Dynamic Torque Detector

The dynamic torque detector measures the torque changes of rotating components in real-time through sensors, and is used to monitor the torque status of equipment such as motors and transmission shafts during operation. This instrument is applied in mechanical manufacturing, automotive testing, and production line monitoring, helping to understand the working load and performance of equipment.
Selection
When selecting a dynamic torque tester, it is essential to consider a measurement range that covers the actual torque values, ensure the accuracy meets the usage requirements, and confirm compatibility with the rotational speed of the equipment under test. Attention should also be paid to matching the sensor size with the installation space and ensuring the output signal type interfaces with the existing system. Additionally, environmental adaptability factors such as temperature and humidity must align with the working conditions.

Terms

Standards

Instruments

With 1 level accuracy and +/- 1% Indication Error, it supports three test modes of real-time torque tracking, peak holding and first peak, and can store 99 sets of data and automatically calculate statistical values.

$ 2026.00

With 2-level accuracy and +/- 2% Indication Error, it supports three test modes of real-time tracking, peak holding and first peak, and can store 99 sets of data and automatically calculate statistical values.

$ 2742.00

With 1 level accuracy and +/- 1% Indication Error, supports automatic conversion of three units and 99 sets of data storage, can set peak hold time and upper and lower limit alarms, equipped with dedicated software for data analytics and Linear dispersion display.

$ 2026.00

With +/- 2% indication relative error and 0.1N.m resolution, it supports three test modes of real-time tracking, peak holding and first peak, and can set upper and lower limits for comparison and automatically calculate statistical values.

$ 2742.00

Using electronic Sensor technology, accuracy level 1, resolution up to 0.001N.m, support three automatic unit conversion and three test modes, can store 99 sets of data and automatically calculate statistical values

$ 2026.00

With 1 level accuracy and +/- 1% Indication Error, supports three unit automatic conversion and three test modes, can store 99 sets of data and automatically calculate statistical values, equipped with serial output and host computer software to realize data analytics.

$ 2026.00

Using electronic Sensor technology, accuracy level 2, supports three automatic unit conversion and three test modes, can store 99 sets of data and automatically calculate statistical values.

$ 2742.00

It has level 1 accuracy and +/- 1% Indication Error, supports three unit automatic conversion and peak hold functions, can store 99 sets of data and automatically calculate statistical values, and is equipped with special software to realize data analytics and report generation.

$ 2026.00

With 2 level accuracy and +/- 2% Indication Error, supports three unit automatic conversion and three test modes, can store 99 sets of data and automatically calculate statistical values, equipped with serial output and dedicated host computer software to realize data analytics.

$ 2742.00

Dual gas source dynamic Gas chromatography, CG, 4 station design test efficiency, each sample only 5-7 minutes, measurement error ≤ +/- 1%, high Sensitivity Detector to ensure accurate and reliable data.

$ 10562.00

The motor is used to drive the top edge to rise, the edge length is 150mm, and the rising rate is 3mm/min, which can accurately test the dynamic anti-cracking performance of the material against the crazing expansion of the substrate, and the operation is light and stable.

$ 622.00

Equipped with automatic centering device to avoid eating unilateral problems, maximum load 50Kg, Test speed range 0-100mm/min, support dynamic Impedance test and a variety of damage strength test.

$ 3583.00

Platinum Sensor provides linearly stable measurement results, Conductivity Detector cell constant K = 10, Measurement range 0 to 200mS/cm, suitable for high Conductivity Detector liquid detection.

$ 106.00

Using Dynamic Low Temperature Nitrogen Adsorption Method and High Sensitivity Sensor, the test range from 0.0005m ²/g has no upper limit, the repeatability error ≤ +/- 3%, and the single sample test is completed in about 3 minutes.

$ 7980.00

Conductivity Detector cell constant K = 0.1, built-in temperature sensor real-time sensing sample temperature, suitable for low Conductivity Detector liquid measurement.

