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 is increase is further elevated by cigarette smoking.
2 e a biomarker for fetal exposure to maternal smoking.
3 , particularly in combination with cigarette smoking.
4 5) after adjustment for gender, age, BMI and smoking.
5 eages, and define cell-specific responses to smoking.
6 might influence lung function via effects on smoking.
7 ts (45.2%) reported a pre-surgery history of smoking.
8 ith or without airflow obstruction is active smoking.
9 smoking status, and pack-years of cigarette smoking.
10 ing, and 16 also had information on paternal smoking.
11 phenotype that expands genetic knowledge of smoking.
12 lar to and disparate from those of cigarette smoking.
13 ed almost all of the excess mortality due to smoking.
14 for all confounding factors such as maternal smoking.
15 diseases, especially physical inactivity and smoking.
16 risk factors (odds ratio(PRS+family history+smoking), 1.24 [95% CI, 1.14-1.35]; P(PRS)=1.27x10(-6)).
17 e obese, 8.7% had depression, 19.5% reported smoking, 16.1% reported drug use, and 10.9% reported har
20 king and high-risk oral HPV: odds ratios for smoking 3.46 (95% confidence interval [CI], 1.01-11.94)
21 oconus was associated with regular cigarette smoking (38.5% vs. 14.6%; P = 0.04), but showed no assoc
25 io, 2.96; 95% CI, 2.00 to 4.40), and current smoking (9.4%, vs. 5.6% among former smokers or nonsmoke
28 ing during pregnancy, and some start to quit smoking after being pregnant, although existing guidelin
29 2.757 [1.616-4.704], p < 0.001) and tobacco smoking (aHR = 2.150 [1.319-3.503], p < 0.01) were posit
31 ly focused on deterrent health factors, like smoking, alcohol intake, cheese consumption and average
32 also examined DNA methylation predictors of smoking, alcohol, body mass index, serum proteins, and c
33 for age, race/ethnicity, education, income, smoking, alcohol, menopausal hormone therapy, and hyster
36 ung cancer and there is strong evidence that smoking also increases the risk of several other cancers
39 in support of a causal relationship between smoking and alcohol consumption and 19 site-specific can
41 udy identifies distinct associations between smoking and brain structure, highlighting potential mech
43 to examine the association of the timing of smoking and doses of smoking before pregnancy and during
44 3 mortality clocks up to 5 years, driven by smoking and elevated levels of 6 age-associated proteins
48 positively modified the association between smoking and high-risk oral HPV: odds ratios for smoking
49 sed risk of ADA development, whereas tobacco smoking and infections during the study were associated
50 rt the well-established relationship between smoking and lung cancer and suggest that smoking may als
51 This correlated with significantly higher smoking and male smokeless tobacco use in most Appalachi
52 that has been associated with both cigarette smoking and mortality.Objectives: We sought to identify
53 ers with current smokers by age they started smoking and number of cigarettes smoked per day and with
54 after adjustment for deprivation, ethnicity, smoking and obesity: adjusted HR 2.59 (95% CI 1.74-3.84;
56 ssociation between genetic predisposition to smoking and prostate cancer in the Prostate Cancer Assoc
57 nal silica exposure and the joint effects of smoking and silica exposure on lung cancer risks.Methods
59 he relationship between in utero exposure to smoking and the heightened risks for the subsequent deve
62 hods of measuring injunctive and descriptive smoking and vaping norms: (1) incentivized experiments,
63 All 28 cohorts had information on maternal smoking, and 16 also had information on paternal smoking
64 ts, built environment, green spaces, tobacco smoking, and biomarkers of chemical pollutants (persiste
70 iations with sociodemographic, reproductive, smoking, and housing characteristics over a 40-y period.
