AB Smart Materials has developed a patent-pending smart hydrogel coating that passively cools photovoltaic panels by absorbing atmospheric moisture at night and releasing it through evaporation during the day, preventing overheating that can reduce energy generation by up to 25%. This solution enhances the efficiency and lifespan of solar panels without requiring maintenance or energy consumption, making it a cost-effective option for the solar energy market.
Funding
$90K raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Photovoltaic panels experience decreased efficiency and lifespan due to overheating, which can reduce energy generation by up to 25%. Traditional cooling methods often require energy consumption or regular maintenance, adding to the operational costs of solar energy systems.
Solution
AB Smart Materials offers a smart hydrogel coating designed to passively cool photovoltaic panels. The coating absorbs atmospheric moisture during nighttime hours and releases it through evaporation during the day. This process prevents overheating, thereby enhancing the efficiency and extending the lifespan of solar panels. The self-regulating nature of the coating eliminates the need for external energy input or manual maintenance, providing a cost-effective cooling solution for the solar energy market.
Target Audience
The primary target audience includes solar panel manufacturers, solar energy system installers, and operators of solar farms seeking to improve the performance and longevity of their photovoltaic assets.
Features
- Patent-pending smart hydrogel formulation optimized for passive cooling
- Self-regulating moisture absorption and evaporation cycle
- Applicable to a wide range of photovoltaic panel types and sizes
- Durable coating designed to withstand environmental conditions
- Enhances energy generation by mitigating thermal losses
- Extends panel lifespan by reducing heat-induced degradation