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- Interrogate intrinsic membrane mechanisms that underlie the input/output function of neurons
- Linear and non-linear subthreshold properties
- Action potential initiation and propagation
- Afterhyperpolarization/afterdepolarization
- Understand aspects of neural response properties in vivo
- Stimulation frequency dependence (theta vs. gamma) of spike initiation mechanisms
- Ion channel states due to different resting potentials in vivo
- Construct and test computational models of varying complexity emulating the neural response to stereotyped stimuli
- Generalized leaky-integrate-and-fire (GLIF) models
- Biophysically and morphologically realistic conductance-based compartmental models
A1 1a | A2 1b | A3 1c | B1 2a | B2 2b | C1 3a | C2 3b | |
Ramp | X | X |
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Long Square | X | X |
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Short Square |
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Short Square - Hold |
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Short Square - Triple | |||||||
Noise (1 & 2) |
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Ramp to Rheobase | X | X | |||||
Square Suprathreshold | X | X | |||||
Square Subthreshold | X | X |
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