Abstract
Oxytocin (OT) and vasopressin (AVP) play a major role in social behaviours. Mice have become the species of choice for neurobiology of social behaviour due to identification of mouse pheromones and the advantage of genetically modified mice. However, neuroanatomical data on nonapeptidergic systems in mice are fragmentary, especially concerning the central distribution of OT. Therefore, we analyse the immunoreactivity for OT and its neurophysin in the brain of male and female mice (strain CD1). Further, we combine immunofluorescent detection of OT and AVP to locate cells co-expressing both peptides and their putative axonal processes. The results indicate that OT is present in cells of the neurosecretory paraventricular (Pa) and supraoptic hypothalamic nuclei (SON). From the anterior SON, OTergic cells extend into the medial amygdala, where a sparse cell population occupies its ventral anterior and posterior divisions. Co-expression of OT and AVP in these nuclei is rare. Moreover, a remarkable OTergic cell group is found near the ventral bed nucleus of the stria terminalis (BST), distributed between the anterodorsal preoptic nucleus and the nucleus of anterior commissure (ADP/AC). This cell group, the rostral edge of the Pa and the periventricular hypothalamus display frequent OT + AVP double labelling, with a general dominance of OT over AVP immunoreactivity. Fibres with similar immunoreactivity profile innervate the accumbens shell and core, central amygdala and portions of the intervening BST. These data, together with data in the literature on rats, suggest that the projections of ADP/AC nonapeptidergic cells onto these brain centres could promote pup-motivated behaviours and inhibit pup avoidance during motherhood.
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Abbreviations
- 10N:
-
Dorsal motor nucleus of the vagus
- 12N:
-
Hypoglossal nucleus
- 3V:
-
Third ventricle
- 4n:
-
Trochlear nerve or its root
- 4V:
-
4th ventricle
- A1:
-
A1 noradrenaline cells
- AC:
-
Anterior commissural nucleus
- AC:
-
Anterior commissural nucleus
- aca:
-
Anterior commissure, anterior part
- Acb:
-
Accumbens nucleus
- AcbC:
-
Accumbens nucleus, core
- AcbSh:
-
Accumbens nucleus, shell
- ACo:
-
Anterior cortical amygdaloid nucleus
- acp:
-
Anterior commissure, posterior part
- AD:
-
Anterodorsal thalamic nucleus
- ADP:
-
Anterodorsal preoptic nucleus
- AHA:
-
Anterior hypothalamic area, anterior part
- AHP:
-
Anterior hypothalamic area, posterior part
- AIP:
-
Agranular insular cortex, posterior part
- AM:
-
Anteromedial thalamic nucleus
- Amb:
-
Ambiguus nucleus
- AN:
-
Accessory nuclei
- AP:
-
Area postrema
- APir:
-
Amygdalopiriform transition area
- Aq:
-
Aqueduct (Sylvius)
- Arc:
-
Arcuate hypothalamic nucleus
- AStr:
-
Amygdalostriatal transition area
- AV:
-
Anteroventral thalamic nucleus
- AVP:
-
Arginine vasopressin
- AVPe:
-
Anteroventral periventricular nucleus
- AVP-ir:
-
Arginine vasopressin immunoreactive
- AVV:
-
Anteroventral thalamic nucleus, ventral part
- BAC:
-
Bed nucleus of the anterior commissure
- BAOT:
-
Bed nucleus of the accessory olfactory
- Bar:
-
Barrington’s nucleus
- BLA:
-
Basolateral amygdaloid nucleus, anterior
- BLV:
-
Basolateral amygdaloid nucleus, ventral
- BMA:
-
Basomedial amygdaloid nucleus, anterior
- BST:
-
Bed nucleus of the stria terminalis
- BSTA:
-
Bed nucleus of the stria terminalis, anterior part
- BSTIA:
-
Bed nucleus of the stria terminalis, intraamygdaloid division
- BSTLD:
-
Bed nucleus of the stria terminalis, lateral division, dorsal part
- BSTLP:
-
Bed nucleus of the stria terminalis, lateral division, posterior part
- BSTLV:
-
Bed nucleus of the stria terminalis, lateral division, ventral part
- BSTMA:
-
Bed nucleus of the stria terminalis, medial division, anterior part
- BSTMP:
-
Bed nucleus of the stria terminalis, medial division, posterior part
- BSTMPI:
-
Bed nucleus of the stria terminalis, medial division, posterointermediate part
- BSTMPL:
-
Bed nucleus of the stria terminalis, medial division, posterolateral part
- BSTMPM:
-
Bed nucleus of the stria terminalis, medial division, posteromedial part
- BSTMV:
-
Bed nucleus of the stria terminalis, medial division, ventral part
- BSTS:
-
Bed nucleus of the stria terminalis, supracapsular part
- cc:
-
Corpus callosum
- CC:
-
Central canal
- Ce:
-
Central amygdaloid nucleus
- CeC:
-
Central amygdaloid nucleus, capsular part
- CeL:
-
Central amygdaloid nucleus, lateral division
