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References
Eibl-Eibesfeldt I (1951) Nahrungserwerb und Beuteschema der Erdkröte (Bufo bufo L). Behaviour 4: 1–35
Wiersma CAG, Ikeda K (1964) Interneurons commanding swimmeret movements in the crayfish, Procambarus clarkii (Girard). Comp Biochem Physiol 12: 509–525
Hinsche G (1935) Ein Schnappreflex nach “Nichts” bei Anuren. Zool Anz 111: 113–122
Tinbergen N (1951) The study of instinct. Clarendon Press, Oxford
Lorenz K (1954) Das angeborene Erkennen. Natur und Volk 84: 285–295
Barlow HB (1953) Summation and inhibition in the frog’s retina. J Physiol (Lond) 173: 377–407
Lettvin JY, Maturana HR, McCulloch WS, Pitts WH (1959) What the frog’s eye tells the frog’s brain. Proc Inst Radio Engin 47: 1940–1951
Kupfermann I, Weiss KR (1978) The command neuron concept. Behav Brain Sci 1: 3–39
Eaton RC (1983) Is the Mauthner cell a vertebrate command neuron? A neuroethological perspective on an evolving concept. In: Ewert J-P, Capranica RR, Ingle DJ (eds): Advances in vertebrate neuroethology. Plenum, New York, 629–636
Eaton RC (2001) The Mauthner cell and other identified neurons of the brainstem escape network of fish. Prog Neurobiol 63: 467–485
Ewert J-P (1980) Neuroethology: an introduction to the neurophysiological fundamentals of behavior. Springer, Berlin
Ewert J-P (1997) Neural correlates of key stimulus and releasing mechanism: a case study and two concepts. Trends Neurosci 20: 332–339
Ewert J-P (2004) Motion perception shapes the visual world of amphibians. In: Prete FR (ed): Complex worlds from simpler nervous systems. MIT Press, Cambridge MA, 117–160
Hailman JP (1969) How an instinct is learnt. Sci Amer 221: 98–106
Bolhuis JE, Giraldeau L-A (2005) The behavior of animals. Mechanisms, function, and evolution. Blackwell, Malden MA
Ewert J-P (1985) The Niko Tinbergen Lecture: concepts in vertebrate neuroethology. Animal Behav 33: 1–29
Ewert J-P (2005) Stimulus perception. Chapter 2. In: Bolhuis JJ, Giraldeau L-A (eds): The behavior of animals. Blackwell, Malden MA, 13–40
Schrader MEG (1887) Zur Physiologie des Froschgehirns. Pflügers Arch 51: 11–21
Johannes T (1930) Zur Funktion des sensiblen Thalamus. Pflüg Arch 224
Goltz P (1869) Beiträge zur Lehre von den Funktionen der Nervenzentren des Frosches. In: Buddenbrock W v (1937) (ed): Grundriß der vergleichenden Physiologie Bd 1, Berlin
Blankenagel S (1931) Untersuchungen über die Großhirnfunktionen von Rana temporaria L. Zool Jb Abteilung allgem Zool 49: 272–322
Diebschlag E (1935) Zur Kenntnis der Großhirnfunktion einiger Urodelen und Anuren. Z vergl Physiol 21: 343–394
Ewert J-P (1967) Untersuchungen über die Anteile zentralnervöser Aktionen an der taxisspezifischen Ermüdung der Erdkröte (Bufo bufo L). Z Vergl Physiol 57: 263–298
Northcutt RG, Kicliter E (1980) Organization of the amphibian telencephalon. In: Ebbesson SOE (ed): Comparative neurology of the telencenphalon. Plenum Press, New York London, 203–255
