Hardware differences between tracker systems are narrowing as the segment matures, shifting differentiation toward software, controls, and AI-driven optimization
The 1P tracker configuration has emerged as the dominant format in many markets, while terrain-following capabilities are becoming a standard requirement for new projects
Safety strategies, cost optimization, local manufacturing requirements, and integration across the value chain are shaping the next phase of tracker development
Although slowly, trackers have steadily emerged as a key component of the PV system BOS and have evolved into a reliable and effective mounting solution. They are becoming smarter, more adaptable, and seamlessly integrated into a wider ecosystem of applications. Gone are the days when differentiation was largely driven by mechanical design and structural variations. With the trackers segment maturing, while hardware still remains important, performance gaps between systems have narrowed, and soft features of the trackers, especially controls guided by AI and advanced algorithms, are becoming the key differentiators. Some of the key features integrated into most trackers include AI-assisted optimization, improved backtracking logic, and dynamic response mechanisms.
Tracker configurations are also evolving in response to site conditions and regional market preferences. Although multiple architectures coexist, the 1P configuration has emerged as the dominant format in many markets. At the same time, system designs continue to adapt to specific project requirements, balancing between structural integrations, installation practices, and energy yield optimization (see Regional Strategies And Market Activities Of Tracker Suppliers).
Terrain following, while not exactly a configurational aspect, is a structural optimization that, once considered a niche or proprietary feature, has now become mainstream. This evolution is mainly driven by the scarcity of flat, uniform land for solar. Tracker suppliers are finding different means to address this requirement.
Safety considerations are gaining prominence in tracker development. With extreme weather events – such as hail, snow, and high winds – becoming more frequent in several regions, stowing strategies have moved to the forefront of system design. Both mechanical robustness and software-based protection strategies are being refined to safeguard not only the tracker structure but also the modules mounted on it. Trackers also benefit from the expanding PV application spectrum, especially from the growing interest in agrivoltaics. Trackers offer flexibility in row spacing and height corresponding to the agricultural activity, enabling the dual use of land for farming and PV power production.
Like mainstream PV, the trackers segment is also influenced by regulatory and procurement policies within supply chain management. Domestic content requirements and local manufacturing have become key strategic priorities for several tracker manufacturers. Project developers increasingly prefer localized production and partnerships. Continuous cost reduction remains a defining trend here, particularly in tender-driven regions such as the Middle East, where project bid prices are highly competitive. And tracker makers are leaving no stone unturned to optimize costs – across materials, logistics, installation, and system integration – while not jeopardizing quality and reliability (see Market Positioning Of Leading Solar Tracker Suppliers).
Finally, integration is becoming more visible within the tracker landscape as well. Leading suppliers are expanding into adjacent segments of the value chain, whether through acquisitions, joint ventures, or in-house manufacturing capabilities.
The text is an edited excerpt from TaiyangNews’ latest Market Survey on Solar Trackers 2026, which can be downloaded for free here.
