Air Sterilizer

Air sterilizers destroy the structure of microorganisms through ultraviolet irradiation or filtration systems, rendering bacteria and viruses in the air inactive. They are used for air purification in laboratories and medical facilities to reduce the risk of cross-contamination.
Selection
Match the processing air volume based on the available space, and confirm that the sterilization method is suitable for the target microorganisms. Pay attention to the equipment's operating noise and energy consumption data, and check the filter replacement cycle and cost. Ensure compliance with industry safety standards.

Terms

Standards

Instruments

Temperature range 10~ 200 ℃, Temperature Fluctuation +/- 1 ℃, using forced convection design to heat up quickly, over-temperature automatic interruption operation to ensure safety, shelf can be moved for easy cleaning.

$ 1066.00

Temperature range RT + 10~ 200 ℃ and resolution up to 0.1 ℃, forced convection design to shorten the rapid heating drying time, with over-temperature automatic protection and fan speed regulation function, shelf can be moved for easy cleaning and maintenance.

$ 482.00

High Accuracy microcomputer temperature controller, temperature control accuracy of +/- 1 ℃, Temperature resolution of 0.1 ℃; forced convection design makes rapid heating, drying and disinfection time shortened; with over-temperature automatic interruption function to ensure safe operation.

$ 562.00

Adopt the principle of high temperature dry heat disinfection, destroy the protoplasm of microbial cells by oxidation, Temperature range 10~ 200 ℃, Temperature Fluctuation +/- 1 ℃, with forced convection, three-speed fan speed regulation and timing functions to ensure efficient and safe disinfection.

$ 611.00

Temperature control accuracy +/- 1 ℃, rapid heating and over-temperature automatic interrupt function, adjustable fan Rotation speed and timing control, easy to clean the box.

$ 838.00

Adopt high temperature dry heat technology, destroy microbial cell protoplasm by oxidation; Temperature range RT + 10~ 300 ℃, Temperature Fluctuation +/- 1 ℃; with over-temperature alarm, leakage protection and timing functions, mirror stainless steel liner is easy to clean.

$ 749.00

Using high temperature dry heat technology to destroy microbial cell protoplasm through oxidation, Temperature range RT + 10-300 ℃, Temperature Fluctuation +/- 1 ℃, with over-temperature alarm, RS-485 interface and mirror stainless steel liner to ensure disinfection effect and equipment durability.

$ 1098.00

Adopt high temperature dry heat technology, Temperature range RT + 10~ 250 ℃, Input Power 1550W, with High Accuracy Microcomputer LCD display, automatic over-temperature protection and forced convection design, shorten disinfection time.

$ 716.00

Vertical double air duct vertical hot air circulation design, temperature uniformity +/- 1.0 ℃, variable speed fan can adjust the air volume, large screen LCD display, independent temperature limit alarm system to ensure safe operation.

$ 1009.00

Temperature control accuracy +/- 1 ℃, rapid heating using forced convection design. With over-temperature automatic interruption function, the shelf can be moved to facilitate cleaning in the box, ensuring safe and convenient operation.

$ 720.00

Adopt high temperature dry heat technology, destroy microbial cell protoplasm by oxidation. Temperature range RT + 10-300 ℃, Temperature Fluctuation +/- 1 ℃, with over-temperature alarm and timing function, mirror stainless steel liner is easy to clean.

$ 480.00

Vertical double air duct vertical hot air circulation to ensure temperature uniformity, speed control fan can adjust the air volume to avoid blowing powder items, Temperature range RT + 10-300 ℃, studio volume 225L, equipped with independent temperature limit alarm system to ensure experimental safety.

$ 1474.00

Vertical double air duct vertical hot air circulation design to ensure uniform temperature distribution, speed control fan can adjust the air volume according to experimental needs, Inner Chamber dimensions 350 × 350 × 350mm, volume 42L, with independent temperature limit alarm system and paraMeter memory function.

$ 925.00

Adopt high temperature dry heat technology, destroy microbial cell protoplasm by oxidation. Temperature range RT + 10-300 ℃, Temperature Fluctuation +/- 1 ℃, with over-temperature alarm, timing function and RS-485 communication interface, mirror stainless steel liner is easy to clean.

$ 622.00

Vertical double air duct vertical hot air circulation design to ensure uniform temperature distribution, Inner Chamber dimensions 310 × 310 × 310mm, variable speed fan can adjust the air volume, large screen LCD display multiple sets of data, with paraMeter memory and over-temperature alarm function.

$ 832.00

Articles

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.
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.
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.
Hot air aging oven measures the long-term thermal-oxygen life of engineering plastics.
This article introduces how to use a hot air aging oven to test the long-term thermal-oxidative lifespan of engineering plastics. The test is based on the Arrhenius equation, which accelerates material aging at high temperatures to simulate performance changes under actual usage conditions.
Positive pressure method seal tester evaluates packaging pressure resistance
This article introduces how the positive pressure method sealing tester evaluates the pressure resistance of packaging. The instrument simulates actual pressure conditions by injecting compressed air into the packaging and then monitors pressure changes to determine if there is any leakage.
Negative pressure method leak detector for testing vacuum packaging seal integrity
The negative pressure leak detector evaluates the seal integrity of vacuum packaging by simulating a pressure differential environment. The instrument places the sample in a testing chamber and creates a vacuum to form negative pressure. If there is a leak, air or liquid will seep into the packaging, and the result is determined by observing pressure changes or the presence of bubbles.
Sheffield Smoothness Tester for Analyzing Paper Printing Surface
This article introduces how the Sheffield smoothness tester analyzes the printing surface of paper. The instrument quantifies paper smoothness by measuring the air leakage time, with a longer time indicating a smoother surface.
Schopper air permeability tester measures paper air permeability.
The Schopper air permeability tester measures the air permeability of paper based on Poiseuille's law, calculating the permeability by either the air flow rate under a constant pressure difference or the pressure difference at a fixed flow rate.
What is the difference between the Bendtsen method and the Gurley method for measuring paper air permeability using an air permeability tester?
The air permeability of paper is a key indicator for evaluating its structural compactness and suitability, especially crucial in fields such as packaging, filtration, and specialty papers. The Bendtsen and Gurley methods are two classic and widely used techniques for determining paper permeability.
What are the differences between a vacuum oven and a conventional oven?
The main difference between a vacuum oven and a conventional oven lies in their working pressure. Conventional ovens operate at atmospheric pressure, heating through air convection, making them suitable for routine drying tasks. In contrast, vacuum ovens are evacuated to low pressure to reduce air presence, primarily relying on thermal radiation for heat transfer. This makes them ideal for processing heat-sensitive, oxidation-prone materials or those requiring thorough drying.