C. Elegans Cuticle
C. Elegans Cuticle - Related Videos
15:53
Isolation and Biophysical Study of Fruit Cuticles
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Cited by 16 •
2012
Aerial plant organs are protected by the cuticle, a supramolecular biopolyester-wax assembly. We present protocols to monitor selective removal of epi- and intracuticular waxes from tomato fruit cuticles on molecular and micro scales by solid-state NMR and atomic force microscopy, respectively, and to assess the cross-linking capacity of engineered cuticular biopolyesters.
11:34
Basic Caenorhabditis elegans Methods: Synchronization and Observation
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Cited by 452 •
2012
The easiness of maintaining and propagating the nematode C. elegans make it a nice model organism to work with. The possibility of synchronizing worms allows the work with a significant amount of subjects at the same developmental stage, what facilitates the study of one particular process in many animals.
11:02
Use of Arabidopsis eceriferum Mutants to Explore Plant Cuticle Biosynthesis
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Cited by 11 •
2008
The plant cuticle is a waxy outer covering on plants that has a primary role in water conservation but is also an important barrier against the entry of pathogenic microorganisms. In this video, we demonstrate the analysis of plant cuticle mutants identified by forward and reverse genetics approaches.
02:01
Cuticle Disruption: A Method to Collect Hemolymph from Drosophila Larvae
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2023
The Drosophila hemolymph serves as both blood and interstitial fluid, circulating throughout the body during the larva and adult stages. This video describes a protocol to collect larval hemolymph in order to quantify the circulating cells.
10:54
C. elegans Maintenance
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2023
Ceanorhabditis elegans has been, and is still, used to great success as a model organism for studying a variety of developmental, genetic, molecular and even physical phenomena. In order to use C. elegans to its full potential, proper care and attention to the basic maintenance of this powerful organism is essential. In this video you will learn the basic housing and feeding requirements of C. elegans, how to correctly handle and manipulate worms using a worm pick and how to freeze and recover...
FAQs
Cross-linking joins the collagen-rich matrix into a mechanically integrated structure rather than leaving its components as independent layers. In the C. elegans cuticle, this organization helps preserve body shape and mechanical integrity while the animal moves and encounters its surroundings. Studying changes in cross-linked structure therefore connects extracellular-matrix architecture with visible defects and altered physical performance.
The hypodermis is the principal source of cuticle material, so its secretory activity links an underlying tissue to the animal’s external interface. Because the product is organized into multiple layers, hypodermal secretion contributes not only to coverage but also to matrix architecture that affects support, permeability, and environmental interactions. This makes hypodermis-cuticle relationships relevant to extracellular-matrix biology.
Molting separates successive growth phases by replacing the existing layer with a new one. During the four larval molts, this renewal allows C. elegans to increase in size without losing a defined body shape or mechanical boundary. Following cuticle remodeling across these transitions can therefore link developmental timing to structural changes and to the broader process of larval maturation.
Cuticle condition can influence locomotion and permeability because the layer forms the worm’s mechanically important boundary with its environment. A structural defect may consequently appear as a change in movement, altered access of chemicals, or impaired environmental interaction. These outcomes make cuticle phenotypes useful for connecting matrix organization with organism-level effects rather than examining structure in isolation.
A basic cuticle analysis can compare animals at different larval stages and record whether defects emerge around a molt or at another developmental point. Researchers can then relate visible phenotypes to the cuticle’s replacement cycle, body-shape maintenance, and developmental transitions. This time-resolved approach helps distinguish a general structural abnormality from a problem associated specifically with remodeling.
Visible cuticle defects provide an accessible readout for genetic analysis because changes in matrix structure can be linked to altered phenotypes. The same defects also support toxicological analysis, where chemical-related effects can be evaluated through cuticle-associated changes. In both contexts, C. elegans connects extracellular-matrix biology with organism-level observations that are practical to compare across developmental stages.
The cuticle is a defined interface through which the worm encounters pathogens and chemicals, making its condition relevant to host-environment relationships. Changes in structure or permeability may alter how those interactions are expressed, while resulting phenotypes can reveal biological effects. This application extends cuticle research beyond development and mechanics to questions about environmental challenge and organismal response.