- CeM:
-
Central amygdaloid nucleus, medial division
- CeMAD:
-
Central amygdaloid nucleus, medial division, anterodorsal part
- CeMAV:
-
Central amygdaloid nucleus, medial division, anteroventral part
- CGPn:
-
Central grey of the pons
- Cl:
-
Claustrum
- CL:
-
Centrolateral thalamic nucleus
- CM:
-
Central medial thalamic nucleus
- cp:
-
Cerebral peduncle, basal part
- CPu:
-
Caudate putamen (striatum)
- cst:
-
Commissural stria terminalis
- Cu:
-
Cuneate nucleus
- CxA:
-
Cortex–amygdala transition zone
- D3V:
-
Dorsal third ventricle
- DEn:
-
Dorsal endopiriform nucleus
- DG:
-
Dentate gyrus
- DLPAG:
-
Dorsolateral periaqueductal grey
- DM:
-
Dorsomedial hypothalamic nucleus
- DMPAG:
-
Dorsomedial periaqueductal grey
- DMTg:
-
Dorsomedial tegmental nucleus
- DP:
-
Dorsal peduncular cortex
- DpMe:
-
Deep mesencephalic nucleus
- DRC:
-
Dorsal raphe nucleus, caudal part
- DRI:
-
Dorsal raphe nucleus, interfascicular part
- DTg:
-
Dorsal tegmental nucleus
- DTgP:
-
Dorsal tegmental nucleus, pericentral part
- DTM:
-
Dorsal tuberomammillary nucleus
- DTT:
-
Dorsal tenia tecta
- ECu:
-
External cuneate nucleus
- EW:
-
Edinger–Westphal nucleus
- f:
-
Fornix
- F:
-
Nucleus of the fields of Forel
- FG:
-
Fluorogold
- fi:
-
Fimbria of the hippocampus
- fmi:
-
Forceps minor of the corpus callosum
- fr:
-
Fasciculus retroflexus
- GrDG:
-
Granular layer of the dentate gyrus
- Gus:
-
Gustatory thalamic nucleus
- HDB:
-
Nucleus of the horizontal limb of the diagonal band
- I:
-
Intercalated nuclei of the amygdala
- IAD:
-
Interanterodorsal thalamic nucleus
- ic:
-
Internal capsule
- ICj:
-
Islands of Calleja
- ICjM:
-
Islands of Calleja, major island
- ICjvm:
-
Islands of Calleja, ventromedial island
- icp:
-
Inferior cerebellar peduncle
- IG:
-
Indusium griseum
- IL:
-
Infralimbic cortex
- IM:
-
Intercalated amygdaloid nucleus, main part
- In:
-
Intercalated nucleus of the medulla
- IO:
-
Inferior olive
- IOD:
-
Inferior olive, dorsal nucleus
- IPAC:
-
Interstitial nucleus of the posterior limb of the anterior commissure
- IPACL:
-
Lateral interstitial nucleus of the posterior limb of the anterior commissure
- IPACM:
-
Medial interstitial nucleus of the posterior limb of the anterior commissure
- IRt:
-
Intermediate reticular nucleus
- KF:
-
Kölliker-Fuse nucleus
- La:
-
Lateral amygdaloid nucleus
- LA:
-
Lateroanterior hypothalamic nucleus
- LaDL:
-
Lateral amygdaloid nucleus, dorsolateral part
- LaVL:
-
Lateral amygdaloid nucleus, ventrolateral part
- LaVM:
-
Lateral amygdaloid nucleus, ventromedial part
- LC:
-
Locus coeruleus
- LDTg:
-
Laterodorsal tegmental nucleus
- LDTgV:
-
Laterodorsal tegmental nucleus, ventral part
- LEnt:
-
Lateral entorhinal cortex
- LGP:
-
Lateral globus pallidus
- LH:
-
Lateral hypothalamic area
- LHb:
-
Lateral habenular nucleus
- lo:
-
Lateral olfactory tract
- LPBE:
-
Lateral parabrachial nucleus, external part
- LPBS:
-
Lateral parabrachial nucleus, superior part
- LPBV:
-
Lateral parabrachial nucleus, ventral part
- LPMR:
-
Lateral posterior thalamic nucleus, mediodorsal part
- LPO:
-
Lateral preoptic area
- LRt:
-
Lateral reticular nucleus
- LS:
-
Lateral septum
- LSD:
-
Lateral septal nucleus, dorsal part
- LSI:
-
Lateral septal nucleus, intermediate part
- LSV:
-
Lateral septal nucleus, ventral part
- LV:
-
Lateral ventricle
- maopt:
-
Medial accessory optic tract
- MCLH:
-
Magnocellular nucleus of the lateral hypothalamus
- MCPO:
-
Magnocellular preoptic nucleus
- MD:
-
Mediodorsal thalamic nucleus
- MdD:
-
Medullary reticular nucleus, dorsal part
- MdV:
-
Medullary reticular nucleus, ventral part
- Me:
-
Medial amygdaloid nucleus
- Me5:
-
Mesencephalic trigeminal nucleus
- MeA:
-
Medial amygdaloid nucleus, anterior part
- MeAD:
-
Medial amygdaloid nucleus, anterior dorsal part
- MeAV:
-
Medial amygdaloid nucleus, anteroventral part
- MePD:
-
Medial amygdaloid nucleus, posterodorsal part
- MePV:
-
Medial amygdaloid nucleus, posteroventral part
- mfb:
-
Medial forebrain bundle
- MGP:
-
Medial globus pallidus (entopeduncular nucleus)
- MHb:
-
Medial habenular nucleus
- ml:
-
Medial lemniscus
- mlf:
-
Medial longitudinal fasciculus
- MnPO:
-
Median preoptic nucleus
- MPA:
-
Medial preoptic area
- MPB:
-
Medial parabrachial nucleus
- MPO:
-
Medial preoptic nucleus
- MPOL:
-
Medial preoptic nucleus, lateral part
- MPOM:
-
Medial preoptic nucleus, medial part
- MS:
-
Medial septal nucleus
- mt:
-
Mammillothalamic tract
- mtg:
-
Mammillotegmental tract
