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1 2% of zOTUs in saliva; 2.5% to 38% in dental plaque).
2 atite deposition in atherosclerotic coronary plaque.
3 d carotid intima-media thickness and carotid plaque.
4 d with a reduced progression of noncalcified plaque.
5  on saliva and supragingival and subgingival plaque.
6 aque rupture, intraplaque cavity, or layered plaque.
7 gue dorsum, buccal mucosa, and supragingival plaque.
8 litus mainly led to an increase in calcified plaque.
9 region continued to significantly accumulate plaques.
10 ue Tregs is a common signature of regressing plaques.
11 ith AD significantly dissociated hippocampal plaques.
12 inium (Gd) imaging agent, for MRI of amyloid plaques.
13 on for the acute stabilization of late-stage plaques.
14  process of T cell homing to atherosclerotic plaques.
15 c-3-positive macrophage-rich atherosclerotic plaques.
16 e levels for in vivo imaging of beta amyloid plaques.
17 ics than the parental virus and forms larger plaques.
18 erogeneity of macrophages in atherosclerotic plaques.
19 present in tissues including atherosclerotic plaques.
20 matory macrophages and human atherosclerotic plaques.
21  coexist as neurotoxic heteromers within the plaques.
22 g ligand with high affinity for amyloid-beta plaques.
23  enterovirus infect cells in atherosclerotic plaques.
24 e to an atherogenic diet to develop advanced plaques.
25 xposure, presence of asbestosis, and pleural plaques.
26 tify substrates that are cleaved in ruptured plaques.
27 europathy tended to be higher with the 15-mm plaque (2% vs. 9%; P = 0.054).
28 er's disease pathological hallmarks: amyloid plaques (A), phosphorylated tau (T), and accompanying ne
29  the close relationship between vascular and plaque Abeta deposition, several factors favour one or t
30                                              Plaque abundance was elevated in PS2APP;Trem2(ko) female
31            On day 21, at the time of maximum plaque accumulation, the GI of the APE test group was a
32 ure (17 patients with irregular or ulcerated plaque and 27 with smooth plaque; P = .54).
33  increased progression of calcified coronary plaque and a reduced progression of noncalcified coronar
34 t rPEDV-D350A formed a significantly smaller plaque and had significant defects in viral protein synt
35 al dissection, non-calcified atherosclerotic plaque and intraluminal thrombus.
36                            Removal of dental plaque and local application of local chemical adjuncts,
37 o exhibited more dendritic spine loss around plaque and more neurofilament light chain in CSF.
38 h increased prevalence of high-risk coronary plaque and risk of cardiovascular events.
39 mmatory response may precede insoluble Abeta plaque and tau tangle formation.
40        For AD-related pathologies of amyloid plaques and Braak stage, e2 had large and highly signifi
41 er and provides excellent contrast for Abeta plaques and cerebral amyloid angiopathy.
42 ear pores in mammalian cells to amyloid-beta plaques and dendrites in brain tissues and elastic fiber
43       The deposition of amyloid beta (Abeta) plaques and fibrils in the brain parenchyma is a hallmar
44 us in cell culture, but it displayed smaller plaques and impaired fitness in direct competition assay
45 marked by amyloid beta (Abeta) extracellular plaques and intracellular neurofibrillary tangles, const
46 with both extracellular amyloid-beta (Abeta) plaques and intracellular tau-containing neurofibrillary
47 mentia associated with deposition of amyloid plaques and neurofibrillary tangles, formed by amyloid b
48      The emergence of PET probes for amyloid plaques and neurofibrillary tangles, hallmarks of Alzhei
49 r's disease (AD) is characterized by amyloid plaques and progressive cerebral atrophy.
50     Non-invasively detecting atherosclerotic plaques and stenosis using NETs may lay a groundwork for
51 hanistic insight into the formation of PrPSc plaques and suggest that PrP posttranslational modificat
52 ntia long ago, but subsequently, Alzheimer's plaques and tangles have received more attention.
53  by the accumulation of amyloid-beta (Abeta) plaques and tau neurofibrillary tangles in the brain.
54 ligation to mimic vulnerable atherosclerotic plaques and their rupture leading to MI.
55 mplete 3D reconstructions of atherosclerotic plaques and uncovers their volume, geometry, acellular c
56 ples (saliva, supragingival, and subgingival plaque) and was correlated with AAA diameters and volume
57 liva, gingival crevicular fluid, subgingival plaque, and blood samples were obtained at the same time
58 ased carotid intima-media thickness, carotid plaque, and carotid stenosis increased consistently with
59 ased carotid intima-media thickness, carotid plaque, and carotid stenosis.
