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Living heart valve and small-diameter artery substitutes--an emerging field for intellectual property development
Anita Mol1, Mirjam P Rubbens, Maria Stekelenburg
1Department of Biomedical Engineering, Eindhoven University of Technology, PO Box 513, 5600 MB Eindhoven, The Netherlands. a.mol@tue.nl
Abstract:
Cardiovascular diseases, such as heart valve dysfunction and coronary artery stenosis, are next to cancer the leading cause of death in the US. Treatments involve replacement of the heart valve or bypassing the obstructed coronary artery with a small-diameter vascular graft. The major limitation of currently used replacements is their inability to grow, adapt and repair in the patient. Considering the increasing age of the population and the subsequent increase in cardiovascular disease incidence, efforts to improve existing replacements and unraveling novel types of replacements are of paramount importance. Cardiovascular tissue engineering represents a rapid evolving field of research, providing living heart valve and small-diameter vascular substitutes with the ability to grow, adapt and repair after implantation. Various tissue engineering approaches are being employed, based on in vivo and/or in vitro tissue formation. This review provides an overview of the current heart valve and small-diameter vascular replacements and presents the status and future developments within the various tissue engineering approaches. The potential of tissue engineering for the development of living heart valve and small-diameter vascular substitutes is reflected in the numerous patents related to this emerging field of research.
Insights
Cardiovascular tissue engineering offers promising living replacements for heart valves and blood vessels, addressing limitations of current devices. This field is rapidly advancing, with numerous patents reflecting its potential for regenerative medicine.
Area of Science:
- Biomedical Engineering
- Regenerative Medicine
- Cardiovascular Research
Background:
- Cardiovascular diseases are a leading cause of death in the US, necessitating improved treatments like heart valve replacement and vascular grafts.
- Current artificial replacements lack the ability to grow, adapt, and repair within the patient, limiting their long-term efficacy.
- The aging population and rising incidence of cardiovascular disease underscore the urgent need for advanced therapeutic solutions.
Purpose of the Study:
- To provide an overview of current heart valve and small-diameter vascular replacements.
- To present the status and future developments in cardiovascular tissue engineering approaches.
- To highlight the potential of tissue engineering for developing living cardiovascular substitutes.
Main Methods:
- Review of existing literature on cardiovascular tissue engineering.
- Analysis of current heart valve and small-diameter vascular replacement strategies.
- Examination of in vivo and in vitro tissue formation techniques.
Main Results:
- Cardiovascular tissue engineering is an evolving field focused on creating living substitutes.
- These engineered tissues offer the potential to grow, adapt, and repair post-implantation.
- Numerous patents indicate significant research and development in this area.
Conclusions:
- Tissue engineering holds substantial promise for developing next-generation heart valve and vascular grafts.
- These living substitutes could overcome the limitations of current artificial implants.
- Continued research and innovation in cardiovascular tissue engineering are crucial for clinical translation.
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