Keiko Tarquinio, Assistant Professor of Pediatrics, from Professor Tom Webster's biomedical engineering lab group just received the 2010 Citation Award from the Society for Critical Care last week in Miami out of over 1100 presentations at the Society for Critical Care Medicine's 39th Critical Care Congress. This was for the presentation "Inhibition of Pseudomonas Aeruginosa Growth on Chemically Etched Polyvinyl Chloride Endotracheal Tubes: An in vitro Model" (authors: Keiko Tarquinio, Nathan Rubien, and Thomas Webster) funded from the RI STAC fund. The purpose of the work is to limit infection of endotracheal tubes.
Showing posts with label bio. Show all posts
Showing posts with label bio. Show all posts
Tuesday, 19 January 2010
Keiko Tarquinio, Assistant Professor of Pediatrics, from Professor Tom Webster's biomedical engineering lab group just received the 2010 Citation Award from the Society for Critical Care last week in Miami out of over 1100 presentations at the Society for Critical Care Medicine's 39th Critical Care Congress. This was for the presentation "Inhibition of Pseudomonas Aeruginosa Growth on Chemically Etched Polyvinyl Chloride Endotracheal Tubes: An in vitro Model" (authors: Keiko Tarquinio, Nathan Rubien, and Thomas Webster) funded from the RI STAC fund. The purpose of the work is to limit infection of endotracheal tubes.Monday, 21 December 2009
Our cells are more like us than we may think. They’re sensitive to their environment, poking and prodding deliberately at their surroundings with hand-like feelers and chemical signals as they decide whether and where to move. Such caution serves us well but has vexed engineers who seek to create synthetic tissue, heart valves, implants and other devices that the human body will accept.
To overcome that obstacle, scientists have sought to learn more about how cells explore what’s around them. While numerous studies have looked at cellular movement in two dimensions and a few recent experiments involved cellular motion in three dimensions, scientists remained unsure just how much cells interacted with their surroundings. Now, a study involving Brown University and the California Institute of Technology has recorded for the first time how cells move in three dimensions by measuring the force exerted by cells on their environs. The research gives scientists their most complete assessment to date about how cells move.
To read more of the release, click here. Also, posted here.
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