This article will explore the fascinating world of stem cell therapy for athletes, exploring its numerous applications, advantages, and potential for optimizing athletic performance like never before.

So, whether you're a professional athlete or a sports enthusiast, get ready to discover how stem cell therapy can help you reach new heights in your athletic journey.

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Stem Cell Therapy for Athletes

The field of regenerative medicine has seen significant advancements in recent years, with stem cell therapy emerging as a promising treatment option for various medical conditions, including sports injuries. Athletes often seek effective stem cell therapies to enhance their recovery and optimize performance.

Stem cell treatment in the form of an Intravenous mesenchymal stem cell (MSC) infusion has gained attention as a viable option for athletes, offering numerous benefits over other stem cell types and delivery methods.

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Injury Recovery

Stem cell therapy for sports injuries can help improve healling of damaged tendons, ligaments, muscles, and cartilage.

Stem cells for injuries can either by administered intravenously so it can target multiple areas of inflammation via homing or via specific site injections to target more localized issues.

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Benefits

• Faster Recovery: Intravenous mesenchymal stem cell therapy has been shown to accelerate tissue repair and regeneration, reducing the recovery time for athletes.
• Reduced Inflammation: By modulating the immune response, intravenous mesenchymal stem cell therapy can minimize inflammation, alleviate pain, and promote healing.
• Improved Performance: As athletes recover faster and more effectively, their performance can be enhanced, allowing them to reach their full potential.
• Versatility in Treatment: This therapy can address various injuries, including muscle, tendon, ligament, and cartilage damage, making it a versatile option for athletes.

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According to a 2023 study, stem cell therapy, especially using Mesenchymal stem cells (MSCs), shows potential in treating damaged tissues and reducing pain in conditions like osteoarthritis (OA). Key points from this study include:

• MSCs in Therapy: MSCs are often used due to their ability to expand rapidly in culture, their non-tumorigenic nature, and ease of collection.
• Benefits in OA: MSCs have anti-inflammatory and immunomodulatory properties, which may improve the local environment for regenerating injured articular cartilage.
• Challenges: The study also notes challenges in stem cell therapy, such as the use of cell products that may not contain true stem cells and a lack of conclusive evidence about the efficacy of these treatments.

However, the application of stem cell therapy in human medicine faces challenges:

• Not all cell products used in stem cell therapies contain true stem cells.
• Aggressive marketing and lack of conclusive evidence on efficacy have led to skepticism and regulatory caution.
• National regulatory bodies in several countries have halted the use of stem cell therapy for OA until more robust evidence is available.

Common Applications

Stem cell therapy has demonstrated potential in addressing various sports-related injuries, including joint injuries, tendon and ligament injuries, and cartilage damage.

By harnessing regenerative capabilities stem cell treatment for injury aims to repair damaged tissues, reduce pain, and improve joint function. As a less invasive alternative to traditional surgical interventions, stem cell therapy offers athletes faster recovery and a reduced risk of re-injury.

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Joint Injuries

Stem cell therapy has shown promise in treating various joint injuries affecting the knees, shoulders, hips, and elbows. By leveraging the regenerative potential of stem cells, damaged joint tissues can be repaired, leading to reduced pain and improved function.

This therapy offers a less invasive alternative to traditional surgical interventions and surgical procedures such as joint replacement or arthroscopy, which often require extensive recovery periods.

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Tendon and Ligament Injuries

Tendons and ligaments play crucial roles in maintaining the stability and mobility of joints. Athletes are particularly susceptible to tendon and ligament injuries, which can be debilitating and require a lengthy recovery.

Stem cells for ligamentous injuries has been explored as a treatment option, as stem cells can stimulate the healing process and promote tissue regeneration. This may result in faster recovery and reduced risk of re-injury.

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Clinical Exploration

Stem cell therapy has indeed been explored as a potential treatment for ligamentous injuries. The use of biologics, including stem cells, is being investigated for their potential to aid in the healing and regeneration of the ulnar collateral ligament, a key ligament in the elbow that is often injured in athletes, particularly baseball pitchers.

Stem cells have the unique ability to differentiate into various cell types, including ligament cells, which makes them a promising option for treating ligament injuries. They could potentially accelerate healing, reduce inflammation, and improve the strength and flexibility of the repaired ligament.

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Cartilage Damage

Cartilage, the smooth tissue that cushions and protects joints, can be damaged due to sports injuries or degenerative conditions such as osteoarthritis. Traditional treatment options for cartilage damage left knee are often limited and may not provide long-lasting relief.

