Magnetic Induction Stirring Transparent Heating Constant Temperature Bath

The magnetic induction stirring transparent heating constant temperature bath utilizes an electromagnetic field to drive the rotation of a magnetic rotor inside the container for stirring. Combined with heating elements in the transparent bath, it ensures uniform heating of the medium. A temperature sensor and control system maintain the set temperature. It is used for constant temperature reactions requiring process observation, sample dissolution, or viscosity testing in laboratories.
Selection
When selecting, consider whether the temperature range and accuracy meet experimental requirements, ensure the bath volume is compatible with sample size, confirm the stirring speed covers sample mixing needs, check that the material's corrosion resistance matches the experimental medium, and ensure safety features include dry-burning and overheat protection functions.

Terms

Standards

Instruments

Double station independent temperature control design, stirring speed up to 2600rpm, temperature control accuracy +/- 1 ℃, with PID self-tuning function, support dry burning, oil Bath and water Bath three Heating mode.

$ 344.00

With dual functions of constant temperature water Bath and magnetic Stir, temperature control accuracy up to +/- 0.5 ℃, Stir speed 0~ 1500rpm, stainless steel studio corrosion resistance, support 6 samples processed simultaneously.

$ 620.00

4-Sided Glass design is easy to observe sample changes, four-hole independent temperature control accuracy +/- 0.05 ℃, magnetic stirring can be stepless speed regulation, accelerate liquid temperature transfer, achieve rapid uniform heating.

$ 1944.00

Adopt microcomputer PID temperature control, temperature control accuracy +/- 0.5 ℃, ensure temperature stability. Magnetic stirring output torque, keep Rotation speed constant, over-temperature sound and light alarm to protect sample safety.

$ 1016.00

With dual functions of constant temperature water Bath and magnetic Stir, temperature control accuracy up to +/- 0.5 ℃, Stir speed 0~ 1500rpm, stainless steel studio corrosion resistance, support 4 × 1000ml Stir, safe and easy operation.

$ 522.00

Four-hole independent magnetic stirring can be stepless speed regulation and display Rotation speed, Temperature range 15~ 120 ℃, Temperature Fluctuation +/- 0.05 ℃, 4-sided Glass design is easy to observe sample changes.

$ 1492.00

Maximum heating temperature 400 ° C, stirring speed 0~ 1250rpm, support external temperature sensor automatic thermostatic, key Rotation speed setting to prevent stirringRod stall, large screen LCD display temperature and stirring status.

$ 259.00

Heating power 800W, speed range 0-2600 rpm, support vacuum reaction and pressure reaction for a long time stirring, with durable magnetic steel and PTFE stirrer.

$ 209.00

Heat collection heating method is adopted, the solution is heated uniformly and quickly, energy-saving and efficient. Temperature range is as wide as 300 ℃, speed range is 0-2600 rpm, durable magnetic steel and PTFE stirrer are equipped to support long-term stirring under vacuum and pressure reactions.

$ 243.00

The maximum heating temperature is 300 ° C, the stirring speed is 0~ 1250rpm, the stirring time and thermostatic temperature can be set, and the external temperature sensor automatically controls the temperature to prevent the stirringRod from stalling.

$ 240.00

Brushless DC motor to achieve 100-2000rpm smooth stirring, double heating control loop to ensure temperature stability, aluminum die-casting ceramic coating plate with abrasion resistance and corrosion resistance, Max. stirring Capacity up to 20L.

$ 577.00

It adopts transparent carbonic acid ester Bath design, with a volume of 6L, equipped with pressure/suction pump and Pt100 temperature sensor, with low liquid level protection and hardware over-temperature protection functions, and supports external circulation temperature control.

$ 1519.00

Three-phase motor closed-loop control to achieve constant speed operation, low speed up to 50rpm, Max. stirring Capacity 10L, motor torque 80mN · M, suitable for high viscosity medium stirring, the shell stainless steel design is lighter.

$ 233.00

Using transparent carbonic acid ester Bath design, the highest Operating temperature is 100 ℃, equipped with pressure/suction pump to provide 22L/min Flow rate, support external circulation and Pt100 temperature sensor precise temperature control.

$ 841.00

Maximum stirring capacity 3 liters, stirring speed 200~ 1800rpm stepless speed regulation, Heating power 450W, Temperature range RT + 5~ 320 ℃, using aluminum alloy die-casting shell, high temperature corrosion resistance easy to clean.

$ 311.00

Articles

Constant temperature bath selection: circulation method and temperature control range.
This article on thermostatic bath selection primarily analyzes two core factors: circulation mode and temperature control range. The circulation mode is divided into natural convection and forced circulation, where the former is suitable for simple static experiments, while the latter offers higher precision and is better suited for multiple samples or integration with external devices.
The film coater applies a conductive film onto transparent substrate test pieces.
This article introduces a method for uniformly coating conductive films on transparent substrates such as glass or plastic films using a film applicator.
Preparation of standard coatings by film coating mechanism for opacity testing of paint formulations.
This article introduces the method of preparing standard coatings using a film applicator to test the opacity of coatings.
Colorimeter evaluates the change in yellowing index of transparent resin.
This article introduces how to use a colorimeter to measure the yellowing index changes in transparent resin. Transparent resin can turn yellow over time or due to environmental influences, and the yellowing index can quantify the degree of color change.
Haze meter detects the transparent scattering characteristics of optical coatings.
This article introduces how a haze meter detects the transparency and scattering characteristics of optical coatings. Optical coatings are used in fields such as displays and packaging, where their transparency and scattered light can affect product performance.
Coating Process of Transparent Conductive Oxide Thin Films and Practice of Coating Machines
This article introduces the coating process and practice of coating machines for transparent conductive oxide films. Transparent conductive oxide films possess both transparency and conductivity, making them widely applicable in fields such as touch panels and solar cells.
Graphene Transparent Conductive Film Coating Process and Coater Selection
This article introduces the coating processes and coating machine selection for graphene transparent conductive films. The coating processes primarily include blade coating, slot-die coating, spin coating, and spray coating, with choices depending on the properties of the dispersion, the type of substrate, and the production scale.
Preparation of silver nanowire transparent conductive films by the wire bar coating method
The preparation of silver nanowire transparent conductive films using a coating method is an efficient and scalable production process. This article systematically elaborates on the technology from aspects such as principles, materials, processes, performance characterization, and standards.
How to achieve high uniformity in silver nanowire transparent conductive films through wire rod coating
This article introduces how to prepare uniform silver nanowire transparent conductive films using the wire rod coating technique. These films, which use silver nanowires as the conductive material, exhibit high transparency and conductivity, making them suitable for applications such as touch panels.
Haze meter measures the haze and light transmittance of transparent coatings.
This article introduces the method of measuring the haze and light transmittance of transparent coatings using a haze meter. Haze refers to the degree of light scattering after passing through a material, while light transmittance reflects the amount of light directly transmitted.