Source 1primary paper2024MED
Toolkit/light-switchable condensate system
light-switchable condensate system
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
The light-switchable condensate system is a genetically encoded, multi-component platform for blue light-controlled organization of functional cargoes in Escherichia coli. It couples a condensation-enabling scaffold to cargo proteins through the iLID/SspB light-responsive interaction pair to dynamically regulate cargo localization.
Usefulness & Problems
Why this is useful
This system is useful for spatiotemporal control of protein localization in bacterial cells using light as an external input. The cited study specifically reports dynamic control of SulA localization and reversible regulation of cell morphology in E. coli.
Source:
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
Problem solved
It addresses the problem of reversibly organizing functional cargo proteins inside Escherichia coli with high temporal control. The available evidence indicates that this was applied to control SulA localization and associated morphology changes.
Source:
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
Published Workflows
Objective: Develop a genetically encoded light-controlled condensate strategy for dynamic and reversible organization of functional cargoes in Escherichia coli cells.
Why it works: The workflow couples a condensation-enabling scaffold with cargo recruitment through the blue light-responsive iLID/SspB pair, so light can trigger rapid and reversible cargo partitioning into condensates.
light-responsive heterodimerizationcondensate-mediated cargo recruitment and releasemodular genetic fusion designgenetically encoded optogenetic control
Stages
- 1.Modular fusion-system design(library_design)
This stage establishes the engineered architecture needed for light-controlled condensate recruitment in E. coli.
Selection: Construct a condensate system from two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through iLID and SspB.
- 2.Light-responsive cargo recruitment characterization(functional_characterization)
This stage verifies that the engineered condensate system performs the intended dynamic light-switching behavior before functional application.
Selection: Test whether light triggers rapid cargo recruitment and release and whether the process is reversible and repeatable.
- 3.Functional phenotype demonstration with SulA(confirmatory_validation)
This stage confirms that the condensate platform can control a cellular process, not just protein positioning.
Selection: Demonstrate that light-controlled condensate localization can regulate a biologically meaningful cargo and phenotype.
Steps
- 1.Design two genetically encoded fusion proteinsengineered system
Create a modular condensate architecture that links a condensation-enabling scaffold and a functional cargo through the iLID/SspB light-responsive pair.
The system architecture must be defined before light-responsive recruitment can be tested in cells.
- 2.Control fusion biogenesis and test light-triggered cargo recruitment and releaseengineered system under test
Determine whether the condensate system supports rapid, reversible, and repeatable cargo recruitment and release in response to light.
Dynamic switching behavior must be established before claiming functional control over a downstream cellular process.
- 3.Apply the system to SulA to test reversible morphology controlengineered system used for functional application
Show that light-controlled condensate localization can regulate a functional cargo and produce a reversible cellular phenotype.
A functional cargo test follows basic switching characterization to confirm that localization control translates into control of a cellular process.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A composed arrangement of multiple parts that instantiates one or more mechanisms.
Techniques
Computational DesignTarget processes
localizationInput: Light
Implementation Constraints
The construct architecture includes a condensation-enabling scaffold and a cargo protein linked through the iLID/SspB light-responsive heterodimerization pair. The system is described as genetically encoded and implemented in Escherichia coli, but the supplied evidence does not specify expression details, cofactors, or exact illumination conditions beyond blue light control.
The supplied evidence is limited to a single 2024 study and one described application in Escherichia coli. Quantitative performance characteristics, generality across cargoes, illumination parameters, and validation in other organisms or contexts are not provided in the evidence.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Observations
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
successBacteriaapplication demoEscherichia coli
Inferred from claim c3 during normalization. The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable. Derived from claim c3. Quoted text: the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
response time(within seconds)
successBacteriaapplication demoEscherichia coli
Inferred from claim c4 during normalization. The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies. Derived from claim c4. Quoted text: the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
Supporting Sources
Ranked Claims
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
response time within seconds
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
Approval Evidence
1 source4 linked approval claimsfirst-pass slug light-switchable-condensate-system
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
Source:
applicationsupports
The system dynamically controls subcellular localization of SulA and enables reversible regulation of cell morphologies.
the system is demonstrated to dynamically control the subcellular localization of a cell division inhibitor, SulA, which enables the reversible regulation of cell morphologies
Source:
mechanismsupports
The condensate system uses two modular genetically encoded fusions linking a condensation-enabling scaffold and a functional cargo through the blue light-responsive iLID and SspB heterodimerization pair.
The condensate system consists of two modularly designed and genetically encoded fusions that contain a condensation-enabling scaffold and a functional cargo fused to the blue light-responsive heterodimerization pair, iLID and SspB, respectively.
Source:
performancesupports
The system allows cargo proteins to be recruited and released within seconds in response to light, and the process is reversible and repeatable.
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Source:
tool developmentsupports
The paper develops a light-switchable condensate system for on-demand dynamic organization of functional cargoes in Escherichia coli cells.
Here we develop a light-switchable condensate system for on-demand dynamic organization of functional cargoes in the model prokaryotic Escherichia coli cells.
Source:
Comparisons
Source-backed strengths
The reported platform is genetically encoded and light responsive, enabling dynamic and reversible control over cargo organization in E. coli. Its demonstrated application to SulA indicates that the system can couple subcellular localization control to a measurable cellular phenotype, namely cell morphology.
Source:
the condensate system allows rapid recruitment and release of cargo proteins within seconds in response to light, and this process is also reversible and repeatable
Ranked Citations
- 1.