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1 e matter < 2.5u (PM(2.5)) has been linked to cardiopulmonary disease.
2 ary arterial hypertension is a severe lethal cardiopulmonary disease.
3 group A) or absence (group B) of preexisting cardiopulmonary disease.
4 Healthy volunteers were screened to exclude cardiopulmonary disease.
5 ong susceptible individuals with preexisting cardiopulmonary disease.
6 10% of cirrhosis patients, in the absence of cardiopulmonary disease.
7 y explaining distinct responses of the RV to cardiopulmonary disease.
8 ere aged 37, 46, and 55 yrs and had no prior cardiopulmonary disease.
9 mulations in persons > or =65 years old with cardiopulmonary disease.
10 ized as an important pathogen in adults with cardiopulmonary disease.
11 significant changes in patients with chronic cardiopulmonary disease.
12 h, or a history of venous thromboembolism or cardiopulmonary disease.
13 ic and prognostic value in the evaluation of cardiopulmonary disease.
14 hypertension (PAH) is an uncommon and deadly cardiopulmonary disease.
15 illness (ARI) and triggers exacerbations of cardiopulmonary disease.
16 ipants without smoking, obesity, or clinical cardiopulmonary disease.
17 te lung function assessment in patients with cardiopulmonary disease.
18 in 30 dogs with persistent cyanosis without cardiopulmonary disease.
19 have recognized PM(2.5) as a risk factor for cardiopulmonary diseases.
20 c heart disease, and those free from chronic cardiopulmonary diseases.
21 se is associated with increased mortality in cardiopulmonary diseases.
22 in healthy human heart and in patients with cardiopulmonary diseases.
23 the 18 were initially misdiagnosed as other cardiopulmonary diseases.
24 n the protein is correlated with severity of cardiopulmonary diseases.
25 populations, including those with underlying cardiopulmonary diseases.
26 eased morbidity and mortality in people with cardiopulmonary diseases.
27 impact human health; for example, it causes cardiopulmonary diseases.
28 ent and uncover the developmental origins of cardiopulmonary diseases.
29 ion with pulmonary function tests in various cardiopulmonary diseases.
30 ns in the characterization and management of cardiopulmonary diseases.
31 ent of epigenetic drugs for the treatment of cardiopulmonary diseases.
32 ne healthy sedentary individuals free of any cardiopulmonary disease (42 +/- 12 years, 78 +/- 11 kg),
34 els adjusted for age, race, body mass index, cardiopulmonary disease, alcohol use, pacemaker, cholest
35 viduals is associated with increased risk of cardiopulmonary disease and all-cause mortality, but ind
38 so that panic anxiety can reflect underlying cardiopulmonary disease and dyspnea can reflect an under
39 ho were > or =65 years old or had underlying cardiopulmonary disease and who were hospitalized with a
41 d donation (including infection, malignancy, cardiopulmonary disease) and uDCD (including hemorrhage,
43 me in this cohort of patients with PE and no cardiopulmonary disease, and it may provide a simple sin
47 r identify the exact role for iNO therapy in cardiopulmonary diseases associated with hypoxemia or pu
48 e medical system, we identified an increased cardiopulmonary disease burden for residents of Maryland
49 lmonary perfusion, which may be disrupted by cardiopulmonary disease, but this is not well studied, p
50 latory mechanisms, which may be disrupted by cardiopulmonary disease, but this is not well studied, p
51 pulmonary arterial hypertension (IPAH) is a cardiopulmonary disease characterized by cellular prolif
52 lung injury) and increases susceptibility to cardiopulmonary disease (chronic hypoxic pulmonary hyper
53 ed into episodes of care for six conditions: cardiopulmonary disease, coronary and/or cardiac disease
55 the prognostic performance of age, previous cardiopulmonary disease, D-dimer, brain natriuretic pept
56 raph or history of venous thromboembolism or cardiopulmonary disease does not appear to adversely aff
57 Problems, Tenth Revision (ICD-10) codes for cardiopulmonary diseases extracted from the University o
58 ing a cohort of patients suspected of having cardiopulmonary disease from multiple pathologic causes.
59 lved as a successful treatment for end-stage cardiopulmonary disease in children; however, clear guid
61 exclusively associated with prematurity and cardiopulmonary diseases in industrialized countries, pr
62 PDE5) has attracted much interest in several cardiopulmonary diseases, in particular myocardial ische
64 e detailed characterization of patients with cardiopulmonary diseases is needed, especially with the
65 erial pressure that is not due to coexistent cardiopulmonary disease, known as pulmonary arterial hyp
67 heart surgery (OR, 3.04; 95% CI, 2.26-4.08), cardiopulmonary disease (OR, 1.91; 95% CI, 1.56-2.34), h
69 in elderly persons and those with underlying cardiopulmonary disease over a long duration is not well
70 nctional impairment is a frequent finding in cardiopulmonary disease, reflecting both intrinsic atria
73 After excluding participants with baseline cardiopulmonary diseases, stroke and cancer, 178,485 men
76 as been used to identify patterns typical of cardiopulmonary diseases, such as pulmonary embolism, pn
77 ing patient symptoms and outcomes in various cardiopulmonary diseases, the thorough and accurate asse
78 lmonary embolism (PE) is a potentially fatal cardiopulmonary disease; therefore, rapid risk stratific
79 2 ARI symptoms or exacerbation of underlying cardiopulmonary disease were screened during the 2017-20
81 d and fifty healthy men, without diabetes or cardiopulmonary disease, were recruited from the communi
83 cognitive deficits, skeletal dysplasia, and cardiopulmonary disease, with death typically occurring