ITO glass, coated with indium-doped tin oxide film, is transparent and conductive, essential for perovskite modules. As third-generation PV tech, perovskites are efficient and low-cost. ITO acts as a support and conductive channel, boosting efficiency, reducing loss, and enabling stable long-term use, supporting perovskite mass production.

As a key product of the third-generation photovoltaic technology, perovskite transparent modules have distinct advantages. They balance 20%-50% customizable light transmittance with over 20% energy conversion efficiency. Prepared via low-temperature solution processes, they have lower production costs. Available in rigid and flexible types, they adapt to diverse scenarios like buildings and vehicles. They also block over 99% of UV rays, with green production, supporting energy conservation and carbon reduction in construction.

Solar drip glue panels have expanded applications from traditional outdoor lighting and small electronics to distributed PV, portable energy, BIPV, and special scenarios. The industry will advance toward high-performance materials, intelligent manufacturing, green products and diversified applications, with significant market growth potential. Customized demand is rising, and green environmental protection (e.g., bio-based resins, degradable encapsulation) will be the core direction, supported by policies. It will play a more important role in global energy transition.

The core application scenarios of two-component silicone adhesives are "structural bonding + long-term reliability requirements". They focus on core components of PV modules (such as frames and junction boxes) and connection parts between BIPV modules and building structures, making them particularly suitable for applications involving large-size modules, heavy loads, and extreme environments. Their selection must match module materials (glass, aluminum, backsheets), service environments (temperature, humidity, UV radiation), and mechanical requirements (bonding strength, displacement capacity). They are key materials ensuring the safe operation of PV modules and BIPV systems.

Perovskite PV modules have achieved a 22% mass production efficiency, on par with crystalline silicon modules. Single-junction and perovskite/crystalline silicon tandem technologies advance in parallel, with the latter’s R&D efficiency hitting 34.85%. China has built multiple GW/100MW-level production lines, with 50MW sales expected in 2025. Its low cost and flexibility suit BIPV, with 20GW global shipments projected by 2030.

In the critical period of PV modules transforming towards "higher efficiency, longer service life, and better scenario adaptation", the selection of solar ribbons has changed from "passive adaptation" to a core link of "active optimization". Enterprises with full-specification solar ribbon supply capabilities and customized services can help module enterprises establish a "battery technology - power target - application scenario" trinity selection system, fully unlock the performance potential of modules, and provide solid supply chain support for the goal of grid parity in the PV industry.

POE film is in a multi-driven cycle of technological breakthroughs, domestic substitution, and global expansion. In the future, it is necessary to focus on core technology R&D and supply chain independence, and address the competition from alternative materials and industry risks, in order to maintain a dominant position in the photovoltaic packaging material market.

Self-adhesive flexible solar modules offer key advantages: easy installation without brackets/drilling, cutting steps by 70% and boosting efficiency by 40%; adaptability to curved/irregular surfaces; lightweight (4-5kg/m²) for load-sensitive areas; reduced base material damage and waterproof risks; suitability for temporary/mobile use. Disadvantages include limited durability (affected by temperature/UV), high temperature sensitivity, hard maintenance/replacement, strict base material compatibility, and cost-performance conflicts.

Electrical connection materials are crucial components in photovoltaic (PV) modules for achieving current conduction, and their performance directly impacts the module's conductive efficiency, reliability, service life, and safety. The following analysis explores the specific impacts of core materials such as solder ribbons, busbars, and junction boxes on module performance :

Light transmittance serves as the critical differentiator between BIPV (Building-Integrated Photovoltaics) and conventional PV modules, directly governing the tripartite balance of architectural daylighting, aesthetic integration, and power generation efficiency. By 2025, cutting-edge technologies enable fully customizable transmittance (10%-70%), tailored to diverse application scenarios.