With the rapid development of solar photovoltaic technology, the quality and reliability of photovoltaic modules have become the focus of the industry. In order to ensure the reliable operation of photovoltaic modules under various environmental conditions, Dynamic Mechanical Load Tester has become an indispensable testing equipment. In order to evaluate the performance and reliability of photovoltaic modules under mechanical load, the International Electrotechnical Commission (IEC) has developed two related standards: IEC 61215 and IEC 61730, which require dynamic mechanical load testing. Dynamic Mechanical Load Tester from Millennial Solar provides strong support for the quality assurance of photovoltaic modules.

International standards IEC61215 and IEC61730

IEC61215 and IEC61730 are two standards related to the quality and reliability of photovoltaic modules issued by the International Electrotechnical Commission (IEC). The standard stipulates the requirements that photovoltaic modules should meet during dynamic mechanical load tests, including load type, intensity, duration, etc. According to these standards, PV modules should be able to maintain their structural integrity and performance stability after a certain number of load cycles. By using a Dynamic Mechanical Load Tester that complies with these standards, you can ensure that the quality and reliability of your photovoltaic modules meet international standards.

The principle of Dynamic Mechanical Load Tester

Dynamic Mechanical Load Tester is a device used to simulate the mechanical loads that photovoltaic modules may be subjected to during transportation, installation and use. It can simulate the mechanical stress that photovoltaic modules may encounter in actual use by applying various types of forces and vibrations to evaluate the strength and reliability of their structures.

Dynamic Mechanical Load Tester usually consists of the following main parts:

1. Load application system: used to apply various types of loads, such as shock, vibration, pressure, etc., to simulate the mechanical stress that photovoltaic modules may encounter in actual use.

2. Control system: used to control load type, size, frequency and other parameters, as well as record and analyze test data.

3. Clamping system: used to fix and clamp photovoltaic modules to ensure their stability and safety during testing.

Dynamic Mechanical Load Tester

E-mail: market@millennialsolar.com

Introduce:

Photovoltaic modules are subject to pressure from wind, snow, ice, people and other heavy objects during outdoor application. If the strength of the module does not meet the requirements, the module will deform too much under the pressure of heavy objects, which will cause the cells to split and interact. Undesirable consequences such as strips, electrical connections and edge seals lead to reduced power generation of the module. Dynamic mechanical load testing, in order to verify the reliability of the produced photovoltaic modules and ensure that they can withstand different forces and weather conditions.

Fulfill the standard:

IEC61215-MQT16, MQT20;IEC61730-MST34

Features:

•Using 80mm×160mm high-strength aluminum profile as the main frame of the equipment

•All parts are processed by high-precision CNC; the surface treatment of aluminum parts is anodized

•The cylinder and solenoid valve are of SMC brand to ensure their quality and service life

•The force system uses a high-precision tension and pressure sensor to ensure the uniformity of the cylinder's force output

•Deformation capture uses non-contact infrared sensors to ensure high accuracy of data capture

Dynamic Mechanical Load Tester is a key tool for improving the quality and reliability of photovoltaic modules. International standards such as IEC61215 and IEC61730 provide guidance for dynamic mechanical load testing of photovoltaic modules to ensure that photovoltaic modules meet quality and reliability requirements. With the continuous advancement of photovoltaic technology, Dynamic Mechanical Load Tester from Millennial Solar will play an increasingly important role in the photovoltaic industry and provide strong support for the sustainable development of solar power generation.