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1 with progression of WMH burden (a marker of small vessel disease).
2 , which belongs to the continuum of cerebral small vessel disease.
3 whole brain atrophy in symptomatic cerebral small vessel disease.
4 finding appears to be related to underlying small vessel disease.
5 ibutions to quality of life in patients with small vessel disease.
6 ld identify a homogeneous subpopulation with small vessel disease.
7 ebrovascular diseases secondary to large and small vessel disease.
8 bnormalities, resemble symptoms and signs of small vessel disease.
9 function over time in patients with cerebral small vessel disease.
10 EPVS) are a promising neuroimaging marker of small vessel disease.
11 rns of brain injury supported both large and small vessel disease.
12 ascular risk factors known to cause sporadic small vessel disease.
13 sation of the arterial pathology in cerebral small vessel disease.
14 ew target for prevention of ICH and cerebral small vessel disease.
15 betaine, and carnitine) are associated with small vessel disease.
16 ding of the biological mechanisms underlying small vessel disease.
17 e and the severity of the underlying chronic small vessel disease.
18 een considered a major mechanism of cerebral small vessel disease.
19 e of an underlying cause other than cerebral small vessel disease.
20 future disease severity and dementia risk in small vessel disease.
21 ine protease implicated in familial forms of small vessel disease.
22 sion is the leading risk factor for cerebral small vessel disease.
23 , DM was associated with increased large and small vessel disease.
24 PD without neocortical Lewy bodies, ADNC, or small vessel disease.
25 -decrease' pattern in patients with cerebral small vessel disease.
26 ge for verbal memory performance in cerebral small vessel disease.
27 g 2109 patients, 1234 (59%) were treated for small vessel disease.
28 f older persons for gene-mapping of cerebral small vessel disease.
29 percutaneous coronary revascularization for small vessel disease.
30 improve risk prediction for individuals with small vessel disease.
31 ith lacunar infarct (LI), a type of cerebral small vessel disease.
32 (MRI) are a neuroimaging marker of cerebral small vessel disease.
33 r spaces may reflect the underlying cerebral small vessel disease.
34 d venular diameter, and markers for cerebral small vessel disease.
35 dase pathway in the pathogenesis of cerebral small vessel disease.
36 neuroimaging and genetic markers of cerebral small vessel disease.
37 Disease-type disease rather than to cerebral small vessel disease.
38 shown mixed results, with a major benefit in small-vessel disease.
39 resting-state CBF is a marker of CMB-related small-vessel disease.
40 other magnetic resonance imaging markers of small-vessel disease.
41 bal brain atrophy and an increased burden of small-vessel disease.
42 arge-vessel and cardioembolic stroke but not small-vessel disease.
43 the brain are important markers of aging and small-vessel disease.
44 ent type of stroke caused mainly by cerebral small-vessel disease.
45 ied a COL4A1 mutation in a human family with small-vessel disease.
46 tify CTEPH patients with significant distal, small-vessel disease.
47 n the settings of vascular calcification and small-vessel disease.
48 l large-vessel disease compared with that of small-vessel disease.
49 inding and may be a useful endophenotype for small vessel diseases.
51 7.2% versus 24.1+/-15.9%, P<0.0001; and mean small-vessel disease, 11.7+/-14.6 versus 14.1+/-8.7, P=0
52 coma is associated with evidence of cerebral small vessel disease; 2) that imaging biomarkers of cere
55 erintensities on MRI are markers of cerebral small vessel disease, a major risk factor for dementia a
57 n midlife was associated with development of small vessel disease (adjusted odds ratio [OR] = 1.47 [9
58 for precisely how amyloid-beta and cerebral small vessel disease affect cognitive impairment remain
59 rly during sleep, and in the pathogenesis of small vessel disease, Alzheimer disease and other neurod
61 amyloid angiopathy is a common, well-defined small vessel disease and a largely untreatable cause of
65 we scored the severity of arteriolosclerotic small vessel disease and cerebral amyloid angiopathy, an
66 to strongly correlate with other measures of small vessel disease and cognitive impairment at 1 year
67 investigations into the connections between small vessel disease and delayed seizures are warranted.
