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1 munostaining, RNA sequencing, lipidomic, and behavioral analyses.
2 e ventral tegmental area and psychotomimetic behavioral analyses.
3 ctical and theoretical limitations of common behavioral analyses.
4 Mi{MIC} mutants and focused on molecular and behavioral analyses.
5 with the parental lines via histological and behavioral analyses.
6 ysiological recordings of the subiculum, and behavioral analyses.
7  A total of 21 participants were included in behavioral analyses; 17 purchased cannabis and were thus
8                                              Behavioral analyses also confirmed that variations of al
9 et the current diagnostic procedures rely on behavioral analyses and interviews, without objective sc
10                       Using a combination of behavioral analyses and single-cell Ca(2+) imaging in wi
11 proaches, building from molecular targets to behavioral analyses and vice versa, respectively.
12                 Neuronal time-lapse imaging, behavioral analyses, and electrophysiological recordings
13 etroviral fate mapping of neural stem cells, behavioral analyses, and various network analyses of tra
14                                          Our behavioral analyses capture both the structure and tempo
15                     Electrophysiological and behavioral analyses confirmed that rationally designed,
16      Histological, electrophysiological, and behavioral analyses demonstrate that MEF2C-directed neur
17                                              Behavioral analyses demonstrated higher basal locomotor
18                                              Behavioral analyses demonstrated that pan-neural loss of
19                                              Behavioral analyses found that NeuroD1 and Dlx2-treated
20                                              Behavioral analyses have long indicated that additional,
21              Recent advances in quantitative behavioral analyses have paved the way for investigating
22 her, our cellular, electrophysiological, and behavioral analyses highlight the importance of axonal t
23  histochemistry, in vivo Ca(2+) imaging, and behavioral analyses in a mouse model of AD, we demonstra
24 rboring this mutation and performed detailed behavioral analyses in acute and chronic pain models.
25            It also reveals the importance of behavioral analyses in studies aimed at understanding th
26 r, histological, and biochemical methods and behavioral analyses in vivo we demonstrate, to our knowl
27  In this study, both recordings in vitro and behavioral analyses in vivo were used to examine cellula
28                         Through a battery of behavioral analyses, including primate-unique eye-tracki
29 ptic tracing together with physiological and behavioral analyses indicate that integrated sensory inf
30 ls overall, but computational model fits and behavioral analyses indicate that these deficits could b
31 -imaging, hormone-measurement, and cognitive-behavioral analyses indicate the importance of mentaliza
32                                          Our behavioral analyses indicated that DJ-1 deficiency led t
33    This approach combined with molecular and behavioral analyses, led us to recognize, in hippocampus
34  when combined with electrophysiological and behavioral analyses, make this an attractive model syste
35                                              Behavioral analyses of BACHD/GFAP-CreERT2-tam mice demon
36           Electrophysiological, imaging, and behavioral analyses of Caenorhabditis elegans mutants la
37                                              Behavioral analyses of offspring exposed to BPA revealed
38                                              Behavioral analyses of optomotor head-turning reflex, vi
39                    Here, we provide detailed behavioral analyses of the highly acrobatic Australian a
40 , electrophysiological, and vision-dependent behavioral analyses of the mouse model revealed a unique
41 ly amenable to molecular, physiological, and behavioral analyses of the neural features responsible f
42                                              Behavioral analyses of the ontogeny of memory have shown
43                                              Behavioral analyses of the R6/2 mouse reveal age-related
44 hat can now be used to correlate with future behavioral analyses of these compounds and may provide i
45                                              Behavioral analyses of these mice showed selectively slo
46                                Comprehensive behavioral analyses of transgenic and knockout mice have
47                              High-throughput behavioral analyses of trpa1a and trpa1b mutant larvae i
48       We used a combination of molecular and behavioral analyses, pharmacology, and in vivo amperomet
49 ed a combination of slice electrophysiology, behavioral analyses, pharmacology, in vivo microdialysis
50      We used improv to orchestrate real-time behavioral analyses, rapid functional typing of neural r
51                                              Behavioral analyses reveal robust relationships between
52                                              Behavioral analyses reveal that many of the 43 male-spec
53                     Microarray, imaging, and behavioral analyses reveal that tomatidine maintains mit
54 endrite patterning in the cerebellar cortex, behavioral analyses reveal that TRPC5 knockout mice have
