Eppendorf Rotameter Gassing Station DASGIP WRM Four-Channel Bioprocess Gas Flow Controller

The Eppendorf Rotameter Gassing Station DASGIP WRM is a precision four-channel rotameter system engineered for controlled gas distribution in bioprocess and fermentation applications. Designed specifically to mount on the DASGIP Bioblock, this gas flow controller delivers accurate manual regulation of gas flow rates up to *1260 standard liters per hour (sL/h)*, supporting gassing requirements across *8 separate vessels*.

Key Technical Features:

• Four independent rotameter channels with manual valve adjustment for precise gas flow control
• Maximum total gas flow capacity of 1260 sL/h, facilitating stable oxygenation in bioreactors and fermentation vessels
• Compatible mounting on the DASGIP Bioblock system, allowing seamless integration into established bioprocess setups
• Includes a stable stand that accommodates two gassing units, enhancing scalability for multi-vessel bioprocess workflows
• Constructed for laboratory environments specializing in bioprocessing, fermentation, and molecular diagnostics
• Operational reliability confirmed despite cosmetic usage wear; ideal for critical applications in biotechnology process control

This rotameter gassing station is vital equipment for molecular biology researchers and biomanufacturing professionals who require reliable, manual control of gas flow during live-cell cultivation, synthetic biology experiments, and biopharmaceutical production pipelines. The device's precise flow metering enhances the reproducibility of oxygenation and gas composition in bioreactor systems, critical for optimizing cell culture conditions and scaling bioprocess development.

By integrating this rotameter system into bioprocess monitoring platforms, laboratories enhance their capability to maintain consistent gas flows necessary for gene editing workflows and molecular cloning procedures. Its robust construction and flexible mounting options make it a trusted tool widely adopted in biotechnology research and clinical diagnostics contexts.