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1 ecreted protein 2 was analyzed in the Golden Syrian hamster.
2 ons that mediate mating behavior in the male Syrian hamster.
3 the median and dorsal raphe nuclei), in the Syrian hamster.
4 pleting hepatotoxin, was administered to the Syrian hamster.
5 yloids from three species: human, mouse, and Syrian hamster.
6 arious behaviors and neural functions in the Syrian hamster.
7 ence stimulates offensive aggression in male Syrian hamsters.
8 lity of SARS CoV to infect 5-week-old Golden Syrian hamsters.
9 associated with functional specialization in Syrian hamsters.
10 n of a key hormone, prolactin, in refractory Syrian hamsters.
11 hepatic sterol 27-hydroxylase mRNA levels in Syrian hamsters.
12 ical component of conditioned defeat in male Syrian hamsters.
13 e fibers with biotinylated dextran in golden Syrian hamsters.
14 le of such a change is conditioned defeat in Syrian hamsters.
15 hway of bile acid synthesis, in the liver of Syrian hamsters.
16 thed flagella was isolated from the feces of Syrian hamsters.
17 ortens period length of circadian rhythms in Syrian hamsters.
18 flagella isolated from feces of asymptomatic Syrian hamsters.
19 from the inflamed stomachs and ceca of adult Syrian hamsters.
20 mide (GlcCer) in circulating lipoproteins in Syrian hamsters.
21 eases serotonin receptor populations in male Syrian hamsters.
22 s were identified in juvenile and adult male Syrian hamsters.
23 d no effect against other scrapie strains in Syrian hamsters.
24 the expression of conditioned defeat in male Syrian hamsters.
25 evaluated by a toxin neutralization assay in Syrian hamsters.
26 eight different prion strains propagated in Syrian hamsters.
27 g(MH2M) mice] and subsequent transmission to Syrian hamsters.
28 erolemia and early atherosclerosis in Golden Syrian hamsters.
29 uction of kidney tumors by estradiol in male Syrian hamsters.
30 Copenhageni strain Fiocruz L1-130 in Golden Syrian hamsters.
31 ffects of endotoxin and cytokines on CETP in Syrian hamsters.
32 antavirus is Andes virus (ANDV) infection of Syrian hamsters.
33 ns and removed periodically for bioassays in Syrian hamsters.
34 3-CTV exhibited no toxicity in the brains of Syrian hamsters.
35 lescence facilitates offensive aggression in Syrian hamsters.
36 typhlocolitis in aging (18- to 24-month-old) Syrian hamsters.
37 virus pulmonary syndrome (HPS) in humans and Syrian hamsters.
38 nation inhibition (HAI) titers than RD-Ad in Syrian hamsters.
39 as to replication and pathogenesis in golden Syrian hamsters.
40 e brains of young, middle-aged, and old male Syrian hamsters.
41 on reward processes and copulation in female Syrian hamsters.
42 dian pacemaker and peripheral oscillators in Syrian hamsters.
43 ed three related hypotheses; namely, that in Syrian hamsters: (1) PS potentiation can be elicited bel
45 is peptide has been investigated in the male Syrian hamster, a species in which brain nuclei controll
46 ets of retinal fibers in the early postnatal Syrian hamster, a well-characterized developmental model
47 , most studies have been conducted in golden Syrian hamsters, a species particularly sensitive to acu
48 asured in rapid and slow acetylator congenic Syrian hamsters administered 3,2' -dimethyl-4-aminobiphe
49 dministration of (L)- Met-methyl-d(3) to the Syrian hamster after GSH had been depleted by BB resulte
51 he treatment of SARS was evaluated in golden Syrian hamsters, an animal model that supports SARS-CoV
52 ithin the forebrain and midbrain of the male Syrian hamster and addresses the question of whether enk
55 ulated expression of COX-2 in HIT-T15 cells, Syrian hamster and human islets, and other Syrian hamste
57 protein (PrP) amyloids from human, mouse and Syrian hamster and show that their structural difference
59 uated in animal models of dyslipidemia using Syrian hamsters and male Beagle dogs, and all these comp
60 P were sparse within the SCN of Siberian and Syrian hamsters and mouse but were intense in the ventra
61 rticle sequences closest to those present in Syrian hamsters and not mice were also detected in the J
66 ed in the domestic cat as Orange, and in the Syrian hamster as Sex-linked yellow (Sly), but are curio
68 atic nucleus (SCN) in urethane-anaesthetized Syrian hamsters at different times of the light-dark cyc
71 I domain polypeptides derived from human and Syrian hamster beta(3) subunits, but not murine or bovin
72 used for mucosal intranasal immunization of Syrian hamsters, both SC-Ad and RC-Ad expressed transgen
77 strain could also be transmitted directly to Syrian hamsters, but when derived in this way, its prope
78 n of bile acid metabolism in the male Golden Syrian hamster by measuring the rate of fecal bile acid
79 kinetics of leptospiral infection in Golden Syrian hamsters by a sensitive quantitative real-time PC
80 ubjective day, circadian activity rhythms in Syrian hamsters can be phase advanced by a variety of st
