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Dive into the research topics where David P. Calfee is active.

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Featured researches published by David P. Calfee.


Clinical Infectious Diseases | 2003

Community-Acquired Methicillin-Resistant Staphylococcus aureus: A Meta-Analysis of Prevalence and Risk Factors

Cassandra D. Salgado; Barry M. Farr; David P. Calfee

Reports suggest that carriage of methicillin-resistant Staphylococcus aureus (MRSA) among persons without health care-associated risks has increased. A meta-analysis of studies reporting the prevalence of community-acquired MRSA (CA-MRSA) among MRSA isolates from hospitalized patients or the prevalence of MRSA colonization among community members was conducted. The CA-MRSA prevalence among hospital MRSA was 30.2% in 27 retrospective studies and 37.3% in 5 prospective studies; 85% of all patients with CA-MRSA had > or =1 health care-associated risk. The pooled MRSA colonization rate among community members was 1.3% (95% confidence interval [CI], 1.04%-1.53%), but there was significant heterogeneity among study populations. Community members from whom samples were obtained in health care facilities were more likely to be carrying MRSA than were community members from whom samples were obtained outside of the health care setting (relative risk, 2.35; 95% CI, 1.56-3.53). Among studies that excluded persons with health care contacts, the MRSA prevalence was 0.2%. Moreover, most persons with CA-MRSA had > or =1 health care-associated risk, which suggests that the prevalence of MRSA among persons without risks remains low (< or =0.24%). Effective control of dissemination of MRSA throughout the community likely will require effective control of nosocomial MRSA transmission.


Infection Control and Hospital Epidemiology | 2008

Outcomes of Carbapenem‐Resistant Klebsiella pneumoniae Infection and the Impact of Antimicrobial and Adjunctive Therapies

Gopi Patel; Shirish Huprikar; Stephen G. Jenkins; David P. Calfee

BACKGROUND Carbapenem-resistant Klebsiella pneumoniae is an emerging healthcare-associated pathogen. OBJECTIVE To describe the epidemiology of and clinical outcomes associated with carbapenem-resistant K. pneumoniae infection and to identify risk factors associated with mortality among patients with this type of infection. SETTING Mount Sinai Hospital, a 1,171-bed tertiary care teaching hospital in New York City. DESIGN Two matched case-control studies. METHODS In the first matched case-control study, case patients with carbapenem-resistant K. pneumoniae infection were compared with control patients with carbapenem-susceptible K. pneumoniae infection. In the second case-control study, patients who survived carbapenem-resistant K. pneumoniae infection were compared with those who did not survive, to identify risk factors associated with mortality among patients with carbapenem-resistant K. pneumoniae infection. RESULTS There were 99 case patients and 99 control patients identified. Carbapenem-resistant K. pneumoniae infection was independently associated with recent organ or stem-cell transplantation (P=.008), receipt of mechanical ventilation (P=.04), longer length of stay before infection (P=.01), and exposure to cephalosporins (P=.02) and carbapenems (P<.001). Case patients were more likely than control patients to die during hospitalization (48% vs 20%; P<.001) and to die from infection (38% vs 12%; P<.001). Removal of the focus of infection (ie, debridement) was independently associated with patient survival (P=.002). The timely administration of antibiotics with in vitro activity against carbapenem-resistant K. pneumoniae was not associated with patient survival. CONCLUSIONS Carbapenem-resistant K. pneumoniae infection is associated with numerous healthcare-related risk factors and with high mortality. The mortality rate associated with carbapenem-resistant K. pneumoniae infection and the limited antimicrobial options for treatment of carbapenem-resistant K. pneumoniae infection highlight the need for improved detection of carbapenem-resistant K. pneumoniae infection, identification of effective preventive measures, and development of novel agents with reliable clinical efficacy against carbapenem-resistant K. pneumoniae.


Infection Control and Hospital Epidemiology | 2008

Strategies to prevent surgical site infections in acute care hospitals.

