Researchers at the Navy Experimental Diving Unit (NEDU) have designed, built and validated a novel hyperbaric environment to study cellular behavior at greater depths. The joint ONR-NEDU effort is designed to explore advances to protect Navy divers working at depths of up to 1,000 feet.
"This is a huge leap forward in our ability to understand cellular function at pressurized depths," said Cmdr. Matthew Swiergosz, ONR's undersea medicine program officer. "This capability will bridge a gap in our understanding of identifying potential applications for diving operations."
Using a laboratory technique called patch clamping, in which electrodes are attached to a cell membrane and clamped, scientists can now monitor, stimulate and record the cell's electrical activity in a pressurized environment.
Few studies have been performed to address the underlying molecular mechanisms of diving disorders such as decompression sickness.
In addition to providing future payoff for the Navy, the patch clamping method could also bring benefit to those in the commercial diving community, who are vulnerable to the same hazardous conditions associated with difficult underwater work.
In 2008, ONR began sponsoring the work of principal investigator Lt. Denis Colomb Jr., NEDU, and partners including the University of South Florida, Université Laval, Arehart Model Makers LLC and other NEDU personnel.
The ONR Undersea Medicine Program is a National Naval Responsibility, a science and technology research area the Department of the Navy has deemed critically important to maintaining naval superiority.
Peter Vietti | EurekAlert!
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