75 hat were significant for both Cd and current smoking (annotated to PRSS23, AHRR, F2RL3, RARA, and 2q3
76 diabetes (aOR 3.1; 95% CI: 1.7-5.8), current smoking (aOR 3.1; 95% CI: 2.2-4.4) and prolonged history
77 cohol (ALDH2, APOA5, APOC3, CETP, LPL), gene-smoking (APOC3, CYBA, LPL, USF1), gene-pregnancy (LPL),
81 s) for lung cancer incidence by sex, tobacco smoking, asbestos exposure, presence of asbestosis, and
82 first investigated the causal effects of 474 smoking-associated CpGs on forced expiratory volume in 1
85 med to provide a comprehensive assessment of smoking-associated gene expression changes in healthy pa
86 We find that most of the highly reproducible smoking-associated hypomethylation signatures are more p
89 iation of the timing of smoking and doses of smoking before pregnancy and during the first or second
93 independently replicated the association of smoking behavior with CAD (OR 1.24, 95% CI: 1.12-1.37, P
95 ith (self-reported and objectively measured) smoking behavior/intentions were inspected in another st
98 per standard deviation increase in lifetime smoking behaviour) and an independent causal effect of a
105 cant benefits of medication on likelihood of smoking cessation in 2 trials of bupropion at 26 weeks (
106 sk population and to determine the effect of smoking cessation in this genotype.Methods: We prospecti
109 SZ registry data to determine the effect of smoking cessation on spirometry decline (n = 60) and pla
110 ful in promoting healthier behaviors such as smoking cessation or in aiding persons with a family his
112 een behavioral interventions and controls in smoking cessation when trials were restricted to smokers
113 terventions such as lowering blood pressure, smoking cessation, and lifestyle optimisation are common
114 Smoking behaviors, including amount smoked, smoking cessation, and tobacco-related diseases, are alt
121 al cancer (LC) patients who meet the age and smoking criteria of the U.S. Preventive Services Task Fo
124 ociation study of urine Cd and self-reported smoking (current and former vs. never, and cumulative sm
125 of deaths among smokers are avoidable at non-smoking death rates, and former smokers have about only
127 al regression models adjusted for age, race, smoking, diet, alcohol, physical activity, menopausal ho
129 A1) were measured in human LFs isolated from smoking donors, in mouse primary LFs exposed to nicotine
130 current and former vs. never, and cumulative smoking dose) with blood DNAm in 790,026 CpGs (methylati
131 hermore, we studied interactions of PRS with smoking during pregnancy and childhood life events in re
132 al weight gain, diet, physical activity, and smoking during pregnancy to create a lifestyle score ran
133 he women who smoke before pregnancy continue smoking during pregnancy, and some start to quit smoking
134 entury hazards reveal that smokers who start smoking early in adult life and do not quit lose a decad
136 king EWAS results in blood, to identify DNAm smoking effects that are unique (tissue-specific) vs. sh
137 e extended our NAc findings, using published smoking EWAS results in blood, to identify DNAm smoking
139 sequencing (RNA-seq) on prenatal (N = 33; 16 smoking-exposed) as well as adult (N = 207; 57 active sm
144 position, BMI, physical activity level, and smoking habit, as well as when participants without card
145 aimed to investigate the association between smoking habits (focusing on the age when smokers started
146 sceptible to COVID-19 given their older age, smoking habits, and pre-existing cardiopulmonary comorbi
147 ise, walking/cycling, height, energy intake, smoking habits, baseline Charlson's weighted comorbidity
152 is was associated with antenatal exposure to smoking, higher maternal education levels, and wheezing
156 edian body mass index 47 kg/m) self-reported smoking history pre-surgery, and current smoking behavio
157 orating tumor staging, treatment status, and smoking history revealed that treatment status had the m
160 ignificant changes about lung function test, smoking history, sex and the levels of D-dimer among two
163 sex (HR 2.52, 95% CI 1.04-6.10), history of smoking (HR 3.42, 95% CI 1.40-8.45), and thymic abnormal
165 iable risk factors assessed at baseline were smoking, hypertension, diabetes, obesity and physical in
166 factors, diabetes, underlying lung disease, smoking, immunosuppressed condition, and baseline diseas
168 xists on the adult hazards of having started smoking in childhood and, especially, in early childhood
169 t epigenome-wide association study (EWAS) of smoking in human postmortem brain, focusing on nucleus a
171 ody mass index z scores, maternal education, smoking in pregnancy, and prenatal particulate matter wi
172 echanisms of Networks and Norms Influence on Smoking in Schools (MECHANISMS) study baseline data, fro
173 red to nonsmoking during pregnancy, quitting smoking in the first trimester is associated with the sa
174 port a model whereby genetic determinants of smoking increase type 2 diabetes risk indirectly through
175 ng cancer screening with CT require detailed smoking information and miss many incident lung cancers.
176 is study include the self-report of parental smoking information and the possibility of residual conf
186 of alcohol consumption when controlling for smoking (IVW OR 2.1, 95% CI = 1.1, 3.8 per standard devi
187 ed at both time points for prenatal parental smoking, life events, and negative affect and substance
188 , a positive family history of dementia, non-smoking, low alcohol consumption, depression, daytime so
190 rijuana is becoming increasingly potent, and smoking marijuana carries many of the same cardiovascula
191 een smoking and lung cancer and suggest that smoking may also be a risk factor for cancer of the head
197 Other smoking phenotypes, such as current smoking, may be suitable for future Mendelian randomisat
199 th healthy lifestyle factors (defined as not smoking, never consuming alcohol, the low consumption of
201 In conclusion, perceived descriptive non-smoking norms are not held by the majority of adults in
202 mokers who endorsed stronger descriptive non-smoking norms had increased odds of reporting high motiv
205 lation did not clearly mediate the effect of smoking on FEV(1), although DNA methylation at some site
207 etic variants interacting with pack-years of smoking on FEV(1)/FVC ratios in individuals with normal
208 e consider the possible effects of cigarette smoking on homocysteine levels, with self-reported smoki
209 y little known about the effects of maternal smoking on human cortical biology during prenatal life.
