Finished Shoe Bending Endurance Tester

The finished shoe flex tester simulates walking conditions by repeatedly bending the shoe sole through motor-driven operation. It assesses the fatigue resistance and cracking risk at the junction between the sole and the upper. This equipment is used for quality control in footwear production and the evaluation of material durability.
Selection
When selecting, consider the bending angle and frequency required by the test standards. The fixture must be adaptable to different shoe sizes. The motor's lifespan should meet the demand for tens of thousands of tests, and it should be equipped with a counter and an automatic shutdown function.

Terms

Standards

Instruments

Can test 4 shoes at the same time, bending angle 0 °~ 90 ° adjustable, Test speed 0~ 140 times/min, with automatic return and LCD counter function.

$ 2018.00

Equipment with 12 sets of fixtures, bending angle 22.5 °, can be 100 +/- 5cpm folding test, suitable for upper, clothing, bags and other thin material folding endurance evaluation.

$ 1101.00

4 finished shoes can be tested at the same time, the folding angle can be adjusted by 5-80 degrees, and the torsion resistance rate can be adjusted by 5-150rpm. It is driven by a variable frequency motor to meet the standard test requirements.

$ 1984.00

Support 4 specimens synchronous testing, folding angle 0-45 degrees adjustable, folding speed 80 +/- 5cpm, using LCD counter to achieve accurate counting, to meet the requirements of material refractive performance evaluation.

$ 2741.00

Equipped with 2 to 12mm eight diaMeter stainless steel cylindrical mandrel, in the form of hinged bending, in line with GB6742 standard, suitable for Coating bending performance testing.

$ 235.00

A bending angle is less than 45 degrees, can test 0.5~ 1.0mm Film thickness sample, flattening mechanism stroke is not less than 10mm, using crank lifting mechanism to achieve T-shaped bending test.

$ 912.00

The gear pair and crank lifting mechanism are used to achieve accurate bending, the first bending angle is less than 45 °, the flattening mechanism Travel ≥ 10mm, which can test 0.5-2 mm thickness plates and support OT to T bend test.

$ 485.00

The instrument is equipped with eight kinds of diaMeter stainless steel cylindrical mandrel, which adopts the form of hinge connection bending, which can accurately test the bending deformation of coatings under different diaMeters to ensure the test Reliability.

$ 251.00

The test bending angle is less than 45 degrees, suitable for steel plate thickness 0.5~ 1.0mm and Aluminum Panel thickness 0.5~ 2.0mm. The gear pair and crank lifting mechanism are used to achieve T-shaped bending, which is easy to operate.

$ 538.00

Using carbon steel shaft and toothed belt drive, Bending Frequency 0-155 times/min adjustable, with low abrasion, low noise and shock-proof design to ensure accurate and stable testing.

$ 1897.00

Temperature range -30 ℃ to + 100 ℃, equipped with stainless steel inner and outer boxes and environmentally friendly refrigerant, supports multi-station fixture testing, can precisely control the folding mode and record data changes in real time.

$ 6113.00

Maximum load 100KN, suitable for bending testing of various materials, with high load-bearing capacity and Stability, to meet different testing requirements.

$ 616.00

With a bending angle of 135 degrees and a folding speed of 175 times per minute, it can apply a test load of 4.91N to 14.72N, and the automatic counting function accurately records the number of breaks, which is suitable for material durability testing.

$ 1463.00

It can measure three different angles at the same time, the angle range is adjustable from 1-92 °, the Measurement range is 0-10000mN, and it supports a variety of material tests with bending length and thickness 0.01-5 mm. It has automatic reset and self-Adjustment.

$ 2736.00

Using pure mechanical design, the coating performance is measured by conical mandrel bending test plate, the test plate size is 100mm × 180mm, the thickness is less than or equal to 0.8mm, and the operation is simple and reliable.

$ 240.00

Articles

T-bend tester for coatings is used to determine the T-bend grade of metal sheet coatings.
This article introduces how the T-bend tester for paint films is used to evaluate the flexibility and adhesion of coatings on metal sheet surfaces.
Cone Mandrel Bend Tester evaluates the flexibility of coatings under small-diameter bending.
The paint film conical bending tester simulates a gradually varying radius of curvature using a conical shaft to test the flexibility of coatings under small-diameter bending.
Coating Cylindrical Bending Tester for Determining the Resistance of Paint Films to Cylindrical Bending Cracking
This article introduces how the coating cylindrical bending tester measures the resistance of paint films to bending and cracking.
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.
Cylindrical Mandrel Bending Tester for Detecting Flexibility of Coatings
This article introduces how the cylindrical shaft bending tester detects the flexibility of paints. Flexibility refers to the ability of the paint film to resist cracking when the substrate is bent.
The Taber stiffness tester is used for measuring the bending stiffness of paperboard.
The Taber stiffness tester is used to measure the bending stiffness of paperboard. Its principle involves applying a known bending moment to the specimen and measuring its resistance to deformation. Bending stiffness is a key performance indicator of paperboard, affecting its processing suitability and packaging functionality.
Testing principle of the mandrel bending method for paint film flexibility tester
The shaft-rod bending method is a common technique for testing the flexibility of paint films. It involves bending a test panel coated with the paint film over shafts of different diameters to simulate the deformation of the coating under stress.
Paint Flexibility Tester for Measuring Bending Adaptability
The coating flexibility tester is a device used to assess whether a coating cracks or peels when bent. During testing, the coated sample is bent around mandrels of different diameters, and the surface condition is examined. The flexibility is evaluated based on the smallest mandrel diameter at which no cracking occurs.
Application of Tensile Stiffness Tester in Tissue Paper and Packaging Paper.
The tensile stiffness tester is used to measure the resistance of thin paper and packaging paper to bending. Its principle is based on the theory of material bending, and the stiffness value is calculated using a formula. Thin papers, such as toilet paper, require lower stiffness to ensure softness, while packaging papers, such as paper bag paper, require higher stiffness to provide support.
The role of a bending stiffness tester in evaluating the rigidity and formability of cardboard.
The bending stiffness tester evaluates the rigidity and formability of cardboard by measuring its resistance to bending deformation. Based on the beam bending theory, it is tested under standard conditions, providing bending stiffness value as the core indicator.
Cone Bend Test Evaluates the Ultimate Deformation of High-Elasticity Coatings
This article introduces the use of a conical mandrel bend test to evaluate the ultimate deformation capacity of highly elastic coatings. The test involves bending a coated sample around a conical mandrel of specific diameters and observing the minimum mandrel diameter at which the coating cracks or peels off, thereby assessing the material's ability to withstand deformation.
Complete Guide to Methods for Determining the Flexibility of Paint Films
This article systematically outlines the core methods for determining the flexibility of paint films, including the mandrel bending test based on GB/T 1731, the cylindrical mandrel bending method according to GB/T 6742, and the conical mandrel bending method specified in GB/T 11185, providing a detailed explanation of the technical principles of each method.