Eppendorf DASGIP 4-Fold Parallel Bioreactor System with Process Computer and 1.5L Multi-Use Glass Vessels

The Eppendorf DASGIP 4-Fold Parallel Bioreactor System is designed for precise bioprocessing applications in biotechnology, molecular diagnostics, and biomanufacturing workflows. This advanced system supports up to four simultaneous 1.5 L multi-use glass vessels, offering flexibility for synthetic biology, cell culture scale-up, and microbial fermentation studies.

Key technical features include:

• Vessel capacity: 400 mL to 1.5 L glass multi-use vessels equipped with downward bore L-spargers and exhaust condensers to optimize gas exchange and condensation.
• Impellers: Dual Rushton impellers per vessel ensure efficient mixing crucial for controlled bioprocess environments.
• Drive system: Direct Drive overhead agitation provides stable, contamination-minimized stirring suitable for shear-sensitive cultures.
• Gas flow and mixing: Integrated MX4/4H V2.1 gas mixing system supports air, N₂, O₂, and CO₂ with a maximum controlled flow rate of 250 sL/h, enabling precise gas composition essential in cell metabolism and bioreactor oxygenation strategies.
• Temperature control: Bioblock with temperature range from cooling agent temperature +5 K up to 99 °C allows tight thermal regulation for fermentation or cell cultivation protocols.
• Process control: Includes Win 10 v6.0 Process Control PC loaded with DASWare Control 5.6.4 Professional software, enabling real-time monitoring and management of up to eight vessels with current 4-fold configuration; licenses allow expansion.
• Sensors and modules: Comes with PH4P04L pH/DO/level sensor modules, platinum RTD temperature sensors, Hamilton pH and VisiFerm RS485 optical DO sensors ensuring accurate process parameter measurements critical in molecular and microbial bioprocess experiments.

This system is extensively tested and maintained to ensure reliable operation in clinical diagnostics, bioprocess development, and biopharmaceutical production pipelines. The modular design supports scalability, making it widely adopted in synthetic biology research and essential in molecular cloning workflows. It is compatible with both multi-use and single-use vessels, enhancing versatility for diverse biotechnological applications.

Ideal for researchers requiring parallel bioreactor setups for live-cell imaging studies, fermentation optimization, and gene editing assays, this system integrates precise environmental controls with robust data acquisition, facilitating reproducible and scalable bioprocesses in industrial biotechnology and academic research settings.