Antora Energy, Inc.

Arizona State University

Alliance for Sustainable Energy, LLC

Justin Briggs

David Bierman

Andrew Joseph Ponec

Tarun C Narayan

Myles Aaron Steiner

Richard R King

Sam Kortz

Emmett E Perl

Madhan Kumar Arulanandam

Eric James Tervo

Leah Y Kuritzky

A layered window in thermophotovoltaic (TPV) devices is disclosed herein. The device may include two or more front window layers, including an outer front window layer nearest the light source that is thin and highly doped and a lower doped inner front window layer nearest a TPV absorber layer. In some embodiments, there may be additional front window layers between the outer front window layer and the inner front window layer. In some embodiments, the TPV device also may include a front contact, a back contact, and other components.

Layered window in thermophotovoltaic devices

A thermal storage solution system is disclosed herein. The system includes an insulated container having a thermal storage medium, a heating element configured to heat the thermal storage medium, a heat receiving unit (e.g., thermophotovoltaic (TPV) heat engine, heat transfer fluid, an industrial process component) configured to convert heat into electric energy, and a mechanism configured to control a view factor between the thermal storage medium and the heat engine. In another embodiment, the system includes multiple thermal storage media as unit cells in a single enclosure or container with insulation between adjacent unit cells.

Systems for managing thermal energy within a thermal storage solution

A solid-state thermal battery system is disclosed herein. The system includes a stationary thermal storage medium that can be charged by adding heat to the thermal storage medium. Actuated heat engines can be utilized to discharge the solid-state thermal battery, converting the heat stored in the thermal storage medium into electricity. The heat engines are actuated in a manner that reduces thermal gradients in the thermal storage medium to increase the efficiency of the system. In one embodiment, the thermal storage medium is contained in a main chamber of an insulated container. The heat engines are stored, when idle, in an ancillary chamber adjacent to the main chamber and moved into the main chamber by an actuation system to begin discharging the solid-state thermal battery. The heat engines follow a path during discharge to dynamically move between regions of the thermal storage medium to reduce thermal gradients induced therein.

System and method for a solid-state thermal battery

Growing community of inventors

Oakland, CA, United States of America

Justin Briggs