Research · Kamei Lab at NYU Abu Dhabi

Rebuilding biology,
understanding life.

How do cells become tissues? How do organs communicate? How can a medicine reach the place where it is needed? We bring together stem-cell biology, engineering, materials, and computation to investigate these questions.

Our research directions

Six ways into the questions

Start with a topic that interests you. Each page explains the ideas, methods, and published examples—no specialist background needed.

Conceptual illustration of organs linked by fluid pathways in a microfluidic chip

Connected tissues · Human physiology

Body-on-a-chip

What happens in one organ can affect another. We build small, connected tissue models to study these interactions outside the body.

Conceptual illustration of cells changing and organizing toward liver tissue

Stem cells · Development · Engineered environments

Artificial cell environments

Cells respond to their surroundings. We study how the right signals, surfaces, and three-dimensional spaces help them grow and become different tissue types.

False-colored microscopy image of a cell on a fine-fiber culture surface

Materials · Cell culture · Regeneration

Nanomaterials for regenerative medicine

Cells need a place to grow. We design fine-fiber materials that help us understand—and improve—the surfaces used to culture stem cells.

Conceptual illustration of gaseous signaling and engineered biological systems

Small molecules · Cell signals · Light-controlled materials

Gas biology

Some gases are messages between cells. We study ways to control where and when these short-lived signals reach living cells.

Conceptual illustration connecting endangered wildlife conservation with cell-based research

Conservation · Stem cells · Comparative biology

Bioengineering for endangered animals

Can studying an animal's cells help protect its future? We explore stem-cell tools that complement conservation and help us understand differences between species.

Conceptual illustration of nanoscale carriers approaching a tumor tissue environment

Nanomedicine · Biological barriers · Disease models

Nano drug delivery

A medicine must reach the right place to work. We investigate tiny delivery systems—and better models for testing how they behave in biological environments.

Reverse bioengineering

To understand living systems, we rebuild selected functions in the laboratory. Cells and engineered environments become tools for testing ideas—not exact copies of a whole human or animal. Our long-term motivation is to contribute to drug discovery, regenerative medicine, and animal health.

Published studies show what has been demonstrated. Perspectives and reviews explain design ideas, evidence, and open questions. We keep these different kinds of work clearly identified.