Source 1primary paper2020UNC Libraries
Toolkit/microscopy
microscopy
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Microscopy is a protocolized assay method included alongside fluorescent polarization and phage display in a 2020 methods source on engineering and applying LOV2-based photoswitches. In that context, it is used as part of the experimental workflow for validating, improving, and using light-responsive optogenetic switches built on the LOV2 domain.
Usefulness & Problems
Why this is useful
This assay method is useful because cellular optogenetic switches have improved understanding of previously intractable biological phenomena, and microscopy provides one of the protocols used in that application context. The source supports its role as an experimental readout within LOV2-based optogenetic engineering, but does not specify the exact microscopy modality or quantitative outputs.
Source:
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Problem solved
Microscopy helps address the need for assay methods to evaluate and apply newly engineered LOV2-based photoswitches in cellular optogenetics. The evidence establishes that such assays are provided for this engineering framework, but does not detail a single specific measurement problem uniquely solved by microscopy.
Source:
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Problem links
Need precise spatiotemporal control with light input
DerivedMicroscopy is included as a protocolized assay method for validating, improving, and using newly designed photoswitches in the context of LOV2-based optogenetic engineering. The cited source identifies it as one of several assays provided alongside fluorescent polarization and phage display.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Techniques
Computational DesignFunctional AssayFunctional AssayFunctional AssaySelection / EnrichmentTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: spectral hardware requirementoperating role: sensor
The source only states that protocols are provided for microscopy in the context of LOV2-based photoswitches. No practical details are given here regarding illumination wavelength, microscope configuration, sample preparation, construct architecture, cofactors, or expression systems.
The supplied evidence does not identify the microscopy format, imaging parameters, reporter design, or organismal system. It also does not provide validation metrics, comparative performance against other assays, or independent replication specific to microscopy.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Cellular optogenetic switches have improved understanding of previously intractable biological phenomena.
Cellular optogenetic switches, a novel class of biological tools, have improved our understanding of biological phenomena that were previously intractable.
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Optogenetic switches designed to date are based on borrowed elements from plant and bacterial photoreceptors.
they are all based on borrowed elements from plant and bacterial photoreceptors
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Thorough biophysical characterization of the isolated LOV2 domain has created a strong foundation for engineering photoswitches.
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
Optogenetic switches exploit endogenous light-induced photoreceptor conformational changes and repurpose their effects to different biological phenomena.
each of the optogenetic switches designed to date exploits the endogenous light induced change in photoreceptor conformation while repurposing its effect to target a different biological phenomena
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
Approval Evidence
1 source1 linked approval claimfirst-pass slug microscopy
we provide protocols for assays including fluorescent polarization, phage display, and microscopy
Source:
protocol availabilitysupports
The chapter provides protocols for fluorescent polarization, phage display, and microscopy optimized for validating, improving, and using newly designed photoswitches.
we provide protocols for assays including fluorescent polarization, phage display, and microscopy that are optimized for validating, improving, and using newly designed photoswitches
Source:
Comparisons
Source-backed strengths
A key strength is that microscopy is presented as a standardized protocol within a broader assay suite for LOV2-based photoswitch development. Its inclusion in a methods resource grounded in thorough biophysical characterization of the isolated LOV2 domain suggests it is part of a well-supported experimental foundation, although no performance benchmarks are reported in the supplied evidence.
Source:
its thorough biophysical characterization as an isolated domain has created a strong foundation for engineering of photoswitches
Compared with native green gel system
microscopy and native green gel system address a similar problem space.
Shared frame: same top-level item type; same primary input modality: light
Compared with open-source microplate reader
microscopy and open-source microplate reader address a similar problem space.
Shared frame: same top-level item type; same primary input modality: light
Compared with plant transcriptome profiling
microscopy and plant transcriptome profiling address a similar problem space.
Shared frame: same top-level item type; same primary input modality: light
Ranked Citations
- 1.