81 DFTD, and as well as the soft-shell clam and Syrian hamster, can advance studies of tumor biology.
82 und that human adenovirus replicates well in Syrian hamster cell lines and confirmed replication in t
83 lved in structural alterations in neoplastic Syrian hamster cells transformed by chemical carcinogens
89 slow (Bio.82.73/ H-Pat(s) acetylator female Syrian hamsters congenic at the NAT2 locus received a s.
92 ANDV infection of human endothelial cells or Syrian hamster-derived BHK-21 cells was selectively inhi
94 scribed lethal HPS animal model (i.e., adult Syrian hamsters develop HPS and die within 10 to 15 days
96 ring long "summer-like" photoperiods, female Syrian hamsters display a regular 4-day estrous cycle.
97 ficacious in the clinically validated golden Syrian hamster ear animal model, was designed to be deli
99 transformation system of carcinogen-treated Syrian hamster embryo (SHE) cell cultures represents mul
102 le of c-Fos in apoptosis was examined in two Syrian hamster embryo cell lines (sup+I and sup-II) and
104 o(a)pyrene [B(a)P]-induced transformation of Syrian hamster embryo cells and benzo(a)pyrene diol-epox
105 anscripts expressed in normal and neoplastic Syrian hamster embryo cells in culture (5.0, 3.5 and 2.0
109 sforming mutants of avian pp60(c-src) from a Syrian hamster embryo-derived cell line, 10W, transfecte
113 that the SCN, IGL, MRN, and DRN of the male Syrian hamster exhibited specific binding of [3H]8-OH-DP
114 ness to estradiol and progesterone in female Syrian hamsters exposed to a short photoperiod is associ
115 eks of the study (HFD-FBX4w group) to Golden Syrian hamsters fed a high-fat diet (HFD) for 8 weeks we
116 Chronic administration of estrogen to male Syrian hamsters for 7.0 to 9.0 months induces a high fre
117 -HT(3A) receptors across the neuraxis of the Syrian hamster forebrain using immunohistochemistry.
121 lly transplanted with brown Norway or Golden Syrian hamster hearts were treated for 50 or 75 days wit
122 ependent phosphodiesterase (PDE) activity in Syrian hamster hearts with hypertrophic cardiomyopathy (
126 When injected unilaterally into the SCN of Syrian hamsters housed in constant darkness, OFQ/N (1-50
127 nditioned defeat is a social defeat model in Syrian hamsters in which individuals display increased s
128 tamate agonist NMDA directly into the SCN of Syrian hamsters induced significant phase delays at circ
132 y, no signs of prion infection were found in Syrian hamsters inoculated with rPrP fibrils that resemb
133 ing and sequence analysis of portions of the Syrian hamster interleukin 2 (IL-2), IL-4, gamma interfe
144 tems modulating this behavior using pubertal Syrian hamsters (Mesocricetus auratus) as an adolescent-
145 al neurons from postnatal day (P)0-P2 golden Syrian hamsters (Mesocricetus auratus) of either sex to
152 or protein-1 (AP-1) activity in both primary Syrian hamster mesothelial cells (SHM) and primary human
154 tant showed enhanced virulence in the Golden Syrian hamster model of acute C. difficile infection.
