Latest Industry News on Photovoltaic Mounting Systems in 2026

Photovoltaic mounting structures are specialized structural systems that support photovoltaic power-generation modules and constitute one of the core ancillary components of a photovoltaic power plant. As a core product category in the upstream supply chain of the photovoltaic industry for 2026, several support policies and breakthroughs in technology recently announced by industry associations have been steadily implemented, ushering in a new phase of growth for the entire sector.

Latest Policy Trends in the Photovoltaic Mounting Bracket Industry in 2026

In 2026, a series of industry standards and subsidy guidelines for photovoltaic mounting systems were rolled out, directly driving the entire sector toward standardization and higher quality. Industry insiders widely believe that these new policies will sharply weed out small manufacturers that fail to meet safety standards, further boosting the market share of leading, high‑quality companies.

Requirements for the Implementation of New Safety Regulations on Supporting Components of Photovoltaic Power Plants

The 2026 revised Design Code for Photovoltaic Power Plants has officially come into effect, setting forth clear mandatory requirements for the wind‑resistance class, corrosion‑protection lifespan, and load‑testing standards of photovoltaic mounting structures. All photovoltaic mounting systems used in grid‑connected projects must undergo comprehensive parameter testing by an independent, authoritative third‑party certification body; products that fail to meet these requirements shall not be eligible for inclusion in the grid‑connection application process.

Detailed Rules on Subsidy Preferences for Distributed Photovoltaic Systems

In the detailed subsidy guidelines for distributed photovoltaic systems issued across many regions nationwide, it is explicitly stated that residential and commercial‑industrial PV projects utilizing new‑generation, high‑strength PV mounting structures are eligible for an additional ancillary subsidy of RMB 0.02 per watt. This measure further incentivizes project owners to select high‑quality PV mounting products that meet stricter regulatory standards and offer longer service lives, thereby driving upgrades and technological advancement throughout the industry.

Latest advancements in the mainstream technological evolution of photovoltaic mounting systems

In 2026, the pace of material and process‑technology innovation in the photovoltaic mounting‑structure sector has accelerated markedly. Several technologies that were previously confined to the laboratory stage have now been scaled up for mass production, reducing manufacturing costs while further enhancing the overall performance of the products.

Widespread adoption of a new magnesium–aluminum–zinc coating process

Traditional carbon‑steel PV mounting structures typically rely on hot‑dip galvanizing for corrosion protection. By 2026, a new magnesium–aluminum–zinc alloy coating process will begin to see widespread adoption, delivering more than a 60% improvement in corrosion resistance at the same coating thickness. In challenging environments such as coastal areas with high salt‑mist exposure or western regions prone to severe wind and sand, service life can be extended to up to 30 years, meeting the requirements of photovoltaic power plants with a full lifecycle of 25 years or longer.

Smart Control Technology Upgrade for Tracking Photovoltaic Mounting Systems

The next-generation dual-axis tracking photovoltaic racking system is equipped with an AI‑driven dynamic tilt‑angle adjustment feature that automatically optimizes the array’s orientation based on real-time solar irradiance, wind speed, and weather alerts. Compared with conventional fixed‑tilt PV systems, it can boost power generation by 18% to 25%, and its penetration rate in utility‑scale solar farms has now reached approximately 22%.

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A supporting components research report released in 2026 by the China Photovoltaic Industry Association indicates that, following technological upgrades, next-generation photovoltaic mounting systems can boost the overall rate of return of solar power plants by more than 1.2 percentage points.

Analysis of Changes in the Supply-and-Demand Dynamics of the Photovoltaic Mounting Bracket Market

In 2026, global new photovoltaic capacity additions are expected to continue rising, directly driving a corresponding increase in market demand for PV mounting systems. Meanwhile, the supply-demand dynamics across the upstream and downstream supply chain have undergone relatively significant optimization and adjustments compared with the previous two years.

Upstream raw material prices are trending toward stability.

