C. Elegans Germline
C. Elegans Germline - Related Videos
03:59
Gonad Microinjection: A Method of Compound Delivery Directly into the Germline of C. elegans
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2023
This video describes microinjection, a common method of creating transgenic C. elegans strains. In the example, we will see microinjection used to introduce a ribonucleoprotein (RNP) complex for CRISPR-bases gene editing.
10:37
CRISPR/Cas9-mediated Endogenous Fluorescent Tagging of Germline-specific Genes in Caenorhabditis elegans
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2026
A CRISPR/Cas9 microinjection workflow for endogenous fluorescent tagging in the Caenorhabditis elegans germline to obtain homozygous knock-in lines for in vivo protein localization analysis.
10:55
Comprehensive Assessment of Germline Chemical Toxicity Using the Nematode Caenorhabditis elegans
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Cited by 11 •
2015
We describe the detailed steps of a high-throughput chemical assay in the nematode Caenorhabditis elegans used to assess germline toxicity. In this assay, disruption of germline function following chemical exposure is monitored using a fluorescent reporter specific to aneuploid embryos.
08:40
Spatial and Temporal Analysis of Active ERK in the C. elegans Germline
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Cited by 25 •
2016
We present an immunofluorescence imaging-based method for spatial and temporal localization of active ERK in the dissected C. elegans gonad. The protocol described here can be adapted for visualization of any signaling or structural protein in the C. elegans gonad, provided a suitable antibody reagent is available.
09:14
C. elegans Development and Reproduction
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2023
Ceanorhabditis elegans is a powerful tool to help understand how organisms develop from a single cell into a vast interconnected array of functioning tissues. Early work in C. elegans traced the complete cell lineage and structure at the electron microscopy level, allowing researchers unprecedented insight into the connection between genes, development and disease. Appreciating the stereotyped development and reproductive program of C. elegans is essential to using this model organism to its...
FAQs
These cues are associated with the transition from mitotic proliferation to meiotic development. Their importance is that germ cells do not enter meiosis solely because they are present in the gonad; they respond to positional and molecular information. Studying this transition helps developmental biologists examine how local signals coordinate cell-cycle changes with germ-cell differentiation.
Mitotic divisions maintain a population of germline stem and progenitor cells before those cells enter meiosis. This sequence creates a developmental framework for comparing proliferating germ cells with cells undergoing meiotic development and later gamete differentiation. In C. elegans, that progression provides a tractable system for analyzing how reproductive cells acquire specialized developmental states.
Self-fertilization links the production of sperm and oocytes within one hermaphroditic organism. This arrangement allows researchers to study how both gamete types support reproduction and genetic transmission without changing the organism under investigation. It therefore provides useful developmental context for examining germ-cell differentiation and the reproductive consequences of germline regulation.
Its accessibility and genetic tractability make the system suitable for investigating developmental events in reproductive cells. Researchers can use it to study germ-cell specification, meiotic chromosome behavior, apoptosis, and maternal inheritance within the adult gonad. These features connect cellular developmental mechanisms with broader questions about fertility, genome stability, and inheritance.
The system supports investigation of how germ cells are specified, how chromosomes behave during meiosis, how apoptosis contributes to germline development, and how maternal information is transmitted. Addressing these questions broadens the focus from producing sperm and oocytes to understanding cellular quality control, reproductive development, and inheritance across generations.
Findings from this model are used to clarify principles that are conserved across animals, including fertility, genome stability, and developmental regulation. The germline is especially valuable because these themes can be examined alongside mitotic proliferation, meiotic entry, and gamete differentiation. This combination connects observations in a genetically tractable organism to wider questions in animal development.