Source 1review2022Biological Chemistry
Toolkit/photoxenoprotein engineering
photoxenoprotein engineering
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Photoxenoprotein engineering is a protein engineering method for targeted light regulation of protein function through incorporation of photoactive non-canonical amino acids by genetic code expansion. It is described as one of three major approaches developed for designing photocontrol in proteins.
Usefulness & Problems
Why this is useful
This method is positioned within the broader effort to achieve artificial photocontrol of proteins, an area described as increasingly important for investigation at organismal, cellular, and molecular scales. The same review also notes relevance of protein photocontrol methods for development of medicinal drugs and biocatalytic tools.
Source:
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Problem solved
Photoxenoprotein engineering addresses the problem of how to endow proteins with targeted light responsiveness using an encoded chemical modification strategy. The supplied evidence supports this general design goal, but does not specify particular protein classes, assays, or application case studies for this method.
Source:
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
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
Implementation is based on incorporation of photoactive non-canonical amino acids by genetic code expansion into the target protein. The supplied evidence does not specify orthogonal translation components, host systems, construct architecture, or illumination parameters.
The provided evidence is limited to a review-level description and does not report specific wavelengths, photoactive amino acid chemistries, reversibility, kinetics, or protein-specific validation. No independent experimental examples, organismal implementations, or failure modes are included in the supplied material.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
Approval Evidence
1 source3 linked approval claimsfirst-pass slug photoxenoprotein-engineering
For the targeted design of photocontrol in proteins, three major methods have been developed over the last decades, which employ either ... incorporation of photoactive non-canonical amino acids by genetic code expansion (photoxenoprotein engineering)...
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application scopesupports
Artificial photocontrol of proteins is described as being of growing interest for scientific investigation at organismal, cellular, and molecular levels and for development of medicinal drugs or biocatalytic tools.
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comparative review statementsupports
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
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review scope summarysupports
The review identifies three major methods for targeted design of photocontrol in proteins: photopharmacology, photoxenoprotein engineering, and hybrid protein optogenetics.
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Comparisons
Source-backed strengths
A stated strength is that it provides a targeted design route for photocontrol by installing photoactive non-canonical amino acids through genetic code expansion. The review identifies it as a major established method in the field, but the supplied evidence does not provide quantitative performance data or direct benchmarking.
Source:
The review compares the different methods, their strategies, and their current applications for light regulation of proteins and provides background information useful for implementing each technique.
Ranked Citations
- 1.