Empowering Your
Health with Cutting Edge
Stem Cell Therapy

1. Immune Modulation

Regulating overactive immune responses to restore immune system balance while preserving normal immune function.

2. Anti-inflammatory Effects

Suppressing chronic inflammation that contributes to tissue damage and disease exacerbation.

3. Tissue Repair and Regeneration

Stimulating the repair of damaged tissues by releasing growth factors and enhancing cellular repair pathways.

4. Paracrine Signaling

Facilitating intercellular communication to support the healing process and maintain tissue integrity.

1. Regeneration:

These stem cells can differentiate into various cell types, such as bone, cartilage, muscle, and nerve cells, offering potential to replace damaged tissues.

2. Anti-inflammatory Effects:

They release bioactive molecules that reduce inflammation, a common contributor to degenerative diseases.

3. Immunomodulation:

Umbilical cord stem cells help regulate the immune system, preventing it from attacking healthy tissues and creating a favorable environment for healing.

4. Localized:

These cells have the ability to regain function by migrating to injured or diseased areas in the body, enhancing localized repair.

1. Regeneration of Damaged Tissues:

stem cells differentiate into specialized cells, such as chondrocytes (cartilage cells), osteoblasts (bone cells), or tenocytes (tendon cells), which contribute to tissue regeneration.

2. Anti-Inflammatory Effects:

Stem cells reduce inflammation in affected tissues, which is a major contributor to pain and further degeneration in musculoskeletal and disc diseases. They do it through modulating the immune response by secreting anti-inflammatory cytokines and inhibiting pro-inflammatory cytokines, reducing inflammation and swelling.

3. Immunomodulation:

MSCs interact with immune cells, including T-cells, B-cells, and macrophages, to shift the response from a pro-inflammatory (M1 macrophages) to an anti-inflammatory (M2 macrophages) state. This reduces autoimmune responses and chronic inflammation.

4. Pain Reduction:

By reducing inflammation, repairing damaged tissues, and stabilizing joints or discs, MSCs indirectly reduce mechanical and inflammatory pain. Some studies suggest that MSCs may also influence pain pathways by modulating sensory nerve activity.

1. Regenerating Damaged Heart Tissue:

After a heart attack or other cardiac injury, heart muscle cells (cardiomyocytes) are often damaged or lost. Umbilical cord stem cells release growth factors stimulating the repair, regeneration, and formation of new cardiomyocytes, improving the heart’s structural integrity.

2. Promoting Angiogenesis (Formation of New Blood Vessels):

This process encourages the development of new blood vessels, enhancing blood flow to oxygen-deprived areas of the heart. Improved circulation supports tissue recovery and reduces further damage.

3. Reducing Inflammation and Immune Modulation:

Chronic inflammation contributes to the progression of heart disease and heart failure. Umbilical cord stem cells release anti-inflammatory cytokines and also modulate immune responses, preventing the immune system from attacking healthy heart tissue.

4. Improving Heart Function:

By repairing tissue, forming new blood vessels, and reducing inflammation, umbilical cord stem cells improve the heart’s contractility and efficiency, alleviating symptoms of heart failure and enhancing overall quality of life.

1. Immune modulation:

They achieve this through the regulation of T cell responses, thereby reducing inflammation.

2. Restoring Gut Barrier Function:

Stem cells promote the production of tight junction proteins that strengthen the connections between intestinal cells. By restoring the barrier, they reduce systemic inflammation caused by the translocation of bacteria and toxins into the bloodstream.

3. Gut microbiota:

Stem cells help restore the balance of intestinal microbes, increasing the abundance of beneficial bacteria and promoting the production of short-chain fatty acids, which are important for maintaining intestinal health and promoting mucosal healing.

4. Anti-Inflammatory Effects:

Umbilical cord stem cells release anti-inflammatory cells while suppressing pro-inflammatory cytokines; these effects help calm inflamed areas and reduce symptoms like pain, diarrhea, and bleeding.

5. Intestinal epithelium repair:

They also play a role in the repair of intestinal epithelium, enhancing barrier function and reducing permeability, which are critical in preventing further inflammation and tissue damage.

1. Liver Tissue Regeneration:

Stem cells have the power to replace damaged hepatocytes and restore liver function. They release growth factors that promote cell proliferation and tissue repair.

2. Anti-Inflammatory Effects:

SC reduce chronic inflammation, which is a hallmark of liver diseases such as non-alcoholic fatty liver disease (NAFLD) and autoimmune hepatitis, by secreting anti-inflammatory cytokines and suppressing pro-inflammatory cytokines. This reduces inflammation and promotes a healing environment.

3. Immunomodulation:

Stem cells balance the immune response in autoimmune and inflammatory liver diseases by reducing the activity of natural killer cells and macrophages that contribute to liver injury. This helps in conditions like autoimmune hepatitis by minimizing immune attacks on liver tissue.

4. Anti-Fibrotic Effects:

Stem cells have the power to reverse or prevent fibrosis by inhibiting the activation of hepatic stellate cells, which are responsible for producing fibrotic tissue. This reduces liver stiffness and improves functionality.

5. Promoting Angiogenesis:

Stem cells enhance blood flow to damaged areas of the liver to support healing by releasing pro-angiogenic factors, which stimulate the formation of new blood vessels. Improved vascularization aids in delivering oxygen and nutrients to regenerating liver cells.

1. Neuroprotection:

Stem cells prevent further damage to neurons and support the survival of existing brain or spinal cord cells, releasing factors that shield neurons from oxidative stress, cell death (apoptosis,) and damage caused by excessive neurotransmitter release.

2. Neurogenesis (Formation of New Neurons):

SC encourages the regeneration of neural cells lost due to injury or disease, creating new synaptic connections, improving communication between nerve cells.

3. Anti-inflammatory Effects:

they reduce neuroinflammation, which is a hallmark of many neurological diseases such as multiple sclerosis (MS), Parkinson’s disease, and Alzheimer’s disease, by secreting anti-inflammatory and suppressing pro-inflammatory ones, helping reduce damage to neural tissues.

4. Angiogenesis and Blood-Brain Barrier Repair:

Stem cells enhance blood flow to damaged areas and restore the integrity of the blood-brain barrier by secreting pro-angiogenic factors, stimulating the formation of new blood vessels.