Verfügbarkeit: Insect taste :: THWS Bibkatalog

Insect taste:

This title covers different approaches to taste research including genes and receptors, taste coding in the periphery and its modulation, taste coding in the central nervous system and behaviour, and nutrition and nutritional regulation.

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Bibliographische Detailangaben
Format:	Buch
Sprache:	English
Veröffentlicht:	London [u.a.] Taylor & Francis 2009
Ausgabe:	1. publ.
Schriftenreihe:	SEB experimental biology series 63
Schlagworte:	Goût Insectes - Physiologie Insects > Physiology Taste Geschmackssinn Insekten Aufsatzsammlung
Online-Zugang:	Inhaltsverzeichnis
Zusammenfassung:	This title covers different approaches to taste research including genes and receptors, taste coding in the periphery and its modulation, taste coding in the central nervous system and behaviour, and nutrition and nutritional regulation.
Beschreibung:	Includes bibliographical references
Beschreibung:	XIV, 263 S. Ill., graph. Darst.
ISBN:	9780415436397

Internformat

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Datensatz im Suchindex

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adam_text	Contents Contributors xi Preface xiii 1. Gustation in Drosophüa melanogaster 1 Matthew Cobb, Kristin Scott and Michael Pankratz 1 Introduction 1 2 Gustation in Drosophüa larvae 2 2.1 The ecology of larval gustation 2 2.2 The neuroanatomy of larval gustation 3 2.3 Methods and problems in measuring larval gustation 8 3 Gustation in adult Drosophila 15 3.1 The gustatory system of adult Drosophila melanogaster 15 3.2 Early studies of taste selectivity in Drosophila 15 3.3 The molecular identification of sugar- and bitter-sensing cells 16 3.4 Taste cells that detect other tastes 18 3.5 Comparison of taste coding strategies in the periphery for mammals and flies 19 3.6 Taste representations in the Drosophila brain 19 3.7 Behavioural assays to study taste in Drosophila 20 4 Taste, feeding and mating 22 4.1 Larvae and adults: growth versus reproductive needs 23 4.2 Convergence of gustatory and pheromonal signalling 24 4.3 SOG, tritocerebrum and beyond 25 4.4 Neuromodulation of central circuits 28 5 Conclusions 29 References 30 2. Drosophüa Gr5a: expression pattern, ligand profile and transduction pathway 39 Sylwester Chyb 1 Introduction 39 2 A taste case study: Drosophila Gr5a 42 3 A research strategy 43 4 Expression pattern and axonal projections 44 5 Ligand profile 46 6 Signal transduction 50 7 The future outlook 54 Acknowledgements 55 References 55 vi Contents 3. Neurophysiology of gustatory receptor neurones in Drosophila 59 Teiichi Tanimura, Makoto Hiroi, Tsuyoshi Inoshita and Frédéric Marion-Poll 1 Introduction 59 2 Taste organs in Drosophila 60 3 Electrophysiological characterisation of labeliar chemosensilla 61 3.1 Method: taste recordings in Drosophila 61 3.2 Tungsten microelectrode recording 62 3.3 Spontaneous activity from GRNs 64 3.4 Comparison of signals between tip recording and tungsten recording 64 3.5 Recordings from sugar and bitter sensing neurones 64 3.6 Summary 65 4 Differential responses among labeliar taste bristles 65 4.1 Types of GRNs in Drosophila 65 4.2 Variation of response among labeliar taste bristles 67 4.3 Candidate receptor genes and physiology of GRNs 68 4.4 Summary 69 5 Identification of water gustatory receptor neurones 69 5.1 Water taste cell 69 5.2 Enhancer trap method 70 5.3 Central projection of gustatory receptor neurones 70 6 Conclusions 72 References 73 4. Chemosensory regulation of feeding in the blowfly: several studies after The Hungry Fly 77 Mamiko Ozaki and Tadashi Nakamura 1 Introduction 77 2 Sweetness for the fly: gustatory triggers for feeding 78 2.1 Sugar receptor cell 81 2.2 Sugar receptor 82 2.3 G-proteins 83 2.4 Cyclic nucleotides, IP3 and Ca2+ 84 2.5 Synergic effects 87 3 Bitterness for the fly: gustatory avoidance of feeding 87 4 Bitter taste receptor cell (fifth cell) 89 4.1 Noxious or bitter substance detection system 89 4.2 Lipophilic substances and gustatory OBP 91 5 Regulation of feeding 92 5.1 Olfactory modification of feeding 92 5.2 Monoamines and feeding