Abstract
Left–right asymmetries are highly prevalent throughout metazoan phyla, with bilaterally symmetrical organisms exhibiting well-conserved, consistently sided positioning and anatomy of visceral organs and central nervous system structures. Deviations from normal laterality constitute an important class of birth defects and much study has been devoted to the early mechanisms orienting the left–right axis during embryogenesis as well as lateralization of the brain. Far less understood are the potential links between laterality of the body and cognition, though recent work has begun to uncover a range of behaviors which are modified in organisms with altered left–right asymmetry. Here, we review regulatory events critical for the establishment of asymmetry and subsequent left–right patterning, using data from Xenopus, zebrafish, chick, Arabidopsis, and single cells, and discuss molecular and pharmacological reagents that disrupt these processes. We especially focus on behavioral assays which are sensitive to body laterality, presenting existing data for several model systems. Beyond classical conditioning and behavior screens, new automated machine vision platforms are powerful emerging tools to quantitatively examine the relationship between body asymmetry and lateralized and nonlateralized behaviors. This chapter serves as a primer for methods that allow the examination of cognitive and behavioral endpoints subsequent to molecular interventions in embryonic left–right asymmetry.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
References
McManus C (2002) Right hand, left hand: the origins of asymmetry in brains, bodies, atoms and cultures. Weidenfeld and Nicolson, London
Ludwig W (1932) Rechts-Links-Problem im Tierreich und beim Menschen. Springer, Berlin
Neville A (1976) Animal asymmetry. Edward Arnold, London
Palmer AR (1996) From symmetry to asymmetry: phylogenetic patterns of asymmetry variation in animals and their evolutionary significance. Proc Natl Acad Sci U S A 93(25):14279–14286
Palmer AR (2004) Symmetry breaking and the evolution of development. Science 306(5697):828–833
Klingenberg CP, McIntyre GS (1998) Geometric morphometrics of developmental instability: analyzing patterns of fluctuating asymmetry with Procrustes methods. Evolution 52:1363–1375
Govind CK (1992) Claw asymmetry in lobsters: case study in developmental neuroethology. J Neurobiol 23(10):1423–1445
Burn J (1991) Disturbance of morphological laterality in humans. CIBA Found Symp 162:282–296
Peeters H, Devriendt K (2006) Human laterality disorders. Eur J Med Genet 49(5):349–362
Smith AT, Sack GH Jr, Taylor GJ (1979) Holt-Oram syndrome. J Pediatr 95(4):538–543
Paulozzi LJ, Lary JM (1999) Laterality patterns in infants with external birth defects. Teratology 60(5):265–271
Sandson TA, Wen PY, LeMay M (1992) Reversed cerebral asymmetry in women with breast cancer. Lancet 339(8792):523–524
McManus IC (1992) Reversed cerebral asymmetry and breast cancer. Lancet 339(8800):1055
Sotelo-Avila C, Gonzalez-Crussi F, Fowler JW (1980) Complete and incomplete forms of Beckwith-Wiedemann syndrome: their oncogenic potential. J Pediatr 96(1):47–50
Veltmaat JM, Ramsdell AF, Sterneck E (2013) Positional variations in mammary gland development and cancer. J Mammary Gland Biol Neoplasia 18(2):179–188
Neveu PJ (1993) Brain lateralization and immunomodulation. Int J Neurosci 70(1–2):135–143
Neveu PJ (2002) Cerebral lateralization and the immune system. Int Rev Neurobiol 52:303–323
Klar AJ (1999) Genetic models for handedness, brain lateralization, schizophrenia, and manic-depression. Schizophr Res 39(3):207–218
Vallortigara G, Rogers LJ (2005) Survival with an asymmetrical brain: advantages and disadvantages of cerebral lateralization. Behav Brain Sci 28(4):575–589, discussion 589–633
McManus C (2005) Reversed bodies, reversed brains, and (some) reversed behaviors: of zebrafish and men. Dev Cell 8(6):796–797
Halpern ME et al (2005) Lateralization of the vertebrate brain: taking the side of model systems. J Neurosci 25(45):10351–10357
