Source 1review2021Frontiers in Molecular Biosciences
Toolkit/bacterial degrons
bacterial degrons
Also known as: degrons, proteolysis-targeting signals
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Bacterial degrons are proteolysis-targeting signals that are appended to proteins to direct their degradation in bacterial cells. They are described as tools to interrogate and control protein function through targeted protein depletion.
Usefulness & Problems
Why this is useful
These signals are useful because they provide a bacterial route to manipulate protein abundance and function by inducing degradation of tagged proteins. The cited literature specifically positions them as an alternative to chemical genetics approaches for studying protein function in bacteria.
Source:
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
Problem solved
Bacterial degrons address the problem of how to interrogate and control protein function in bacterial cells without relying on chemical genetics approaches. More specific use cases, target classes, or experimental contexts are not detailed in the supplied evidence.
Problem links
Need conditional protein clearance
DerivedBacterial degrons are proteolysis-targeting signals that can be appended to proteins to direct their degradation in bacterial cells. They are described as tools to interrogate and control protein function by targeted protein depletion.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A reusable architecture pattern for arranging parts into an engineered system.
Techniques
No technique tags yet.
Target processes
degradationInput: Chemical
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationoperating role: sensor
Implementation is described at the level of construct design: degrons are appended to proteins as proteolysis-targeting signals to promote degradation in bacterial cells. The evidence supports construct tagging and protein fusion, but it does not specify sequence motifs, linker design, host strains, delivery methods, or any required cofactors.
The supplied evidence does not provide quantitative performance data, specific degron sequences, cognate proteases, or organism-by-organism validation. It also does not document independent replication, comparative benchmarks, or practical examples of antimicrobial deployment.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Bacterial degraders are discussed as potential tools for studying protein function and as novel antimicrobials.
we discuss perspectives on using bacterial degraders for studying protein function and as novel antimicrobials.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Recent advances include large screens that employ tunable degradation systems and orthogonal degrons.
We describe recent advances ranging from large screens employing tunable degradation systems and orthogonal degrons
Approval Evidence
1 source3 linked approval claimsfirst-pass slug bacterial-degrons
A repertoire of proteolysis-targeting signals known as degrons is a necessary component of protein homeostasis in every living cell. In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
Source:
functional applicationsupports
In bacteria, degrons can be used instead of chemical genetics approaches to interrogate and control protein function.
In bacteria, degrons can be used in place of chemical genetics approaches to interrogate and control protein function.
Source:
imaging applicationsupports
Recent advances include sophisticated tools and sensors for imaging based on bacterial targeted proteolysis concepts.
to sophisticated tools and sensors for imaging.
Source:
review scope summarysupports
The review covers synthetic applications of degrons in targeted proteolysis in bacteria.
Here, we provide a comprehensive review of synthetic applications of degrons in targeted proteolysis in bacteria.
Source:
Comparisons
Source-backed strengths
A key strength is that degrons exploit an endogenous principle of protein homeostasis, namely proteolysis-targeting signals that direct degradation. The source also highlights their conceptual utility for targeted protein depletion and discusses bacterial degraders more broadly as potential tools for protein-function studies and as novel antimicrobials.
Compared with CRY2-lacZ gene fusion
bacterial degrons and CRY2-lacZ gene fusion address a similar problem space because they share degradation.
Shared frame: same top-level item type; shared target processes: degradation; shared mechanisms: degradation
Compared with opto-PROTAC
bacterial degrons and opto-PROTAC address a similar problem space because they share degradation.
Shared frame: same top-level item type; shared target processes: degradation; shared mechanisms: degradation
Strengths here: looks easier to implement in practice.
Compared with PCB synthesis expression vector
bacterial degrons and PCB synthesis expression vector address a similar problem space because they share degradation.
Shared frame: same top-level item type; shared target processes: degradation; shared mechanisms: degradation
Strengths here: looks easier to implement in practice; may avoid an exogenous cofactor requirement.
Ranked Citations
- 1.