Canine Ovarian Tissue
Canine Ovarian Tissue - Related Videos
11:41
Derivation and Differentiation of Canine Ovarian Mesenchymal Stem Cells
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Cited by 10 •
2018
Herein, we describe a method for the isolation, expansion, and differentiation of mesenchymal stem cells from canine ovarian tissue.
09:34
In Vivo Canine Muscle Function Assay
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Cited by 19 •
2011
We describe a minimally-invasive and painless method to measure canine hindlimb muscle strength and muscle response to repeated eccentric contractions.
09:37
Isolation and Expansion of Adult Canine Hippocampal Neural Precursors
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Cited by 3 •
2016
The canine brain is a valuable model in which to study adult neurogenesis. Presented here are protocols for isolating and expanding adult canine hippocampal neural precursor cells from primary brain tissue.
11:51
Preparation of Mitochondria from Ovarian Cancer Tissues and Control Ovarian Tissues for Quantitative Proteomics Analysis
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Cited by 3 •
2019
This article presents a protocol of differential-speed centrifugation in combination with density gradient centrifugation to separate mitochondria from human ovarian cancer tissues and control ovarian tissues for quantitative proteomics analysis, resulting in a high-quality mitochondrial sample and high-throughput and high-reproducibility quantitative proteomics analysis of a human ovarian cancer mitochondrial proteome.
08:24
Isolation and Culture of Primary Endothelial Cells from Canine Arteries and Veins
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Cited by 11 •
2016
Novel isolation methods of primary endothelial cells from blood vessels are needed. This protocol describes a new technique that completely inverts blood vessels of interest, exposing only the endothelial side to enzymatic digestion. The resulting pure endothelial cell culture can be used to study cardiovascular diseases, disease modelling, and angiogenesis.
FAQs
Follicle development relies on communication among the oocyte and its surrounding granulosa and theca cells rather than on any one cell type acting independently. Their coordinated activity supports maturation and contributes to follicle growth and steroid production. Studying these relationships helps developmental biologists connect cellular interactions with the organization and function of the mammalian ovary.
Endocrine signals regulate several linked events, including follicle growth, steroid production, and ovulation. This makes hormonal regulation an important framework for interpreting changes observed in canine ovarian tissue. Researchers can therefore examine ovarian development not only as a local tissue process, but also as a response to broader reproductive signals that influence follicular progression.
Age-related changes provide a developmental context for evaluating how ovarian organization and fertility vary over time. Examining these changes can help distinguish features associated with germ-cell development from those linked to reproductive aging. This perspective is relevant when characterizing fertility patterns and when comparing ovarian processes across different stages of mammalian reproductive biology.
Researchers can characterize germ-cell development, ovarian organization, and the cellular relationships that support follicle maturation. These features connect tissue-level structure with developmental events occurring within the ovary. In developmental biology, such analysis helps clarify how reproductive tissue is organized and how its organization relates to fertility and broader mammalian developmental processes.
Studies of canine ovarian tissue provide developmental and cellular context for work on tissue preservation and assisted reproduction. By examining follicle maturation, ovarian organization, and reproductive signaling, researchers can relate tissue characteristics to reproductive potential. The same investigations may help frame questions about how preserved ovarian material could be evaluated within broader reproductive research.
Canine ovarian tissue offers a mammalian system for comparing germ-cell development, follicular organization, endocrine regulation, and age-related fertility changes. Comparisons with other mammals can reveal which reproductive features are shared and which are species-associated. This context also supports research into reproductive disorders by linking canine observations with broader questions in mammalian reproductive development.