Frasnelli E, Vallortigara G, Rogers LJ (2012) Left-right asymmetries of behaviour and nervous system in invertebrates. Neurosci Biobehav Rev 36(4):1273–1291
Levin M et al (1995) A molecular pathway determining left-right asymmetry in chick embryogenesis. Cell 82(5):803–814
Brown NA, Wolpert L (1990) The development of handedness in left/right asymmetry. Development 109(1):1–9
Sauer S, Klar AJ (2012) Left-right symmetry breaking in mice by left-right dynein may occur via a biased chromatid segregation mechanism, without directly involving the Nodal gene. Front Oncol 2:166
Basu B, Brueckner M (2008) Cilia: multifunctional organelles at the center of vertebrate left-right asymmetry. Curr Top Dev Biol 85:151–174
Tee YH et al (2015) Cellular chirality arising from the self-organization of the actin cytoskeleton. Nat Cell Biol 17(4):445–457
Taniguchi K et al (2011) Chirality in planar cell shape contributes to left-right asymmetric epithelial morphogenesis. Science 333(6040):339–341
Lobikin M et al (2012) Early, nonciliary role for microtubule proteins in left-right patterning is conserved across kingdoms. Proc Natl Acad Sci U S A 109(31):12586–12591
Toyoizumi R et al (1997) Adrenergic neurotransmitters and calcium ionophore-induced situs inversus viscerum in Xenopus laevis embryos. Dev Growth Differ 39(4):505–514
Garic-Stankovic A et al (2008) A ryanodine receptor-dependent Cai2+ asymmetry at Hensen’s node mediates avian lateral identity. Development 135(19):3271–3280
Fukumoto T, Blakely R, Levin M (2005) Serotonin transporter function is an early step in left-right patterning in chick and frog embryos. Dev Neurosci 27(6):349–363
Levin M et al (2002) Asymmetries in H+/K+-ATPase and cell membrane potentials comprise a very early step in left-right patterning. Cell 111(1):77–89
Raya A et al (2004) Notch activity acts as a sensor for extracellular calcium during vertebrate left-right determination. Nature 427(6970):121–128
Levin M (1998) Left-right asymmetry and the chick embryo. Semin Cell Dev Biol 9(1):67–76
Muller P et al (2012) Differential diffusivity of Nodal and Lefty underlies a reaction-diffusion patterning system. Science 336(6082):721–724
Kato Y (2011) The multiple roles of Notch signaling during left-right patterning. Cell Mol Life Sci 68(15):2555–2567
Ramasubramanian A et al (2013) On the role of intrinsic and extrinsic forces in early cardiac S-looping. Dev Dyn 242(7):801–816
Horne-Badovinac S, Rebagliati M, Stainier DY (2003) A cellular framework for gut-looping morphogenesis in zebrafish. Science 302(5645):662–665
Raya A, Belmonte JC (2006) Left-right asymmetry in the vertebrate embryo: from early information to higher-level integration. Nat Rev Genet 7(4):283–293
Levin M (2006) Is the early left-right axis like a plant, a kidney, or a neuron? The integration of physiological signals in embryonic asymmetry. Birth Defects Res C Embryo Today 78(3):191–223
Branford WW, Essner JJ, Yost HJ (2000) Regulation of gut and heart left-right asymmetry by context-dependent interactions between xenopus lefty and BMP4 signaling. Dev Biol 223(2):291–306
Tabin C (2005) Do we know anything about how left-right asymmetry is first established in the vertebrate embryo? J Mol Histol 36(5):317–323
Vandenberg LN, Levin M (2010) Far from solved: a perspective on what we know about early mechanisms of left-right asymmetry. Dev Dyn 239(12):3131–3146
Vandenberg LN, Levin M (2009) Perspectives and open problems in the early phases of left-right patterning. Semin Cell Dev Biol 20(4):456–463
Aw S, Levin M (2008) What's left in asymmetry? Dev Dyn 237(12):3453–3463
Ahmad N, Long S, Rebagliati M (2004) A southpaw joins the roster: the role of the zebrafish nodal-related gene southpaw in cardiac LR asymmetry. Trends Cardiovasc Med 14(2):43–49
Halpern ME, Liang JO, Gamse JT (2003) Leaning to the left: laterality in the zebrafish forebrain. Trends Neurosci 26(6):308–313
Baier H (2000) Zebrafish on the move: towards a behavior-genetic analysis of vertebrate vision. Curr Opin Neurobiol 10(4):451–455
Buske C, Gerlai R (2011) Shoaling develops with age in Zebrafish (Danio rerio). Prog Neuropsychopharmacol Biol Psychiatry 35(6):1409–1415
