The Encyclopedia of Fish Physiology is a comprehensive, introductory-level reference work that aims to unite readers in the wonders of this discipline. Fish live in almost every water system on this planet and represent more than half of all vertebrate species alive today.
Fish physiology is a massive field of study and can be difficult to penetrate as most texts are written for readers with a post-secondary education in biology. This Encyclopedia aims to capture the interest of a more diverse group of readers, leading readers from core concepts to application in topics as far ranging as reproductive behaviours to surviving sub-zero temperatures. For example, from a foundation of heart anatomy, oxygen transport, and exercise physiology, readers can appreciate the challenges faced by migratory fish as river temperatures increase with climate change.
The work aims and showing why biologists around the world choose to study fish physiology and what can be gained from such study. Chapters highlight where physiological systems and processes are conserved across vertebrate groups, which supports the use of fish as a vertebrate model for investigating fundamental problems in physiology and knowledge transfer to the medical field. Other chapters highlight unique specializations and adaptations that allow fish to survive in challenging environments, leading to a deeper appreciation of the natural world. Finally, other chapters demonstrate the consequences of perturbing physiological systems and how this knowledge can empower conservation strategies to protect fish.
Much has changed in the field of fish physiology since publication of the previous, Prose award winning, edition. For example, we understand better the impacts of global climate change on the physiological systems of fish, and we have gained a deeper mechanistic understanding of physiological processes through technological advancements such as gene editing with CRISPR, whole genome sequencing, and quantitative ‘omic` approaches. The new edition will greatly expand the closing thematic section focused on applying fish physiology to real world challenges with topics including ocean acidification, declining habitat quality due to human activities, and the use of zebrafish in biomedical studies on tissue regeneration, neurological disorders and cancer.
A new feature of the Encyclopedia is including presentation-ready summary slides of key concepts presented in each chapter, which will be a valuable tool for educators wishing to incorporate the Encyclopedia into class resources. All authors will be encouraged to enhance their chapters with multimedia features such as videos (ex. in fish behaviour chapters) and virtual microscope (ex. chapters on tissue morphology).1. Linking fish behavior and physiology: An introduction - p. iii 2. A survival guide for fishes: How to obtain food while avoiding being food - p. iii 3. Fish schooling behavior - p. iii 4. Effects of compensatory growth on fish behavior - p. iii 5. Sleep in fishes - p. iii 6. Circadian rhythms in fishes - p. iii 7. Fish welfare - p. iii 8. Behavioral assessment of the visual capabilities of fishes - p. iii 9. Color vision and color communication in reef fish - p. iii 10. Fish learning and memory - p. iii 11. Anthropogenic influences on fish behaviour - p. iii 12. Behavioral responses to hypoxia - p. iii 13. Manipulation of fish phenotype by parasites - p. iii 14. Behavioral responses to temperature in fishes - p. iii 15. Dominance behaviors - p. iii 16. Communication behavior: Visual signals - p. iii 17. Silent signals in the dark: Electric communication in fishes - p. iii 18. Chemosensory-driven behavior in fishes - p. iii 19. Acoustic behavior - p. iii 20. Reproduction and Development - p. iii 21. Overview of reproduction and development - p. iii 22. Sex determination and gonadal sex differentiation - p. iii 23. The diversity of reproductive styles exhibited by fish - p. iii 24. Structural features associated to viviparity and placentation in teleosts - p. iii 25. Sex change in fish - p. iii 26. Social and reproductive behaviors: Parental care in fishes - p. iii 27. Vitellogenesis in fishes - p. iii 28. Oocyte maturation and ovulation - p. iii 29. Spermatogenesis: The development from stem cells to sperm and its regulation by hormones and growth factors - p. iii 30. Environmental estrogen impacts on fish reproduction - p. iii 31. Gas Exchange and Ion Homeostasis - p. iii 32. Respiration: An introduction - p. iii 33. Generation of the respiratory rhythm in fish - p. iii 34. Oxygen sensing in fish - p. iii 35. Carbon dioxide transport and excretion - p. iii 36. Evolution of the Bohr effect - p. iii 37. Gas transport and exchange: Interaction between O2 and CO2 exchange - p. iii 38. Hemoglobin differentiation in fishes - p. iii 39. The ventilatory response to CO2/H+ - p. iii 40. Efficiency of gas exchange organs - p. iii 41. Plasticity in gill morphology and function - p. iii 42. The effect of exercise on respiration - p. iii 43. Cellular respiration - p. iii 44. Osmoregulation in fishes: An introduction - p. iii 45. Salt secretion by the gill of marine teleost fishes - p. iii 46. Mechanisms of ion transport in freshwater fishes - p. iii 47. The osmorespiratory compromise - p. iii 48. The kidney for osmoregulation - p. iii 49. Interaction between ammonia excretion and ion regulation - p. iii 50. Water balance and aquaporins - p. iii 51. Life out of water: Cutaneous gas and ion exchange in amphibious fishes - p. iii 52. Ion regulation in anadromous fishes - p. iii 53. Osmoregulation in chondrichthyan fishes - p. iii 54. Volume 2 - p. iii 55. Heart, Vasculature, and Blood - p. iii 56. The circulatory system: An introduction - p. iii 57. Cardiac morphology & anatomy in fishes and the associated coronary circulation - p. iii 58. The cardiac outflow tract - p. iii 59. Cellular ultrastructure of cardiac cells in fishes - p. iii 60. Physiology of cardiac pumping - p. iii 61. Electrical excitation, action potential and impulse conduction - p. iii 62. Excitation-contraction coupling in fish cardiomyocytes - p. iii 63. Energy metabolism of cardiac pumping - p. iii 64. Control of cardiovascular function - p. iii 65. How fish vary heart rate to match the respiratory cycle - p. iii 66. Accessory hearts in fishes - p. iii 67. Circulatory system design: Roles and principles - p. iii 68. Anatomical pathways and patterns - p. iii 69. Branchial anatomy - p. iii 70. The gastrointestinal circulation - p. iii 71. The retia - p. iii 72. Skeletal muscle capillary supply and transcapillary exchange - p. iii 73. Secondary circulation and lymphatic anatomy - p. iii 74. Physiology of resistance vessels - p. iii 75. Physiology of capacitance vessels - p. iii 76. Cellular composition of the blood - p. iii 77. Erythropoiesis in fishes - p. iii 78. Erythrocyte function - p. iii 79. Integrated cardiovascular responses of fish to swimming - p. iii 80. Integrated responses of the heart to acute changes in temperature - p. iii 81. Cardiac thermal acclimation and adaption of the heart to extreme temperatures - p. iii 82. Integrated response of the cardiovascular system to hypoxia - p. iii 83. Integrated responses of the circulatory system to digestion - p. iii 84. Energy Homeostasis - p. iii 85. Introduction to energy homeostasis - p. iii 86. Food acquisition and prey capture - p. iii 87. Energetics of prey capture: From foraging theory to functional morphology - p. iii 88. Costs of foraging: Energetics of foraging decisions - p. iii 89. Gut anatomy - p. iii 90. Structure and function of the pancreas and liver - p. iii 91. Nervous system of the gut - p. iii 92. The community structure of the fish intestinal microbiome - p. iii 93. Digestion - p. iii 94. Digestive efficiency - p. iii 95. Gut motility - p. iii 96. Intestinal microbiome function - p. iii 97. Absorption and excretion: Detoxification of wastes and toxins in the fish gastrointestinal system - p. iii 98. Barrier function of the gastrointestinal tract - p. iii 99. Cost of digestion and assimilation - p. iii 100. Cardiorespiratory and circulatory responses of digestion - p. iii 101. Energetics of fish swimming - p. iii 102. Energy consumption: Metabolism - p. iii 103. The effect of environmental factors on fish growth - p. iii 104. Fish bioenergetics modeling - p. iii 105. Muscles and Movement - p. iii 106. Fish muscle physiology and plasticity - p. iii 107. Endothermy in tunas, billfishes, and sharks - p. iii 108. Weakly electric fishes - p. iii 109. Prey processing in fishes - p. iii 110. Fish swimming styles: Overview - p. iii 111. Experimental hydrodynamics - p. iii 112. Stability and turbulence - p. iii 113. Fast start - p. iii 114. Maneuverability - p. iii 115. Schooling in fishes - p. iii 116. Terrestrial locomotion in fishes - p. iii 117. Climbing waterfalls—Muscle and movement - p. iii 118. Burrowing in fishes: Anatomy, physiology, function and ecology - p. iii 119. The biology of fish migration - p. iii 120. Migration of the European eel (Anguilla anguilla) - p. iii 121. Volume 3 - p. iii 122. Responses and Adaptations to the Environment - p. iii 123. Responses and adaptations to the environment: An introduction - p. iii 124. Effects of temperature: An introduction - p. iii 125. Effects of climate warming - p. iii 126. Measures of thermal tolerance - p. iii 