Systems Bioengineering Laboratory

Advancing Precision Medicine through Biomedical Engineering

Explore Our Work
Systems Bioengineering Laboratory

Studying the complexities of the Human Body

At the Systems Bioengineering Lab, we study the human body as a sophisticated electromechanical system. Despite extensive research over millennia, our understanding of its complex biological systems remains incomplete. Our lab employs multidisciplinary approaches to elucidate the mechanisms of human physiology and pathology.

We integrate engineering principles with biomedical sciences to develop innovative therapeutic strategies for complex diseases such as diabetic nephropathy and heart failure. Our research methodologies encompass stem cell-based tissue engineering and machine learning-driven computational modeling. These advanced techniques aim to create next-generation research tools while minimizing reliance on animal models.

We are a diverse team of engineers, nephrologists, cell biologists, and biochemists. As such, research in the Systems Bioengineering Lab is exceptionally multidisciplinary, covering a range of projects from basic cell biology to biomedical informatics and many areas in between. We are also deeply committed to mentorship, fostering the next generation of scientists and engineers through hands-on training and guidance. Our research projects have been continuously funded through multiple grants from the National Institutes of Health, Department of the Army, American Society of Nephrology, as well as other private and industry sources. These projects fall under one of the following two major research themes.

Research Spotlight

Systems Mechanobiology

Projects under this theme are often basic science oriented, focusing on understanding the fundamental cell biological principles governing the interaction of physical forces and biochemical processes. We are specifically interested in proteins that form the focal adhesion complex and actin-associated proteins that shape the mechanobiological information processing capacity of the cell. In addition to playing critical structural roles, these crosslinking and adapter proteins modulate mechanotransduction through spatial segregation of signaling proteins. We use multiomics to identify key functional proteins within the cytoskeleton, primary cilia, the adhesome or the kinome, and utilize classical cell biological as well as bioengineering methods to characterize the complex role they play in pathophysiology.

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01/02
Research Spotlight

Precision Therapeutics

Projects under this theme are translational, focusing on design and development of novel therapeutics, instrumentation and implantable devices. Leveraging our systems-level studies of disease progression, we identify new drug targets and design novel therapeutics that are often based on mechanobiological principles. In addition to designing new small molecules, we investigate the potential cardiotoxic or nephrotoxic impact of existing targeted therapeutics. We build stem cell-based organ- or organoid-on-chip platforms using microfluidic technologies and additive manufacturing for precision medicine and drug discovery.

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02/02

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Funding

If you would like to support our translational program searching for the next generation therapeutics, you can donate by clicking on this link and specifying “Azeloglu Lab, Division of Nephrology” under other.