Darland T, Dowling JE (2001) Behavioral screening for cocaine sensitivity in mutagenized zebrafish. Proc Natl Acad Sci U S A 98(20):11691–11696
Engeszer RE, Ryan MJ, Parichy DM (2004) Learned social preference in zebrafish. Curr Biol 14(10):881–884
Fetcho JR, Liu KS (1998) Zebrafish as a model system for studying neuronal circuits and behavior. Ann N Y Acad Sci 860:333–345
Gerlai R (2010) High-throughput behavioral screens: the first step towards finding genes involved in vertebrate brain function using zebrafish. Molecules 15(4):2609–2622
Gerlai R, Lee V, Blaser R (2006) Effects of acute and chronic ethanol exposure on the behavior of adult zebrafish (Danio rerio). Pharmacol Biochem Behav 85(4):752–761
Goldsmith P (2001) Modelling eye diseases in zebrafish. Neuroreport 12(13):A73–A77
Pan Y et al (2011) Chronic alcohol exposure induced gene expression changes in the zebrafish brain. Behav Brain Res 216(1):66–76
Guo S (2004) Linking genes to brain, behavior and neurological diseases: what can we learn from zebrafish? Genes Brain Behav 3(2):63–74
Hruscha A et al (2013) Efficient CRISPR/Cas9 genome editing with low off-target effects in zebrafish. Development 140(24):4982–4987
Hwang WY et al (2013) Efficient genome editing in zebrafish using a CRISPR-Cas system. Nat Biotechnol 31(3):227–229
Bernstein JG, Garrity PA, Boyden ES (2012) Optogenetics and thermogenetics: technologies for controlling the activity of targeted cells within intact neural circuits. Curr Opin Neurobiol 22(1):61–71
Knopfel T et al (2010) Toward the second generation of optogenetic tools. J Neurosci 30(45):14998–15004
Portugues R et al (2013) Optogenetics in a transparent animal: circuit function in the larval zebrafish. Curr Opin Neurobiol 23(1):119–126
Simmich J, Staykov E, Scott E (2012) Zebrafish as an appealing model for optogenetic studies. Prog Brain Res 196:145–162
Del Bene F, Wyart C (2012) Optogenetics: a new enlightenment age for zebrafish neurobiology. Dev Neurobiol 72(3):404–414
Wyart C, Del Bene F (2011) Let there be light: zebrafish neurobiology and the optogenetic revolution. Rev Neurosci 22(1):121–130
Friedrich RW, Jacobson GA, Zhu P (2010) Circuit neuroscience in zebrafish. Curr Biol 20(8):R371–R381
Kupffer C (1868) Beobachtungea uber die Entwicklung der Knochenfische. Arch Mikrob Anat 4:209–272
Bisgrove BW et al (2005) Polaris and Polycystin-2 in dorsal forerunner cells and Kupffer’s vesicle are required for specification of the zebrafish left-right axis. Dev Biol 287(2):274–288
Essner J et al (2002) Conserved function for embryonic nodal cilia. Nature 418:37–38
Essner JJ et al (2005) Kupffer’s vesicle is a ciliated organ of asymmetry in the zebrafish embryo that initiates left-right development of the brain, heart and gut. Development 132(6):1247–1260
Amack JD, Yost HJ (2004) The T box transcription factor no tail in ciliated cells controls zebrafish left-right asymmetry. Curr Biol 14(8):685–690
Kramer-Zucker AG et al (2005) Cilia-driven fluid flow in the zebrafish pronephros, brain and Kupffer’s vesicle is required for normal organogenesis. Development 132(8):1907–1921
Amack JD, Wang X, Yost HJ (2007) Two T-box genes play independent and cooperative roles to regulate morphogenesis of ciliated Kupffer’s vesicle in zebrafish. Dev Biol 310(2):196–210
Becker-Heck A et al (2011) The coiled-coil domain containing protein CCDC40 is essential for motile cilia function and left-right axis formation. Nat Genet 43(1):79-U105
Francescatto L et al (2010) The activation of membrane targeted CaMK-II in the zebrafish Kupffer’s vesicle is required for left-right asymmetry. Development 137(16):2753–2762
Wang GL et al (2011) The Rho kinase Rock2b establishes anteroposterior asymmetry of the ciliated Kupffer’s vesicle in zebrafish. Development 138(1):45–54
Hamada H et al (2002) Establishment of vertebrate left-right asymmetry. Nat Rev Genet 3(2):103–113
Ramsdell AF, Yost HJ (1998) Molecular mechanisms of vertebrate left-right development. Trends Genet 14(11):459–465
Lenhart KF et al (2013) Integration of nodal and BMP signals in the heart requires FoxH1 to create left-right differences in cell migration rates that direct cardiac asymmetry. PLoS Genet 9(1):e1003109