Wilczynski W, Northcutt RG (1983) Connections of the bullfrog striatum: afferent organization. J Comp Neurol 214: 321–332
Wilczynski W, Northcutt RG (1983) Connections of the bullfrog striatum: efferent projections. J Comp Neurol 214: 333–343
Northcutt RG, Kaas H (1995) The emergence and evolution of mammalian neocortex. Trends Neurosci 18: 373–379
Marín O, González A, Smeets WJAJ (1997) Anatomical substrate of amphibian basal ganglia involvement in visuomotor behaviour. Eur J Neurosci 9: 2100–2109
Marín O, González A, Smeets WJAJ (1997) Basal ganglia organization in amphibians: afferent connections to the striatum and the nucleus accumbens. J Comp Neurol 378: 16–49
Marín O, González A, Smeets WJAJ (1997) Basal ganglia organization in amphibians: efferent connections of the striatum and the nucleus accumbens. J Comp Neurol 380: 23–50
Marín O, Smeets WJAJ, González A (1997) Basal ganglia organization in amphibians: catecholaminergic innervation of the striatum and the nucleus accumbens. J Comp Neurol 378: 50–69
Marín O, Smeets WJAJ, González A (1997) Basal ganglia organization in amphibians: development of striatal and nucleus accumbens connections with emphasis on the catecholaminergic inputs. J Comp Neurol 383: 349–369
Marín O, González A, Smeets WJAJ (1998) Basal ganglia organization in amphibians: chemoarchitecture. J Comp Neurol 392: 285–312
Marín O, Smeets WJAJ, González A (1998) Evolution of the basal ganglia in tetrapods: a new perspective based on recent studies in amphibians. Trends Neurosci 21: 487–494
González A, Smeets WJ, Marín O (1999) Evidences for shared features in the organization of the basal ganglia in tetrapods: studies in amphibians. Eur J Morphol 37(2–3): 151–154
Reiner A, Brecha NC, Karten HJ (1982) Basal ganglia pathways to the tectum: the afferent and efferent connections of the lateral spiriform nucleus of pigeon. J Comp Neurol 208: 16–36
Reiner A, Brauth SE, Karten HJ (1984) Evolution of the amniote basal ganglia. Trends Neurosci 7: 320–325
Reiner A, Medina L, Veenman CL (1998) Structural and functional evolution of the basal ganglia in vertebrates. Brain Res Rev 28: 235–285
Herrick CJ (1933) The amphibian forebrain. VIII: Cerebral hemispheres and pallial primordia. J Comp Neurol 58: 737–759
Roth G, Westhoff G (1999) Cytoarchitecture and connectivity of the amphibian medial pallium. Eur J Morphol 37: 166–171
Marín O, Smeets WJ, Munoz M, Sanchez-Camacho C, Pena JJ, Lopez JM, González A (1999) Cholinergic and catecholaminergic neurons relay striatal information to the optic tectum in amphibians. Eur J Morphol 37: 155–159
Marín O, González A (1999) Origin of tectal cholinergic projections in amphibians: a combined study of choline acetyltransferase immunohistochemistry and retrograde transport of dextran amines. Vis Neurosci 16: 271–283
Schneider D (1954) Beitrag zu einer Analyse des Beute-und Fluchtverhaltens einheimischer Anuren. Biol Zbl 73: 225–282
Ewert J-P (1974) The neural basis of visually guided behavior. Sci Amer 230: 34–42
