Source 1primary paper2016PubMed
Toolkit/in vivo optogenetics
in vivo optogenetics
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
The establishment of in vivo optogenetics could provide for high-impact independent research projects for upper-level undergraduate students.
Usefulness & Problems
Why this is useful
In vivo optogenetics is presented as a way to apply optical control methods in rodents for neuroscience research. The article frames it as a practical investigative approach for undergraduate mammalian model organism laboratories.; rodent neuroscience experiments in undergraduate laboratory settings; independent research projects involving optical control in mammalian model organisms
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In vivo optogenetics is presented as a way to apply optical control methods in rodents for neuroscience research. The article frames it as a practical investigative approach for undergraduate mammalian model organism laboratories.
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rodent neuroscience experiments in undergraduate laboratory settings
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independent research projects involving optical control in mammalian model organisms
Problem solved
It addresses the lack of mammalian in vivo optogenetics in undergraduate neuroscience laboratories. The paper also emphasizes cost-saving guidance to improve accessibility.; bringing mammalian in vivo optogenetic capability into undergraduate neuroscience laboratories
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It addresses the lack of mammalian in vivo optogenetics in undergraduate neuroscience laboratories. The paper also emphasizes cost-saving guidance to improve accessibility.
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bringing mammalian in vivo optogenetic capability into undergraduate neuroscience laboratories
Problem links
bringing mammalian in vivo optogenetic capability into undergraduate neuroscience laboratories
LiteratureIt addresses the lack of mammalian in vivo optogenetics in undergraduate neuroscience laboratories. The paper also emphasizes cost-saving guidance to improve accessibility.
Source:
It addresses the lack of mammalian in vivo optogenetics in undergraduate neuroscience laboratories. The paper also emphasizes cost-saving guidance to improve accessibility.
Published Workflows
Illuminating the Undergraduate Behavioral Neuroscience Laboratory: A Guide for the in vivo Application of Optogenetics in Mammalian Model Organisms.
2016Objective: Establish in vivo optogenetics with rodents in an undergraduate laboratory setting while improving financial accessibility.
Why it works: The abstract presents the setup as a combination of coordinated design choices spanning actuator selection, targeting strategy, model choice, experiment design, and light delivery hardware, with cost-saving guidance intended to make the overall approach accessible.
opsin-based optical control in rodentscell-specific opsin expressionopsin selectionspecies selectionexperimental designlight delivery system selectionconstruction of implantable optical fibers
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A reusable architecture pattern for arranging parts into an engineered system.
Mechanisms
cell-type-specific neural circuit modulationlight-gated control of opsin-expressing neuronsTarget processes
selectionInput: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: spectral hardware requirementoperating role: regulator
The abstract states that implementation requires choices about opsins, cell-specific expression strategies, species, experimental design, light delivery systems, and implantable optical fibers. These are presented as the main setup considerations for rodent use.; requires opsin selection; requires cell-specific expression strategy selection; requires species selection; requires experimental design; requires light delivery system selection; may require construction of implantable optical fibers
The abstract does not claim that in vivo optogenetics alone solves all experimental design or targeting challenges. It also does not provide evidence for a single universally optimal setup.; the abstract does not specify a single standardized implementation
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Little to no work has focused on bringing optogenetics to mammalian model organisms in undergraduate neuroscience laboratories.
While there has been a significant body of work concentrated to deploy optogenetics in invertebrate model organisms, little to no work has focused on brining this technology to mammalian model organisms in undergraduate neuroscience laboratories.
Optogenetics is a rapidly growing neuroscience technology that has established itself as a fundamental investigative tool.
Optogenetics is a technology that is growing rapidly in neuroscience, establishing itself as a fundamental investigative tool.
The paper discusses opsin selection, cell-specific opsin expression strategies, species selection, experimental design, light delivery system selection, and construction of implantable optical fibers for rodent in vivo optogenetics.
We discuss opsin selection, cell-specific opsin expression strategies, species selection, experimental design, selection of light delivery systems, and the construction of implantable optical fibers for the application of in vivo optogenetics in rodents.
Establishing in vivo optogenetics could enable high-impact independent research projects for upper-level undergraduate students.
The establishment of in vivo optogenetics could provide for high-impact independent research projects for upper-level undergraduate students.
Approval Evidence
1 source4 linked approval claimsfirst-pass slug in-vivo-optogenetics
The establishment of in vivo optogenetics could provide for high-impact independent research projects for upper-level undergraduate students.
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gap statementsupports
Little to no work has focused on bringing optogenetics to mammalian model organisms in undergraduate neuroscience laboratories.
While there has been a significant body of work concentrated to deploy optogenetics in invertebrate model organisms, little to no work has focused on brining this technology to mammalian model organisms in undergraduate neuroscience laboratories.
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importance statementsupports
Optogenetics is a rapidly growing neuroscience technology that has established itself as a fundamental investigative tool.
Optogenetics is a technology that is growing rapidly in neuroscience, establishing itself as a fundamental investigative tool.
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scope statementsupports
The paper discusses opsin selection, cell-specific opsin expression strategies, species selection, experimental design, light delivery system selection, and construction of implantable optical fibers for rodent in vivo optogenetics.
We discuss opsin selection, cell-specific opsin expression strategies, species selection, experimental design, selection of light delivery systems, and the construction of implantable optical fibers for the application of in vivo optogenetics in rodents.
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use case statementsupports
Establishing in vivo optogenetics could enable high-impact independent research projects for upper-level undergraduate students.
The establishment of in vivo optogenetics could provide for high-impact independent research projects for upper-level undergraduate students.
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Comparisons
Source-stated alternatives
The abstract contrasts mammalian undergraduate implementation with prior work concentrated in invertebrate model organisms. It also implies multiple alternative choices within opsins, expression strategies, species, and light delivery systems.
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The abstract contrasts mammalian undergraduate implementation with prior work concentrated in invertebrate model organisms. It also implies multiple alternative choices within opsins, expression strategies, species, and light delivery systems.
Source-backed strengths
described as a fundamental investigative tool in neuroscience; presented as financially accessible with cost-saving guidelines
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described as a fundamental investigative tool in neuroscience
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presented as financially accessible with cost-saving guidelines
Compared with opsins
The abstract contrasts mammalian undergraduate implementation with prior work concentrated in invertebrate model organisms. It also implies multiple alternative choices within opsins, expression strategies, species, and light delivery systems.
Shared frame: source-stated alternative in extracted literature
Strengths here: described as a fundamental investigative tool in neuroscience; presented as financially accessible with cost-saving guidelines.
Relative tradeoffs: the abstract does not specify a single standardized implementation.
Source:
The abstract contrasts mammalian undergraduate implementation with prior work concentrated in invertebrate model organisms. It also implies multiple alternative choices within opsins, expression strategies, species, and light delivery systems.
Ranked Citations
- 1.