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Epithelial Cell Repopulation and Preparation of Rodent Extracellular Matrix Scaffolds for Renal Tissue Development
Published on: August 10, 2015
Effective and new technologies in kidney tissue engineering
Hossein Rayat Pisheh1,2, Mobin Haghdel1, Mahboube Jahangir1,2
1Department of Tissue Engineering and Applied Cell Sciences, School of Advanced Medical Sciences and Technologies, Shiraz University of Medical Sciences, Shiraz, Iran.
Abstract:
Kidney disease encompasses a wide spectrum of conditions, ranging from simple infections to chronic kidney disease. When the kidneys are unable to filter blood and remove waste products, these abnormalities can lead to kidney failure. In severe cases of kidney failure, kidney transplantation is considered the only definitive treatment. Worldwide, the World Health Organization (WHO) repeatedly emphasizes the importance of organ donation and increasing transplantation rates. Many countries implement national programs to promote the culture of organ donation and improve patient access to kidney transplantation. The extent to which this procedure is performed varies across countries and is influenced by several factors, including the volume of organ donation, medical infrastructure, access to technology and health policies. However, a kidney transplant comes with challenges and problems that impact its success. Kidney tissue engineering is a new approach that shows promise for repairing and replacing damaged kidney tissue. This article reviews recent advances in kidney tissue engineering, focusing on engineered structures such as hydrogels, electrospinning, 3D bioprinting, and microfluidic systems. By mimicking the extracellular environment of the kidney, these structures provide suitable conditions for the growth and development of kidney cells. The role of these structures in the formation of blood vessels, the mimicry of kidney functions and the challenges in this field were also discussed. The results of this study show that kidney tissue engineering has high potential for treating kidney diseases and reducing the need for kidney transplantation. However, to achieve clinical application of this technology, further research is required to improve the biocompatibility, vascularization and long-term performance of engineered tissues.
Insights
Kidney tissue engineering offers a promising alternative to transplantation for kidney disease. Advances in engineered structures show potential for repairing damaged kidney tissue, reducing the need for transplants.
Area of Science:
- Regenerative Medicine
- Biotechnology
- Nephrology
Background:
- Kidney disease spectrum ranges from infections to chronic kidney disease, potentially leading to kidney failure.
- Kidney transplantation is the definitive treatment for severe kidney failure, but faces challenges and limited availability.
- Organ donation initiatives aim to increase transplantation rates, yet procedural success varies globally.
Purpose of the Study:
- To review recent advances in kidney tissue engineering as a potential therapeutic approach.
- To explore engineered structures that mimic the kidney's extracellular environment for cell growth.
- To discuss the role of these structures in vascularization, function mimicry, and current challenges.
Main Methods:
- Review of recent advances in kidney tissue engineering technologies.
- Focus on engineered structures: hydrogels, electrospinning, 3D bioprinting, and microfluidic systems.
- Analysis of how these structures mimic the kidney extracellular environment and support cell development.
Main Results:
- Engineered kidney structures show promise in mimicking the kidney's extracellular environment.
- These structures facilitate kidney cell growth, vascularization, and functional mimicry.
- Kidney tissue engineering demonstrates high potential for treating kidney diseases and reducing transplant dependency.
Conclusions:
- Kidney tissue engineering presents a significant potential for treating kidney diseases and decreasing reliance on transplantation.
- Further research is essential to enhance biocompatibility, vascularization, and long-term performance for clinical application.
- This field offers a promising avenue for regenerative medicine in nephrology.