Ewert J-P (1984) Tectal mechanisms that underlie prey-catching and avoidance behaviors in toads. In: Vanegas H (ed): Comparative neurology of the optic tectum. Plenum, New York, 247–416
Ewert J-P, Arend B, Becker V, Borchers H-W (1979) Invariants in configurational prey selection by Bufo bufo (L.). Brain Behav Evol 16: 38–51
Ewert J-P, Burghagen H (1979) Configurational prey selection by Bufo, Alytes, Bombina, and Hyla. Brain Behav Evol 16(3): 157–175
Grüsser O-J, Grüsser-Cornehls U, Finkelstein D, Henn V, Patutschnik M, Butenandt E (1967) Aquantitative analysis of movement detecting neurons in the frog retina. Pflügers Arch 293: 100–106
Ewert J-P (1987) Neuroethology of releasing mechanisms: prey-catching in toads. Behav Brain Sci 10: 337–405
Satou M, Ewert J-P (1985) The antidromic activation of tectal neurons by electrical stimuli applied to the caudal medulla oblongata in the toad Bufo bufo (L.). J Comp Physiol 157: 739–748
Ewert J-P, Framing EM, Schürg-Pfeiffer E, Weerasuriya A (1990) Responses of medullary neurons to moving visual stimuli in the common toad: I) Characterization of medial reticular neurons by extracellular recording. J Comp Physiol A 167: 495–508
Ewert J-P, Hock FJ, Wietersheim A v (1974) Thalamus/Praetectum/Tectum: retinale Topographie und physiologische Interaktionen bei der Kröte (Bufo bufo L). J Comp Physiol 92: 343–356
Schürg-Pfeiffer E, Spreckelsen C, Ewert J-P (1993) Temporal discharge patterns of tectal and medullary neurons chronically recorded during snapping toward prey in toads Bufo bufo spinosus. J Comp Physiol A 173: 363–376
Ewert J-P, Schürg-Pfeiffer E, Schwippert WW (1996) Influence of pretectal lesions on tectal responses to visual stimulation in anurans: field potential, single neuron and behavior analyses. Acta Biologica Acad Sci Hungaria 47(2–4): 223–245
Ewert J-P, Wietersheim A v (1974) Der Einfluß von Thalamus/Praetectum-Defekten auf dieAntwort von Tectum-Neuronen gegenüber bewegten visuellen Mustern bei der Kröte (Bufo bufo L). J Comp Physiol 92: 149–160
Ewert J-P (1971) Single unit response of the toad (Bufo americanus) caudal thalamus to visual objects. Vergl Physiol 74: 81–102
Lázár G (1989) Cellular architecture and connectivity of the frog’s optic tectum and pretectum. In: Ewert J-P, Arbib MA (eds): Visuomotor coordination. Plenum, New York, 175–199
Matsumoto N (1989) Morphological and physiological studies of tectal and pretectal neurons in the frog. In: Ewert J-P, Arbib MA (eds): Visuomotor coordination. Plenum, New York, 201–222
Buxbaum-Conradi H, Ewert J-P (1995) Pretecto-tectal influences I. What the toad’s pretectum tells its tectum: an antidromic stimulation/recording study. J Comp Physiol A 176: 169–180
Ingle DJ (1977) Detection of stationary objects by frogs (Rana pipiens) after ablation of optic tectum. J Comp Physiol Psychol 91: 1359–1364
Ingle DJ (1980) Some effects of pretectum lesions on the frog’s detection of stationary objects. Behav Brain Res 1: 139–163.
