Views: 0 Author: Site Editor Publish Time: 2026-07-14 Origin: Site
Against the backdrop of in-depth global energy restructuring and the further implementation of China’s dual-carbon strategy, photovoltaic (PV) power generation has become a core energy source supporting the construction of a new power system by virtue of its clean, low-carbon, safe, controllable and highly adaptable characteristics. It also serves as an important component of China’s strategic emerging industries. After more than a decade of industrial accumulation and market-oriented refinement, China’s PV industry has established a globally leading full industrial chain, achieving a transformative shift from scale expansion and policy dependence to independent marketization and high-quality development. As a critical year for in-depth industrial structural adjustment, 2026 marks the end of the extensive growth model and ushers in a new development stage featuring accelerated technological iteration, optimized production capacity structure, upgraded application scenarios, and reconstructed value systems. Based on the current development status of the PV industry, this paper systematically analyzes its industrial pattern, technological transformation, application innovation and development bottlenecks, and explores the high-quality development path of the industry.
China has built the world’s most complete and well-supported closed-loop PV industrial chain, covering the whole process of high-purity silicon material, silicon wafer, solar cell and module manufacturing, auxiliary material supporting, as well as PV station design, construction and operation and maintenance. Its production capacity, technological level and product export volume rank first globally, dominating the global PV industry. Through years of process optimization and large-scale mass production, the levelized cost of electricity (LCOE) of PV power generation has declined steadily in a stepwise manner. The industry has fully realized grid parity, completely got rid of reliance on financial subsidies, and become one of the most economical and widely applied renewable energy sources.
In terms of market layout, China’s PV applications have formed a mature coordinated pattern of centralized and distributed power generation. Large-scale desert PV bases rely on land resource advantages in western China to provide basic clean energy supply for the power grid and support regional green energy replacement. Distributed PV is mainly deployed in industrial and commercial parks, urban and rural building roofs, agricultural and forestry lands, improving energy utilization efficiency through on-site power generation and local consumption. The dual layout complements each other, realizing the intensive utilization of land resources and large-scale supply of clean energy.
Currently, the industry is in a critical cycle of capacity clearance and structural restructuring. The rapid capacity expansion of the entire industrial chain in the early stage has led to phased overcapacity, prominent homogeneous capacity aggregation and vicious low-price competition, making the extensive scale expansion model unsustainable. The periodic slowdown in domestic new installed capacity is a normal market clearance behavior for de-bubbling, capacity optimization and structural adjustment, rather than shrinking terminal demand. Rising global demands for energy independence, expanding overseas emerging markets, and the booming domestic new business forms such as green power trading and integrated source-grid-load-storage systems have consolidated the long-term and stable demand foundation for the industry.
Technological innovation is the core driving force for the PV industry to cross industrial cycles and achieve long-term development, as well as the key to escaping low-price competition and moving toward high-quality growth. In recent years, the PV battery technology system has completed systematic iteration. Traditional inefficient P-type batteries have gradually withdrawn from the mainstream mass production market, while high-efficiency N-type battery technologies have achieved large-scale industrialization and market popularization.
At present, TOPCon, HJT and BC batteries have become the mainstream mass production directions, with the mainstream mass production photoelectric conversion efficiency steadily exceeding 25%. Compared with traditional P-type batteries, N-type batteries have achieved all-round improvements in key performances such as high-temperature stability, low attenuation characteristics and power generation gain, effectively reducing the full-cycle LCOE. Among them, BC batteries have become the preferred technical route for high-end distributed PV scenarios due to their zero shading, high efficiency and long service life, with continuously rising market penetration.
In the field of cutting-edge technologies, next-generation PV technologies including perovskite single-junction batteries and silicon-based tandem batteries have achieved continuous breakthroughs in laboratory and pilot tests, constantly refreshing the world record of photoelectric conversion efficiency and breaking the efficiency limit of traditional crystalline silicon batteries, providing sufficient technical reserves for long-term industrial cost reduction and efficiency improvement. Meanwhile, the popularization and application of supporting technologies such as lightweight modules, intelligent tracking brackets, digital operation and maintenance platforms, and intelligent monitoring systems have realized the coordinated upgrading of PV equipment and system operation, significantly improving the power generation efficiency, operational safety and refined management level of PV stations, and further strengthening the comprehensive economic advantages of PV power generation.
