Electrical phenomena have been studied in biology for nearly two centuries. Only recently, however, thanks to co-operation between biochemists, electrochemists and electronic engineers, have we begun to understand in any detail some of the many ways in which electronic and ionic charges are transferred and distributed in biological systems. Many of the essential processes that sustain life - energy conservation reactions, enzyme catalysis, biological communication systems, ion transport and osmotic effects rely on gross or ... Read More
Electrical phenomena have been studied in biology for nearly two centuries. Only recently, however, thanks to co-operation between biochemists, electrochemists and electronic engineers, have we begun to understand in any detail some of the many ways in which electronic and ionic charges are transferred and distributed in biological systems. Many of the essential processes that sustain life - energy conservation reactions, enzyme catalysis, biological communication systems, ion transport and osmotic effects rely on gross or subtle changes in charge configuration on and around biological molecules. Read Less
