Our intervention was successful in reducing the incidence of CDI at our hospital. On the basis of our experience, we propose the use of a checklist of hospital interventions to decrease the incidence of healthcare-associated CDI.

To prepare for the increasing numbers of older adults undergoing surgery, the American College of Surgeons (ACS) has recently launched the Geriatric Surgery Verification Program with the goal of encouraging the creation of centers of geriatric surgery. Meanwhile, the Society for Perioperative Assessment and Quality Improvement (SPAQI) has published recommendations for the preoperative management of frailty, which state that teams should actively screen for frailty before surgery and that pathways, including geriatric comanagement, shared decision‐making, and multimodal prehabilitation, should be embedded in routine care to help improve patient outcomes. Both SPAQI and the ACS advocate for a multidisciplinary approach to improve the value of care for older adults undergoing surgery. However, the best way to implement geriatric services in the surgical setting is yet to be determined. In this statement, we will describe the SPAQI recommendations for launching a geriatric surgery center and the process by which its value should be assessed over time.

MPH Purpose:To determine the effect of clinical decision support (CDS) on the use and yield of inpatient computed tomographic (CT) pulmonary angiography for acute pulmonary embolism (PE). Materials and Methods:This HIPAA-compliant, institutional review board-approved study with waiver of informed consent included all adults admitted to a 793-bed teaching hospital from April 1, 2007, to June 30, 2012. The CDS intervention, implemented after a baseline observation period, informed providers who placed an order for CT pulmonary angiographic imaging about the pretest probability of the study based on a validated decision rule. Use of CT pulmonary angiographic and admission data from administrative databases was obtained for this study. By using a validated natural language processing algorithm on radiology reports, each CT pulmonary angiographic examination was classified as positive or negative for acute PE. Primary outcome measure was monthly use of CT pulmonary angiography per 1000 admissions. Secondary outcome was CT pulmonary angiography yield (percentage of CT pulmonary angiographic examinations that were positive for acute PE). Linear trend analysis was used to assess for effect and trend differences in use and yield of CT pulmonary angiographic imaging before and after CDS. Results:In 272 374 admissions over the study period, 5287 patients underwent 5892 CT pulmonary angiographic examinations. A 12.3% decrease in monthly use of CT pulmonary angiography (26.0 to 22.8 CT pulmonary angiographic examinations per 1000 admissions before and after CDS, respectively; P = .008) observed 1 month after CDS implementation was sustained over the ensuing 32-month period. There was a nonsignificant 16.3% increase in monthly yield of CT pulmonary angiography or percentage of CT pulmonary angiographic examinations positive for acute PE after CDS (P = .65). Conclusion:Implementation of evidence-based CDS for inpatients was associated with a 12.3% immediate and sustained decrease in use of CT pulmonary angiographic examinations in the evaluation of inpatients for acute PE.q RSNA, 2015

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