Placenta
Stem Cells

Unlock the Potential of Placental Stem Cells for Future Therapies

The placenta, usually discarded after birth, is actually one of the richest sources of stem cells in the human body. Placenta banking allows families to store these valuable cells at birth, preserving them for potential future use in regenerative medicine and advanced cell therapies.

Placental stem cells are young, biologically active cells that are being widely studied for their immunomodulatory and regenerative properties. With over 60 clinical trials currently underway worldwide, researchers are exploring their potential role in treating immune disorders, inflammatory conditions, and tissue damage. [1][2]

By storing placental tissue at birth, families may secure access to a powerful source of stem cells that could play an important role in future medical treatments.

What Are Placental Stem Cells?

Placental stem cells are primarily mesenchymal stromal cells (MSCs) — multipotent cells capable of self-renewal and differentiation into multiple tissue types. These cells can develop into structures such as bone, cartilage, muscle and connective tissue. [1][4]

Because they originate from perinatal tissue, placental stem cells are:

Biologically young and highly active
Rich in regenerative signalling molecules
Easier to expand in laboratory conditions
Less likely to trigger immune rejection

These unique characteristics make placental stem cells an exciting area of research in regenerative medicine and advanced therapies. [2]

Why Store Placental Stem Cells?

Placenta banking preserves a valuable biological resource that may support future medical innovations.

Key advantages include:

Low immunogenicity

Placental mesenchymal stem cells are less likely to trigger immune reactions, making them promising candidates for cell therapy. [2][5]

Family compatibility

Stored cells may potentially be used not only by the child but also by compatible family members. [2]

Multiple cell types

Placental tissue contains several populations of stem and progenitor cells, increasing its research and therapeutic potential. [4]

High cell yield

The placenta provides a large volume of tissue, allowing extraction of substantial numbers of stem cells. [1]

Ethically sourced

Placental tissue is normally discarded after birth, meaning collection raises no ethical concerns. [2]

The Science Behind Placental Mesenchymal Stem Cells

Mesenchymal stromal cells derived from the placenta are widely studied because of their ability to influence tissue repair and immune responses.

These cells primarily work through paracrine signalling, releasing factors that communicate with surrounding cells and stimulate regeneration. [2][4]

Research suggests these signalling pathways may support:

Immunomodulation
Formation of new blood vessels (angiogenesis)
Reduction of inflammation
Prevention of cell death
Support for tissue regeneration and repair [2][4]
These properties have made MSCs a major focus of regenerative medicine research.

Clinical Research into Placental Stem Cells

Placental stem cells are currently being investigated in more than 60 clinical trials worldwide.

Areas of research include:

Immune-related diseases
Graft-versus-host disease (GvHD)
Lung injury and pulmonary fibrosis
Acute respiratory distress syndrome (ARDS)
Cardiovascular and vascular diseases
Tissue repair and regenerative medicine

In some studies, placental MSCs have been explored for their anti-inflammatory and immunosuppressive properties, which may help reduce complications following stem cell transplantation. [3]

While many applications are still under investigation, the growing number of trials highlights the rapidly expanding interest in placental stem cell therapies.

Research has also explored their role in promoting angiogenesis and tissue regeneration, particularly in patients with critical limb ischemia. [3]

Placenta Banking and the Future of Regenerative Medicine

The field of regenerative medicine is evolving rapidly, with stem cell therapies becoming an important focus of biomedical research.

Placental stem cells are particularly promising because they combine several key advantages:

High regenerative potential
Strong immunomodulatory properties
Ethical and non-invasive collection
Large numbers of cells available for research

As scientific understanding continues to grow, placenta banking may provide families with access to a powerful biological resource that could support future medical innovations.

Why Choose Our Placenta Banking?

Choosing a placenta banking provider is about more than storage — it’s about quality, safety, and future usability of the cells. Our approach is designed to ensure that every stored sample meets the highest standards for potential future applications.

Proven Cell Viability: Proliferation Testing

We go beyond standard storage by performing a proliferation test on every sample.

This test evaluates the ability of the stem cells to grow and multiply under controlled laboratory conditions, which is a key indicator of their viability and potential usability in future therapies.

