Dual-Station Motor Durability Testing Machine
Vehicle testing equipment

Vehicle testing equipment

Dual-Station Motor Durability Testing Machine

1.The motor test current can be adjusted using the torque controller.

2. Motor current can be monitored. 

3. Motor operating time and rest time can be configured.

Frame Vibration and Swaying Test Rig

The Electric Bicycle Frame Vibration and Swaying Test Rig is a specialized testing device designed to evaluate the fatigue strength, structural stability, and vibration resistance of critical components of electric bicycles—such as the frame, front fork, and rear fork. By simulating real-world riding conditions involving vibration and swaying, this equipment performs cyclic loading tests on the bicycle frame to detect any failure modes—including deformation, fracture, or loosening—and provides data support for product quality verification.

Electric Heating Blower Constant Temperature Drying Oven

The electric heating forced-air constant-temperature drying oven is a piece of equipment that generates heat through heating elements and utilizes a circulation fan to ensure uniform air movement within the chamber, enabling rapid and uniform drying. It is widely used in fields such as scientific research, industry, and healthcare for drying, baking, sterilization and disinfection, as well as constant-temperature testing.

Electric bicycle chassis dynamometer

In accordance with the GB17761-2018 "Technical Specifications for the Safety of Electric Bicycles" standard, the portable ergometer can perform the following tests:

No-load test: output torque, rotational speed, and power; Load test: determination of the load characteristic curve (torque, rotational speed, and power); Stalled-run test: measurement of performance parameters under stalled-run conditions; Range test: energy consumption rate and driving range measurement; Durability test: fatigue testing simulating real-world road driving conditions.

Bicycle Handlebar Turn Lever Tester

The system employs a liquid crystal touch screen combined with a PLC for torsion program control, featuring a Chinese-language interface for user-friendly operation. It utilizes servo motor drive for precise positioning, stable torque output, and low noise levels. High-precision torque sensors ensure accurate measurement of torque values. A dedicated adjustable fixture enables quick sample clamping during testing. The system uses preset torque as the primary parameter and angle as an auxiliary parameter, achieving reverse rotation upon reaching the set torque value or specified angle limit; it initiates reverse rotation only when both conditions are met. Dual-layer safety mechanisms are incorporated.

Jingyao Instrument Automatic Screw Spring Assembly Machine | High-Precision Custom Solution for Electronics & Hardware Manufacturing

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Future Trends In Ev Battery Test Equipment Technology

The future of electric vehicle (EV) battery test equipment technology is expected to evolve rapidly as the global demand for EVs continues to grow and battery chemistry becomes more advanced. One major trend is the shift toward higher automation and intelligent testing systems. Traditional manual or semi-automated testing methods are being replaced by AI-driven platforms that can monitor battery performance in real time, detect anomalies, and predict failures before they occur. This improves both safety and efficiency in battery development. Another important development is the increasing use of high-precision, multi-parameter testing systems. As next-generation batteries such as solid-state batteries and lithium-silicon variants enter the market, test equipment must measure more complex variables, including thermal stability, fast-charging behavior, and long-cycle degradation under extreme conditions. This requires more advanced sensors and integrated data acquisition systems. Digitalization and cloud connectivity are also transforming battery testing. Modern equipment is increasingly connected to cloud platforms, allowing engineers to remotely monitor tests, store large datasets, and apply big data analytics. This enables faster research cycles and more accurate performance modeling. In addition, sustainability is becoming a key focus. Future test systems are expected to be more energy-efficient and designed with recyclable components, reducing the environmental impact of large-scale battery testing laboratories. Finally, modular and flexible testing platforms are gaining popularity. These systems allow manufacturers to quickly adapt to different battery sizes and chemistries without needing completely new equipment.

How Impact and Drop Tests Ensure Scooter Durability

Impact and drop tests are essential procedures in evaluating the durability and structural integrity of electric scooters. These tests simulate real-world accidents, rough handling, and transportation conditions to ensure that scooters can withstand sudden shocks without significant damage or safety risks. In an impact test, a scooter or its components are subjected to controlled force using specialized testing equipment. This may include striking the frame, handlebars, or battery housing with a defined energy level to assess resistance to sudden collisions. The goal is to identify weak points in the structure that could lead to failure during actual use, such as cracking, deformation, or loosening of critical parts. Drop tests, on the other hand, involve repeatedly dropping the scooter from a specified height onto a hard surface in different orientations. This simulates scenarios such as accidental falls during riding, loading, or transportation. Engineers then evaluate whether the scooter remains functional and whether key components such as the battery system, folding mechanism, and wheels are still intact. After testing, the scooter is carefully inspected for mechanical damage, electrical malfunction, and structural stability. Advanced testing systems may also use sensors to measure shock absorption and stress distribution during impact.