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1.
Vasc Med ; 19(5): 385-91, 2014 Oct.
Artículo en Inglés | MEDLINE | ID: mdl-25074356

RESUMEN

Thromboprophylaxis remains often underused in hospitalized patients. In 2001, a cohort study done at our institution, a tertiary care center in Montreal, Canada, showed that 67.7% of VTE cases necessitating thromboprophylaxis were potentially preventable with adequate use of American College of Chest Physicians (ACCP) guidelines. Following implementation of an institution-wide policy in 2005, we assessed the changes in the rate of potentially preventable VTE. We conducted a retrospective cohort study including all hospitalized patients with objectively diagnosed VTE in 2010 at our institution. Each case was classified as preventable (thromboprophylaxis indicated but inadequately administered), non-preventable (thromboprophylaxis indicated and correctly administered), spontaneous (thromboprophylaxis not indicated), and ineligible (contraindication to thromboprophylaxis). The results were compared to those obtained in 2001. Of the 230 cases of VTE, 55 cases were classified as potentially preventable (23.9%), 85 were non-preventable (37.0%), 74 were spontaneous (32.2%) and 16 (7.0%) were ineligible. Of the 140 cases requiring thromboprophylaxis, 39.3% were potentially preventable. The potentially preventable cases were mostly due to omission of thromboprophylaxis (50.9%), occurred during general medical admissions (74.5%), and the most common VTE risk factor was cancer (47.2%). In conclusion, we demonstrate a lower frequency of potentially preventable cases in 2010 compared to 2001 (39.3% vs 67.7%, respectively), partially due to physician education and adoption of an institution-wide policy. However, patients with medical indications for thromboprophylaxis, particularly those with cancer, are more prone to having preventable VTE, indicating an area for potential improvement.


Asunto(s)
Anticoagulantes/administración & dosificación , Embolia Pulmonar/epidemiología , Embolia Pulmonar/prevención & control , Tromboembolia Venosa/epidemiología , Tromboembolia Venosa/prevención & control , Distribución por Edad , Anciano , Anciano de 80 o más Años , Canadá/epidemiología , Estudios de Cohortes , Femenino , Mortalidad Hospitalaria , Hospitalización/estadística & datos numéricos , Hospitales Universitarios , Humanos , Incidencia , Masculino , Persona de Mediana Edad , Evaluación de Necesidades , Prevención Primaria/métodos , Embolia Pulmonar/tratamiento farmacológico , Estudios Retrospectivos , Medición de Riesgo , Distribución por Sexo , Tasa de Supervivencia , Centros de Atención Terciaria , Tromboembolia Venosa/tratamiento farmacológico
2.
Res Pract Thromb Haemost ; 2(4): 670-677, 2018 Oct.
Artículo en Inglés | MEDLINE | ID: mdl-30349885

RESUMEN

INTRODUCTION: Risk factors for exercise limitation after acute pulmonary embolism (PE) are unknown. As a planned sub-study of the prospective, multicenter ELOPE (Evaluation of Long-term Outcomes after PE) Study, we aimed to describe the results of serial imaging by computed tomography pulmonary angiography (CTPA) and perfusion scan during 1 year after a first episode of acute pulmonary embolism, and to assess the association between imaging parameters and exercise limitation at 1 year. METHODS: In a prospective cohort study, 100 patients were recruited between June 2010 and February 2013 at five Canadian university-affiliated hospitals. CT pulmonary angiography was performed at baseline and 12 months, perfusion scan at 6 and 12 months, and cardio-pulmonary exercise testing at 1 and 12 months. Imaging parameters included: on CT pulmonary angiography, CT obstruction index (CTO) (% clot burden in the pulmonary vasculature), and on perfusion scan, pulmonary vascular obstruction (PVO) (% perfusion defect). Abnormal cardio-pulmonary exercise test (primary outcome) was defined as percent of predicted peak oxygen uptake (VO2) <80%. RESULTS: Mean (median; SD) CT obstruction index was 28.1% (27.5%; 18.3%) at baseline, 1.2% (0%; 4.3%) at 12 months. Mean (median; SD) pulmonary vascular obstruction was 6.0% (0%; 9.6%) at 6 months, 5.6% (0%; 9.8%) at 12 months. Eighty-six patients had exercise testing at 12 months, and 46.5% had VO2 < 80% predicted. Mean (median; SD) CT obstruction index at 1 year was similar in patients with percent-predicted VO2 peak <80% vs >80% on 1-year cardio-pulmonary exercise testing (1.4% [0%; 5.7%] vs 1.0% [0%; 2.4%]; P = .70). Mean (SD) pulmonary vascular obstruction at 6 and at 12 months was similar in patients with percent-predicted VO2 peak <80% vs >80% (6 months: 5.9% [0%; 10.4%] vs 6.2% [4.5%; 9.0%]; P = .91; 12 months: 5.1% [0%; 10.2%] vs 6.0% [0%; 9.7%]; P = .71). CONCLUSIONS: Imaging findings after pulmonary embolism did not predict exercise limitation. Residual thrombus does not appear to explain long-term functional limitation after pulmonary embolism.

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