Constant Temperature Reaction Bath

The constant temperature reaction bath maintains a constant temperature of the liquid inside the tank through a heater and a chiller. It is used for constant temperature incubation of samples and control of chemical reactions, and is commonly found in material aging tests and biological culture.
Selection
When selecting, consider the temperature range and fluctuation to match experimental requirements, ensure the tank volume fits the sample size, pay attention to the tank opening dimensions for ease of operation, choose corrosion-resistant materials suitable for reagent properties, and utilize circulation functions to ensure temperature uniformity.

Terms

Standards

Instruments

Temperature range covers -40 to 100 ℃, Temperature Fluctuation accuracy to +/- 0.05 ℃, resolution up to 0.01 ℃, and supports internal and external double cycle mode to meet the needs of various experiments inside and outside the tank.

$ 1285.00

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

Temperature range -5~ 100 ℃, temperature resolution 0.01 ℃, with overheating and overcurrent protection and self-tuning function, stainless steel 304 liner and centrifugal circulation pump to ensure stable operation.

$ 1800.00

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

Temperature range -30~ 100 ℃, temperature resolution up to 0.01 ℃, equipped with large screen backlight LCD display and overheating and overcurrent protection to ensure the safety and stability of the experimental process.

$ 4150.00

Temperature control accuracy of 0.01 ℃, the temperature range covers -40 to 100 ℃, the use of fully enclosed Compressor refrigeration and heat-free centrifugal circulation pump, to ensure that the temperature is stable and uniform, and has multiple overheating and overcurrent protection.

$ 2549.00

Temperature range -50~ 100 ℃, temperature resolution of 0.01 ℃, fully enclosed Compressor refrigeration and 304 stainless steel liner, equipped with 10L/min circulating pump and removable side panels for easy cleaning and maintenance.

$ 5931.00

Adopt fully enclosed Compressor refrigeration system, Temperature range -20~ 100 ℃, temperature resolution 0.01 ℃, with overheating and overcurrent protection and self-tuning function, stainless steel 304 structure is easy to clean, side plate can be flexibly disassembled and assembled.

$ 1258.00

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

Temperature range -5~ 100 ℃ and accuracy of 0.1 ℃, using fully enclosed Compressor refrigeration system and no heat centrifugal circulation pump, equipped with overheating and overcurrent protection and removable side plate, Tank volume 15L and pump flow 10L/min.

$ 1597.00

Brushless DC motor is used to achieve 0~ 300rpm constant speed oscillation, Temperature range RT +~ 60 ℃ and no drift, rotary oscillation ensures uniform mixing of samples.

$ 740.00

Brushless DC motor to achieve constant speed operation, high temperature control accuracy without drift, Oscillation Frequency 0-300rpm adjustable, swing amplitude 20mm, to meet different experimental needs.

$ 932.00

Temperature range covers -10~ 100 ℃, Temperature Fluctuation is accurate to +/- 0.05 ℃, support internal and external double cycle mode, tank volume 6L, to meet the needs of various experiments inside and outside the tank.

$ 725.00

Using brushless DC motor to achieve 0~ 300rpm constant speed oscillation, Temperature range RT +~ 100 ℃, swing amplitude 20mm to ensure uniform mixing, timing function 0~ 120min to meet different experimental needs.

$ 740.00

Using brushless DC motor to achieve 0~ 300rpm constant speed oscillation, Temperature range RT +~ 100 ℃, swing amplitude of 20mm, to ensure the stability and reliability of the experimental process.