- MTu:
-
Medial tuberal nucleus
- MVe:
-
Medial vestibular nucleus
- mvStP:
-
Medioventral striato-pallidum
- NADPHd:
-
Nicotinamide adenine dinucleotide phosphate diaphorase
- ns:
-
Nigrostriatal bundle
- O:
-
Nucleus O
- opt:
-
Optic tract
- OT:
-
Oxytocin
- OT-ir:
-
Oxytocin-like immunoreactive (referring to immunostaining using antibodies raised against oxytocin or against its specific neurophysin)
- OTR:
-
Oxytocin receptor
- PaAP:
-
Paraventricular hypothalamic nucleus, anterior parvicellular
- PAG:
-
Periaqueductal grey
- PaL:
-
Paraventricular hypothalamic nucleus, lateral part
- PaM:
-
Paraventricular hypothalamic nucleus, medial part
- PaPo:
-
Paraventricular hypothalamic nucleus, posterior part
- PaV:
-
Paraventricular hypothalamic nucleus, ventral part
- PB:
-
Phosphate buffer
- PBS:
-
Phosphate-buffered saline
- PC:
-
Paracentral thalamic nucleus
- Pc:
-
Posterior commissure
- PCom:
-
Nucleus of the posterior commissure
- Pe:
-
Periventricular hypothalamic nucleus
- PeF:
-
Perifornical nucleus
- PF:
-
Parafascicular thalamic nucleus
- PH:
-
Posterior hypothalamic area
- Pir:
-
Piriform cortex
- PLCo:
-
Posterolateral cortical amygdaloid nucleus
- PMCo:
-
Posteromedial cortical amygdaloid nucleus
- PMD:
-
Premammillary nucleus, dorsal part
- PMn:
-
Paramedian reticular nucleus
- PMnR:
-
Paramedian raphe nucleus
- PMV:
-
Premammillary nucleus, ventral part
- PnC:
-
Pontine reticular nucleus, caudal part
- PO:
-
Periolivary region
- Pr5:
-
Principal sensory trigeminal nucleus
- PRh:
-
Perirhinal cortex
- PrL:
-
Prelimbic cortex
- PSTh:
-
Parasubthalamic nucleus
- PT:
-
Paratenial thalamic nucleus
- PV:
-
Paraventricular thalamic nucleus
- PVA:
-
Paraventricular thalamic nucleus, anterior part
- Py:
-
Pyramidal cell layer of the hippocampus
- Rad:
-
Stratum radiatum of the hippocampus
- Re:
-
Reuniens thalamic nucleus
- RI:
-
Rostral interstitial nucleus of the medial longitudinal fasciculus
- RLi:
-
Rostral linear nucleus of the raphe
- RMg:
-
Raphe magnus nucleus
- RPF:
-
Retroparafascicular nucleus
- RRF:
-
Retrorubral field
- rs:
-
Rubrospinal tract
- Rt:
-
Reticular thalamic nucleus
- SCh:
-
Suprachiasmatic nucleus
- SCO:
-
Subcommissural organ
- scp:
-
Superior cerebellar peduncle
- SFi:
-
Septofimbrial nucleus
- SFO:
-
Subfornical organ
- Shi:
-
Septohippocampal nucleus
- SHy:
-
Septohypothalamic nucleus
- SI:
-
Substantia innominata
- SL:
-
Semilunar nucleus
- SLu:
-
Stratum lucidum, hippocampus
- SM:
-
Nucleus of the stria medullaris
- sm:
-
Stria medullaris of the thalamus
- SN:
-
Substantia nigra
- Sol:
-
Nucleus of the solitary tract
- sol:
-
Solitary tract
- SON:
-
Supraoptic nucleus
- SOR:
-
Supraoptic nucleus, retrochiasmatic part
- sp5:
-
Spinal trigeminal tract
- st:
-
Stria terminalis
- StA:
-
Striatal part of the preoptic area
- Su3:
-
Supraoculomotor periaqueductal grey
- Su5:
-
Supratrigeminal nucleus
- SubB:
-
Subbrachial nucleus
- SubC:
-
Subcoeruleus nucleus
- TBS:
-
TRIS-buffered saline
- TC:
-
Tuber cinereum area
- Te:
-
Terete hypothalamic nucleus
- Tu:
-
Olfactory tubercle
- Unc:
-
Uncinate fasciculus
- V1aR:
-
Arginine vasopressin receptor type 1a
- V1bR:
-
Arginine vasopressin receptor type 1b
- VA:
-
Ventral anterior thalamic nucleus
- VDB:
-
Nucleus of the vertical limb of the diagonal band
- VEn:
-
Ventral endopiriform nucleus
- VLPO:
-
Ventrolateral preoptic nucleus
- VM:
-
Ventromedial thalamic nucleus
- VMH:
-
Ventromedial hypothalamic nucleus
- VMHC:
-
Ventromedial hypothalamic nucleus, central part
- VMHDM:
-
Ventromedial hypothalamic nucleus, dorsomedial part
- VMHVL:
-
Ventromedial hypothalamic nucleus, ventrolateral part
- VMPO:
-
Ventromedial preoptic nucleus
- VOLT:
-
Vascular organ of the lamina terminalis
- VP:
-
Ventral pallidum
- vsc:
-
Ventral spinocerebellar tract
- VTA:
-
Ventral tegmental area
- VTg:
-
Ventral tegmental nucleus
- VTM:
-
Ventral tuberomammillary nucleus
- VTT:
-
Ventral tenia tecta
- Xi:
-
Xiphoid thalamic nucleus
- ZI:
-
Zona incerta
References
Banczerowski P et al (2003) Lesion of the amygdala on the right and left side suppresses testosterone secretion but only left-sided intervention decreases serum luteinizing hormone level. J Endocrinol Invest 26(5):429–434
Beery AK, Lacey EA, Francis DD (2008) Oxytocin and vasopressin receptor distributions in a solitary and a social species of tuco-tuco (Ctenomys haigi and Ctenomys sociabilis). J Comp Neurol 507(6):1847–1859