Lázár G, Maderdrut JL, Trasti SL, Liposits Z, Tóth P, Kozicz T, Merchenthaler I (1993) Distribution of proneuropeptide Y-derived peptides in the brain of Rana esculenta and Xenopus laevis. J Comp Neurol 327: 551–571
Danger JM, Guy J, Benyamina M, Jegou S, Leboulenger F, Cote J, Tonon MC, Pelletier G, Vaudry H (1985) Localization and identification of neuropeptide Y (NPY)-like immunoreactivity in the frog brain. Peptides 6: 1225–1236
Chapman AM, Debski EA (1995) Neuropeptide Y immunoreactivity of a projection from the lateral thalamic nucleus to the optic tectum of the leopard frog. Vis Neurosci 12: 1–9
Lázár G (2001) Peptides in frog brain areas processing visual information. Microsc Res Tech 54(4): 201–219
Kozicz T, Lázár G (1994) The origin of tectal NPY immunopositive fibers in the frog. Brain Res 635: 345–348
Tuinhof R, Gonzalez A, Smeets WJAJ, Roubos EW (1994) Neuropeptide Y in the developing and adult brain of the South African clawed toad, Xenopus laevis. J Chem Neuroanatom 7: 271–283
Schwippert WW, Ewert J-P (1995) Effect of neuropeptide-Y on tectal field potentials in the toad. Brain Res 669: 150–152
Schwippert WW, Röttgen A, Ewert J-P (1998) Neuropeptide Y (NPY) or fragment NPY13–36, but not NPY18–36, inhibit retinotectal transfer in cane toads Bufo marinus. Neurosci Lett 253: 33–36
Carr JA, Brown CL, Mansouri R, Venkatesan S (2002) Neuropeptides and amphibian prey-catching behavior. Comp Biochem Physiol Part B 132: 151–162
Funke S, Ewert J-P (2006) NeuropeptideY suppresses glucose utilization in the dorsal optic tectum towards visual stimulation in the toad Bombina orientalis: A [14C]2DG study. Neuroscience Lett 392: 43–46
Clairambault P (1976) Development of the prosencephalon. In: Llinás R, Precht W (eds): Frog neurobiology. Springer, Berlin, 924–945
D’Aniello B, Imperatore C, Fiorentiono M, Vallarino M, Rastogi RK (1994) Immunocytochemical localization of POMC-derived peptides (adrenocorticotropic hormone, α-melanocyte-stimulating hormone and β-endorphin) in the pituitary, brain and olfactory epithelium of the frog, Rana esculenta, during development. Cell Tissue Res 278: 509–516
Ebbesson SOE (1987) Prey-catching in toads: an exceptional neuroethological model. Behav Brain Sci 10: 375–376
Traud R (1983) Einfluß von visuellen Reizmustern auf die juvenile Erdkröte (Bufo bufo L). Dr.rer.nat. Dissertation. Abt. Neurobiologie. Fachbereich Biologie/Chemie, Univ Kassel
Kuhn P (2003) Quantitative Untersuchungen über die visuelle Steuerung des Beutefangs der Chinesischen Rotbauchunke Bombina orientaliswährend der Ontogenese. Dr.rer.nat. Dissertation, Abt. Neurobiologie, Fachbereich Biologie/Chemie, Univ Kassel
Ewert J-P, Burghagen H (1979) Ontogenetic aspects of visual size constancy phenomenon in the midwife toad Alytes obstetricans (Laur.). Brain Behav Evol 16(2): 99–112
Ewert J-P, Burghagen H, Schürg-Pfeiffer E (1983) Neuroethological analysis of the innate releasing mechanism for prey-catching behavior in toads. In: Ewert J-P, Capranica RR, Ingle DJ (eds): Advances in vertebrate neuroethology. Plenum, New York, 413–475
Székely G, Lázár G (1976) Cellular and synaptic architecture of the optic tectum. In: Llinás R, Precht W (eds): Frog neurobiology. Springer, Berlin, 407–434
Kozicz T, Lázár G (2001) Colocalization of GABA, enkephalin and neuropeptide Y in the tectum of the green frog Rana esculenta. Peptides 22: 1071–1077
González A, Smeets WJAJ (1991) Comparative analysis of dopamine and tyrosine hydroxylase immunoreactivities in the brain of two amphibians, the anuran Rana ridibunda and the urodele Pleurodeles waltlii. J Comp Neurol 303: 457–477
