All cells generate an electrical potential across their membranes through the unequal distribution of ions. Changes in voltage potentials in non-excitable cells act as key regulators of pattern formation during embryogenesis through integration with the biochemical signaling and genetic hardwiring of an organism. Alteration of these signals leads to incorrect cell fate decisions, ectopic structure formation and overall body mispatterning. Here we review the important advances in bioelectricity as it relates to embryonic development across multiple organism
The formation of functional organs and tissues during embryonic development is a complex process inv...
Ion channels are proteins expressed in the plasma membrane of electrogenic cells. In the zygote and ...
Cellular bioelectricity describes the biological phenomenon in which cells in living tissue generate...
Different non-excitable cells have been found to have different resting membrane potentials. Changes...
Bioelectrics, or the different membrane potentials that exist across a tissue and whole organism, is...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Patterns of resting potential in non-excitable cells of living tissue are now known to be instructiv...
The last five decades of molecular and systems biology research have provided unprecedented insights...
A central issue in developmental biology is how a complex organism arises from a single cell. In bot...
Embryonic development involves gene networks, extracellular signaling, cell behaviors (cell division...
Abstract Explaining embryonic development of multicellular organisms requires insight into complex i...
Directed cell migration is essential in both physiological and pathological situations. Many guidanc...
Fertilization is the first step of a new life, and it occurs only if the sperm could succeed to fuse...
We discuss emerging views on the complexity of signals controlling the onset of biological shapes an...
Since their discovery more than 30 years ago, embryonic stem (ES) cells have been propelled from rel...
The formation of functional organs and tissues during embryonic development is a complex process inv...
Ion channels are proteins expressed in the plasma membrane of electrogenic cells. In the zygote and ...
Cellular bioelectricity describes the biological phenomenon in which cells in living tissue generate...
Different non-excitable cells have been found to have different resting membrane potentials. Changes...
Bioelectrics, or the different membrane potentials that exist across a tissue and whole organism, is...
Cells undergo a variety of physiological processes, including division, migration and differentiatio...
Patterns of resting potential in non-excitable cells of living tissue are now known to be instructiv...
The last five decades of molecular and systems biology research have provided unprecedented insights...
A central issue in developmental biology is how a complex organism arises from a single cell. In bot...
Embryonic development involves gene networks, extracellular signaling, cell behaviors (cell division...
Abstract Explaining embryonic development of multicellular organisms requires insight into complex i...
Directed cell migration is essential in both physiological and pathological situations. Many guidanc...
Fertilization is the first step of a new life, and it occurs only if the sperm could succeed to fuse...
We discuss emerging views on the complexity of signals controlling the onset of biological shapes an...
Since their discovery more than 30 years ago, embryonic stem (ES) cells have been propelled from rel...
The formation of functional organs and tissues during embryonic development is a complex process inv...
Ion channels are proteins expressed in the plasma membrane of electrogenic cells. In the zygote and ...
Cellular bioelectricity describes the biological phenomenon in which cells in living tissue generate...