2026 Photovoltaic Mounting System Industry Trends: Mainstream Technology Trends and a Practical Selection Guide

Category: Industry News

Release time: 2026-07-27

Summary: This article draws on the latest publicly available data from the photovoltaic industry in 2026 to analyze developments in the PV mounting‑structure sector across multiple dimensions, including market size, technological advancements, pricing trends, and selection criteria. It compiles comparative analyses of various product specifications, addresses common industry questions, and provides up-to-date, actionable insights for professionals in the PV field.

Photovoltaic mounting structures are specialized components that support and secure photovoltaic modules within a photovoltaic power generation system. , directly impacting the power generation efficiency and operational safety of photovoltaic projects. Drawing on the latest industry trends as of 2026, this article provides a comprehensive overview of the most recent developments in the photovoltaic mounting‑structure sector.

Overall Industry Trends in the Photovoltaic Mounting Systems Sector in 2026

As we enter 2026, domestic photovoltaic installed capacity continues to grow, driving a corresponding expansion in the scale of the PV mounting‑structure industry. Industry insiders generally agree that the pace of technological upgrading and market consolidation in this sector is accelerating.

Market Size Growth in the Photovoltaic Mounting Structure Industry

According to data released in the first half of 2026 by the domestic photovoltaic industry association, the Chinese PV racking market is expected to grow 18% year over year in 2026, driven primarily by the continued expansion of distributed PV installations and steady growth in overseas export orders. The market share of tracking PV racking has risen to 32%, up 4 percentage points from 2025.

Latest Policy Developments in the Photovoltaic Mounting Structure Industry

By 2026, the phase-out of domestic subsidies for photovoltaic projects will have been completed, prompting the industry to place greater emphasis on reducing the levelized cost of electricity. At the policy level, there is encouragement for PV mounting‑structure manufacturers to enhance product quality and promote technologies that deliver higher energy yields. Meanwhile, environmental‑friendly recycling requirements for PV mounting structures have been further clarified, driving the sector toward a greener, lower‑carbon future.

The latest iteration trends in mainstream photovoltaic mounting‑structure technologies.

Photovoltaic mounting systems have now evolved into a landscape of parallel technological pathways, with each approach continuously refined to suit specific application scenarios. By 2026, technological advancements will primarily focus on two key priorities: cost reduction and efficiency enhancement.

Tracking the trend of increasing penetration rates for photovoltaic mounting systems.

As tracking photovoltaic racking technology matures and costs decline, an increasing number of utility-scale solar projects are adopting such systems. Compared with conventional fixed mounts, tracking racking can boost power generation by 10% to 25%. Moreover, the widespread adoption of large‑format modules by 2026 is further driving structural optimization of tracking systems, enhancing their adaptability.

Technological Innovations in BIPV-Integrated Photovoltaic Mounting Systems

The development of distributed photovoltaics integrated with buildings is driving growing demand for BIPV‑compatible PV mounting systems. By 2026, many manufacturers had introduced lightweight, aesthetically refined custom‑designed PV racks that meet structural load requirements while enhancing architectural aesthetics, making them suitable for a variety of commercial and industrial facilities as well as residential rooftops.

Image Source: unsplash

Latest Developments in Supply, Demand, and Price Trends in the Photovoltaic Mounting System Market

The core raw materials for photovoltaic mounting systems are steel and aluminum alloy. By 2026, upstream material prices are expected to stabilize, driving a decline in PV mounting system market prices. With ample industry capacity, the overall supply-demand balance is maintained.

Domestic Photovoltaic Mounting Structure Production Capacity Distribution

Currently, domestic photovoltaic mounting‑structure production capacity is concentrated primarily in East and North China.

