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1 a series of experiments using the monogamous prairie vole.
2 he formation of pair bonds in the monogamous prairie vole.
3 the effects of estrogen on the brain of the prairie vole.
4 [V1a receptor (V1aR)] antagonist in the male prairie vole.
5 ir bond formation in the socially monogamous prairie vole.
6 relate to the specialized life style of the prairie vole.
7 tors modulate pair bonding in the monogamous prairie vole.
8 1a receptor (V1aR) in a large sample of wild prairie voles.
9 is critical for pair-bond formation in male prairie voles.
10 total and selective social behaviors in male prairie voles.
11 a role in the preference for hind nipples in prairie voles.
12 estrus induction and pair bonding in female prairie voles.
13 labeling throughout the forebrain of female prairie voles.
14 role for the VNO in reproductive success in prairie voles.
15 inding in the ventral pallial region of male prairie voles.
16 al nitric oxide synthase (nNOS) in lactating prairie voles.
17 in the production of maternal aggression in prairie voles.
18 th maternal and mating-induced aggression in prairie voles.
19 ent in the control of maternal aggression in prairie voles.
20 n of postcopulatory aggression in adult male prairie voles.
21 mapping regional staining for c-fos) in male prairie voles.
22 montane voles, but it remained unchanged in prairie voles.
23 ne voles but did not change significantly in prairie voles.
24 erences (an index of pair bonding) in female prairie voles.
25 body mass distribution in this population of prairie voles.
26 ve different neurobiological actions in male prairie voles.
27 al circuitry mediate selective aggression in prairie voles.
28 nd consequences on social behavior in female prairie voles.
29 ological effects of AMPH treatment in female prairie voles.
30 iosus muscles in adult male, but not female, prairie voles.
31 ex difference would be similarly distinct in prairie voles.
32 drug experience in socially monogamous male prairie voles.
33 ression associated with pair bonding in male prairie voles.
34 ession is found in a chemosensory pathway in prairie voles.
35 idine (BrdU) in the amygdala and DG than did prairie voles.
36 and VMH, but not in the pMeA or DG, than did prairie voles.
37 nvolved in pair bond formation in monogamous prairie voles.
38 and medial (pMeA) nuclei, in meadow, but not prairie, voles.
42 e brains of two monogamous vole species, the prairie vole and pine vole, and two promiscuous vole spe
43 n more egalitarian and monogamous ones, like prairie voles and humans, when there is no perceived cos
46 its maternal aggression and NO production in prairie voles and suggest that the central release of NO
47 septum regulates pair bond formation in male prairie voles and that this process requires access to b
48 eptor binding that is similar to that of the prairie vole, and exhibit increased affiliative behaviou
49 for the behavioral effects of AMPH in female prairie voles, and found that conditioning with low to i
50 h alloparenting in juvenile and adult female prairie voles, and oxytocin receptor antagonist infused
51 regulation of partner preferences in female prairie voles, and suggest that oxytocin receptor expres
54 duced facilitation of pair bond formation in prairie voles, as well as potential sex differences in t
55 ctivation on partner preference formation in prairie voles, as well as the interaction between the MC
57 r the formation of social attachment in male prairie voles, because administration of haloperidol blo
61 enhanced partner preference formation in the prairie vole, but not in the non-monogamous meadow vole.
62 e behaviour in the highly social, monogamous prairie vole, but not in the relatively asocial, promisc
64 y psychiatric disorders, discoveries made in prairie voles can direct novel treatment strategies for
67 ution of CART mRNA and peptide in monogamous prairie voles compared to congener promiscuous meadow vo
69 d AMPH administration in sexually naive male prairie voles enhanced V1aR expression in the AH and ind
74 is, and the central nucleus of the amygdala, prairie voles had higher AVP receptor binding at birth t
76 nvironment influences CART expression in the prairie vole in a region- and stimulus-specific manner.
77 s research, the author observed 8 litters of prairie voles in a seminatural environment to confirm th
80 expression and impair social bonding in male prairie voles) increased D1, but not D2, receptor mRNA i
85 his selective aggression in pair-bonded male prairie voles is associated with increased release of va
86 The formation of monogamous pair bonds, by prairie voles, is facilitated by activation of dopamine
88 recently established the socially monogamous prairie vole (Microtus ochrogaster) as an animal model w
94 f intranasal OT given developmentally in the prairie vole (Microtus ochrogaster), a socially monogamo
95 nt species, the highly social and monogamous prairie vole (Microtus ochrogaster), greatly increases p
99 for drug-induced social deficits, using the prairie vole (Microtus ochrogaster)-a socially monogamou
101 he expression of pro-social behavior in male prairie voles (Microtus ochragaster), predicting that in
102 al species sympatric with cervids, including prairie voles (Microtus ochrogaster) and field mice (Per
104 OTRs) impairs the formation of pair bonds in prairie voles (Microtus ochrogaster) and zebra finches (
112 ry, and somatosensory cortex was examined in prairie voles (Microtus ochrogaster) by using electrophy
117 Ralpha immunoreactivity (IR) was compared in prairie voles (Microtus ochrogaster) from Illinois (IL),
121 abitation of sexually nai;ve male and female prairie voles (Microtus ochrogaster) triggers a cascade
124 e meadow voles (Microtus pennsylvanicus) and prairie voles (Microtus ochrogaster) were injected with
125 vectors were used to enhance ERalpha in male prairie voles (Microtus ochrogaster), which display high
132 segment of a 25-year study of the monogamous prairie vole, Microtus ochrogaster, in Illinois, USA.
136 umber of TH-immunoreactive cells in the male prairie vole pBST and MeAPd, an effect that could be rev
141 r show that mice that are transgenic for the prairie vole receptor gene have a neuroanatomical patter
142 and/or changes in promoter structure of the prairie vole receptor gene may contribute to the species
143 corticosterone, a stress hormone, in female prairie voles recovering alone but not the female prairi
145 he cingulate cortex, AVP receptor binding in prairie voles showed a peak in early development with a
146 organization, sexual differentiation of the prairie vole spinal cord differs from that found in most
148 of aggression in sexually naive, adult male prairie voles that are comparable to those levels observ
154 rphic microsatellite in the 5' region of the prairie vole vasopressin 1a receptor (avpr1a) gene modif
155 may narrow the behavioral repertoire of male prairie voles via a DA receptor-specific mechanism in th
162 e investigated Oxtr expression in monogamous prairie voles, which have a well-characterized OXT syste
163 genetic and genomic tools for this species, prairie voles will likely maintain their current traject
164 essive behavioral testing of female and male prairie voles with immunohistochemistry for citrulline,
166 We hypothesized that PR expression in male prairie voles would differ from that described in other
167 we initially predicted that male and female prairie voles would exhibit similar behavioral responses
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