Lázár G (1971) The projection of the retinal quadrants on the optic centers in the frog: a terminal degeneration study. Acta Morph Acad Sci Hung 19: 325–334
Lázár G (1979) Organization of the frog visual system. In: Lissák K (ed): Recent developments of neurobiology in Hungary, Vol 8. Akadémiai Kiadò, Budapest, 9–50
Fite KV, Scalia F (1976) Central visual pathways in the frog. In: Fite KV (ed): The amphibian visual system: a multidisciplinary approach. Academic Press, New York, 87–118
Wilczynski W, Northcutt RG (1977) Afferents to the optic tectum of the leopard frog: an HRP study. J Comp Neurol 173: 219–229
Neary TJ, Wilczynski W (1980) Descending inputs to the optic tectum in ranid frogs. Soc Neurosci Abstr 6: 629
Neary T, Northcutt RG (1983) Nuclear organization of the bullfrog diencephalon. JComp Neurol 213: 262–278
Stevens RJ (1973) A cholinergic inhibitory system in the frog optic tectum: its role in visual electrical responses and feeding behavior. Brain Res 49: 309–321
Gruberg ER (1989) Nucleus isthmi and optic tectum in frogs. In: Ewert J-P, Arbib MA (eds): Visuomotor coordination. Plenum, New York, 341–356
Gruberg ER, Wallace M, Caine H, Mote M (1991) Behavioral and physiological consequences of unilateral ablation of the nucleus isthmi in the leopard frog. Brain Behav Evol 37: 92–103
Gruberg ER, Hughes TE, Karten HJ (1994) Synaptic interregulationships between the optic tectum and the ipsilateral nucleus isthmi in Rana pipiens. J Com Neurol 339(3):353–364
Xiao J, Wang Y, Wang SR (1999) Effects of glutamatergic, cholinergic and GABAergic antagonists on tectal cells in toads. Neuroscience 90(3): 1061–1067
Brzoska J, Schneider H (1978) Modification of prey-catching behavior by learning in the common toad (Bufo bufo L, Anura, Amphibia): changes in response to visual objects and effects of auditory stimuli. Behav Processes 3: 125–136
Finkenstädt T (1989) Visual associative learning: searching for behaviorally relevant brain structures in toads. In: Ewert J-P, Arbib, MA (eds): Visuomotor coordination. Plenum, New York, 799–832
Finkenstädt T, Ewert J-P (1992) Localization of learning-related metabolical changes in brain structures of common toads: a 2-DG-study. In: Gonzalez-Lima F, Finkenstädt T, Scheich H (eds): Advances in metabolic mapping techniques for brain imaging of behavioral and learning functions. Kluwer Academic Publishers, Dordrecht, 409–445
Finkenstädt T, Adler NT, Allen TO, Ewert J-P (1986) Regional distribution of glucose utilization in the telencephalon of toads in response to configurational visual stimuli: a 14C-2DG study. J Comp Physiol A 158: 457–467
Dinges AW, Ewert J-P (1994) Species-universal stimulus responses, modified through conditioning, re-appear after telencephalic lesions in toads. Naturwissenschaften 81:317–320
Guha K, Jorgensen CB, Larsen LO (1980) Relationship between nutritional state and testes function, together with the observations on patterns of feeding, in the toad. J Zool (London) 192: 147–155
Laming PR, Cairns C (1998) Effects of food, glucose, and water ingestion on feeding activity in the toad (Bufo bufo). Behav Neurosci 112(5): 1266–1272
Laming PR (1989) Central representation of arousal. In: Ewert J-P, Arbib MA (eds): Visuomotor coordination. Plenum, New York, 693–727
Laming PR (1993) Slow potential shifts as indicants of glial activation and possible neuromodulation. In: McCallum WC, Curry SH (eds): Slow potential changes in the human brain. Plenum, New York, 35–46
