Source 1review2022FEBS Letters
Toolkit/confocal microscopy
confocal microscopy
Also known as: confocal
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Confocal microscopy is an in vivo fluorescence imaging assay method described as part of microscopy platforms tailored to larval zebrafish research. In the cited review context, it is used with fluorescent probes for real-time monitoring of cell identity, fate, and physiology in living larvae, including pancreatic and islet studies.
Usefulness & Problems
Why this is useful
This method is useful for visualizing organ pathophysiology in living larval zebrafish, a context highlighted for pancreas and islets of Langerhans research. The review specifically positions it as compatible with fluorescent probes for real-time observation of cellular identity, fate, and physiology in vivo.
Problem solved
It helps address the problem of monitoring biological processes in intact living larvae rather than only in fixed or ex vivo samples. The supplied evidence supports its use for in vivo observation of pancreatic and islet biology in larval zebrafish, but does not provide more specific assay performance details.
Problem links
Need conditional recombination or state switching
DerivedConfocal microscopy is an in vivo imaging assay method described here as part of microscopy platforms, alongside light sheet microscopy, tailored to larval zebrafish research. In the cited review context, it is used with fluorescent probes for real-time monitoring of cell identity, fate, and physiology in living larvae, including studies of pancreatic islets of Langerhans.
Need precise spatiotemporal control with light input
DerivedConfocal microscopy is an in vivo imaging assay method described here as part of microscopy platforms, alongside light sheet microscopy, tailored to larval zebrafish research. In the cited review context, it is used with fluorescent probes for real-time monitoring of cell identity, fate, and physiology in living larvae, including studies of pancreatic islets of Langerhans.
Need tighter control over protein production
DerivedConfocal microscopy is an in vivo imaging assay method described here as part of microscopy platforms, alongside light sheet microscopy, tailored to larval zebrafish research. In the cited review context, it is used with fluorescent probes for real-time monitoring of cell identity, fate, and physiology in living larvae, including studies of pancreatic islets of Langerhans.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Target processes
recombinationtranslationInput: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedframe rate fps: 1implementation constraint: context specific validationimplementation constraint: payload burdenimplementation constraint: spectral hardware requirementoperating role: sensor
The available evidence indicates use in living larval zebrafish and pairing with fluorescent probes for real-time imaging. No specific fluorophores, excitation wavelengths, optical configurations, transgenic lines, or sample preparation procedures are described in the supplied material.
The provided evidence does not report quantitative performance metrics such as spatial resolution, imaging depth, temporal resolution, or phototoxicity. It also does not document independent benchmarking against other microscopy modalities beyond noting that light sheet microscopy is discussed alongside confocal microscopy.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Source 2review2017Sensors
Source 3primary paper2025MED
Ranked Claims
Ultra-high-speed brightfield, fluorescence, and confocal microscopy were used to capture ADV and real-time payload release in fibrin-based hydrogels.
We employed ultra-high-speed brightfield [10 million frames per second (Mfps)], fluorescence (2 Mfps), and confocal microscopy (1 fps) to capture ADV and real-time payload release in fibrin-based hydrogels.
brightfield frame rate 10 Mfpsconfocal frame rate 1 fpsfluorescence frame rate 2 Mfps
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review states that larval zebrafish are well matched to fluorescent probes for real-time monitoring of cell identity, fate, and physiology.
We highlight the match of zebrafish larvae with the expanding toolbox of fluorescent probes that monitor cell identity, fate and/or physiology in real time.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
Approval Evidence
3 sources3 linked approval claimsfirst-pass slug confocal-microscopy
We employed ultra-high-speed brightfield [10 million frames per second (Mfps)], fluorescence (2 Mfps), and confocal microscopy (1 fps) to capture ADV and real-time payload release in fibrin-based hydrogels.
Source:
including confocal and light sheet (single plane illumination) microscopes tailored to in vivo larval research
Source:
In this review, we reported the principles of AFM and optical microscopy, such as confocal microscopy and single-molecule localization microscopy.
Source:
measurement capabilitysupports
Ultra-high-speed brightfield, fluorescence, and confocal microscopy were used to capture ADV and real-time payload release in fibrin-based hydrogels.
We employed ultra-high-speed brightfield [10 million frames per second (Mfps)], fluorescence (2 Mfps), and confocal microscopy (1 fps) to capture ADV and real-time payload release in fibrin-based hydrogels.
Source:
review scope summarysupports
Larval zebrafish enable in vivo microscopy for studying organ pathophysiology, including the pancreas and islets of Langerhans.
zebrafish larvae allow studying pathophysiology of many organs using in vivo microscopy. Here, we review the potential of the larval zebrafish pancreas in the context of islets of Langerhans and Type 1 diabetes.
Source:
translational positioningsupports
The review positions living larval zebrafish as a powerful translational research tool and forecasts replacement of many cell line-based studies for understanding organ pathophysiology in whole organisms.
These developments make the zebrafish larvae an extremely powerful research tool for translational research. We foresee that living larval zebrafish models will replace many cell line-based studies in understanding the contribution of molecules, organelles and cells to organ pathophysiology in whole organisms.
Source:
Comparisons
Source-backed strengths
A key strength supported by the evidence is compatibility with in vivo larval zebrafish imaging and fluorescent probe-based real-time monitoring. The cited review also places confocal microscopy within a microscopy toolkit tailored to larval research, indicating practical fit for live imaging applications in this organism.
Compared with cLIPS2
confocal microscopy and cLIPS2 address a similar problem space because they share recombination, translation.
Shared frame: shared target processes: recombination, translation; shared mechanisms: translation_control; same primary input modality: light
Strengths here: looks easier to implement in practice.
Compared with light-sheet microscopy
confocal microscopy and light-sheet microscopy address a similar problem space because they share recombination, translation.
Shared frame: same top-level item type; shared target processes: recombination, translation; shared mechanisms: translation_control; same primary input modality: light
Relative tradeoffs: appears more independently replicated; looks easier to implement in practice.
Compared with optogenetic circuits
confocal microscopy and optogenetic circuits address a similar problem space because they share recombination, translation.
Shared frame: shared target processes: recombination, translation; shared mechanisms: translation_control; same primary input modality: light
Ranked Citations
- 1.
- 2.
Extracted from this source document.
- 3.