Source 1review2021Cells
Toolkit/zebrafish spinal cord injury paradigms
zebrafish spinal cord injury paradigms
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Zebrafish spinal cord injury paradigms are experimental assay methods used to study central nervous system axon regeneration and functional recovery in zebrafish. The cited review presents these paradigms as a framework for investigating the strong regenerative capacity observed in fish after spinal cord injury.
Usefulness & Problems
Why this is useful
These paradigms are useful for analyzing axon regeneration and recovery of function in a vertebrate system with substantial regenerative capacity after spinal cord injury. They provide an experimental context for studying factors that contribute to successful central nervous system repair in zebrafish.
Problem solved
These assays address the problem that mammals show poor long-distance axon regeneration and poor functional recovery after spinal cord injury, whereas fish display marked regenerative ability. They therefore support investigation of biological features associated with successful spinal cord repair.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Techniques
Functional AssayTarget processes
No target processes tagged yet.
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationoperating role: sensor
The available evidence only states that spinal cord injury paradigms are used in zebrafish and are discussed in a 2021 review. No specific construct design, injury procedure, imaging modality, behavioral assay, or reagent requirement is provided in the supplied evidence.
The supplied evidence identifies the existence of zebrafish spinal cord injury paradigms but does not specify individual lesion formats, readouts, timing, or quantitative performance characteristics. Independent replication, comparative benchmarking among paradigms, and practical implementation details are not described in the provided material.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Approval Evidence
1 source3 linked approval claimsfirst-pass slug zebrafish-spinal-cord-injury-paradigms
Here, we review the spinal cord injury paradigms used in zebrafish
Source:
comparative regeneration capacitysupports
Mammals have poor capacity for long-distance axon regeneration and functional recovery after spinal cord injury, whereas some vertebrates including fish and salamanders show remarkable capacity.
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Source:
factor summarysupports
Neuron-intrinsic and neuron-extrinsic factors have been identified as pivotal contributors to zebrafish central nervous system axon regeneration and functional recovery.
we review the spinal cord injury paradigms used in zebrafish, and summarize the breadth of neuron-intrinsic and -extrinsic factors that have been identified to play pivotal roles in the ability of zebrafish to regenerate central nervous system axons and recover function.
Source:
model system positioningsupports
Among successful spinal cord regeneration models, zebrafish is presented as arguably the most mechanistically understood model to date.
Among existing models of successful spinal cord regeneration, the zebrafish is arguably the most understood at a mechanistic level to date.
Source:
Comparisons
Source-backed strengths
A key strength is that the paradigms are deployed in zebrafish, a vertebrate model noted in the cited review for remarkable spinal cord regenerative capacity and functional recovery. The review also indicates that these paradigms can be used to examine both neuron-intrinsic and neuron-extrinsic contributors to regeneration.
Source:
The capacity for long-distance axon regeneration and functional recovery after spinal cord injury is poor in mammals but remarkable in some vertebrates, including fish and salamanders.
Compared with Field-domain rapid-scan EPR at 240 GHz
zebrafish spinal cord injury paradigms and Field-domain rapid-scan EPR at 240 GHz address a similar problem space.
Shared frame: same top-level item type
Compared with fluorescence line narrowing
zebrafish spinal cord injury paradigms and fluorescence line narrowing address a similar problem space.
Shared frame: same top-level item type
Compared with native green gel system
zebrafish spinal cord injury paradigms and native green gel system address a similar problem space.
Shared frame: same top-level item type
Strengths here: looks easier to implement in practice.
Ranked Citations
- 1.