We work with a team of more than 450 people across our Shenzhen and Wuhan R&D and manufacturing bases. Over the years, our engineers have developed more than 200 patented technologies, supported by a technical team of over 90 specialists.

We accept T/T and 100% irrevocable L/C at sight. Standard trade terms include EXW, FCA, FOB, CIF and CFR. DAP and DDP can also be arranged depending on the project and destination.

Standard material testing machines are usually shipped within 30 working days. For testing equipment with special configurations, the delivery time may extend to around 60 working days. Fully customized testing systems will be scheduled according to project requirements.

Under normal conditions, we provide a one-year warranty. If extended coverage is required, the warranty can be prolonged with an additional annual fee of 5%.

Clients may contact their regional sales representative or local distributor. When an issue is not caused by improper use, replacement parts are supplied free of charge until the equipment is restored to normal operation.

Only the cost of the replacement parts is charged. If on-site service is needed, the fee is agreed upon with the client in advance. Although there are more than a thousand testing machines operating overseas, fewer than 0.1% require an on-site visit each year.

In regions where we work with authorized distributors, on-site follow-up visits are carried out every three months. In regions without a local distributor, the same follow-up schedule is maintained through phone or email. Any questions raised by clients are handled promptly, and practical feedback is reviewed as part of our ongoing effort to improve product quality and service.

Yes. The electromechanical universal testing machine can be configured with specialized grips for soft materials and paired with large-deformation extensometers. This setup ensures stable gripping and highly accurate measurements when testing materials with significant elongation.

Yes. The system supports stress, strain, and displacement control modes, and enables fully programmable loading sequences for complex test paths. This flexibility makes it ideal for universities and research institutes conducting advanced studies on emerging materials.

Absolutely. Equipped with internationally recognized load cells and high-precision optical encoders, the testing machine delivers force-measurement accuracy within ±0.5%. Automated data acquisition, real-time curve generation, and full traceability functions provide the consistency and documentation required for industrial-grade quality assurance.

Yes. The machine offers force accuracy in class 0.5, full stress/strain control modes, and a comprehensive range of specialized grips. It supports tensile, friction, puncture, peel, and impact testing, covering the entire lifecycle of battery materials from raw films to finished products.

Yes. The high-rigidity dual-column frame, paired with a precision load-measurement system, maintains accuracy better than ±0.5% under both tensile and compressive loading conditions. Peak force and deformation are automatically captured, making the system highly suitable for construction-material testing laboratories and structural research applications.

Yes. The servo-hydraulic universal testing machine combines a high-stiffness load frame with a servo-hydraulic proportional control system, delivering stable and precise force and displacement control under high-load conditions. It is highly suitable for mechanical testing of construction steel, cement components, and concrete specimens.

Absolutely. With a high-response servo valve and a high-precision load cell, the machine delivers full-range force accuracy better than ±0.5% from 1-100% FS. This ensures highly accurate loading control and dependable detection of yield points, strain-hardening behavior, and fracture force.

Yes. The controller offers three closed-loop control modes (force, displacement, and strain) and supports fully programmable loading sequences. Features such as stress hold, displacement hold, ramp control, and multi-step loading paths enable complex, customizable test procedures, making the system ideal for advanced material research and academic experimentation.

The system utilizes a high-sensitivity servo-hydraulic proportional valve to deliver fast, smooth, and impact-free loading. This ensures highly stable control under dynamic or complex loading conditions, making it well suited for strength validation of vehicle components, structural assemblies, and railway system parts.

Yes. A high-stiffness frame combined with a low-friction pendulum shaft enables precise measurement of absorbed energy and fracture toughness for structural steels, cement, and construction components across a wide temperature range. With microcomputer control, the system automatically calculates impact strength, ensuring accurate and reliable test results for engineering applications.

Absolutely. Equipped with a high-precision angular displacement sensor and an automatic energy-calculation system, the machine delivers accurate and repeatable measurements of absorbed energy and impact strength. This makes it particularly well suited for batch consistency evaluation in metallurgical and mechanical manufacturing industries.

Yes. The system supports high-speed data acquisition and can generate full force-time or energy-time curves for the entire impact event. This enables detailed analysis of fracture behavior, crack propagation, and ductile-brittle transition characteristics, meeting the needs of advanced materials research.

Yes. Automatic pendulum lifting, precise braking mechanisms, and a fully enclosed protective housing ensure safe, efficient operation during high-energy impact tests. The machine delivers stable performance across 150J to 750J energy ranges, making it highly suitable for evaluating welded joints, safety-critical components, and structural assemblies in automotive, railway, and transportation sectors.

Yes. The drop weight impact tester provides high-energy impact loading, high-speed data acquisition, and synchronized force-displacement-energy measurement. It accurately evaluates the absorbed energy and fracture toughness of steel plates, welded joints, and structural steels.
The system complies with GB/T 4156, ASTM E23, and ISO 148, making it suitable for material R&D, quality control, and low-temperature toughness assessment.

Yes. The tester features an adjustable-energy drop-weight loading system and a high-frequency data acquisition module (up to 2 MHz), enabling full-process recording of force, displacement, and absorbed energy curves.
It provides accurate assessment of low-velocity impact damage initiation, energy absorption, and damage tolerance in composite laminates and sandwich structures.
The system meets ASTM D7136/D7137 and GB/T 35465, making it ideal for aerospace, new-energy vehicles, and high-performance composite R&D.

Yes. The tester is equipped with precise height control and adjustable impact energy, supporting free-fall impact testing for pipes of various diameters.
It also performs TIR (Total Indicated Rate) failure analysis and complies with GB/T 14152, ISO 3127, and ASTM D2444.
It is widely used for assessing the impact resistance, low-temperature toughness, and quality consistency of PVC, PE, PP-R pipes and fittings—making it suitable for manufacturing quality control and third-party certification labs.

Yes. The tester includes an integrated data acquisition and analysis software suite that automatically generates force-time curves, calculates absorbed energy, and exports complete test reports.
This enables researchers to conduct clear, visual, and quantitative comparisons of material performance across different formulations, temperatures, or test conditions.

Yes. Dynamic fatigue testing machines feature a servo-hydraulic closed-loop control system combined with a high-stiffness load frame, enabling precise simulation of cyclic loading experienced by building steel structures. This allows accurate assessment of fatigue life, durability, and long-term structural reliability.

Absolutely. Dynamic fatigue systems are equipped with full-digital servo control and dynamic force closed-loop regulation, providing: High-precision stress or strain cycling; Long-duration, high-cycle operation; Excellent stability and repeatability.

Yes. Dynamic fatigue system uses high-frequency servo-hydraulic actuators and optional multi-channel synchronous control, enabling replication of complex real-world loading such as road-induced vibration, multiaxial fatigue loading, random loading spectra and long-cycle durability tests.

Yes. Aerospace-grade fatigue systems offer high-frequency sinusoidal, triangular, random, and programmable loading. The tester features high-sensitivity force & displacement sensors, broad frequency bandwidth. This makes them ideal for composite fatigue lifetime studies, crack initiation and propagation (fracture mechanics), and high-cycle loading of aircraft structural components.

Yes. Dynamic fatigue testing machines are fully capable of performing precise small-deformation cyclic tests required for rubber, elastomers, and polymer components.