Great Plains Genetics is a company that specializes in providing high-quality genetics to farmers and ranchers across the Great Plains region. They offer a wide range of products and services, including seedstock, semen, embryos, and genetic testing. In this blog post, we will explore the world of Great Plains Genetics and discuss some of their most popular products and services.
Genetics play a crucial role in agriculture. Farmers and ranchers rely on genetics to produce crops and livestock that are healthy, productive, and profitable. With the help of modern technology, it is now possible to select for specific traits that are desirable in plants and animals. This has led to significant improvements in crop yields, animal health, and overall profitability.
Great Plains Genetics offers a wide range of products to help farmers and ranchers improve their operations. Some of their most popular products include:
Using Great Plains Genetics products can provide a number of benefits to farmers and ranchers. Some of the key benefits include:
Seedstock refers to breeding stock that is used to produce offspring with desired traits. This includes bulls for breeding cows or heifers for breeding bulls. Great Plains Genetics offers a variety of seedstock from top-quality breeds such as Angus, Hereford, Simmental, Charolais, Gelbvieh, Limousin and Red Angus.
Embryo transfer is a process by which embryos are collected from a donor cow or heifer and transferred into recipient cows or heifers. This allows farmers and ranchers to rapidly improve their herd's genetics by selecting only the best cows or bulls for breeding. Great Plains Genetics offers embryo transfer services as part of their range of products.
Genetic testing is the process of analyzing an animal's DNA to identify its genetic potential for certain traits. This can include traits such as marbling score or feed efficiency. Great Plains Genetics offers genetic testing services to help farmers and ranchers make informed decisions about their breeding programs.
Great Plains Genetics is a company that offers a wide range of products and services to help farmers and ranchers improve their operations. Their focus on genetics allows them to provide high-quality seedstock, semen, embryos, and genetic testing services that can lead to improved productivity, better quality, increased profitability, and sustainability in agriculture. By using Great Plains Genetics products, farmers and ranchers can take advantage of modern technology to produce crops and livestock that are healthy, productive, and profitable.
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Genetic variation in Great Plains Juniperus ; Source: Res. Pap. RM-292. Fort Collins, CO U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest ... An official website of the United States government Home Publications Treesearch Genetic variation in Great Plains Juniperus National Forest Service Library Genetic variation in Great Plains Juniperus Authors: David F. Van Haverbeke, Rudy M. King Station: Rocky Mountain Research Station Source: Res. Pap. RM-292. Fort Collins, CO U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station. 8 p. Fifth-year analyses of Great Plains Juniperus seed sources indicate eastern redcedar should be collected in east-central Nebraska for use throughout the Great Plains; Rocky Mountain juniper seed should be collected from northwest Nebraska, or central Montana, for planting southward through the Great Plains into west-central Kansas west of the 100th meridian. eastern redcedar, J. virginiana, Rocky Mountain juniper, J. scopulorum, cluster discriminant analyses, provenance transfer model analyses, genotype x environment interaction, age/age correlation, adaptive differentiation Van Haverbeke, David F.; King, Rudy M. 1990. Genetic variation in Great Plains Juniperus. Res. Pap. RM-RP.292. Fort Collins, CO U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station. 8 p.
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Apr 8, 2016 ... The prevalence of the photoperiod sensitive alleles Ppd-A1b, Ppd-B1b, and Ppd-D1b has gradually decreased in U.S. Great Plains germplasm over ... Best Practices in Research Reporting Materials, Software and Code Sharing Corrections, Expressions of Concern, and Retractions MANUSCRIPT REVIEW AND PUBLICATION Editorial and Peer Review Process Discover a faster, simpler path to publishing in a high-quality journal. PLOS ONE promises fair, rigorous peer review, broad scope, and wide readership – a perfect fit for your research every time. LEARN MORE SUBMIT NOW ABOUT Allelic Variation in Developmental Genes and Effects on Winter Wheat Heading Date in the U.S. Great Plains Sarah M. Grogan, Gina Brown-Guedira, Scott D. Haley, Gregory S. McMaster, Scott D. Reid, Jared Smith, Patrick F. Byrne Heading date in wheat (Triticum aestivum L.) and other small grain cereals is affected by the vernalization and photoperiod pathways. The reduced-height loci also have an effect on growth and development. Heading date, which occurs just prior to anthesis, was evaluated in a population of 299 hard winter wheat entries representative of the U.S. Great Plains region, grown in nine environments during 2011–2012 and 2012–2013. The germplasm was evaluated for candidate genes at vernalization (Vrn-A1, Vrn-B1, and Vrn-D1), photoperiod (Ppd-A1, Ppd-B1 and Ppd-D1), and reduced-height (Rht-B1 and Rht-D1) loci using polymerase chain reaction (PCR) and Kompetitive Allele Specific PCR (KASP) assays. Our objectives were to determine allelic variants known to affect flowering time, assess the effect of allelic variants on heading date, and investigate changes in the geographic and temporal distribution of alleles and haplotypes. Our analyses enhanced understanding of the roles developmental genes have on the timing of heading date in wheat under varying environmental conditions, which could be used by breeding programs to improve breeding strategies under current and future climate scenarios. The significant main effects and two-way interactions between the candidate genes explained an average of 44% of variability in heading date at each environment. Among the loci we evaluated, most of the variation in heading date was explained by Ppd-D1, Ppd-B1, and their interaction. The prevalence of the photoperiod sensitive alleles Ppd-A1b, Ppd-B1b, and Ppd-D1b has gradually decreased in U.S. Great Plains germplasm over the past century. There is also geographic variation for photoperiod sensitive and reduced-height alleles, with germplasm from breeding programs in the northern Great Plains having greater incidences of the photoperiod sensitive alleles and lower incidence of the semi-dwarf alleles than germplasm from breeding programs in the central or southern plains.