Temperature Incubator

Temperature incubators maintain a constant internal temperature through heating and cooling systems, and are used for cultivating microorganisms or cells at specific temperatures, as well as for conducting material aging tests. They are widely applied in biological laboratories, food testing, and the stability evaluation of industrial products.
Selection
When selecting, consider that the temperature range must cover experimental requirements, uniformity affects sample consistency, and fluctuation relates to temperature stability. The chamber material should be corrosion-resistant, and the observation window should be designed for convenient monitoring. The control system should be easy to operate, with safety features including over-temperature protection. Dimensions should be determined based on sample capacity, and energy consumption and noise levels should comply with the usage environment.

Terms

Standards

Instruments

Integrated Incubator and Shaker functions, small footprint and large bottle load; Temperature range 4~ 65 ℃, Temperature Fluctuation +/- 0.2 ℃; 304 stainless steel liner for easy cleaning, quiet operation and support multi-stage programming.

$ 2315.00

Integrated Incubator and Shaker functions, Oscillation Frequency 40~ 300rpm, Temperature range RT + 5~ 65 ℃, 304 stainless steel liner and microcomputer PID control, with UV sterilization and automatic storage setting paraMeters.

$ 1427.00

Integrated Incubator and Shaker functions, small footprint and large bottle capacity; Microcomputer PID control temperature and Oscillation Frequency, Temperature Fluctuation +/- 0.2 ℃; 304 stainless steel liner is easy to clean, supports multi-stage programming and UV sterilization to ensure safe and efficient operation.

$ 1773.00

Unique air duct structure to ensure temperature uniformity +/- 1 ℃, microcomputer intelligent temperature control accuracy of +/- 0.5 ℃, equipped with auxiliary thermostat and leakage protection, liner made of stainless steel for easy cleaning, optional ultraviolet sterilization system.

$ 711.00

Microcomputer intelligent temperature controller, Temperature Fluctuation +/- 0.5 ℃, Temperature Uniformity +/- 1 ℃, duct structure to ensure uniform temperature, liner arc design for easy cleaning, optional ultraviolet sterilization and remote control interface.

$ 554.00

Equipped with ultraviolet sterilization system to effectively prevent pollution, temperature control accuracy of +/- 0.3 ℃, support multi-stage programming and independent temperature limit alarm, to ensure the safety and stability of the experiment.

$ 943.00

Unique air duct structure to ensure temperature uniformity +/- 1 ℃, microcomputer intelligent temperature control accuracy of +/- 0.5 ℃, equipped with auxiliary thermostat and leakage protection device, liner made of stainless steel for easy cleaning.

$ 882.00

Adopt unique air duct structure to ensure temperature uniformity +/- 1 ℃, microcomputer intelligent temperature control accuracy of +/- 0.5 ℃, equipped with auxiliary temperature control system and leakage protection device, liner arc design is easy to clean, optional programmable controller and ultraviolet sterilization system.

$ 459.00

Using environmentally friendly refrigerant R134a, temperature control accuracy of +/- 0.5 ℃, equipped with independent temperature limit alarm system. Mirror stainless steel liner is easy to clean and supports multi-stage programming function for automatic control.

$ 4330.00

Equipped with UV sterilization system to effectively prevent pollution, PID temperature control accuracy of +/- 0.3 ℃, Temperature uniformity +/- 1.2 ℃, support multi-stage programming and independent temperature limit alarm, ensure experimental safety and automated operation.

$ 2794.00

With refrigeration and heating bidirectional temperature regulation function, Temperature range -20~ 60 ℃, mirror stainless steel liner to prevent atomization, support thermostatic fostering and tissue cell preservation.

$ 2757.00

Using polyurethane foam insulation, strong anti-interference ability; working Chamber with air duct, uniform temperature distribution; inner wall embossed Aluminum Panel or stainless steel material, corrosion resistance; Temperature range 5~ 50 ℃, Temperature Uniformity +/- 0.5 ℃.

$ 680.00

Microcomputer temperature and humidity controller, Temperature Fluctuation +/- 0.5 ℃, humidity fluctuation +/- 5% RH, with over-temperature protection, independent temperature limit alarm system to ensure safe and stable operation of the experiment.

$ 6691.00

Temperature range -10~ 65 ℃ and Fluctuation +/- 0.5 ℃, equipped with 25mm test hole for easy operation, support multi-stage programming and temperature limit alarm, cooling time is reduced by more than 40% compared with traditional equipment.

