This chapter presents an overview of electric conduction in living cells when viewed as a composition of bioelectric circuits. We review the cell's components that are known to exhibit electric conduction properties and represent them as parts of a complex circuitry. In particular, we discuss conductivity of the membrane, ion channels, actin filaments, DNA, and microtubules, each of which play important roles in the biological functioning of the cell. A new picture emerges where electrical conduction within the cell is taking place in an integrated fashion and may explain synchronization and orchestration of the cell dynamics
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...
This chapter presents an overview of electric conduction in living cells when viewed as a compositio...
The last five decades of molecular and systems biology research have provided unprecedented insights...
The field of electrophysiology explores the mechanisms of electrical signal generation and propagati...
The last five decades of molecular and systems biology research have provided unprecedented insights...
The last five decades of molecular and systems biology research have provided unprecedented insights...
Living cells contain a whole set of intracellular information networks, including signal transductio...
Abstract: The use of electric field stimulation to elicit a desired cell/tissue response has become ...
nomena associated with the physiological pro-cesses of growth, stimulation, injury, recovery and dea...
AbstractCellular mechanics is known to play an important role in the cell homeostasis including prol...
Directing differential cellular response by manipulating the physical characteristics of the materia...
Living cells exploit the electrical properties of matter for a multitude of fundamental physiologica...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...
This chapter presents an overview of electric conduction in living cells when viewed as a compositio...
The last five decades of molecular and systems biology research have provided unprecedented insights...
The field of electrophysiology explores the mechanisms of electrical signal generation and propagati...
The last five decades of molecular and systems biology research have provided unprecedented insights...
The last five decades of molecular and systems biology research have provided unprecedented insights...
Living cells contain a whole set of intracellular information networks, including signal transductio...
Abstract: The use of electric field stimulation to elicit a desired cell/tissue response has become ...
nomena associated with the physiological pro-cesses of growth, stimulation, injury, recovery and dea...
AbstractCellular mechanics is known to play an important role in the cell homeostasis including prol...
Directing differential cellular response by manipulating the physical characteristics of the materia...
Living cells exploit the electrical properties of matter for a multitude of fundamental physiologica...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Bioelectrical signals and ion channels are central to spatial patterns in cell ensembles, a problem ...