Why freeze cells to move them – when you can keep them alive?
Freezing is often the default method for transporting cells. However, for many cell types, freeze-thaw cycles introduce variability that affects viability, function, and reproducibility.
No matter what type of cells you work with—primary cells, organoids, NK cells, or those involved in reproductive biology—the question remains: Do your cells arrive in the condition you need them?
1. Quality & Quantity of cells:
3. Manufacturing robustness :
Advantages at a glance
| Criterion | Conventional Transport | Cellbox™ Transport |
|---|---|---|
| Temperature control | passive, imprecise | active, constant |
| CO₂ atmosphere | none or unstable | stable 5% CO₂ |
| Cell viability after transport | inconsistent | significantly higher |
| Time to lab readiness | several hours of adaptation | ready to use immediately |
| Monitoring & logging | usually no data | data logging standard for multiple parameters |
| Weight & handling | heavy, inflexible | lightweight, mobile, easy to use |
| Documentation & validation | tedious or manual | automatic & digital |
Keep Cells Ready on Arrival on Every Route
Cellbox Solutions’ technology is based on a unique portable live cell transport incubator combined with leading-edge live cell logistics solutions for healthcare companies. Always at optimal temperature and CO₂ saturation.
Questions?
Sales Manager, EMEA/APAC
Proven in Practice Worldwide
“Live” cell shipment—a forward-looking transport option for cryo-sensitive cell-based therapies
» Live shipment delivered 2.5 times more functional NK cells after recovery than cryopreservation. «
Functional Assessment of Brain Organoids After Transport
» The results clearly demonstrate the feasibility of using the Cellbox™ system «
Advancing Neuroscience Research Through Safely Delivered Collaboration
» ..this approach paves the way for more extensive, multi-site research efforts.. «





