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Published by Springer-Verlag Publishing, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: Salish Sea Books, Bellingham, WA, U.S.A.
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Condition: Very Good. 3. Very Good; Hardcover; Light wear to the covers; Unblemished textblock edges; The endpapers and all text pages are bright and unmarked; The binding is tight with a straight spine; This book will be shipped in a sturdy cardboard box with foam padding; Medium Format (8.5" - 9.75" tall); Green and tan covers with title in white lettering; 3rd Edition; 2010, Springer-Verlag Publishing; 664 pages; "Quantitative Genetics in Maize Breeding (Handbook of Plant Breeding)," by Arnel R. Hallauer, et al.
Published by Springer-Verlag Publishing, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: Salish Sea Books, Bellingham, WA, U.S.A.
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Condition: Like New. 3. Like New; Hardcover; Close to new condition; Covers are still glossy with âstraight" edge-corners; Unblemished textblock edges; The endpapers and all text pages are bright and unmarked; Binding is tight with a straight spine; This book will be stored and delivered in a sturdy cardboard box with foam padding; Medium Format (8.5" - 9.75" tall); Green and tan covers with title in white lettering; 3rd Edition; 2010, Springer-Verlag Publishing; 664 pages; "Quantitative Genetics in Maize Breeding (Handbook of Plant Breeding)," by Arnel R. Hallauer, et al.
Published by Springer (edition Softcover reprint of hardcover 3rd ed. 2010), 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: BooksRun, Philadelphia, PA, U.S.A.
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Paperback. Condition: Very Good. Ship within 24hrs. Satisfaction 100% guaranteed. APO/FPO addresses supported Softcover reprint of hardcover 3rd ed. 2010.
Published by Iowa State University Press, 1981
ISBN 10: 0813815207ISBN 13: 9780813815206
Seller: Idaho Youth Ranch Books, Boise, ID, U.S.A.
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Published by Springer, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: booksXpress, Bayonne, NJ, U.S.A.
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Condition: Very Good. Book is in Used-VeryGood condition. Pages and cover are clean and intact. Used items may not include supplementary materials such as CDs or access codes. May show signs of minor shelf wear and contain very limited notes and highlighting. 2.
Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer New York, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: moluna, Greven, Germany
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Condition: New. Dieser Artikel ist ein Print on Demand Artikel und wird nach Ihrer Bestellung fuer Sie gedruckt. This updated version of, the what is considered to be, the Maize Breeding Bible A unique and permanent contribution to breeders, geneticists, students, and policy makersIntegrative text which promotes collabortive work on sustainable crop improvement and .
Published by Springer New York, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: moluna, Greven, Germany
Book Print on Demand
Condition: New. Dieser Artikel ist ein Print on Demand Artikel und wird nach Ihrer Bestellung fuer Sie gedruckt. This updated version of, the what is considered to be, the Maize Breeding Bible A unique and permanent contribution to breeders, geneticists, students, and policy makersIntegrative text which promotes collabortive work on sustainable crop improvement and .
Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: Lucky's Textbooks, Dallas, TX, U.S.A.
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Condition: New.
Published by Springer, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: Lucky's Textbooks, Dallas, TX, U.S.A.
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Condition: New.
Published by Springer New York Sep 2010, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: BuchWeltWeit Ludwig Meier e.K., Bergisch Gladbach, Germany
Book Print on Demand
Buch. Condition: Neu. This item is printed on demand - it takes 3-4 days longer - Neuware -Maize is used in an endless list of products that are directly or indirectly related to human nutrition and food security. Maize is grown in producer farms, farmers depend on genetically improved cultivars, and maize breeders develop improved maize cultivars for farmers. Nikolai I. Vavilov defined plant breeding as plant evolution directed by man. Among crops, maize is one of the most successful examples for breeder-directed evolution. Maize is a cross-pollinated species with unique and separate male and female organs allowing techniques from both self and cross-pollinated crops to be utilized. As a consequence, a diverse set of breeding methods can be utilized for the development of various maize cultivar types for all economic conditions (e.g., improved populations, inbred lines, and their hybrids for different types of markets). Maize breeding is the science of maize cultivar development. Public investment in maize breeding from 1865 to 1996 was $3 billion (Crosbie et al., 2004) and the return on investment was $260 billion as a consequence of applied maize breeding, even without full understanding of the genetic basis of heterosis. The principles of quantitative genetics have been successfully applied by maize breeders worldwide to adapt and improve germplasm sources of cultivars for very simple traits (e.g. maize flowering) and very complex ones (e.g., grain yield). For instance, genomic efforts have isolated early-maturing genes and QTL for potential MAS but very simple and low cost phenotypic efforts have caused significant and fast genetic progress across genotypes moving elite tropical and late temperate maize northward with minimal investment. Quantitative genetics has allowed the integration of pre-breeding with cultivar development by characterizing populations genetically, adapting them to places never thought of (e.g., tropical to short-seasons), improving them by all sorts of intra- and inter-population recurrent selection methods, extracting lines with more probability of success, and exploiting inbreeding