Quantum Efficiency Tester
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Four Point Probe Tester
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FTIR Spectrometer
Spectrophotometer
Automatic Spectroscopic Ellipsometer
Contact Resistance Tester
Ultra depth of field 3D microscope
Auto Visual Tester
VMM PV Vision Measuring Machine
Solar Cell Horizontal Tensile Tester
Steady State Solar Simulator for Solar Cell
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Solar Cell Comprehensive Tensile Tester
Visual Inspection Tester
Wet Leakage Current Tester
PV Module EL Tester
PV Module UV Preconditioning Chamber
Steady State Solar Simulator for PV Module
Current Continuous Monitor
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LeTID Test System
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Impulse Voltage Tester
Hipot Insulation Tester
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Hipot Insulation Ground Tester
Damp Heat Test Chamber
Humidity Freeze Test
Thermal Cycle Test Chamber
Dynamic Mechanical Load Tester
Static Mechanical Load Tester
Hail Impact Tester
Robustness of Termination Tester
Module Breakage Tester
Cut Susceptibility Tester
Peel Shear Strength Tester
Universal Testing Machine (Single-arm)
Universal Testing Machine (Double-arm)
Glass Transmittance Tester
Acetic Acid Test Chamber
EVA Degree of Crosslinking Test System
Junction Box Comprehensive Tester
Drop ball tester
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Stylus Profilometer
Maximum Power Point Tracker
Perovskite Glass Transmittance Tester
Perovskite P1 Laser Scribing Multifunctional Testing Machine
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Online Perovskite Film Thickness Tester
Perovskite Process Inspection Workstation
Portable IV Curve Tester
Portable EL Tester
Portable Thermal Imaging Tester
Solar Module Multi-Channel Testing System
PV Inverter Power Quality Tester
Drone EL Tester
Dynamic Mechanical Load Tester
ME-PV-DML
The Millennial dynamic mechanical load tester is widely used in the structural design and evaluation of photovoltaic modules. By applying mechanical stress to simulate external forces in real - life situations, it assesses the wind - pressure resistance, impact resistance, and structural stability of modules under natural environmental conditions. These tests are crucial for enhancing the market competitiveness of photovoltaic modules and consumer confidence.
Functional features:
○ Load application mode: cylinder driven suction disc pressure and suction;
● One cylinder is connected with a suction cup structure, and each cylinder is controlled separately;
○ The cylinder spacing can be manually adjusted;
● Pressure, tension, holding time, cycle number, cycle frequency, current size can be preset;
○ Can record and store the positive pressure, reverse pressure, deformation, temperature, cycle times, current value during the test process.
Premium Brand Components
—— Ensuring equipment quality and service life
▶ High-Precision Tension/Compression Sensor
Guarantees uniform force output for each cylinder
▶ Large-Scale Cylinder Array
84 actuation cylinders enable massive testing capacity
▶ High-Uniformity Dynamic Loading
Supports 3-7 test cycles to simulate real-world variable load conditions
Dynamic Mechanical Load
Dynamic mechanical load refers to the situation where photovoltaic modules sway on the front and back surfaces under the action of strong winds. This causes the modules to bear alternating pressure in both positive and negative directions, accelerating the fatigue of materials and potentially leading to the failure of vulnerable parts such as solar cells and grid lines. The key factors affecting the strength include the size, thickness, surface treatment of the modules, the stability of the frame, the installation method, and the mechanical reliability of the welding points. The test helps to evaluate the fatigue resistance of the modules and the durability of the materials, thereby improving the product quality level.
Static Mechanical Load
Static mechanical load, IEC 61215 requires that it should reach at least 1.5 times the design load. By applying a certain load and measuring parameters such as the displacement and stress of the components, the maximum load-bearing capacity and deformation characteristics of the components can be determined. This is of great significance for the design and selection of photovoltaic components suitable for specific application scenarios, ensuring that they can safely and reliably withstand external mechanical loads during actual operation.
Significance of Mechanical Load Testing
With the trend of photovoltaic modules evolving toward higher power and larger sizes, during factory handling, transportation, and installation, modules are exposed to various forces. In outdoor environments, they bear pressures from heavy loads like wind, snow, and ice.
If a module’s strength does not meet requirements, excessive deformation under heavy pressure may trigger failures in vulnerable parts such as solar cells and main grids.
The figure below shows the electroluminescence (EL) image comparison of a non-compliant solar module before (left) and after (right) dynamic mechanical load testing.
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Millennial Load Tester Dynamic Mechanical
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