Laming PR, Nicol AU, Roughan JV, Ocherashvili IV, Laming BA (1995) Sustained potential shifts in the toad tectum reflect prey-catching and avoidance behavior. Behav Neurosci 109(1): 150–160
Patton P, Grobstein P (1998). The effects of telencephalic lesions on the visually mediated prey orienting behavior in the leopard frog (Rana pipiens). I. The effects of complete removal of one telencephalic lobe, with a comparison to the effect of unilateral tectal lobe lesions. Brain Behav Evol 51: 123–143
Patton P, Grobstein P (1998). The effects of telencephalic lesions on the visually mediated prey orienting behavior in the leopard frog (Rana pipiens). II. The effects of limited lesions to the telencephalon. Brain Behav Evol 51: 144–161
Finkenstädt T, Adler NT, Allen TO, Ebbesson SOE, Ewert J-P (1985) Mapping of brain activity in mesencephalic and diencephalic structures of toads during presentation of visual key stimuli: a computer assisted analysis of 14C-2DG autoradiographs. J Comp Physiol A 156: 433–445
Finkenstädt T, Ewert J-P (1985) Glucose utilization in the toad’s brain during anesthesia and stimulation of the ascending reticular arousal system: a 14C-2-deoxyglucose study. Naturwissenschaften 72: 161–162
Lázár G, Kozicz, T (1990) Morphology of neurons and axon terminals associated with descending and ascending pathways of the lateral forebrain bundle in Rana exculenta. Cell Tissue Res 260: 535–548
Merchenthaler I, Lázár G, Maderdrut, JL (1989) Distribution of proenkephalin-derived peptides in the brain of Rana esculenta. J Comp Neurol 281: 23–39
Schwerdtfeger WK, Germroth P (1990) The forebrain in nonmammals. Springer, Berlin, 57–65
Matsumoto N, Schwippert WW, Beneke TW, Ewert J-P (1991) Forebrain-mediated control of visually guided prey-catching in toads: investigation of striato-pretectal connections with intracellular recording/labeling methods. Behav Processes 25: 27–40
Buxbaum-Conradi H, Ewert J-P (1999) Responses of single neurons in the toad’s caudal ventral striatum to moving visual stimuli and test of their efferent projection by extracellular antidromic stimulation/recording techniques. Brain Behav Evol 54: 338–354
Gruberg ER, Ambros VR (1974) Aforebrain visual projection in the frog (Rana pipiens). Exp Brain Res 44: 187–197
Buddenbrock Wv (1937) Grundriß der vergleichenden Physiologie. Borntraeger, Berlin
Glagow M, Ewert J-P (1997) Dopaminergic modulation of visual responses in toads. I. Apomorphine-induced effects on visually directed appetitive and consummatory preycatching behavior. J Comp Physiol A 180: 1–9
Glagow M, Ewert J-P (1999) Apomorphine alters prey-catching patterns in the common toad: behavioural experiments and 14C-2-deoxyglucose brain mapping studies. Brain Behav Evol 54: 223–242
Ewert J-P, Beneke TW, Schürg-Pfeiffer E, Schwippert WW, Weerasuriya A (1994) Sensorimotor processes that underlie feeding behavior in tetrapods. In: Bels VL, Chardon M, Vandevalle P (eds): Advances in comparative and environmental physiology, Vol. 18: Biomechanics of feeding in vertebrates. Springer, Berlin, 119–161
Chu J, Wilcox RE, Wilczynski W (1994) Pharmacological characterization of D1 and D2 dopamine receptors in Rana pipiens. Soc Neurosci Abstr 20: 167
Djamgoz MBA, Wagner, H-J (1992) Localization and function of dopamine in the adult vertebrate retina. Neurochem Int 20: 139–191
Röttgen A(1999) Über den Einfluß von Neuropharmaka auf die visuelle Ansprechbarkeit in der retino-tectalen Projektion der Agakröte. Dr.rer.nat. Dissertation, Abt. Neurobiologie, Fachbereich Biologie/Chemie, Univ Kassel.