and heterosis. Quantitative genetics in maize breeding has improved the odds of developing outstanding maize cultivars from genetically broad based improved populations such as B73. The inbred-hybrid concept in maize was a public sector invention 100 years ago and it is still considered one of the greatest achievements in plant breeding. Maize hybrids grown by farmers today are still produced following this methodology and there is still no limit to genetic improvement when most genes are targeted in the breeding process. Heterotic effects are unique for each hybrid and exotic genetic materials (e.g., tropical, early maturing) carry useful alleles for complex traits not present in the B73 genome just sequenced while increasing the genetic diversity of U.S. hybrids. Breeding programs based on classical quantitative genetics and selection methods will be the basis for proving theoretical approaches on breeding plans based on molecular markers. Mating designs still offer large sample sizes when compared to QTL approaches and there is still a need to successful integration of these methods. There is a need to increase the genetic diversity of maize hybrids available in the market (e.g., there is a need to increase the number of early maturing testers in the northern U.S.). Public programs can still develop new and genetically diverse products not available in industry. However, public U.S. maize breeding programs have either been discontinued or are eroding because of decreasing state and federal funding toward basic science. Future significant genetic gains in maize are dependent on the incorporation of useful and unique genetic diversity not available in industry (e.g., NDSU EarlyGEM lines). The integration of pre-breeding methods with cultivar development should enhance future breeding efforts to maintain active public breeding programs not only adapting and improving genetically broad-based germplasm but also 680 pp. Englisch.
Published by Springer Nature Singapore Nov 2012, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: BuchWeltWeit Ludwig Meier e.K., Bergisch Gladbach, Germany
Book Print on Demand
Taschenbuch. Condition: Neu. This item is printed on demand - it takes 3-4 days longer - Neuware -Maize is used in an endless list of products that are directly or indirectly related to human nutrition and food security. Maize is grown in producer farms, farmers depend on genetically improved cultivars, and maize breeders develop improved maize cultivars for farmers. Nikolai I. Vavilov defined plant breeding as plant evolution directed by man. Among crops, maize is one of the most successful examples for breeder-directed evolution. Maize is a cross-pollinated species with unique and separate male and female organs allowing techniques from both self and cross-pollinated crops to be utilized. As a consequence, a diverse set of breeding methods can be utilized for the development of various maize cultivar types for all economic conditions (e.g., improved populations, inbred lines, and their hybrids for different types of markets). Maize breeding is the science of maize cultivar development. Public investment in maize breeding from 1865 to 1996 was $3 billion (Crosbie et al., 2004) and the return on investment was $260 billion as a consequence of applied maize breeding, even without full understanding of the genetic basis of heterosis. The principles of quantitative genetics have been successfully applied by maize breeders worldwide to adapt and improve germplasm sources of cultivars for very simple traits (e.g. maize flowering) and very complex ones (e.g., grain yield). For instance, genomic efforts have isolated early-maturing genes and QTL for potential MAS but very simple and low cost phenotypic efforts have caused significant and fast genetic progress across genotypes moving elite tropical and late temperate maize northward with minimal investment. Quantitative genetics has allowed the integration of pre-breeding with cultivar development by characterizing populations genetically, adapting them to places never thought of (e.g., tropical to short-seasons), improving them by all sorts of intra- and inter-population recurrent selection methods, extracting lines with more probability of success, and exploiting inbreeding and heterosis. Quantitative genetics in maize breeding has improved the odds of developing outstanding maize cultivars from genetically broad based improved populations such as B73. The inbred-hybrid concept in maize was a public sector invention 100 years ago and it is still considered one of the greatest achievements in plant breeding. Maize hybrids grown by farmers today are still produced following this methodology and there is still no limit to genetic improvement when most genes are targeted in the breeding process. Heterotic effects are unique for each hybrid and exotic genetic materials (e.g., tropical, early maturing) carry useful alleles for complex traits not present in the B73 genome just sequenced while increasing the genetic diversity of U.S. hybrids. Breeding programs based on classical quantitative genetics and selection methods will be the basis for proving theoretical approaches on breeding plans based on molecular markers. Mating designs still offer large sample sizes when compared to QTL approaches and there is still a need to successful integration of these methods. There is a need to increase the genetic diversity of maize hybrids available in the market (e.g., there is a need to increase the number of early maturing testers in the northern U.S.). Public programs can still develop new and genetically diverse products not available in industry. However, public U.S. maize breeding programs have either been discontinued or are eroding because of decreasing state and federal funding toward basic science. Future significant genetic gains in maize are dependent on the incorporation of useful and unique genetic diversity not available in industry (e.g., NDSU EarlyGEM lines). The integration of pre-breeding methods with cultivar development should enhance future breeding efforts to maintain active public breeding programs not only adapting and improving genetically broad-based germplasm but also 664 pp. Englisch.
