Description
Performance & Process Data

P2 dissolvable microcarriers have been evaluated in adherent cell culture using C2C12 myoblasts across both static and bioreactor conditions.
- Greater than 90% cell attachment within the first 24 hours
- Cell expansion of up to 30-fold over 7 days depending on seeding density
- Cell densities reaching approximately 1 × 10⁶ cells/mL
- Cell recovery approaching 100% following microcarrier dissolution
- Post-harvest cell viability exceeding 90%
- Maintains cell differentiation capacity after expansion
In this study, microcarriers were dissolved using Trypsin or TrypLE to enable recovery of cells without filtration or mechanical separation.
Microcarriers for Cell Culture Workflows
P2 microcarriers are used in microcarrier-based cell culture to support the expansion of adherent cells. The dissolvable format allows removal of the microcarriers without additional separation steps, which can reduce handling and processing time.
The material and surface properties can be adjusted to suit different cell types and applications, including processes where gentle cell recovery is important.
Applications
These dissolvable microcarriers are suitable for:
- Mesenchymal stem cells (MSCs)
- Fibroblasts and myoblasts
- Virus production
- Secretome Production
- Cell therapy workflows
Why Use Dissolvable Microcarriers
Compared to traditional microcarriers for cell culture, dissolvable systems allow removal of the carrier material without filtration. This can simplify workflows and support more efficient cell recovery, particularly in processes where handling steps need to be minimised.
Related Publication
The development of fast-dissolving, xeno-free microcarriers for cell culture is described in published research:
Development of xeno-free, fast-dissolving microcarriers for scalable stem cell therapy applications
Journal of Cytotherapy (2025)
https://doi.org/10.1016/j.jcyt.2025.03.301
This study reports the development of P2 microcarriers for anchorage-dependent cell culture, demonstrating high cell attachment (~92%), rapid dissolution (as fast as ~3–10 minutes), and efficient cell recovery without mechanical separation.
The results highlight the suitability of dissolvable microcarriers for scalable cell culture, stem cell therapy, and biomanufacturing applications, with tunable properties such as stiffness influencing cell behaviour and productivity.