Glagow M, Ewert J-P (1997) Dopaminergic modulation of visual responses in toads. II. Influences of apomorphine on retinal ganglion cells and tectal cells. J Comp Physiol A 180: 11–18
Glagow M, Ewert J-P (1996) Apomorphine-induced suppression of prey oriented turning in toads is correlated with activity changes in pretectum and tectum: 14C-2DG studies and single cell recordings. Neurosci Lett 220: 215–218
Sanchez-Camacho C, MarÍn O, Lopez JM, Moreno N, Smeets WJ, Ten Donkelaar HJ, González A (2002) Origin and development of descending catecholaminergic pathways to the spinal cord in amphibians. Brain Res Bull 57(3–4): 325–330
Hoffmann A (1973) Stereotaxis atlas of the toad’s brain. Acta Anat 84: 416–451
Kicliter E, Northcutt G (1975) Ascending afferents to the telencephalon of ranid frogs: an anterograde degeneration study. J Comp Neur 161: 239–254
Northcutt RG, Royce GJ (1975) Olfactory bulb projections in the bullfrog Rana catesbeiana. J Morphol 145: 51–268
Ploog D, Gottwald P (1974)Verhaltensforschung: Instinkt, Lernen, Hirnfunktion. Urban & Schwarzenberg, München
Nistri A, Sivilotti L, Welsh DM (1990) An electrophysiological study of the action of N-methyl-D-aspartate on excitatory synaptic transmission in the optic tectum of the frog in vitro. Neuropharmacol 29: 681–687
Hickmott PW, Constantine-Paton M (1993) The contributions of NMDA, non-NMDA, and GABA receptors to postsynaptic responses in neurons of the optic tectum. J Neurosci 13(10): 4339–4353
Gamlin PD, Reiner A, Keyser T, Brecha N, Karten HJ (1996) Projection of the nucleus pretectalis to a retinorecipient tectal layer in the pigeon (Columba livia). J Comp Neurol 368(3): 424–438
Cucchiaro JB, Bickford ME, Sherman SM (1991) A GABAergic projection from the pretectum to the dorsal lateral geniculate nucleus in the cat. Neurosci 41(1) 213–226
Kenigfest NB, Belekhova MG, Karamyan OA, Minakova MN, Rio J-P, Reperant J (2002) Neurochemical organization of the turtle pretectum: an immunohistochemical study. Comparative analysis. J Evol Biochem Physiol 38(6): 673–688
Borostyankoi-Baldauf Z, Herczeg L (2002) Parcellation of the human pretectal complex: a chemoarchitectonic reappraisal. Neurosci 110(3): 527–540
Ebersole TJ, Coulon JM, Goetz FW, Boy SK (2001) Characterization and distribution of neuropeptide Y in the brain of a caecilian amphibian. Peptides 22: 325–334
Bertoz A, Vidal PP, Graf W (1992) The head-neck sensory motor system. Oxford Univ Press, New York
Foreman N, Stevens R (1987) Relationships between the superior colliculus and hippocampus: Neural and behavioural considerations. Behav Brain Sci 10: 101–152
Gonzalez-Lima F (1989) Functional brain circuitry related to arousal and learning in rats. In: Ewert J-P, Arbib MA (eds): Visuomotor coordination. Plenum, New York, 729–765
Ewert J-P, Finkenstädt T (1987) Modulation of tectal functions by prosencephalic loops in amphibians. Behav Brain Sci 10(1): 122–123
Birkhofer M, Bleckmann H, Görner P (1994) Sensory activity in the telencephalon of the clawed toad, Xenopus laevis. Eur J Morphol 2–4: 262–266
Walkowiak W, Berlinger M, Schul J, Gerhardt HC (1999) Significance of forebrain structures in acoustically guided behavior in anurans. Eur J Morphol 37(2–3): 177–181
Endepols H, Walkowiak W (1999) Influence of descending forebrain projections on processing of acoustic signals and audiomotor integration in the anuran midbrain. Eur J Morphol 37(2–3): 182–184
Chevalier G, Vacher S, Deniau JM (1984) Inhibitory nigral influence on tectospinal neurons, a possible implication of basal ganglia in orienting behavior. Exp Brain Res 53: 320–326
