In the field of new energy, the application of organic silicone adhesive to solar panels is mainly in the following ways:

Bonding of solar cells and backsheets 
        Organic silicone adhesive has good bonding performance and can firmly bond solar cells and backsheets together, ensuring that the cells will not shift or fall off during long-term use.
        Its excellent weather resistance enables the bonding area to maintain a stable bonding effect under various harsh outdoor environmental conditions such as high temperature, low temperature, ultraviolet radiation, and humidity, thereby prolonging the service life of solar panels.

Sealing and bonding between solar cells and frames
        Used to seal the gaps between solar cells and frames to prevent impurities such as moisture and dust from entering the interior of the solar panel and avoiding problems such as short circuits and corrosion of the cells, ensuring the normal power generation performance of the solar panel.
        The flexibility of organic silicone adhesive can buffer the external impacts on the solar panel during transportation, installation, and use, reducing damage to the cells caused by factors such as vibration and collision and enhancing the overall stability of the solar panel.

Bonding and potting of junction boxes
         It can firmly bond junction boxes to solar panels, ensuring reliable electrical connection between them and the cells. At the same time, it prevents the junction box from loosening or shifting during use, affecting power generation efficiency.
        Potting the interior of the junction box fills the gaps therein and protects the electrical components in the junction box from the influence of the external environment, such as waterproofing, moisture-proofing, dust-proofing, and corrosion prevention, improving the reliability and service life of the junction box.

Structural bonding of thin-film batteries and metal front rails
        For thin-film solar cells, organic silicone adhesive can achieve effective bonding with support structures such as metal front rails, enabling thin-film batteries to be stably fixed in corresponding positions and ensuring that they can work normally under different environmental conditions and exert photoelectric conversion functions.

As an encapsulation material
        With its high light transmittance, good weather resistance, and bonding properties, it is used as an encapsulation material for solar panels and directly covers the surface of the cells to form a transparent protective film. This not only protects the cells from erosion by the external environment but also improves the absorption and utilization efficiency of light by the cells and enhances the power generation performance of solar panels.