Price Comparison of Different Types of Photovoltaic Mounting Structures in 2026

The table below summarizes the price ranges per watt for various types of photovoltaic mounting systems in the first half of 2026, for your reference:

Comparison dimension Fixed bracket Adjustable bracket Single-axis tracking bracket
Price per watt (RMB) 0.18-0.22 0.23-0.28 0.30-0.38
Power generation gain Baseline value 5%-10% 10%-20%
Applicable Scenarios Flat roof, standard power station Mountainous areas, projects with regulation needs Large-scale centralized power plants

The latest 2026 standards for photovoltaic mounting structure selection

The selection of photovoltaic mounting structures must be tailored to the specific conditions of each project. In 2026, the industry has summarized the following systematic steps for proper selection:

  1. Step 1: Determine the foundation structure and material requirements for the scaffolding based on the project site’s topography, climate, and load conditions.
  2. Step 2: Based on the project budget and the projected power generation revenues over a 25-year operational period, select an appropriate technology pathway.
  3. Step 3: Verify that the bracket’s corrosion‑resistance grade, wind‑load resistance grade, and snow‑load resistance grade meet the local extreme‑weather requirements.
  4. Step 4: Select a brand manufacturer with production qualifications and after-sales support to coordinate your customization requirements.

Q: What type of PV mounting system is suitable for distributed rooftop solar projects?

In general, for typical residential rooftop‑mounted distributed PV systems, where load-bearing capacity is limited, lightweight fixed PV mounting structures are sufficient, offering lower upfront costs and easier installation. For steeply pitched roofs, adaptable adjustable PV mounting systems can be selected to enhance power generation efficiency.

Q: What should be considered when selecting photovoltaic mounting structures for highly corrosive coastal areas?

Coastal areas have high salt content in the air, resulting in more severe corrosion. Therefore, photovoltaic mounting structures should be made of hot-dip galvanized steel or aluminum alloy with anti-corrosion treatment, and their corrosion resistance rating must meet at least C4 to ensure a service life of 25 years and prevent premature corrosion‑induced damage that could compromise the operation of the photovoltaic system.

The Latest Requirements for Compliant Development in the Photovoltaic Mounting Bracket Industry

Regulation in the photovoltaic mounting‑structure sector is becoming increasingly standardized. By 2026, new requirements will be introduced across multiple areas—including product quality, environmental protection, and recycling—driving the industry to phase out outdated production capacity.

Requirements for Upgrading Product Quality Standards

The newly revised 2026 industry standard for photovoltaic mounting systems imposes stricter requirements on product strength testing, corrosion‑resistance testing, and service‑life evaluation. Non‑compliant products will gradually be phased out of the market, and consumers are encouraged to prioritize products that meet the latest national standards.

Green Recycling and Low-Carbon Production Requirements

Under the dual-carbon goals, the photovoltaic mounting‑structure industry is also advancing low‑carbon production. Many manufacturers have begun using recycled steel to fabricate PV racking systems, thereby reducing carbon emissions in the manufacturing process. Meanwhile, a recycling framework for decommissioned PV mounting structures is being progressively established, driving green development across the entire industry value chain.

 

Frequently Asked Questions

Q: How will photovoltaic mounting‑structure prices in 2026 compare to those in 2025?

A: According to industry data for the first half of 2026, driven by declining upstream steel prices and increased industry capacity, mainstream photovoltaic mounting‑structure prices have fallen by 3%–8% compared with 2025, with overall pricing trending toward stability.

Q: What is the typical service life of a qualified photovoltaic mounting system?

A: Qualified photovoltaic mounting systems that meet national standards typically have a service life of 20 to 25 years. Products treated with special anti-corrosion coatings can achieve a service life of over 25 years in typical environmental conditions.

In summary, by 2026, the photovoltaic mounting‑structure industry will be in a phase of technological upgrading and consolidation. When selecting mounting structures, users should take into account the specific conditions of their projects and choose compliant products that meet the latest standards, thereby ensuring the long-term, stable operation of their photovoltaic systems.

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

Keywords: 2026 Photovoltaic Mounting System Industry Trends: Mainstream Technology Trends and a Practical Selection Guide

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