Source 1review2015Frontiers in Molecular Biosciences
Toolkit/order-disorder transitions
order-disorder transitions
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Order-disorder transitions are a light-regulated design principle identified in a 2015 survey of engineered photoreceptors. In this framework, light-driven structural transitions are used as a versatile basis for building optogenetic tools within photoreceptor engineering.
Usefulness & Problems
Why this is useful
This design principle is useful because the source survey highlights order-disorder transitions as particularly powerful and versatile for engineering photoreceptors. It provides a conceptual route for converting light input into regulated protein behavior through light-regulated allostery.
Problem solved
Order-disorder transitions help address the problem of how to engineer proteins that respond to light with controllable functional changes. The source specifically places this principle among the core strategies used to design engineered photoreceptors.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete method used to build, optimize, or evolve an engineered system.
Techniques
Computational DesignTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
The available evidence indicates that this method is implemented in engineered photoreceptors and operates through light-regulated allostery. No specific cofactors, host systems, fusion architectures, or construct design rules are described in the supplied evidence.
The supplied evidence is limited to a survey-level classification and does not describe a specific construct, photoreceptor family, wavelength range, or quantitative benchmark. Independent experimental validation details are not provided in the supplied material.
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.
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 order-disorder-transitions
A survey of engineered photoreceptors pinpoints light-regulated association reactions and order-disorder transitions as particularly powerful and versatile design principles.
Source:
design principlesupports
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.
Source:
Comparisons
Source-backed strengths
The cited survey explicitly identifies order-disorder transitions as a particularly powerful and versatile design principle. The available evidence supports its conceptual importance in optogenetic design, but does not provide tool-specific performance metrics in the supplied material.
Ranked Citations
- 1.