Stem cell therapy offers a promising alternative by promoting the regeneration of damaged cartilage tissue, potentially reducing chronic pain, and improving joint function. In some cases, this innovative treatment may even help athletes avoid or delay more invasive procedures, such as joint replacement surgery.

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Elbow Stem Cell Treatment

Elbow stem cell treatment is a form of regenerative medicine that employs stem cells to heal and repair damaged tissues in the elbow joint. This innovative treatment is primarily used for:

• Osteoarthritis
• Tendonitis
• Ligament injuries

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Stem cells are uniquely capable of transforming into different cell types, enabling them to replace damaged cells and facilitate the healing process.

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Key Studies on Elbow Stem Cell Treatment

Several studies highlight the effectiveness of elbow stem cell treatment in addressing various elbow conditions:

• 2016 Study on BM-MSCs: Published in the American Journal of Sports Medicine, this study focused on bone marrow-derived mesenchymal stem cells (BM-MSCs) for treating lateral epicondylitis (tennis elbow). Findings revealed that patients receiving BM-MSC injections reported significant improvements in pain and function compared to those given a placebo.
• 2018 Study on ADSCs: The Journal of Shoulder and Elbow Surgery published a study evaluating adipose-derived stem cell (ADSC) injections for chronic lateral epicondylitis. Patients treated with ADSC injections experienced notable improvements in pain, function, and grip strength, outperforming those who received corticosteroid injections.
• 2017 Case Report on UCL Tear: A case report in Regenerative Medicine detailed the successful treatment of a professional baseball pitcher with a partial ulnar collateral ligament (UCL) tear using stem cell therapy. The treatment allowed the athlete to resume playing without surgery, significantly reducing pain and enhancing function.

Considerations and Future Research

While these studies offer promising insights, it's crucial to recognize the need for more comprehensive clinical trials to verify the long-term safety and efficacy of elbow stem cell treatment. Future research should also focus on identifying the most effective stem cell types, dosages, and delivery methods for specific elbow conditions.

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Stem Cell Therapy for Hamstring Injuries

Stem cell therapy is emerging as a promising approach for treating hamstring injuries, which are common among athletes. These injuries typically affect the semitendinosus, semimembranosus, and biceps femoris muscles. While physiotherapy-led rehabilitation remains the primary treatment, the exploration of medical interventions like stem cell therapy aims to accelerate healing and prevent recurrence.

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Potential of Stem Cells in Treating Hamstring Injuries

Stem cells, known for their ability to differentiate into various cell types, offer potential benefits in the healing process of hamstring injuries. They can potentially:

• Repair damaged muscle tissue.
• Reduce inflammation.
• Enhance recovery speed.

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Research and Future Directions

The potential of stem cell therapy in hamstring injuries is promising, but current evidence is still developing. A study discusses the broader potential of stem cell therapy for muscle injuries but does not provide specific results for hamstring injuries. More research is necessary to establish the effectiveness and safety of this therapy in treating hamstring injuries.

Key areas for further research include:

• Identifying the optimal type of stem cells, such as bone marrow-derived or adipose-derived stem cells.
• Determining the best method of stem cell delivery.
• Establishing the ideal dosage for effective treatment.

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Stem cell therapy holds potential for hamstring injury treatment, but it requires more comprehensive research to fully understand and utilize its benefits.

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Optimizing Athletic Performance with Stem Cell Therapy

The world of competitive sports constantly demands athletes to push their physical limits to achieve peak performance. However, pursuing excellence often comes at the cost of injuries and long recovery times. In recent years, stem cell therapy has emerged as a groundbreaking regenerative medicine technique that treats sports injuries and helps optimize athletic performance. This cutting-edge treatment can potentially revolutionize how athletes train, compete and recover.

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Enhancing Recovery and Reducing Downtime

One of the primary reasons athletes are drawn to stem cell therapy is its ability to accelerate the healing process. Traditional treatment methods for sports injuries often require prolonged rest and rehabilitation, which can significantly disrupt an athlete's training and competitive schedule.

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Stem cell therapy harnesses the body's natural regenerative abilities to speed up the recovery process. By injecting stem cells into the affected area, the treatment promotes tissue repair, reduces inflammation, and minimizes scar formation. This allows athletes to return to their training regimen more quickly and helps maintain their physical conditioning and competitive edge.

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Strengthening Tissues and Preventing Future Injuries

Another compelling argument favoring stem cell therapy for athletes is its potential to strengthen tissues and prevent future injuries. By stimulating the growth of new cells and promoting the production of essential proteins, such as collagen, stem cells can help fortify vulnerable areas, like tendons and ligaments, reducing the risk of re-injury. This proactive approach to injury prevention is particularly beneficial for athletes who participate in high-impact sports or have a history of recurring injuries.