60 actin networks at the gap junction formation plaque, and the formation of F-actin patches plays a cri
61 (82.0%) were male, 1,315 (31.0%) had pleural plaques, and 1,353 (32.0%) had radiographic asbestosis.
62 copic features include linear furrows, white plaques, and concentric rings.
63  in VSMCs in human and mouse atherosclerotic plaques, and in human VSMCs derived from plaques or unde
64                                        These plaques are formed by aggregation of polypeptides that a
65 D) brain deposits of amyloid peptides called plaques are neither single pixels nor ROIs.
66                       However, rupture-prone plaques are often distinguished by their internal compos
67 ts that contribute to the formation of Abeta plaques are well addressed at the intra- and intercellul
68 POKO mice had significantly decreased aortic plaque area as compared with CKD-bMPOWT mice.
69 l-to-noise ratio in a fluorescent Dulbecco's plaque assay, leading to the construction of a multirepo
70                                Proteinaceous plaques associated with neurodegenerative diseases conta
71  PCSK6 upregulation in human atherosclerotic plaques associated with smooth muscle cells (SMCs), infl
72 rm large rafts of clustered channels, called plaques, at cell appositions.
73                          lEVs accumulated in plaque atherosclerotic lesions depending on the progress
74 ore, which describes the density of neuritic plaques based on certain key locations in the neocortex.
75                                     On a per-plaque basis, increasing age (beta=0.070; P=0.058) and h
76                                       Dental plaque biofilm is considered to be the underlying cause
77 iscs were inoculated with human peri-implant plaque biofilms and mechanical antimicrobial interventio
78 le interval, 4.0-5.7) years, low-attenuation plaque burden correlated weakly with cardiovascular risk
79                Patients with low-attenuation plaque burden greater than 4% were nearly 5 times more l
80  stenosis not intended for PCI but with IVUS plaque burden of >=65% were randomized to treatment of t
81  near-infrared spectroscopy-IVUS, the median plaque burden was 73.7%, the median MLA was 2.9 mm(2), a
82  of angiographically mild lesions with large plaque burden was safe, substantially enlarged the follo
83                              Low-attenuation plaque burden was the strongest predictor of myocardial
84                                              Plaque burden, not stenosis per se, is the main predicto
85 nformation about the bifurcation anatomy and plaque burden, thereby enabling planning, education, and
86 dence-based preventive therapies informed by plaque burden.
87  did not reduce the incidence of new carotid plaques but produced significantly greater regression of
88 1 plaque [interquartile range (IQR): -1 to 3 plaques] by 2DVUS; 7.6 mm(3) [IQR: -32.2 to 57.6 mm(3)]
89   Quartiles were calculated for noncalcified plaque, CAC, and average carotid wall volume and were co
90 steogenic phenotypes likely to contribute to plaque calcification and plaque destabilization.
91 -lesion type VI) nonstenosing carotid artery plaques (CAPs) in cryptogenic stroke (CS).
92 nd endothelial lineage tracing to survey all plaque cell types and rigorously determine their origin.
93                                         This plaque characterization approach is fully automated, rob
94 ons of CCTA based on hemodynamic indices and plaque characterization may provide personalized risk as
95 s, we developed an automated atherosclerotic plaque characterization method that used a hybrid learni
96  to be up-regulated in human atherosclerotic plaques compared with normal vessel.
97 reflecting calcification of the noncalcified plaque component.
98 sease (AD) is cerebral deposition of amyloid plaques composed of amyloid beta (Abeta) peptides and th
99 gically by presence of extracellular amyloid plaques composed of fibrillar amyloid beta (Abeta) pepti
100 investigations have focused on structure and plaque composition as signs of plaque vulnerability, but
101  was 2.9 mm(2), and the median maximum lipid plaque content was 33.4%.
102                                   Inadequate plaque control, peri-implant inflammation, history of pr
103                            However, studying plaque deposition and mineral composition in this spatia
104  mitochondrial Ca(2+) levels associated with plaque deposition and neuronal death in a transgenic mou
105                   We characterized fibrillar plaque deposition in 6, 12, and 18-22 months old APP/PS1
106 ies in patients with AD, indicate that Abeta plaque deposition precedes cortical tau pathology.
107                                      Amyloid plaque deposits in the brain are indicative of Alzheimer
108 ly to contribute to plaque calcification and plaque destabilization.