Lin SY, Burdine RD (2005) Brain asymmetry: switching from left to right. Curr Biol 15(9):R343–R345
Concha ML et al (2000) A nodal signaling pathway regulates the laterality of neuroanatomical asymmetries in the zebrafish forebrain. Neuron 28(2):399–409
Bamford RN et al (2000) Loss-of-function mutations in the EGF-CFC gene CFC1 are associated with human left-right laterality defects. Nat Genet 26(3):365–369
Yan YT et al (1999) Conserved requirement for EGF-CFC genes in vertebrate left-right axis formation. Genes Dev 13(19):2527–2537
Bisgrove BW, Essner JJ, Yost HJ (2000) Multiple pathways in the midline regulate concordant brain, heart and gut left-right asymmetry. Development 127(16):3567–3579
Gamse JT et al (2003) The parapineal mediates left-right asymmetry in the zebrafish diencephalon. Development 130(6):1059–1068
Aizawa H et al (2005) Laterotopic representation of left-right information onto the dorso-ventral axis of a zebrafish midbrain target nucleus. Curr Biol 15(3):238–243
Gamse JT et al (2005) Directional asymmetry of the zebrafish epithalamus guides dorsoventral innervation of the midbrain target. Development 132(21):4869–4881
Amat J et al (2001) The role of the habenular complex in the elevation of dorsal raphe nucleus serotonin and the changes in the behavioral responses produced by uncontrollable stress. Brain Res 917(1):118–126
Haun F, Eckenrode TC, Murray M (1992) Habenula and thalamus cell transplants restore normal sleep behaviors disrupted by denervation of the interpeduncular nucleus. J Neurosci 12(8):3282–3290
Lecourtier L, Kelly PH (2005) Bilateral lesions of the habenula induce attentional disturbances in rats. Neuropsychopharmacology 30(3):484–496
Lecourtier L, Neijt HC, Kelly PH (2004) Habenula lesions cause impaired cognitive performance in rats: implications for schizophrenia. Eur J Neurosci 19(9):2551–2560
Murphy CA et al (1996) Lesion of the habenular efferent pathway produces anxiety and locomotor hyperactivity in rats: a comparison of the effects of neonatal and adult lesions. Behav Brain Res 81(1–2):43–52
Valjakka A et al (1998) The fasciculus retroflexus controls the integrity of REM sleep by supporting the generation of hippocampal theta rhythm and rapid eye movements in rats. Brain Res Bull 47(2):171–184
Barth KA et al (2005) fsi zebrafish show concordant reversal of laterality of viscera, neuroanatomy, and a subset of behavioral responses. Curr Biol 15(9):844–850
Miklosi A, Andrew RJ (2006) The zebrafish as a model for behavioral studies. Zebrafish 3(2):227–234
Sovrano VA et al (1999) Roots of brain specializations: preferential left-eye use during mirror-image inspection in six species of teleost fish. Behav Brain Res 106(1–2):175–180
Bisazza A, Pignatti R, Vallortigara G (1997) Laterality in detour behaviour: interspecific variation in poeciliid fish. Anim Behav 54(5):1273–1281
Facchin L, Bisazza A, Vallortigara G (1999) What causes lateralization of detour behavior in fish? Evidence for asymmetries in eye use. Behav Brain Res 103(2):229–234
Miklosi A, Andrew RJ (1999) Right eye use associated with decision to bite in zebrafish. Behav Brain Res 105(2):199–205
Miklosi A, Andrew RJ, Gasparini S (2001) Role of right hemifield in visual control of approach to target in zebrafish. Behav Brain Res 122(1):57–65
Vallortigara G et al (2001) How birds use their eyes: opposite left-right specialization for the lateral and frontal visual hemifield in the domestic chick. Curr Biol 11(1):29–33
Rogers LJ, Vallortigara G, Andrew RJ (2013) Divided brains: the biology and behaviour of brain asymmetries. Cambridge University Press, Cambridge
Gunturkun O, Kesch S (1987) Visual lateralization during feeding in pigeons. Behav Neurosci 101(3):433–435
Robins A et al (1998) Lateralized agonistic responses and hindlimb use in toads. Anim Behav 56:875–881
Yaman S et al (2003) Visual lateralization in the bottlenose dolphin (Tursiops truncatus): evidence for a population asymmetry? Behav Brain Res 142(1–2):109–114
Miklosi A, Andrew RJ, Savage H (1997) Behavioural lateralisation of the tetrapod type in the zebrafish (Brachydanio rerio). Physiol Behav 63(1):127–135