55                                              Behavioral analyses revealed a significant interaction,
56                                              Behavioral analyses revealed no differences from wild ty
57                                          Our behavioral analyses revealed that formoterol, a long-act
58                                              Behavioral analyses revealed that humans executed a hier
59                                              Behavioral analyses revealed that mice lacking CRFR1 dis
60                                              Behavioral analyses revealed that poker players were fas
61                                  Exploratory behavioral analyses revealed that regions showing increa
62                                              Behavioral analyses revealed that suppression of GAD1 in
63                                  Genetic and behavioral analyses revealed that tank acts in the adult
64          Consistent with these observations, behavioral analyses show that bitter-compound-mediated i
65                                              Behavioral analyses show that multiple elements of behav
66                                 Furthermore, behavioral analyses show that PRMT8 conditional knock-ou
67                                              Behavioral analyses show the blinks of mudskippers are f
68                                   Similarly, behavioral analyses showed impaired auditory and context
69                                        Motor behavioral analyses showed no changes in reach rate acro
70                                              Behavioral analyses showed that both age-groups learned
71                      Human genetic and mouse behavioral analyses suggest that ENGRAILED-2 (EN2) contr
72            Our genetic, pharmacological, and behavioral analyses suggest that in sir-2.1(0) and older
73                                              Behavioral analyses suggest that serotonin facilitates l
74                                     Finally, behavioral analyses suggest that such increased connecti
75                                  Genetic and behavioral analyses suggest that the NCA channels enable
76                                              Behavioral analyses suggest that these molecular effects
77  viral vectors and gene editing to automated behavioral analyses, there has been a recent wave of int
78                        These connectomic and behavioral analyses therefore reveal further complexity
79 ophysiological recordings were combined with behavioral analyses to assess whether removal of AKAP150
80          Based on this finding, we performed behavioral analyses to determine whether a gain-of-funct
81 graphical, morphological, physiological, and behavioral analyses to determine whether key functional
82 mouse genetics, single-cell dye tracing, and behavioral analyses to determine whether Tbr2 regulates
83 Such information may be correlated with pain behavioral analyses to help shed light on the complex mo
84 approach using high-throughput, quantitative behavioral analyses to identify the neural substrates of
85       We utilized in vivo EEG recordings and behavioral analyses to perform a battery of electrophysi
86 ng brain imaging with social, cognitive, and behavioral analyses to understand how parental brain cir
87                                              Behavioral analyses using a Bayesian framework showed th
88                                              Behavioral analyses using video microscopy revealed that
89                By performing biochemical and behavioral analyses we can show that UCH-L1 deficiency c
90    With combined brain-imaging and cognitive-behavioral analyses, we are in the early phases of under
91 ysiological recordings, calcium imaging, and behavioral analyses, we demonstrate that ionotropic rece
92 ular, biochemical, electrophysiological, and behavioral analyses, we demonstrate that NRG1-IV/NSE-tTA
93           Using newly developed quantitative behavioral analyses, we demonstrate that the T(S) repres
94 in vivo electrophysiology, optogenetics, and behavioral analyses, we demonstrated that anterior cingu
95                                      Through behavioral analyses, we find that multiple components of
96                        Using microstructural behavioral analyses, we identified the spatiotemporal dy
97            By transcriptomic, proteomic, and behavioral analyses, we report that heterozygous Grin2a
98                            Using genetic and behavioral analyses, we show that apt mediates sensitivi
99 genetics, cell-specific ablation- and mutant behavioral analyses, we show that the male makes this sh
100  analysis, calcium imaging, optogenetics and behavioral analyses, we uncovered a circuit specific for
101                                              Behavioral analyses were conducted using a newly-develop
102 sed to varying concentrations of PM(2.5) and behavioral analyses were conducted.
103 ohistochemical, biochemical, functional, and behavioral analyses were performed in nerves harvested f
104              In the present work we combined behavioral analyses with calcium imaging of odor induced
105                                  By coupling behavioral analyses with computational modeling, we show
106                                    Combining behavioral analyses with in vivo synaptic imaging, we sh

 
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