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1 zed a novel GHR from a teleost fish (rainbow trout).
2 bsequently lost in Euteleostei (e.g. rainbow trout).
3 es (lake whitefish, coho salmon, and rainbow trout).
4 icantly lower rates in comparison to rainbow trout.
5 ish were significantly lower than in rainbow trout.
6 M substantially higher than those of rainbow trout.
7  the stress and feeding responses in rainbow trout.
8 CD diastereomers during biotransformation in trout.
9 ction involves abnormal monoamine content in trout.
10 nsporter type 2 in distinct brain regions of trout.
11 icantly attenuated virulence against rainbow trout.
12 criptomes of several clonal lines of rainbow trout.
13 ficant predictors of plasma TH levels in the trout.
14 fy from dietary exposure in juvenile rainbow trout.
15 brominated PBDEs is occurring in Great Lakes trout.
16 pting potential exerted by HF-FPW in rainbow trout.
17 es in gonadotropins and estradiol in rainbow trout.
18 mples of farmed Atlantic salmons and rainbow trouts.
19 ta) (TMF(-SMELT) = 1.62, CI: 0.96-2.72; TMF(-TROUT) = 3.58, CI: 1.82-7.03).
20                                    Steelhead trout (52 individual fishes) have MeHg of predominantly
21 gh its stimulation of Tnfalpha production in trout, a primitive teleost fish.
22 inding protein was identified in the rainbow trout, a protein that structurally behaves like an inter
23                        Simulations show that trout abundance could be greatly reduced under constant
24      The data were a 15-year record of brook trout abundance from 72 sites distributed across a 170-k
25 t contaminant trends due to significant lake trout age structure changes.
26 to mitigate the effect of a fluctuating lake trout age structure to directly improve the log-linear r
27 and visual pigment absorbance in the rainbow trout alevin but only visual pigment absorbance in the s
28 n the single cones of small juvenile rainbow trout (alevin), opsin expression in large juvenile rainb
29 nce, biomass, growth rate, and production of trout all increased with stream temperature.
30 analysis to trace the geographical origin of trout, also according to the type of feed.
31 tions are generally declining in Great Lakes trout, although there are clear exceptions to this trend
32  g(-)(1)ww in barbel, 9.2-97.0 ng g(-1)ww in trout and 9.0-239.5 ng g(-1)ww in eel.
33 nvestigated the presence of NDL PCBs in eel, trout and barbel from the River Roya.
34 e expression of all six subgroups in rainbow trout and brown trout Salmo trutta.
35                    Hg concentrations in lake trout and burbot increased significantly over the early
36 oral variations in Hg concentrations in lake trout and burbot were similar with respect to timing of
37  AEs and 869 BMFs from 19 species (primarily trout and carp) was developed from the literature.
38 cs of hybridization between native cutthroat trout and invasive rainbow trout, the world's most widel
39  organisms, including Daphnia magna, rainbow trout and juvenile crayfish, and is able to capture the
40 rook trout and salmon, suggesting that brook trout and mottled sculpin either use salmon tissue to di
41 ive hybridization between introduced rainbow trout and native cutthroat trout in western North Americ
42 blished in vivo and in vitro data in rainbow trout and new data on the synthesis of gonadotropins in
43    Phylogenetic tree and synteny analyses of trout and other fish species suggest that two types (nam
44 important conservation implications for bull trout and other imperiled species.
45 e study lakes were exceeded, impacting brown trout and perch populations.
46 mottled sculpin differed from those of brook trout and salmon, suggesting that brook trout and mottle
47 e three inland, freshwater datasets are ELA, TROUT and SWAT.
