Mesenchymal stem cells (MSCs) are a population of cells capable of differentiating into connective tissues such as cartilage, bone, or adipose tissue.
They have been used in veterinary medicine for years – in the treatment of orthopaedic injuries, inflammation and skin diseases (Aleksiewicz et al., 2013). Currently, more and more research is focusing on their potential in human therapy.
In numerous research projects, MSCs and progenitor cells with specific properties (e.g., glial progenitors) are being tested in large and small animal models.
Examples include:
The results of these studies indicate the significant potential of MSCs and related cells in the treatment of neurodegenerative diseases, including multiple sclerosis and diseases involving myelin damage.
In numerous research projects, MSCs and progenitor cells with specific properties (e.g., glial progenitors) are being tested in large and small animal models.
Examples include:
The results of these studies indicate the significant potential of MSCs and related cells in the treatment of neurodegenerative diseases, including multiple sclerosis and diseases involving myelin damage.
From the perspective of clinical implementation, the immunological properties of MSCs and glial progenitors are crucial.
Studies have shown that these cells have immunomodulatory capabilities, which reduces the risk of rejection and allows them to be used in allogeneic therapy (Klimczak et al., 2019).
An important area of research is combining MSCs with platelet-rich plasma (PRP). PRP, as a source of natural growth factors, supports bone healing and regeneration processes (Skwarcz et al., 2019a; Skwarcz et al., 2019b). The combination of MSCs and PRP may become the standard treatment for orthopaedic injuries and chronic inflammation in humans in the future.
The results of research to date confirm that MSC and PRP are a viable alternative to symptomatic therapies.
Work is underway to develop drugs and clinical procedures that will enable their wider use in neurology, orthopaedics and human regenerative medicine.
These implementations are based on experience gained in veterinary medicine (Sanford Biotech) and translational research conducted in collaboration with academic centres.