Physicochemical and Environmental Plant Physiology, Fifth Edition, is the updated version of an established and successful text and reference for plant scientists. This work represents the seventh book in a 50-year series by Park Nobel beginning in 1970. The original structure and philosophy of the book continue in this new edition, providing a genuine synthesis of modern physicochemical and physiological thinking, while updating the content. Key concepts in plant physiology are developed with the use of chemistry, physics, and mathematics fundamentals.The book contains plant physiology basics while also including many equations and often their derivation to quantify the processes and explain why certain effects and pathways occur, helping readers to broaden their knowledge base. New topics included in this edition are advances in plant hydraulics, other plant–water relations, and the effects of climate change on plants. This series continues to be the gold standard in environmental plant physiology.
New to this edition:
1. Cover image - p. i 2. Title page - p. ii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. Preface - p. xv 6. Symbols and Abbreviations - p. xvii 7. Major Equations - p. 2 8. 1. Cells and Diffusion - p. 3 9. Major Equations - p. 51 10. 2. Water - p. 53 11. 2.1. Physical Properties - p. 55 12. 2.2. Chemical Potential - p. 66 13. 2.3. Central Vacuole and Chloroplasts - p. 84 14. 2.4. Water Potential and Plant Cells - p. 91 15. 2.5. Summary - p. 112 16. 2.6. Problems - p. 112 17. Major Equations - p. 116 18. 3. Solutes - p. 117 19. 3.1. Chemical Potential of Ions - p. 118 20. 3.2. Fluxes and Diffusion Potentials - p. 129 21. 3.3. Characteristics of Crossing Membranes - p. 148 22. 3.4. Mechanisms for Crossing Membranes - p. 165 23. 3.5. Principles of Irreversible Thermodynamics - p. 175 24. 3.6. Solute Movement Across Membranes - p. 187 25. 3.7. Summary - p. 194 26. 3.8. Problems - p. 195 27. Major Equations - p. 200 28. 4. Light - p. 201 29. 4.1. Wavelength and Energy - p. 203 30. 4.2. Absorption of Light by Molecules - p. 217 31. 4.3. Deexcitation - p. 229 32. 4.4. Absorption Spectra and Action Spectra - p. 237 33. 4.5. Summary - p. 253 34. 4.6. Problems - p. 253 35. Major Equations - p. 258 36. 5. Photochemistry of Photosynthesis - p. 259 37. Major Equations - p. 308 38. 6. Bioenergetics - p. 309 39. 6.1. Gibbs Free Energy - p. 310 40. 6.2. Biological Energy Currencies - p. 319 41. 6.3. Chloroplast Bioenergetics - p. 329 42. 6.4. Mitochondrial Bioenergetics - p. 337 43. 6.5. Energy Flow in the Biosphere - p. 344 44. 6.6. Summary - p. 350 45. 6.7. Problems - p. 351 46. Major Equations - p. 356 47. 7. Temperature and Energy Budgets - p. 357 48. 7.1. Energy Budget—Radiation - p. 358 49. 7.2. Heat Conduction and Convection - p. 373 50. 7.3. Latent Heat—Transpiration - p. 388 51. 7.4. Further Examples of Energy Budgets - p. 392 52. 7.5. Soil - p. 399 53. 7.6. Summary - p. 404 54. 7.7. Problems - p. 405 55. Major Equations - p. 408 56. 8. Leaves and Fluxes - p. 409 57. 8.1. Resistances and Conductances—Transpiration - p. 410 58. 8.2. Water Vapor Fluxes Accompanying Transpiration - p. 427 59. 8.3. CO2 Conductances and Resistances - p. 440 60. 8.4. CO2 Fluxes Accompanying Photosynthesis - p. 452 61. 8.5. Water-Use Efficiency - p. 473 62. 8.6. Summary - p. 483 63. 8.7. Problems - p. 484 64. Major Equations - p. 490 65. 9. Plants and Fluxes - p. 491 66. 9.1. Gas Fluxes Above Plant Canopy - p. 493 67. 9.2. Gas Fluxes Within Plant Communities - p. 503 68. 9.3. Water Movement in Soil - p. 514 69. 9.4. Water Movement in the Xylem and the Phloem - p. 525 70. 9.5. Soil–Plant–Atmosphere Continuum - p. 541 71. 9.6. Global Climate Change - p. 557 72. 9.7. Summary - p. 565 73. 9.8. Problems - p. 565 74. Solutions To Problems - p. 571 75. Appendix I. Numerical Values of Constants and Coefficients - p. 617 76. Appendix II. Conversion Factors and Definitions - p. 625 77. Appendix III. Mathematical Relations - p. 629 78. Appendix IV. Gibbs Free Energy and Chemical Potential - p. 633 79. Index - p. 643
Physicochemical and Environmental Plant Physiology, Fifth Edition, is the updated version of an established and successful text and reference for plant scientists. This work represents the seventh book in a 50-year series by Park Nobel beginning in 1970. The original structure and philosophy of the book continue in this new edition, providing a genuine synthesis of modern physicochemical and physiological thinking, while updating the content. Key concepts in plant physiology are developed with the use of chemistry, physics, and mathematics fundamentals.The book contains plant physiology basics while also including many equations and often their derivation to quantify the processes and explain why certain effects and pathways occur, helping readers to broaden their knowledge base. New topics included in this edition are advances in plant hydraulics, other plant–water relations, and the effects of climate change on plants. This series continues to be the gold standard in environmental plant physiology.