48      We find that NALT is present in rainbow trout and that it resembles other teleost mucosa-associa
49                                         Lake trout and walleye composites were collected between 2004
50 entrations and age-corrected trends for lake trout and walleye in the Great Lakes over the 2004-2014
51  of TEQ associated with all Great Lakes lake trout and walleye samples is due to the nonortho CP-PCBs
52 elines for wildlife protection based on lake trout and walleye total TEQ were uniformly exceeded in a
53 centration trends in top predator fish (lake trout and walleye) of the Great Lakes (GL) from 2004 to
54  in the Great Lakes' top predator fish (lake trout and walleye) was assembled by integrating previous
55 Component B (Dec604 CB), was present in lake trout and whitefish at concentrations of 10-60 ng/g lipi
56 h, gummy shark, oyster (four species), ocean trout and yellowtail kingfish.
57 the absorbance of visual pigments in rainbow trout and zebrafish.
58 h (predominantly largemouth bass and rainbow trout), and 505 prey fish (14 species) at 25 lakes throu
59 lt, but nonracemic in the top predator, lake trout, and all invertebrate species.
60  Michigan, Huron, Ontario, and Superior lake trout, and Lake Erie walleye, respectively.
61 d caloric turnover rates for Lake Huron lake trout, and reveal how these processes are regulated by b
62   Odorous molecules in earthen-ponds rainbow trout aquaculture farming in Germany were investigated w
63 e first time in German earthen-ponds rainbow trout aquaculture water including, amongst others, 4-hyd
64                                        Brown trout are at the northern limit of their geographic dist
65                                Using rainbow trout as a model we characterized responses to two natur
66 dictions to investigate the success of brown trout as top predators across a stream temperature gradi
67  regulation of B cell populations in rainbow trout, as well as an essential role for sphingolipids in
68                          Consumption by bull trout at other settings were lower and more variable, bu
69 both young-of-the-year (YOY) and adult brown trout attained 100% at the end of summer, while seasonal
70 sms that contributed to these responses: (1) trout became more selective in their diet as stream temp
71 ocky Mountains for two native salmonids-bull trout (BT) and cutthroat trout (CT).
72 f head kidney leukocytes from Ag-experienced trout but not naive controls, yet it does not confer pro
73 M concentrations similar to those of rainbow trout but not with sea lamprey.
74 rements of heavier PAHs (>/=5 rings) in lake trout, but lighter PAHs (</=4 rings) were overpredicted,
75 ioconcentration of PFASs in juvenile rainbow trout by exposing the fish in separate tanks under flow-
76                                              Trout by-product hydrolysates, generated using trout pep
77 und between local escapes and subsequent sea trout catch.
78                       Recombinant His-tagged trout CK12a (rCK12a) is not chemotactic in vitro but it
79 ogical active hormone, T3, in the Lake Mjosa trout co-occurred with their low Se:Hg molar ratios.
80                                          The trout cobalamin-binding protein was glycosylated and dis
81     Like haptocorrin and transcobalamin, the trout cobalamin-binding protein was present in plasma an
82                                          The trout cobalamin-binding protein was purified from roe fl
83                        Like haptocorrin, the trout cobalamin-binding protein was stable at low pH and
84         In vitro, tSC present in mucus coats trout commensal isolates such as Microbacterium sp., Sta
85            Metal concentrations in the Hayle trout, compared to fish from a relatively unimpacted riv
86                  Studies in rats and rainbow trout confirmed that DHA biosynthesis proceeds through t
87                       We also simulated bull trout consumption and growth during salmon smolt outmigr
88              Native Colorado River cutthroat trout (CRCT; Oncorhynchus clarkii pleuriticus) are now r
89 tive salmonids-bull trout (BT) and cutthroat trout (CT).
90                Once validated, Lake Michigan trout data files were analyzed for polyfluoroalkyl acids
91 chicken, 7451 pigs, 753 sheep and 88 rainbow trout data points in the database, and at least 290 publ
92  and temperature had strong effects on brook trout demography.
93 s of inclusion (60%, 75% and 90%) in rainbow trout diets.