71 non-demyelinating disorders such as chronic small vessel disease and other inflammatory, granulomato
72 ho were APOEepsilon4 carriers, greater brain small vessel disease and poorer cognitive performance.
73 continuum between genes underlying Mendelian small vessel disease and those contributing to the commo
74 ear if and how associations between cerebral small-vessel disease and Alzheimer disease (AD) patholog
75 ebral amyloid angiopathy is a common form of small-vessel disease and an important risk factor for co
76 CADASIL and their mechanistic connection to small-vessel disease and GOM accumulation remain enigmat
77 luable technique for assessing the degree of small-vessel disease and postoperative outcome after PEA
78 artery atherosclerosis, cardioembolism, and small vessel disease, and defined shared genetic influen
79 , hypertension, lacunar stroke and ischaemic small vessel disease, and have generated interest as a m
80 validated mutations that cause porencephaly, small vessel disease, and hereditary angiopathy, nephrop
81 sights into the longitudinal pathogenesis of small vessel disease, and imply that therapies aimed at
82 erivascular spaces are a feature of cerebral small vessel disease, and it has been hypothesized that
83 abetes, dyslipidemia, smoking, infarcts from small-vessel disease, and "other definite" causes and wo
84 neuroimaging and genetic markers of cerebral small vessel disease: APOE variants epsilon2/epsilon4, c
85 ion, white matter microstructural changes in small vessel disease are associated with apathy but not
86 Y ON THIS ARTICLE: Amyloid-beta and cerebral small vessel disease are the two major causes of cogniti
88 atter lesions (WMLs)-an imaging surrogate of small vessel disease-are associated with a higher rate o
89 mportance of features like brain atrophy and small vessel disease, as opposed to chronological age al
90 id angiopathy (CAA) is an important cerebral small vessel disease associated with brain haemorrhage a
91 pathy and depression can be distinguished in small vessel disease both in terms of their relative rel
92 dentification of genetic variants underlying small vessel disease, both common variants and those wit
93 uent measurements of MRI markers of cerebral small vessel disease, brain tissue volumes, and white ma
94 98, 95% CI = 0.97 to 0.999), and lower total small vessel disease burden (OR = 0.98, 95% CI = 0.96 to
97 ovascular reactivity in people with sporadic small vessel disease but did result in differential trea
98 evelopment of vascular dementia and cerebral small vessel disease but not between atherosclerosis and
99 e considered for the prevention of ischaemic small vessel disease but the net benefit of such an appr
100 bidities, cognition, hippocampal volume, and small-vessel disease but not on gait speed (0.85 vs 0.92
101 e potential neuroimaging markers of cerebral small vessel disease, but their functional significance
102 posite MRI-derived phenotype for extremes of small vessel disease can facilitate the identification o
103 ysis, we applied the ASCOD (atherosclerosis, small vessel disease, cardiac pathology, other causes, a
105 core features of CADASIL, a common cerebral small vessel disease caused by highly stereotyped domina
107 CADASIL is a genetic paradigm of cerebral small vessel disease caused by NOTCH3 mutations that ste
108 e severity of structural vascular pathology (small vessel disease, cerebral amyloid angiopathy or VWF
109 d with conditions such as vascular dementia, small vessel disease, cerebral amyloid angiopathy, and A
111 pathy (CAA) is a common age related cerebral small vessel disease, characterised by progressive depos
112 l amyloid angiopathy (CAA) is an age-related small vessel disease, characterised pathologically by pr
113 with ischemic stroke attributed to large- or small-vessel disease, CHF and LAE were associated with a
114 patients, 33% of stroke was due to cerebral small vessel disease compared with 14% in the white stro
116 heterozygous HTRA1 mutation-related cerebral small vessel disease (CSVD) are the two types of dominan
117 lic fatty liver disease (NAFLD) and cerebral small vessel disease (CSVD) burden, especially according
125 pression hypothesis postulates that cerebral small vessel disease (CSVD) leads to depressive symptoms
126 port a Col4a1 mutant mouse model of cerebral small vessel disease (cSVD) with age-dependent defects i
127 etween gut dysbiosis and markers of cerebral small vessel disease (cSVD), a major contributor to ADRD
137 splay brain pathology that typifies cerebral small vessel diseases (cSVDs), including white matter hy
139 nal study, TMAO was associated with cerebral small vessel disease determined by WMHV and acute lacuna
140 us early and late manifestations of cerebral small vessel disease (eg, microbleeds and white matter h
