コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 ere the primary outcome is an improvement in visual hallucinations.
2 suggest three mechanisms underlying complex visual hallucinations.
3 alterations in visual perception, including visual hallucinations.
4 frequently had a good levodopa response and visual hallucinations.
5 One-third of patients experienced visual hallucinations.
6 ry hallucinations, but not the subgroup with visual hallucinations.
7 y in visual recognition to social vision and visual hallucinations.
8 considering current models for mechanisms of visual hallucinations.
9 ple system atrophy, including a patient with visual hallucinations.
10 al hallucinations, relative to those without visual hallucinations.
11 sential components of a model of oscillating visual hallucinations.
12 echanism underlying 5-HT2A receptor-mediated visual hallucinations.
13 of visual perceptual alterations, including visual hallucinations.
14 al feedback mechanisms can enhance patterned visual hallucinations.
15 utes to the observed regularity of geometric visual hallucinations.
16 These are experienced as geometric visual hallucinations.
17 nitive function in patients with and without visual hallucinations.
18 was made for reporting of persistent formed visual hallucinations.
19 and executive function, were associated with visual hallucinations.
20 n the clinical study of whom 32% experienced visual hallucinations.
21 eelings of presence and passage) and complex visual hallucinations.
22 particularly for patients with a history of visual hallucinations.
23 the left ILF (P = .02) than patients without visual hallucinations.
24 istinct mechanisms and when and how to treat visual hallucinations.
25 erse events for ADS-5102 vs placebo included visual hallucinations (15 [23.8%] vs 1 [1.7%]), peripher
26 early-onset DLB over early-onset AD included visual hallucinations (15 [46.9%] vs 42 [11.6%]), slowne
27 sm symptoms-71 years (66-92 years), six with visual hallucinations-72 years (64-90 years), seven with
28 differences in ocular pathology between the visual hallucination and non-visual hallucination groups
29 hy patient group included hyper-religiosity, visual hallucinations and cross-modal sensory experience
30 econdary outcomes included impact ratings of visual hallucinations and electrophysiological measures.
33 ctively contribute to the pathophysiology of visual hallucinations and may explain their predominantl
34 d synPC4 pattern scores were associated with visual hallucinations and motor impairment, respectively
38 disease (81 without hallucinations, 19 with visual hallucinations) and 34 healthy age-matched contro
39 variables persecutory ideation, auditory and visual hallucinations, and diagnosis of probable psychos
40 he possible neuronal events at the origin of visual hallucinations, and further suggests that brain o
42 down processes in shifting the complexity of visual hallucinations, and to assess whether these techn
51 in Parkinson's disease and, with respect to visual hallucinations, are an important predictor of cog
52 predominant effects induced by LSD included visual hallucinations, audiovisual synesthesia, and posi
53 sing activities of daily living, depression, visual hallucinations, best-corrected visual acuity (BCV
54 n in Alzheimer's disease, as were persistent visual hallucinations, but patients who had dementia wit
55 tional connectivity changes with Parkinson's visual hallucinations, but the biological factors underl
56 -HT2A receptors may lead to the formation of visual hallucinations by increasing cortical excitabilit
61 between the presence of the Ser23 allele and visual hallucinations (chi2 = 7.5, df = 1, P = 0.006) (P
62 estones of advanced disease (frequent falls, visual hallucinations, cognitive disability and need for
63 older and had an extremely low frequency of visual hallucinations compared with Parkinson's disease.
