Presented on November 19, 2012 from 2 – 3:00 pm in Marcus Nanotechnology Conference room 1116.Runtime: 61:30 minutes.Directed locomotion requires coordinated motor activity throughout an animal’s body. The nematode C. elegans, with only 302 neurons, offers an opportunity to understand how locomotion is organized by an entire motor system. We discovered that the mechanism that organizes undulatory locomotion in C. elegans is a novel form of sensory feedback within the motor circuit. Stretch-sensory feedback simply compels each body segment to bend in the same direction and shortly after the bending of the adjacent anterior segment. Remarkably, the entire sensorimotor loop operates is contained within a single (particularly sophisticated) ty...
Animals must integrate sensory cues with their current behavioral context to generate a suitable res...
SummaryC. elegans is widely used to dissect how neural circuits and genes generate behavior. During ...
Understanding the neuronal control of movement has been a central goal of neuroscience for decades. ...
The ability of an animal to locomote through its environment depends crucially on the interplay betw...
Although undulatory swimming is observed in many organisms, the neuromuscular basis for undulatory m...
Neural circuits coordinate with muscles and sensory feedback to generate motor behaviors appropriate...
Understanding the neural circuits and genes that underlie behavior is a fundamental question in the ...
The nematode Caenorhabditis elegans is commonly used as a genetic model organism for dissecting inte...
With 302 neurons and a near-complete reconstruction of the neural and muscle anatomy at the cellular...
Locomotion requires coordinated motor activity throughout an animal@s body. In both vertebrates and ...
One of the fundamental problems in neuroscience is how behavior is generated from sensory input and ...
To establish the relationship between locomotory behavior and dynamics of neural circuits in the nem...
The simple undulatory gait of the small nematode worm Caenorhabditis elegans, along with its well ch...
AbstractThe model organism Caenorhabditis elegans shows two distinct locomotion patterns in laborato...
Locomotion circuits developed in simple animals, and circuit motifs further evolved in higher animal...
Animals must integrate sensory cues with their current behavioral context to generate a suitable res...
SummaryC. elegans is widely used to dissect how neural circuits and genes generate behavior. During ...
Understanding the neuronal control of movement has been a central goal of neuroscience for decades. ...
The ability of an animal to locomote through its environment depends crucially on the interplay betw...
Although undulatory swimming is observed in many organisms, the neuromuscular basis for undulatory m...
Neural circuits coordinate with muscles and sensory feedback to generate motor behaviors appropriate...
Understanding the neural circuits and genes that underlie behavior is a fundamental question in the ...
The nematode Caenorhabditis elegans is commonly used as a genetic model organism for dissecting inte...
With 302 neurons and a near-complete reconstruction of the neural and muscle anatomy at the cellular...
Locomotion requires coordinated motor activity throughout an animal@s body. In both vertebrates and ...
One of the fundamental problems in neuroscience is how behavior is generated from sensory input and ...
To establish the relationship between locomotory behavior and dynamics of neural circuits in the nem...
The simple undulatory gait of the small nematode worm Caenorhabditis elegans, along with its well ch...
AbstractThe model organism Caenorhabditis elegans shows two distinct locomotion patterns in laborato...
Locomotion circuits developed in simple animals, and circuit motifs further evolved in higher animal...
Animals must integrate sensory cues with their current behavioral context to generate a suitable res...
SummaryC. elegans is widely used to dissect how neural circuits and genes generate behavior. During ...
Understanding the neuronal control of movement has been a central goal of neuroscience for decades. ...