94  One-day consumption by laboratory-held bull trout during the first day of feeding experiments after
95 he delta(202)Hg and Delta(199)Hg of the lake trout equaled the isotopic composition of the bloater af
96 ranscriptional response of mature male brown trout exposed for 4 days to 1.7, 15.3, and 225.9 mug/L l
97       Furthermore, GST and SOD activities of trout exposed to both Se-Met and parasites were generall
98 ulated mRNAs and lncRNAs in juvenile rainbow trout exposed to E2.
99  single-cell CLEM to magnetic cells from the trout failed to identify any intracellular structures co
100 d we conducted genome scans of seven rainbow trout families from a single broodstock population to id
101 igated restoration of EPA and DHA in rainbow trout fed a FOFD preceded by a grow-out period on 50% or
102 shows effectively that quality and safety of trout feeds has greatly improved during the last years a
103  of feeding regime on composition of rainbow trout fillets, as well as on lipid and protein oxidation
104 ve stress and oxidative stability of rainbow trout fillets.
105 alysis of MG in different types of water and trout fish samples.
106 the first time in German aquaculture rainbow trout fish, including, amongst others, (E,Z,Z)-2,4,7-tri
107 e efficient than the synthetic feed to color trout flesh (up to twofold increase in the retention of
108  variation in prey abundance influenced lake trout foraging tactics (i.e., the balance of the number
109 ntain fish as the apex predator; a cutthroat trout from the experiment, the only fish species in the
110 were much lower than those reported for lake trout from the more urbanized and industrialized Laurent
111 y trends in Walleye, Northern Pike, and Lake Trout from the Province of Ontario, Canada, which contai
112 ] fish cell line) and in vivo (using rainbow trout fry) in a dose-dependent and time-dependent manner
113              We then determined whether bull trout genetic diversity was related to climate vulnerabi
114 e to an additional round of WGD, the rainbow trout genome offers a unique opportunity to investigate
115 e duplicated genes have been retained in the trout genome.
116 cterize copper and silver binding to rainbow trout gill cells, either as cultured reconstructed epith
117 construct and culture the freshwater rainbow trout gill epithelium on flat permeable membrane support
118                                         Lake trout greatly reduced their use of littoral habitat and
119 young growing fish, slow growing, older lake trout (&gt;5 yr) recycled an average of 482 Tonnes.yr(-1) o
120 ith shorter springs and longer summers, lake trout had reduced access to littoral habitat and assimil
121             The methodology was validated in trout, hake and Atlantic horse mackerel and was used to
122 ns tumors were induced in zebrafish, rainbow trout, hamsters, and mice by carcinogenic agents (methyl
123 ed a lymphoid cell line derived from rainbow trout head kidney cells.
124    Lipid profiles of fish oil extracted from trout heads, spines and viscera using supercritical carb
125 sic clearance determined using cryopreserved trout hepatocytes can be extrapolated to the whole anima
126 of this study demonstrate that cryopreserved trout hepatocytes can be used to reliably obtain in vitr
127 ate depletion experiments with cryopreserved trout hepatocytes from a single source.
128 , a significant decreasing trend in the lake trout Hg concentrations was found between 2004 and 2015
129 he proportion of IgT(+) to IgM(+) B cells in trout HK.
130                   Furthermore, we identified trout homologs for CD141 and CD103 and demonstrated that
131 ted an innate immune response in the rainbow trout host, making LJ001 potentially useful for future v
132 ale mathematical model of the female rainbow trout hypothalamus-pituitary-ovary-liver axis to use as
133 sis revealed high constitutive expression of trout IL-17A/F2 in mucosal tissues from healthy fish, su
134          In addition, the bioactivity of the trout IL-17A/F2 is investigated for the first time in an
135 xpression and bioactivity results imply that trout IL-17A/F2 plays an important role in promoting inf
136 ased MHC-II surface expression that point to trout IL-6 as a differentiation factor for IgM antibody-
137 e present study was to establish the role of trout IL-6 on B cells, comparing its effects to those in
138                  Our results reveal that, in trout, IL-6 is a differentiation factor for B cells, sti
139 apture-mark-recapture study of eastern brook trout in four streams in Western Massachusetts, USA to p
140  one-year-old (1+) Atlantic salmon and brown trout in response to flow change during summer.