regulation 93 5.3 Blood sugar level and feeding regulation 94 6 Conclusions 95 References 96 Contents vii 5. Tasting in plant-feeding insects: from single compounds to complex natural stimuli 103 Joop J.A.van Loon, Qingbo Tang, Honglei Wang, Chenzhu Wang, Dongsheng Zhou and Hans M. Smid 1 Introduction: coding principles in gustatory systems of herbivorous insects 103 2 The sense of taste of plant-feeding insects: current status is based on studies using single compounds 104 2.1 Taste neurone typology 104 2.2 Coding concepts 105 3 Binary mixtures: non-linearity in the periphery 105 4 Input-output relationships for taste-mediated behaviour 107 4.1 Larval insects 107 4.2 Adult insects 108 5 Complex mixtures: taste neurone activity and behavioural responses to real-life plant-derived stimuli 110 5.1 Changing paradigms: moving from binary mixtures to complex plant-derived mixtures 110 5.2 Multi-neural recordings: obstacles in analysis and interpretation 110 5.3 Taste neurone identification using activity-related labelling 111 5.4 Taste coding in host-plant preference 113 6 Modulation of taste neurone sensitivity: opportunities to distinguish qualitative and quantitative aspects of taste coding 118 7 Conclusions and outlook 119 References 120 6. Tasting toxicants as bitter: phytoecdysteroids 127 Frédéric Marion-Poll, Delphine Calas, Dalida Darazy-Choubaya, Cécile Faucher and Charles Descoins 1 Introduction 127 2 Phytoecdysteroids as plant defence secondary compounds 128 2.1 Phytoecdysteroids: a family of molecules 128 2.2 Botanical distribution, synthetic pathways 129 2.3 Defence compounds: tissue distribution, inducibility, turnover 129 3 Phytoecdysteroids are toxic to insects 129 3.1 Toxicity of diet ecdysteroids 129 3.2 Detoxification pathways 130 3.3 Different types of insects affected 131 4 Phytoecdysteroids as toxic molecules and antifeedants to larval Lepidoptera 132 4.1 Behavioural effects 132 4.2 Taste detection 133 5 Phytoecdysteroids and adult Lepidoptera 134 5.1 Toxicity? 134 5.2 Taste detection 134 5.3 Anti-oviposition effects of ecdysteroids 134 vin Contents 6 Conclusions 135 References 135 7. Peripheral modulation of taste responses 139 Hansjürgen Schuppe and Philip L. Newland 1 Introduction 139 1.1 Locusts as model organisms for the study of taste and nutritional regulation 139 1.2 How locusts detect taste 139 1.3 Taste responses in locusts 143 1.4 The link with behaviour 144 1.5 Tracing the neural circuits 147 2 The role of chemosensory responses in nutritional regulation 149 2.1 Nutritional requirements and the need to balance the diet 149 2.2 Modulation of the phagostimulatory power at different levels 149 2.3 Mechanisms that modulate taste responses 154 3 Modulation of taste responses by NO 158 3.1 Early role for NO in chemosensory processing and feeding 158 3.2 NO in taste organs of vertebrates 161 3.3 NO and taste modulation in insects 162 4 A role for NO in the peripheral regulation of nutrient intake 169 4.1 Regulation of salt responses via peripheral NO synthesis 169 4.2 Balancing food intake via the periphery 171 References 173 8. The sweet tooth of the honeybee: the perception of nectar and its influence on honeybee behaviour 183 Géraldine A. Wright 1 Introduction 183 2 Gustatory environment of honeybees 183 2.1 Nectar 183 2.2 Nectar s nutrients 184 2.3 Other compounds 185 2.4 Variation in nectar quality 186 3 The honeybee s sweet tooth 187 3.1 Peripheral mechanisms of gustation 187 3.2 Central organisation of honeybee taste 190 3.3 Proboscis extension reflex (PER) 192 4 Gustatory perception and behaviour 193 4.1 Sucrose 193 4.2 Modulation of gustatory sensitivity to sucrose 194 4.3 Other compounds 196 5 Conclusions 197 Acknowledgements 198 References 198 Contents ix 9. Effects of experience on the physiology of taste discrimination in insects 205 Marta L. del Campo, Carol I. Miles and Marina С. Сатана 1 Introduction 205 1.1 Experience: a fundamental modifier of feeding behaviour 206 1.2 Central nervous system, sensory input and feeding behaviour 207 2 Taste organs: anatomy and distribution 208 2.1 Taste neurones 210 2.2 Membrane receptors 211 2.3 Ion Channels, second