161 sease; however, by directly manipulating the Syrian hamster model, we continue to eliminate individua
168 e clock mutation (tau) was discovered in the Syrian hamster more than a decade ago and, using the pow
169 ssion to transgenic mice expressing chimeric Syrian hamster/mouse (MH2M) prion protein (PrP) genes [T
170 of residues within the PSI domains of human, Syrian hamster, murine, and bovine beta(3) integrins ide
172 and MS-8209 prolonged the incubation time in Syrian hamsters of the 263K strain of scrapie, but AmB h
173 ve entraining stimulus in fetal and neonatal Syrian hamsters of the same developmental ages used to p
176 of peptides based on residues 109-122 of the Syrian hamster prion protein (H1) with a range of substi
177 -ray crystallographic structures of the anti-Syrian hamster prion protein (SHaPrP) monoclonal Fab 3F4
181 lts of previous HDX studies on the human and Syrian hamster prion proteins at a higher pH, various se
182 (rPrP) of 142 residues corresponding to the Syrian hamster PrP 27-30 was expressed in Escherichia co
183 recombinant protein (rPrP) corresponding to Syrian hamster PrP 27-30 was expressed in Escherichia co
185 amination of the dynamics of two recombinant Syrian hamster PrP fragments, PrP(29-231) and PrP(90-231
186 experiments using transgenic mice expressing Syrian hamster PrP in neurons only, MS-8209 extended the
187 this present work, recombinant, full-length Syrian hamster PrP is investigated using EPR methodologi
188 , the secondary structure of the recombinant Syrian hamster PrP of residues 29-231 [PrP(29-231)] is i
189 cellular prion protein (PrPC) and synthetic Syrian hamster PrP peptides were found to mimic many of
192 We have investigated the conformation of Syrian hamster PrP(C) on the surface of transfected CHO
194 amyloid states were prepared in vitro using Syrian hamster recombinant PrP (rPrP) in the absence of
197 ions of serotonergic and other agents to the Syrian hamster SCN with durations equivalent to the incr
200 NMR has been used to refine the structure of Syrian hamster (SHa) prion protein rPrP(90-231), which i
201 s 120-144 of human (Hu), bank vole (BV), and Syrian hamster (SHa) prion protein, from disordered mono
202 olling susceptibility to foreign prions, two Syrian hamster (SHa) prion strains, Sc237 and DY, were t
204 Selection against recombinant (rec) PrP of Syrian hamster (SHa) sequence 90-231 folded into an alph
205 ission of prions through feces, uninoculated Syrian hamsters (SHas) were cohabitated with or exposed
208 cating efficiently in normally nonpermissive Syrian hamster smooth muscle (DDT-1), Chinese hamster ov
210 ted a series of cell lines from the parental Syrian hamster smooth muscle cell line DDT1-MF2that are
211 t carcinoma cells MCF-7 and MDA-MB-468 and a Syrian hamster smooth muscle cell line DDT1MF2 and were
213 tinguishable from the previously established Syrian hamster strain Sc237, despite having been derived
214 ect virus replication or morbidity in golden Syrian hamsters, suggesting that the gene 7 products are
215 the Mitf gene of the anophthalmic white Wh) Syrian hamster that destabilizes its mRNA and prevents t
216 severe systemic disease in immunosuppressed Syrian hamsters that is similar to that seen in immunoco
219 xpression of the cph proto-oncogene in adult Syrian hamster tissues by northern hybridization using c
221 d the brain transcriptome of male and female Syrian hamsters to generate the necessary resources to c
222 se fluoxetine during adolescence predisposes Syrian hamsters to offensive aggression, with demonstrab
223 and decondensation induced by the binding of Syrian hamster transition proteins TP1 and TP2 and prota
226 lian cells, recombinant PSA was expressed in Syrian hamster tumor cell line AV12-664 (AV12-PSA).
228 n membrane currents in single cells from the Syrian hamster vas deferens cell line DDT1MF-2 were inve
235 STAT1(-)(/-) mice, Hartley guinea pigs, and Syrian hamsters were inoculated intraperitoneally with R
237 nogenesis, freshly isolated islets from male Syrian hamsters were transplanted into the right submand
240 Panama, cause a differential pathogenesis in Syrian hamsters, which could be a useful model for under
243 inkage map for the euchromatic region of the Syrian hamster X chromosome that places Sly in a region
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