Belenky M et al (1992) Ultrastructural immunolocalization of rat oxytocin-neurophysin in transgenic mice expressing the rat oxytocin gene. Brain Res 583(1–2):279–286
Ben-Barak Y et al (1985) Neurophysin in the hypothalamo-neurohypophysial system. I. Production and characterization of monoclonal antibodies. J Neurosci 5(1):81–97
Bielsky IF et al (2005) The V1a vasopressin receptor is necessary and sufficient for normal social recognition: a gene replacement study. Neuron 47(4):503–513
Bosch OJ (2011) Maternal nurturing is dependent on her innate anxiety: the behavioral roles of brain oxytocin and vasopressin. Horm Behav 59(2):202–212
Breiter HC et al (1996) Response and habituation of the human amygdala during visual processing of facial expression. Neuron 17(5):875–887
Buijs RM (1978) Intra- and extrahypothalamic vasopressin and oxytocin pathways in the rat. Pathways to the limbic system, medulla oblongata and spinal cord. Cell Tissue Res 192(3):423–435
Buijs RM et al (1978) Intra- and extrahypothalamic vasopressin and oxytocin pathways in the rat. Cell Tissue Res 186:423–433
Butovsky E et al (2006) Chronic exposure to ∆9-tetrahydrocannabinol downregulates oxytocin and oxytocin-associated neurophysin in specific brain areas. Mol Cell Neurosci 31(4):795–804
Bychowski ME, Mena JD, Auger CJ (2013) Vasopressin infusion into the lateral septum of adult male rats rescues progesterone-induced impairment in social recognition. Neuroscience 246:52–58
Cádiz-Moretti B, Martínez-García F, Lanuza E (2013) Neural substrate to associate odorants and pheromones: convergence of projections from the main and accessory olfactory bulbs in mice. In: East ML, Dehnhard M (eds) Chemical signals in vertebrates 12. Springer, New York, pp 269–275. doi:10.1007/978-1-4614-5927-9
Caffé AR et al (1989) Vasopressin and oxytocin systems in the brain and upper spinal cord of Macaca fascicularis. J Comp Neurol 287(3):302–325
Caldwell H, Young 3rd WS (2006) Oxytocin and vasopressin: genetics and behavioral implications. Handbook of neurochemistry and molecular neurobiology, pp 573–607. doi:10.1007/978-0-387-30381-9_25
Caldwell HK, Wersinger SR, Young WS 3rd (2008) The role of the vasopressin 1b receptor in aggression and other social behaviours. Prog Brain Res 170:65–72
Campbell P, Ophir AG, Phelps SM (2009) Central vasopressin and oxytocin receptor distributions in two species of singing mice. J Comp Neurol 516(4):321–333
Carter CS et al (2008) Oxytocin, vasopressin and sociality. Prog Brain Res 170:331–336
Castel M, Morris JF (1988) The neurophysin-containing innervation of the forebrain of the mouse. Neuroscience 24(3):937–966
Caughey SD et al (2011) Changes in the intensity of maternal aggression and central oxytocin and vasopressin V1a receptors across the peripartum period in the rat. J Neuroendocrinol 23(11):1113–1124
Chamero P et al (2007) Identification of protein pheromones that promote aggressive behaviour. Nature 450(7171):899–902
Choleris E, Pfaff DW, Kavaliers M (2013) Oxytocin, vasopressin and related peptides in the regulation of behavior. In: Oxytocin, vasopressin and related peptides in the regulation of behavior. pp 379–381. http://ebooks.cambridge.org/ref/id/CBO9781139017855
Condés-Lara M et al (2007) Branched oxytocinergic innervations from the paraventricular hypothalamic nuclei to superficial layers in the spinal cord. Brain Res 1160(1):20–29
DeVries GJ et al (1985) The vasopressinergic innervation of the brain in normal and castrated rats. J Comp Neurol 233(2):236–254
Dölen G et al (2013) Social reward requires coordinated activity of nucleus accumbens oxytocin and serotonin. Nature 501(7466):179–84. http://www.ncbi.nlm.nih.gov/pubmed/24025838
Donaldson ZR, Young LJ (2008) Oxytocin, vasopressin, and the neurogenetics of sociality. Science 322(5903):900–904
Dong HW, Swanson LW (2006) Projections from bed nuclei of the stria terminalis, dorsomedial nucleus: implications for cerebral hemisphere integration of neuroendocrine, autonomic, and drinking responses. J Comp Neurol 494(1):75–107
Dubois-Dauphin M, Barberis C, De Bilbao F (1996) Vasopressin receptors in the mouse (Mus musculus) brain: sex-related expression in the medial preoptic area and hypothalamus. Brain Res 743(1–2):32–39
Eaton JL et al (2012) Organizational effects of oxytocin on serotonin innervation. Dev Psychobiol 54(1):92–97
Egashira N et al (2007) Impaired social interaction and reduced anxiety-related behavior in vasopressin V1a receptor knockout mice. Behav Brain Res 178(1):123–127
