Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline
For several decades botanists have been impressed by the discovery that the distribution of secondary plant substances follows the general lines of plant relationships. However, it soon became clear that little was to be gained from the study of individual compounds and their natural distribu­ tion. Therefore, more comprehensive studies were attempt­ ed in which the secondary chemistry of a major plant group was carefully studied and evaluated in the broader context of comparative phyhemistry. Holger Erdtman's admir­ able work on Coniferae is the foremost example of this kind. Since then, there has been an upswing in the study of the biosynthesis of secondary plant substances and it has become quite customary to make use of biosynthetic knowledge in interpreting chemosystematic evidence. More­ over, since taxonomists have insisted that use be made of all potentially available evidence for building classifications, it has been claimed that chemosystematics too should con­ sider the whole array of constituents present in a major taxon. However, in practice it has proved difficult to utilize fully the potential of natural product chemistry and biosynthetic studies for plant systematics and evolution, because bota­ nists found themselves rather disorientated by the scattered, often hardly accessible chemical literature and the fact that the chemical evidence was difficult for them to evaluate! Although the pioneering work of E. C.
"1111726372"
Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline
For several decades botanists have been impressed by the discovery that the distribution of secondary plant substances follows the general lines of plant relationships. However, it soon became clear that little was to be gained from the study of individual compounds and their natural distribu­ tion. Therefore, more comprehensive studies were attempt­ ed in which the secondary chemistry of a major plant group was carefully studied and evaluated in the broader context of comparative phyhemistry. Holger Erdtman's admir­ able work on Coniferae is the foremost example of this kind. Since then, there has been an upswing in the study of the biosynthesis of secondary plant substances and it has become quite customary to make use of biosynthetic knowledge in interpreting chemosystematic evidence. More­ over, since taxonomists have insisted that use be made of all potentially available evidence for building classifications, it has been claimed that chemosystematics too should con­ sider the whole array of constituents present in a major taxon. However, in practice it has proved difficult to utilize fully the potential of natural product chemistry and biosynthetic studies for plant systematics and evolution, because bota­ nists found themselves rather disorientated by the scattered, often hardly accessible chemical literature and the fact that the chemical evidence was difficult for them to evaluate! Although the pioneering work of E. C.
109.99 In Stock
Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline

Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline

by O.R. Gottlieb
Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline

Micromolecular Evolution, Systematics and Ecology: An Essay into a Novel Botanical Discipline

by O.R. Gottlieb

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$109.99 
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Overview

For several decades botanists have been impressed by the discovery that the distribution of secondary plant substances follows the general lines of plant relationships. However, it soon became clear that little was to be gained from the study of individual compounds and their natural distribu­ tion. Therefore, more comprehensive studies were attempt­ ed in which the secondary chemistry of a major plant group was carefully studied and evaluated in the broader context of comparative phyhemistry. Holger Erdtman's admir­ able work on Coniferae is the foremost example of this kind. Since then, there has been an upswing in the study of the biosynthesis of secondary plant substances and it has become quite customary to make use of biosynthetic knowledge in interpreting chemosystematic evidence. More­ over, since taxonomists have insisted that use be made of all potentially available evidence for building classifications, it has been claimed that chemosystematics too should con­ sider the whole array of constituents present in a major taxon. However, in practice it has proved difficult to utilize fully the potential of natural product chemistry and biosynthetic studies for plant systematics and evolution, because bota­ nists found themselves rather disorientated by the scattered, often hardly accessible chemical literature and the fact that the chemical evidence was difficult for them to evaluate! Although the pioneering work of E. C.

Product Details

ISBN-13: 9783540116554
Publisher: Springer Berlin Heidelberg
Publication date: 09/20/1982
Pages: 172
Product dimensions: 6.69(w) x 9.61(h) x 0.02(d)

Table of Contents

1 Allelochemics as Systematic Markers.- Why Micromolecular Systematics.- Problems of Micromolecular Systematics.- 2 Postulates of Micromolecular Evolution.- Principles of Micromolecular Systematics.- Principles of Ecogeographical Phyhemistry.- 3 Is Integration of Allelochemics and Morphology Systematically Relevant?.- Biochemical Evolution.- Macromolecules versus Micromolecules.- 4 Evolution of Flavonoids in Embryobionta.- Chemistry and Systematics.- Chemistry and Function.- 5 Evolution of Allelochemics in Angiospermae.- Evolution of Shikimate Derivatives.- Evolution of Acetate Derivatives.- Evolution of Isopentanylated Phenolics.- Chemistry and Systematics.- 6 Evolution of Benzylisoquinolines in Magnoliidae.- Chemistry.- Chemistry and Systematics.- 7 Evolution of Iridoids in Sympetalae.- Chemistry.- Chemistry and Systematics.- 8 Evolution of Polyacetylenes in Sympetalae.- Chemistry.- Chemistry and Systematics.- 9 Evolution of Indole Alkaloids in Apocynaceae.- Chemistry.- Chemistry and Systematics.- 10 Evolution of Quinolones and Coumarins in Rutaceae.- Chemistry.- Chemistry and Systematics.- Systematics and Geography.- 11 Evolution of Xanthones in Gentianaceae and Guttiferae.- Chemistry.- Chemistry and Systematics.- Systematics and Geography.- 12 Chemosystematics of Papilionoideae.- Flavonoids.- Isoflavonoids.- Quinolizidines.- Non-Protein Amino Acids.- Chemistry and Systematics.- 13 Evolution of Quinolizidines in Papilionoideae.- Chemistry.- Chemistry and Systematics.- Systematics and Geography.- 14 Evolution of Flavonoids in Tephrosieae.- Chemistry.- Chemistry and Systematics.- Chemistry, Morphology and Geography.- 15 Evolution of Neolignans and Arylpyrones in Aniba.- Chemistry.- Chemistry and Systematics.- Chemistry and Morphology.- Systematics and Geography.- 16Blue Flower Pigmentation and Evolutionary Advancement.- Chemistry.- Chemistry and Systematics.- 17 Is Integration of Allelochemics, Morphology and Ecogeography Systematically Relevant?.- Analytical Perspectives.- Ecogeographical Perspectives.- References.- Chemical Compound Index.- Plant Name Index.
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