With technological maturity and market iteration, the PV industry has broken away from the traditional single power generation positioning. Relying on the cross-border integration model of “PV+”, it has realized diversified and three-dimensional upgrading of application scenarios, driving the transformation from single equipment manufacturing to comprehensive energy solution services.
Centralized PV bases continue to achieve quality upgrading, evolving from single power generation stations to integrated wind-solar-storage energy bases. Equipped with energy storage systems, they effectively suppress the intermittency and volatility of PV power generation, improve new energy consumption capacity and grid peak shaving capability, and meet the stable operation requirements of the new power system. Industrial and commercial distributed PV has become a core carrier for enterprises to save energy, reduce carbon emissions and cut costs. Through self-consumption and surplus power grid feeding, it reduces corporate power consumption costs, helps enterprises complete carbon emission reduction indicators and accumulate carbon assets, and supports the green transformation of the industry.
In addition, integrated models such as “PV+agriculture”, “PV+fishery” and “PV+transportation” have been rapidly implemented, realizing the efficient composite utilization of land, water space and spatial resources. These models balance economic, ecological and social benefits and effectively solve the construction land bottleneck of new energy projects. The popularization of new formats including PV-energy storage coordination and source-grid-load-storage linkage further upgrades PV power generation from single energy supply to intelligent, coordinated and integrated energy services, continuously expanding the industrial development boundary.
Possessing ecological, industrial and social values, the PV industry acts as a core industrial carrier connecting energy security, ecological protection and economic transformation and upgrading. Ecologically, the large-scale promotion of PV power generation can effectively replace fossil energy consumption, significantly reduce carbon emissions and air pollutant emissions, and alleviate ecological pressure caused by fossil energy consumption, serving as a key measure to implement the dual-carbon goals and promote ecological governance.
Industrially, the PV full industrial chain covers high-end manufacturing, engineering construction, operation and maintenance services, and supporting supply chains, with strong industrial driving force and high employment capacity. It continuously promotes the landing of high-end production capacity, stabilizes employment, and empowers the upgrading of regional green economy. In particular, it facilitates the high-quality development of rural new energy industries and provides solid support for rural revitalization and regional industrial transformation.
From the perspective of energy strategy, the large-scale application of PV power generation optimizes the domestic energy consumption structure, reduces external dependence on fossil fuels, enhances national energy autonomy and controllability, consolidates the energy security barrier, and provides core support for the green and low-carbon transformation of China’s energy system.
The underlying development logic of the PV industry has undergone fundamental changes. Scale competition and price competition have faded out completely, while technological innovation, quality upgrading, refined operation and comprehensive services have become core industrial competitiveness. With the deepening of market-oriented reshuffling, industrial resources are accelerating to gather in leading enterprises with core technologies, high-quality production capacity, global layout and comprehensive service capabilities, highlighting the trend of industrial intensification and standardized development.
In the future, the PV industry will take technological innovation as the core engine to accelerate the full popularization of N-type technologies and the industrialization of cutting-edge technologies, and continuously tap the potential of cost reduction and efficiency improvement. Taking scenario innovation as an important starting point, it will further enrich “PV+” integrated business forms, improve the PV-energy storage integration system, and adapt to the construction needs of the new power system. Guided by standardized development, the industry will continuously optimize the competitive order and realize an overall upgrade from scale leadership to quality, benefit and technology leadership.
Supported by the deepening global energy transition, steady advancement of domestic dual-carbon strategies and expanding demand for green power, China’s PV industry will continuously break through development bottlenecks and improve the industrial ecosystem. With a high-end, refined, intelligent and green development posture, it will continuously inject core momentum into global energy transformation, national energy security and the high-quality development of the green economy.