109 nation of the role of ROS in pathogenesis of plaque destabilization.
110 eterious effects of TWEAK on atherosclerotic plaque development and progression.
111 loid beta (Abeta) peptide-containing amyloid plaque development.
112 -associated proteins showed that mobility in plaque domains is affected by mobility of the Cx protein
113 stography (SWE) to detect vulnerable carotid plaques, evaluating group velocity and frequency-depende
114 and proteolytic fragments in mouse and human plaque extracts.
115  prognostic implications of adverse coronary plaque features, and sex differences.
116                                        These plaques form 10-20 years before AD symptom onset, wherea
117 ve been recognized as key factors in amyloid plaque formation and aggravation of AD.
118  mechanisms underlying early atherosclerotic plaque formation are not completely understood.
119 mutants showed no significant differences in plaque formation compared to wild-type bacteria.
120 pose-tissue inflammation and atherosclerotic plaque formation in a mouse model of obesity.
121  pathways may therapeutically reduce amyloid plaque formation in cerebral vessels and the brain paren
122 cellular survival in macrophages and reduced plaque formation in HeLa cells.
123 on and cell death, enabling studies of viral plaque formation with single-cell resolution.
124 mutant, XG4J, was not viable on the level of plaque formation without X174 J gene complementation.
125  that CXADR is induced in macrophages during plaque formation, suggesting a mechanism by which entero
126 tilation at one of two concentrations (~1010 plaque forming units/mL or ~1011 plaque forming units/mL
127 ions (~1010 plaque forming units/mL or ~1011 plaque forming units/mL).
128 96Q mice challenged with 2 subfibrillar, non-plaque-forming prion strains instead developed plaques h
129 ed trial (vaccine-placebo ratio, 2:1) at 106 plaque-forming units (PFU) in 15 RSV-seropositive childr
130 -24 months received 1 intranasal dose of 105 plaque-forming units (PFU) of LID/DeltaM2-2/1030s (n = 2
131 solvents to yield on average 23 mL of 10(11) plaque-forming units (PFUs) per milliliter for Pseudomon
132  6-24 months received 1 intranasal dose (105 plaque-forming units [PFUs] of D46/NS2/N/DeltaM2-2-HindI
133 hronous movement of the carotid atheromatous plaque from B-mode ultrasound has been previously report
134                         In total, 27 carotid plaques from 20 patients were scanned by ultrasound SWE
135                              Atherosclerotic plaques from HFD-treated KO mice showed increased infilt
136                                Supragingival plaque harbors hundreds of bacterial species, playing a
137 aque-forming prion strains instead developed plaques highly enriched in ADAM10-cleaved PrP and hepara
138  tauopathy) or moderate to frequent neuritic plaques (i.e. Alzheimer neuropathological change) at sub
139 mpairment at baseline and either no neuritic plaques (i.e. primary age-related tauopathy) or moderate
140 ective studies who underwent ASL and carotid plaque imaging with use of 3-T MRI in the same setting f
141 st material-enhanced MR angiography, carotid plaque imaging, and arterial spin labeling (ASL) to iden
142                Single-cell RNA-sequencing of plaque immune cells revealed that unlike Tregs from prog
143 d carotid intima-media thickness and carotid plaque in 2015 using a risk factors-based model by WHO r
144 robing (primary outcome) and lower levels of plaque in comparison with the control group after 24 mon
145 d suppression of clonal SMC expansion in the plaque in vivo.
146 structed a high-accuracy 3D-model of amyloid plaques in a fully automated fashion, employing rigid an
147 retase activity and the formation of amyloid plaques in a transgenic mouse model (5xFAD) of early amy
148                        Viruses forming large plaques in A56/K2 cells increased in successive rounds o
149 (Spearman rho = 0.15; P = .33), beta-amyloid plaques in cohort 1.
150    HSV-1 DNA has been detected in AD amyloid plaques in human brains, and treatment with the antivira
151 atial navigation and had significantly fewer plaques in M1 and SS2, but not in the PFC.
152  microglia enveloping NA-containing neuritic plaques in postmortem brains of patients with AD.
153 ing to the successful PET imaging of amyloid plaques in the brains of 5xFAD mice versus those of wild
154 eta(2)-microglobulin (beta(2)m) into amyloid plaques in the joints of long-term hemodialysis patients
155 ting in an impaired response to beta-amyloid plaques in vivo.
