Electromagnetic Heating Mantle

The electromagnetic heating mantle generates eddy currents in metal containers through electromagnetic induction to heat samples in the laboratory. It provides uniform heating and precise temperature control, making it suitable for chemical synthesis, solvent evaporation, and other operations while eliminating the risks associated with open flames.

Instruments

Adopting high-temperature non-alkali fiberglass insulation layer sealing resistance wire, the heating area is large and the heating is fast, the maximum operating temperature is 380 ℃, and the hemispherical internal thermal design avoids the danger of open flame.

$ 212.00

Temperature range environment to 380 ℃, can work continuously, large heating area and rapid heating, effectively protect Glass ware.

$ 140.00

Using high temperature non-alkali fiberglass insulation material sealing resistance wire, large heating area and heating fast, the highest temperature 380 ℃, support internal and external dual Sensor temperature measurement, no open flame design to avoid bumping Glass ware.

$ 170.00

Using high temperature non-alkali fiberglass insulation material, the highest temperature 380 ℃, with internal and external dual Sensor temperature measurement function, large heating area and rapid heating, excellent thermal insulation effect.

$ 151.00

Temperature range environment temperature to 380 ℃, can work continuously. The surface temperature of the heating element is up to 380 ℃, and the insulating layer is wOven with high temperature resistant fiberglass without alkali.

$ 117.00

Temperature range environment temperature to 380 ℃, can work continuously, heating element surface temperature up to 380 ℃, insulation layer sealing resistance wire design is safe and reliable.

$ 110.00

Temperature range environment temperature to 380 ℃, can work continuously, the maximum temperature of the surface of the heating element is 380 ℃, and the sealing design of the insulating layer ensures the safety of use.

$ 114.00

Adopting high temperature resistant non-alkali fiberglass insulation material, the maximum operating temperature is 380 ℃, with internal and external dual Sensor temperature measurement function, large heating area and no open flame design.

$ 143.00

Adopt electronic voltage regulation circuit without electric shock, Temperature range environment temperature to 380 ℃, can work continuously, large heating area and no open flame design, avoid bumping Glass ware.

$ 123.00

The use of high-temperature non-alkali fiberglass insulation layer wOven into a hemispherical internal heating heater, heating area and heating up quickly, the highest temperature of 380 ℃, no open flame design to avoid bruising Glass ware.

$ 131.00

Adopt high temperature resistant non-alkali fiberglass insulation material, the maximum operating temperature is 380 ℃, support internal and external dual Sensor temperature measurement, large heating area and no open flame design, can work continuously.

$ 160.00

Temperature range environment to 380 ℃, can work continuously, the maximum temperature of the surface of the heating element is 380 ℃, and the insulating layer effectively protects the Glass ware.

$ 130.00

Using high temperature non-alkali fiberglass insulation material, hemispherical internal heating design to achieve large heating area and fast heating, 100W power with 380 ℃ Temperature range, no open flame heating to avoid Glass ware bruises

$ 186.00

The use of high temperature resistant fiberglass insulation material wOven into a hemispherical internal heating heater, the highest temperature of 380 ℃, heating area and rapid heating, excellent insulation effect, to avoid the risk of open flames.

$ 667.00

The use of high temperature non-alkali fiberglass insulating layer wOven into a hemispherical internal thermal structure, heating area and heating fast, Temperature range covering Ambient Temperature to 380 ℃, power 300W can work continuously to avoid open flame protection Glass ware.

$ 148.00

Articles

Temperature Oscillation Suppression in Reflux Synthesis Using Laboratory Stirring Heating Mantles
This article explores the causes and suppression methods of temperature oscillations in laboratory heating mantles during reflux synthesis.
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.
Comparison of Dual-Principle Instruments: Magnetic Induction vs. Eddy Current for Coating Thickness Measurement
This article compares the principles of two coating thickness gauges. The choice of method depends on the substrate material: magnetic induction is used for magnetic metals, while eddy current is applied for non-magnetic metals.
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.
Magnetic thickness gauge measures the thickness of coatings on steel surfaces.
Magnetic thickness gauges are used to measure the thickness of non-magnetic coatings on ferromagnetic substrates such as steel, based on the principles of magnetic induction or changes in magnetic attraction. Prior to use, calibration should be performed according to relevant standards, and attention should be paid to factors such as substrate characteristics, workpiece shape, and surface conditions that may affect the measurements.
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.
Differences in Measurement Principles Between Magnetic Method and Eddy Current Method for Coating Thickness Gauges
Coating thickness gauges primarily utilize two measurement principles: magnetic method and eddy current method. The selection of the method should be based on the characteristics of the substrate material to ensure measurement accuracy.
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.
What is a Coating Thickness Gauge? A Complete Analysis of Its Principles, Usage, and Application Areas
The article systematically elaborates on the working principles of two core measurement techniques, magnetic induction and eddy current, detailing the standard measurement process from calibration to data recording, and conducting an in-depth analysis of the influence of substrate characteristics, geometric shapes, and environmental factors on measurement accuracy.
Huinou Laboratory Automatic Film Coater: Bringing Simplicity and Precision Back to Coating Experiments.
The Huiniao Experimental Automatic Coating Machine addresses common operational pain points in material R&D through features such as snap-on wire rods, flip-top magnetic scrapers, servo motor drives, and a high-flatness work surface. These designs enhance cleaning convenience, reduce maintenance costs, and improve coating stability.