Master advanced energy conversion technologies driving efficiency, grid stability, and performance across nuclear, renewable, and oil and gas operations.

Power conversion technologies are central to modern energy systems, integrating renewable generation and energy storage alongside nuclear and fossil sources. As technologies evolve and systems become more complex, engineers must understand both the fundamentals of power electronics and of synchronous machines to holistically understand the modern grid.
This course follows each major generation type (fossil, nuclear, and renewable) from its energy source to the grid, and covers the main technologies, trade-offs, and integration points along the way. Participants will gain practical insight into the standards, design considerations and engineering challenges involved in delivering reliable power conversion solutions to build a stable, reliable grid.
Key Topics Discussed;
Sources of U.S. grid generation and how each reaches the grid
Thermodynamic cycles and rotating machines in traditional generation
Inverter-based power conversion and the integration of renewable energy (including IEEE 1547 and IEEE 2800)
Grid inertia, synthetic inertia, and the role of energy storage

Principal I&C Engineer | Deep Fission
As Principal Instrumentation and Controls (I&C) Engineer at Deep Fission, John McClure brings 18 years of leadership in safety-critical power and control systems spanning nuclear power, oil and gas, and grid-connected renewable energy. His work centers on designing, deploying, and governing high-reliability instrumentation and electrical systems in environments where failure is not an option. John’s experience includes direct responsibility for nuclear reactor operations and the development of safety-critical electronics across multiple energy sectors. He began his career in the U.S. Navy’s nuclear propulsion program, establishing a strong foundation in nuclear operations, disciplined procedures, and high-reliability power systems. He later spent a decade in the oil and gas sector, where he led research and development of downhole electronics designed to operate in extreme pressure and temperature conditions, ultimately serving as Vice President of Engineering for an oilfield services company. In addition to nuclear and oil and gas work, John has led first-of-a-kind energy system deployments in the renewable sector, serving as Chief Engineer of a solar energy startup. In this role, he oversaw electrical power system design, operations, and business development for grid-connected utility projects, bridging technical execution with commercial outcomes. He is a named inventor on a patent related to downhole tools for oil and gas exploration, reflecting a sustained focus on innovation in harsh, high-consequence operating environments. John is a licensed Professional Engineer in Electrical Engineering, registered in California, Hawaii, and Texas. He holds a Bachelor of Science in Engineering Technology from the University of Houston and an MBA from Sam Houston State University. His background across defense, nuclear, fossil, and renewable energy systems brings a system-level perspective to instrumentation and control challenges at Deep Fission.
Professional development requirements vary by profession, country, and regulatory body. Before enrolling, review the course details and confirm that the content, learning format, and any listed credits meet your specific requirements. You are responsible for confirming eligibility with your regulator or professional association and keeping the records required for reporting.