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Updated: Apr 21, 2026

Analysis of Nephron Composition and Function in the Adult Zebrafish Kidney
Published on: August 9, 2014
Kidney regeneration: Where we are and future perspectives
Joao Paulo Zambon1, Renata S Magalhaes1, Inkap Ko1
1Joao Paulo Zambon, Renata S Magalhaes, Inkap Ko, Christina L Ross, Giuseppe Orlando, Andrea Peloso, Anthony Atala, James J Yoo, Wake Forest Institute for Regenerative Medicine, North Carolina, NC 27104, United States.
Abstract:
In 2012, about 16487 people received kidney transplants in the United States, whereas 95022 candidates were on the waiting list by the end of the year. Despite advances in renal transplant immunology, approximately 40% of recipients will die or lose graft within 10 years. The limitations of current therapies for renal failure have led researchers to explore the development of modalities that could improve, restore, or replace the renal function. The aim of this paper is to describe a reasonable approach for kidney regeneration and review the current literature regarding cell sources and mechanisms to develop a bioengineering kidney. Due to kidneys peculiar anatomy, extracellular matrix based scaffolds are rational starting point for their regeneration. The perfusion of detergents through the kidney vasculature is an efficient method for delivering decellularizing agents to cells and for removing of cellular material from the tissue. Many efforts have focused on the search of a reliable cell source to provide enrichment for achieving stable renal cell systems. For an efficient bioengineered kidney, these cells must be attached to the organ and then maturated into the bioractors, which simulates the human body environment. A functional bioengineered kidney is still a big challenge for scientists. In the last ten years we have got many improvements on the field of solid organ regeneration; however, we are still far away from the main target. Currently, regenerative centers worldwide have been striving to find feasible strategies to develop bioengineered kidneys. Cell-scaffold technology gives hope to end-stage renal disease patients who struggle with morbidity and mortality due to extended periods on dialysis or immunosupression. The potential of bioengineered organ is to provide a reliable source of organs, which can be refunctionalized and transplanted.
Insights
Developing a bioengineered kidney offers hope for end-stage renal disease patients. This approach uses cell-scaffold technology to regenerate kidney function, aiming to overcome limitations of current treatments and dialysis.
Area of Science:
- Regenerative Medicine
- Biomedical Engineering
- Nephrology
Background:
- High demand for kidney transplants and graft failure highlight limitations of current renal replacement therapies.
- Approximately 40% of kidney transplant recipients experience graft loss or mortality within 10 years.
- Developing alternative strategies to improve, restore, or replace renal function is critical for end-stage renal disease (ESRD) patients.
Purpose of the Study:
- To outline a strategic approach for kidney regeneration.
- To review current literature on cell sources and mechanisms for bioengineered kidney development.
- To explore the potential of cell-scaffold technology in creating functional bioengineered kidneys.
Main Methods:
- Utilizing extracellular matrix (ECM) based scaffolds, leveraging the kidney's unique anatomy.
- Employing detergent perfusion for kidney decellularization, removing cellular material while preserving ECM structure.
- Investigating reliable cell sources for seeding scaffolds and maturation in bioreactors simulating physiological conditions.
Main Results:
- Decellularization via detergent perfusion is an effective method for preparing kidney scaffolds.
- Identifying and culturing suitable cell sources are crucial for creating stable renal cell systems.
- Maturation of seeded cells within bioreactors is essential for developing functional bioengineered organs.
Conclusions:
- Bioengineered kidneys represent a promising future therapy for ESRD patients, potentially reducing reliance on dialysis and immunosuppression.
- While significant progress has been made in solid organ regeneration, achieving a fully functional bioengineered kidney remains a substantial scientific challenge.
- Cell-scaffold technology offers a viable path towards generating a reliable source of transplantable, refunctionalized organs.
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