Fixed Temperature Drying Oven

The constant temperature drying oven heats the air inside the chamber through electric heating elements and uses a thermostat to maintain the set temperature, allowing samples to quickly remove moisture or volatiles under stable conditions. It is used for routine laboratory procedures such as sample drying, material curing, and moisture determination.
Selection
When selecting, consider that the temperature range should cover experimental needs, with uniformity error less than ±2.5℃, the chamber material should be corrosion-resistant, the observation window should be well sealed, temperature control accuracy should match sample characteristics, the volume should be determined based on sample size and quantity, and safety functions should include over-temperature protection.

Terms

Standards

Instruments

Application width 300mm, Spreader accuracy +/- 0.005mm, Drawdown blade can be quickly disassembled and cleaned, three independent temperature control oven to ensure uniform drying, suitable for a variety of substrates and Stock processing.

$ 24279.00

Far infrared radiation heating technology, Temperature range RT +~ 300 ℃, temperature fluctuation +/- 2 ℃, equipped with thermistor control thermoMeter, with fast, low consumption, easy adjustment and other advantages, suitable for drying a variety of samples.

$ 465.00

Far infrared radiation heating technology, temperature control accuracy +/- 2 ℃, equipped with thermistor control thermoMeter, rapid low consumption drying, Inner Chamber dimensions 320 * 380 * 320mm.

$ 391.00

Far infrared radiation heating technology, Temperature range RT +~ 300 ℃, Temperature Fluctuation +/- 2 ℃, equipped with thermistor control thermoMeter, rapid low consumption drying, suitable for a variety of Sample Handling.

$ 1009.00

Temperature uniformity is improved by air circulation system, temperature control accuracy is +/- 0.5 ℃, Temperature resolution is 0.1 ℃, mirror stainless steel liner ensures durability and easy cleaning, suitable for a variety of drying applications.

$ 435.00

Far infrared radiation heating technology, equipped with thermistor control thermoMeter, Temperature range RT +~ 300 ℃, Temperature Fluctuation +/- 2 ℃, with fast drying and low energy consumption characteristics, suitable for a variety of Sample Handling.

$ 586.00

Far infrared radiation heating technology, Temperature range RT +~ 300 ℃, Temperature Fluctuation +/- 2 ℃, equipped with thermistor control thermoMeter, automatic thermostatic control, fast drying and low energy consumption.

$ 883.00

Temperature range foster RT + 5~ 80 ℃, drying 80~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃, with forced warm air circulation to ensure uniform temperature, optional RS-485 interface to record temperature changes.

$ 971.00

Temperature range foster RT + 5~ 80 ℃, drying 80~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃ to +/- 1 ℃, forced warm air circulation to ensure uniform temperature, mirror stainless steel liner easy to clean.

$ 761.00

Mirror stainless steel liner is easy to clean, Temperature range foster RT + 5~ 80 ℃, drying 80~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃ or +/- 1 ℃, with forced warm air circulation and timing function to ensure uniform and stable temperature.

$ 470.00

Cuboid Studio improves volume utilization, drying time is reduced by more than 40% compared with traditional Vacuum Chamber, Temperature range RT + 10~ 200 ℃, Vacuum Level up to 133Pa, double-decked Glass door is easy to observe.

$ 3896.00

With 24 independent temperature control studios, Temperature range RT +~ 50 ℃, air disturbance technology and three-stage purification system are used to avoid cross-contamination of samples and improve drying efficiency.

$ 3723.00

Microcomputer PID temperature controller to ensure accurate and reliable temperature control, Temperature Uniformity +/- 3%, hot air circulation system to improve Temperature uniformity, independent temperature limit alarm system to ensure experimental safety.

$ 438.00

Temperature uniformity with natural convection design, temperature control accuracy of +/- 0.5 ° C, volume of 70L, independent temperature limit alarm system and timing function for 9999 minutes, suitable for a variety of drying sterilizing applications.

$ 761.00

Ceramic fiber material, Temperature range RT + 20~ 400 ℃, liner size 450 × 450 × 450mm, with multi-stage programmable control, independent temperature limit alarm and fast and stable temperature control function, easy to clean and automatic operation.