$ 1618.00

With heating and cooling two-way temperature control system, Temperature range 5~ 50 ℃, Temperature Uniformity +/- 0.5 ℃, the inner wall is made of embossed Aluminum Panel or stainless steel, good corrosion resistance performance.

$ 837.00

Articles

Application of High-Temperature Viscometer in Testing the Melt Viscosity Characteristics of Hot Melt Ink
This article introduces a method for testing the melt viscosity of hot-melt ink using a high-temperature viscometer. The test employs a rotational viscometer to measure the viscosity of three ink samples at different temperatures.
Determination of Thermal Decomposition Temperature and Inorganic Filler Content in Ink by Thermogravimetric Analyzer
This article introduces how to determine the thermal decomposition temperature and inorganic filler content of ink using a thermogravimetric analyzer. During the test, a small amount of ink sample is heated in a nitrogen or air atmosphere, and the mass change curve is recorded.
Incubator Selection: Applicability of Temperature Control Range and Function Configuration
This article mainly introduces the compatibility between temperature control range and functional configuration that need to be considered when selecting an incubator.
Rapid temperature change high and low temperature test chamber for thermal fatigue evaluation of PCB board solder joints.
This paper discusses the application of rapid temperature change high and low temperature test chambers in evaluating the thermal fatigue of PCB board solder joints. Solder joint fatigue is primarily caused by differences in material thermal expansion, and the test chamber simulates thermal stress through temperature cycling to accelerate the fatigue process.
Application of Three-Chamber High and Low Temperature Test Chambers in Rapid Temperature Cycling for Electronic Products
The three-chamber high-low temperature test chamber is used for reliability testing of electronic products, enabling rapid temperature transitions through independent high temperature, low temperature, and test zones. Compared to traditional single-chamber equipment, it reduces temperature change time and enhances testing efficiency.
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.
Application of Transparent Constant Temperature Water Bath in Visualization of Material Thermal Deformation
The constant temperature water bath provides a stable environment for observing the deformation of materials after heating by maintaining a constant and uniform temperature of the liquid medium.
The impact of temperature uniformity in laboratory water baths on viscosity measurement
This article discusses the importance of temperature uniformity in laboratory water baths for viscosity measurement. Viscosity is highly sensitive to temperature variations, and uneven temperature distribution within the water bath can lead to deviations in measurement results.
The Impact of Cooling Circulating Water Chillers on the Temperature Stability of Digesters
The cooling circulator helps maintain a stable temperature for the digester by circulating the cooling medium, thereby improving the repeatability of experiments. Its working principle involves using a refrigeration system to lower the water temperature, and then circulating the cooled water to the digester through a circulation pump to absorb excess heat.
Guide to Selecting a Laboratory Rotational Viscometer for Coatings Development
This article introduces how to select a laboratory rotational viscometer in coatings research and development. It first explains the principle of rotational viscometers measuring viscosity based on shear resistance, and then points out that key parameters to consider during selection include measurement range, shear rate, temperature control, and rotor configuration.
High-temperature viscometer evaluates the flow characteristics of ceramic coatings before sintering.
This article introduces how to use a high-temperature viscometer to evaluate the flow characteristics of ceramic coatings before sintering. During measurement, the instrument detects changes in the viscosity of the coating sample under simulated sintering temperature conditions using rotational or oscillatory principles.
Temperature-controlled Rotational Viscometer Simulates Coating Rheology in Construction Environments
This article introduces how to use a temperature-controlled rotational viscometer to simulate construction environments in order to study the flow characteristics of coatings. The viscosity of coatings changes under different temperatures and shear conditions, which affects their application performance.
Rotation Speed of Sample Rack in Hot Air Aging Test Chamber on Color Fastness of Textiles
This article explores the influence of the rotation speed of sample racks in a hot air aging test chamber on the color fastness testing of textiles. The rotation speed affects the flow of hot air and temperature uniformity inside the chamber, thereby altering the heating conditions of the samples and leading to variations in color fastness results.
Temperature uniformity of high-temperature aging test chamber for UV resistance testing of inks
This article discusses how the temperature uniformity of high-temperature aging test chambers affects the accuracy of ink UV resistance testing. Temperature uniformity refers to the deviation in temperature at various points inside the chamber, with smaller deviations leading to more reliable test results.
Difference between Black Panel Temperature and Black Standard Temperature in Light Aging Test Chambers
In the light aging test chamber, black panel temperature and black standard temperature are two distinct temperature indicators. The black panel temperature is measured using a black metal panel sensor, reflecting the immediate heating effect on the material surface under light exposure and is significantly influenced by air convection.