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Labmate Anaerobic Chamber LMANC-A100 is used for handling, cultivating, and incubating oxygen-sensitive microorganisms by maintaining a controlled low-oxygen anaerobic environment for microbiology, clinical research, biotechnology, and laboratory applications.
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The chamber creates an anaerobic environment by replacing oxygen with controlled gas mixtures, removing residual oxygen through catalytic processes, and maintaining a sealed workspace for handling and cultivation of anaerobic microorganisms.
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An anaerobic chamber provides a controlled low-oxygen environment that allows researchers to study microorganisms that require anaerobic conditions for growth, handling, and laboratory investigation.
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The chamber supports research involving strict anaerobic microorganisms such as Clostridium, Bacteroides, and other oxygen-sensitive microbial species used in microbiology studies. Labmate specifically identifies Clostridium and Bacteroides among the microorganisms suitable for the LMANC-A100.
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The system is used for anaerobic microbial cultivation, sample handling, clinical microbiology research, pharmaceutical research, biotechnology studies, gut microbiome research, environmental microbiology, and food microbiology applications.
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It is used in microbiology laboratories, pharmaceutical research facilities, biotechnology laboratories, clinical research centers, food microbiology laboratories, environmental research facilities, and academic institutions. Labmate lists microbiology, medical research, biotechnology, environmental science, chemical research, and the food industry among its applications.
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Yes. The chamber provides controlled anaerobic conditions for studying oxygen-sensitive microorganisms involved in gut microbiome and gut microbiota research.
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Yes. Labmate Anaerobic Chamber LMANC-A100 supports pharmaceutical research involving the cultivation and study of anaerobic microorganisms under controlled low-oxygen conditions.
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The chamber maintains anaerobic conditions through controlled gas supply, oxygen removal processes, catalytic action, sealed chamber design, and monitoring of internal conditions. The system includes oxygen and temperature sensors and a deoxidization catalyst.
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Oxygen monitoring helps users verify and maintain suitable chamber conditions for anaerobic microorganism handling, cultivation, and research procedures. The LMANC-A100 includes an integrated oxygen sensor and provides an O₂ control range below 1000 ppm (0.1%).
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The airlock system allows samples, culture materials, and laboratory items to be transferred into and out of the chamber while minimizing oxygen entry into the working environment. The specified airlock cycle time is less than 10 minutes.
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Anaerobic chambers use controlled gas mixtures to replace atmospheric oxygen and establish suitable anaerobic conditions. Gas selection and supply should follow the manufacturer's operating requirements for the specific chamber configuration.
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The deoxidization catalyst helps remove residual oxygen from the chamber atmosphere, supporting stable low-oxygen conditions during microbial handling and cultivation. The LMANC-A100 includes a deoxidization catalyst in the operation chamber.
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Anaerobic chamber performance can be influenced by chamber sealing, gas supply, oxygen sensor condition, catalyst performance, operating procedures, and routine maintenance. Regular cleaning, sensor checks, seal inspection, and monitoring of gas supply help maintain suitable operating conditions.
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Suitability depends on the microorganisms being studied, research workflow, sample handling requirements, incubation needs, oxygen control requirements, and laboratory application objectives. The LMANC-A100 provides capacity for up to 100 Petri dishes and includes a 63 L interior incubator for multi-sample anaerobic workflows.