Linked e-resources
Details
Table of Contents
Machine generated contents note: 1. Introduction
1.1. A Matter of Perspective
1.2. The Nature of Feedback
1.3. Which Autotrophs and Which Traits?
1.4. Trait Variation and Trait Diversity
1.5. Which Trophic Interactions?
1.6. Which Ecosystem Processes?
1.7. Webs of Green and Brown
2. The Phytochemical Landscape
2.1. Defining the Phytochemical Landscape
2.2. Variation on the Phytochemical Landscape
3. The Variable Chemistry of Primary Production
3.1. The Challenging Chemistry of Autotrophs
3.2. Origins of Variation in Autotroph Chemistry on the Phytochemical Landscape
3.3. Microbial Symbionts and Variation in Autotroph Chemistry: Whose Phenotype Is It Anyway?
3.4. Summary and Conclusions
4. Effects of Primary Producer Chemistry on Trophic Interactions
4.1. Herbivores and Herbivory: The Interactive Effects of Autotroph Chemistry and Natural Enemies
4.2. Effects of the Phytochemical Landscape on Natural Enemies
5. Effects of Trophic Interactions on the Chemistry of Primary Producers
5.1. Background
5.2. Effects of Herbivores and Predators on Autotroph Community Structure
5.3. Consumer Effects on Succession
Temporal Change on the Phytochemical Landscape
5.4. Phytochemical Induction
A Multiplier of Variation in Autotroph Chemistry on the Phytochemical Landscape
6. Effects of Autotroph Chemistry on Nutrient Dynamics
6.1. The Elements of Life
6.2. Recalcitrant Organic Chemistry
6.3. Nutrients, Stoichiometry, and the Decomposition of Autotroph Residues
6.4. Effects of Autotroph Identity and Diversity on Nutrient Dynamics
6.5. Effects of Phytoplankton Residue Chemistry on Nutrient Dynamics in Aquatic Ecosystems
6.6. Effects of Phytoplankton Stoichiometry on Nutrient Dynamics in Aquatic Ecosystems
7. Effects of Nutrient Availability on the Chemistry of Primary Producers
7.1. Introduction
7.2. Effects of Nutrient Dynamics on the Chemical Phenotype of Individual Autotrophs
7.3. Effects of Nutrient Availability on Primary Producer Diversity
7.4. Evolutionary Effects of Nutrient Availability on Autotroph Chemistry
7.5. Conclusions
8. Linking Trophic Interactions with Ecosystem Nutrient Dynamics on the Phytochemical Landscape
8.1. Putting It All Together: Linking Cycles and Generating Feedback
8.2. From Trophic Interactions to Ecosystem Processes
8.3. Effects of Herbivory on Nutrient Dynamics
8.4. Effects of Predators on Nutrient Dynamics
8.5. Effects of Nutrient Dynamics on Trophic Interactions
8.6. Final Thoughts on Feedback Loops
9. Synthesis and Prospects for Future Work
9.1. Introduction
9.2. Priority 1: Let's Make Some Maps
9.3. Priority 2: Assess the Frequency and Strength of Spatial Correlation
9.4. Priority 3: Understanding Time Lags and the Temporal Scale of Spatial Correlation on the Phytochemical Landscape
9.5. Priority 4: Exploring Variation in the Strength of Feedback between Trophic Interactions and Nutrient Dynamics on the Phytochemical Landscape
9.6. Priority 5: Comparing the Role of the Phytochemical Landscape in Terrestrial and Aquatic Ecosystems
9.7. Concluding Remarks.
1.1. A Matter of Perspective
1.2. The Nature of Feedback
1.3. Which Autotrophs and Which Traits?
1.4. Trait Variation and Trait Diversity
1.5. Which Trophic Interactions?
1.6. Which Ecosystem Processes?
1.7. Webs of Green and Brown
2. The Phytochemical Landscape
2.1. Defining the Phytochemical Landscape
2.2. Variation on the Phytochemical Landscape
3. The Variable Chemistry of Primary Production
3.1. The Challenging Chemistry of Autotrophs
3.2. Origins of Variation in Autotroph Chemistry on the Phytochemical Landscape
3.3. Microbial Symbionts and Variation in Autotroph Chemistry: Whose Phenotype Is It Anyway?
3.4. Summary and Conclusions
4. Effects of Primary Producer Chemistry on Trophic Interactions
4.1. Herbivores and Herbivory: The Interactive Effects of Autotroph Chemistry and Natural Enemies
4.2. Effects of the Phytochemical Landscape on Natural Enemies
5. Effects of Trophic Interactions on the Chemistry of Primary Producers
5.1. Background
5.2. Effects of Herbivores and Predators on Autotroph Community Structure
5.3. Consumer Effects on Succession
Temporal Change on the Phytochemical Landscape
5.4. Phytochemical Induction
A Multiplier of Variation in Autotroph Chemistry on the Phytochemical Landscape
6. Effects of Autotroph Chemistry on Nutrient Dynamics
6.1. The Elements of Life
6.2. Recalcitrant Organic Chemistry
6.3. Nutrients, Stoichiometry, and the Decomposition of Autotroph Residues
6.4. Effects of Autotroph Identity and Diversity on Nutrient Dynamics
6.5. Effects of Phytoplankton Residue Chemistry on Nutrient Dynamics in Aquatic Ecosystems
6.6. Effects of Phytoplankton Stoichiometry on Nutrient Dynamics in Aquatic Ecosystems
7. Effects of Nutrient Availability on the Chemistry of Primary Producers
7.1. Introduction
7.2. Effects of Nutrient Dynamics on the Chemical Phenotype of Individual Autotrophs
7.3. Effects of Nutrient Availability on Primary Producer Diversity
7.4. Evolutionary Effects of Nutrient Availability on Autotroph Chemistry
7.5. Conclusions
8. Linking Trophic Interactions with Ecosystem Nutrient Dynamics on the Phytochemical Landscape
8.1. Putting It All Together: Linking Cycles and Generating Feedback
8.2. From Trophic Interactions to Ecosystem Processes
8.3. Effects of Herbivory on Nutrient Dynamics
8.4. Effects of Predators on Nutrient Dynamics
8.5. Effects of Nutrient Dynamics on Trophic Interactions
8.6. Final Thoughts on Feedback Loops
9. Synthesis and Prospects for Future Work
9.1. Introduction
9.2. Priority 1: Let's Make Some Maps
9.3. Priority 2: Assess the Frequency and Strength of Spatial Correlation
9.4. Priority 3: Understanding Time Lags and the Temporal Scale of Spatial Correlation on the Phytochemical Landscape
9.5. Priority 4: Exploring Variation in the Strength of Feedback between Trophic Interactions and Nutrient Dynamics on the Phytochemical Landscape
9.6. Priority 5: Comparing the Role of the Phytochemical Landscape in Terrestrial and Aquatic Ecosystems
9.7. Concluding Remarks.