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1 only been established in New World primates (squirrel monkeys).
2 scle unit contractile characteristics in the squirrel monkey.
3 ry (SI) and primary motor (MI) cortex of the squirrel monkey.
4 transmitter are generated from L-DOPA in the squirrel monkey.
5 p representations of Brodmann area 3b in the squirrel monkey.
6 to NPNFP in the brainstems of 5 cats and one squirrel monkey.
7 ribed in the laboratory rat, owl monkey, and squirrel monkey.
8 els are represented in striate cortex of the squirrel monkey.
9 ns of angioscotomas in striate cortex of the squirrel monkey.
10 ons in New World marmosets, owl monkeys, and squirrel monkeys.
11 duces dyskinesias in normal (ie, unlesioned) squirrel monkeys.
12 ired median and ulnar nerve section in adult squirrel monkeys.
13 ortical area 3b of New World owl monkeys and squirrel monkeys.
14 into localized regions of the caudal GPi in squirrel monkeys.
15 mma-2 herpesvirus saimiri (HVS) of New World squirrel monkeys.
16 body are organized in the cuneate nucleus of squirrel monkeys.
17 DM in owl monkeys and the presumptive DM in squirrel monkeys.
18 gue that DM is a visual area of both owl and squirrel monkeys.
19 1,1'-biphenyl]-3-yl-cyclohexylcarbamate), in squirrel monkeys.
20 nd to inhibit Sidman avoidance responding in squirrel monkeys.
21 ing, and conditioned avoidance responding in squirrel monkeys.
22 ated in the striatum and substantia nigra of squirrel monkeys.
23 ns with transneuronal tracers in four normal squirrel monkeys.
24 y in the adjacent, undamaged cortex of adult squirrel monkeys.
25 -tetrahydrocannabinol (THC) or anandamide in squirrel monkeys.
26 a unilateral lesion of the dorsal column in squirrel monkeys.
27 sory cortex (areas 3b and 1) in anesthetized squirrel monkeys.
28 noise carriers in the auditory core of awake squirrel monkeys.
29 eurochemical effects of nicotine in rats and squirrel monkeys.
30 cending afferents from digit 1 to survive in squirrel monkeys.
31 week after median nerve compression in adult squirrel monkeys.
32 in the cervical spinal cord (C4-C6) in adult squirrel monkeys.
33 PMv) distal forelimb representation (DFL) in squirrel monkeys.
34 gions of the ipsilateral hemisphere in adult squirrel monkeys.
35 l optical imaging of areas 3b and 1 in awake squirrel monkeys.
36 vior when self-administered intravenously by squirrel monkeys.
37 ed hand and normally activated face in adult squirrel monkeys.
38 ll number between young, middle-aged and old squirrel monkeys.
39 during active and passive head movements in squirrel monkeys.
40 ay and compared results from owl monkeys and squirrel monkeys 5-10 weeks after lesions with controls.
41 of hypocretin-1 in the cisternal CSF of the squirrel monkey, a New World primate with a pattern of w
42 of Goodpasture autoantibodies in the GBM of squirrel monkeys, a species susceptible to Goodpasture a
44 ns being more numerous in chinchilla than in squirrel monkey, afferent discharge properties are simil
45 ll, 65% of the photocoagulation sites in the squirrel monkey and 37% of sites in macaque monkey elici
48 the species that is most divergent from the squirrel monkey and marmoset, suggesting the presence of
49 and tamarin belong to the same family as the squirrel monkey and marmoset, the saki monkey belongs to
54 g results for the duct system of humans, the squirrel monkey and the rhesus macaque, making compariso
55 as seeded in the dominant male of a group of squirrel monkeys and an alternative technique in the dom
56 and AMGY genes from humans, orangutans, and squirrel monkeys and estimated that the male-to-female r
60 nd the synthetic cannabinoid WIN 55,212-2 in squirrel monkeys and rats, respectively, and it also pre
62 f primate primary motor cortex (M1) in three squirrel monkeys and two galagos years after the therape
63 of two diurnal primates (macaque monkeys and squirrel monkeys) and one nocturnal primate (owl monkey)
64 g the X-linked pigments of bush baby, human, squirrel monkey, and marmoset, 38 variable positions wer
65 a local area resembled those present in the squirrel monkey, and no evidence was found for column/pa
68 om two macaque monkeys, two owl monkeys, two squirrel monkeys, and three galagos that were processed
69 the primary somatosensory cortices of adult squirrel monkeys at four postnerve injury survival durat
70 vity within the spinal cords of anesthetized squirrel monkeys at rest and show that the strength of c
71 vements in the distal forelimb zone of M1 of squirrel monkeys, before and after behavioral training o
72 d by magnetic resonance imaging in 31 female squirrel monkeys between the ages of 5 and 17 years.
73 rmine whether brain 5-HT deficits persist in squirrel monkeys beyond the 18-month period studied prev
76 cular dominance columns are absent in normal squirrel monkeys, but induced to form by strabismus.
77 a1 promoters and (v and vi) in cebid owl and squirrel monkeys by crossovers that fused 5' sequence fr
78 s (FVT) were elicited in 12 maculae of seven squirrel monkeys by laser photocoagulation using optimiz
79 e and THC reinforcement and reinstatement in squirrel monkeys by the CB1-receptor inverse agonist rim
80 and map in somatosensory cortex of our adult squirrel monkeys by transecting the median nerve to one
83 HIV-1 did not detectably bind or utilize squirrel monkey CD4 for entry, and marmoset CD4 was also
85 enomes of two cytomegalovirus (CMV) species, squirrel monkey CMV (SMCMV) and owl monkey CMV (OMCMV),
90 actile adaptation on the optical response of squirrel monkey contralateral SI cortex to vibrotactile
92 cicularis) infected with the same virus, the squirrel monkeys developed more-severe immunosuppression
93 thesis by recording from IN neurons in alert squirrel monkeys during vestibular and proprioceptive st
96 ay structures of human FKBP51, to 2.7 A, and squirrel monkey FKBP51, to 2.8 A, by using multiwaveleng
98 rat were generally larger than those in the squirrel monkey following injections into the UC or CE.