New to this edition:
1. Cover image - p. i 2. Title page - p. ii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. Preface - p. xv 6. Symbols and Abbreviations - p. xvii 7. Major Equations - p. 2 8. 1. Cells and Diffusion - p. 3 9. Major Equations - p. 51 10. 2. Water - p. 53 11. 2.1. Physical Properties - p. 55 12. 2.2. Chemical Potential - p. 66 13. 2.3. Central Vacuole and Chloroplasts - p. 84 14. 2.4. Water Potential and Plant Cells - p. 91 15. 2.5. Summary - p. 112 16. 2.6. Problems - p. 112 17. Major Equations - p. 116 18. 3. Solutes - p. 117 19. 3.1. Chemical Potential of Ions - p. 118 20. 3.2. Fluxes and Diffusion Potentials - p. 129 21. 3.3. Characteristics of Crossing Membranes - p. 148 22. 3.4. Mechanisms for Crossing Membranes - p. 165 23. 3.5. Principles of Irreversible Thermodynamics - p. 175 24. 3.6. Solute Movement Across Membranes - p. 187 25. 3.7. Summary - p. 194 26. 3.8. Problems - p. 195 27. Major Equations - p. 200 28. 4. Light - p. 201 29. 4.1. Wavelength and Energy - p. 203 30. 4.2. Absorption of Light by Molecules - p. 217 31. 4.3. Deexcitation - p. 229 32. 4.4. Absorption Spectra and Action Spectra - p. 237 33. 4.5. Summary - p. 253 34. 4.6. Problems - p. 253 35. Major Equations - p. 258 36. 5. Photochemistry of Photosynthesis - p. 259 37. Major Equations - p. 308 38. 6. Bioenergetics - p. 309 39. 6.1. Gibbs Free Energy - p. 310 40. 6.2. Biological Energy Currencies - p. 319 41. 6.3. Chloroplast Bioenergetics - p. 329 42. 6.4. Mitochondrial Bioenergetics - p. 337 43. 6.5. Energy Flow in the Biosphere - p. 344 44. 6.6. Summary - p. 350 45. 6.7. Problems - p. 351 46. Major Equations - p. 356 47. 7. Temperature and Energy Budgets - p. 357 48. 7.1. Energy Budget—Radiation - p. 358 49. 7.2. Heat Conduction and Convection - p. 373 50. 7.3. Latent Heat—Transpiration - p. 388 51. 7.4. Further Examples of Energy Budgets - p. 392 52. 7.5. Soil - p. 399 53. 7.6. Summary - p. 404 54. 7.7. Problems - p. 405 55. Major Equations - p. 408 56. 8. Leaves and Fluxes - p. 409 57. 8.1. Resistances and Conductances—Transpiration - p. 410 58. 8.2. Water Vapor Fluxes Accompanying Transpiration - p. 427 59. 8.3. CO2 Conductances and Resistances - p. 440 60. 8.4. CO2 Fluxes Accompanying Photosynthesis - p. 452 61. 8.5. Water-Use Efficiency - p. 473 62. 8.6. Summary - p. 483 63. 8.7. Problems - p. 484 64. Major Equations - p. 490 65. 9. Plants and Fluxes - p. 491 66. 9.1. Gas Fluxes Above Plant Canopy - p. 493 67. 9.2. Gas Fluxes Within Plant Communities - p. 503 68. 9.3. Water Movement in Soil - p. 514 69. 9.4. Water Movement in the Xylem and the Phloem - p. 525 70. 9.5. Soil–Plant–Atmosphere Continuum - p. 541 71. 9.6. Global Climate Change - p. 557 72. 9.7. Summary - p. 565 73. 9.8. Problems - p. 565 74. Solutions To Problems - p. 571 75. Appendix I. Numerical Values of Constants and Coefficients - p. 617 76. Appendix II. Conversion Factors and Definitions - p. 625 77. Appendix III. Mathematical Relations - p. 629 78. Appendix IV. Gibbs Free Energy and Chemical Potential - p. 633 79. Index - p. 643