Servo-Driven Tensile Testing Machine

The servo-driven tensile testing machine controls the movement of the crossbeam through a motor-driven ball screw, applying tensile force to materials and measuring parameters such as fracture strength and elongation. It is used to test the mechanical properties of materials such as films, paper, and plastics, providing data support for quality control.
Selection
Select the range based on the maximum load of the material, determine the fixture type according to the specimen size, ensure the testing accuracy matches the sensor grade, cover the displacement speed range required by standards, make sure the software functions support the necessary test curve analysis, and ensure the equipment dimensions fit the laboratory space.

Terms

Standards

Instruments

Driven by a servo motor and a synchronous belt reduction mechanism, combined with a precision ball screw pair transmission, it operates smoothly with low noise and high efficiency. It features multiple protections against overcurrent, overvoltage, and overload, along with touchscreen operation and real-time LCD display, making the testing process intuitive and convenient.

$ 2736.00

Driven by servo motor, Test speed range 0.001~ 500mm/min, Accuracy grade 0.5, with perfect limit and overload protection functions, real-time display of load, displacement and test Linear dispersion.

$ 3462.00

Precision ball screws and servo motors are employed for driving, ensuring high control accuracy and excellent stability. The software supports multiple languages and various international standards, featuring robust data management and report editing capabilities.

$ 1987.00

Featuring servo motor and precision ball screw drive, it offers high control accuracy and low noise. The software supports multiple languages and unit switching, allowing for the editing of test programs and generation of reports in accordance with standards such as GB and ISO.

$ 1987.00

The system is driven by a servo motor with a high-precision ball screw, featuring a floor-standing structure that ensures excellent rigidity and high control accuracy. The software supports multiple languages and unit systems, equipped with multiple safety protections and data storage functions.

$ 1987.00

High Accuracy force sensor accuracy of +/- 1%, equipped with stepper motor to achieve stepless speed regulation of 1-500mm/min, can detect many paraMeters such as tension resistance and elongation, and support standard weight direct calibrating.

$ 1663.00

Driven by servo motors and precision ball screws, it offers high testing accuracy and low noise; the software supports multiple languages and unit systems, allowing for the editing of various test schemes and the generation of standardized reports.

$ 1987.00

Test method to achieve tensile compression test, Accuracy grade 1, equipped with 7-inch touch screen display tensile curve, support 50 kinds of fixtures to meet more than 1000 material testing needs.

$ 3317.00

Using servo motor drive and High Accuracy ball screw, the maximum load is 20T, the accuracy reaches 0.5 level, supports constant speed loading and displacement control, automatically calculates stress, elongation and other paraMeters, and integrates a variety of Measurement modes.

$ 12144.00

Driven by servo motors and precision ball screws, it offers high control accuracy and low noise. The software supports hierarchical user permission management, multi-language switching, and multiple unit settings. Test data can be automatically stored, and the system is equipped with multiple safety protection mechanisms.

$ 1987.00

Driven by a servo motor and precision ball screw, it offers high control accuracy. It supports various control modes such as constant speed, fixed displacement, and fixed force, as well as complex cyclic testing. Multiple curves can be displayed and analyzed in real time, with over 400 results automatically calculated.

$ 1553.00

Adopt full digital control AC motor, speed accuracy +/- 0.5%, effective force range 1~ 100% FS, strong structural rigidity, support a variety of test modes such as tensile, compressive, tensile, etc., easy to operate, stable and reliable.

$ 4066.00

Rotation speed up to 300 rpm, swirl/spin accuracy of 0.1 degrees. With intelligent liquid crystal display real-time paraMeters, the scraper part adopts Swiss imported combination knife holder and long-life small golden knife to effectively reduce losses.

$ 3914.00

The system is driven by a servo motor and a high-precision ball screw, enabling high-precision loading. It offers various control modes such as constant speed, constant displacement, and constant force, supports complex multi-step nested loop control, and can display and analyze multiple test curves in real time.

$ 2844.00

High Accuracy Precision Screw and Guide Column, Speed accuracy +/- 0.5%, Tensile, Compression, Bending and other tests, Support a variety of Unit switching and data processing.