Evans DW et al. (2014) Social cognition and brain morphology: implications for developmental brain dysfunction. Brain Imaging Behav
Feldman R et al (2010) Natural variations in maternal and paternal care are associated with systematic changes in oxytocin following parent-infant contact. Psychoneuroendocrinology 35(8):1133–1141. doi:10.1016/j.psyneuen.2010.01.013
Garcia-Moreno F et al (2010) A neuronal migratory pathway crossing from diencephalon to telencephalon populates amygdala nuclei. Nat Neurosci 13(6):680–689
Glasgow E et al (1999) Single cell reverse transcription-polymerase chain reaction analysis of rat supraoptic magnocellular neurons: neuropeptide phenotypes and high voltage-gated calcium channel subtypes. Endocrinology 140(11):5391–5401
Gregory R et al (2015) Oxytocin increases VTA activation to infant and sexual stimuli in nulliparous and postpartum women. Horm Behav 69:82–88
Hammock EAD, Levitt P (2013) Oxytocin receptor ligand binding in embryonic tissue and postnatal brain development of the C57BL/6J mouse. Front Behav Neurosci 7:195. doi:10.3389/fnbeh.2013.00195
Hatton GI, Cobbett P, Salm AK (1985) Extranuclear axon collaterals of paraventricular neurons in the rat hypothalamus: intracellular staining, immunocytochemistry and electrophysiology. Brain Res Bull 14(2):123–132
Hawthorn J, Ang VT, Jenkins JS (1985) Effects of lesions in the hypothalamic paraventricular, supraoptic and suprachiasmatic nuclei on vasopressin and oxytocin in rat brain and spinal cord. Brain Res 346(1):51–57
Hermes MLHJ et al (1988) Oxytocinergic innervation of the brain of the garden dormouse (Eliomys quercinus L.). J Comp Neurol 273:252–262
Honda K, Higuchi T (2010a) Effects of unilateral electrolytic lesion of the dorsomedial nucleus of the hypothalamus on milk-ejection reflex in the rat. J Reprod Dev 56(1):98–102
Honda K, Higuchi T (2010b) Electrical activities of neurones in the dorsomedial hypothalamic nucleus projecting to the supraoptic nucleus during milk-ejection reflex in the rat. J Reprod Dev 56(3):336–340
Hou-Yu A et al (1986) Comparative distribution of vasopressin and oxytocin neurons in the rat brain using a double-label procedure. Neuroendocrinology 44(2):235–246
Huber D, Veinante P, Stoop R (2005) Vasopressin and oxytocin excite distinct neuronal populations in the central amygdala. Science 308(5719):245–248
Insel TR, Harbaugh CR (1989) Lesions of the hypothalamic paraventricular nucleus disrupt the initiation of maternal behavior. Physiol Behav 45(5):1033–1041
Insel TR et al (1993) Gonadal steroids have paradoxical effects on brain oxytocin receptors. J Neuroendocrinol 5(6):619–628
Isogai Y et al (2011) Molecular organization of vomeronasal chemoreception. Nature 478(7368):241–245
Jin D et al (2007) CD38 is critical for social behaviour by regulating oxytocin secretion. Nature 446(7131):41–45
Jirikowski GF, Ramalho-Ortigao FJ, Caldwell JD (1991) Transitory coexistence of oxytocin and vasopressin in the hypothalamo neurohypophysial system of parturient rats. Hormone and metabolic research = Hormon- und Stoffwechselforschung = Hormones et metabolisme 23(10):476–480
Kang N, Baum MJ, Cherry JA (2009) A direct main olfactory bulb projection to the “vomeronasal” amygdala in female mice selectively responds to volatile pheromones from males. Eur J Neurosci 29(3):624–634
Kiyama H, Emson PC (1990) Evidence for the co-expression of oxytocin and vasopressin messenger ribonucleic acids in magnocellular neurosecretory cells: simultaneous demonstration of two neurohypophysin messenger ribonucleic acids by hybridization histochemistry. J Neuroendocrinol 2(3):257–259
Knobloch HS et al (2012) Evoked axonal oxytocin release in the central amygdala attenuates fear response. Neuron 73(3):553–566. doi:10.1016/j.neuron.2011.11.030
Krisch B (1976) Immunohistochemical and electron microscopic study of the rat hypothalamic nuclei and cell clusters under various experimental conditions. Possible sites of hormone release. Cell Tissue Res 174(1):109–127
Landgraf R, Neumann ID (2004) Vasopressin and oxytocin release within the brain: a dynamic concept of multiple and variable modes of neuropeptide communication. Front Neuroendocrinol 25(3–4):150–176
Lim MM, Murphy AZ, Young LJ (2004) Ventral striatopallidal oxytocin and vasopressin v1a receptors in the monogamous prairie vole (Microtus ochrogaster). J Comp Neurol 468(4):555–570
