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In industrial MSC manufacturing, the real challenge is often not freezing itself, but the waiting before it.


 Between cell harvest, counting, resuspension, aliquoting, and freezing preparation, cells may remain in cryopreservation-related conditions longer than planned. In real workflows, this is not an exception — it is part of the process. 


 This raises an important question: how stable are cells during extended upstream holding?

 

To better reflect this scenario, we evaluated the stability of  CS-SC-D1 Stem Cell Cryopreservation Medium under extended 4°C holding conditions. 


 CS-SC-D1 was diluted 1:1 with saline supplemented with human albumin and held at 4°C for up to 14 hours, simulating upstream temporary holding conditions in MSC manufacturing workflows. 


 What we observed: 


✔️ Immediate viability remained above 90% 

✔️ Post-thaw viability stayed around 90% 

✔️ 72h post-thaw proliferation capacity was well maintained


 In industrial production, processes rarely follow a perfect timeline. A cryopreservation medium that can tolerate real delays helps reduce operational pressure and improves workflow flexibility. 


 For MSC manufacturing, upstream stability is not just a technical detail — it is part of process robustness.


Msc Stability After Extended 4 C Holding


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B202, 2/F, Block B, Zhongguancun Dongsheng Science and Technology Park-North Territory B-6 Building, No.66 Xixiaokou Road, Haidian District, Beijing, China