Views: 0 Author: Site Editor Publish Time: 2026-07-13 Origin: Site
As a core pillar of the global new energy industry, China’s photovoltaic (PV) sector has undergone more than a decade of rapid development, achieving a historic leap from technological follower to global leader and from capacity shortage to scale superiority, underpinning half of the world’s clean energy transition. Entering 2026, the PV industry has bid farewell to the previous era of blind large-scale expansion and scale-oriented growth, stepping into a critical period of structural transformation. While short-term growing pains including slowing installed capacity growth, industrial chain overcapacity and intensified market competition persist, positive momentum from accelerated technological iteration, favorable policy dividends and upgraded application scenarios continues to unfold. The industry has officially entered a new high-quality development stage featured by quality prioritized over quantity, survival of the fittest, and efficiency improvement.
The year 2026 marks a landmark turning point for the PV industry since grid parity, fundamentally reshaping its growth logic. For years, China’s newly installed PV capacity maintained double-digit high growth, driven by the intensive commissioning of large-scale wind and solar bases and rapid industrial capacity expansion, setting new industry scale records year after year. However, 2026 witnesses the first systematic slowdown in growth. Statistics show that China’s newly installed PV capacity dropped sharply by 31.3% year-on-year in the first quarter of 2026, and the growth momentum remained weak from January to May. The traditional peak installation season in the second quarter vanished completely, breaking the industry’s long-term growth inertia.
The slowdown in short-term installed capacity does not reflect shrinking market demand, but results from overlapping phased factors. On the one hand, the massive launch and operation of large-scale wind and solar bases across China in 2025 created a high base effect, putting pressure on year-on-year data in 2026. On the other hand, the aggressive capacity expansion across all industrial chain links in previous years has led to overcapacity in silicon materials, silicon wafers, solar cells and modules. Fierce price wars have pushed the industry into a profound capacity elimination cycle, phasing out small-scale and inefficient production capacity.
Nevertheless, the global PV market remains resilient. According to the International Energy Agency (IEA), global newly installed PV capacity is expected to stay at a high level of around 580GW in 2026, hitting a new historical record for six consecutive years with a year-on-year growth rate of over 16%. Strong overseas market demand continues to provide a broad export space for China’s PV products, confirming the long-term value of PV as a mainstream new energy track.
Against the backdrop of overall growth adjustment, profound structural restructuring is taking place in the PV market. The industry’s development focus has fully shifted from traditional large-scale centralized power stations to industrial, commercial and residential distributed PV tracks, completely rewriting the industry’s competition rules. In the past, competition centered on land acquisition, indicator approval and capacity expansion. Today, core competitive advantages lie in power consumption accommodation capacity, refined operation capabilities and comprehensive investment returns.
Policy dividends have fueled the explosive growth of distributed PV. The new regulations on distributed power grid connection, officially implemented in June 2026, abolished the previous rigid 80% transformer load rate limit and adopted a dynamic evaluation mechanism, greatly lowering the grid connection threshold for distributed PV. It is estimated that the new policy will unlock over 50GW of additional distributed PV installation potential, activating installation demand in scattered scenarios such as industrial and commercial factories, industrial parks and urban and rural buildings.
Currently, distributed PV has surpassed centralized power stations to become the core pillar of China’s newly installed PV capacity. Compared with large-scale base projects, distributed PV features flexible investment, on-site power consumption, stable returns and wide scenario adaptability, perfectly matching the development needs of distributed energy storage and local power supply under the new power system. The market transition has also driven traditional PV equipment manufacturers to transform into comprehensive energy service providers integrating equipment supply, operation and maintenance, and energy efficiency management, continuously improving industrial added value.
While capacity elimination and pattern restructuring dominate the industry’s short-term adjustments, technological iteration serves as the core driving force for the PV industry to break through cycles and achieve long-term growth. In 2026, intensified technological competition has ended the era of extensive capacity expansion, pushing the industry into a refined development stage focused on efficiency improvement, cost reduction and technological upgrading.
N-type cell technologies have been fully popularized and become the mainstream of mass production. While TOPCon and HJT technologies are widely applied, Back Contact (BC) cells have emerged rapidly as a core breakthrough for industrial technological upgrading. Authoritative industry data shows that the mass production efficiency of BC modules from leading enterprises has exceeded 25% in 2026, constantly refreshing mass production efficiency records. Compared with traditional P-type cells, BC cells achieve significant improvements in photoelectric conversion efficiency, high-temperature stability and attenuation performance, effectively reducing levelized cost of electricity (LCOE). With maturing production processes and rising yield rates, BC cells are rapidly replacing outdated capacity, driving an overall upgrade of the PV industry’s technological level.
In addition, continuous optimization of PV system technologies, including lightweight modules, intelligent tracking brackets and digital operation and maintenance systems, has further improved the power generation efficiency and operational safety of PV power stations. Industry forecasts indicate that the conversion efficiency of mainstream PV cells will exceed 26% in 2026. Sustained technological progress continues to lower PV power generation costs, consolidating PV’s position as the most cost-effective clean energy source.
In the short term, the PV industry faces cyclic pressures including slowing installed capacity growth, overcapacity and declining profitability, with intensified industrial reshuffling and accelerated elimination of inefficient capacity. However, from a long-term perspective, this profound adjustment is by no means an industrial winter, but an inevitable transformation process for the PV industry to shift from scale expansion to high-quality development, as well as a critical stage for de-bubbling, structural optimization and quality upgrading.
At the policy level, China’s 15th Five-Year Plan continues to increase support for non-fossil energy development. The steady advancement of the dual-carbon strategy and accelerated construction of the new power system have laid a solid policy foundation for the long-term development of the PV industry. At the supply and demand level, the global energy transition trend remains unchanged, with emerging overseas markets booming and domestic distributed market space continuously expanding, sustaining the long-term growth momentum of PV demand. At the industrial level, capacity elimination will accelerate industrial resource integration. Leading enterprises will further increase market share relying on advantages in technology, production capacity, channels and capital, promoting a more standardized and intensive industrial development pattern.
In the future, the industry’s core competitiveness will completely shift away from low-cost capacity, focusing on four major dimensions: technological innovation, scenario adaptation, refined operation and global layout. The continuous implementation of integrated PV application scenarios including PV+energy storage, PV+agriculture and PV+transportation will further expand the boundary of PV applications and activate new industrial growth drivers.
Market reshuffling screens out inferior players and reshapes industrial patterns. The PV industry is undergoing profound self-innovation in 2026. Short-term cyclic growing pains eliminate extensive development models, backward inefficient capacity and homogeneous low-price competition, retaining high-quality capacity and enterprises with advanced technology, efficient operation and strong market adaptability. Having abandoned the impetuosity of blind expansion, China’s PV industry, empowered by technology, supported by the market and guided by policies, is stepping out of the cyclical downturn and embracing a new stage of higher-quality, more sustainable and innovative development, continuously injecting robust green momentum into global carbon neutrality goals and energy structure transformation.