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Improving Overall Athletic Performance

In addition to facilitating faster recovery and injury prevention, stem cell therapy can also enhance overall athletic performance. Stem cells have been shown to improve muscle strength and endurance, promote better joint flexibility and mobility, and increase energy levels. By incorporating stem cell therapy into their training regimens, athletes can reap these benefits to optimize their performance, enhance their physical capabilities, and achieve a competitive advantage over their peers.

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The Ethical and Safe Use of Stem Cells in Sports

While the potential benefits of stem cell therapy for athletes are promising, ensuring that the treatments are carried out ethically and safely is essential. Athletes should seek the guidance of qualified medical professionals with expertise in regenerative medicine to determine the most appropriate stem cell therapy for their needs. Additionally, it is crucial to adhere to the guidelines and regulations set forth by governing bodies, such as the FDA, to avoid potential risks and complications after receiving treatment.

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Umbilical Cord Tissue-Derived Cells

Umbilical cord tissue-derived cells are a specific type of stem cells obtained from Wharton's jelly, a gelatinous substance within the umbilical cord. These cells, predominantly mesenchymal stem cells (MSCs), can differentiate into various cell types, such as bone, cartilage, muscle, and fat.

Umbilical cord tissue-derived cells are advantageous in regenerative medicine because they are easily accessible, ethically acceptable, and have a lower risk of immune rejection than human cells or other stem cell sources. Their unique regenerative properties make them a promising option for treating various medical conditions, including sports injuries and degenerative diseases.

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Advantages over Other Sources

Umbilical cord tissue-derived mesenchymal stem cells offer several advantages over other adult stem cells and cell sources:

• Safety and Efficacy: Umbilical cord tissue-derived stem cells have a low risk of rejection and infection, making them a safe option for treatment. Additionally, these cells have shown high efficacy in promoting tissue regeneration and healing.
• Ethical Considerations: The collection of umbilical cord tissue does not involve the destruction of embryos, alleviating ethical concerns associated with embryonic stem cells.

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Comparison with Other Stem Cell Treatments

• Bone Marrow-Derived Cells: Although bone marrow-derived stem cells have demonstrated therapeutic potential, harvesting can be invasive and painful. The number of stem cells obtained may be insufficient for optimal treatment.
• Adipose Tissue-Derived Cells: While adipose tissue is a rich source of stem cells, the extraction process can lead to contamination with other cell types, and the efficacy of these cells may vary.
• Embryonic Stem Cells: Embryonic stem cells have the potential for unlimited differentiation, but their use is fraught with ethical controversies, and they may carry a higher risk of forming tumors.

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Stem Cell Therapy Procedures

Various procedures are employed in stem cell therapy for elbow injuries, depending on the source of the stem cells and the method of administration. Some standard techniques used in bone marrow stem cells and cell therapy for sports injuries include bone marrow aspiration, adipose tissue extraction, platelet-rich plasma (PRP), and stem cell injections.

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Bone Marrow Aspiration

Bone marrow aspiration is a procedure used to harvest stem cells, particularly mesenchymal stem cells, from the patient's bone marrow, typically from the iliac crest in the hip. This minimally invasive procedure is performed under local anesthesia, and a needle is inserted into the bone marrow to collect a small tissue sample. The extracted bone marrow is then processed to isolate the stem cells, which can be utilized for treatment.

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Adipose Tissue Extraction

Adipose tissue extraction involves obtaining stem cells from the patient's fat tissue, a rich mesenchymal stem cell source. The procedure is usually performed under local anesthesia and involves making a small incision to access the subcutaneous fat. A cannula is then used to harvest the fat tissue, which is subsequently processed to isolate the stem cells. These stem cells can then be administered to the patient to facilitate healing and tissue regeneration.

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Platelet-Rich Plasma (PRP)

Platelet-rich plasma (PRP) therapy is a regenerative medicine technique that isolates and concentrates platelets from the patient's blood. While not a stem cell treatment per se, PRP is often used in conjunction with stem cell therapy to enhance its effects. Platelets are known for their role in clotting but also contain growth factors that can stimulate tissue repair and regeneration. PRP is prepared by drawing a blood sample from the patient, which is then centrifuged to separate the platelet-rich plasma from other blood components. The PRP can then be injected into the injured site to promote healing.

