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On the Evolution of Plant Secondary Chemical Diversity and Discussion
by
Richard D. Firn
, S. B. Malcolm
, Clive G. Jones
in
Biosynthesis
/ Capital costs
/ Chemicals
/ Cost estimates
/ Enzymes
/ Evolution
/ Herbivores
/ Metabolism
/ Metabolites
/ Plants
1991
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Do you wish to request the book?
On the Evolution of Plant Secondary Chemical Diversity and Discussion
by
Richard D. Firn
, S. B. Malcolm
, Clive G. Jones
in
Biosynthesis
/ Capital costs
/ Chemicals
/ Cost estimates
/ Enzymes
/ Evolution
/ Herbivores
/ Metabolism
/ Metabolites
/ Plants
1991
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On the Evolution of Plant Secondary Chemical Diversity and Discussion
Journal Article
On the Evolution of Plant Secondary Chemical Diversity and Discussion
1991
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Overview
A common-sense evolutionary scenario predicts that well-defended plants should have a moderate diversity of secondary compounds with high biological activity. We contend that plants actually contain a very high diversity of mostly inactive secondary compounds. These patterns result because compounds arising via mutation have an inherently low probability of possessing any biological activity. Only those plants that make a lot of compounds will be well defended because only high diversity confers a reasonable probability of producing active compounds. Inactive compounds are retained, not eliminated, because they increase the probability of producing new active compounds. Plants should therefore have predictable metabolic traits maximizing secondary chemical diversity while minimizing cost. Our hypothesis has important implications to the study of the evolution of plant defence.
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