messengers and intracellular cascades 212 2.4 Sensillar fluid 214 3 The neurophysiology of taste in insects: from transduction to coding 215 3.1 Stimulants, deterrents and the reality of mixtures: selecting meaningful flavours 219 3.2 The diversity of taste neurone responses 220 4 Experience as a modifier of taste neurone input in insects 222 4.1 A case study: induction of host specificity in a facultative specialist feeder, the larvae of Manduca sexta 223 4.2 Neural circuitry for feeding choices among host-restricted and polyphagous Manduca larvae 225 4.3 Molecular basis of experience-based changes of taste neurone input in Manduca larvae 227 5 Conclusions and future directions 231 Acknowledgements 231 References 232 10. Evolutionary biology of learning in insects: the search for food 243 Frédéric Mery 1 Introduction 243 1.1 What is learning? 243 1.2 Different forms of learning 244 1.3 When is learning advantageous? 245 2 Variation in learning ability in nature 246 2.1 Inter- and intraspecific variation in learning ability 246 2.2 Do generalists learn better than specialists? 248 2.3 Effect of environmental conditions on the development of memory 249 3 Cost and constraints of learning 250 3.1 Costs of being naive 250 3.2 Constitutive costs of learning 250 3.3 Induced costs of learning 250 3.4 Memory constraints in insect and flower constancy 251 4 Conclusion and perspectives 251 References 252 Index 257
adam_txt	Contents Contributors xi Preface xiii 1. Gustation in Drosophüa melanogaster 1 Matthew Cobb, Kristin Scott and Michael Pankratz 1 Introduction 1 2 Gustation in Drosophüa larvae 2 2.1 The ecology of larval gustation 2 2.2 The neuroanatomy of larval gustation 3 2.3 Methods and problems in measuring larval gustation 8 3 Gustation in adult Drosophila 15 3.1 The gustatory system of adult Drosophila melanogaster 15 3.2 Early studies of taste selectivity in Drosophila 15 3.3 The molecular identification of sugar- and bitter-sensing cells 16 3.4 Taste cells that detect other tastes 18 3.5 Comparison of taste coding strategies in the periphery for mammals and flies 19 3.6 Taste representations in the Drosophila brain 19 3.7 Behavioural assays to study taste in Drosophila 20 4 Taste, feeding and mating 22 4.1 Larvae and adults: growth versus reproductive needs 23 4.2 Convergence of gustatory and pheromonal signalling 24 4.3 SOG, tritocerebrum and beyond 25 4.4 Neuromodulation of central circuits 28 5 Conclusions 29 References 30 2. Drosophüa Gr5a: expression pattern, ligand profile and transduction pathway 39 Sylwester Chyb 1 Introduction 39 2 A taste case study: Drosophila Gr5a 42 3 A research strategy 43 4 Expression pattern and axonal projections 44 5 Ligand profile 46 6 Signal transduction 50 7 The future outlook 54 Acknowledgements 55 References 55 vi Contents 3. Neurophysiology of gustatory receptor neurones in Drosophila 59 Teiichi Tanimura, Makoto Hiroi, Tsuyoshi Inoshita and Frédéric Marion-Poll 1 Introduction 59 2 Taste organs in Drosophila 60 3 Electrophysiological characterisation of labeliar chemosensilla 61 3.1 Method: taste recordings in Drosophila 61 3.2 Tungsten microelectrode recording 62 3.3 Spontaneous activity from GRNs 64 3.4 Comparison of signals between tip recording and tungsten recording 64 3.5 Recordings from sugar and bitter sensing neurones 64 3.6 Summary 65 4 Differential responses among labeliar taste bristles 65 4.1 Types of GRNs in Drosophila 65 4.2 Variation of response among labeliar taste bristles 67 4.3 Candidate receptor genes and physiology of GRNs 68 4.4 Summary 69 5 Identification of water gustatory receptor neurones 69 5.1 Water taste cell 69 5.2 Enhancer trap method 70 5.3 Central projection of gustatory receptor neurones 70 6 Conclusions 72 References 73 4. Chemosensory regulation of feeding in the blowfly: several studies after 'The Hungry Fly' 77 Mamiko Ozaki and Tadashi Nakamura 1 Introduction 77 2 Sweetness for the fly: gustatory triggers for feeding 78 2.1 Sugar receptor cell 81 2.2 Sugar receptor 82 2.3 G-proteins 83 2.4 Cyclic nucleotides, IP3 and Ca2+ 84 2.5 Synergic effects 87 3 Bitterness for the fly: gustatory avoidance of feeding 87 4 