Published by Springer New York, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: AHA-BUCH GmbH, Einbeck, Germany
Book
Buch. Condition: Neu. Druck auf Anfrage Neuware - Printed after ordering - Maize is used in an endless list of products that are directly or indirectly related to human nutrition and food security. Maize is grown in producer farms, farmers depend on genetically improved cultivars, and maize breeders develop improved maize cultivars for farmers. Nikolai I. Vavilov defined plant breeding as plant evolution directed by man. Among crops, maize is one of the most successful examples for breeder-directed evolution. Maize is a cross-pollinated species with unique and separate male and female organs allowing techniques from both self and cross-pollinated crops to be utilized. As a consequence, a diverse set of breeding methods can be utilized for the development of various maize cultivar types for all economic conditions (e.g., improved populations, inbred lines, and their hybrids for different types of markets). Maize breeding is the science of maize cultivar development. Public investment in maize breeding from 1865 to 1996 was $3 billion (Crosbie et al., 2004) and the return on investment was $260 billion as a consequence of applied maize breeding, even without full understanding of the genetic basis of heterosis. The principles of quantitative genetics have been successfully applied by maize breeders worldwide to adapt and improve germplasm sources of cultivars for very simple traits (e.g. maize flowering) and very complex ones (e.g., grain yield). For instance, genomic efforts have isolated early-maturing genes and QTL for potential MAS but very simple and low cost phenotypic efforts have caused significant and fast genetic progress across genotypes moving elite tropical and late temperate maize northward with minimal investment. Quantitative genetics has allowed the integration of pre-breeding with cultivar development by characterizing populations genetically, adapting them to places never thought of (e.g., tropical to short-seasons), improving them by all sorts of intra- and inter-population recurrent selection methods, extracting lines with more probability of success, and exploiting inbreeding and heterosis. Quantitative genetics in maize breeding has improved the odds of developing outstanding maize cultivars from genetically broad based improved populations such as B73. The inbred-hybrid concept in maize was a public sector invention 100 years ago and it is still considered one of the greatest achievements in plant breeding. Maize hybrids grown by farmers today are still produced following this methodology and there is still no limit to genetic improvement when most genes are targeted in the breeding process. Heterotic effects are unique for each hybrid and exotic genetic materials (e.g., tropical, early maturing) carry useful alleles for complex traits not present in the B73 genome just sequenced while increasing the genetic diversity of U.S. hybrids. Breeding programs based on classical quantitative genetics and selection methods will be the basis for proving theoretical approaches on breeding plans based on molecular markers. Mating designs still offer large sample sizes when compared to QTL approaches and there is still a need to successful integration of these methods. There is a need to increase the genetic diversity of maize hybrids available in the market (e.g., there is a need to increase the number of early maturing testers in the northern U.S.). Public programs can still develop new and genetically diverse products not available in industry. However, public U.S. maize breeding programs have either been discontinued or are eroding because of decreasing state and federal funding toward basic science. Future significant genetic gains in maize are dependent on the incorporation of useful and unique genetic diversity not available in industry (e.g., NDSU EarlyGEM lines). The integration of pre-breeding methods with cultivar development should enhance future breeding efforts to maintain active public breeding programs not only adapting and.