$ 6496.00

Articles

Comparison of Single-Column and Dual-Column Tensile Testing Machines in Plastic Film Testing Selection
This article introduces the differences between single-column and dual-column tensile testing machines in plastic film testing.
Application of Small Push-pull Force Gauge in Rapid Inspection of Adhesive Peel Strength for Mobile Phone Screens
This article introduces how to quickly test the peel strength of adhesive on phone screens using a small push-pull gauge.
Application of Tensile Testing Machine in 180-Degree Peel Strength Test for Packaging Tape
This article introduces how a tensile testing machine is used to test the 180-degree peel strength of packaging tape.
Electronic Tensile Testing Machine Measures the Right-Angle Tear Strength of Films
This article explains how to measure the right-angle tear strength of films using an electronic tensile testing machine. During the test, a film specimen with a right-angle notch is first clamped onto the testing machine and stretched at a constant speed. The machine records the changes in force during the tearing process.
Tensile testing machine measures the bending fatigue life of flexible OLED films.
This article introduces a method for testing the bending fatigue life of flexible OLED films using a tensile testing machine. The test simulates repeated bending to evaluate the accumulation of damage in the film under cyclic stress, and monitors performance changes to determine the failure point.
Electronic universal testing machine measures film tensile strength.
This article introduces the method of measuring the tensile strength of thin films using an electronic universal testing machine. During the test, the machine applies tensile force to the film sample, records the maximum tensile force and displacement through sensors, and then calculates the tensile strength using a formula.
Determination of Static Surface Tension of Color Coatings Using the Platinum Plate Method with a Surface Tensiometer
This article introduces the method of measuring the static surface tension of colored paints using the platinum plate method. It explains the principle, which involves calculating the surface tension by measuring the force when the platinum plate is lifted from the liquid surface.
Adhesion Tester Pull-Off Method for Determining Adhesion Strength of Varnish
This article introduces the test method for measuring the adhesion strength of varnish using the pull-off method. It involves adhering test cylinders to the coating and substrate with adhesive, then vertically pulling them apart with an instrument to record the maximum pulling force and calculate the adhesion strength.
Electronic tensile testing machine testing the tensile strength of packaging film
This article introduces the method of testing the tensile strength of packaging films using an electronic tensile testing machine. It first explains the importance of tensile strength for packaging films, then details the testing principles, equipment composition, and the necessity of preparing samples according to standards.
Method for Determining Peel Strength of Hot Melt Adhesives Using an Electronic Tensile Tester
This article introduces the standard method for determining the peel strength of hot melt adhesives using an electronic tensile testing machine. The test employs a 180° peel mode, where a sample coated with hot melt adhesive is clamped in the machine's fixtures and peeled at a constant speed. The peel strength is calculated based on the recorded force variations.
Adhesion tester evaluates the bonding strength between coating and substrate.
The adhesion tester is a device used to measure the bonding strength between a coating and the substrate. It applies a pulling force until the coating detaches, records the force value, and calculates the strength. Common testing methods include the pull-off method, cross-cut method, etc., each with corresponding standards.
Pull-off testing for interlayer adhesion of multilayer coating systems.
This article introduces the pull-off method for testing the interlayer adhesion of multilayer coating systems. The test involves vertically bonding a pull-off head to the coating surface and applying a pulling force until the coating separates, measuring the required force to evaluate adhesion strength.
Tensile testing machine tests the tensile strength of industrial tape.
This article explains how to use a tensile testing machine to test the tensile strength of industrial tapes. Tensile strength is a key indicator for measuring the mechanical properties of tapes, and testing must comply with international standards such as ISO and ASTM.
Tensile Testing Machine Evaluates High and Low Temperature Tensile Properties of Hot Melt Adhesive
This article introduces how to use a tensile testing machine to test the tensile properties of hot-melt adhesives at different temperatures. The performance of hot-melt adhesives varies with temperature: they may soften at high temperatures and become brittle at low temperatures.
Tensile testing machine for testing the puncture resistance of film materials.
This article introduces how to use a tensile testing machine to test the puncture resistance of film materials. Puncture resistance is a key indicator for measuring a film's ability to resist penetration by sharp objects, directly affecting the protective performance of packaging.