Crayfish escape behavior: production of tailflips without giant fiber activity
AP Kramer, FB Krasne - Journal of neurophysiology, 1984 - journals.physiology.org
The giant interneurons of the crayfish nerve cord are well-known mediators of fast tail
flexions," tailflips," that propel animals through the water away from danger. More recent …
flexions," tailflips," that propel animals through the water away from danger. More recent …
Segmental giant: evidence for a driver neuron interposed between command and motor neurons in the crayfish escape system
A Roberts, FB Krasne, G Hagiwara… - Journal of …, 1982 - journals.physiology.org
1. The giant command neurons for tailflip escape behavior in crayfish have been thought to
excite the nongiant fast flexor (tailflip producing) motor neurons (FFs) via monosynaptic …
excite the nongiant fast flexor (tailflip producing) motor neurons (FFs) via monosynaptic …
Interneurons between giant axons and motoneurons in crayfish escape circuitry
1. Crayfish giant fibers are generally believed to generate tailflip movements by means of
direct connections to two classes of phasic flexor muscle motoneurons, the motor giants …
direct connections to two classes of phasic flexor muscle motoneurons, the motor giants …
The production of crayfish tailflip escape responses
FB Krasne, JJ Wine - Neural mechanisms of startle behavior, 1984 - Springer
Crayfish escape from potentially serious threats to life and limb by means of powerful
flexions of their abdomens, which thrust the animal through the water away from danger …
flexions of their abdomens, which thrust the animal through the water away from danger …
Extrinsic modulation of crayfish escape behaviour
FB Krasne, JJ Wine - Journal of Experimental Biology, 1975 - journals.biologists.com
Extrinsic systems were shown to control the excitability of the neurones which mediate tail-
flip escape in the crayfish. Restraint suppresses the escape mediated by giant fibres and …
flip escape in the crayfish. Restraint suppresses the escape mediated by giant fibres and …
[引用][C] Crayfish escape behavior: Neurobehavioral analysis of phasic extension reveals dual systems for motor control
H Reichert, JJ Wine, G Hagiwara - Journal of Comparative Physiology, 1981 - Springer
Electromyograms (EMGs) from phasic abdominal muscles of unrestrained and variously
restrained crayfish were used to study the involvement of sensory information in phasic …
restrained crayfish were used to study the involvement of sensory information in phasic …
Further studies of crayfish escape behaviour: I. The role of the appendages and the stereotyped nature of non-giant escape swimming
IRC Cooke, DL Macmillan - Journal of experimental biology, 1985 - journals.biologists.com
High-speed cinematography of the escape behaviour of freelymoving crayfish showed that
the thoracic and abdominal appendages exhibit stereotyped movements in giant axon …
the thoracic and abdominal appendages exhibit stereotyped movements in giant axon …
Postsynaptic inhibition of crayfish tonic flexor motor neurones by escape commands
JY Kuwada, G Hagiwara… - Journal of Experimental …, 1980 - journals.biologists.com
The crayfish abdomen contains separate slow and fast neuromuscular systems that mediate
posture and escape tailflips. It was recently demonstrated that impulses in the medial and …
posture and escape tailflips. It was recently demonstrated that impulses in the medial and …
Segmental differences in pathways between crayfish giant axons and fast flexor motoneurons
LA Miller, G Hagiwara, JJ Wine - Journal of …, 1985 - journals.physiology.org
We have used electrophysiological techniques to document segmental differences in the
pathways between the giant, escape command axons, lateral giants (LG) and medial giants …
pathways between the giant, escape command axons, lateral giants (LG) and medial giants …
Temporal organization of crayfish escape behavior: delayed recruitment of peripheral inhibition
JJ Wine, DC Mistick - Journal of Neurophysiology, 1977 - journals.physiology.org
Many behaviors are remarkable for the orderly sequencing, precise timing, and appropriate
strength of their constituent units. In certain invertebrates, the neural circuitry that participates …
strength of their constituent units. In certain invertebrates, the neural circuitry that participates …