Sovrano VA (2004) Visual lateralization in response to familiar and unfamiliar stimuli in fish. Behav Brain Res 152(2):385–391
Dadda M et al (2010) Early differences in epithalamic left-right asymmetry influence lateralization and personality of adult zebrafish. Behav Brain Res 206(2):208–215
Burggren WW, Warburton S (2007) Amphibians as animal models for laboratory research in physiology. Ilar J 48(3):260–269
Beck CW, Slack JM (2001) An amphibian with ambition: a new role for Xenopus in the 21st century. Genome Biol 2(10):REVIEWS1029
Mouche I, Malesic L, Gillardeaux O (2011) FETAX assay for evaluation of developmental toxicity. Methods Mol Biol 691:257–269
Pratt KG, Khakhalin AS (2013) Modeling human neurodevelopmental disorders in the Xenopus tadpole: from mechanisms to therapeutic targets. Dis Model Mech 6(5):1057–1065
Beck CW, Izpisua Belmonte JC, Christen B (2009) Beyond early development: Xenopus as an emerging model for the study of regenerative mechanisms. Dev Dyn 238(6):1226–1248
Tseng AS, Levin M (2008) Tail regeneration in Xenopus laevis as a model for understanding tissue repair. J Dent Res 87(9):806–816
Gibbs KM, Chittur SV, Szaro BG (2011) Metamorphosis and the regenerative capacity of spinal cord axons in Xenopus laevis. Eur J Neurosci 33(1):9–25
Lee-Liu D et al (2014) Genome-wide expression profile of the response to spinal cord injury in Xenopus laevis reveals extensive differences between regenerative and non-regenerative stages. Neural Dev 9:12
Koide T, Hayata T, Cho KW (2005) Xenopus as a model system to study transcriptional regulatory networks. Proc Natl Acad Sci U S A 102(14):4943–4948
Ruben LN, Clothier RH, Balls M (2007) Cancer resistance in amphibians. Altern Lab Anim 35(5):463–470
Lobikin M et al (2012) Resting potential, oncogene-induced tumorigenesis, and metastasis: the bioelectric basis of cancer in vivo. Phys Biol 9(6):065002
Robert J, Cohen N (2011) The genus Xenopus as a multispecies model for evolutionary and comparative immunobiology of the 21st century. Dev Comp Immunol 35(9):916–923
Robert J, Ohta Y (2009) Comparative and developmental study of the immune system in Xenopus. Dev Dyn 238(6):1249–1270
Kinney KS, Cohen N (2009) Neural-immune system interactions in Xenopus. Front Biosci 14:112–129
Callery EM (2006) There’s more than one frog in the pond: a survey of the Amphibia and their contributions to developmental biology. Semin Cell Dev Biol 17(1):80–92
Vandenberg LN, Lemire JM, Levin M (2013) It's never too early to get it right: a conserved role for the cytoskeleton in left-right asymmetry. Commun Integr Biol 6(6):e27155
Schweickert A et al (2012) Linking early determinants and cilia-driven leftward flow in left-right axis specification of Xenopus laevis: a theoretical approach. Differentiation 83(2):S67–S77
Blum M et al (2009) Xenopus, an ideal model system to study vertebrate left-right asymmetry. Dev Dyn 238(6):1215–1225
Yost HJ (1991) Development of the left-right axis in amphibians. Ciba Found Symp 162:165–176, discussion 176–181
Yost HJ (1990) Inhibition of proteoglycan synthesis eliminates left-right asymmetry in Xenopus laevis cardiac looping. Development 110(3):865–874
Adams DS, Levin M (2006) Inverse drug screens: a rapid and inexpensive method for implicating molecular targets. Genesis 44(11):530–540
Dush MK et al (2011) Heterotaxin: a TGF-beta signaling inhibitor identified in a multi-phenotype profiling screen in Xenopus embryos. Chem Biol 18(2):252–263
Wheeler GN, Liu KJ (2012) Xenopus: an ideal system for chemical genetics. Genesis 50(3):207–218
Wheeler GN, Brandli AW (2009) Simple vertebrate models for chemical genetics and drug discovery screens: lessons from zebrafish and Xenopus. Dev Dyn 238(6):1287–1308
Sampath K et al (1997) Functional differences among Xenopus nodal-related genes in left-right axis determination. Development 124(17):3293–3302
Cheng AM et al (2000) The lefty-related factor Xatv acts as a feedback inhibitor of nodal signaling in mesoderm induction and L-R axis development in xenopus. Development 127(5):1049–1061