141 ed that salmon are a source of POPs to brook trout in stream reaches receiving salmon spawners from L
142          The degree of binge-feeding by bull trout in the field was slightly reduced but largely in a
143 ntroduced rainbow trout and native cutthroat trout in western North America will lead to genomic exti
144 NAs (lncRNAs), in skeletal muscle of rainbow trout injected with E2.
145 ason for this paradox is that past nonnative trout invasions and habitat loss have restricted most CR
146 olorado River Basin, owing to past nonnative trout invasions and habitat loss.
147  metabolic rate (RMR) in juvenile salmon and trout is positively related to dominance status and abil
148 grees C) were evaluated using farmed rainbow trout killed by asphyxia in air or percussion.
149 ks were largely maintained throughout marble trout lifetime in both populations.
150 ne fragrance ingredients were measured using trout liver S9 fractions and used as inputs to a recentl
151 o biotransformation experiments with rat and trout liver S9 fractions for different incubation times
152 rthern Pike (NP), and 70% to 76-92% for Lake Trout (LT).
153 utively expressed at high levels in all four trout MALT.
154 although concentrations in Lake Ontario Lake Trout may have stopped increasing in response to volunta
155 irmed that trout MRAP interacts with the two trout MC1R variants and MC2R, but failed to detect regul
156 , regardless of the climate data set or bull trout model employed.
157 ndex improved explanatory power for the lake trout model suggesting that trends may have been affecte
158 lpha3) that has only low identities to known trout molecules.
159 xperiments in mammalian cells confirmed that trout MRAP interacts with the two trout MC1R variants an
160 ll as an essential role for sphingolipids in trout mucosal homeostasis.
161  that the majority of tSC is in free form in trout mucus and free tSC is able to directly bind bacter
162  results showed that the presence of PCBs in trout muscle is directly linked to the chemical quality
163 elated (p<0.01 and r=0.451) with the rainbow trout muscle Sigma18PCBs.
164 thod was applied to Nile tilapia and rainbow trout (n=29) and 14% of them contained enrofloxacin at l
165       The predominant B-cell subset found in trout NALT are IgT(+) B cells, similar to skin and gut.
166                                              Trout NALT consists of diffuse lymphoid cells and lacks
167                                              Trout NALT is capable of mounting strong anti-viral immu
168 of CK12 (but not CK10 or CK13) expression in trout nasopharynx-associated lymphoid tissue.
169 uleatus), 41 +/- 38 (char), and 9.9 +/- 5.9 (trout) ng g(-1) wet weight.
170  coho salmon (Oncorhynchus kisutch), rainbow trout (O. mykiss), Chinook salmon (O. tshawytscha), Atla
171           As a tissue of choice, we selected trout olfactory epithelium that has been previously sugg
172                                          The trout olfactory organ is colonized by abundant symbiotic
173 rax); turbot (Scophthalmus maximus); rainbow trout (Onchorynchus mykiss); and salmon (Salmo salar), i
174  further subgroups (IFN-e and -f) in rainbow trout Oncorhynchus mykiss and analyzed the expression of
175 and Champsocephalus gunnari, and the rainbow trout Oncorhynchus mykiss as a reference.