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Stem Cell Injections

Stem cell injections are the administration of stem cells derived from bone marrow, adipose tissue, or other sources directly into the injured area. These injections are performed under imaging guidance, such as ultrasound or fluoroscopy, to ensure precise delivery of the stem cells to the target tissue. The stem cells work to repair and regenerate damaged tissue, reduce inflammation, and promote healing. Stem cell injections can be performed as a standalone treatment or combined with other regenerative therapies, such as PRP, to maximize the therapeutic benefits.

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Injections vs. Intravenous: Comparing Delivery Methods

Stem cell therapy can be administered through various delivery methods, each with unique advantages and potential applications. Local injections and intravenous infusion are the main methods for delivering stem cells to treat sports-related injuries.

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Local Stem Cell Injections

Local injections involve the direct administration of stem cells into the injured site. This method is often effective for treating specific, localized injuries such as joint, tendon, or ligament damage. By delivering stem cells directly to the affected area, local injections allow for targeted tissue repair and regeneration. While this method is suitable for addressing isolated injuries, it may not be as effective in cases where multiple injury sites or systemic inflammation are present.

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Intravenous Stem Cell Delivery

Intravenous delivery involves the infusion of stem cells into the bloodstream, allowing them to circulate throughout the body and reach multiple injury sites. This method may offer broader therapeutic benefits compared to local injections, as the stem cells can target various damaged tissues simultaneously, promoting healing and reducing inflammation. Intravenous delivery is particularly advantageous in cases where an athlete has sustained multiple injuries or experienced systemic inflammation, as it can address a wide range of issues without requiring various injections.

In summary, both local injections and intravenous delivery methods have merits in stem cell therapy. Local injections provide targeted treatment for specific injuries, while intravenous infusion offers a more comprehensive approach, addressing multiple injury sites and systemic issues. The choice of delivery method depends on the athlete's unique needs, injury profile, and the specific therapeutic goals of the treatment plan.

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Success Stories: Athletes who have received stem cells or PRP

Numerous athletes have benefited from intravenous mesenchymal stem cell therapy using umbilical cord tissue-derived stem cells injected together. These athletes report faster recovery times, less pain, reduced inflammation, and improved performance, enabling them to return to their sport and compete at higher levels. View the ever growing roster of athletes who have received stem cell therapy.

1. Jarvis Green (NFL, Denver Broncos) - knee treatment
2. Knowshon Moreno (NFL, Denver Broncos) - knee treatment, undisclosed clinic.
3. Sidney Rice (NFL, Seattle Seahawks) - knee treatment in Switzerland.
4. Hines Ward (NFL, Pittsburgh Steelers) - joint regeneration therapy.
5. Adrian Clayborn (NFL, Atlanta Falcons) - recovery after knee surgery.
6. Jamaal Charles (NFL, Kansas City Chiefs) - bone marrow-derived stem cell treatment for knee ligament repair.
7. Rolando McClain (NFL, Oakland Raiders) - liposuctioned fat cell injections
8. Aaron Curry (NFL, Oakland Raiders) - knee treatment during offseason.
9. Alex Rodriguez (MLB, New York Yankees) - platelet-rich plasma therapy in Germany.
10. Josh Hamilton (MLB, Texas Rangers) - stem cell and platelet-rich plasma injection.
11. Takashi Saito (MLB, L.A. Dodgers) - joint regeneration therapy
12. Kobe Bryant (NBA, L.A. Lakers) - knee treatment in Germany.
13. Pau Gasol (NBA, San Antonio Spurs) - autologous stem cell injection at USA orthopaedic clinic.
14. Chris Johnson (NFL, New York Jets) - stem cell therapy in USA.
15. Tiger Woods (Golf) - joint regeneration therapy with platelet-rich injections.
16. Stephen Curry (NBA, Golden State Warriors) - potential stem cell treatment for MCL sprain.
17. Terrell Owens (NFL, Cincinnati Bengals) - bone marrow-derived stem cell injections in South Korea.
18. Uche Nwaneri (NFL, Jacksonville Jaguars) - cartilage regrowth treatment, undisclosed clinic.
19. Marquis Maze (NFL, Pittsburgh Steelers) - stem cell therapy for muscle injury in USA.
20. LaRon Landry (NFL, Washington Redskins) - PRP treatments for torn Achilles tendon.
21. Cliff Lee (MLB, Philadelphia Phillies) - joint regeneration therapy in USA.
22. Dara Torres (Olympic Swimmer) - autologous chondrocyte implantation.
23. Israel Dagg (Rugby, Crusaders) - stem cell injection in Queenstown.
24. Bartolo Colon (MLB, New York Yankees) - stem cell transplant for torn rotator cuff and elbow injury.
25. Andrew Heaney (MLB, L.A. Angels) - stem cell treatment for torn ulnar collateral ligament.
26. Garrett Richards (MLB, L.A. Angels) - bone marrow-derived stem cell injection for torn elbow ligament.
27. Christiano Ronaldo (Soccer, Real Madrid) - bone marrow-derived stem cell injection for hamstring injury.
28. Ahmad Bradshaw (NFL, New York Giants) - stem cell injections for bone regrowth in foot.
29. Prince Amukamara (NFL, New York Giants) - stem cell injection for broken bone in left foot.
30. David Payne (Track & Field) - stem cell therapy with PRP for shin injury.
31. Ray Lewis (NFL, Baltimore Ravens) - stem cell therapy in Europe for triceps.
32. Peyton Manning (NFL, Indianapolis Colts) - stem cell treatment in Germany for neck injury.
33. Gordie Howe (NHL, Detroit Red Wings) - experimental stem cell treatment for stroke complications.