Bitter taste receptor cell (fifth cell) 89 4.1 Noxious or bitter substance detection system 89 4.2 Lipophilic substances and gustatory OBP 91 5 Regulation of feeding 92 5.1 Olfactory modification of feeding 92 5.2 Monoamines and feeding regulation 93 5.3 Blood sugar level and feeding regulation 94 6 Conclusions 95 References 96 Contents vii 5. Tasting in plant-feeding insects: from single compounds to complex natural stimuli 103 Joop J.A.van Loon, Qingbo Tang, Honglei Wang, Chenzhu Wang, Dongsheng Zhou and Hans M. Smid 1 Introduction: coding principles in gustatory systems of herbivorous insects 103 2 The sense of taste of plant-feeding insects: current status is based on studies using single compounds 104 2.1 Taste neurone typology 104 2.2 Coding concepts 105 3 Binary mixtures: non-linearity in the periphery 105 4 Input-output relationships for taste-mediated behaviour 107 4.1 Larval insects 107 4.2 Adult insects 108 5 Complex mixtures: taste neurone activity and behavioural responses to real-life plant-derived stimuli 110 5.1 Changing paradigms: moving from binary mixtures to complex plant-derived mixtures 110 5.2 Multi-neural recordings: obstacles in analysis and interpretation 110 5.3 Taste neurone identification using activity-related labelling 111 5.4 Taste coding in host-plant preference 113 6 Modulation of taste neurone sensitivity: opportunities to distinguish qualitative and quantitative aspects of taste coding 118 7 Conclusions and outlook 119 References 120 6. Tasting toxicants as bitter: phytoecdysteroids 127 Frédéric Marion-Poll, Delphine Calas, Dalida Darazy-Choubaya, Cécile Faucher and Charles Descoins 1 Introduction 127 2 Phytoecdysteroids as plant defence secondary compounds 128 2.1 Phytoecdysteroids: a family of molecules 128 2.2 Botanical distribution, synthetic pathways 129 2.3 Defence compounds: tissue distribution, inducibility, turnover 129 3 Phytoecdysteroids are toxic to insects 129 3.1 Toxicity of diet ecdysteroids 129 3.2 Detoxification pathways 130 3.3 Different types of insects affected 131 4 Phytoecdysteroids as toxic molecules and antifeedants to larval Lepidoptera 132 4.1 Behavioural effects 132 4.2 Taste detection 133 5 Phytoecdysteroids and adult Lepidoptera 134 5.1 Toxicity? 134 5.2 Taste detection 134 5.3 Anti-oviposition effects of ecdysteroids 134 vin Contents 6 Conclusions 135 References 135 7. Peripheral modulation of taste responses 139 Hansjürgen Schuppe and Philip L. Newland 1 Introduction 139 1.1 Locusts as model organisms for the study of taste and nutritional regulation 139 1.2 How locusts detect taste 139 1.3 Taste responses in locusts 143 1.4 The link with behaviour 144 1.5 Tracing the neural circuits 147 2 The role of chemosensory responses in nutritional regulation 149 2.1 Nutritional requirements and the need to balance the diet 149 2.2 Modulation of the phagostimulatory power at different levels 149 2.3 Mechanisms that modulate taste responses 154 3 Modulation of taste responses by NO 158 3.1 Early role for NO in chemosensory processing and feeding 158 3.2 NO in taste organs of vertebrates 161 3.3 NO and taste modulation in insects 162 4 A role for NO in the peripheral regulation of nutrient intake 169 4.1 Regulation of salt responses via peripheral NO synthesis 169 4.2 Balancing food intake via the periphery 171 References 173 8. The 'sweet tooth' of the honeybee: the perception of nectar and its influence on honeybee behaviour 183 Géraldine A. Wright 1 Introduction 183 2 Gustatory environment of honeybees 183 2.1 Nectar 183 2.2 Nectar's nutrients 184 2.3 Other compounds 185 2.4 Variation in nectar quality 186 3 The honeybee's sweet tooth 187 3.1 Peripheral mechanisms of gustation 187 3.2 Central organisation of honeybee taste 190 3.3 Proboscis extension reflex (PER) 192 4 Gustatory perception and behaviour 193 4.1 Sucrose 193 4.2 Modulation of gustatory sensitivity to sucrose 194 4.3 Other compounds 196 5 Conclusions 197 Acknowledgements 198 References 198 Contents ix 9. Effects of experience on the physiology of taste discrimination in insects 205 Marta L. del Campo, Carol I. Miles and Marina С. Сатана 1 Introduction 205 1.1 Experience: a fundamental modifier of feeding behaviour 206 1.2 Central nervous system, sensory input and feeding behaviour 207 2 Taste organs: anatomy and distribution 208 2.1 Taste neurones 210 2.2 Membrane receptors 211 2.3 Ion Channels, second messengers and intracellular cascades 212 2.4 Sensillar fluid 214 3 The neurophysiology of taste in insects: from transduction to coding 215 3.1 Stimulants, deterrents and the reality of mixtures: selecting meaningful flavours 219 3.2 The diversity of taste neurone responses 220 4 Experience as a modifier of taste neurone input in insects 222 4.1 A case study: induction of host specificity in a facultative specialist feeder, the larvae of Manduca sexta 223 4.2 Neural circuitry for feeding choices among host-restricted and polyphagous Manduca larvae 225 4.3 Molecular basis of experience-based changes of taste neurone input in Manduca larvae 227 5 Conclusions and future directions 231 Acknowledgements 231 References 232 10. Evolutionary biology of learning in insects: the search for food 243 Frédéric Mery 1 Introduction 243 1.1 What is learning? 243 1.2 Different forms of learning 244 1.3 When is learning advantageous? 245 2 Variation in learning ability in nature 246 2.1 Inter- and intraspecific variation in learning ability 246 2.2 Do generalists learn better than specialists? 248 2.3 Effect of environmental conditions on the development of memory 249 3 Cost and constraints of learning 250 3.1 Costs of being naive 250 3.2 Constitutive costs of learning 250 3.3 Induced costs of learning 250 3.4 Memory constraints in insect and flower constancy 251 4 Conclusion and perspectives 251 References 252 Index 257
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series	SEB experimental biology series
series2	SEB experimental biology series Experimental biology reviews
spelling	Insect taste ed. by Philip L. Newland ; Matthew Cobb ; Frédéric Marion-Poll 1. publ. London [u.a.] Taylor & Francis 2009 XIV, 263 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier SEB experimental biology series 63 Experimental biology reviews Includes bibliographical references This title covers different approaches to taste research including genes and receptors, taste coding in the periphery and its modulation, taste coding in the central nervous system and behaviour, and nutrition and nutritional regulation. Goût Insectes - Physiologie Insects Physiology Taste Geschmackssinn (DE-588)4253946-8 gnd rswk-swf Insekten (DE-588)4027110-9 gnd rswk-swf (DE-588)4143413-4 Aufsatzsammlung gnd-content Insekten (DE-588)4027110-9 s Geschmackssinn (DE-588)4253946-8 s b DE-604 Newland, Philip L. Sonstige oth Cobb, Matthew Sonstige oth Marion-Poll, Frédéric Sonstige oth SEB experimental biology series 63 (DE-604)BV023082462 63 Digitalisierung UB Regensburg application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=016703177&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis
spellingShingle	Insect taste SEB experimental biology series Goût Insectes - Physiologie Insects Physiology Taste Geschmackssinn (DE-588)4253946-8 gnd Insekten (DE-588)4027110-9 gnd
subject_GND	(DE-588)4253946-8 (DE-588)4027110-9 (DE-588)4143413-4
title	Insect taste
title_auth	Insect taste
title_exact_search	Insect taste
title_exact_search_txtP	Insect taste
title_full	Insect taste ed. by Philip L. Newland ; Matthew Cobb ; Frédéric Marion-Poll
title_fullStr	Insect taste ed. by Philip L. Newland ; Matthew Cobb ; Frédéric Marion-Poll
title_full_unstemmed	Insect taste ed. by Philip L. Newland ; Matthew Cobb ; Frédéric Marion-Poll
title_short	Insect taste
title_sort	insect taste
topic	Goût Insectes - Physiologie Insects Physiology Taste Geschmackssinn (DE-588)4253946-8 gnd Insekten (DE-588)4027110-9 gnd
topic_facet	Goût Insectes - Physiologie Insects Physiology Taste Geschmackssinn Insekten Aufsatzsammlung
url	http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=016703177&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA
volume_link	(DE-604)BV023082462
work_keys_str_mv	AT newlandphilipl insecttaste AT cobbmatthew insecttaste AT marionpollfrederic insecttaste

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