Current Energy

The Remarkable Performance of Solar Panels in Colder Months

As winter blankets much of the country in cold, snow, and ice, the performance of solar panels might be a topic of curiosity. Contrary to common beliefs, the winter season presents an opportunity for solar panels to showcase their efficiency and resilience. In this blog post, we’ll delve into the fascinating world of solar technology and how advancements have elevated the performance of solar panels, making them a reliable source of energy even in the chilliest of months, whether you’re in sunny Socal or South Lake Tahoe!

The Cold Advantage

One might assume solar panels would struggle in cold temperatures, but the truth is quite the opposite. Solar panels have a temperature coefficient, which measures how much the solar cells’ efficiency changes with temperature. For the modern solar panels we use at Current Energy, the temperature coefficient is negative, meaning that as the temperature decreases, the efficiency of the solar cells tends to increase. 

Snow as a Friend, Not a Foe

For our Mammoth and Big Bear customers, snow-covered landscapes need not spell the end for solar energy generation. Snow’s white, reflective surface can be a boon for your solar panels. As the sun graces the winter sky, it reflects off the snow, providing an additional light source for the panels. Moreover, snow on solar panels melts or slides off, cleaning them and allowing them to resume their optimal electricity-generating state.

Technological Marvels

Modern solar panels are a testament to innovation, from enhanced materials to sophisticated manufacturing processes. Panels used by Current Energy boast higher efficiency ratings, ensuring that even during the shorter days of winter, they can convert a more significant percentage of sunlight into clean, renewable energy.

Brace yourself for a Seriously Scientific Sidenote on such technological marvels…

  • High-Efficiency Photovoltaic Cells
  • Anti-Reflective Coatings
    • Modern solar panels often feature anti-reflective coatings on the surface of the PV cells. These coatings minimize light reflection, ensuring the cells absorb more sunlight rather than being bounced back. This enhances overall light absorption and energy conversion.
  • Passivation Layers
    • Passivation layers are applied to the surface of solar cells to reduce surface recombination and enhance their efficiency. This involves depositing thin layers of materials like silicon nitride or aluminum oxide, which act as protective coatings, improving the cells’ response to light.
  • Screen Printing
    • Screen printing is a standard method used to apply metal contacts to the surface of solar cells. This process has become more refined, allowing for precise placement of contacts, reducing shading losses, and improving the overall electrical conductivity of the cells.
  • Improved Encapsulation Materials
    • Solar panels require effective encapsulation materials to protect them from environmental factors. Enhanced encapsulation materials, such as advanced polymers and tempered glass, provide better resistance to UV radiation, moisture, and temperature variations, prolonging the life of solar panels.

Far from being hindered by colder temperatures, the solar panels we use at Current Energy embrace the challenge, showcasing their efficiency, durability, and adaptability. If you have questions about your solar energy in the winter or want to learn how to start reducing your reliance on the grid, call Current Energy!

Scroll to Top