141 to detect novel genetic factors for cerebral small vessel disease, elucidating underlying disease mec
142 appears aggravated in patients with cerebral small-vessel disease, especially in apolipoprotein E eps
143 nt membrane and COL4A1 mutations cause adult small vessel disease, familial porencephaly and heredita
144 cts of cerebrovascular disease, particularly small vessel disease, from those of Alzheimer's disease
146 alent CMBs, and markers of cerebral ischemic small-vessel disease, heavy alcohol consumption (vs ligh
147 imaging markers of the severity and type of small-vessel disease (hypertensive arteriopathy or cereb
148 Early life factors are associated with worse small vessel disease in later life, independent of each
149 ut suggest that an excess burden of cerebral small vessel disease in multiple sclerosis may explain t
150 kely harbor a more advanced form of cerebral small vessel disease in need of efficacious therapeutic
151 ease; 2) that imaging biomarkers of cerebral small vessel disease in POAG and NTG will show different
153 is Review, we examine the roles of large and small vessel disease in VCID, considering the underlying
155 sought to assess the presence and degree of small-vessel disease in patients with chronic thromboemb
157 gnitive impairment, and other MRI markers of small vessel disease, in a patient cohort of ischaemic s
158 and to magnetic resonance imaging markers of small-vessel disease including increased white matter hy
159 nce of magnetic resonance imaging markers of small vessel disease, including cerebral microbleeds and
162 1q22 as a susceptibility locus for cerebral small vessel diseases, including non-lobar intracerebral
163 FOXF2 in ECs, a major risk gene for cerebral small vessel disease, induced key features of BBB dysfun
171 cally atherosclerosis, is lower and cerebral small vessel disease is higher in multiple sclerosis cas
175 suggest that apathy, but not depression, in small vessel disease is related to damage to cortical-su
176 tween systemic vascular disease and cerebral small vessel disease is stronger in patients with multip
180 of frontal-subcortical circuits by cerebral small-vessel disease is thought to predispose to depress
182 antineutrophil cytoplasmic antibody-positive small vessel diseases, is largely restricted to case rep
183 lopathy (CADASIL), the most common inherited small-vessel disease, is associated with vascular aggreg
184 thy (CARASIL), an inherited form of cerebral small vessel disease leading to early-onset stroke and p
186 sphingolipids were associated with increased small vessel disease load as evidenced by higher white m
187 tinct histopathological variants of cerebral small vessel disease (lobar for cerebral amyloid angiopa
188 have become appealing for treatment of ISR, small-vessel disease, long lesions, simplification of bi
192 we hypothesized that CSF markers related to small vessel disease may also be applicable as biomarker
193 pril 28, 2022, 75 participants with sporadic small vessel disease (mean age 64.9 years [SD 9.9]) and
194 en study drugs in participants with sporadic small vessel disease (mean change in CVR 1.8 x 10(-4)%/m
195 on testing for acquired causes, on excluding small vessel disease mimics, and detailed advice on meta
196 patients with stroke attributed to large- or small-vessel disease, monitoring with an ICM compared wi
199 nes known to harbour mutations for Mendelian small vessel disease: NOTCH3, HTRA1, COL4A1, COL4A2 and
203 predict concurrent beta-amyloid deposition, small vessel disease or Alzheimer's disease-pattern neur
205 e lowest in cortex from patients with severe small vessel disease or cerebral amyloid angiopathy, nei
206 se (i.e. atherosclerosis) and/or of cerebral small vessel disease or worse multiple sclerosis patholo
208 ouse models of Alzheimer's disease, cerebral small vessel disease, or Piezo1 gain-of-function mutatio
209 rs than the large artery disease (p<0.0001), small vessel disease (p=0.001), and cardioembolic (p=0.0
212 with SVS, we assessed its influence on other small vessel disease phenotypes, as well as on messenger
214 shift and premature stop codons, can lead to small-vessel disease phenotypes of variable severity or
215 ation, and their potential role in promoting small-vessel disease, progress in the development of the
216 bnormal vascular development, which triggers small-vessel disease, recurrent hemorrhagic strokes, and
217 n candidate gene studies with other cerebral small vessel disease-related traits strengthens the cred
219 thrombotic material or coexistent intrinsic small-vessel disease, remains a major determinant of poo
221 nd pons was used to obtain a global cerebral small vessel disease score that captured the presence an
222 corporated into a prespecified ordinal total small vessel disease score, ranging from 0 to 6 points.
