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1 t toward a key role of V1 at early stages in discrimination learning.
2 tle is known about the neural basis of taste discrimination learning.
3 rontal cortex (OFC) of rats during olfactory discrimination learning.
4 ng the trial answer period impaired auditory discrimination learning.
5 for stable system operation and fine-grained discrimination learning.
6  coupled with significant deficits in visual discrimination learning.
7 c blockade slowed, but did not prevent, odor discrimination learning.
8 ctory bulb (OB) slows, but does not prevent, discrimination learning.
9 ptical self-stimulation, and directs sensory discrimination learning.
10 shown no evidence that CeA lesions affect FN discrimination learning.
11  subcortical structures during threat/safety discrimination learning.
12 ively with fear ratings during threat/safety discrimination learning.
13 ehavior and an impairment in contextual fear discrimination learning.
14 d D2 receptors have opposing effects on odor discrimination learning.
15  receptors have opposing effects in aversive discrimination learning.
16 t species differences in the rate of initial discrimination learning.
17 rns of cue-elicited neuronal activity during discrimination learning.
18  during direct comparison of delay and trace discrimination learning.
19 en PKA and PKC during acquisition of spatial discrimination learning.
20  mice on black-white and horizontal-vertical discrimination learning.
21 ocampal lesions, do not affect simple visual discrimination learning.
22 tance, and a persistent impairment on visual discrimination learning.
23 red on pattern discrimination and concurrent discrimination learning.
24  performing various tests of conditional and discrimination learning.
25 (3) the extent of generalization of interval discrimination learning.
26 terms of response inhibition and conditional discrimination learning.
27 id (B/W) mice were tested in shock-motivated discrimination learning, 1-way avoidance conditioning, a
28 amygdaloid complex were tested on concurrent discrimination learning (24-hr intertrial interval [ITI]
29 ce show a severe impairment of somatosensory-discrimination learning ability in a behavioral task tha
30 ofrontal cortex, of the type known to affect discrimination learning, affected structure and activity
31 , produced a persistent impairment on visual discrimination learning and a florid, but transient, Klu
32  and rescued the early development of visual discrimination learning and cognitive flexibility defici
33 havioral sensitivity to reinforcement during discrimination learning and D(2)-like receptor availabil
34 a set-shift task in which reward depended on discrimination learning and extradimensional set-shiftin
35 e was modified to an arena, and simultaneous discrimination learning and reversal learning were demon
36 nd ABL fired selectively to cues during odor discrimination learning and reversal training.
37 in awake, behaving rats during go/no-go odor discrimination learning and reversal.
38             This striosomal activity encoded discrimination learning and was correlated with task eng
39 r, decrease in sociability ratio, deficit in discrimination learning, and increased amphetamine-induc
40 cept permanence (OCP), computerized tests of discrimination learning, and infant social behavior.
41 ples include motor-sequence learning; visual-discrimination learning; and perceptual learning of a sy
42                                       During discrimination learning, animals receiving TCVs had impr
43 cking the update rule on the N matrix blocks discrimination learning, as observed experimentally.
44 an, spatial working memory, planning, visual discrimination learning/attentional set-shifting and dec
45 hippocampectomy in infancy spares concurrent discrimination learning but not recognition memory.
46      Experiment 1 assessed trace conditional discrimination learning by using a light conditional sti
47                  Trial-dependent, latent and discrimination learning can be assessed using modificati
48 at predict distinct outcomes-a feat known as discrimination learning-can mean the difference between
49                 The IED task measures visual discrimination learning, cognitive flexibility and speci
50 um and I. Daum that reports that conditional discrimination learning depends on awareness.
51                       Critically, this depth-discrimination learning did not generalize to the traine
52 sly to produce a severe impairment in visual discrimination learning for auditory secondary reinforce
53 sterior fusiform gyrus were recruited during discrimination learning for faces, but not scenes and do
54 mic MK-801 have no effect on T-maze position discrimination learning, impairment of SDA by MK-801 lik
55 ioral and neural correlates of threat/safety discrimination learning in adolescents and adults using
56  agonist improved learning ability on visual discrimination learning in all monkeys but this improvem
57 y of this paradigm to generate threat/safety discrimination learning in both adolescents and adults.
58        ERalpha and ERbeta agonists disrupted discrimination learning in both sexes.
59  dorsal hippocampus rapidly improved general discrimination learning in female mice.