Vandenberg LN, Levin M (2010) Consistent left-right asymmetry cannot be established by late organizers in Xenopus unless the late organizer is a conjoined twin. Development 137(7):1095–1105
Levin M, Mercola M (1998) Gap junctions are involved in the early generation of left-right asymmetry. Dev Biol 203(1):90–105
Vandenberg LN, Lemire JM, Levin M (2013) Serotonin has early, cilia-independent roles in Xenopus left-right patterning. Dis Model Mech 6(1):261–268
Schweickert A et al (2007) Cilia-driven leftward flow determines laterality in Xenopus. Curr Biol 17(1):60–66
Adams DS et al (2006) Early, H+-V-ATPase-dependent proton flux is necessary for consistent left-right patterning of non-mammalian vertebrates. Development 133(9):1657–1671
Aw S et al (2008) H,K-ATPase protein localization and Kir4.1 function reveal concordance of three axes during early determination of left-right asymmetry. Mech Dev 125(3–4):353–372
Morokuma J, Blackiston D, Levin M (2008) KCNQ1 and KCNE1 K+ channel components are involved in early left-right patterning in Xenopus laevis embryos. Cell Physiol Biochem 21(5–6):357–372
Aw S et al (2010) The ATP-sensitive K(+)-channel (K(ATP)) controls early left-right patterning in Xenopus and chick embryos. Dev Biol 346:39–53
Carneiro K et al (2011) Histone deacetylase activity is necessary for left-right patterning during vertebrate development. BMC Dev Biol 11(1):29
Vandenberg LN et al (2013) Rab GTPases are required for early orientation of the left-right axis in Xenopus. Mech Dev 130:254–271
Aw S, Levin M (2009) Is left-right asymmetry a form of planar cell polarity? Development 136(3):355–366
Levin M, Palmer AR (2007) Left-right patterning from the inside out: widespread evidence for intracellular control. Bioessays 29(3):271–287
Bunney TD, De Boer AH, Levin M (2003) Fusicoccin signaling reveals 14-3-3 protein function as a novel step in left-right patterning during amphibian embryogenesis. Development 130(20):4847–4858
Fukumoto T, Kema IP, Levin M (2005) Serotonin signaling is a very early step in patterning of the left-right axis in chick and frog embryos. Curr Biol 15(9):794–803
Qiu D et al (2005) Localization and loss-of-function implicates ciliary proteins in early, cytoplasmic roles in left-right asymmetry. Dev Dyn 234(1):176–189
Vandenberg LN, Pennarola BW, Levin M (2011) Low frequency vibrations disrupt left-right patterning in the Xenopus embryo. PLoS One 6(8):e23306
Vandenberg LN, Stevenson C, Levin M (2012) Low frequency vibrations induce malformations in two aquatic species in a frequency-, waveform-, and direction-specific manner. PLoS One 7(12):e51473
Robins A, Rogers LJ (2006) Lateralized visual and motor responses in the green tree frog, Litoria caerulea. Anim Behav 72:843–852
Bisazza A et al (1996) Right-pawedness in toads. Nature 379(6564):408
Bisazza A et al (1997) Pawedness and motor asymmetries in toads. Laterality 2(1):49–64
Blackiston DJ, Levin M (2013) Inversion of left-right asymmetry alters performance of Xenopus tadpoles in nonlateralized cognitive tasks. Anim Behav 86(2):459–466
Mcgill TE (1960) Response of the leopard frog to electric shock in an escape-learning situation. J Comp Physiol Psychol 53(4):443–445
Thompson PA, Boice R (1975) Attempts to train frogs—review and experiments. J Biol Psychol 17(1):3–13
Blackiston D et al (2010) A second-generation device for automated training and quantitative behavior analyses of molecularly-tractable model organisms. PLoS One 5(12):e14370
Blackiston DJ, Levin M (2012) Aversive training methods in Xenopus laevis: general principles. Cold Spring Harb Protoc 2012(5)
Blackiston DJ, Levin M (2013) Ectopic eyes outside the head in Xenopus tadpoles provide sensory data for light-mediated learning. J Exp Biol 216(Pt 6):1031–1040
James EJ et al (2015) Valproate-induced neurodevelopmental deficits in Xenopus laevis tadpoles. J Neurosci 35(7):3218–3229
Khakhalin AS et al (2014) Excitation and inhibition in recurrent networks mediate collision avoidance in Xenopus tadpoles. Eur J Neurosci 40(6):2948–2962
Spawn A, Aizenman CD (2012) Abnormal visual processing and increased seizure susceptibility result from developmental exposure to the biocide methylisothiazolinone. Neuroscience 205:194–204