Liu H et al (1994) Synaptic relationship between substance P and the substance P receptor: light and electron microscopic characterization of the mismatch between neuropeptides and their receptors. Proc Natl Acad Sci USA 91(3):1009–1013
Ludwig M, Leng G (2006) Dendritic peptide release and peptide-dependent behaviours. Nat Rev Neurosci 7(2):126–136
Lukas M et al (2013) Oxytocin mediates rodent social memory within the lateral septum and the medial amygdala depending on the relevance of the social stimulus: male juvenile versus female adult conspecifics. Psychoneuroendocrinology 38(6):916–926
Manning M et al (2012) Oxytocin and vasopressin agonists and antagonists as research tools and potential therapeutics. J Neuroendocrinol 24(4):609–628
Markowitsch HJ (1998) Differential contribution of right and left amygdala to affective information processing. Behav Neurol 11(4):233–244. http://www.ncbi.nlm.nih.gov/pubmed/11568425
Martínez-García F et al (2012) Chapter 6—piriform cortex and amygdala. In: GP Charles Watson, George Paxinos, Luis Puelles, Charles Watson, L Puelles (eds) The mouse nervous system, pp 140–172. Academic Press, San Diego. http://www.sciencedirect.com/science/article/pii/B9780123694973100068
Mottolese R et al (2014) Switching brain serotonin with oxytocin. Proceedings of the National Academy of Sciences of the United States of America, vol 111, issue 23, pp 8637–42. http://www.ncbi.nlm.nih.gov/pubmed/24912179
Melis MR et al (2007) Oxytocin injected into the ventral tegmental area induces penile erection and increases extracellular dopamine in the nucleus accumbens and paraventricular nucleus of the hypothalamus of male rats. Eur J Neurosci 26(4):1026–1035
Merighi A et al (1989) Ultrastructural localization of neuropeptides and GABA in rat dorsal horn: a comparison of different immunogold labeling techniques. J Histochem Cytochem 37(4):529–540
Meyer-Lindenberg A et al (2011) Oxytocin and vasopressin in the human brain: social neuropeptides for translational medicine. Nat Rev Neurosci 12(9):524–538
Mezey E, Kiss JZ (1991) Coexpression of vasopressin and oxytocin in hypothalamic supraoptic neurons of lactating rats. Endocrinology 129(4):1814–1820
Mohr E et al (1988) Expression of the vasopressin and oxytocin genes in rats occurs in mutually exclusive sets of hypothalamic neurons. FEBS Lett 242(1):144–148
Muchlinski AE, Johnson DJ, Anderson DG (1988) Electron microscope study of the association between hypothalamic blood vessels and oxytocin-like immunoreactive neurons. Brain Res Bull 20(2):267–271
Mullis K, Kay K, Williams DL (2013) Oxytocin action in the ventral tegmental area affects sucrose intake. Brain Res 1513:85–91
Nephew BC, Bridges RS (2008) Central actions of arginine vasopressin and a V1a receptor antagonist on maternal aggression, maternal behavior, and grooming in lactating rats. Pharmacol Biochem Behav 91(1):77–83
Neumann ID, Landgraf R (2012) Balance of brain oxytocin and vasopressin: Implications for anxiety, depression, and social behaviors. Trends Neurosci 35(11):649–659. http://dx.doi.org/10.1016/j.tins.2012.08.004
Newman SW (1999) The medial extended amygdala in male reproductive behavior. A node in the mammalian social behavior network. Ann N Y Acad Sci 877:242–257
Ni RJ et al (2014) Distribution of vasopressin, oxytocin and vasoactive intestinal polypeptide in the hypothalamus and extrahypothalamic regions of tree shrews. Neuroscience 265:124–136
Nishimori K et al (2008) New aspects of oxytocin receptor function revealed by knockout mice: sociosexual behaviour and control of energy balance. Prog Brain Res 170:79–90
Nodari F et al (2008) Sulfated steroids as natural ligands of mouse pheromone-sensing neurons. J Neurosci 28(25):6407–6418
Numan M, Numan M (1996) A lesion and neuroanatomical tract-tracing analysis of the role of the bed nucleus of the stria terminalis in retrieval behavior and other aspects of maternal responsiveness in rats. Dev Psychobiol 29(1):23–51
Numan M, Woodside B (2010) Maternity: neural mechanisms, motivational processes, and physiological adaptations. Behav Neurosci 124(6):715–741
Numan M et al (1988) Axon-sparing lesions of the preoptic region and substantia innominata disrupt maternal behavior in rats. Behav Neurosci 102(3):381–396
Olazábal DE, Young LJ (2006) Oxytocin receptors in the nucleus accumbens facilitate “spontaneous” maternal behavior in adult female prairie voles. Neuroscience 141(2):559–568