176                     Exposed juvenile rainbow trout (Oncorhynchus mykiss) accumulated surfactants, nap
177 collected in two previous studies of rainbow trout (Oncorhynchus mykiss) and common carp (Cyprinus ca
178 ganic chemicals in two fish species: rainbow trout (Oncorhynchus mykiss) and fathead minnow (Pimephal
179 he cobalamin-binding proteins of the rainbow trout (Oncorhynchus mykiss) and to compare their propert
180 f-odour development in earthen-ponds rainbow trout (Oncorhynchus mykiss) aquaculture farming in Germa
181 n and functional characterization of rainbow trout (Oncorhynchus mykiss) CD4-1(+) T cells and the est
182 film on the rancidity development in rainbow trout (Oncorhynchus mykiss) fillets during refrigerated
183  the muscle and edible skin parts of rainbow trout (Oncorhynchus mykiss) fillets, sampled at two grow
184 lex mixtures in a primary culture of rainbow trout (Oncorhynchus mykiss) hepatocytes.
185 discovery and sequence analysis of a rainbow trout (Oncorhynchus mykiss) IL-17A/F2 molecule and an IL
186 he growth of the young of the year steelhead trout (Oncorhynchus mykiss) in the recipient tributary o
187 presence of CD8alpha(+) cells in the rainbow trout (Oncorhynchus mykiss) nasal epithelium.
188 wild and first-generation hatchery steelhead trout (Oncorhynchus mykiss) reared in a common environme
189 e, but not benzocaine or MS-222; and rainbow trout (Oncorhynchus mykiss) showed no avoidance to the t
190 ular mass<30kDa (PF30) isolated from rainbow trout (Oncorhynchus mykiss) skin gelatin hydrolysates wa
191 sing on the shelf-life of fillets of rainbow trout (Oncorhynchus mykiss) were examined.
192 tion on the shelf-life of fillets of rainbow trout (Oncorhynchus mykiss) were examined.
193                                      Rainbow trout (Oncorhynchus mykiss) were exposed to waterborne v
194 isms in aquatic ecosystems, juvenile rainbow trout (Oncorhynchus mykiss) were separately exposed to a
195 e that BPA deposition in the eggs of rainbow trout (Oncorhynchus mykiss), an ecologically and economi
196 in benthic invertebrates, juvenile steelhead trout (Oncorhynchus mykiss), and water striders (Gerris
197  negatively affects muscle growth in rainbow trout (Oncorhynchus mykiss), but the mechanisms directin
198 cestor of salmonid fishes, including rainbow trout (Oncorhynchus mykiss), experienced a whole genome
199 sturgeon (Acipenser fulvescens), and rainbow trout (Oncorhynchus mykiss), were selected to evaluate T
200 ave added to the controversy is that rainbow trout (Oncorhynchus mykiss), which have served as the pr
201  bioaccumulation of selenium (Se) in rainbow trout (Oncorhynchus mykiss).
202 cently reported a homolog to CCR7 in rainbow trout (Oncorhynchus mykiss).
203 turn to the surface, was examined in rainbow trout (Oncorhynchus mykiss).
204 n high- (HR) and low-responsive (LR) rainbow trout (Oncorhynchus mykiss).
205  of liver S9 fractions isolated from rainbow trout (Oncorhynchus mykiss).
206 he gill and skin mucosal surfaces of rainbow trout (Oncorhynchus mykiss).
207 gated whether a relevant model fish (rainbow trout, Oncorhynchus mykiss) could detect OSPW using its
208 out by-product hydrolysates, generated using trout pepsin, were characterized and studied in terms of
209                                      Rainbow trout pIgR is known to transport IgT and IgM across epit
210      However, other biological functions for trout pIgR or trout secretory component (tSC) remain unk
211 Indo-west Pacific, the large predatory coral trout Plectropomus leopardus (Serranidae), can behaviour
212 ectropomus pessuliferus marisrubri and coral trout Plectropomus leopardus, use to indicate hidden pre
213         Here, we show that a fish--the coral trout Plectropomus leopardus--has partner-choice abiliti
214 ommercially-important marine fish, the coral trout Plectropomus leopardus.