$ 2052.00

Articles

Laboratory Drying Oven Model Selection - Difference Between Forced Air Convection and Non-Forced Air Convection
This article on the selection of laboratory drying ovens primarily introduces the differences between forced convection (air-blowing) and natural convection (non-air-blowing) drying ovens.
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.
Safety Considerations for Selecting Explosion-Proof vs. Ordinary Drying Ovens in Paint Laboratories
When selecting a drying oven in a paint laboratory, the type should be determined based on the safety risks of the samples and the environment.
Melt flow index tester measures the processing fluidity of high-temperature engineering plastics.
This article introduces how a melt flow indexer measures the processing fluidity of high-temperature engineering plastics. It first explains the working principle of the instrument, which involves measuring the rate at which molten plastic passes through a standard die under specific temperature and pressure conditions to obtain the melt flow rate value.
Thermal Shock Test Chamber Measures Film's Temperature Change Resistance
The thermal shock test chamber creates thermal stress inside the film by rapidly switching between high and low temperature environments, testing its resistance to temperature changes. During the test, key parameters such as temperature range and dwell time need to be set, and the film is observed for issues such as cracking or performance degradation.
Melt Flow Index Tester for Measuring Plastic Flowability to Control Process
A melt flow indexer evaluates the melt flow rate of plastics by measuring the extrusion mass or volume under specific temperature and load conditions.
Heat Sealing Tester Determines the Optimal Heat Sealing Temperature for Films
A heat seal tester is used to determine the optimal heat sealing temperature of films to ensure the sealing strength and integrity of packaging. During testing, by setting a temperature gradient and fixing parameters such as pressure and time, samples are heat-sealed at different temperatures, and then their strength is measured.
The melt flow indexer measures the flow rate of thermoplastic resins.
A melt flow indexer is a device used to measure the flowability of thermoplastic resins. It calculates the melt flow rate by determining the mass or volume of the melt that passes through a standard die within 10 minutes under specific temperature and pressure conditions.
Determination of dry matter content in pulp using an electric thermostatic drying oven.
This article introduces the method for determining the dry matter content of pulp using an electric thermostatic drying oven. Dry matter content is a key indicator for evaluating pulp quality. The principle of determination involves evaporating the moisture in the pulp through heating and calculating the content based on the mass difference before and after drying.
Standard Method for Measuring the Melt Viscosity of Hot Melt Adhesives with a Rotational Viscometer
This article introduces the standard method for measuring the molten viscosity of hot-melt adhesives using a rotational viscometer. During the measurement, the hot-melt adhesive sample must be fully melted and degassed, placed into a measuring cup, and then measured with the rotational viscometer at a set temperature.
Constant Temperature Water Bath Controls the Temperature Sensitivity of Resin Viscosity
The constant temperature water bath can provide a stable temperature environment for studying the characteristics of resin viscosity as it changes with temperature.
How does a melt flow indexer affect the processing stability of modified plastics?
A melt flow indexer is a device used to determine the melt flow rate of thermoplastic materials under specific temperature and load conditions. The measurement is typically expressed as the mass (in grams) extruded per ten minutes, known as the melt flow rate (MFR) or melt mass-flow rate (MFR).
Melt Flow Indexer Evaluates Fluidity of Thermoplastics
A melt flow indexer is a device used to test the flowability of thermoplastic plastics. It measures the mass or volume of plastic extruded from a standard die per unit time under specific temperature and pressure conditions to determine the melt flow rate.
If the three temperature parameters of the melt flow indexer for testing plastic fluidity are not properly adjusted, all data will be invalid.
When testing the flowability of plastics with a melt flow indexer, temperature control is crucial. There are three key temperature parameters: first, the barrel set temperature; second, the uniformity of temperature distribution; and third, the stability of temperature control.
How to Choose Between the Ring and Ball Method and the Cup and Ball Method for Softening Point Testers? Read This and Stop Worrying
This article introduces two main methods for determining the softening point of materials: the ring-and-ball method and the cup-and-ball method. The ring-and-ball method is more widely used and is suitable for materials such as asphalt. It involves measuring the temperature at which a steel ball causes the sample to sink. The cup-and-ball method is often used for specific resins or wax products, relying on the flow of the sample or the penetration of a steel ball to determine the endpoint.