$ 314.00

Articles

Practical Guide to Selecting Rotors and Speeds for Rotational Viscometers
A rotational viscometer measures viscosity by detecting the resistance encountered by a rotor rotating in the sample. When selecting a rotor, it is necessary to consider the estimated viscosity range of the sample, ensuring that the torque reading falls within 10% to 90% of the instrument's measurement range, while also taking into account the sample volume and rheological properties.
Rubber non-rotor vulcanization tester measures vulcanization curve.
The rubber non-rotor vulcanization tester is used to measure the curve of torque versus time during the vulcanization process, in order to assess the crosslinking degree and vulcanization characteristics of rubber.
Dart impact tester measures the toughness of packaging film.
The dart impact test evaluates the material's resistance to damage under dynamic impact, i.e., its toughness, by allowing a dart to fall freely and strike the packaging film. During the test, different impact energies are simulated by adjusting the weight of the dart or the drop height, and sensors are used to detect whether the film ruptures.
Comparison of Rotational Viscometer and Capillary Rheometer in Testing the Flowability of Resin Processing
The rotational viscometer measures torque via rotor rotation, making it suitable for testing the static or low-shear fluidity of resins under low shear rates, with simple and quick operation. The capillary rheometer, on the other hand, forces samples through a capillary to simulate high-shear processing, providing flow data closer to actual production conditions, but it is more complex and time-consuming to operate.
Rotational Viscometer Measures Viscosity and Processability of Resin Melts
A rotational viscometer calculates viscosity by measuring the torque experienced by a rotor as it rotates in the resin melt, thereby helping to understand the material's processing properties.
Rotational Viscometer for Measuring and Controlling the Application Viscosity of Coatings
A rotational viscometer is a commonly used tool for controlling the viscosity of coatings during application, as it measures the torque generated by a rotor rotating in a fluid to calculate viscosity.
The cone and plate viscometer measures the rheological properties of a small amount of ink sample.
A cone-plate viscometer measures torque through rotation between the cone and plate, enabling the analysis of rheological properties with small ink samples. It is suitable for small-volume measurements, reducing interference from solvent evaporation.
Method for measuring ink viscosity with a rotational viscometer
A rotational viscometer measures viscosity by detecting the torque experienced by the rotor as it rotates in the ink, with the calculation formula being η = K × (T/ω). Before measurement, it is necessary to select an appropriate rotor, control the temperature, and calibrate the instrument.
Correlation Analysis between Puncture Strength and Bursting Strength of Paperboard
This article analyzes the correlation between the puncture strength and burst strength of cardboard. The two properties respectively measure the ability of cardboard to resist dynamic impact and static pressure. Although their testing principles differ, both are closely related to factors such as the fiber structure and lamination process of the cardboard.
The role of the puncture strength tester in evaluating the impact resistance of corrugated cardboard.
The puncture strength tester is used to test the impact resistance of corrugated cardboard, simulating scenarios where sharp objects suddenly impact during transportation. It measures the energy consumed during penetration by impacting the sample with a puncture head, reflecting the cardboard's ability to resist dynamic impacts.
The rotational viscometer reads the viscosity of ink.
A rotational viscometer measures viscosity by generating torque through a rotor rotating in the ink, aiding in the analysis of the ink's flow characteristics. The thickness or thinness of the ink affects printing quality, and both excessive thickness and excessive thinness can lead to issues.
Key Points for Measuring the Viscosity of Resin Solution with a Rotational Viscometer
When measuring the viscosity of resin solution with a rotational viscometer, it is based on the principle of internal friction, and the viscosity is calculated from the torque generated by the rotation of the rotor.
Rotational Viscometer vs. Stormer Viscometer: How to Choose the Right Instrument Based on Coating Type
The rotational viscometer measures viscosity by detecting rotor torque and can analyze rheological properties at different shear rates, making it suitable for research and precise measurements. The Stormer viscometer uses the load at a fixed rotational speed to determine the KU value, simulating construction conditions, and is commonly used for rapid on-site evaluation of coating application performance.
Corrugated Board Impact Resistance - Application of Puncture Strength Tester in Packaging Testing
The impact resistance of corrugated cardboard is crucial for transportation protection, with puncture strength being a key indicator of its ability to withstand dynamic impacts. The puncture strength tester simulates impacts using a pendulum system and measures the energy consumed to penetrate the cardboard, with results expressed in joules or kilojoules per square meter.
Application of Stormer Viscometer KU Value in Coating Viscosity Control
This article introduces the application of KU values measured by the Stormer viscometer in the coatings industry. The KU value reflects the viscosity of coatings by measuring the torque at a specific rotational speed, with higher numbers indicating greater viscosity.