Article: Ca2+-dependent and Na+-dependent K+ conductances contribute to a slow AHP in thalamic paraventricular nucleus neurons: a novel target for orexin receptors.

Full Text (publisher's website) ; Article Metadata ; Article Data (extracted)
Zhang L; Kolaj M; Renaud LP
J. Neurophysiol., 2010

Inferred neuron-electrophysiology data values

Neuron Type	Neuron Description	Ephys Prop	Extracted Value	Standardized Value	Content Source
Other	Thalamus Higher-Order lateral posterior nucleus neuron	input resistance (MΩ)	345.0 ± 112.0 (9)	345.0 (MΩ)	Data Table
Other	Thalamus first-Order dorsal lateral geniculate nucleus neuron	input resistance (MΩ)	342.0 ± 96.0 (12)	342.0 (MΩ)	Data Table
Other	Thalamus Midline mediodorsal nucleus neuron	input resistance (MΩ)	277.0 ± 105.0 (19)	277.0 (MΩ)	Data Table
Other	Intralaminar thalamic centrolateral nucleus neuron	input resistance (MΩ)	386.0 ± 124.0 (29)	386.0 (MΩ)	Data Table
Other	Thalamus Higher-Order Lateral Posterior Nucleus neuron	input resistance (MΩ)	242.0 ± 65.0 (8)	242.0 (MΩ)	Data Table
Other	Thalamus first-Order dorsal lateral geniculate nucleus neuron	input resistance (MΩ)	262.0 ± 70.0 (4)	262.0 (MΩ)	Data Table
Other	Thalamus Higher-Order posterior thalamic nucleus neuron	input resistance (MΩ)	212.0 ± 55.0 (11)	212.0 (MΩ)	Data Table
Other	Thalamus Higher-Order lateral posterior nucleus neuron	resting membrane potential (mV)	-71.0 ± 3.0 (9)	-71.0 (mV)	Data Table
Other	Thalamus first-Order dorsal lateral geniculate nucleus neuron	resting membrane potential (mV)	-68.3 ± 4.1 (12)	-68.3 (mV)	Data Table
Other	Thalamus Midline mediodorsal nucleus neuron	resting membrane potential (mV)	-69.5 ± 3.3 (19)	-69.5 (mV)	Data Table
Other	Intralaminar thalamic centrolateral nucleus neuron	resting membrane potential (mV)	-69.5 ± 4.0 (29)	-69.5 (mV)	Data Table
Other	Thalamus Higher-Order Lateral Posterior Nucleus neuron	resting membrane potential (mV)	-73.0 ± 5.0 (8)	-73.0 (mV)	Data Table
Other	Thalamus first-Order dorsal lateral geniculate nucleus neuron	resting membrane potential (mV)	-68.2 ± 2.7 (4)	-68.2 (mV)	Data Table
Other	Thalamus Higher-Order posterior thalamic nucleus neuron	resting membrane potential (mV)	-72.0 ± 2.0 (13)	-72.0 (mV)	Data Table
Thalamic reticular nucleus cell		input resistance (MΩ)	341.0 ± 214.0 (21)	341.0 (MΩ)	Data Table
Thalamic reticular nucleus cell		resting membrane potential (mV)	-65.8 ± 8.4 (26)	-65.8 (mV)	Data Table
Thalamus parafascicular nucleus neuron		input resistance (MΩ)	589.0 ± 207.0 (22)	589.0 (MΩ)	Data Table
Thalamus parafascicular nucleus neuron		resting membrane potential (mV)	-66.7 ± 5.2 (22)	-66.7 (mV)	Data Table
Thalamic reticular nucleus cell		input resistance	341.0 ± 214.0	341.0 (MΩ)	User Submission ()
Thalamic reticular nucleus cell		resting membrane potential	-65.8 ± 8.4	-65.8 (mV)	User Submission ()
Thalamus parafascicular nucleus neuron		input resistance	589.0 ± 207.0	589.0 (MΩ)	User Submission ()
Thalamus parafascicular nucleus neuron		resting membrane potential	-66.7 ± 5.2	-66.7 (mV)	User Submission ()
Thalamus relay cell		input resistance	342.0 ± 96.0	342.0 (MΩ)	User Submission ()
Thalamus relay cell		resting membrane potential	-68.3 ± 4.1	-68.3 (mV)	User Submission ()

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Metadata values

Experimental condition	Value
RecTemp	23.0 - 25.0
AnimalAge	21.0 - 35.0
Strain	Wistar
PrepType	in vitro
ElectrodeType	Patch-clamp
Species	Rats
InternalSolution	5.0
ExternalSolution	5.0
JxnPotential	Corrected
JxnOffset	-15.0
internal_0_pH	7.3
internal_0_Mg	4.0
internal_0_Na	8.4
internal_0_K	140.0
internal_0_GTP	0.4
internal_0_ATP	2.0
internal_0_HEPES	10.0
internal_0_Cl	12.0
external_0_pH	7.3
external_0_Mg	1.3
external_0_Na	153.0
external_0_K	3.1
external_0_Cl	137.5
external_0_Ca	2.4
external_0_glucose	10.0

Data table listing

Data Table	Article Title	Authors	Journal	Year	Table needs expert?	Ephys table mentions	Curated by	Times validated
22117	Ca2+-dependent and Na+-dependent K+ conductances contribute to a slow AHP in thalamic paraventricular nucleus neurons: a novel target for orexin receptors.	Zhang L; Kolaj M; Renaud LP	J. Neurophysiol.	2010	False	2	James liu, Athanasios Kritharis,	1
22118	Ca2+-dependent and Na+-dependent K+ conductances contribute to a slow AHP in thalamic paraventricular nucleus neurons: a novel target for orexin receptors.	Zhang L; Kolaj M; Renaud LP	J. Neurophysiol.	2010	False	0		None