Rechargeable Electromagnetic Stirrer

The rechargeable electromagnetic stirrer operates using a built-in battery, driving the stirring bar to rotate through an electromagnetic field to achieve liquid mixing. It is suitable for uniformly stirring laboratory samples such as coatings and inks, making it convenient for use in locations without a power supply.

Instruments

With 60 ° Measurement Angles and 0~ 199.9GU Measurement range, Stability up to +/- 0.4GU, rechargeable battery design, compact and easy to carry, suitable for surface Glossiness detection.

$ 299.00

60 ° Measurement Angles cover the range of 0~ 199.9 GU, Graduation 0.1GU, Stability +/- 0.4GU, powered by AA battery, portable design for on-site rapid detection.

$ 267.00

Using electromagnetic force equilibrating Sensor, accuracy of 1mg, Stabilization time ≤ 6s, with RS232 Communication interface, counting function and density measurement and other practical functions.

$ 412.00

High Accuracy Electromagnetic Force Sensor, dynamic temperature compensation technology to ensure accuracy, repeatability error +/- 2mg, standard RS232 interface can transfer data directly to Excel.

$ 456.00

High Accuracy Electromagnetic Force Sensor, Capacity 520g, readability accuracy 0.1mg, OLED display and Draft Shield static elimination design, support external calibrating and multiple unit switching.

$ 2765.00

High Accuracy Electromagnetic Force Sensor, repeatability error +/- 1mg, Draft Shield static elimination design, support for external calibrating and multiple weighing units for special application needs.

$ 1816.00

High Accuracy Electromagnetic Force Sensor, Capacity 320g, readability 0.1mg, support automatic internal calibrating and multiple weighing units, equipped with transportation protection devices.

$ 1230.00

High Accuracy Electromagnetic Force Sensor, repeatability error +/- 0.2mg, dynamic temperature compensation technology to ensure weighing accuracy, reaction time is less than 3 seconds, support a variety of unit weighing.

$ 498.00

High Accuracy Electromagnetic Force Sensor, Capacity 320g, readability 1mg, support for external calibrating and multiple weighing units, equipped with transportation protection devices to ensure safety.

$ 708.00

Electromagnetic Force Sensor, repeatability error +/- 3mg, linear error +/- 3mg, with dynamic temperature compensation and external calibrating function, reaction time is less than 3 seconds, support a variety of weighing units.

$ 1037.00

Adopting a stepper motor automatic positioning and electromagnetic release system, the swing period is 1.4 seconds, and the steel ball diaMeter is 5 mm, providing visual and acoustic test end signals.

$ 1058.00

High Accuracy Electromagnetic Force Sensor with readability up to 0.01mg, support for automatic internal calibrating and multiple weighing units, Draft Shield static elimination design guarantees accuracy.

$ 3346.00

High Accuracy Electromagnetic Force Sensor, Capacity 520g, readability accuracy 1mg, support auto calibration and multiple weighing units, Draft Shield eliminates static electricity design to ensure weighing accuracy.

$ 945.00

High Accuracy Electromagnetic Force Sensor, repeatability error +/- 1mg, OLED backlit display to support glove operation, Draft Shield to eliminate static electricity and lower hook design to meet special application needs.

$ 751.00

Adopt a new generation of electromagnetic force Sensor to ensure stable and reliable weighing, readability accuracy of 0.1mg, equipped with ultra-clear OLED backlight display and Draft Shield static elimination design, support a variety of weighing units and lower hook applications.

$ 1313.00

Articles

Selection of Coating Thickness Gauges Using Magnetic and Eddy Current Methods on Different Substrates
This article introduces two main methods for coating thickness gauges: the magnetic method and the eddy current method. When choosing a method, the key is to determine it based on the electromagnetic properties of the substrate.
Application of Coating Thickness Gauges in Electroplating Thickness Detection
Coating thickness gauges are used to measure the thickness of electroplated layers, primarily employing the electromagnetic induction method for measuring non-magnetic coatings on magnetic substrates, or the eddy current method for measuring insulating coatings on non-magnetic metal substrates.
Eddy current thickness gauge measures metal coatings on non-conductive substrates.
The eddy current thickness gauge utilizes the principle of electromagnetic induction, generating an alternating magnetic field through the probe coil to induce eddy currents in the metal coating, thereby measuring thickness based on changes in coil impedance.
Laboratory Application Scenarios of Milligram Precision Balances
The milligram precision balance can accurately weigh up to 0.001 grams, primarily utilizing electromagnetic force compensation technology, and its performance is related to parameters such as repeatability and linearity error.
Eddy current thickness gauge detects coatings on non-ferrous metals.
The eddy current thickness gauge operates on the principle of electromagnetic induction, generating an alternating magnetic field through the probe coil, which induces eddy currents on the surface of non-ferrous metal substrates.
The principle of measuring dry film thickness with a coating thickness gauge
Coating thickness gauges measure dry film thickness through non-destructive methods, with commonly used principles including electromagnetic induction, eddy current, and ultrasonic methods.
For electromagnetic vibration tables, whether to choose sweep frequency or fixed frequency testing standards for simulating transportation is crucial; do not make a random selection if you are unsure.
The electromagnetic vibration table is used to simulate transportation vibrations and test the durability of products and packaging. There are two types of tests: fixed-frequency and sweep-frequency. The selection should be based on the test objectives and relevant standards to avoid arbitrary choices. For new products, it is recommended to first conduct a sweep-frequency test to identify resonance points, followed by fixed-frequency tests as needed.