Our work in stationary power includes the deployment of clean electricity, which requires integration with a modernized grid infrastructure, and enhancements in energy efficiency as a direct influence on energy productivity and economic competitiveness.
A dynamic, multifaceted approach to systems-based research and development of nuclear energy and fuel cycle technologies
Energy Conversion Efficiency
Increasing the amount of electricity produced from a given thermal energy input.
This is a major objective for multiple RE sources (e.g., geothermal, photovoltaics [PV], concentrating solar power [CSP], wind). Major advances in energy conversion efficiency also have the potential for significant impact in traditional thermal energy source (e.g., nuclear, natural gas, coal) conversion to electricity.
We conduct research and development (R&D) in solar power, including photovoltaics and concentrating solar power, to strengthen the U.S. solar industry and improve the manufacturability, reliability, and cost competitiveness of solar energy technologies and systems.
Our Wind Energy Technologies program conducts applied research to increase the viability of wind technology by improving wind turbine and wind plant performance and reliability to reduce the cost of energy. Sandia specializes in wind-turbine blade design, manufacturing, reliability and wind plant performance.
The Water Power program includes marine hydrokinetic, conventional hydro, and offshore wind energy research efforts and heavily leverages high-performance computing, advanced materials and coatings, non-destructive inspection, complex systems simulation, and large-scale testing.
We are creating a thermal-to-electric power conversion technology in a configuration called the recompression closed Brayton cycle (RCBC) that uses supercritical carbon dioxide (sCO2) as the working fluid, rather than steam, thereby dramatically increasing conversion efficiency compared to the steam Rankine cycle.
Sandia envisions a world of interdependent and variable distributed systems that are optimized at multiple scales – including transmission – to maximize local resources in providing secure, resilient, and clean energy to all users at all times.
Enabling Energy Security through the Nuclear Enterprise
Sandia supports the safe, secure, reliable, and sustainable use of nuclear power worldwide through strengths in repository science, nonproliferation, safety and security, transportation, modeling, and system demonstrations
Sandia advises the U.S. Department of Energy in support of the Waste Isolation Pilot Plant (WIPP)—the world’s only licensed and operating deep geologic repository for transuranic nuclear waste disposal.
Also known as collectors, heliostats are large arrays of mirrors which collect and focus sunlight. In a concentrating solar power plant, the collectors focus sunlight on a centralized receiver. The receiver captures the heat, [...]
In October, Sandia National Laboratories will present two workshops on energy assurance and advanced microgrid design. The workshops, based on Sandia’s Energy Assurance and Advanced Microgrid Conceptual Design Course, will include background information, technical discussion, [...]
August 10th is the deadline to register for The Grid of the Future Workshop hosted by Sandia National Laboratories on August 22, 2018, in Albuquerque, NM. This one-day workshop will gather experts from various fields [...]
Could energy and security challenges in the Arctic help solve energy or security concerns nationwide? That is one of many questions that will be explored by international scientists, national labs, government agencies, and Arctic stakeholders [...]
The U.S. Department of Energy Solar Energy Technologies Office has awarded $72 million to projects advancing high-temperature concentrating solar power systems, including the falling-particle receiver system developed collaboratively at Sandia. Sandia’s continuously recirculating high-temperature falling-particle [...]