156 uptured versus stable areas of human carotid plaques, including many of the same functional categorie
157                         We propose that this plaque-independent inflammatory reaction originates from
158 bleeding on probing (BOP), and interproximal plaque index (API) were significantly improved in both g
159                     Probing depth (PD), CAL, plaque index (PI), and interproximal bone height were ev
160 eriodontal parameters were recorded: visible plaque index (VPI), gingival bleeding index (GBI), probi
161 achment loss [AL], marginal bone loss [MBL], plaque index [PI], and bleeding on probing [BOP] in sham
162                           Children with high plaque index and high DMFT values were more similar to e
163 of probing depth, soft tissue dehiscence and plaque index compared to non-augmented sites compared to
164  Several bacterial taxa associated with high plaque index or high DMFT were ethnic group-specific.
165 overall microbial community, compared to low plaque index or low DMFT groups in which inter-subject v
166 (Probing Pocket Depths, Bleeding On Probing, Plaque Index) and marginal bone loss were also recorded.
167                   Bleeding on probing (BOP), plaque index, and probing depth (PD) were confirmed reli
168 rticipants, clinical periodontal parameters (plaque index, gingival index, sulcus bleeding index, pro
169 Disturbed flow at atheroprone regions primes plaque inflammation by enhancing endothelial NF-kappaB s
170 /ApoE(-/-) mice showed increased features of plaque instability.
171 icant atherosclerosis progression (median: 1 plaque [interquartile range (IQR): -1 to 3 plaques] by 2
172 r nonperfusion, cotton-wool spots, Kyrieleis plaques, irregular venous caliber with dilated and scler
173 t the microglial packing of Abeta into dense plaque is an important neuroprotective activity.SIGNIFIC
174            Secondary caries caused by dental plaque is one of the major reasons for the high failure
175                 Amyloid-beta deposition into plaques is a pathologic hallmark of Alzheimer disease ap
176 tein fragment whose aggregation into amyloid plaques is linked with Alzheimer's disease.
177 EPRIEVE, and its substudy assessing coronary plaque, is to assess cardiovascular outcomes, the trial
178 derived from the thymus, Tregs in regressing plaques lacked Nrp1 expression, suggesting that they are
179  the test group (P <= 0.001) despite similar plaque levels (P = 0.436).
180 ;Trem2(ko) mice, notwithstanding the reduced plaque load at later ages.
181           We found a significant increase in plaque load between 6 and 12 months in all regions.
182 ent outcome of Trem2 deficiency than amyloid plaque load, suggesting that the microglial packing of A
183 suggest that implanting stents in lipid-rich plaque (LRP) may be associated with adverse outcomes.
184 w conditions on collagen and atherosclerotic plaque material, were attenuated by rivaroxaban.
185 sed removal of cerebral amyloid beta (Abeta) plaques may possibly clear tau tangles and modestly slow
186 characterize the healthy salivary and dental plaque microbiome in young children.
187 unities over time, we profiled supragingival plaque microbiomes of dizygotic and monozygotic twins du
188 tion, supporting the current knowledge about plaque morphology in the cerebellum and the fundamental
189 ve lesions more commonly harbored vulnerable plaque morphology than nonobstructive lesions.
190  SARS-CoV-2 (icSARS-CoV-2) exhibited similar plaque morphology, viral RNA profile, and replication ki
191 key proinflammatory cytokines and changes in plaque morphology.
192 d software was used to quantify noncalcified plaque (NCP), as well as its components.
193 liac, and femoral territories to determine a plaque number score; 3DVUS to quantify carotid and femor
194  alterations are observed around the amyloid plaques of Alzheimer's disease (AD), little is known abo
195                                              Plaques of APOA1 (tg/tg)/Apoe (-/-) mice fed F1394 showe
196 ion compared with littermate controls, while plaques of SM22alpha-hSIRT6(H133Y)/ApoE(-/-) mice showed
197 nd authors determined that parenchymal PrPSc plaques of the mouse brain preferentially incorporated u
198 an AD, and none of the cases showed neuritic plaques on any of the stains used.
199         Conclusions: The presence of pleural plaques on radiologic imaging does not confer additional
200 clades that distinctly associate with either plaque or tongue.
201 tic plaques, and in human VSMCs derived from plaques or undergoing replicative or palmitate-induced s
202  relation to the presence of generalized (>2 plaques) or incipient (0 to 2 plaques) subclinical ather
203 s. 2.8 mm) than those treated with the 15-mm plaque (P < 0.001).
204  a 2.6-fold increase in the odds of coronary plaque (P = .01), after controlling for traditional and
205 gular or ulcerated plaque and 27 with smooth plaque; P = .54).