$ 740.00

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.
Application of Karl Fischer Micro Moisture Meter in Moisture Control of Lithium Battery Electrolyte
The Karl Fischer micro-moisture analyzer is based on the Karl Fischer titration principle, which measures trace moisture in lithium battery electrolytes through the quantitative reaction between iodine and water.
The Zahn cup is used for the daily inspection of the viscosity of electrophoretic paint bath solutions.
This article introduces the application of the Zahn cup in daily inspections of the viscosity of electrophoretic paint bath solutions. The viscosity of electrophoretic paint affects coating quality, making daily inspections crucial. The Zahn cup is simple to operate, cost-effective, and suitable for rapid on-site measurements.
Differential Scanning Calorimetry measures the heat of curing reaction of thermosetting polymers.
Differential scanning calorimetry is a commonly used technique for studying the curing reactions of thermosetting polymers. It measures the heat released by a sample during heating to obtain key parameters such as reaction enthalpy and curing temperature.
Differential Scanning Calorimetry for Measuring the Degree of Cure of Polymer Optical Waveguide Materials
This article introduces a method for determining the degree of curing in polymer optical waveguide materials using a differential scanning calorimeter. The degree of curing is a key indicator affecting material performance, and this instrument quantitatively analyzes it by measuring the thermal effects during the curing reaction.
How to Match the Selection of Fineness Gauge with Grinding Process Requirements
The fineness gauge is used to measure the particle dispersion of materials such as slurries and coatings, reflecting the particle size distribution through the depth of grooves on its surface.
Differential Scanning Calorimetry Study on the Curing Reaction Kinetics of Epoxy Resin
This article introduces the method of using differential scanning calorimetry to study the curing reaction kinetics of epoxy resins.
Karl Fischer Moisture Analyzer for Determining Moisture Content in Coatings
This article introduces a method for determining the moisture content in coatings using a Karl Fischer moisture titrator. It is based on the quantitative reaction of reagents such as iodine and sulfur dioxide with water, and calculates the moisture content by measuring the amount of reagent consumed during titration.
Operating Specifications and Result Interpretation of Paint Fineness Gauges
The fineness gauge is used to measure the dispersion of particles in paint. During operation, the sample should be applied to the groove under standard conditions, and a scraper is used to spread it evenly to form a wet film. The particle visibility is then observed under appropriate lighting, and the fineness value is read from the corresponding scale.
Determination of free amino acid content in protein solutions using a microtitration apparatus.
This article introduces a method for determining the free amino acid content in protein solutions using a microtiter plate reader. It is based on the ninhydrin color reaction, where amino acids react with the reagent under specific conditions to produce colored compounds, and the concentration is calculated by measuring the absorbance.
Operating Specifications for the Determination of Hexavalent Chromium Content in Wastewater Using Colorimetric Titration Apparatus
This article introduces the standard operating procedure for determining hexavalent chromium content in wastewater using a colorimetric titrator. The method is based on the reaction between hexavalent chromium and diphenylcarbazide under acidic conditions to form a purplish-red complex, with the titration endpoint determined by monitoring changes in absorbance at a wavelength of 540 nanometers.
Automatic potentiometric titration method for determining hydrogen peroxide concentration by redox method
This article introduces a method for determining the concentration of hydrogen peroxide using an automatic potentiometric titrator. It is based on the redox reaction between potassium permanganate and hydrogen peroxide under acidic conditions, with the titration endpoint automatically determined by the abrupt change in potential.
Application of Automatic Potentiometric Titrator in Chloride Ion Detection in Drinking Water
This article introduces a method for detecting chloride ions in drinking water using an automatic potentiometric titrator. The principle involves allowing chloride ions in the water sample to react with silver nitrate to form a precipitate. The instrument monitors changes in potential through an electrode, automatically determines the endpoint of the reaction, and calculates the chloride ion content.
Total Chlorine Content Microcoulometric Titration Detector for Pulp
This article introduces a method for detecting the total chlorine content in pulp using a microcoulometric titrator. The principle involves generating a titrant through electrolysis, which reacts with chloride ions produced from the combustion of the sample. The chlorine content is accurately calculated by monitoring the amount of electricity consumed.
Karl Fischer Moisture Analyzer Determines Moisture Content in Powder Coatings
This article introduces the method of determining the moisture content in powder coatings using a Karl Fischer moisture analyzer. Excessive moisture content in powder coatings can affect the quality of the coating, leading to issues such as bubbles. The Karl Fischer method measures moisture through the quantitative reaction of iodine and sulfur dioxide, which is divided into volumetric and coulometric methods.