Chevalier G, Deniau JM (1990) Disinhibition as a basic process in the expression of striatal functions. Trends Neurosci 13: 277–280
Andersen H, Bræstrup C, Randrup A (1975) Apomorphine-induced stereotyped biting in the tortoise in relation to dopaminergic mechanisms. Brain Behav Evol 11: 365–373
Dhawan B, Saxena PN, Gupta GP (1961) Apomorphin-induced pecking in pigeons. Brit J Pharmacol 15: 285–295
Burg B, Haase C, Lindenblatt U, Delius JD (1989) Sensitization to and conditioning with apomorphine in pigeons. Pharmacol Biochem Behav 34: 59–64
Fekete M, Kurti AM, Priubusz J (1970) On the dopaminergic nature of the gnawing compulsion induced by apomorphine in mice. J Pharmacol 22: 377–379
McCulloch J, Savaki HE, McCulloch MC, Jehle J, Sokoloff L (1982) The distribution of alterations in energy metabolism in the rat brain produced by apomorphine. Brain Res 243: 67–80
Blackburn JB, Pfaust JG, Phillips AG (1992) Dopamine functions in appetitive and defensive behaviours. Prog Neurobiol 39: 247–279
Szechman H, Cleghorn JM, Brown GM, Kaplan RD, Franco SW, Rosenthal K (1987) Sensitization and tolerance to apomorphine in men: yawning, growth hormone, nausea, and hypothermia. Psychiatr Res 23: 245–255
Ugwoke MI, Sam E, Van den Mooter G, Verbeke N, Kinget R (1999) Assessment of apomorphine nasal spray in Parkinson treatment. Int J Pharmac 181: 125–193
Godoy AM, Delius JD (1999) Sensitization to apomorphine in pigeons is due to conditioning, subject to generalization but resistant to extinction. Behav Pharmacol 10:367–378
Baxter BL, Gluckman MJ, Stein L, Scerni RA (1974) Self-injection of apomorphine in the rat: positive reinforcement by a dopamine receptor stimulant. Pharmacol Biochem Behav 2: 387–392
Cools AR, Broekkamp CLE, van Rossum JM (1977) Subcutanous injections of apomorphine, stimulus generalization and conditioning: serious pitfalls for the examiner using apomorphine as a tool. Pharmacol Biochem Behav 6: 705–708
Woolverton WL, Goldberg LI, Ginos JZ (1984) Intravenous self-administration of dopamine receptor agonists by rhesus monkeys. J Pharmacol Exp Ther 230: 678–683
Möller, H-G, K. Nowak K, Kuschinsky K (1987) Studies on interactions between conditioned and unconditioned behavioural responses to apomorphine in rats. Naudyn-Schmiedeberg’s Arch Pharm 335: 673–679
Lindenblatt U, Delius JD (1988) Nucleus basalis prosencephali, a substrate of apomorphine-induced pecking in pigeons. Brain Res 453: 1–8
Wynne B, Delius JD (1995) Sensitization to apomorphine in pigeons: unaffected by latent inhibition but still due to classical conditioning. Psychopharmacology 119: 414–420
Godoy AM, Delius JD, Siemann M (2000) Dose shift effects on an apomorphine-elicited response. Med Sci Res 28: 39–42
Ewert J-P, Matsumoto N, Schwippert WW (1985) Morphological identification of preyselective neurons in the grass frog’s optic tectum. Naturwissenschaften 72: 661–662
Ewert J-P, Buxbaum-Conradi H, Dreisvogt F, Glagow M, Merkel-Harff C, Röttgen A, Schürg-Pfeiffer E, Schiwppert WW (2001) Neural modulation of visuomotor functions underlying prey-catching behaviour in anurans: perception, attention, motor performance, Learning. Comp Biochem Physiol A 128: 417–461
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© 2006 Birkhäuser Verlag/Switzerland
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Ewert, JP., Schwippert, W.W. (2006). Modulation of visual perception and action by forebrain structures and their interactions in amphibians. In: Levin, E.D. (eds) Neurotransmitter Interactions and Cognitive Function. Experientia Supplementum, vol 98. Birkhäuser Basel. https://doi.org/10.1007/978-3-7643-7772-4_6
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