Olazabal DE et al (2002) MPOA cytotoxic lesions and maternal behavior in the rat: effects of midpubertal lesions on maternal behavior and the role of ovarian hormones in maturation of MPOA control of maternal behavior. Horm Behav 41(2):126–138
Olucha-Bordonau FE et al (2014) Amygdala: structure and function. In: Paxinos G (ed) The rat nervous system. Academic Press, London, pp 441–490
Otero-Garcia M et al (2014) Extending the socio-sexual brain: arginine-vasopressin immunoreactive circuits in the telencephalon of mice. Brain Struct Funct 219(3):1055–1081
Pagani JH et al (2015) Raphe serotonin neuron-specific oxytocin receptor knockout reduces aggression without affecting anxiety-like behavior in male mice only. Genes Brain Behav 14(2):167–176
Paxinos G, Franklin KBJ (2001) The mouse brain in stereotaxic coordinates. Academic Press, San Diego
Pedersen CA (1997) Oxytocin control of maternal behavior. Regulation by sex steroids and offspring stimuli. Ann N Y Acad Sci 807:126–145
Pedersen CA et al (1994) Oxytocin activates the postpartum onset of rat maternal behavior in the ventral tegmental and medial preoptic areas. Behav Neurosci 108(6):1163–1171
Pobbe RLH et al (2012) Oxytocin receptor knockout mice display deficits in the expression of autism-related behaviors. Horm Behav 61(3):436–444. doi:10.1016/j.yhbeh.2011.10.010
Rhodes CH, Morrell JI, Pfaff DW (1981) Immunohistochemical analysis of magnocellular elements in rat hypothalamus: distribution and numbers of cells containing neurophysin, oxytocin, and vasopressin. J Comp Neurol 198(1):45–64
Roberts SA et al (2010) Darcin: a male pheromone that stimulates female memory and sexual attraction to an individual male’s odour. BMC Biol 8:75
Rood BD, De Vries GJ (2011) Vasopressin innervation of the mouse (Mus musculus) brain and spinal cord. J Comp Neurol 519(12):2434–2474
Rood BD et al (2013) Site of origin of and sex differences in the vasopressin innervation of the mouse (Mus musculus) brain. J Comp Neurol 521(10):2321–2358
Rosen GJ et al (2008) Distribution of oxytocin in the brain of a eusocial rodent. Neuroscience 155(3):809–817
Ross HE et al (2009) Characterization of the oxytocin system regulating affiliative behavior in female prairie voles. Neuroscience 162(4):892–903. doi:10.1016/j.neuroscience.2009.05.055
Sabatier N, Shibuya I, Dayanithi G (2004) Intracellular calcium increase and somatodendritic vasopressin release by vasopressin receptor agonists in the rat supraoptic nucleus: involvement of multiple intracellular transduction signals. J Neuroendocrinol 16(3):221–236
Sanchez MA, Dominguez R (1995) Differential-effects of unilateral lesions in the medial amygdala on spontaneous and induced ovulation. Brain Res Bull 38(4):313–317. <Go to ISI>://A1995RV80800002
Sarnyai Z, Kovács GL (1994) Role of oxytocin in the neuroadaptation to drugs of abuse. Psychoneuroendocrinology 19(1):85–117
Shahrokh DK et al (2010) Oxytocin-dopamine interactions mediate variations in maternal behavior in the rat. Endocrinology 151(5):2276–2286
Shipley MT, Adamek GD (1984) The connections of the mouse olfactory bulb: a study using orthograde and retrograde transport of wheat germ agglutinin conjugated to horseradish peroxidase. Brain Res Bull 12:669–688
Staes N et al (2014) Oxytocin and vasopressin receptor gene variation as a proximate base for inter- and intraspecific behavioral differences in bonobos and chimpanzees. Plos One 9(11):e113364. doi:10.1371/journal.pone.0113364
Stoop R (2012) Neuromodulation by oxytocin and vasopressin. Neuron 76(1):142–159. doi:10.1016/j.neuron.2012.09.025
Succu S et al (2008) Oxytocin induces penile erection when injected into the ventral tegmental area of male rats: role of nitric oxide and cyclic GMP. Eur J Neurosci 28(4):813–821. http://www.ncbi.nlm.nih.gov/pubmed/18671741
Swanson LW, Kuypers HG (1980) The paraventricular nucleus of the hypothalamus: cytoarchitectonic subdivisions and organization of projections to the pituitary, dorsal vagal complex, and spinal cord as demonstrated by retrograde fluorescence double-labeling methods. J Comp Neurol 194(3):555–570
Takahashi A, Miczek KA (2013) Neurogenetics of aggressive behavior: studies in rodents. Curr Top Behav Neurosci 17:3–44
Takano S et al (1992) Lesion and electrophysiological studies on the hypothalamic afferent pathway of the milk ejection reflex in the rat. Neuroscience 50(4):877–883
Tang Y et al (2014) Oxytocin activation of neurons in ventral tegmental area and interfascicular nucleus of mouse midbrain. Neuropharmacology 77:277–284
