Power Generation Engineer

The Power Generation Engineer is the deep specialist for keeping a critical site powered when the utility fails - the engineer who sizes, specifies, integrates, tests, and sustains the on-site generation plant. Core ownership is the generation system: the generator sets and their rating strategy (prime, standby, or continuous), the paralleling switchgear and load-sharing controls, the transfer scheme and how it interacts with the automatic and static transfer switches downstream, the fuel system that turns nameplate kilowatts into hours of runtime, the load-bank regime that proves the capacity is real, and the maintenance and reliability strategy that keeps a set that sits idle for months ready to start and carry load in ten seconds. This is an individual-contributor seat reporting to a Critical Facilities / Electrical Engineering Manager, with engineering ownership of the generation design and its sustainment and close partnership with the broader electrical, controls, commissioning, and operations functions. It is not the Electrical Engineer (EIT) doing broad early-career power-chain design under a PE (this seat is the generation specialty in depth, not breadth-early-career), not the Controls Engineer who owns facility-wide BMS / EPMS integration (this seat owns generation's own paralleling and transfer control strategy and hands the facility-wide integration across the seam), not the Commissioning Engineer who proves the installed plant with a load bank and an integrated systems test (this seat designs and specifies what commissioning then proves), and not the operations shift that runs and switches the plant day to day (this seat engineers the system; operations operates it). Performance is visible in whether the load rides through a utility failure without a bump, in proven generation capacity and redundancy, and in start-and-run reliability across real transfers - so better generation engineering produces measurable, auditable uptime. What separates great from average is engineering generation that actually catches the load on the worst day, not a set that looks right on the nameplate: a plant sized for the real step-and-block load and the transient of the transfer, not just the steady-state kilowatts; a paralleling and transfer scheme whose sequence of operations is specified so the sets synchronize, share load, and pick up the building the way it was drawn; a fuel system with the storage, polishing, and delivery to make the runtime target real; and a load-bank and maintenance regime that proves the capacity and keeps the set startable rather than assuming it. A mediocre engineer specs a big number off a catalog, never load-tests it, ignores the fuel and the permit, and is surprised when the set wet-stacks or the transfer drops the load; a great one engineers the whole generation chain - rating, transfer, fuel, proof, and sustainment - so the site rides through the failure it was built for.