206 e detrimental for late-stage atherosclerosis plaque pathogenesis.
207 d p-tau-181 were highly specific for amyloid plaque pathology in the discovery cohort (n = 36, AUROC
208 in metabolic wastes and amyloid-beta (Abeta) plaques, perivascular reactive astrogliosis, and misloca
209 ble-deficient mice displayed a more unstable plaque phenotype characterized by an increased lipid and
210         Polymicrobial interactions in dental plaque play a significant role in dysbiosis and homeosta
211 y cilia, caveolae, clathrin-coated pits, and plaques play additional key roles.
212 % at 10 years; P = 0.31) and associated with plaque positioning (hazard ratio [HR], 2.81 for no safet
213 reduced progression of noncalcified coronary plaque, potentially reflecting calcification of the nonc
214 ciated protein tau (p-tau) and extracellular plaques primarily comprising amyloid- beta (Abeta) pepti
215 substudy (n=40), the rate of atherosclerotic plaque progression was compared from before to after the
216 iable risk factor predictive of noncalcified plaque progression, diabetes mellitus mainly led to an i
217 s an independent determinant of noncalcified plaque progression, statin use (beta=-2.178; P=0.050) wa
218 to sustain generations of macrophages during plaque progression.
219 onsignificantly associated with annual total plaque progression.
220                                        The 2 plaques provided a safety margin in 43% versus 40% eyes,
221 cohort study including patients with chronic plaque psoriasis (n = 6501) being treated with biologic
222 hibitor, in patients with moderate-to-severe plaque psoriasis (NCT02969018).
223 s first line treatment of moderate-to-severe plaque psoriasis and psoriatic arthritis, and further ag
224 700841 improves clinical symptoms of chronic plaque psoriasis by inhibition of proinflammatory cytoki
225       The most rapid advancements addressing plaque psoriasis have been in its pathogenesis, genetics
226 lind trial, we randomly assigned adults with plaque psoriasis in a 1:1:1 ratio to use roflumilast 0.3
227 lacebo and Ustekinumab in Moderate to Severe Plaque Psoriasis in Subjects]) participated in a mechani
228 rapeutic advancements for moderate to severe plaque psoriasis include biologics that inhibit TNF-alph
229                                              Plaque psoriasis is the most common variant of psoriasis
230 atment With Brodalumab in Moderate to Severe Plaque Psoriasis Subjects], -2 [P3 Study Brodalumab in T
231       Trial of roflumilast cream for chronic plaque psoriasis.
232 rodalumab in Treatment of Moderate to Severe Plaque Psoriasis], and -3 [Efficacy and Safety of Brodal
233  transpupillary thermotherapy (0% vs. 0.4%), plaque radiotherapy (7.0% vs. 5.2%), external beam radio
234 live SARS-CoV-2 neutralisation assays (a 50% plaque reduction neutralisation assay [PRNT(50)]; a micr
235 ology test requires confirmation by either a plaque reduction neutralization test or detection of ser
236 ng antibodies were also measured by in vitro plaque reduction neutralization, the gold standard metho
237 t specimens and yields comparable results to plaque reduction neutralizing assay, the gold standard o
238 ficant correlation with titres determined by plaque reduction with infectious LASV.
239 ), and immunogenic (geometric mean serum RSV plaque-reduction neutralizing antibody titer, 1:64).
240                           The PREMIER trial (Plaque Regression and Progenitor Cell Mobilization With
241 solution of atherosclerotic inflammation and plaque regression, Tregs were depleted using CD25 monocl
242 nalyses revealed that Treg depletion blocked plaque remodeling and contraction, and impaired hallmark
243 followed by repeated bi-weekly supragingival plaque removal and chlorhexidine chips application (ChxC
244 reatment protocol of bi-weekly supragingival plaque removal and local application of chlorhexidine ch
245 mm as compared with bi-weekly supra-gingival plaque removal.
246 lso inversely associated with total coronary plaque (rho = -0.19; P = .02) and noncalcified coronary
247  = -0.19; P = .02) and noncalcified coronary plaque (rho = -0.24; P = .004).
248 enicity, symptomaticity, stenosis degree and plaque risk, respectively.
249 al pathways through which proteolysis causes plaque rupture and identify substrates that are cleaved
250 proaches in mouse models of protease-induced plaque rupture and in ruptured human plaques, we aimed t
251 r, the molecular mechanisms that precipitate plaque rupture are unknown.
252                                              Plaque rupture is the proximate cause of most myocardial
253 6.2% (67/145) of participants, most commonly plaque rupture, intraplaque cavity, or layered plaque.