Bell MR et al (2011) A neuroprotective role for polyamines in a Xenopus tadpole model of epilepsy. Nat Neurosci 14(4):505–512
Dong W et al (2009) Visual avoidance in Xenopus tadpoles is correlated with the maturation of visual responses in the optic tectum. J Neurophysiol 101(2):803–815
Pai VP et al (2012) Neurally derived tissues in Xenopus laevis embryos exhibit a consistent bioelectrical left-right asymmetry. Stem Cells Int 2012:353491
Gros J et al (2009) Cell movements at Hensen’s node establish left/right asymmetric gene expression in the chick. Science 324(5929):941–944
Levin M et al (1996) Laterality defects in conjoined twins. Nature 384(6607):321
Raya A, Belmonte JCI (2004) Unveiling the establishment of left-right asymmetry in the chick embryo. Mech Dev 121(9):1043–1054
Monsoro-Burq A, Le Douarin NM (2001) BMP4 plays a key role in left-right patterning in chick embryos by maintaining Sonic Hedgehog asymmetry. Mol Cell 7(4):789–799
Manner J (2001) Does an equivalent of the “ventral node” exist in chick embryos? A scanning electron microscopic study. Anat Embryol 203(6):481–490
Zhang Y, Levin M (2009) Left-right asymmetry in the chick embryo requires core planar cell polarity protein Vangl2. Genesis 47(11):719–728
Raya A et al (2003) Notch activity induces Nodal expression and mediates the establishment of left-right asymmetry in vertebrate embryos. Genes Dev 17(10):1213–1218
Hibino T et al (2006) Ion flow regulates left-right asymmetry in sea urchin development. Dev Genes Evol 216(5):265–276
Shimeld SM, Levin M (2006) Evidence for the regulation of left-right asymmetry in Ciona intestinalis by ion flux. Dev Dyn 235(6):1543–1553
Dharmaretnam M, Andrew RJ (1994) Age-specific and stimulus-specific use of right and left eyes by the domestic chick. Anim Behav 48(6):1395–1406
Vallortigara G, Regolin L, Pagni P (1999) Detour behaviour, imprinting and visual lateralization in the domestic chick. Cogn Brain Res 7(3):307–320
Rogers LJ (2000) Evolution of hemispheric specialization: advantages and disadvantages. Brain Lang 73(2):236–253
Rogers LJ (2008) Development and function of lateralization in the avian brain. Brain Res Bull 76(3):235–244
Okumura T et al (2008) The development and evolution of left-right asymmetry in invertebrates: lessons from Drosophila and snails. Dev Dyn 237(12):3497–3515
Speder P et al (2007) Strategies to establish left/right asymmetry in vertebrates and invertebrates. Curr Opin Genet Dev 17(4):351–358
Xu J et al (2007) Polarity reveals intrinsic cell chirality. Proc Natl Acad Sci U S A 104(22):9296–9300
Chen TH et al (2012) Left-right symmetry breaking in tissue morphogenesis via cytoskeletal mechanics. Circ Res 110(4):551–559
Tamada A et al (2010) Autonomous right-screw rotation of growth cone filopodia drives neurite turning. J Cell Biol 188(3):429–441
Heacock AM, Agranoff BW (1977) Clockwise growth of neurites from retinal explants. Science 198(4312):64–66
Wan LQ, Vunjak-Novakovic G (2011) Micropatterning chiral morphogenesis. Commun Integr Biol 4(6):745–748
Wan LQ et al (2011) Micropatterned mammalian cells exhibit phenotype-specific left-right asymmetry. Proc Natl Acad Sci U S A 108(30):12295–12300
Aufderheide KJ, Frankel J, Williams NE (1980) Formation and positioning of surface-related structures in protozoa. Microbiol Rev 44(2):252–302
Geimer S, Melkonian M (2004) The ultrastructure of the Chlamydomonas reinhardtii basal apparatus: identification of an early marker of radial asymmetry inherent in the basal body. J Cell Sci 117(Pt 13):2663–2674
Munoz-Nortes T et al (2014) Symmetry, asymmetry, and the cell cycle in plants: known knowns and some known unknowns. J Exp Bot 65(10):2645–2655
Abe T, Thitamadee S, Hashimoto T (2004) Microtubule defects and cell morphogenesis in the lefty1lefty2 tubulin mutant of Arabidopsis thaliana. Plant Cell Physiol 45(2):211–220
Costa MM et al (2005) Evolution of regulatory interactions controlling floral asymmetry. Development 132(22):5093–5101
Hashimoto T (2002) Molecular genetic analysis of left-right handedness in plants. Philos Trans R Soc Lond B Biol Sci 357(1422):799–808
