2026 Panoramic Analysis of Photovoltaic Mounting System Industry Trends: Market Outlook, Application Selection, and Operations & Maintenance Guide

📋 Table of Contents

1. Overview of the Overall Development of the Photovoltaic Mounting Bracket Industry in 2026
2. New Directions for Core Technology Iteration in Photovoltaic Mounting Systems in 2026
3. Trends in the Expansion of Mainstream Application Scenarios for Photovoltaic Mounting Systems in 2026
4. Comparison of Mainstream Product Specifications in the 2026 Photovoltaic Mounting System Market
5. Key Practical Considerations for Selecting Photovoltaic Mounting Structures in 2026
6. Cost-Reduction Strategies for Daily Operation and Maintenance of Photovoltaic Mounting Systems in 2026

Photovoltaic mounting structures are ancillary components that provide support and secure photovoltaic modules, serving as the core foundational elements for the stable operation of a photovoltaic power plant. According to publicly available industry data for 2026, the scale of newly installed photovoltaic capacity in China continues to rise, directly driving year-on-year growth of over 22% in demand for PV mounting systems and signaling a steady yet upward‑trending development across the sector.

Overview of the Overall Development of the Photovoltaic Mounting Bracket Industry in 2026

In 2026, industry policies related to photovoltaic mounting systems will continue to steer toward lightweight and low-carbon solutions, further optimizing upstream and downstream capacity deployment across the sector. Leading companies will see their market share steadily increase, while small and medium-sized manufacturers will gradually shift toward customized offerings tailored to specific application scenarios.

Core Market Size Data for 2026

According to statistics for the first half of 2026 released by the China New Energy Industry Association, total shipments in the national photovoltaic mounting‑structure market exceeded 38 GW. Among these, mounting structures supporting distributed PV accounted for 63%, serving as the primary driver of market growth. Industry analysts widely forecast that the overall market size for the full year will surpass RMB 90 billion.

New Requirements for the Standardized Development of the Industry

The newly revised General Technical Specification for Photovoltaic Mounting Systems, effective as of 2026, sets clear quantitative requirements for key performance indicators such as wind‑load resistance, corrosion resistance, and service life. This will further weed out substandard, low‑quality, and low‑priced products, driving an overall quality upgrade across the industry.

New Directions for Core Technology Iteration in Photovoltaic Mounting Systems in 2026

In 2026, R&D in photovoltaic mounting‑structure technologies will focus on two core priorities: cost reduction and efficiency enhancement, as well as low‑carbon sustainability. A range of new processes and materials will gradually move into mass production, offering downstream applications greater flexibility and more options.

Large-scale application of lightweight materials

The manufacturing process for the new generation of high-strength aluminum alloy photovoltaic mounting systems is steadily maturing. Compared with traditional carbon steel mounts, these systems reduce overall weight by more than 35% and boost installation efficiency by nearly 40%, making them ideally suited for residential distributed PV applications. In the first half of 2026, shipments of lightweight mounting systems are expected to grow year over year by over 50%.

The adoption rate of intelligent tracking technology is increasing.

Bifacial‑compatible single‑axis tracking PV racking systems accounted for 28% of the utility‑scale ground‑mounted solar market in 2026, delivering a 15%–25% increase in energy generation compared with fixed‑tilt systems. As the costs of related technologies continue to decline, their penetration is expected to rise further.

Trends in the Expansion of Mainstream Application Scenarios for Photovoltaic Mounting Systems in 2026

By 2026, the application scenarios for photovoltaic mounting systems will no longer be confined to traditional rooftops and ground-mounted power plants; growing demand for customized solutions across a wider range of cross‑industry applications will continue to unlock new growth opportunities for the sector.

Demand for photovoltaic–agriculture integration is on the rise.

The elevated, custom-designed photovoltaic mounting system for agrivoltaic projects is expected to see a 47% year-on-year increase in market demand by 2026. The system leaves ample clearance beneath the modules to accommodate crop cultivation and the passage of agricultural machinery, enabling the integrated utilization of land resources and enhancing the overall project returns.

The technology of floating scaffolds on water is steadily maturing.