127. Temperature and fish biology: Insights from metabolism - p. iii 128. Responses and adaptations of cellular metabolism to temperature - p. iii 129. Case study: The desert pupfish - p. iii 130. Oxygen in the marine environment - p. iii 131. The hypoxic ventilatory response and oxygen sensing in fishes - p. iii 132. Metabolic rate depression as a mechanism for surviving hypoxia - p. iii 133. Anaerobic metabolism in fish - p. iii 134. Case study: Anoxia tolerance in the Pacific hagfish (Eptatretus stoutii) - p. iii 135. Case study: The anoxia-tolerant crucian carp - p. iii 136. Acid-base regulation and hypercapnia: An introduction - p. iii 137. Integrative responses to hypercapnia - p. iii 138. Multiple stressors- physiological responses to multivariate environments - p. iii 139. Epigenetic mechanisms in response to environmental change - p. iii 140. Adaptation to hydrogen sulfide: A case study in sulfide spring fishes - p. iii 141. Physiological Specializations of Different Fish Groups - p. iii 142. Introduction to physiological specialisations of fish groups: Cool, clever, and sometimes critical physiological - p. iii 143. Physiology of metamorphosis - p. iii 144. Physiological mechanisms that fishes use to cope with very high or very low pH - p. iii 145. Deep-sea fishes and their extreme adaptations - p. iii 146. The dark side of the fish: Common adaptations in cavefishes from around the world - p. iii 147. Cutaneous respiration and amphibious fishes - p. iii 148. Life above the surface: Using the aerial environment - p. iii 149. Coloration and chromatophores in fishes - p. iii 150. Bioluminescence in fishes - p. iii 151. Bony fish skeleton - p. iii 152. Introduction to elasmobranch physiology - p. iii 153. Physiology of ampullary electrosensory systems - p. iii 154. Endocrine stress axis and regulation of energy metabolism in Chondrichthyes - p. iii 155. Unique aspects of reproductive energetics and endocrinology among Chondrichthyes - p. iii 156. Conserving the next generation: Perspectives in elasmobranch reproductive research - p. iii 157. Antipredator specializations: Alarm cues - p. iii 158. Antipredator specializations: Body inflation - p. iii 159. Movement specializations: Buoyancy and swimbladders - p. iii 160. Movement specializations: Mauthner cells - p. iii 161. Biomechanics & Bioinspired design - p. iii 162. Biomechanical challenges of aquatic ventilation in fishes - p. iii 163. Functional morphology of suction feeding - p. iii 164. Shooting in archerfish: The art of transferring force to distant aerial objects - p. iii 165. Fossil record of fishes and major evolutionary transitions - p. iii 166. Cartilaginous fish skeletal tissues - p. iii 167. Fish tendons: Structure and function - p. iii 168. Bony fish cranial muscles - p. iii 169. The biomechanics of fish skin - p. iii 170. The structure and mechanical properties of fish skin and fish scales - p. iii 171. Hitching a ride (Remoras) - p. iii 172. Suspension feeding in fishes - p. iii 173. Applications of Fish Physiology - p. iii 174. Overview of applications of fish physiology - p. iii 175. Thermal sensitivity of cardiac performance: Implications for sustainable salmon fisheries - p. iii 176. On the validity of using the Metabolic Index to predict the responses of marine fishes to climate change - p. iii 177. The physiology of ocean acidification - p. iii 178. The effects of abiotic factors on olfaction in fishes - p. iii 179. Effects of anthrophony on fishes - p. iii 180. The physiology of catch and release angling - p. iii 181. Fisheries-induced evolution and selection on physiological traits - p. iii 182. Tracking oceanic fishes - p. iii 183. Bioenergetics in aquaculture settings - p. iii 184. Physiology of fish in culture environments - p. iii 185. Control of sexual differentiation: Applications in aquaculture - p. iii 186. Germ line stem cells: Basic studies and applications in conservation and aquaculture - p. iii 187. The toxicology of metals in fishes - p. iii 188. Reproductive endocrine disruption in fishes - p. iii 189. Immunotoxicology in fishes - p. iii 190. Behavior and ecotoxicology - p. iii 191. Crude oil-induced cardiotoxicity in fishes - p. iii 192. Gene manipulation applications for studying ion transport in fishes - p. iii 193. Applications of genome editing in fish development and disease - p. iii 194. Index - p. iii 195. Authors - p. iii
The Encyclopedia of Fish Physiology is a comprehensive, introductory-level reference work that aims to unite readers in the wonders of this discipline. Fish live in almost every water system on this planet and represent more than half of all vertebrate species alive today.