215 The visual stimulus of a top predator (coral trout, Plectropomus leopardus) restricted the foraging a
216 cenarios, refugia with high probabilities of trout population occupancy (>0.9) were predicted to exis
217 strong gradient in genetic diversity in bull trout populations across the Columbia River Basin, where
218           Furthermore, the majority of brook trout populations are projected to persist if high winte
219 inear mixed models, allelic richness in bull trout populations was positively related to habitat patc
220 egion, had the strongest negative effects on trout populations.
221 and GHR2b, the two type 2 GHRs isolated from trout previously.
222                                 As a rainbow trout producer, Italy is accounted as fifth in the world
223 ical stocking locations with greater rainbow trout propagule pressure, warmer water temperatures, and
224 and defatted (protein) fillet of 130 rainbow trout, reared with feed incorporating a high or low fish
225 ologically relevant to trout, we showed that trout recruit a moray collaborator more often when the s
226 tellite genotypes, we document in situ brook trout reproduction, which is the initial phase in the re
227 l endocrine components of the female rainbow trout reproductive axis.
228 ormation (t0.5 = 6.4 and 38.1 min in rat and trout, respectively), alpha-HBCD appears the most resist
229 and 0.419 after 60 min incubation in rat and trout, respectively).
230 TCDD raw concentrations in Lake Ontario lake trout revealed decreases of 94% and 96%, respectively.
231                                   In rainbow trout RTG-2 and RTS-11 cells, polyinosinic-polycytidylic
232 terestingly, delta-HBCD was detected only in trout S9 fraction assays indicating metabolic interconve
233 ethod, we consider two populations of marble trout Salmo marmoratus living in Slovenian streams, wher
234  studies of oxidative stress using the brown trout Salmo trutta as model.
235 occur where an important predator, the brown trout Salmo trutta, is also small.
236 all six subgroups in rainbow trout and brown trout Salmo trutta.
237           This procedure was tested in brown trout ( Salmo trutta ) kept in captivity.
238 almon (classified as wild or farmed) and sea trout (Salmo trutta L.).
239 excluding smelt (Osmerus eperlanus) or brown trout (Salmo trutta) (TMF(-SMELT) = 1.62, CI: 0.96-2.72;
240 an lakes (Mjosa, Randsfjorden), and in brown trout (Salmo trutta) and Arctic char (Salvelinus alpinus
241 ly contaminated with metals, including brown trout (Salmo trutta) inhabiting the River Hayle in South
242 n Arctic char (Salvelinus alpinus) and brown trout (Salmo trutta) when the benthic link was included
243 quences for somatic growth in juvenile brown trout (Salmo trutta).
244 h the insertion of a silicone tag into brown trout (Salmo trutta).
245 ffect plasma TH levels in free-ranging brown trout, Salmo trutta , from Lake Mjosa (a Se-deprived lak
246 or stream fishes and cold-water species like trout, salmon, and char that are already constrained to
247 %, 5.1%, 2.6% and 8.0% for tilapia, catfish, trout, salmon, hybrid striped bass and yellow perch, res
248 hod by forecasting suitable habitat for bull trout (Salvelinus confluentus) in the Interior Columbia
249 c variation and habitat features in 130 bull trout (Salvelinus confluentus) populations from 24 water
250 rvations with laboratory experiments of bull trout (Salvelinus confluentus), a large freshwater pisci
251 ity decline and loss of an established brook trout (Salvelinus fontinalis [Mitchill]) population in B
252 spring) on survival and recruitment of brook trout (Salvelinus fontinalis) at a broad spatial scale u
253 agged, sampled seasonally) data set of brook trout (Salvelinus fontinalis) from four sites in a strea
254 ion size and mean body size in eastern brook trout (Salvelinus fontinalis).
