Novel cartilage repair therapy

Diseases involving irremediable tissue damage of the musculoskeletal system account today for about 15% of hospital admissions in developed countries. With the ageing of the population, this is believed to gain significantly in importance in the coming years.

The majority of the disorders affecting the musculoskeletal system are the joint diseases, in particular osteoarthritis. The latter disease process is typically initiated and associated with defects of the articular cartilage and the underlying bone, causing pain as well as functional impairment. Early tissue repair resulting in the functional restoration of damaged joint surfaces is expected to prevent the development of osteoarthritis, and slow down the progression of the disease.

Different solutions and therapies are currently available for the local treatment of joint surface defects. Ranging from small-scaled arthroscopic debridement with microfracture or osteochondral grafting, to radical surgery involving total joint replacement by implantation of prosthesis. However, as the lifetime of joint prosthesis is limited, and with the ageing of the population, there is an increased need for more long lasting biological repair procedures.

Recent therapeutic approaches aim at repairing the articular cartilage by implantation of expanded cartilage cells. Cells used for the procedure are often autologous chondrocytes (i.e. a patient’s own cartilaginous cells), obtained from the patient`s involved joint via biopsy. Main difficulties with this technology include, amongst others, the so called “de-differentiation” of the cells which, during the in vitro expansion, loose their proper function i.e. the potential to form stable hyaline cartilage. The expanded cells instead can only make disorganized low quality fibro-cartilaginous tissue having different functional properties than the original articular cartilage covering the joints. Many existing therapeutic tissue regeneration methods therefore may lead to failure in mid- and long-term and, sometimes, may even aggravate the local damage.

TiGenix improves the Autologuous Chondrocyte Implantation procedure

The recently founded Belgian company TiGenix has been able to overcome this difficulty, unblocking herewith the way for successful and long-lasting tissue regeneration. Focusing on joint-surface defects and based on its own research, the company has been able to consistently grow the required hyaline-type cartilage in vivo. TiGenix has discovered specific molecular markers which are used to predict the ability of a cell population to form stable hyaline cartilage in vivo.

From these research findings, TiGenix has subsequently developed the cellular therapeutic product ChondroCelect®. ChondroCelect® is a proprietary technology using the patient`s own cells, resulting in a consistent and reproducible cell product, expected to improve the outcome of an autologous chondrocyte implantation procedure.
ChondroCelect® recently entered a prospective randomized clinical trial in 9 orthopedic centers in Belgium. The company actively prepares the extension of the trial to medical centers in other European countries. The commercial launch of ChondroCelect® is foreseen in 2004.

Therapies of next generation

The repair of chondral (cartilage) defects is the first application of TiGenix` research. The company has also identified specific markers that will enable the selection of adult multipotent precursor cells as the basis for next-generation tissue repair. The latter include therapeutic solutions for osteochondral (cartilage and underlying bone) defects and ultimately novel treatment options for osteoarthritis.

Who is TiGenix ?

TiGenix was founded in February 2000 as a spin-off of the University of Leuven (Belgium) by Frank Luyten, M.D., Ph.D., Professor at the Faculty of Medicine of the University of Leuven and Chairman of the Department of Rheumatology at the same university; and Ir. Gil Beyen, Partner at Arthur D. Little in Brussels and specialist in the healthcare sector.

TiGenix is a biomedical company with the mission of developing innovative products for successful repair and functional regeneration of damaged human tissue. The company aims at becoming one of the leading players in the field of musculoskeletal tissue engineering.

To do so, TiGenix is built on a multidisciplinary technology platform, combining expertise in cell and developmental biology, biomaterials and biosurgery. Various collaborations and strategic partnerships have been put in place to ensure the technological advancement and further developments of TiGenix, including with leading research centers, a bioinformatics company as well as Belgian and international experts as scientific advisors.

Currently Tigenix employs 20 people of which 11 are active in Research & Development. The new offices are located near the city of Leuven, while the company`s own GMP cell expansion facilities are located in the premises of the nearby Leuven University hospital center.

To date, TiGenix has been financed through seed capital, in a round led by Gemma Frisius Fund, and through technology grants from the Flemish government. To finance its further development and expansion strategy, the company is currently raising additional equity capital through a private placement.

Media Contact

Patrick Valkenberg alphagalileo

Alle Nachrichten aus der Kategorie: Health and Medicine

This subject area encompasses research and studies in the field of human medicine.

Among the wide-ranging list of topics covered here are anesthesiology, anatomy, surgery, human genetics, hygiene and environmental medicine, internal medicine, neurology, pharmacology, physiology, urology and dental medicine.

Zurück zur Startseite

Kommentare (0)

Schreib Kommentar

Neueste Beiträge

Cyanobacteria: Small Candidates …

… as Great Hopes for Medicine and Biotechnology In the coming years, scientists at the Chair of Technical Biochemistry at TU Dresden will work on the genomic investigation of previously…

Do the twist: Making two-dimensional quantum materials using curved surfaces

Scientists at the University of Wisconsin-Madison have discovered a way to control the growth of twisting, microscopic spirals of materials just one atom thick. The continuously twisting stacks of two-dimensional…

Big-hearted corvids

Social life as a driving factor of birds’ generosity. Ravens, crows, magpies and their relatives are known for their exceptional intelligence, which allows them to solve complex problems, use tools…

By continuing to use the site, you agree to the use of cookies. more information

The cookie settings on this website are set to "allow cookies" to give you the best browsing experience possible. If you continue to use this website without changing your cookie settings or you click "Accept" below then you are consenting to this.

Close