Progeny Production
Progeny Production - Related Videos
08:36
Modified ES / OP9 Co-Culture Protocol Provides Enhanced Characterization of Hematopoietic Progeny
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Cited by 12 •
2011
mStrawberry OP9 cells allow for complete evaluation of all ES-derived progeny from co-culture.
08:39
Shifting Zebrafish Lethal Skeletal Mutant Penetrance by Progeny Testing
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Cited by 8 •
2017
The goal of this protocol is to alter the penetrance of lethal skeletal mutant phenotypes in zebrafish by selective breeding. Lethal mutants cannot be grown to adulthood and bred themselves, therefore this protocol describes a method for tracking and selecting penetrance through multiple generations by progeny testing.
08:59
Identification Of Erythromyeloid Progenitors And Their Progeny In The Mouse Embryo By Flow Cytometry
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Cited by 13 •
2017
While infiltrating macrophages are continuously recruited to adult tissues from circulating precursors, resident macrophages seed their tissue during development, where they are maintained without further input from progenitors. The progenitors for resident macrophages were recently identified. Here, we present methods for the genetic fate mapping of the resident macrophage progenitors.
15:40
The Neuroblast Assay: An Assay for the Generation and Enrichment of Neuronal Progenitor Cells from Differentiating Neural Stem Cell Progeny Using Flow Cytometry
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Cited by 17 •
2012
This video protocol demonstrates a novel method for the generation and subsequent purification of neuronal progenitor cells from a renewable source of neural stem cells (NSCs) based on their physical (size and internal granularity) and fluorescent properties using flow cytometry technology.
08:49
Floral-Dip Transformation of Flax (Linum usitatissimum) to Generate Transgenic Progenies with a High Transformation Rate
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Cited by 37 •
2014
Here, we present a protocol to transform flax using Agrobacterium-mediated plant transformation via floral-dip. This protocol is simple to perform and inexpensive, yet yields a higher transformation rate than the current available methods for flax transformation.
FAQs
Sexual reproduction reshuffles hereditary information because meiosis generates genetically distinct gametes and fertilization combines genomes from two parents. Asexual reproduction uses one parent and generally produces offspring with little genetic change. This contrast affects how quickly variation appears within a lineage, making the reproductive route important when studying inheritance, adaptation, or population-level change.
Meiosis contributes by producing gametes that differ genetically, while fertilization brings parental genomes together in a new combination. Their sequential effects help explain why sexually produced offspring can differ from one another and from their parents. Examining these stages allows biologists to connect reproductive events with inheritance patterns and variation across generations.
The number and genetic characteristics of offspring affect how populations change over time. Reproductive fitness can be examined through the success of organisms in producing progeny and transmitting traits, while population dynamics considers the resulting changes in population growth and variation. Together, these perspectives show how reproduction links individual performance with broader biological patterns.
In controlled reproduction, researchers manage which organisms contribute to successive generations so that inherited traits can be compared systematically. Observing progeny alongside their parents helps reveal how characteristics are transmitted and whether offspring show genetic differences. This approach is especially useful in laboratory research and breeding studies where reproductive outcomes can be examined under defined conditions.
Studies of progeny production support genetics, animal and plant breeding, conservation, and laboratory biology. In genetics, offspring help researchers examine transmission of traits. Breeding programs use controlled reproduction to evaluate inherited characteristics, while conservation research considers continuation of lineages and population variation. Laboratory investigations can use successive generations to connect reproduction with development and inheritance.
Researchers can use successive generations to examine inheritance, development, reproductive fitness, and changes in population structure or growth. Comparing parents and progeny provides information about trait transmission, whereas tracking populations reveals broader patterns of variation. These outcomes make reproduction a useful framework for connecting individual life-history processes with genetic and ecological questions in biology.