Source 1review2015Frontiers in Molecular Biosciences
Toolkit/associating photoreceptors
associating photoreceptors
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Associating photoreceptors are light-responsive receptors defined by changes in oligomeric state as part of light-regulated allostery. In engineered systems, they provide a multi-component switch architecture based on light-controlled association behavior.
Usefulness & Problems
Why this is useful
These receptors are useful because light-regulated association reactions are identified as powerful and versatile design principles for engineered photoreceptors. Their association-based behavior supports construction of multi-component switches controlled by light input.
Problem solved
Associating photoreceptors help solve the problem of building light-responsive systems in which multiple components are brought together or separated through illumination-dependent association. The cited evidence specifically frames this as an engineering design principle for photoreceptor-based control.
Problem links
Need precise spatiotemporal control with light input
DerivedAssociating photoreceptors are a class of light-responsive receptors that change oligomeric state as part of light-regulated allostery. In engineered systems, they provide a multi-component switch architecture based on light-controlled association behavior.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A composed arrangement of multiple parts that instantiates one or more mechanisms.
Mechanisms
light-regulated allosterylight-regulated allosterylight-regulated associationlight-regulated associationOligomerizationOligomerizationOligomerizationTechniques
No technique tags yet.
Target processes
No target processes tagged yet.
Input: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: multi component delivery burdenimplementation constraint: spectral hardware requirementoperating role: actuatorswitch architecture: multi component
The evidence supports use of associating photoreceptors in engineered constructs through domain fusion. However, no specific photoreceptor family, chromophore requirement, construct topology, or expression context is described in the supplied material.
The supplied evidence is conceptual and classification-level rather than tool-specific performance data. No quantitative kinetics, dynamic range, wavelength specificity, host-system validation, or independent benchmarking are provided here.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Light-regulated association reactions and order-disorder transitions are highlighted as particularly powerful and versatile design principles in engineered photoreceptors.
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Approval Evidence
1 source1 linked approval claimfirst-pass slug associating-photoreceptors
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery.
Source:
classificationsupports
Photoreceptors can be divided into associating receptors that alter oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Photoreceptors dichotomize into associating receptors that alter their oligomeric state as part of light-regulated allostery and non-associating receptors that do not.
Source:
Comparisons
Source-backed strengths
The available evidence highlights light-regulated association as a particularly powerful and versatile design principle. Associating photoreceptors are also mechanistically distinct in that they alter oligomeric state as part of light-regulated allostery, which directly supports switch-like multi-component control.
Compared with AQTrip EL222 variant
associating photoreceptors and AQTrip EL222 variant address a similar problem space.
Shared frame: same top-level item type; shared mechanisms: oligomerization; same primary input modality: light
Compared with OptoLoop
associating photoreceptors and OptoLoop address a similar problem space.
Shared frame: same top-level item type; shared mechanisms: oligomerization; same primary input modality: light
Compared with optoRET
associating photoreceptors and optoRET address a similar problem space.
Shared frame: same top-level item type; shared mechanisms: oligomerization; same primary input modality: light
Ranked Citations
- 1.