Fish physiology is a massive field of study and can be difficult to penetrate as most texts are written for readers with a post-secondary education in biology. This Encyclopedia aims to capture the interest of a more diverse group of readers, leading readers from core concepts to application in topics as far ranging as reproductive behaviours to surviving sub-zero temperatures. For example, from a foundation of heart anatomy, oxygen transport, and exercise physiology, readers can appreciate the challenges faced by migratory fish as river temperatures increase with climate change.
The work aims and showing why biologists around the world choose to study fish physiology and what can be gained from such study. Chapters highlight where physiological systems and processes are conserved across vertebrate groups, which supports the use of fish as a vertebrate model for investigating fundamental problems in physiology and knowledge transfer to the medical field. Other chapters highlight unique specializations and adaptations that allow fish to survive in challenging environments, leading to a deeper appreciation of the natural world. Finally, other chapters demonstrate the consequences of perturbing physiological systems and how this knowledge can empower conservation strategies to protect fish.
Much has changed in the field of fish physiology since publication of the previous, Prose award winning, edition. For example, we understand better the impacts of global climate change on the physiological systems of fish, and we have gained a deeper mechanistic understanding of physiological processes through technological advancements such as gene editing with CRISPR, whole genome sequencing, and quantitative ‘omic` approaches. The new edition will greatly expand the closing thematic section focused on applying fish physiology to real world challenges with topics including ocean acidification, declining habitat quality due to human activities, and the use of zebrafish in biomedical studies on tissue regeneration, neurological disorders and cancer.
A new feature of the Encyclopedia is including presentation-ready summary slides of key concepts presented in each chapter, which will be a valuable tool for educators wishing to incorporate the Encyclopedia into class resources. All authors will be encouraged to enhance their chapters with multimedia features such as videos (ex. in fish behaviour chapters) and virtual microscope (ex. chapters on tissue morphology).1. Linking fish behavior and physiology: An introduction - p. iii 2. A survival guide for fishes: How to obtain food while avoiding being food - p. iii 3. Fish schooling behavior - p. iii 4. Effects of compensatory growth on fish behavior - p. iii 5. Sleep in fishes - p. iii 6. Circadian rhythms in fishes - p. iii 7. Fish welfare - p. iii 8. Behavioral assessment of the visual capabilities of fishes - p. iii 9. Color vision and color communication in reef fish - p. iii 10. Fish learning and memory - p. iii 11. Anthropogenic influences on fish behaviour - p. iii 12. Behavioral responses to hypoxia - p. iii 13. Manipulation of fish phenotype by parasites - p. iii 14. Behavioral responses to temperature in fishes - p. iii 15. Dominance behaviors - p. iii 16. Communication behavior: Visual signals - p. iii 17. Silent signals in the dark: Electric communication in fishes - p. iii 18. Chemosensory-driven behavior in fishes - p. iii 19. Acoustic behavior - p. iii 20. Reproduction and Development - p. iii 21. Overview of reproduction and development - p. iii 22. Sex determination and gonadal sex differentiation - p. iii 23. The diversity of reproductive styles exhibited by fish - p. iii 24. Structural features associated to viviparity and placentation in teleosts - p. iii 25. Sex change in fish - p. iii 26. Social and reproductive behaviors: Parental care in fishes - p. iii 27. Vitellogenesis in fishes - p. iii 28. Oocyte maturation and ovulation - p. iii 29. Spermatogenesis: The development from stem cells to sperm and its regulation by hormones and growth factors - p. iii 30. Environmental estrogen impacts on fish reproduction - p. iii 31. Gas Exchange and Ion Homeostasis - p. iii 32. Respiration: An introduction - p. iii 33. Generation of the respiratory rhythm in fish - p. iii 34. Oxygen sensing in fish - p. iii 35. Carbon dioxide transport and excretion - p. iii 36. Evolution of the Bohr effect - p. iii 37. Gas transport and exchange: Interaction between O2 and CO2 exchange - p. iii 