Floating photovoltaic mounting systems tailored for reservoirs and fish ponds, after years of field validation, had established comprehensive product standards by 2026. Their wave‑resistance and corrosion‑resistance performance meet the operational requirements of various inland water bodies, and they are poised to become a key focus in large‑scale centralized PV development going forward.

Comparison of Mainstream Product Specifications in the 2026 Photovoltaic Mounting System Market

To help users easily and intuitively select the most suitable products, we have compiled the key specifications of the three mainstream types of photovoltaic mounting systems currently available in the market as of 2026. All data are sourced from publicly available industry test reports.

Comparison dimension	Traditional carbon steel hot-dip galvanized bracket	High-strength aluminum alloy bracket	Flat single-axis tracking bracket
Design service life	2025	30 years	20 years
Cost per watt of the unit	0.18–0.22 yuan	0.25–0.3 yuan	0.4–0.5 yuan
Applicable Scenarios	Common ground-mounted power station	Residential and commercial/industrial rooftops	Concentrated Solar Power Plant on an Open Plain

A 2026 report published by the New Energy Industry Association notes that no single type of photovoltaic mounting system is universally superior; selecting the most suitable solution based on the specific project conditions is essential to maximizing lifetime returns.

Key Practical Considerations for Selecting Photovoltaic Mounting Structures in 2026

In 2026, the procurement of photovoltaic mounting structures will require a comprehensive evaluation based on multiple criteria to prevent improper selection from compromising the long-term operational safety of the power plant. Below is a summary of standard selection procedures:

1. Conduct a preliminary survey of the meteorological conditions at the project site to determine the corresponding design parameters for wind and snow loads.
2. Based on the installation environment’s baseline conditions, confirm the appropriate bracket material and structural type.
3. Verify the product test reports and qualification documents provided by the supplier to ensure that the specifications comply with national standards.
4. Calculate the total lifecycle cost, rather than relying solely on the initial purchase price.

Considerations for Selecting a Distributed Architecture

When selecting photovoltaic mounting systems for residential rooftop applications, it is essential to first verify the roof’s load-bearing capacity. Prioritize lightweight, easy-to-install products, and ensure thorough anti-corrosion and rust‑proofing treatments to meet the demanding conditions of southern regions characterized by high humidity and severe salt‑fog exposure.

Key Considerations for Selecting a Centralized Power Plant

When selecting mounting structures for ground‑mounted solar power plants, prioritize ease of installation to minimize on‑site construction effort, while ensuring adequate access for module maintenance and operations to facilitate future maintenance activities.

Cost-Reduction Strategies for Daily Operation and Maintenance of Photovoltaic Mounting Systems in 2026

Regular, standardized operation and maintenance of photovoltaic mounting structures can effectively extend the service life of the equipment and reduce the levelized cost of energy over the power plant’s entire lifecycle. The associated procedures are relatively straightforward, allowing even ordinary O&M personnel to become proficient after brief training.

Key Points for Regular Inspections

Conduct quarterly inspections of the connection bolts and welds on photovoltaic mounting structures, with particular attention to identifying looseness, corrosion, deformation, and other issues. Following extreme weather events such as strong winds or heavy snowfall, carry out immediate targeted inspections to promptly address and eliminate any safety hazards.

Upgrade and Retrofit Plan for Aging Power Plants

For aging photovoltaic power plants that have been in operation for more than 10 years, the existing mounting structures can be reinforced and upgraded, and components suffering from severe corrosion can be replaced—eliminating the need for complete dismantling and reconstruction. With relatively low investment, the plant can continue to operate reliably for another 15 years or longer.

End-to-end integrated service support

The brand can dispatch technical experts to the project site for on‑site assessment and provide a free, tailored photovoltaic racking design. It also offers end-to-end support—covering manufacturing, logistics, installation, and commissioning—significantly reducing the complexity of bringing the project to fruition.

Long-term after-sales operations and maintenance support

All delivered photovoltaic mounting products come with a multi-year warranty, and we arrange for our technical team to conduct regular follow-up visits, promptly addressing customers’ operation and maintenance needs to alleviate any concerns.

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