By 2026, the price volatility of core raw materials for photovoltaic mounting systems—such as steel and aluminum alloy—will be narrowed to within 5%, marking an end to the sharp fluctuations of recent years. Consequently, the retail prices of photovoltaic mounting products will remain stable, and downstream investors in PV projects will see a substantial improvement in the accuracy of their cost estimates.

The share of overseas market demand continues to rise.

By 2026, the share of overseas orders among China’s leading photovoltaic mounting‑structure manufacturers will exceed 40%. Demand for such systems in regions including Europe, Southeast Asia, and the Middle East is growing at rates surpassing 30% annually. Leveraging mature technologies and a strong cost‑performance advantage, Chinese manufacturers now command more than 60% of the global photovoltaic mounting‑structure market.

End-to-end quality management system

All photovoltaic mounting products leaving the factory undergo three rounds of comprehensive parameter testing, including load tests, salt‑spray tests, and aging‑resistance tests, among others. The products are backed by a five‑year warranty and a 30‑year service‑life tracking program, fully alleviating customers’ concerns about long‑term use.

Practical Step-by-Step Guide to Selecting Photovoltaic Mounting Structures

Selecting the appropriate PV mounting structure is a critical step in the construction of a photovoltaic project. A well‑designed selection strategy can maximize the operational stability of the power plant while keeping costs under control. The industry‑standard, standardized selection process is as follows:

1. Step 1: Collect meteorological data for the site of the photovoltaic project, including key parameters such as historical maximum wind speed, snow depth, and annual average salt‑spray concentration.
2. Step 2: Verify the load-bearing capacity of the installation site’s floor or roof, assess the available installation area, and conduct a preliminary screening to identify suitable photovoltaic racking materials and structural types.
3. Step 3: Based on the project’s investment budget, compare the long-term operation and maintenance costs and the potential for increased power generation of different types of photovoltaic mounting systems, and ultimately finalize the selection plan.

Key Considerations for Selecting Residential Distributed Photovoltaic Mounting Systems

When selecting photovoltaic mounting systems for residential applications, prioritize lightweight, easy-to-install designs to minimize additional stress on roof waterproofing and structural load-bearing capacity. At the same time, ensure adequate safety margins to meet the demands of extreme weather conditions.

Key Considerations for Selecting Photovoltaic Mounting Structures in Centralized Power Plants

For centralized photovoltaic power plant projects, priority should be given to standardized PV mounting systems that can be installed in large quantities, thereby minimizing on-site labor costs. At the same time, a comprehensive post‑installation operation and maintenance inspection regime should be put in place to regularly verify the tightness of all mounting‑system connections.

Forecast of Future Development Trends in the Photovoltaic Mounting Bracket Industry

Drawing on the industry’s existing technological capabilities as of 2026 and emerging trends in downstream demand, the photovoltaic mounting‑structure sector is expected to continue its steady evolution toward greener and smarter solutions over the next few years, further driving down costs across the entire PV value chain.

Low-carbon, environmentally friendly production processes are gradually becoming widespread.

Going forward, the production of photovoltaic mounting structures will progressively adopt zero‑carbon manufacturing processes, reducing carbon emissions across the entire value chain—from raw material smelting to finished‑product fabrication—thereby aligning with the development requirements for low‑carbon life‑cycle performance in photovoltaic power plants.

The level of intelligent integration in support structures continues to improve.

Going forward, new‑generation photovoltaic mounting systems will progressively integrate functional modules such as power‑generation data acquisition and remote monitoring of operational status, becoming the core sensing nodes of smart solar power plants and further reducing post‑installation O&M costs.

Overall, in 2026 the photovoltaic mounting‑structure industry is at a critical juncture of high‑quality development. With the combined impact of technological advancements, supportive policies, and rising demand, the sector will continue to provide robust ancillary support for the healthy growth of the photovoltaic industry.

This article was generated by AI and is for reference only.