Leave A Message
If you are interested in our products and want to know more details,please leave a message here,we will reply you as soon as we can.
This product is a dual-axis tracking system that allows photovoltaic modules to be more effectively aligned with the sun's position in space through angle adjustments in both horizontal and vertical directions. Compared to fixed brackets or single-axis tracking systems, the dual-axis design can achieve higher solar energy reception potential in different seasons and at different times. The system adopts a modular unit layout, with each tracking unit independently driven and equipped with remote monitoring capabilities, making it suitable for ground-mounted power plant scenarios with high requirements for power generation enhancement.
Product Description
This dual-axis tracking system consists of columns, a rotary reducer, a space frame structure, and a control system. Each tracking unit can be configured with no more than 40 components (the number of components can be customized according to the project). The horizontal tracking range is ±120°, and the pitch range is 0° to 60°, covering the main range of changes in solar azimuth and altitude angles throughout the day.
The drive method uses closed-loop time control + GPS signal assistance. The MCU controller automatically adjusts the motor action based on the location's latitude and longitude, real-time time, and data from an optional anemometer. The system supports reverse tracking, which can reduce the impact of inter-array shading during early morning and evening hours. For communication, wireless or wired interfaces are provided, facilitating centralized monitoring of the operating angle, fault status, and other information of each support unit by the maintenance platform. The system includes an automatic reset function for nighttime and high wind conditions, helping to reduce wind load and mechanical wear during long-term standby.
Product Components
Advantage
▶ Strong Adaptability:
The system is adaptable to varying terrain slopes, utilizing independent foundations and adjustable connectors to accommodate site undulations, making it largely unrestricted by terrain (except for large gullies or steep slopes).
▶ High Stability:
The herringbone columns and multi-point supported grid structure form a grid distribution, effectively dispersing external loads such as wind and snow. The structural materials are made of commonly used building steel, and the surface anti-corrosion coating provides long-term corrosion resistance under normal atmospheric conditions.
▶ Good Accessibility:
Each tracking unit is independently arranged, with sufficient spacing between adjacent units to minimize mutual obstruction and facilitate passage for construction vehicles, inspection personnel, and maintenance equipment.
▶ Safe and Reliable:
The system features a one-to-one independent control design. The status of each support unit (real-time angle, fault codes, motor current, etc.) can be remotely viewed through the system platform, helping to detect anomalies early and reducing long-term power generation losses due to single-point failures.
▶ Intelligent Tracking:
The system can automatically track based on GPS timing and solar position algorithms. With access to local real-time weather information (cloud cover, irradiance), the tracking strategy can be adjusted in cloudy weather to maximize the use of diffuse radiation. The reverse tracking function can further optimize the array layout during morning and evening hours.
Tracker Structure
| Tracking Technology | Dual Axis Tracker |
| System Voltage | 1000V/1500V |
| Tracking Range | Azimuth +120°, Elevation 0-60° |
| Working Wind Speed | 18 m/s (Customizable) |
| Max. Wind Speed | 35 m/s (Customizable) |
| Modules per Tracker | ≤40 Modules (Customizable) |
| Principal Materials | Hot-Dip Galvanized Q235B/Q355B, Zn-Al-Mg Coated Steel |
| Mean Coating Thickness | ≥65μm |
| Drive System | Slewing Drive |
| Foundation type | PHC/Cast-in-Place Pile/Steel Pile |
Control System
| Control System | MCU |
| Tracking Mode | Closed Loop Time Control+ GPS |
| Tracking Accuracy | <2° |
| Communication | Wireless (ZigBee, LoRa); Wired (RS485) |
| Powder Acquisition | External Supply/StringSupply/Self-Powered |
| Auto Stow at Night | Yes |
| Auto Stow During High Winds | Yes |
| Optimized Backtracking | Yes |
| Protection Degree | IP65 |
| Working Temperature | -30°C~65°C |
| Anemometer | Yes |
| Power Consumption | 0.5kWh per day |
Applicable Scenarios
▪ In regions with high direct sunlight ratios (such as mid-to-low latitude, arid and cloudless areas), the gain potential of dual-axis tracking is relatively more significant.
▪ Ground-mounted power plants with high requirements for increasing average annual power generation and controllable land costs.
▪ Areas with some undulations but no drastic elevation changes, requiring independent foundations.
▪ Medium-to-large-sized power plants requiring remote operation and maintenance and centralized monitoring, especially in unmanned or minimally staffed scenarios.
▪ Projects with certain accessibility requirements, such as those involving complementary agriculture or fisheries (requiring a reasonable increase in the clearance at the base of the support structure).
Important Notes:
▶ Civil Engineering Requirements:
The pouring location, elevation, and embedded part accuracy of the independent foundation directly affect the movement trajectory and structural lifespan of the tracking mechanism. Site surveys and foundation design should be conducted before construction.
