Why freeze cells when you can keep them alive?

Cryopreservation has long been the default for transporting living cells. But for many cell types, freezing introduces unnecessary risks.

Freeze-thaw cycles can reduce cell viability, alter function, and introduce variability that impacts experimental reproducibility and downstream outcomes. Even with standardized cell freezig protocols, results can vary significantly from batch to batch.

No matter what type of cells you work with—primary cells, organoids and organ-on-chip models, NK cells, or those involved in reproductive biology—the real question isn’t how you ship your cells – it’s whether they arrive ready to perform. The condition of your cells upon arrival directly affects your science.

As cell therapies and advanced cellular models become increasingly sensitive and complex, the industry is moving beyond traditional cold chain logistics toward live-cell warm chain transport. By maintaining cells under incubatory conditions throughout transit, you can:

·  Eliminate freeze-thaw damage

·  Avoid cryoprotectants and recovery periods

·  Preserve cell viability and functionality

·  Reduce variability between shipments and batches

·  Deliver cells ready for immediate use

With precise temperature and CO₂ control,  cells remain in their optimal environment from departure to destination—arriving in the condition your science demands.

1. Quality & Quantity of cells:

Conventional Transport:

Cells degrade in quality and numbers

Freeze/thaw cycles expose cells to ice crystal formation and osmotic stress, which can damage membranes and reduce the usable cell pool.

Cellbox™ Transport:

Cells arrive in top condition

Active temperature control and a stable 5 percent CO₂ atmosphere maintain culture-like conditions, helping preserve integrity and function so more cells arrive usable.

2. Scientific reliability:

Conventional Transport:

Unstable metabolism, unpredictable results

Uncontrolled temperatures and absent CO₂ allow pH drift and metabolic swings that increase variability and assay results less predictable, reducing accuracy.

Cellbox™ Transport:

Cells stay active and unchanged

Stable temperature and 5 percent CO₂ keep metabolism steady and pH balanced, enabling immediate use and supporting cleaner, more consistent data from the first run.

3. Manufacturing robustness :

Conventional Transport:

Freeze – thaw delays disrupt workflows

Recovery windows push schedules, tie up cleanrooms and staff, and complicate QC when shipment conditions are undocumented or inconsistent between legs of transit.

Cellbox™ Transport:

Ready-to-use cells on arrival

Cells arrive ready to use with real time condition records, supporting handovers and batch decisions while helping teams keep slots, rooms, and timelines on plan.

4. Cost of goods:

Conventional Transport:

High costs per recovery day post-thaw

Recovery days add labor, gown time, and consumables, while lower viability triggers repeats and buffer inventory that raise indirect cost across batches.

Cellbox™ Transport:

No extra time in GMP suites or clean rooms necessary

Immediate usability and digital shipment records shorten timelines and reduce manual documentation, which can help lower indirect cost per batch without compromising quality.

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.