38. Hemoglobin differentiation in fishes - p. iii 39. The ventilatory response to CO2/H+ - p. iii 40. Efficiency of gas exchange organs - p. iii 41. Plasticity in gill morphology and function - p. iii 42. The effect of exercise on respiration - p. iii 43. Cellular respiration - p. iii 44. Osmoregulation in fishes: An introduction - p. iii 45. Salt secretion by the gill of marine teleost fishes - p. iii 46. Mechanisms of ion transport in freshwater fishes - p. iii 47. The osmorespiratory compromise - p. iii 48. The kidney for osmoregulation - p. iii 49. Interaction between ammonia excretion and ion regulation - p. iii 50. Water balance and aquaporins - p. iii 51. Life out of water: Cutaneous gas and ion exchange in amphibious fishes - p. iii 52. Ion regulation in anadromous fishes - p. iii 53. Osmoregulation in chondrichthyan fishes - p. iii 54. Volume 2 - p. iii 55. Heart, Vasculature, and Blood - p. iii 56. The circulatory system: An introduction - p. iii 57. Cardiac morphology & anatomy in fishes and the associated coronary circulation - p. iii 58. The cardiac outflow tract - p. iii 59. Cellular ultrastructure of cardiac cells in fishes - p. iii 60. Physiology of cardiac pumping - p. iii 61. Electrical excitation, action potential and impulse conduction - p. iii 62. Excitation-contraction coupling in fish cardiomyocytes - p. iii 63. Energy metabolism of cardiac pumping - p. iii 64. Control of cardiovascular function - p. iii 65. How fish vary heart rate to match the respiratory cycle - p. iii 66. Accessory hearts in fishes - p. iii 67. Circulatory system design: Roles and principles - p. iii 68. Anatomical pathways and patterns - p. iii 69. Branchial anatomy - p. iii 70. The gastrointestinal circulation - p. iii 71. The retia - p. iii 72. Skeletal muscle capillary supply and transcapillary exchange - p. iii 73. Secondary circulation and lymphatic anatomy - p. iii 74. Physiology of resistance vessels - p. iii 75. Physiology of capacitance vessels - p. iii 76. Cellular composition of the blood - p. iii 77. Erythropoiesis in fishes - p. iii 78. Erythrocyte function - p. iii 79. Integrated cardiovascular responses of fish to swimming - p. iii 80. Integrated responses of the heart to acute changes in temperature - p. iii 81. Cardiac thermal acclimation and adaption of the heart to extreme temperatures - p. iii 82. Integrated response of the cardiovascular system to hypoxia - p. iii 83. Integrated responses of the circulatory system to digestion - p. iii 84. Energy Homeostasis - p. iii 85. Introduction to energy homeostasis - p. iii 86. Food acquisition and prey capture - p. iii 87. Energetics of prey capture: From foraging theory to functional morphology - p. iii 88. Costs of foraging: Energetics of foraging decisions - p. iii 89. Gut anatomy - p. iii 90. Structure and function of the pancreas and liver - p. iii 91. Nervous system of the gut - p. iii 92. The community structure of the fish intestinal microbiome - p. iii 93. Digestion - p. iii 94. Digestive efficiency - p. iii 95. Gut motility - p. iii 96. Intestinal microbiome function - p. iii 97. Absorption and excretion: Detoxification of wastes and toxins in the fish gastrointestinal system - p. iii 98. Barrier function of the gastrointestinal tract - p. iii 99. Cost of digestion and assimilation - p. iii 100. Cardiorespiratory and circulatory responses of digestion - p. iii 101. Energetics of fish swimming - p. iii 102. Energy consumption: Metabolism - p. iii 103. The effect of environmental factors on fish growth - p. iii 104. Fish bioenergetics modeling - p. iii 105. Muscles and Movement - p. iii 106. Fish muscle physiology and plasticity - p. iii 107. Endothermy in tunas, billfishes, and sharks - p. iii 108. Weakly electric fishes - p. iii 109. Prey processing in fishes - p. iii 110. Fish swimming styles: Overview - p. iii 111. Experimental hydrodynamics - p. iii 112. Stability and turbulence - p. iii 113. Fast start - p. iii 114. Maneuverability - p. iii 115. Schooling in fishes - p. iii 116. Terrestrial locomotion in fishes - p. iii 117. Climbing waterfalls—Muscle and movement - p. iii 118. Burrowing in fishes: Anatomy, physiology, function and ecology - p. iii 119. The biology of fish migration - p. iii 120. Migration of the European eel (Anguilla anguilla) - p. iii 121. Volume 3 - p. iii 122. Responses and Adaptations to the Environment - p. iii 123. Responses and adaptations to the environment: An introduction - p. iii 124. Effects of temperature: An introduction - p. iii 125. Effects of climate warming - p. iii 126. Measures of thermal tolerance - p. iii 127. Temperature and fish biology: Insights from metabolism - p. iii 128. Responses and adaptations of cellular metabolism to temperature - p. iii 129. Case study: The desert pupfish - p. iii 130. Oxygen in the marine environment - p. iii 131. The hypoxic ventilatory response and oxygen sensing in fishes - p. iii 132. Metabolic rate depression as a mechanism for surviving hypoxia - p. iii 133. Anaerobic metabolism in fish - p. iii 134. Case study: Anoxia tolerance in the Pacific hagfish (Eptatretus stoutii) - p. iii 135. Case study: The anoxia-tolerant crucian carp - p. iii 136. Acid-base regulation and hypercapnia: An introduction - p. iii 137. Integrative responses to hypercapnia - p. iii 138. Multiple stressors- physiological responses to multivariate environments - p. iii 139. Epigenetic mechanisms in response to environmental change - p. iii 140. Adaptation to hydrogen sulfide: A case study in sulfide spring fishes - p. iii 141. Physiological Specializations of Different Fish Groups - p. iii 142. Introduction to physiological specialisations of fish groups: Cool, clever, and sometimes critical physiological - p. iii 143. Physiology of metamorphosis - p. iii 144. Physiological mechanisms that fishes use to cope with very high or very low pH - p. iii 145. Deep-sea fishes and their extreme adaptations - p. iii 146. The dark side of the fish: Common adaptations in cavefishes from around the world - p. iii 147. Cutaneous respiration and amphibious fishes - p. iii 148. Life above the surface: Using the aerial environment - p. iii 149. Coloration and chromatophores in fishes - p. iii 150. Bioluminescence in fishes - p. iii 151. Bony fish skeleton - p. iii 152. Introduction to elasmobranch physiology - p. iii 153. Physiology of ampullary electrosensory systems - p. iii 154. Endocrine stress axis and regulation of energy metabolism in Chondrichthyes - p. iii 155. Unique aspects of reproductive energetics and endocrinology among Chondrichthyes - p. iii 156. Conserving the next generation: Perspectives in elasmobranch reproductive research - p. iii 157. Antipredator specializations: Alarm cues - p. iii 158. Antipredator specializations: Body inflation - p. iii 159. Movement specializations: Buoyancy and swimbladders - p. iii 160. Movement specializations: Mauthner cells - p. iii 161. Biomechanics & Bioinspired design - p. iii 162. Biomechanical challenges of aquatic ventilation in fishes - p. iii 163. Functional morphology of suction feeding - p. iii 164. Shooting in archerfish: The art of transferring force to distant aerial objects - p. iii 165. Fossil record of fishes and major evolutionary transitions - p. iii 166. Cartilaginous fish skeletal tissues - p. iii 167. Fish tendons: Structure and function - p. iii 168. Bony fish cranial muscles - p. iii 169. The biomechanics of fish skin - p. iii 170. The structure and mechanical properties of fish skin and fish scales - p. iii 171. Hitching a ride (Remoras) - p. iii 172. Suspension feeding in fishes - p. iii 173. Applications of Fish Physiology - p. iii 174. Overview of applications of fish physiology - p. iii 175. Thermal sensitivity of cardiac performance: Implications for sustainable salmon fisheries - p. iii 176. On the validity of using the Metabolic Index to predict the responses of marine fishes to climate change - p. iii 177. The physiology of ocean acidification - p. iii 178. The effects of abiotic factors on olfaction in fishes - p. iii 179. Effects of anthrophony on fishes - p. iii 180. The physiology of catch and release angling - p. iii 181. Fisheries-induced evolution and selection on physiological traits - p. iii 182. Tracking oceanic fishes - p. iii 183. Bioenergetics in aquaculture settings - p. iii 184. Physiology of fish in culture environments - p. iii 185. Control of sexual differentiation: Applications in aquaculture - p. iii 186. Germ line stem cells: Basic studies and applications in conservation and aquaculture - p. iii 187. The toxicology of metals in fishes - p. iii 188. Reproductive endocrine disruption in fishes - p. iii 189. Immunotoxicology in fishes - p. iii 190. Behavior and ecotoxicology - p. iii 191. Crude oil-induced cardiotoxicity in fishes - p. iii 192. Gene manipulation applications for studying ion transport in fishes - p. iii 193. Applications of genome editing in fish development and disease - p. iii 194. Index - p. iii 195. Authors - p. iii