64 grey matter atrophy patterns associated with visual hallucinations, comparing Parkinson's disease hal
65 he link between abnormal visual function and visual hallucinations, considering current models for me
67 ionships of persistent psychiatric symptoms (visual hallucinations, delusions, depression) to plaques
68 estones of advanced disease (frequent falls, visual hallucinations, dementia and need for residential
69 ribed by several different authors as formed visual hallucinations due to disturbances of the visual
70 , the hallucinators, all of whom experienced visual hallucinations, exhibited grey matter atrophy wit
71 (e.g., emotions, thoughts, and olfactory and visual hallucinations) exhibits no clear relation to the
72 ons to the hippocampus and cortex, while the visual hallucinations experienced by subjects with Demen
73 ve decline and core clinical features (e.g., visual hallucinations, fluctuating cognition, parkinsoni
74 h Lewy bodies is characterised clinically by visual hallucinations, fluctuating cognitive function, p
75 ch in peduncular hallucinosis, a syndrome of visual hallucinations following subcortical lesions long
78 ses revealed that patients with a history of visual hallucinations had lower fractional anisotropy in
79 cted for multiple comparisons, patients with visual hallucinations had significantly greater disease
80 70]) than the ADP group and a lower risk for visual hallucinations (HR, 0.56 [95% CI, 0.45-0.71]) and
81 98]), apathy (HR, 0.79 [95% CI, 0.71-0.87]), visual hallucinations (HR, 0.76 [95% CI, 0.64-0.90]), ir
83 profile correlated strongly with ratings of visual hallucinations, implying that intrinsic brain act
89 ructural connectivity changes that accompany visual hallucinations in Parkinson's disease and the org
91 mographic and ophthalmological correlates of visual hallucinations in Parkinson's disease, the combin
93 connectome, and lead to the hypothesis that visual hallucinations in patients with COS may be becaus
94 of visual cortex may reduce the frequency of visual hallucinations in people with CBS, particularly i
95 onnet Syndrome (CBS), a phenomenon involving visual hallucinations in people with visual impairments.
96 ) funded a research programme to investigate visual hallucinations in the key and high burden areas o
97 topological and hodological neural basis of visual hallucinations integrating grey and white matter
99 al hallucinations measured by the North East Visual Hallucinations Interview, with a moderate-to-larg
101 ons, disinhibition, auditory hallucinations, visual hallucinations, irritability, personality change,
104 Transient monocular visual loss or complex visual hallucinations may lead to neuroanatomic ambiguit
105 a significant reduction in the frequency of visual hallucinations measured by the North East Visual
108 than those with no Lewy body disease to have visual hallucinations of misperception, peripheral hallu
109 where loss of vision leads to complex, vivid visual hallucinations of objects, people, and whole scen
110 ent, migraine coma, Charles Bonnet syndrome (visual hallucinations of the blind), schizophrenia, hall
111 rs for early progression to dementia include visual hallucinations, older age and biomarker changes s
112 ented due to homonymous visual disturbances, visual hallucinations or incidental homonymous visual fi
113 r there is a single underlying mechanism for visual hallucinations or they have different disease-dep
114 any drug (OR, 9.41; 95% CI, 5.26-16.85), and visual hallucinations (OR, 2.13; 95% CI, 1.10-4.13).
115 The milestones of dementia (P < 0.0005) and visual hallucinations (P = 0.02) as well as the accumula
116 ently presented with catatonia, auditory and visual hallucinations, paranoia, aggression, mood dysreg
117 ng cognitive impairment, attention deficits, visual hallucinations, parkinsonism, and other neuropsyc
118 ficits included a small visual field defect, visual hallucinations, prosopagnosia, topographical diso
119 ns in subjects with Parkinson's disease with visual hallucinations, relative to those without visual
120 2.1 [5.1] years; P = .03), had more frequent visual hallucinations that did not achieve significance
121 ommon and sometimes curious, if not bizarre, visual hallucinations, the forms of which suggest that e
122 these spontaneous fluctuations can subserve visual hallucinations, the functional MRI brain activity
123 to both fMRI and iEEG, induced a topographic visual hallucination: the patient described seeing indoo
124 cking of this oscillation is correlated with visual hallucinations, thought disorder, and disorganiza
125 significant and consistent risk factors for visual hallucinations, together with new evidence to sug
126 The Charles Bonnet syndrome is a disorder of visual hallucinations typically occurring in older perso
129 recuneus, and anterior cingulate metabolism; visual hallucinations (VH) with bilateral dorsolateral-f
131 ht into the pathophysiological mechanisms of visual hallucinations (VHs) in patients with Parkinson d
134 in neuropathological correlate of persistent visual hallucinations was the presence of less severe ta
135 bodies, which is hypothesized to account for visual hallucinations, we found connectivity with this r
136 dality of the hallucination: lesions causing visual hallucinations were connected to the lateral geni
138 ies and Alzheimer's disease for auditory and visual hallucinations were especially pronounced for pat
139 ligible patients admitting to having complex visual hallucinations were interviewed to explore the ch
141 n model the four independent determinants of visual hallucinations were rapid eye movement sleep beha
142 erential diagnosis, depicting other forms of visual hallucination which result from a variety of non-