The American-Made Solar Prize is a $3 million competition designed to revitalize solar manufacturing in the United States. Competitors may be entrepreneurial students, professors, small-business owners, company staffers, researchers at national laboratories, or anyone else based in the United States with a potentially marketable solar technology solution. This challenge requires competitors to make progress on a condensed timeline, form private-sector partnerships, and secure investments to make their ideas a reality.
On March 22, 2019, Round 2 of the American-Made Solar Prize was launched. To participate, competitors must identify a critical challenge related to American solar manufacturing competitiveness, create a proof of concept, and secure a partner to test a prototype. Competitors pitch their ideas at national demonstration day events, where a panel of expert reviewers evaluate the quality of their solution and the progress made during the contest period.
The second round of the Solar Prize ran concurrently with the first round, which ended September 24, 2019, at Solar Power International, where Round 3 of the Solar Prize was announced that day.
Twenty teams representing 14 states were selected to receive $50,000 in the first stage of the competition. Their concepts are grouped into three categories: photovoltaics, systems integration, and concentrating solar-thermal power.
American-Made Solar Prize Round 2 Semifinalists
Back-Contacted Silicon Modules at the Cost of Passivated Emitter and Rear Contact
Location: Tempe, AZ
Project Summary: This Arizona State University team is replacing high-cost copper back-sheets used in standard back-contacted silicon cells with lower-cost aluminum.
Locally Grown Power
Location: Claremont, CA
Project Summary: This team is working to eliminate heating and degradation of cells in a module to reduce the impact of shading and soiling on power output, and design a replicable micro-factory model to produce modules.
Cost-Effective Commercial Solar
Location: Mountain View, CA
Project Summary: Taka Solar will make an integrated solar panel and mount product for flat commercial rooftops that installs four times faster and weighs half as much as traditional installations.
Reliable, Low-Cost Passive Solar Tracker
Location: Oxon Hill, MD
Project Summary: This team is developing a low-cost, passive solar tracking system that consists coils made with two metals that move when exposed to sunlight.
Piranha Module Attachment System
Location: Norman, OK
Project Summary: This team is building a solar module attachment system with a spring-based clip that locks to secure the module while providing electrical bonding and wire management capabilities, which simplifies and lowers the cost of installation.
Continuous Silicon Wafer Production
Location: Pittsburgh, PA
Project Summary: This Carnegie Mellon University team is developing a low-cost manufacturing method for silicon wafers using a technique that involves melting the silicon, which floats as it solidifies, and slowly pulling a continuous, thin layer of it.
Dirt Control, Bifacial Reflect, Roads Replacement
Location: Austin, TX
Project Summary: This team is creating an eco-friendly, cost-effective road coating that controls dust and dirt on high-traffic roads near solar field installations to reduce dirt cover on panels, which lowers energy output.
Location: New Braunfels, TX
Project Summary: This team is transforming the patio paver into a sunlight-permeable, high-strength, composite concrete and resin paver that produces power and eliminates the need for additional mounting hardware.
Decorative Solar Tiles
Location: Herndon, VA
Project Summary: This team is designing front contact patterns on solar cells for visually appealing solar surfaces.
Location: Ashburn, VA
Project Summary: This team will develop a micro solar manufacturing system that cuts, assembles, and encapsulates small-scale solar panels for small electronics solutions.
Sunlight-Shaping Solar Panels
Location: Seattle, WA
Project Summary: This team is developing a cost-effective perovskite-based solar cell that will convert high-energy light photons into multiple lower energy photons, thereby increasing cell performance.
Critical Network Infrastructure Support
Location: Tucson, AZ
Project Summary: In partnership with the Tucson Department of Transportation, this team is developing a solar-powered system that provides backup power for pedestrian walk signals and other traffic and communications infrastructure.
Zitara Battery Analytics
Location: Oakland, CA
Project Summary: This team is using deep learning to provide battery analytics for grid and residential-scale storage systems tied to solar plants, to improve system safety and longevity.
Location: Ann Arbor, MI
Project Summary: This team is developing an integrated solar home system that will last 20 years without having to replace any components.
Optimized Solar Storage Solution
Location: Winston-Salem, NC
Project Summary: This team is developing a scalable residential battery management and charging system that enables efficient use of recycled automotive lithium-ion batteries coupled with a residential solar array.
Power Router for Distributing Solar in Communities
Location: Vestal, NY
Project Summary: This team is developing a device, and software to control it, that will enable higher penetration of solar on distribution feeders without costly infrastructure upgrades.
SIGUE: Smart Off-Grid PV Energy Management
Location: Hudson, OH
Project Summary: This team is developing a technology that smartly consumes energy produced by an off-grid (individual and microgrid) photovoltaic system and can be adapted to grid-connected homes.
>15kV Power Router DC Coupled Solar + Storage
Location: Georgetown, TX
Project Summary: This team is developing a power router to connect a medium-scale solar plant directly to the medium-voltage grid, eliminating equipment that is typically required and reducing costs.
A Self-Installable Energy Storage System
Location: Cody, WY
Project Summary: Orison is developing an in-home energy storage unit that plugs into a standard wall outlet and can be charged using solar energy.
CONCENTRATING SOLAR-THERMAL POWER
CSP Trans-Critical Water Desalination
Location: Pittsburgh, PA
Project Summary: This team is creating a high-temperature and -pressure trans-critical water purification system that uses heat from the sun to generate clean drinking water.
- The Ready! Contest opened on March 22, 2019 and closed on July 16, 2019.
- Semifinalists were announced on September 24, 2019.
- The Set! Contest opened September 24, 2019. Finalists will be determined at a demo day in early 2020. This will mark the beginning of the final Go! Contest period.
- The final winners will be determined at a demo day in late 2020.
- Visit the American-Made Solar Prize Round 2 webpage for details on the competition.
- Register to compete in the Solar Prize Round 3.
- Join the American-Made Network.
- Download the rules for the prize competition.
- Download the American-Made Solar Prize Fact Sheet.
- For questions about the Solar Prize, email email@example.com.