Henley CL (2012) Possible origins of macroscopic left-right asymmetry in organisms. J Stat Phys 148(4):740–774
Thitamadee S, Tuchihara K, Hashimoto T (2002) Microtubule basis for left-handed helical growth in Arabidopsis. Nature 417(6885):193–196
Nakamura M, Hashimoto T (2009) A mutation in the Arabidopsis gamma-tubulin-containing complex causes helical growth and abnormal microtubule branching. J Cell Sci 122(Pt 13):2208–2217
Blaser R, Gerlai R (2006) Behavioral phenotyping in zebrafish: comparison of three behavioral quantification methods. Behav Res Methods 38(3):456–469
Delcourt J et al (2006) Comparing the EthoVision 2.3 system and a new computerized multitracking prototype system to measure the swimming behavior in fry fish. Behav Res Methods 38(4):704–710
Bass SL, Gerlai R (2008) Zebrafish (Danio rerio) responds differentially to stimulus fish: the effects of sympatric and allopatric predators and harmless fish. Behav Brain Res 186(1):107–117
Gerlai R, Fernandes Y, Pereira T (2009) Zebrafish (Danio rerio) responds to the animated image of a predator: towards the development of an automated aversive task. Behav Brain Res 201(2):318–324
Speedie N, Gerlai R (2008) Alarm substance induced behavioral responses in zebrafish (Danio rerio). Behav Brain Res 188(1):168–177
Lopez Patino MA et al (2008) Gender differences in zebrafish responses to cocaine withdrawal. Physiol Behav 95(1–2):36–47
Prober DA et al (2006) Hypocretin/orexin overexpression induces an insomnia-like phenotype in zebrafish. J Neurosci 26(51):13400–13410
Zhdanova IV et al (2008) Aging of the circadian system in zebrafish and the effects of melatonin on sleep and cognitive performance. Brain Res Bull 75(2–4):433–441
Sison M, Gerlai R (2010) Associative learning in zebrafish (Danio rerio) in the plus maze. Behav Brain Res 207(1):99–104
Al-Imari L, Gerlai R (2008) Sight of conspecifics as reward in associative learning in zebrafish (Danio rerio). Behav Brain Res 189(1):216–219
Gerlai R et al (2000) Drinks like a fish: zebra fish (Danio rerio) as a behavior genetic model to study alcohol effects. Pharmacol Biochem Behav 67(4):773–782
Berman GJ et al (2014) Mapping the stereotyped behaviour of freely moving fruit flies. J R Soc Interface 11(99)
Kabra M et al (2013) JAABA: interactive machine learning for automatic annotation of animal behavior. Nat Methods 10(1):64–67
Maaswinkel H et al (2013) Dissociating the effects of habituation, black walls, buspirone and ethanol on anxiety-like behavioral responses in shoaling zebrafish. A 3D approach to social behavior. Pharmacol Biochem Behav 108:16–27
Maaswinkel H, Zhu L, Weng W (2012) The immediate and the delayed effects of buspirone on zebrafish (Danio rerio) in an open field test: a 3-D approach. Behav Brain Res 234(2):365–374
Maaswinkel H, Zhu LQ, Weng W (2013) Using an automated 3D-tracking system to record individual and shoals of adult zebrafish. J Vis Exp (82): 50681
Zhu L, Weng W (2007) Catadioptric stereo-vision system for the real-time monitoring of 3D behavior in aquatic animals. Physiol Behav 91(1):106–119
Acknowledgements
We thank the members of the Levin lab and of the behavioral science community for many useful discussions. M.L. gratefully acknowledges an Allen Discovery Center award from The Paul G. Allen Frontiers Group, and support of the Templeton World Charity Foundation (TWCF0089/AB55) and the G. Harold and Leila Y. Mathers Charitable Foundation.
Author information
Authors and Affiliations
Corresponding author
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 2017 Springer Science+Business Media LLC
About this protocol
Cite this protocol
Blackiston, D.J., Levin, M. (2017). Reversals of Bodies, Brains, and Behavior. In: Rogers, L., Vallortigara, G. (eds) Lateralized Brain Functions. Neuromethods, vol 122. Humana Press, New York, NY. https://doi.org/10.1007/978-1-4939-6725-4_21
Download citation
DOI: https://doi.org/10.1007/978-1-4939-6725-4_21
Published:
Publisher Name: Humana Press, New York, NY
Print ISBN: 978-1-4939-6723-0
Online ISBN: 978-1-4939-6725-4
eBook Packages: Springer Protocols