Deverick J. Anderson; Keith S. Kaye; David C. Classen; Kathleen M. Arias; Kelly Podgorny; Helen Burstin; David P. Calfee; Susan E. Coffin; Erik R. Dubberke; Victoria Fraser; Dale N. Gerding; Frances A. Griffin; Peter Gross; Michael Klompas; Evelyn Lo; Jonas Marschall; Leonard A. Mermel; Lindsay Nicolle; David A. Pegues; Trish M. Perl; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert R. Wise; Deborah S. Yokoe

Previously published guidelines are available that provide comprehensive recommendations for detecting and preventing healthcare-associated infections. The intent of this document is to highlight practical recommendations in a concise format designed to assist acute care hospitals to implement and prioritize their surgical site infection (SSI) prevention efforts. Refer to the Society for Healthcare Epidemiology of America/Infectious Diseases Society of America “Compendium of Strategies to Prevent Healthcare-Associated Infections” Executive Summary and Introduction and accompanying editorial for additional discussion.1. Burden of SSIs as complications in acute care facilities.a. SSIs occur in 2%-5% of patients undergoing inpatient surgery in the United States.b. Approximately 500,000 SSIs occur each year.2. Outcomes associated with SSIa. Each SSI is associated with approximately 7-10 additional postoperative hospital days.b. Patients with an SSI have a 2-11 times higher risk of death, compared with operative patients without an SSI.i. Seventy-seven percent of deaths among patients with SSI are direcdy attributable to SSI.c. Attributable costs of SSI vary, depending on the type of operative procedure and the type of infecting pathogen; published estimates range from


Infection Control and Hospital Epidemiology | 2008

Strategies to Prevent Central Line-Associated Bloodstream Infections in Acute Care Hospitals

Jonas Marschall; Leonard A. Mermel; David C. Classen; Kathleen M. Arias; Kelly Podgorny; Deverick J. Anderson; Helen Burstin; David P. Calfee; Susan E. Coffin; Erik R. Dubberke; Victoria J. Fraser; Dale N. Gerding; Frances A. Griffin; Peter Gross; Keith S. Kaye; Michael Klompas; Evelyn Lo; Lindsay Nicolle; David A. Pegues; Trish M. Perl; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert A. Wise; Deborah S. Yokoe

3,000 to


Infection Control and Hospital Epidemiology | 2008

Strategies to Prevent Catheter‐Associated Urinary Tract Infections in Acute Care Hospitals

Evelyn Lo; Lindsay E. Nicolle; David C. Classen; Kathleen M. Arias; Kelly Podgorny; Deverick J. Anderson; Helen Burstin; David P. Calfee; Susan E. Coffin; Erik R. Dubberke; Victoria Fraser; Dale N. Gerding; Frances A. Griffin; Peter Gross; Keith S. Kaye; Michael Klompas; Jonas Marschall; Leonard A. Mermel; David A. Pegues; Trish M. Perl; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert J. Wise; Deborah S. Yokoe

29,000.i. SSIs are believed to account for up to


Infection Control and Hospital Epidemiology | 2008

Strategies to Prevent Ventilator-Associated Pneumonia in Acute Care Hospitals

Susan E. Coffin; Michael Klompas; David C. Classen; Kathleen M. Arias; Kelly Podgorny; Deverick J. Anderson; Helen Burstin; David P. Calfee; Erik R. Dubberke; Victoria Fraser; Dale N. Gerding; Frances A. Griffin; Peter Gross; Keith S. Kaye; Evelyn Lo; Jonas Marschall; Leonard A. Mermel; Lindsay Nicolle; David A. Pegues; Trish M. Perl; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert J. Wise; Deborah S. Yokoe

10 billion annually in healthcare expenditures.1. Definitionsa. The Centers for Disease Control and Prevention National Nosocomial Infections Surveillance System and the National Healthcare Safety Network definitions for SSI are widely used.b. SSIs are classified as follows (Figure):i. Superficial incisional (involving only skin or subcutaneous tissue of the incision)ii. Deep incisional (involving fascia and/or muscular layers)iii. Organ/space


Infection Control and Hospital Epidemiology | 2008

A compendium of strategies to prevent healthcare-associated infections in acute care hospitals.