Telleria-Diaz A, Grinevich VV, Jirikowski GF (2001) Colocalization of vasopressin and oxytocin in hypothalamic magnocellular neurons in water-deprived rats. Neuropeptides 35(3–4):162–167
Tobin V, Leng G, Ludwig M (2012) The involvement of actin, calcium channels and exocytosis proteins in somato-dendritic oxytocin and vasopressin release. Front Physiol 3:261. doi:10.3389/fphys.2012.00261
Toth I, Neumann ID (2013) Animal models of social avoidance and social fear. Cell Tissue Res 354(1):107–118
Trueta C, De-Miguel FF (2012) Extrasynaptic exocytosis and its mechanisms: a source of molecules mediating volume transmission in the nervous system. Front Physiol 3:319. doi:10.3389/fphys.2012.00319
Tsuneoka Y, Maruyama T, Yoshida S, Nishimori K, Kato T, Numan M, Kuroda KO (2013) Functional, anatomical, and neurochemical differentiation of medial preoptic area subregions in relation to maternal behavior in the mouse. J Comp Neurol 521(7):1633–1663
Valesky EM et al (2012) Distribution of oxytocin- and vasopressin-immunoreactive neurons in the brain of the eusocial mole rat (Fukomys anselli). Anat Rec 295(3):474–480
Veenema AH, Neumann ID (2008) Central vasopressin and oxytocin release: regulation of complex social behaviours. Prog Brain Res 170:261–276
Veinante P, Freund-Mercier MJ (1997) Distribution of oxytocin- and vasopressin-binding sites in the rat extended amygdala: a histoautoradiographic study. J Comp Neurol 383(3):305–325
Wang W, Lufkin T (2000) The murine Otp homeobox gene plays an essential role in the specification of neuronal cell lineages in the developing hypothalamus. Dev Biol 227(2):432–449
Wang Z et al (1996) Immunoreactivity of central vasopressin and oxytocin pathways in microtine rodents: a quantitative comparative study. J Comp Neurol 366(4):726–737
Whitnall MH et al (1985) Neurophysin in the hypothalamo-neurohypophysial system. II. Immunocytochemical studies of the ontogeny of oxytocinergic and vasopressinergic neurons. J Neurosci 5(1):98–109
Xi D, Kusano K, Gainer H (1999) Quantitative analysis of oxytocin and vasopressin messenger ribonucleic acids in single magnocellular neurons isolated from supraoptic nucleus of rat hypothalamus. Endocrinology 140(10):4677–4682
Xiao M et al (2005) The distribution of neural nitric oxide synthase-positive cerebrospinal fluid-contacting neurons in the third ventricular wall of male rats and coexistence with vasopressin or oxytocin. Brain Res 1038(2):150–162
Xu L et al (2010) Oxytocin and vasopressin immunoreactive staining in the brains of Brandt’s voles (Lasiopodomys brandtii) and greater long-tailed hamsters (Tscherskia triton). Neuroscience 169(3):1235–1247. doi:10.1016/j.neuroscience.2010.05.064
Yang J et al (2011) Oxytocin in the periaqueductal gray participates in pain modulation in the rat by influencing endogenous opiate peptides. Peptides 32(6):1255–1261
Yayou K-I, Ito S, Yamamoto N (2015) Relationships between postnatal plasma oxytocin concentrations and social behaviors in cattle. Anim Sci J 86(8):806–813
Yoshida M et al (2009) Evidence that oxytocin exerts anxiolytic effects via oxytocin receptor expressed in serotonergic neurons in mice. J Neurosci 29(7):2259–2271
Young LJ, Wang Z (2004) The neurobiology of pair bonding. Nat Neurosci 7(10):1048–1054
Young LJ et al (1999) Increased affiliative response to vasopressin in mice expressing the V1a receptor from a monogamous vole. Nature 400(6746):766–768
Zoli M, Agnati LF (1996) Wiring and volume transmission in the central nervous system: the concept of closed and open synapses. Prog Neurobiol 49(4):363–380
Acknowledgments
This work was funded by the Spanish Ministry of Science—FEDER (BFU2013-47688-P), the Junta de Comunidades de Castilla-La Mancha/FEDER (PEIC11-0045-4490) and the Universitat Jaume I. This work is part of the doctoral thesis of Marcos Otero-García, granted by the FPU (Formación de Profesorado Universitario) programme of the Spanish Ministry of Education and Science. The authors gratefully acknowledge Dr. Harold Gainer for his generous gift of antibodies.
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Otero-García, M., Agustín-Pavón, C., Lanuza, E. et al. Distribution of oxytocin and co-localization with arginine vasopressin in the brain of mice. Brain Struct Funct 221, 3445–3473 (2016). https://doi.org/10.1007/s00429-015-1111-y
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DOI: https://doi.org/10.1007/s00429-015-1111-y