Published by Springer Nature Singapore, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: AHA-BUCH GmbH, Einbeck, Germany
Book
Taschenbuch. Condition: Neu. Druck auf Anfrage Neuware - Printed after ordering - Maize is used in an endless list of products that are directly or indirectly related to human nutrition and food security. Maize is grown in producer farms, farmers depend on genetically improved cultivars, and maize breeders develop improved maize cultivars for farmers. Nikolai I. Vavilov defined plant breeding as plant evolution directed by man. Among crops, maize is one of the most successful examples for breeder-directed evolution. Maize is a cross-pollinated species with unique and separate male and female organs allowing techniques from both self and cross-pollinated crops to be utilized. As a consequence, a diverse set of breeding methods can be utilized for the development of various maize cultivar types for all economic conditions (e.g., improved populations, inbred lines, and their hybrids for different types of markets). Maize breeding is the science of maize cultivar development. Public investment in maize breeding from 1865 to 1996 was $3 billion (Crosbie et al., 2004) and the return on investment was $260 billion as a consequence of applied maize breeding, even without full understanding of the genetic basis of heterosis. The principles of quantitative genetics have been successfully applied by maize breeders worldwide to adapt and improve germplasm sources of cultivars for very simple traits (e.g. maize flowering) and very complex ones (e.g., grain yield). For instance, genomic efforts have isolated early-maturing genes and QTL for potential MAS but very simple and low cost phenotypic efforts have caused significant and fast genetic progress across genotypes moving elite tropical and late temperate maize northward with minimal investment. Quantitative genetics has allowed the integration of pre-breeding with cultivar development by characterizing populations genetically, adapting them to places never thought of (e.g., tropical to short-seasons), improving them by all sorts of intra- and inter-population recurrent selection methods, extracting lines with more probability of success, and exploiting inbreeding and heterosis. Quantitative genetics in maize breeding has improved the odds of developing outstanding maize cultivars from genetically broad based improved populations such as B73. The inbred-hybrid concept in maize was a public sector invention 100 years ago and it is still considered one of the greatest achievements in plant breeding. Maize hybrids grown by farmers today are still produced following this methodology and there is still no limit to genetic improvement when most genes are targeted in the breeding process. Heterotic effects are unique for each hybrid and exotic genetic materials (e.g., tropical, early maturing) carry useful alleles for complex traits not present in the B73 genome just sequenced while increasing the genetic diversity of U.S. hybrids. Breeding programs based on classical quantitative genetics and selection methods will be the basis for proving theoretical approaches on breeding plans based on molecular markers. Mating designs still offer large sample sizes when compared to QTL approaches and there is still a need to successful integration of these methods. There is a need to increase the genetic diversity of maize hybrids available in the market (e.g., there is a need to increase the number of early maturing testers in the northern U.S.). Public programs can still develop new and genetically diverse products not available in industry. However, public U.S. maize breeding programs have either been discontinued or are eroding because of decreasing state and federal funding toward basic science. Future significant genetic gains in maize are dependent on the incorporation of useful and unique genetic diversity not available in industry (e.g., NDSU EarlyGEM lines). The integration of pre-breeding methods with cultivar development should enhance future breeding efforts to maintain active public breeding programs not only adapting and.
Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: GreatBookPricesUK, Castle Donington, DERBY, United Kingdom
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Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Published by Springer Verlag, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
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Paperback. Condition: Brand New. 3rd edition. 680 pages. 8.75x6.00x1.25 inches. In Stock.
Published by Springer, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: GreatBookPrices, Columbia, MD, U.S.A.
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Published by Springer/Sci-Tech/Trade, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: Kennys Bookshop and Art Galleries Ltd., Galway, GY, Ireland
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Condition: New. This volume covers current genetic techniques in maize, one of the most successful examples of breeder-directed evolution. Contents include principles and data that can be applied to maximize genetic improvement of germplasm and develop superior genotypes. Series: Handbook of Plant Breeding. Num Pages: 680 pages, biography. BIC Classification: PST; PSTL. Category: (P) Professional & Vocational. Dimension: 235 x 155 x 35. Weight in Grams: 1027. . 2012. 3rd Edition. paperback. . . . .
Published by Springer, 2010
ISBN 10: 1441907653ISBN 13: 9781441907653
Seller: Kennys Bookshop and Art Galleries Ltd., Galway, GY, Ireland
Book
Condition: New. This volume covers current genetic techniques in maize, one of the most successful examples of breeder-directed evolution. Contents include principles and data that can be applied to maximize genetic improvement of germplasm and develop superior genotypes. Series: Handbook of Plant Breeding. Num Pages: 680 pages, biography. BIC Classification: PSB; PSTL. Category: (P) Professional & Vocational. Dimension: 235 x 155 x 44. Weight in Grams: 1040. . 2010. 3rd ed. 2010. hardcover. . . . .
Published by Springer/Sci-Tech/Trade, 2012
ISBN 10: 1461426553ISBN 13: 9781461426554
Seller: Kennys Bookstore, Olney, MD, U.S.A.
Book
Condition: New. This volume covers current genetic techniques in maize, one of the most successful examples of breeder-directed evolution. Contents include principles and data that can be applied to maximize genetic improvement of germplasm and develop superior genotypes. Series: Handbook of Plant Breeding. Num Pages: 680 pages, biography. BIC Classification: PST; PSTL. Category: (P) Professional & Vocational. Dimension: 235 x 155 x 35. Weight in Grams: 1027. . 2012. 3rd Edition. paperback. . . . . Books ship from the US and Ireland.