Low temperature impact Tester

The low-temperature impact tester detects the brittle fracture behavior of materials at low temperatures by cooling the specimen in a set low-temperature environment and then rapidly impacting it with an impact head. It is used to evaluate the cold resistance of materials such as coatings and plastics, and to determine their applicability in low-temperature environments.
Selection
When selecting, it is necessary to match the material type and testing standards, confirm that the temperature range covers the usage requirements, check the adjustability of impact energy, verify the temperature control accuracy, consider the compatibility of specimen fixtures, verify the safety protection functions of the equipment, and choose the appropriate model based on the actual testing throughput.

Terms

Standards

Instruments

Using triple-channel thermal insulation structure, the damper switching time is completed within 10 seconds, and the temperature recovery time is within 5 minutes. With 96 test specification settings, the maximum Impact time is 9999 minutes, meeting the needs of high and low temperature rapid change testing.

$ 27829.00

Adopting triple-channel thermal insulation structure, the throttle switching time is completed within 10 seconds, and the temperature recovery time is completed within 5 minutes. With 96 test specification settings, the Impact time can reach 9999 minutes, and the cycle period is 9999 times, meeting the needs of High Accuracy Temperature Control.

$ 16372.00

Adopt triple-channel thermal insulation structure to realize cold and hot air circuit switching, temperature recovery time within 5 minutes, Impact time up to 9999 minutes, with 96 test specifications independently set and automatic defrosting function.

$ 22019.00

The three-box heat storage and cold storage structure is adopted, the temperature conversion time is ≤ 10 seconds, and the temperature recovery time is ≤ 5 minutes, which can realize the rapid Impact test of high temperature 150 ℃ to low temperature -55 ℃, and meet the environmental adaptability verification of the extreme temperature of the material.

$ 18437.00

With two-box mobile Impact structure, the temperature recovery time is less than 5 minutes, and the conversion time is only 10 seconds. Equipped with rigid polyurethane foam insulation material, it has ultra-low temperature thermal conductivity and waterproof performance, and supports programmed temperature control.

$ 14564.00

Impact height up to 120 cm, weight weight mass 1000g, no secondary rebound after impact, to ensure accurate and reliable test results, suitable for film impact performance evaluation.

$ 370.00

Adopt triple-channel thermal insulation structure to realize cold and hot air circuit switching, temperature recovery time within 5 minutes, Impact time can reach 9999 minutes. With 96 test specification settings and P.I.D automatic calculation control to ensure Test accuracy.

$ 20228.00

Impact height 0-50cm adjustable, equipped with 1000g drop weight and Φ 8mm punch, Impact depth 2mm, can accurately determine the material resistance to Impact performance.

$ 228.00

Impact height up to 120 cm, using 1000g standard hammer body, no secondary rebound phenomenon after impact, to ensure accurate and reliable test results.

$ 259.00

Dynamic impact testing is achieved with a two-box mobile structure. The impact conversion time is within 10 seconds, and the temperature recovery time is within 5 minutes. It is equipped with rigid polyurethane foam insulation materials to ensure low thermal conductivity and meet a number of national standards.

$ 12289.00

Impact height 0-100cm adjustable, equipped with 1000g drop weight and Φ 8mm punch, Impact depth 2mm, can accurately determine the material anti-Impact performance.

$ 286.00

Using 1kg weight free fall impact, impact height adjustable range 0-50cm, equipped with φ 8mm punch and φ 15mm die base, can carry out positive and negative impact test.

$ 164.00

Impact height of 120 cm, hammer mass 1000g, no secondary rebound phenomenon after impact, punch diaMeter 16mm, can accurately determine the impact strength of the paint film.

$ 370.00

Impact method using drop ball, test height range of 50-1000mm, equipped with four radius Impact head and 300-1000g weight, can accurately evaluate the material anti-Impact performance and fracture.

$ 933.00

Impact specimens with semi-spherical punches are used for energy consumption measurement to evaluate anti-Impact performance. Impact energy range is 3J, Impact speed is 2.5m/s, and it is suitable for a variety of film and paper tests.

$ 1348.00

Articles

Thermal shock test chamber measures the thermal shock resistance of polymer films.
This article introduces how to test the thermal shock resistance of polymer films using a thermal shock test chamber. The test involves rapidly switching the film between high and low temperatures to simulate the drastic temperature changes that may occur in actual use, thereby generating thermal stress within the material.
Thermal Shock Test Chamber Measures Film's Temperature Change Resistance
The thermal shock test chamber creates thermal stress inside the film by rapidly switching between high and low temperature environments, testing its resistance to temperature changes. During the test, key parameters such as temperature range and dwell time need to be set, and the film is observed for issues such as cracking or performance degradation.
Thermal Shock Test Chamber Evaluates Coating Thermal Stability
The thermal shock test chamber simulates sudden temperature changes by rapidly switching between high and low temperature environments, used to evaluate the thermal stability of coatings. In practical applications, coatings may develop internal stresses due to drastic temperature fluctuations, leading to issues such as cracking and peeling.
The essential difference between thermal shock test chambers and high-low temperature alternating test chambers.
Both thermal shock test chambers and temperature cycling test chambers are used to test the temperature resistance of products, but their core differences lie in the method and purpose of temperature change.