By confirming that the cells are not only present but also biologically active, we provide an additional layer of quality assurance for every stored sample.

GMP-Certified Laboratory & Cell Expansion Capabilities

Our laboratory operates under GMP (Good Manufacturing Practice) certification, ensuring pharmaceutical-grade quality standards.

What this means:

● Controlled, sterile processing environment
● Full traceability and compliance
● Clinical-grade handling standards

Advanced Cell Expansion

We have the capability to expand mesenchymal stem cells from placental tissue, increasing cell numbers while maintaining their properties.

This is essential because many therapies require large quantities of viable cells, making your sample more future-ready.

Dual Storage for Maximum Security

To further protect your sample, we offer dual-location storage.

After processing, samples are securely cryopreserved and stored in separate, geographically distinct facilities, including our dedicated storage site in Portugal.

Benefits of dual storage:

● Protection against unforeseen events at a single site
● Increased long-term security and redundancy
● Peace of mind knowing your sample is safeguarded in multiple locations

This approach ensures that your child’s stem cells are protected under all circumstances.

Advanced Cryopreservation Technology

Your sample is preserved using state-of-the-art cryogenic storage in the gas phase of liquid nitrogen.

This method:

● Maintains long-term cell stability
● Minimises risk of cross-contamination
● Preserves the biological integrity of stem cells over time

Strict monitoring systems are in place 24/7 to ensure optimal storage conditions at all times.

International Quality Standards & Accreditation

We operate according to the highest international standards in stem cell banking.

Our quality commitments include:

● AABB-accredited processes (global gold standard in biobanking)
● Compliance with international regulatory guidelines
● Fully traceable sample handling and processing
● Rigorous laboratory quality control and testing protocols

These standards ensure that your sample is handled with the same level of care required for clinical-grade biological materials.

Experience You Can Trust

As part of a leading European stem cell banking network:

● Thousands of samples have already been released for clinical use
● Operations span across multiple countries
● Laboratories operate 24/7, 365 days a year for immediate processing

This experience ensures reliability, expertise, and long-term commitment to advancing stem cell therapies.

Designed for the Future of Medicine

Placenta banking is an investment in future healthcare possibilities. By combining:

● Scientifically validated processing
● Verified cell viability testing
● Secure dual storage
● International accreditation

we provide a service designed to meet both today’s standards and tomorrow’s medical advancements.

Scientific References

Malek A., Bersinger N.A.
Human placental stem cells: biomedical possibilities and clinical significance.
Journal of Stem Cells. 2011;6(2):75-92.
Pethe P., Kale V.
Placenta: A gold mine for translational research and regenerative medicine.
Reproductive Biology. 2021.
Shirbaghaee Z. et al.
Report on a phase I clinical trial evaluating therapy with human mesenchymal stem cells from the placenta in patients with critical limb ischemia.
Stem Cell Research & Therapy. 2023;14(1):174.
Deng X. et al.
Different biological properties of mesenchymal stem cells obtained from different components of the human placenta.
Biochemistry and Biophysics Reports. 2024;39:101739.
Semenova E. et al.
Isolation and characteristics of mesenchymal stromal cells from different parts of placenta.
Journal of Stem Cell Research & Therapy. 2017.
Mesenchymal stem cells derived from perinatal tissues for the treatment of patients with life-threatening ARDS caused by SARS-CoV-2.
Stem Cell Research & Therapy. 2021;12:91.

Frequently Asked Questions

Is placenta collection safe?
Yes. The placenta is collected after birth and does not interfere with the delivery process or affect the mother or baby.
Can placental stem cells be used by family members?
In some cases, placental stem cells may be compatible with biological relatives due to their immunological characteristics.
What is a proliferation test and why is it important?
A proliferation test measures the ability of stem cells to grow and multiply under laboratory conditions. This is a critical indicator of cell viability and future usability. By performing this test on every sample, we ensure that the stored cells are not only present but also biologically active and suitable for potential therapeutic use.
Do you test every placenta sample before storage?
Yes. Every sample undergoes strict laboratory evaluation, including a proliferation test, to confirm cell quality and viability. This ensures that only high-quality, clinically relevant samples are preserved.

Placenta Stem Cells