60                        The data suggest that discrimination learning in naive subjects requires NMDA
61 , at this dose, did not impair simple visual discrimination learning in normal monkeys.
62 assertions is found in feature negative (FN) discrimination learning, in which a "target" stimulus is
63                                    Frequency discrimination learning is often accompanied by an expan
64            We here investigate how olfactory discrimination learning is regulated by cholinergic modu
65             Intriguingly, during active odor discrimination learning, mitral but not tufted cells exh
66  damage involving the HC and PrC compromised discrimination learning of scenes and faces but left dot
67  experienced odours and differentially delay discrimination learning of unrecognized and novel odour
68 TD were found to have deficits in the visual discrimination learning paradigm specific to the reversa
69                          Here we developed a discrimination learning paradigm that assesses the abili
70 modeling reinforcement-related behavior in a discrimination learning paradigm.
71 ow normal changes in response latency during discrimination learning, particularly on trials involvin
72 reby developing CA1 performs extensive input-discrimination learning prior to the onset of environmen
73 er, were unimpaired in acquisition of object discrimination learning problems and responded like cont
74                                            A discrimination learning procedure was used to expose rat
75 ith the self-administration chambers using a discrimination learning procedure.
76 ive stimulus effects by examining if ethanol discrimination learning produces changes in brain region
77                                   Using drug discrimination learning, rats were trained to discrimina
78  superficial layers of the SC during pattern discrimination learning reverses the precedence for glob
79 eward and specific digging substrate--during discrimination learning sessions.
80 s were first trained to acquire an olfactory discrimination learning set (ODLS) on 40 olfactory-uniqu
81 n reversal learning set (DRLS) and olfactory discrimination learning set (ODLS) tasks, a delayed matc
82 gnocellularis (nBM) were tested on olfactory discrimination learning set (ODLS), olfactory discrimina
83 consistent findings regarding the concurrent discrimination learning task by demonstrating that perfo
84                 For 30 years, the concurrent discrimination learning task has figured prominently in
85  the amygdala impair performance on a visual discrimination learning task in which an auditory second
86 ve of impaired performance on the concurrent discrimination learning task than was the amount of dama
87                      Here, using a validated discrimination learning task that distinguishes goal-dir
88 d were tested on a simple, two-choice object discrimination learning task that has been shown to be s
89                  In contrast, in a Pavlovian discrimination learning task, iMSN-Drd2KO mice exhibited
90               Using a new concurrent spatial discrimination learning task, they found that fornix tra
91 nd generalisation in an appetitive olfactory discrimination learning task.
92  relative to 3 normal controls on concurrent discrimination learning tasks with only 10 problems with
93 neous odor discrimination, and go/no-go odor discrimination/learning tests to characterize the synapt
94 mporal specificity in somatosensory interval discrimination learning that generalizes across skin loc
95 y exacerbated age-related deficits in object discrimination learning; the magnitude of this effect wa
96 We propose that V1 plays a key role early in discrimination learning to enhance behaviorally relevant
97 ations to a high criterion and on concurrent discrimination learning, to a single high criterion acro
98 y in piriform cortical function during odour discrimination learning until mastery, suggesting that e
99 gous mice demonstrated subtle impairments in discrimination learning using a touchscreen task.
100                   Striosomal function during discrimination learning was disturbed with aging and sev
101                                              Discrimination learning was facilitated by making the CS
102                                     Go/no-go discrimination learning was not affected by L-NAME.
103                                       Simple discrimination learning was not affected, whereas acquis
104 ed activity test, and impaired probabilistic discrimination learning was seen in an OFC/striatum-depe
105             To answer this question, pattern discrimination learning was studied in three intact cats
106 iation signaling, feeding, and interoceptive discrimination learning were assessed via rodent behavio
107                        Modest impairments in discrimination learning were measured in lower expressor
108          However, significant differences in discrimination learning were observed during the reversa
109 es revealed a key role for the HC and PrC in discrimination learning, which is consistent with repres
110                               On conditional discrimination learning, which is particularly sensitive
111 sculus) were tested on a task of simple odor discrimination learning with 3 repeated reversals.
112 hown only to impair new postoperative object discrimination learning with large stimulus set sizes (>
113 that emerges during specific stages of odour discrimination learning, with a transient bias toward th

 
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