100 thing anomalous about the visual capacity of squirrel monkeys has been found to explain their missing
103 expressing TRIM5alpha from either tamarin or squirrel monkeys in permissive cell lines resulted in a
104 monkey were significantly slower than in the squirrel monkey, in both species magnocellular neurones
105 show that Salvador (Sal) I P. vivax infects Squirrel monkeys independently of DBP1 binding to Squirr
108 ly follows median nerve transection in adult squirrel monkeys is dependent on normally functioning N-
109 rectly predicted the SCN lesion phenotype in squirrel monkeys: loss of circadian rhythmicity and emer
113 eptors, in the present study we used rat and squirrel monkey models of reward and relapse to examine
114 ) from common marmosets, spider monkeys, and squirrel monkeys, New World monkey (NWM) species that sh
116 ptor subunits in the area 3b cortex of adult squirrel monkeys one and five months after median nerve
118 acchus herpesvirus is frequently detected in squirrel monkey peripheral blood lymphocytes, indicating
120 Results suggest that orangutans but not squirrel monkeys possess Stage 6 object permanence capab
121 ded the optical intrinsic signal response of squirrel monkey primary somatosensory cortex (SI) to 25
123 1R2 residue I67, which corresponds to S67 in squirrel monkey receptor, modulates the higher affinity
124 roviruses such as simian AIDS retrovirus and squirrel monkey retrovirus were also detected in the ass
125 nance imaging (fMRI) studies on anesthetized squirrel monkeys revealed dynamic reorganizations of dig
126 quences of the entire blue opsin gene in the squirrel monkey (Saimiri boliviensis) and the five intro
127 o species of New World monkeys - the diurnal squirrel monkey (Saimiri sciureus) and the nocturnal owl
128 cells outnumber type II hair cells (HCs) in squirrel monkey (Saimiri sciureus) cristae by a nearly 3
129 d 1 hamadryas baboon (Papio hamadryas) and 1 squirrel monkey (Saimiri sciureus) to respond to stimuli
130 zed by two methods in three NWM species, the squirrel monkey (Saimiri sciureus), the tamarin (Saguinu
132 re of the visual thalamus was re-examined in squirrel monkeys (Saimiri sciureus) and macaques (Macaca
135 thors tested orangutans (Pongo pygmaeus) and squirrel monkeys (Saimiri sciureus) on object permanence
137 our capuchin monkeys (Cebus apella) and four squirrel monkeys (Saimiri sciureus) were given demonstra
138 s been extensively characterised (humans and squirrel monkeys (Saimiri sciureus)), the aVOR response
139 (MT(C)) in owl monkeys (Aotus trivirgatus), squirrel monkeys (Saimiri sciureus), and macaque monkeys
141 cellular electrophysiological study employed squirrel monkeys (Saimiri sciureus), which moved freely
143 isual area (DL(C)) were investigated in four squirrel monkeys (Saimiri) following extracellular injec
144 f the nucleus tractus solitarii (NTS) in the squirrel monkey, Saimuri sciureus, was investigated by n
147 logical recordings from layer 4C of a normal squirrel monkey, single units were mostly monocular, but
150 mary cells derived from common marmosets and squirrel monkeys support every phase of HIV-1 replicatio
151 The CXCR4 molecules of both marmosets and squirrel monkeys supported HIV-1 infection, but the CCR5
152 h correspond to residues T40 and E142 in the squirrel monkey Tas1R2, were found to be the critical re
153 otelencephalic terminals showed that, in the squirrel monkey, terminals from CE injections were large
154 ominance columns are less well segregated in squirrel monkeys than macaques, but they are present.
156 tibody Cat-301 differed between macaques and squirrel monkeys, the same subdivisions were displayed.
158 y anterograde tracers injected in area MT of squirrel monkeys, to characterize these connections furt
159 hydro-1H-purine-2,6-dione], respectively, in squirrel monkeys trained to intravenously self-administe
160 ylogenetically with those of the opossum and squirrel monkey, two of its preferred mammalian hosts in
164 olgi cells and recorded these neurons in the squirrel monkey ventral paraflocculus during oculomotor
166 apparent lack of ocular dominance columns in squirrel monkeys, we made eye injections with transneuro
167 (SAM) tones in the auditory cortex of awake squirrel monkeys, we show that the prior presentation of
168 ddle temporal (MT) areas of visual cortex in squirrel monkeys were compared with PI subdivisions reve
169 ps from four hemispheres of two normal adult squirrel monkeys were created and used to derive express
170 avior and vocalizations of four group-housed squirrel monkeys were examined following administration
171 ceptibility of nonhuman primates to CWD, two squirrel monkeys were inoculated with brain tissue from
173 butal, or halothane (in N2O/O2) anesthetized squirrel monkeys were tested for responses to distention
175 he present study compared visual learning in squirrel monkeys with ablations of ITC; ITI and ITR (gro
176 aural frequency map changes is chronicled in squirrel monkeys with asymmetric hearing loss induced by
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