254  thrombus formation stage on atherosclerotic plaque rupture, we hypothesized that factor V Leiden may
255                                  Subgingival plaque samples and gingival biopsies were collected from
256  assemble metagenomes from tongue and dental plaque samples from multiple individuals and reconstruct
257  with the presence of EBV in coronary artery plaque samples in the current study.
258                       Up to four subgingival plaque samples per person, each obtained from the mesio-
259                          Salivary and dental plaque samples were collected from the children at 3 tim
260          The combination of degraded TBS and plaque score >=80% increased the adjusted OR to 5.71 (95
261 ilar clinical findings except for the higher plaque scores in the non-smokers at 6 months (P <0.01).
262 alis displayed significant correlations with plaque scores, bleeding on probing, and RF-IgA.
263 y an increased lipid and macrophage content, plaque size, and pro-inflammatory cytokine expression.
264 gh MC021-HA expression did not fully restore plaque size, vMC021L-HA produced amounts of EV similar t
265 or basement-membrane proteins in maintaining plaque stability.
266 well as the mechanisms by which they control plaque stability.
267 eneralized (>2 plaques) or incipient (0 to 2 plaques) subclinical atherosclerosis in 2 independent cl
268 oss is a prominent feature of ruptured human plaques, suggesting a major role for basement-membrane p
269 H and 32 patients without IPH; P = .31), and plaque surface structure (17 patients with irregular or
270  vulnerable patient, not just the vulnerable plaque, takes into account the diversity and future risk
271 ll volume (Kendall tau = 0.29), noncalcified plaque (tau = 0.16), and CAC (tau = 0.33).
272  revealed that unlike Tregs from progressing plaques that expressed markers of natural Tregs derived
273 ar at week 6 (assessed on a 5-point scale of plaque thickening, scaling, and erythema; a score of 0 i
274                                          The plaque-to-healthy vessel wall ratio of (68)Ga-FOL was si
275 gression, we demonstrate that an increase in plaque Tregs is a common signature of regressing plaques
276 ld recoil varied according to the underlying plaque type (lipid: 0.63+/-1.23 mm(2); calcified: 0.81+/
277  MSI image registration using structured and plaque-unrelated reference ion images.
278 line microbiota were measured in subgingival plaque using 16S rRNA sequencing.
279 , inflamed lung regions, and atherosclerotic plaques using a clinical PET/magnetic resonance imaging
280 sma levels positively correlated with global plaque volume and coronary calcification.
281 ficacy end point, percentage change in total plaque volume at 90 days by intravascular ultrasound, on
282 udy, the rate of progression of total aortic plaque volume was >3-fold higher with ICIs (from 2.1%/y
283 score; 3DVUS to quantify carotid and femoral plaque volume; and coronary artery calcium score (CACS)
284 IP expression was reduced in human and mouse plaque VSMCs and by palmitate in a p38- and c-Jun N-term
285 ein expression is reduced in human and mouse plaque VSMCs and is positively regulated by CHIP.
286 structure and plaque composition as signs of plaque vulnerability, but few studies have analyzed hemo
287 ent phase velocities as novel biomarkers for plaque vulnerability.
288      An increased risk of noncalcified/mixed plaque was only found in patients exposed to abacavir.
289                 Microglial clustering around plaques was impaired, plaques were more diffuse, and the
290  less activated (P = 0.07) and the number of plaques was reduced in the cortex (P = 0.03) following N
291 induced plaque rupture and in ruptured human plaques, we aimed to illuminate biochemical pathways thr
292 gival crevicular fluid (GCF) and subgingival plaque were collected and clinical periodontal parameter
293             Melanomas treated with the 10-mm plaque were smaller (median thickness, 1.9 mm vs. 2.6 mm
294 lial clustering around plaques was impaired, plaques were more diffuse, and the Abeta42:Abeta40 ratio
295 n 3D, a substantially larger number of small plaques were observed than that indicated by the 2D-MSI
296 glia exclusively surrounded NA+ amyloid beta plaques, which accumulated in an age-dependent manner.
297 f these species are commonly found in dental plaque, while N. meningitidis is primarily found in the
298 ted neuropathology, characterized by amyloid plaques with amyloid beta (Abeta) and neurofibrillary ta
299  microcalcification is a feature of coronary plaques with an increased propensity to rupture and to c
300 fibrils accumulate at the exterior of senile plaques, yet the protofibril-fibril interplay is not wel

 
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