Source 1review2021Pharmacology Biochemistry and Behavior
Toolkit/in vivo electrophysiology
in vivo electrophysiology
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
The supplied upstream summary states that the anchor PubMed abstract explicitly lists in vivo electrophysiology as a compatible tool for probing tolerance neurobiology.
Usefulness & Problems
Why this is useful
In vivo electrophysiology is described as a modern tool that can be combined with rapid alcohol tolerance models. In this review context, it serves as a physiological readout for mechanistic studies.; probing neurobiological mechanisms of rapid alcohol tolerance; adding physiological readouts to temporally defined tolerance models; In vivo electrophysiology was used as one of the complementary techniques that identified the APOE4-associated hyperactivity phenotype.; measuring neuronal activity-related phenotypes in aged APOE mice
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In vivo electrophysiology is described as a modern tool that can be combined with rapid alcohol tolerance models. In this review context, it serves as a physiological readout for mechanistic studies.
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probing neurobiological mechanisms of rapid alcohol tolerance
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adding physiological readouts to temporally defined tolerance models
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In vivo electrophysiology was used as one of the complementary techniques that identified the APOE4-associated hyperactivity phenotype.
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measuring neuronal activity-related phenotypes in aged APOE mice
Problem solved
It helps connect alcohol tolerance paradigms to direct neural activity measurements. The review presents it as part of a toolkit for in-depth neurobiological investigation.; provides physiological measurement capability within alcohol tolerance studies; It contributes an in vivo activity measurement modality within the study's multi-technique analysis.; provides an in vivo electrophysiological modality for identifying hyperactivity
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It helps connect alcohol tolerance paradigms to direct neural activity measurements. The review presents it as part of a toolkit for in-depth neurobiological investigation.
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provides physiological measurement capability within alcohol tolerance studies
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It contributes an in vivo activity measurement modality within the study's multi-technique analysis.
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provides an in vivo electrophysiological modality for identifying hyperactivity
Problem links
provides an in vivo electrophysiological modality for identifying hyperactivity
LiteratureIt contributes an in vivo activity measurement modality within the study's multi-technique analysis.
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It contributes an in vivo activity measurement modality within the study's multi-technique analysis.
provides physiological measurement capability within alcohol tolerance studies
LiteratureIt helps connect alcohol tolerance paradigms to direct neural activity measurements. The review presents it as part of a toolkit for in-depth neurobiological investigation.
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It helps connect alcohol tolerance paradigms to direct neural activity measurements. The review presents it as part of a toolkit for in-depth neurobiological investigation.
Published Workflows
Objective: Identify and analyze an APOE4-associated neuronal hyperactivity phenotype in aged APOE mice and investigate its inhibitory mechanism.
Why it works: The study uses four complementary techniques to identify the hyperactivity phenotype and then performs further analysis to connect the phenotype to reduced inhibitory tone and reduced responsiveness to GABAergic inputs.
decreased background inhibitionreduced responsiveness of excitatory neurons to GABAergic inhibitory inputsfMRIin vitro electrophysiologyin vivo electrophysiologymetabolomics
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Mechanisms
electrophysiological recordingTechniques
Functional AssayTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: payload burdenimplementation constraint: spectral hardware requirementoperating role: sensor
The provided evidence supports only that it must be paired with rapid tolerance paradigms and electrophysiological recording capability. Specific hardware, preparations, and analysis pipelines are not detailed here.; requires a rapid alcohol tolerance model; requires electrophysiology setup and appropriate in vivo assay design
The evidence does not indicate that in vivo electrophysiology alone defines tolerance or captures all addiction-relevant outcomes. It is a compatible readout method rather than a standalone tolerance model.; the provided payload does not specify recording configuration, target regions, or comparative performance
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Rapid alcohol tolerance models are suitable for combination with DREADDs, optogenetics, calcium imaging, and in vivo electrophysiology for in-depth studies.
Approval Evidence
2 sources1 linked approval claimfirst-pass slug in-vivo-electrophysiology
The supplied upstream summary states that the anchor PubMed abstract explicitly lists in vivo electrophysiology as a compatible tool for probing tolerance neurobiology.
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using four complimentary techniques-fMRI, in vitro electrophysiology, in vivo electrophysiology, and metabolomics
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tool compatibilitysupports
Rapid alcohol tolerance models are suitable for combination with DREADDs, optogenetics, calcium imaging, and in vivo electrophysiology for in-depth studies.
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Comparisons
Source-stated alternatives
The same review context also names DREADDs, optogenetics, and calcium imaging.; The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
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The same review context also names DREADDs, optogenetics, and calcium imaging.
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The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
Source-backed strengths
explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study
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explicitly identified as compatible with rapid tolerance models
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used as one of four complementary techniques in the study
Compared with Ca2+ imaging
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with calcium imaging
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with calcium imaging of freely behaving animals
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
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The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with chemogenetics
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
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The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with designer GPCRs
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with electrophysiology
The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
Compared with functional magnetic resonance imaging
The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The abstract contrasts it with fMRI, in vitro electrophysiology, and metabolomics.
Compared with imaging
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with imaging surveillance
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with optogenetic functional interrogation
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Compared with optogenetic membrane potential perturbation
The same review context also names DREADDs, optogenetics, and calcium imaging.
Shared frame: source-stated alternative in extracted literature
Strengths here: explicitly identified as compatible with rapid tolerance models; used as one of four complementary techniques in the study.
Relative tradeoffs: the provided payload does not specify recording configuration, target regions, or comparative performance.
Source:
The same review context also names DREADDs, optogenetics, and calcium imaging.
Ranked Citations
- 1.