Avian Embryonic Development
Avian Embryonic Development - Related Videos
14:02
Isolation and Culture of Avian Embryonic Valvular Progenitor Cells
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Cited by 4 •
2010
This article will provide a method for isolating and culturing quail or chicken HH14- valve endocardial cells and HH25 valve cushion mesenchymal cells.
11:27
Selective Tracing of Auditory Fibers in the Avian Embryonic Vestibulocochlear Nerve
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Cited by 3 •
2013
Here we describe a microdissection technique followed by fluorescent dye injection into the acoustic ganglion of early chick embryos for selective tracing of auditory axon fibers in the nerve and hindbrain.
10:51
A System for ex vivo Culturing of Embryonic Pancreas
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Cited by 23 •
2012
Here, we describe a method for isolation, culture and manipulation of mouse embryonic pancreas. This represents an excellent ex vivo system for studying various aspects of pancreatic development, including morphogenesis, differentiation and growth. Pancreatic bud explants can be cultured for several days and used in a range of different applications, including whole-mount immunofluorescence and live imaging.
04:10
Creating Avian Forebrain Chimeras to Assess Facial Development
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Cited by 1 •
2021
This article describes a tissue transplantation technique that was designed to test the signaling and patterning properties of basal forebrain during craniofacial development.
08:52
Microinjection-based System for In Vivo Implantation of Embryonic Cardiomyocytes in the Avian Embryo
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2019
In this method, embryonic cardiac tissues are surgically microdissected, dissociated, fluorescently labeled, and implanted into host embryonic tissues. This provides a platform for studying the individual or tissue level developmental organization under ectopic hemodynamic conditions, and/or altered paracrine/juxtacrine environments.
FAQs
Cleavage produces early cellular divisions, after which gastrulation rearranges cells into the three germ layers. These layers provide the foundational tissues for later body formation. Subsequent neurulation and organogenesis depend on this earlier organization, so examining the transition from cleavage to gastrulation helps developmental biologists connect early cell movements with the emergence of the vertebrate body plan.
Organ formation depends on coordinated signaling, cell movements, and interactions among developing tissues. These processes help translate the earlier body plan into distinct organs during organogenesis, while neurulation establishes important early organization. Studying these relationships allows researchers to ask how local cellular behaviors and communication produce reproducible anatomical patterns in a vertebrate embryo.
Together, the yolk and extraembryonic membranes support development beyond the embryonic cell layers themselves. The yolk supplies nutrients, while the membranes contribute to gas exchange and protection. Considering these structures alongside the embryo clarifies how development depends on both tissue patterning within the embryo and supportive systems that maintain its conditions.
Because researchers can directly observe and experimentally manipulate early chick embryos, they can examine developmental events as they occur and test questions about gene function, tissue patterning, and organ formation. Findings are especially informative when they illuminate mechanisms conserved across vertebrate development, linking a tractable model to broader biological principles.
A study can pair direct observation of an early embryo with an experimental manipulation and then examine resulting developmental changes. Interpreting those changes in relation to tissue patterning or organ formation helps connect gene function with developmental outcomes. This approach links an intervention to visible changes in the embryo rather than relying only on final anatomy.
The system supports investigations that connect cell behavior with larger-scale developmental outcomes. Researchers can examine how signaling pathways, cell movements, and tissue interactions contribute to body patterning and organ formation, while also considering the supportive roles of the yolk and extraembryonic membranes. These studies help relate cellular mechanisms to conserved principles of vertebrate development.