255                                      In lake trout (Salvelinus namaycush) from northern Canada (e.g.,
256                        In experiment 2, lake trout (Salvelinus namaycush) were raised in captivity on
257 ture dataset to test if a population of lake trout (Salvelinus namaycush), a cold-water stenotherm, a
258 rends in mercury (Hg) concentrations in lake trout (Salvelinus namaycush), burbot (Lota lota), and no
259 es Basin), and species identity (i.e., brook trout [Salvelinus fontinalis] or mottled sculpin [Cottus
260  (PFCs) were determined in Lake Ontario Lake Trout sampled annually between 1997 and 2008 in order to
261 other biological functions for trout pIgR or trout secretory component (tSC) remain unknown.
262                                          The trout secretory delta transcript is produced via a run-o
263 dant symbiotic bacteria, which are coated by trout secretory immunoglobulin.
264 as low relative to its host, and parasitized trout showed slowed Se accumulation in the muscle as com
265  consequence, also the PCBs values in muscle trout, showed a decreasing trend.
266 e levels of the eighteen PCBs in feed and in trout, showed a statistical significant difference (p<0.
267 hts into mRNA and lncRNA networks in rainbow trout skeletal muscle and their regulation by E2 while u
268        Our results show that the majority of trout skin and gut bacteria are coated in vivo by tSC.
269 , opsin expression in large juvenile rainbow trout (smolt), zebrafish, or killifish remained unchange
270 nd (2) how can the paradoxical loss of PS in trout smolts be reconciled?
271 n lakes with pH > 6.5 that were stocked with trout species.
272 High cobalamin-binding capacity was found in trout stomach (210 pmol/g), roe (400 pmol/g), roe fluid
273 el memIgD(+)memIgM(-) B lymphocyte subset in trout that expresses memCCR7 and responds to viral infec
274 and Randsfjorden) had cVMS concentrations in trout that were up to 2 orders of magnitude higher than
275  native cutthroat trout and invasive rainbow trout, the world's most widely introduced invasive fish,
276 or CD141 and CD103 and demonstrated that, in trout, this skin CD8(+) DC-like subpopulation expresses
277 n this study we show that collagen activates trout thrombocytes in whole blood and under flow conditi
278               The constitutive expression of trout TNF-alpha3 was generally lower than the other two
279                                  Recombinant trout Tnfalpha (rTnfalpha) and PGF2alpha recapitulate th
280 mechanisms employed by the River Hayle brown trout to tolerate high metal concentrations.
281 . major sphingolipids modulate the growth of trout total skin and gill symbiotic bacteria.
282 sequenced, assembled and annotated the brown trout transcriptome using a de novo approach.
283                                   In rainbow trout, two TNF-alpha molecules were described previously
284  enrichment of (-)-alpha-HBCD in rat than in trout underlines the species-specific differences in HBC
285 ivergent HEV-like virus from fish (cutthroat trout virus) representing a second genus.
286                The biotransformation rate in trout was slower than in rat.
287  but modified to be ecologically relevant to trout, we showed that trout recruit a moray collaborator
288                                Finally, when trout were bath challenged with viral hemorrhagic septic
289                             Juvenile rainbow trout were exposed to 1.0 mg l(-1) citrate-capped Ag NPs
290                                      Rainbow trout were fed six different diets, which differed in th
291                                              Trout were injected with three different Ba137/Ba135 iso
292         Candidate species identified in lake trout were qualified using theoretical isotopic profile
293                                      Rainbow trout were simultaneously exposed to 11 chemicals.
294                              Growing rainbow trout with diets where FO was replaced by either 50% or
295                           Infection of brown trout with hemorrhagic septicemia virus resulted in earl
296 ld play a more important role in the diet of trout with increasing stream temperature.
297 ertebrate host, Oncorhynchus mykiss (rainbow trout), with variants of a coevolved viral pathogen, inf
298 us primarily on farmed salmonids (salmon and trout) within a comparative context and will give an ove
299  persistence of native Yellowstone cutthroat trout (YCT) and competing invasive species.
300 le-cone opsin expression in juvenile rainbow trout, zebrafish, and killifish and on the absorbance of

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