Table 3.
Technique | Advantage for Toxicology | References |
---|---|---|
Refinement, Automation and High-Throughput Methods | ||
Automated zebrafish egg sorting | less hands-on time | [220] |
Automated removal of chorions | less hands-on time, prerequisite for toxicological screens |
[221] |
Automated imaging systems | standardization of imaging and visual screening | [222] |
Automated microinjection | standardization of microinjection | [223] |
Dechorionated Zebrafish Embryo Developmental toxicity assay or culture assay | harmonized zebrafish developmental toxicology assay to assess teratogenic liability of pharmaceutical compounds | [224,225] |
Cystic kidney disease model | automated morphological feature assessment | [226] |
FISH inspector | automated morphological feature assessment | [227] |
Multiparametric renal function assay | assessment of pronephric morphology, renal function and heart Rate |
[186] |
Advanced visualization methods | ||
Computer aided automation in imaging analyses | high throughput method for imaging data, highly comparable, standardised results | [77] |
Automatic feature recognition | automatic quantification of changes, comparable, predefined parameters |
[228,229] |
Novel genetic methods | ||
Next-gen CRISPR/Cas9, single nucleotide editing |
establishment of precise genetic modifications | [230] |
RNA-seq | whole-animal/tissue transcriptome analyses | Gene expression atlas for zebrafish developmental stages: http://www.ebi.ac.uk/gxa/experiments/E-ERAD-475; accessed on 9 December 2021 |
scRNA-seq | single cell transcriptome analyses | [231] |