210 t focused on explaining the ramifications of smoking on maternal and child health was effective and f
212 limited evidence for a meaningful effect of smoking on MS susceptibility as measured using summary s
214 evidence for an independent causal effect of smoking on oral/oropharyngeal cancer (IVW OR 2.6, 95% CI
215 nonsmoking mothers, maternal first trimester smoking only was not associated with adverse birth outco
216 erse variance weighted method were: lifetime smoking OR 0.94 (95% CI 0.74 to 1.19), p value 0.59; eve
218 trated that COPD at baseline, but not former smoking or AAT concentrations, predicted greater spirome
222 associations were not modified by age, BMI, smoking, or red meat intake (All P(interaction) > 0.055)
223 racy improved by 28.7% for BMI and 10.2% for smoking over a LASSO model, with age-, and tissue-specif
224 raised blood glucose, raised blood pressure, smoking, overweight, and obesity) at the household, comm
226 x (P = 0.68), level of education (P = 0.26), smoking (P = 0.11), alcohol consumption (P = 0.52), hist
227 PAF 16.5% ELSA; 16.7% SIGa-Bage) and current smoking (PAF 4.9% for both cohorts) having the strongest
228 was carried out, adjusting for maternal age, smoking, parity, ethnicity, neonate sex, and predicted c
229 mized crossover design, nontreatment seeking smoking participants (N = 30) completed two imaging sess
230 de association study (GWAS) for longitudinal smoking phenotypes in 286,118 individuals from the Milli
232 variates age, gender, occupational position, smoking, physical activity, and alcohol consumption were
234 prevalence of elevated blood pressure, lower smoking rates, and lower prevalence of elevated choleste
237 increase the risk of tobacco dependence and smoking-related diseases in human smokers.SIGNIFICANCE S
238 ases vulnerability to tobacco dependence and smoking-related diseases, but little is known about the
241 signalling in young and aged mice disrupted smoking-related inducible bronchus-associated lymphoid t
242 Decreased lung CYP2A expression may alter smoking-related lung cancer risk and tissue damage from
244 on, after adjusting for alcohol consumption, smoking retained its association with several CVD outcom
245 the extent that rapid brain uptake promotes smoking reward, E-cigs might maintain a degree of nicoti
246 e in PRS), independent of family history and smoking risk factors (odds ratio(PRS+family history+smok
248 ation) and maternity (maternal age, maternal smoking, sex-gestation-specific birth weight centile, ge
249 for BMI, and xenobiotic stimuli response for smoking, showed >1.5 times larger associations with >95%
250 cells; 3) ACE2 is upregulated in the SAE by smoking, significantly in men; 4) levels of miR-1246 exp
251 weight loss in late life, physical exercise, smoking, sleep, cerebrovascular disease, frailty, atrial
253 % CI 1.53-2.21), male sex (1.63, 1.07-2.48), smoking status (former smoker vs never smoked: 1.60, 1.0
254 CAL) for six sites/tooth were ascertained by smoking status and plotted using contour maps to identif
255 rvals (CIs) of preterm birth associated with smoking status and the number of cigarettes consumed, ad
256 health outcomes were found between different smoking status groups, suggesting that smoking/vaping pr
261 h radiomic and clinical features (gender and smoking status) reached a diagnostic accuracy of 88.1% i
262 pitalizations differed according to baseline smoking status, alcohol intake, BMI, and diabetes status
265 , cholesterol levels, use of blood thinners, smoking status, and lens status also were evaluated.
266 adjusted for COPD status, age, sex, current smoking status, and pack-years of cigarette smoking.
269 urements were investigated, including active smoking status, pack-years, years as a smoker, packs smo
270 , family history of gastrointestinal cancer, smoking status, previous negatives and whether a GP had
271 aphics, year of consultation, comorbidities, smoking status, recent hospitalizations, recent accident
272 haracterized by differences in asthma onset, smoking status, residential locations, percentage of blo
273 adjusting for potential confounders such as smoking status, sex, age, education level, and dental vi
274 x, body mass index, race, surgical approach, smoking status, Zubrod and American Society of Anesthesi
277 r age; sex; race/ethnicity; education; diet; smoking status; body mass index; self-reported health; m
278 ance imaging data from healthy and cigarette-smoking subjects performing the Iowa Gambling Task.
281 is approach to study the causal pathway from smoking to overall survival among lung cancer patients p
283 e machine to simulate breathing behavior and smoking topography parameters such as puff time, inter-p
285 .6%) is genetically correlated with 18 other smoking traits (r(g) = 0.40-1.09) and co-morbidities.
286 rogram (MVP) where we identified 18 loci for smoking trajectory of current versus never in European A
287 for hypertension, hyperlipidemia, cigarette smoking, type II diabetes mellitus, and end-stage renal
288 suring the same underlying construct of anti-smoking/vaping norms (Comparative Fit Index = 0.958, Tuc
289 erent smoking status groups, suggesting that smoking/vaping produces differential effects on oral hea
292 sociated with compassion satisfaction, while smoking was a negative factor; these five factors explai
296 A strong exposure-response relationship with smoking was found both in males [IRR, 1-pack-year increa
298 icans, and 90 Hispanics with >=20 pack-years smoking were resequenced for the identification of rare
300 manifestations as measured by the Wisconsin Smoking Withdrawal Scale (P = 0.04) and Tobacco Craving