Blogs

Optimize solar LCOE with double-glass modules. This guide covers engineering, durability in harsh climates, and installation risks for developers. Read More

This summary briefly covers the highlights of the 19th SNEC PV+ 2026 in Shanghai. The PV industry presents five core trends: solar-storage integration, AI-enabled digital intelligence, scenario-based solutions, computing-power & power integration and global expansion. Major players unveiled new products and technologies targeting various application scenarios. The sector has evolved into a comprehensive system, requiring integrated capabilities to stay competitive. Read More

Optimize solar LCOE and bankability. Learn how to evaluate hardware, choose between standard and custom modules, and vet manufacturing partners. Read More

Compare monocrystalline and polycrystalline solar modules. Learn how spatial constraints, costs, and performance impact your commercial solar ROI. Read More

This article explains why solar panels are often referred to as the "blue ocean". Solar panels are mainly divided into polycrystalline (blue) and monocrystalline (black) types. Polycrystalline panels adopt the casting process; light scattering at grain boundaries and optical interference of anti-reflective coatings give them a blue hue. As an early photovoltaic technology, their power generation efficiency is generally below 18%. Monocrystalline panels are made via the Czochralski method with a neat crystal structure. Optimized production processes make them look deep black, and they have become mainstream since 2019 with an efficiency of over 23%. People can tell the two types apart by front-side colors, while the back of bifacial monocrystalline panels still appears blue due to the absence of textured surfaces. Read More

This article focuses on the four core structures of PV panel cells—grid lines, PAD points, MARK points, and forked notches. It elaborates on their respective definitions, structural characteristics, and core functions: grid lines serve as the "current collection and transmission network" to collect and transport photogenerated electrical energy; PAD points act as the "connection bridge" between cells and ribbons, enhancing conductivity and welding strength; MARK points function as the "positioning benchmark" for cell printing, ensuring the accuracy of grid line printing; forked notches are the "chip-resistant protection design" to avoid cell chipping and microcracks during processing. The article points out that these four tiny structures cooperate with each other, forming the foundation for the efficient and stable operation of PV cells, and reflects the importance of detailed design in the iteration of photovoltaic technology. Read More