abm’s CO2 Incubator is suitable for cell, tissue, and bacterial culture applications which are key for the fields of immunology, genetics, oncology research, and bioengineering. It is widely used in the research and production of microbes, agricultural science, in vitro fertilization, cloning experiments, and cancer research. The incubator has two shelves with room to stack multiple cell culture containers, allowing for maximization of laboratory space. Its microcomputer control system precisely monitors and adjusts the temperature, and the speed of the circulating fan is automatically controlled to avoid sample volatilization caused by excessive air circulation. With a reliable stainless steel liner, partitions, and four semi-circular corners, the shelf brackets can be freely taken off to allow for easy cleaning. The CO2 inlet has a high-efficiency microbial filter for the removal of bacteria and dust particles in CO2 gas, with a filtration efficiency of up to 99.99% for particles with a diameter greater than or equal to 0.3 μm.
Features
SPECIFICATIONS
Heating Type: Air jacked heating system with micro-computer control
Capacity: 150 L
Exterior Dimensions (w x d x h): 670 x 767 x 880 mm
Interior Dimensions (w x d x h): 480 x 530 x 610 mm
Temperature Range: 5 – 30 °C
CO2 Control Range: 0 to 20 % v/v
Net weight: 85 kg
Gross weight: 125 kg
Input Power: 750 W
Plug Style: NEMA 5-15
Output Power/Consumption: 115V, 60Hz
CONTROL SYSTEM
Large LCD display enables clear and easy operation. Microcomputer stores information on operational parameters, including temperature, humidity, CO2 concentration, door usage, and more
DESIGN STRUCTURE
All units contain a high-efficiency microbe filter which comes with a sterilization function installed at the CO2 gas inlet. Filtration efficiency is 99.99 % and captures particulates with diameters ≥ 0.3 µm, creating a healthy environment for reliable experiments.
Moist heat disinfection at 90°C kills microbes and fungal spores on the inner surface of the incubator.
An ultraviolet sterilization system positioned on the rear wall inside the incubator enables quick and effective disinfection of floating bacteria circulating in the air and inside the water vapor from the humidifying tray. This system reliably prevents potential contamination of cell incubations.
The outer door radiates heat into the inner glass door to prevent condensation build-up. The dry inner door eliminates the possibility of microbial contamination from condensate.
The chamber air flow can be automatically controlled based on experimental requirements, reducing risk of drying out samples.
When door is open, energy saving automation system temporarily switches off CO2 injection and heating systems to reduce CO2 gas consumption and temperature overshoots