portable mini solar tracking system with automated water pump controlling

Quick Detail:

Application: Home or street lamp
Output Voltage (V): DC12V -DC24V
Load Power (W) LED: 30 W-120W
Solar Power (W): 100W -400W

Specifications:

1. Automatic tracking mode: Biaxial automatic
2. Weight of the entire system (excluding solar ): 18kg
3. Of vertical angle (angle of elevation)0° ~ +90°
4. Horizontal angle range (azimuth): 0~355°
5. Principle: Active
6. Precision: ± 1°
7. Annual average power generation volume: ≥45%
8. System average power consumption W: 0.5
9. Protection: Wind, automatic protection

Technical parameters:

Solar Tracker Features:

• Increased energy production and lower LCOE
• Distributed Actuation Architecture™ with high system up-time and lower O&M costs
• Industry-leading reliability and system availability
• Flexible system design and pre-assembled components for faster time-to-power
• Advanced communication system with high-resolution data collection and control
• Proprietary tracking algorithm optimized for First Solar modules

System composition:

RY-SL-B  multi-axial sun tracking system by solar  sensors, controller and transmission actuators three parts.

1, solar sensor  

In effective the whole lighting conditions for high accuracy measurement, and sunshine sunshine azimuth signal into electrical signal, send tracking controller.

 2, controller

Tracking controller receives the sun after the signal tracking sensors, driving the transmission actuators operation, and make solar panels is perpendicular to the sun's rays.

3, Transmission actuators:

Adopt unique mechanical structure design, realizing horizontal 360 °, 180 ° pitch Angle can adjust fixed, the biggest after wind could reach 10 levels

Single axis trackers have one degree of freedom that acts as an axis of rotation. The axis of rotation of single axis trackers is typically aligned along a true North meridian. It is possible to align them in any cardinal direction with advanced tracking algorithms.

There are several common implementations of single axis trackers. These include horizontal single axis trackers (HSAT), horizontal single axis tracker with tilted modules (HTSAT), vertical single axis trackers (VSAT), tilted single axis trackers (TSAT) and polar aligned single axis trackers (PSAT). The orientation of the module with respect to the tracker axis is important when modeling performance.

Dual axis trackers have two degrees of freedom that act as axes of rotation. These axes are typically normal to one another. The axis that is fixed with respect to the ground can be considered a primary axis. The axis that is referenced to the primary axis can be considered a secondary axis.

There are several common implementations of dual axis trackers. They are classified by the orientation of their primary axes with respect to the ground. Two common implementations are tip-tilt dual axis trackers (TTDAT) and azimuth-altitude dual axis trackers (AADAT).

The orientation of the module with respect to the tracker axis is important when modeling performance. Dual axis trackers typically have modules oriented parallel to the secondary ax