Eric D. Sullivan

Eric D. Sullivan serves as a key procurement lead within the W072 Endist Pittsburgh office of the U.S. Army Corps of Engineers, overseeing the acquisition of critical civil infrastructure components for federal water resources projects. His role centers on managing contracts for the construction, rehabilitation, and modernization of dams, levees, locks, and associated hydraulic structures, ensuring compliance with federal engineering standards and national resilience goals. He specializes in complex, mission-critical acquisitions under the Department of the Army’s civil works program, typically handling fabricated metal components and structural systems essential to flood control and navigation infrastructure. Sullivan maintains a tightly focused contractor network, primarily partnering with MCKENZIE CONSTRUCTION & SITE DEVELOPMENT LLC and C. J. MAHAN CONSTRUCTION COMPANY, LLC, both of which have demonstrated consistent performance in delivering heavy civil structural elements. His procurement patterns reflect long-term, performance-based vendor relationships built on technical reliability and adherence to Army Corps specifications, with a preference for contractors experienced in marine and hydraulic construction environments. He maintains a 100% Total Small Business Set-Aside strategy across all procurements, fully aligning with FAR 19.5 to maximize opportunities for small businesses. This unwavering commitment ensures that small entities with specialized fabrication and construction capabilities are prioritized, reinforcing the Army’s socioeconomic goals while maintaining quality and compliance. Sullivan’s technical domain is exclusively centered on NAICS 332312—Fabricated Structural Metal Manufacturing—procuring custom-engineered steel components such as lock gates, spillway controls, floodgate assemblies, and reinforced structural frames. His expertise lies in specifying high-strength, corrosion-resistant metallurgical systems that meet U.S. Army Corps of Engineers design criteria for durability under extreme hydraulic loads and environmental exposure.