ÓÐÁϺÐ×ÓÊÓƵ

This project was carried out to advance the Technology Readiness Level of the Water Horse hydrokinetic power harvester from 5 to 7.

This project aims to determine the benefits and issues associated with integration of wave and other renewable energy sources into small grid systems.

This project supports infrastructure upgrades to the Tanana River Test Site, the river energy test site of the Pacific Marine Energy Center.

This project aims to develop new technical pathways to design economically competitive hydrokinetic turbines for tidal and river currents.

This project aims to restore the high penetration wind-diesel system and to simultaneously develop a real-world wind-diesel microgrid test bed for research in Kokhanok, ÓÐÁϺÐ×ÓÊÓƵ.

This project aims to characterize how well bifacial solar photovoltaic (PV) panels perform at high latitudes.

This project tracks the performance and cost of solar photovoltaic technology in ÓÐÁϺÐ×ÓÊÓƵ.

This project aims to better characterize the performance of solar photovoltaic (PV) arrays in high latitude and cold climates.

The project intends to develop and validate models to assess the dynamic response of converter-dominated power systems across multiple spatio-temporal scales.

This project identified a Grid Bridging System (GBS) that allows costly diesel generators to turn off for periods of time and the entire system to run on renewables to reduce fuel consumption and environment impacts in ÓÐÁϺÐ×ÓÊÓƵn communities.

This project addresses questions about land/sea interactions, biogeochemical and biological composition, seasonal dynamics and long-term changes within lagoons along the northern ÓÐÁϺÐ×ÓÊÓƵn Arctic coast.

As a member of the UNIFI, or Universal Interoperability for Grid-Forming Inverter Consortium, ACEP attempts to advance grid-forming inverter technologies and to help provide new guidance for effective and stable inverter operations.