systems serving hot-zone areas. Mechanical systems, material selections, and space planning work together to support daily decontamination practices and create a healthier environment for personnel working 24-hour shifts.

Training and professional development are integrated throughout the facility. A dedicated training room supports continuing education, departmental activities, and multi-agency coordination, ensuring personnel have access to the resources needed to maintain readiness in an increasingly complex emergency response environment. Integrated communications systems, emergency power, fire alarm infrastructure, and building automation technologies support daily operations while providing flexibility for future technological advances.

Sustainability was a defining project objective from the outset. To support the city’s climate action initiatives, the station was designed as a fully electric facility that operates without fossil-fuel-based building systems. Central to that strategy is a 32-ton ground-source geothermal heat pump system consisting of eight wells, each approximately 500 feet deep, connected by 4,500 feet of piping. The system provides heating, cooling, radiant floor heating, and domestic hot water generation while significantly reducing operational energy consumption. A highly insulated building envelope further enhances performance, with wall assemblies reaching R-23.5 in apparatus bay areas and R-28.8 in occupied spaces, while roof assemblies achieve R-38 and R-43, respectively.

The benefits of this approach are particularly evident within the apparatus bay. Rather than relying on conventional fossil-fuel-fired overhead heating equipment, the facility uses geothermal-powered radiant floor heating to provide consistent comfort in one of the station’s most energy-intensive spaces. Combined with high-efficiency heat-recovery ventilation and above-code insulation levels, these strategies are expected to improve energy performance by approximately 60% compared to conventional heating and cooling systems.

Multiple renewable energy and electrification strategies were evaluated during the design phase, including solar power and air-source heat pumps. Site conditions, extensive tree cover, and local climate considerations ultimately led to the selection of a ground-source geothermal system as the most effective long-term solution, balancing sustainability goals with the reliability required of a 24-hour emergency response operation.

Construction presented challenges of its own. Unforeseen subsurface conditions affected both sheet pile installation and geothermal well placement, requiring adjustments to construction sequencing and implementation strategies. The project’s delivery approach proved particularly valuable in navigating these conditions. In addition to providing design services, the project team also served as construction manager, maintaining continuity from planning and design through construction and occupancy. Through close collaboration with the city and construction partners, revised sequencing and groundwater management measures recovered approximately 75% of lost schedule time and kept the project moving forward.

The completed station brings together operational efficiency, firefighter wellness, sustainability, and neighborhood compatibility within a single facility. More than a replacement fire station, it demonstrates how public safety infrastructure can support emergency response, protect first responders’ health, advance community climate goals, and enhance the character of the neighborhood it serves.