Shaking Co2 Incubator

About Shaking Co2 Incubator

LuxMed Shaking Co2  incubators are specialized laboratory equipment combining precise atmospheric control (temperature, Co2 , humidity) with orbital shaking to support cell growth, nutrient distribution, and oxygen transfer in suspension cultures. They are essential in pharmaceutical production, stem cell research, and antibody development, particularly for mammalian, insect, and tumor cell cultures. 

LuxMed  shaking Co2 incubator design concept integrates precise environmental control ( Co2, temperature, humidity) with an internal, corrosion-resistant orbital shaker for suspension cell culture. Key design features include a polished, seamless stainless steel chamber, 6-side direct heating for uniformity, magnetic induction drive for reliable agitation, and stackable, compact housing to maximize laboratory space.

Applications of Shaking Co2 Incubators

• Suspension Cell Culture: Ideal for cultivating cells, which require constant agitation to maintain, preventing the formation of nutrient concentration gradients.
• Microbial Fermentation: Used for culturing bacteria, yeast, or fungi, allowing for enhanced oxygen supply and nutrient uptake, preventing aggregation, and encouraging uniform, high-density growth.
• Biopharmaceutical Production: Crucial in the production of proteins, monoclonal antibodies, and viral vectors in bioreactor-like conditions.
• Tissue Engineering: Used in tissue culture to provide consistent, low-shear agitation for cell growth and extracellular matrix production.
• Hybridization and Molecular Biology: Used in laboratories to improve the efficiency of hybridization techniques in molecular diagnostics. 

Key Features and Benefits

• Optimal Gas Exchange: The shaking motion eliminates dissolved oxygen concentration gradients, increasing oxygen transfer rates to the cells.
• Constant Environment: Maintains high humidity and Co2 levels (usually 0to 20%) to keep pH  stable, often with HEPA filtration to minimize contamination.
• Flexibility: Often used with Erlenmeyer flasks, tubes, or deep well blocks , with some models featuring removable shakers.
• Space Optimization: Many systems are designed to be stackable, allowing for multiple units to be stacked on top of each other, reducing the lab's footprint.

Why Shaking is Necessary

1. Oxygen Transfer: Continuous movement increases the surface area of the media, allowing for significantly higher levels of dissolved oxygen to reach the cells.
2. Nutrient Distribution: Agitation ensures that nutrients and growth factors are distributed evenly, preventing the formation of concentration gradients.
3. Preventing Aggregation: The mechanical motion keeps cells from clumping together or settling at the bottom of the flask, which can lead to cell death or inconsistent experimental results.
4. Metabolic Waste Removal: Mixing helps move metabolic byproducts away from the cells, preventing localized toxicity. 

 

 

Precision Environmental Control

Achieve optimal conditions for cell culture and microbiological research with automated humidity (up to 95% RH), precise CO2 (0 - 20%), and rapid, accurate temperature management. The infrared sensor ensures reliable CO2 monitoring, while microprocessor PID control delivers temperature accuracy of 0.2C.


Flexible and Spacious Design

The incubator boasts three adjustable stainless steel shelves and a generous 170-liter chamber, allowing researchers to accommodate flasks, dishes, or multi-well plates easily. The programmable shaker supports up to 6 x 1000 ml flasks, facilitating consistent mixing for a wide range of applications.


Safety and Monitoring Features

User safety and culture integrity are ensured with a comprehensive alarm system that detects over-temperature, door openings, and CO2 supply failure. The incubator's inner glass and outer solid door design, combined with interior LED lighting and a tempered observation window, offer both accessibility and contamination protection.