▶ Wind Speed Risk:
The maximum operating wind speed is 18 m/s. Exceeding this speed should prompt immediate switching to high wind reset mode and cessation of tracking. In areas with frequent strong winds or typhoons, it is recommended to increase the wind resistance design level or add physical limit devices.
▶ Power Supply Reliability:
Each system consumes approximately 0.5 kWh per day. Tracking function will fail during power outages. In case of occasional power outages at the power station, it is recommended to configure a small-capacity backup power supply or prioritize power supply to the control circuit.
▶ Communication Reliability:
Wireless solutions (ZigBee/LoRa) require consideration of signal obstruction and repeater deployment in large-scale power stations; wired RS485 solutions have slightly higher cabling costs but stronger anti-interference capabilities, and can be selected based on project scale and environment.
▶ Factors Affecting Tracking Accuracy:
An accuracy of <2° is a typical value under conditions of good calibration, no sensor drift, and no loose mechanical connections. In actual operation, accuracy may decrease due to factors such as foundation settlement, wind vibration, and motor hysteresis, requiring regular calibration.
▶ Maintenance Recommendations:
It is recommended to check the lubricating oil condition of the rotary reducer and the tightness of fasteners every six months, and clean dust from the sensor surface; perform zero-point calibration of the angle annually.
▶ Absolute Performance Not Guaranteed:
The dual-axis tracking system does not guarantee superior performance compared to a fixed support system under all weather conditions (such as continuous cloudy days, sandstorms, or snowy weather). Actual power generation gain is affected by factors such as project location, climate patterns, and system reliability.
Summary
This product is a dual-axis tracking support system. Through dual-axis movement in the horizontal direction (±120°) and the pitch direction (0~60°), it drives the photovoltaic modules to more accurately follow the sun's position. The system adopts a modular independent control design, combined with a herringbone column and a grid structure, adaptable to various terrains and maintaining good overall stability. Each system is equipped with an MCU controller, GPS, and an optional anemometer, supporting closed-loop time-controlled tracking, reverse tracking, and automatic reset in strong winds/at night. Remote status monitoring is achieved through wired or wireless communication. The structural materials are mainly hot-dip galvanized or magnesium-aluminum-zinc coated steel. The maximum operating wind speed is 18m/s, with a wind resistance design of 35m/s. The daily self-consumption of a single unit is approximately 0.5kWh. Overall, it is suitable for large and medium-sized ground-mounted photovoltaic power plants with high power generation requirements and relatively complex site conditions.
Solar First Project Reference
Related Knowledge Points
This product is a horizontal single-axis tracking support system, primarily used in photovoltaic power plants to support and drive the module array to follow changes in the sun's azimuth angle. The system employs independent control and a modular design, reducing the amount of foundation piles required under certain terrain conditions and ensuring compatibility with current mainstream large-size modules. Its overall structure has been verified through wind tunnel testing and is suitable for various ground-mounted power plant scenarios.
Read More
This product is a horizontal single-axis tracking support system, primarily designed for ground-mounted photovoltaic power plant scenarios. The system employs a multi-point drive design to enhance the structure's torsional resistance and critical wind speed levels. It can adapt to continuous undulations and irregular terrain, and meets installation requirements with a maximum north-south slope of 15%. Each support column operates independently, preventing mutual shading between modules, which facilitates on-site construction and subsequent operation and maintenance. The system is compatible with 182mm and 210mm silicon wafer modules, and can further optimize the tracking angle based on terrain and real-time weather information to achieve better power generation returns in complex environments.
Read More
The single-axis tracking system is a solar tracking device used in photovoltaic (PV) power plants. Through a single-axis rotating structure, the system allows PV modules to roughly follow the sun's azimuth throughout the day, helping to improve the power generation efficiency of the PV array. The system employs a dual-linkage design, with a single support unit capable of supporting up to 120 modules and compatible with both 182mm and 210mm silicon wafer modules. The control unit supports multiple power supply methods and communication protocols, making it suitable for power plant projects of varying sizes and terrain conditions.
Read More
This product is a dual-axis tracking system that allows photovoltaic modules to be more effectively aligned with the sun's position in space through angle adjustments in both horizontal and vertical directions. Compared to fixed brackets or single-axis tracking systems, the dual-axis design can achieve higher solar energy reception potential in different seasons and at different times. The system adopts a modular unit layout, with each tracking unit independently driven and equipped with remote monitoring capabilities, making it suitable for ground-mounted power plant scenarios with high requirements for power generation enhancement.
Read More
The tilted single-axis tracking system is an intelligent tracking bracket solution suitable for photovoltaic power plants. This system uses a single-axis rotation mechanism to allow photovoltaic modules to track changes in the sun's azimuth angle around a tilted axis, thereby improving solar energy reception efficiency at different times. The system is optimized for complex terrain conditions and can be deployed on uneven sites such as mountains and slopes, providing photovoltaic projects with an option that balances increased power generation with engineering adaptability.
Read More
en
fr
de
zh-CN
ru
es
pt
ja
ko
ar
