Pseudarthrosis (Non-Union) Treatment
Pseudarthrosis (Non-Union) Treatment
+75
Cultured Stem Cell Treatments (Non-Union)
4
Clinical Trials on Pseudarthrosis conducted. The world’s sole scientific evidence.
+75 |
4 |
Cultured Stem Cell Treatments (Non-Union)
Clinical Trials on Pseudarthrosis conducted. The worlds’s sole scientific evidence.
Pseudarthrosis (Non-Union fractures)
1800+
Patients
23
Clinical Trials (Largest scientific evidence worldwide)
3000+
Implanted doses of Cultured Mesenchymal Stem Cells
100%
Endorsed by Health Authorities
What is Non-Union (Pseudarthrosis)?
What is Non-Union (Pseudarthrosis)?
Fractures that lack the potential to heal without further intervention are defined as non-unions. This disorder, also known as Pseudarthrosis, occurs when bones are not properly repaired after a bone fracture or trauma. The lesion is usually detected when the patient does not regain normal mobility after surgery, once the estimated healing time has elapsed.
Despite its name, pseudarthrosis is unconnected with osteoarthritis. They are different diseases. One affects the cartilage and other the bone.
At ITRT, we have proven that treating non-unions with Cultured Mesenchymal Stem Cells (CMSC) new bone is created and the injury healed.
What is
Non-Union (Pseudarthrosis)?
Fractures that lack the potential to heal without further intervention are defined as non-unions. This disorder, also known as Pseudarthrosis, occurs when bones are not properly repaired after a bone fracture or trauma. The lesion is usually detected when the patient does not regain normal mobility after surgery, once the estimated healing time has elapsed.
Despite its name, pseudarthrosis is unconnected with osteoarthritis. They are different diseases. One affects the cartilage and other the bone.
At ITRT, we have proven that treating non-unions with Cultured Mesenchymal Stem Cells (CMSC) new bone is created and the injury healed.
Atrophic
Non-Union
This refers to a bone fracture that does not heal or, in other words, the bone cannot be restored. It is usually caused by inadequate immobilization and inadequate blood supply. Its treatment has traditionally required grafts that facilitate bone repair.
However, Cultured Stem Cells have now made regeneration possible. The bone recovers the structure and endurance it had prior to the injury.
World Champion Dani Pedrosa healed his
collar bone fracture with Cultured Stem Cells
World Champion Dani Pedrosa healing collar bone fracture with Cultured Stem Cells
Three times World Champion Dani Pedrosa, suffered a tough crash at Motegi in the Japanese GP training, which caused him to break his collarbone in 3 pieces. After implanting a plate, the bone failed to join and, years later, in his daily life, it broke again.
After being implanted with 40 Million of Cultured Stem Cells, he completely restored the injury and was able to compete again at a professional level and enjoy his passion.
LEARN MORE ABOUT HIS CASE IN THIS VIDEO
“World Champion Dani Pedrosa healing collar bone fracture with Cultured Stem Cells”
Three times World Champion Dani Pedrosa, suffered a tough crash at Motegi in the Japanese GP training, which caused him to break his collarbone in 3 pieces. After implanting a plate, the bone failed to join and, years later, in his daily life, it broke again.
After being implanted with 40 Million of Cultured Stem Cells, he completely restored the injury and was able to compete again at a professional level and enjoy his passion.
LEARN MORE ABOUT HIS CASE IN THIS VIDEO
“Nobody could give me a straight answer and the general consensus was I was gonna have a shorter leg”
“Nobody could give me a straight answer and the general consensus was I was gonna have a shorter leg”
Nick Tudor broke his leg really seriously, he got a rotational fracture in several pieces, including a small one in the middle. After some treatments, the leg wasn’t healing the way it should be doing and the general consensus was that he was going to have a shorter leg.
With a single dose of 40 million Cultured Stem Cells and after a period of rehab with his physiotherapist, David de Toro, he has started to run up mountains again.
“Nobody could give me a straight answer and the consensus was I was going to have a shorter leg”
Nick Tudor broke his leg really seriously, he got a rotational fracture in several pieces, including a small one in the middle. After some treatments, the leg wasn’t healing the way it should be doing and the general consensus from the specialists was that he was going to have a shorter leg.
With a single dose of 40 Million of Cultured Stem Cells and after a period of rehab with his physiotherapist, David de Toro, he has started to run up mountains again.
LEARN MORE ABOUT HIS CASE IN THIS VIDEO
Atrophic Non-Union
This refers to a bone fracture that does not heal or, in other words, the bone cannot be restored. It is usually caused by inadequate immobilization and inadequate blood supply.
Its treatment has traditionally required grafts that facilitate bone repair.
However, Cultured Stem Cells have now made natural regeneration possible. The bone recovers the structure and endurance it had prior to the injury.
Why our exclusive treatment is one-of-a-kind?
Not all stem cell treatments are equal; many of them barely contain a handful of stem cells, at best.
Our exclusive therapy of cultivated stem cells is the only one in the field of Regenerative Medicine that has scientifically demonstrated its effectiveness and safety. Only ITRT applies this therapy, which is the result of over 20 years of research.
Differences of our exclusive therapy from the rest of the mislabeled ‘stem cell’ treatment:
Dosage:
We have scientifically demonstrated in clinical trial that only by using millions of units can the regeneration process be activated. Our therapy applies millions of stem cells, certified by our laboratory.
Clinical trials:
Over the course of more than 20 years, we have conducted 23 clinical trials that have demonstrated the efficacy and safety of our therapy, constituting the largest knowledge base worldwide in regenerative therapy.
Tipology:
There are many types of stem cells, but we have demonstrated that only 3 of them are effective when applied to tissues. In the laboratory, we select the correct types of stem cells to ensure regeneration.
Cellular culturing:
Once the appropriate stem cells are selected, the very small quantity obtained through isolation undergoes an activation and culturing process, causing them to begin multiplying until reaching millions of units.
Cells from donors:
We have demonstrated in several clinical trials that we can use stem cells from other donors. This fact is very important especially for elderly patients, those with urgent needs, or serious illnesses.