224 us on systemic vascular disease and cerebral small vessel disease scores and, in the multiple scleros
226 ischaemic and haemorrhagic manifestations of small vessel disease [small vessel stroke: 11 710 cases,
227 l changes, including MRI markers of cerebral small vessel disease, smaller brain tissue volumes, and
228 e gave a higher estimate of the frequency of small vessel disease stroke, particularly in white patie
230 es of intracerebral haemorrhage and cerebral small vessel diseases (such as cerebral microbleeds) are
236 atility is strongly associated with cerebral small vessel disease (SVD) and may be increased by lower
237 led 23 patients with MS and 11 patients with small vessel disease (SVD) and performed standardized 3-
238 t evidence suggests that various features of small vessel disease (SVD) are part of and covertly modi
241 dy was undertaken to assess whether cerebral small vessel disease (SVD) computed tomographic (CT) bio
242 tients with late-onset AD have more comorbid small vessel disease (SVD) contributing to clinical seve
244 ollected risk factors, RSSI characteristics, small vessel disease (SVD) features, and microstructural
257 to assess whether and how single markers of small vessel disease (SVD) or a combination thereof expl
259 with loss of microvascular function, termed small vessel disease (SVD) underlying different potentia
260 arterioles (PAs), a major target of cerebral small vessel disease (SVD), and determined whether relax
261 ct future dementia risk not only in cerebral small vessel disease (SVD), but also in mild cognitive i
262 aneous intracerebral hemorrhage (ICH) due to small vessel disease (SVD), but the association between
263 Age-related microangiopathy, also known as small vessel disease (SVD), causes damage to the brain,
264 ost common brain-imaging feature of cerebral small vessel disease (SVD), hypertension being the main
265 clerosis, cerebral amyloid angiopathy, mixed small vessel disease (SVD), other rare forms of SVD (gen
266 is a neurological syndrome characterized by small vessel disease (SVD), stroke, and vascular cogniti
267 association is possibly mediated by cerebral small vessel disease (SVD), which has been associated wi
268 lacunar strokes are associated with cerebral small vessel disease (SVD), which is the commonest vascu
279 leukoencephalopathy (CADASIL) is a cerebral small vessel disease that results from mutations in NOTC
280 wever, deep ICHs are rare in some aggressive small vessel diseases that are characterized by signific
281 WMHs) are a common manifestation of cerebral small vessel disease, that is increasingly studied with
282 have an impact in diseases such as cerebral small vessel disease, the leading cause of vascular deme
283 oke and is a major manifestation of cerebral small vessel disease, the primary cause of vascular cogn
284 ith the hypothesis that PVS reflect cerebral small vessel disease; the different associations for bas
286 mes throughout 5 years between patients with small vessel disease treated with ultrathin-strut BP-SES
289 Eighty-two patients with MRI evidence of small vessel disease were assessed using a behavioural p
290 ee participants (50-85 yr old) with cerebral small vessel disease were included and followed for 9 ye
291 y, percentage of fibrosis, and percentage of small-vessel disease were correlated with the genotype.
293 al microbleeds and other markers of cerebral small vessel disease (white matter hyperintensities [WMH
294 hy and magnetic resonance imaging markers of small vessel disease (white matter hyperintensities or l
295 dinal cohort of 99 subjects with symptomatic small vessel disease, who were followed-up for >/=1 year
297 re the most acute manifestations of cerebral small vessel disease, with no established preventive app
298 y volume (WMHV) on MRI, a marker of cerebral small vessel disease, with subsequent longitudinal chang
300 had an index stroke attributed to large- or small-vessel disease within 10 days prior to insertable