Dynamic RheoMeter

A dynamic rheometer measures the viscoelastic response of materials by applying oscillatory stress or strain. It is used to analyze the flow and deformation behavior of fluids or soft solids such as coatings and plastics, and to evaluate material processing stability in research, development, and quality control.

Instruments

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

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

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, 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 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

Can simultaneously detect dynamic and static Coefficient of Friction, force range 0~ 5N, accuracy level 1, support microcomputer control and micro printer output test report.

$ 1542.00

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

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

SUS304 stainless steel inner box and double insulation structure, equipped with 360 degree swirl/spin sample holder and precise ozone concentration control, temperature fluctuation +/- 0.5 ℃, support static dynamic tensile test, suitable for rubber durability research.

$ 5899.00

It can automatically measure the dynamic and static Coefficient of Friction at the same time, using high-precision ball screw drive, the total error of the force measurement system is less than +/- 2%, and the micro printer can print multiple sets of results and the average value.

$ 2007.00

Based on the national standard design, the static Coefficient of Friction and the dynamic Coefficient of Friction can be measured simultaneously, with a test accuracy of up to 0.001N, equipped with High Accuracy Sensor and special drive system to ensure smooth operation and accurate results.

$ 1516.00

Weighing range 0-310g, Readability 1mg, with four-level shockproof and dynamic temperature compensation functions, support counting, percentage weighing and RS232 interface to connect external devices.

$ 420.00

Equipped with 7-inch Touchscreen, easy to operate, support stepless speed measurement and viscosity automatic conversion, measurement range 1~ 75000000mPa.s, gigabit network port to ensure fast and reliable data transmission.

$ 3244.00

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

Articles

Rotational rheometer measures the viscosity and processing performance of polymer melts.
A rotational rheometer applies a controlled shear field to measure rheological parameters such as the viscosity of polymer melts. The melt typically exhibits shear-thinning behavior, where its viscosity changes with the shear rate, directly affecting processing methods such as extrusion and injection molding.
Melt Flow Indexer and Torque Rheometer in the Evaluation of Processing Properties of Thermoplastic Resins
This article introduces the differences and selection methods between melt indexers and torque rheometers in evaluating the processing properties of thermoplastic resins.
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.
Rheometer combined with UV light source to study the curing behavior of photopolymerizable resin
This article introduces how to combine a rheometer with a UV light source to study the curing process of UV-curable resins.
Capillary Rheometer for Determining the Shear Viscosity Curve of Hot Melt Adhesives
This article introduces the method of measuring the shear viscosity curve of hot melt adhesives using a capillary rheometer. The principle involves pushing molten hot melt adhesive through a capillary, measuring the pressure and flow rate, and then calculating the shear stress and viscosity.
Can you distinguish between a rotational viscometer, a rheometer, and a cone-plate viscometer?
Rotational viscometers, rheometers, and cone-plate viscometers are core instruments in the field of material characterization, with significant differences in measurement principles, geometric structures, and functional positioning.