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Avoiding Knee Surgery with Stem Cell Therapy

Knee surgery has long been the go-to solution for addressing severe knee injuries and chronic pain conditions. However, invasive surgical procedures can have numerous risks, including infection, blood clots, and lengthy recovery times. Stem cell therapy is emerging as a promising alternative to traditional knee surgery, allowing patients to treat their knee issues more naturally and less invasively.

Injections of mesenchymal stem cells (MSCs) derived from sources such as bone marrow, adipose tissue, or umbilical cord tissue have shown promising results in treating knee conditions. MSCs can differentiate into cartilage cells, helping to repair and regenerate the damaged tissue, ultimately reducing pain and improving joint function.

Clinical studies have reported significant improvements in patients with knee osteoarthritis and other knee-related issues after stem cell therapy. These patients experienced reduced pain, increased mobility, and improved quality of life without invasive surgery.

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While stem cell therapy may not be the right choice for every knee condition, it is worth considering as an alternative to surgery for those seeking a more natural, less invasive approach to healing. Consultation with a qualified sports medicine specialist or orthopedic surgeon experienced in regenerative medicine can help determine if stem cell therapy is suitable for your knee issue. With the advancements in stem cell research and therapy, the future looks promising for those hoping to avoid knee surgery and embrace a more innovative path to recovery.

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Conclusion

In conclusion, stem cell therapy has emerged as a promising regenerative medicine approach for treating sports-related injuries, potentially accelerating recovery, reducing pain, and enhancing performance. Various types of stem cells, such as those derived from bone marrow, adipose tissue, other human cells, and umbilical cord tissue, have been used to treat a wide range of athletic injuries, including joint injuries, tendon, and ligament damage, broken bone down, and cartilage degeneration.

While stem cell injections have demonstrated effectiveness in treating localized injuries, intravenous delivery can reach multiple injury sites and provide broader therapeutic benefits. Using umbilical cord tissue-derived cells presents a desirable option for stem cell therapy.

These cells possess unique regenerative properties and have fewer ethical and safety concerns than other stem cell sources.

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References

1. Jo, C. H., Lee, Y. G., Shin, W. H., Kim, H., Chai, J. W., Jeong, E. C., ... & Yoon, K. S. (2014). Intra-articular injection of mesenchymal stem cells for the treatment of osteoarthritis of the knee: a proof-of-concept clinical trial. Stem Cells, 32(5), 1254-1266.
2. Emadedin, M., Ghorbani Liastani, M., Fazeli, R., Mohseni, F., Moghadasali, R., Mardpour, S., ... & Baharvand, H. (2015). Long-term follow-up of intra-articular injection of autologous mesenchymal stem cells in patients with knee, ankle, or hip osteoarthritis. Archives of Iranian Medicine, 18(6), 336-344.
3. Vega, A., Martín-Ferrero, M. A., Del Canto, F., Alberca, M., García, V., Munar, A., ... & García-Sancho, J. (2015). Treatment of knee osteoarthritis with allogeneic bone marrow mesenchymal stem cells: a randomized controlled trial. Transplantation, 99(8), 1681-1690.
4. Song, Y., Du, H., Dai, C., Zhang, L., Li, S., Hunter, D. J., ... & Zhang, Y. (2018). Human adipose-derived mesenchymal stem cells for osteoarthritis: a pilot study with long-term follow-up and repeated injections. Regenerative Medicine, 13(3), 295-307.