Digital Glass Thermostatic Bath

The digital display glass constant temperature bath controls the liquid temperature through heating elements and temperature sensors, with a digital screen displaying real-time values. It is used for constant temperature preservation of laboratory samples and maintenance of reaction conditions. Commonly found in scenarios requiring stable temperatures, such as viscosity testing of coatings and observation of ink curing.
Selection
When selecting, focus on the temperature range to ensure it covers experimental needs, with fluctuations less than ±0.1℃. Consider matching the tank capacity with sample size and the corrosion resistance of glass materials. Check sensor accuracy and calibration functions, as heating power affects heating speed. Pay attention to safety protections and ensure the device dimensions fit the operational space.

Terms

Standards

Instruments

Using digital temperature control technology, Temperature range RT +~ 100 ℃, Tank size 300 * 300mm, combined design operation is more convenient, suitable for long-term stable operation.

$ 277.00

With water Bath thermostatic oscillation and low temperature refrigeration dual functions, thermostatic range 0-100 ℃, temperature accuracy +/- 0.5 ℃, support reciprocating oscillation and digital constant speed operation, suitable for a variety of sample fostering needs.

$ 1027.00

Using digital temperature control, the reading is intuitive and accurate, Temperature range RT +~ 100 ℃, Tank size 300 * 300mm, integrated design and easy operation.

$ 372.00

The interlayer vacuum design is easy to keep warm, the test capacity is about 300ml, the upper and lower holes go in and out for easy connection of the thermostatic Bath, easy to use and easy to clean.

$ 146.00

Temperature range RT + 5~ 100 ℃, temperature resolution 1 ℃, stainless steel liner corrosion resistance, digital display temperature control is accurate and reliable, suitable for thermostatic auxiliary heating.

$ 259.00

With three uses of water Bath, thermostatic and boiling disinfection, Temperature range RT +~ 100 ℃, Tank volume 36L, suitable for a variety of experimental heating and equipment processing needs.

$ 209.00

The 24-hole design is compatible with the testtube with a diaMeter of less than 12mm, the maximum Operating temperature is 100 ° C, and the electronic ice box and intelligent thermostatic metal Bath module are optional to meet different temperature requirements.

$ 148.00

Rotary oscillation with 0~ 300rpm Frequency range, temperature control accuracy of +/- 1 ℃, with 5~ 120 minutes timing function, suitable for a variety of compounds thermostatic foster needs.

$ 587.00

Using rotary oscillation mode, Oscillation Frequency 0~ 300rpm adjustable, temperature control accuracy +/- 1 ℃, with 5~ 120 minutes timing function, suitable for a variety of compounds thermostatic foster needs.

$ 548.00

Temperature control accuracy of +/- 0.1 ℃, Oscillation Frequency 0~ 300rpm, using reciprocating oscillation mode to provide a stable and uniform thermostatic foster environment, suitable for the experimental needs of various fluid solid compounds.

$ 548.00

304 stainless steel one-time stretch forming liner, no water leakage; four-corner arc design to ensure temperature uniformity; temperature control accuracy of +/- 0.5 ℃, heating power 600W, to meet the long-term stable thermostatic needs.

$ 160.00

4-Sided Glass design is easy to observe sample changes, temperature control accuracy of +/- 0.05 ℃, support internal/external circulation, Tank volume of 15L, suitable for a variety of experimental environments.

$ 614.00

With internal and external circulation thermostatic function, Temperature range -10~ 100 ℃, Temperature Fluctuation +/- 0.05~ 0.1 ℃, support eight Rotation speed control, repRoducibility +/- 1%, suitable for accurate viscosity testing.

$ 1421.00

Temperature control accuracy of +/- 1 ℃, Temperature range RT +~ 299 ℃, stainless steel studio water Tank, excellent corrosion resistance, digital display automatic temperature control, easy and reliable operation.

$ 414.00

Double hole design provides independent working space, temperature control accuracy of +/- 0.5 ℃ to ensure stable temperature, equipped with drain for liquid handling, to meet the needs of long-term thermostatic experiments.

$ 160.00

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.
Automatic coating machines are used for the uniform application of conductive silver paste onto ITO glass.
This article explores the technique of uniformly coating conductive silver paste on ITO glass using an automatic coating machine. By controlling parameters such as coating speed and pressure, the automatic coating machine replaces traditional manual methods, thereby enhancing the consistency and repeatability of the coating process.
DSC analyzer measures the glass transition of degradable films.
This article explains how to use a differential scanning calorimeter to measure the glass transition temperature of a degradable film. It first clarifies that the glass transition is the process by which a material changes from a glassy state to a highly elastic state, which appears as a baseline shift on the curve.
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.
The coating machine applies the OLED light-emitting layer onto ITO glass.
This article introduces the technique of using a coating machine to apply OLED luminescent layers onto ITO glass. The coating principle involves matching solution rheology with substrate surface energy, allowing control over film thickness by adjusting parameters such as viscosity and speed.
The polymer film is formed by blade coating on a glass substrate using a film applicator.
This article introduces the technique of using a film applicator to doctor-blade polymer films onto glass substrates.
Differential scanning calorimetry for determining the glass transition temperature of epoxy resin
Differential scanning calorimetry analyzes the thermal properties of materials by measuring the heat flow difference between the sample and a reference material.
Method for determining the dynamic viscosity of varnish using a falling ball viscometer
This article introduces a method for measuring the dynamic viscosity of varnish using a falling-ball viscometer. It is based on Stokes' law, which calculates viscosity by measuring the time required for a standard small ball to fall a fixed distance in a vertical glass tube filled with varnish.
Differential Scanning Calorimetry for Determining the Melting Point and Glass Transition Temperature of Hot Melt Adhesives
This article introduces the method of determining the melting point and glass transition temperature of hot-melt adhesives using a differential scanning calorimeter. Differential scanning calorimetry analyzes the thermal transition characteristics of materials by measuring the energy difference between the sample and a reference material.
Application of Gardner Colorimeter in the Determination of Oil and Fat Color
The Lovibond tintometer determines the color of oils and fats by visually comparing them with standard glass color standards, with results expressed as numerical codes. During operation, clarified oil samples are poured into the colorimetric cell and compared with color chips under a stable light source.