Spring tensile testing machineThe machine adopts a horizontal dual station design, polyurethane rubber shock absorption suspension, oil pump forced lubrication, high-precision linear guide rail guidance, high-precision double connecting rod adjustable crankshaft connecting rod mechanism, AC servo motor drive, PLC touch screen control, sampling, display and other structural components. It is mainly used for fatigue life testing of various springs, elastomers, elastic components and other parts. Suitable for performance testing of plastic films, composite materials, flexible packaging materials, plastic hoses, adhesives, adhesive tapes, stickers, protective films, combination covers, metal foils, diaphragms, backplate materials, non-woven fabrics, rubber, paper and other products such as stretching, peeling, deformation, tearing, heat sealing, bonding, puncture force, opening force, low-speed unwinding force, and pulling force.

　　Spring tensile testing machineFeatures:

1. This spring testing machine is capable of measuring the tension, pressure, stiffness, displacement, and displaying dates, numbers, and other information of springs

2. By adopting large-scale inheritance circuits, the testing accuracy has been improved, and the human-machine dialogue is intuitive and clear

3. The spring testing program designed according to national standards is efficient, fully functional, and easy to operate

4. Dynamic display of data and curves during the experimental process

5. The curve can be reanalyzed by zooming in, out, and clicking to view the data corresponding to each point on the curve.

6. Suitable for batch testing and sorting of springs on production lines, as well as precision sampling in laboratories

7. Standard test reports can be printed based on data such as force values, displacement, stiffness, and curves

8. Microcomputer controlled fully automatic spring tension and compression testing machine (single arm) with programmable and mechanical two-level limit protection

　　Spring tensile testing machineProduct Introduction

Experimental force: When an object is subjected to an external force that causes it to deform, the magnitude of the force, P=K ·△ H, is represented by F.

Remaining height: The height of an object after deformation under external force, represented by H.

Deformation amount: The height at which an object undergoes deformation under external force (object height remaining height), represented by Δ H.

Stiffness: K=(F2-F1)/(H2-H1) unit expressed in N/mm.