Source 1review2009Microbial Biotechnology
Toolkit/linker-mediated LOV fusion to enzyme target sites
linker-mediated LOV fusion to enzyme target sites
Also known as: appropriate linker structures
Taxonomy: Mechanism Branch / Component. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Linker-mediated LOV fusion to enzyme target sites is a protein engineering strategy in which a LOV photoreceptor domain is fused to functional sites within an enzyme effector using an appropriate linker. The reported goal is to retain effector functionality while enabling light-dependent modulation of enzyme activity, thereby creating light-controllable biocatalysts.
Usefulness & Problems
Why this is useful
This strategy is useful for introducing optical control into enzyme effectors without replacing the underlying catalytic function. The cited literature presents it as a straightforward route to engineer light-controllable biocatalysts through LOV-domain fusion and linker design.
Problem solved
It addresses the engineering problem of making enzyme activity responsive to light while preserving effector function. Specifically, it provides a design concept for coupling LOV photoreceptor input to functional enzyme target sites through linker-mediated fusion.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Component: A low-level protein part used inside a larger architecture that realizes a mechanism.
Mechanisms
allosteric switchingallosteric switching via lov-effector domain fusionlight-dependent modulation of enzyme activityTechniques
Computational DesignTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
Implementation involves fusing a LOV photoreceptor domain to a functional enzyme target site using an appropriate linker structure. The available evidence does not specify construct architecture, host expression system, chromophore requirements, or linker design rules beyond the general importance of the linker.
The supplied evidence is limited to a general design proposal and does not provide specific enzymes, quantitative activity changes, illumination wavelengths, or comparative performance data. Independent validation, scope across enzyme classes, and practical optimization requirements are not established by the provided evidence.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Constructing LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity.
we describe the construction of LOV fusions to different effector domains, namely a dihydrofolate reductase from Escherichia coli and a lipase from Bacillus subtilis. Both fusion partners retained functionality, and alteration of enzyme activity by light was also demonstrated.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Approval Evidence
1 source1 linked approval claimfirst-pass slug linker-mediated-lov-fusion-to-enzyme-target-sites
fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts
Source:
engineering strategysupports
Fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures is presented as a straightforward strategy for designing light-controllable biocatalysts.
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Source:
Comparisons
Source-backed strengths
The cited source states that LOV fusions to effector domains can retain effector functionality while enabling light-dependent modulation of enzyme activity. It is also described as a straightforward design strategy when LOV photoreceptors are fused to functional enzyme target sites via appropriate linker structures.
Source:
Hence, it appears that fusion of LOV photoreceptors to functional enzyme target sites via appropriate linker structures may represent a straightforward strategy to design light controllable biocatalysts.
Ranked Citations
- 1.