Researcher moves closer to 'cell' control

December 11, 2012 by Arthur Davies, University of Cincinnati
Credit: Katie Hageman

UC College of Engineering and Applied Science chemical and materials engineering associate professor, Chia-Chi Ho, announces ability to sort and steer cells, opening doors to a potential future of steering disease and cancer related cells into diagnostic and treatment solutions.

Can you imagine the day when we will no longer have to worry about for the simple fact that we will be able to grow functioning tissues and organs in a culture dish? Thanks to Chia-Chi Ho and her colleagues at the University of Cincinnati's College of Engineering and , this we are one step closer to making this vision a reality.

Ho is a chemical and associate professor in the School of Energy, Environmental, Biological and , working with nanotechnology to advance our understanding and control of . Cells within the human body are structural and functional units which migrate during many processes, such as wound healing, immune response and the formation and spreading of cancer (called cancer metastasis).
 
Last year, Ho and her colleagues indicated that they could guide cell migration through the use of microarrays. Microarrays are a laboratory tool, also referred to as , which allows the researchers to interact with living cells. Ho explains, "We can use microarrays to amplify the natural direction of cells and guide their continuous migration along preset paths and directions."
 
Building upon this discovery, Ho and her team recently discovered a new method to simply and inexpensively sort cells in a culture dish. Out of curiosity, Ho stamped a using an adhesive substance onto culture dishes and seeded them with a mixture of two different types of cells. The two cells had varying preset cell movement in their enzymes and as expected, after 72 hours, the two groups of cells separated from each other on the dish.
 
The technology of steering and sorting will play a large role in the future of and wound healing. This discovery may lead to diagnostic tools and further down the road, tissue engineering to grow body tissue and/or organs that are functional for transplants. For now, Ho intends to work with their current revelations, to continue efforts to sort disease and cancer related cells. She states, "We already have one patent pending from our research findings and we hope to move to commercialization."

Ho and her colleagues recent findings were released in an article titled "Sorting Cells in Dishes" in the science magazine, Chemical & Engineering News (C&EN). Ho has been teaching and conducting research at UC for more than ten years and has received a number of awards for teaching and mentoring students. Her research has garnered more than $3 million in funding.
 
In September 2011, Ho was the recipient of a Fulbright Scholar Award. Unfortunately, her teaching schedule precluded her from traveling to the University of British Columbia during the 2012 spring and summer quarters to work with Terrence Snutch in the Michael Smith Laboratory. She had planned to work with him and his team in research related to nanoscale technology and neuronal networks.

Explore further: Targeted cancer therapy kills prostate tumor cells

More information: cen.acs.org/articles/90/web/20 … ng-Cells-Dishes.html

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