Source 1primary paper2025MED
Toolkit/microendoscopic imaging
microendoscopic imaging
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
We focus primarily on three techniques, optogenetic manipulation, fiber photometry and microendoscopic imaging
Usefulness & Problems
Why this is useful
This protocol describes how to incorporate microendoscopic imaging into touchscreen operant systems for neural measurement during complex behavior.; integrating optical neural measurement into touchscreen behavioral experiments
Source:
This protocol describes how to incorporate microendoscopic imaging into touchscreen operant systems for neural measurement during complex behavior.
Source:
integrating optical neural measurement into touchscreen behavioral experiments
Problem solved
It addresses the underuse of optical neural measurement approaches in touchscreen-based studies of complex cognitive function.; enables microendoscopic neural imaging during touchscreen-based cognitive tasks
Source:
It addresses the underuse of optical neural measurement approaches in touchscreen-based studies of complex cognitive function.
Source:
enables microendoscopic neural imaging during touchscreen-based cognitive tasks
Problem links
enables microendoscopic neural imaging during touchscreen-based cognitive tasks
LiteratureIt addresses the underuse of optical neural measurement approaches in touchscreen-based studies of complex cognitive function.
Source:
It addresses the underuse of optical neural measurement approaches in touchscreen-based studies of complex cognitive function.
Published Workflows
Objective: Enable integration of optically based neural manipulation and measurement techniques into touchscreen operant systems for studying complex behavior.
Why it works: The protocol emphasizes design adjustments that the authors found critical for integration, specifically surgery and timing, operant-environment modifications, and synchronization of light delivery with task structure.
optical manipulation of neural functionoptical measurement of neural functionoptogenetic manipulationfiber photometrymicroendoscopic imaging
Stages
- 1.implementation(library_build)
The abstract states that each detailed protocol covers use from implementation through data analysis.
Selection: Set up the chosen optical technique within the touchscreen experimental system.
- 2.data analysis(secondary_characterization)
The abstract states that each detailed protocol covers use from implementation through data analysis.
Selection: Analyze data generated after implementation of the optical technique in the touchscreen system.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Mechanisms
optical neural measurementTarget processes
recombinationselectionInput: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: spectral hardware requirementoperating role: sensor
The abstract indicates that implementation depends on surgical procedures, timing, changes to the operant setup, and synchronization with task structure.; requires surgical procedures and timing considerations; requires synchronization of light delivery and task design; requires alterations to touchscreen operant environments
The abstract does not provide performance benchmarks or claim that microendoscopic imaging removes all integration burdens.; successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Optically based approaches to measure and manipulate neural function have been less widely adopted for complex cognitive functions assessed with touchscreen-based behavioral tasks.
Successful integration of optogenetic manipulation, fiber photometry, and microendoscopic imaging with touchscreen behavior pipelines depends on experimental design adjustments including surgical procedures and timing, alterations to touchscreen operant environments, and synchronization of light delivery with task design.
The paper includes a detailed protocol for each of the three optical techniques from implementation through data analysis.
The paper provides guidance and procedural descriptions for integrating optically based neural manipulation and measurement techniques into touchscreen experimental systems.
The procedures in the protocol can be conducted in as little as a few days or over weeks to months.
procedure duration as short a time as a few days or over the course of weeks or months
Approval Evidence
1 source5 linked approval claimsfirst-pass slug microendoscopic-imaging
We focus primarily on three techniques, optogenetic manipulation, fiber photometry and microendoscopic imaging
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adoption gapsupports
Optically based approaches to measure and manipulate neural function have been less widely adopted for complex cognitive functions assessed with touchscreen-based behavioral tasks.
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critical integration factorssupports
Successful integration of optogenetic manipulation, fiber photometry, and microendoscopic imaging with touchscreen behavior pipelines depends on experimental design adjustments including surgical procedures and timing, alterations to touchscreen operant environments, and synchronization of light delivery with task design.
Source:
protocol coveragesupports
The paper includes a detailed protocol for each of the three optical techniques from implementation through data analysis.
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protocol scopesupports
The paper provides guidance and procedural descriptions for integrating optically based neural manipulation and measurement techniques into touchscreen experimental systems.
Source:
time requirementsupports
The procedures in the protocol can be conducted in as little as a few days or over weeks to months.
Source:
Comparisons
Source-stated alternatives
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Source-backed strengths
presented as one of the primary optical techniques supported by the protocol
Source:
presented as one of the primary optical techniques supported by the protocol
Compared with fiber photometry
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Compared with fiber photometry calcium imaging
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Compared with imaging
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Compared with imaging surveillance
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Compared with optogenetic
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Compared with optogenetic manipulation of NTLS neurons
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Shared frame: source-stated alternative in extracted literature
Strengths here: presented as one of the primary optical techniques supported by the protocol.
Relative tradeoffs: successful integration requires adjustments to surgery timing, operant environment, and synchronization with task design.
Source:
The paper covers microendoscopic imaging together with optogenetic manipulation and fiber photometry, and notes prior reliance on pharmacological and neurochemical approaches.
Ranked Citations
- 1.