Deborah S. Yokoe; Leonard A. Mermel; Deverick J. Anderson; Kathleen M. Arias; Helen Burstin; David P. Calfee; Susan E. Coffin; Erik R. Dubberke; Victoria Fraser; Dale N. Gerding; Frances A. Griffin; Peter L. Gross; Keith S. Kaye; Michael Klompas; Evelyn Lo; Jonas Marschall; Lindsay E. Nicolle; David A. Pegues; Trish M. Perl; Kelly Podgorny; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert J. Wise; David C. Classen

Previously published guidelines are available that provide comprehensive recommendations for detecting and preventing healthcare-associated infections. The intent of this document is to highlight practical recommendations in a concise format designed to assist acute care hospitals in implementing and prioritizing their central line–associated bloodstream infection (CLABSI) prevention efforts. Refer to the Society for Healthcare Epidemiology of America/Infectious Diseases Society of America “Compendium of Strategies to Prevent Healthcare-Associated Infections” Executive Summary and Introduction and accompanying editorial for additional discussion.1. Patients at risk for CLABSIs in acute care facilitiesa. Intensive care unit (ICU) population: The risk of CLABSI in ICU patients is high. Reasons for this include the frequent insertion of multiple catheters, the use of specific types of catheters that are almost exclusively inserted in ICU patients and associated with substantial risk (eg, arterial catheters), and the fact that catheters are frequently placed in emergency circumstances, repeatedly accessed each day, and often needed for extended periods.b. Non-ICU population: Although the primary focus of attention over the past 2 decades has been the ICU setting, recent data suggest that the greatest numbers of patients with central lines are in hospital units outside the ICU, where there is a substantial risk of CLABSI.2. Outcomes associated with hospital-acquired CLABSIa. Increased length of hospital stayb. Increased cost; the non-inflation-adjusted attributable cost of CLABSIs has been found to vary from 29,000 per episode


Infection Control and Hospital Epidemiology | 2008

Strategies to prevent clostridium difficile infections in acute care hospitals.

Erik R. Dubberke; Dale N. Gerding; David C. Classen; Kathleen M. Arias; Kelly Podgorny; Deverick J. Anderson; Helen Burstin; David P. Calfee; Susan E. Coffin; Victoria J. Fraser; Frances A. Griffin; Peter Gross; Keith S. Kaye; Michael Klompas; Evelyn Lo; Jonas Marschall; Leonard A. Mermel; Lindsay Nicolle; David A. Pegues; Trish M. Perl; Sanjay Saint; Cassandra D. Salgado; Robert A. Weinstein; Robert A. Wise; Deborah S. Yokoe

Previously published guidelines are available that provide comprehensive recommendations for detecting and preventing healthcare-associated infections. The intent of this document is to highlight practical recommendations in a concise format designed to assist acute care hospitals in implementing and prioritizing their catheter-associated urinary tract infection (CAUTI) prevention efforts. Refer to the Society for Healthcare Epidemiology of America/Infectious Diseases Society of America “Compendium of Strategies to Prevent Healthcare-Associated Infections” Executive Summary and Introduction and accompanying editorial for additional discussion. 1. Burden of CAUTIs a. Urinary tract infection is the most common hospital-acquired infection; 80% of these infections are attributable to an indwelling urethral catheter. b. Twelve to sixteen percent of hospital inpatients will have a urinary catheter at some time during their hospital stay. c. The daily risk of acquisition of urinary infection varies from 3% to 7% when an indwelling urethral catheter remains in situ. 2. Outcomes associated with CAUTI a. Urinary tract infection is the most important adverse outcome of urinary catheter use. Bacteremia and sepsis may occur in a small proportion of infected patients. b. Morbidity attributable to any single episode of catheterization is limited, but the high frequency of catheter use in hospitalized patients means that the cumulative burden of CAUTI is substantial. c. Catheter use is also associated with negative outcomes other than infection, including nonbacterial urethral inflammation, urethral strictures, and mechanical trauma.


Annals of Internal Medicine | 2009

Catheter-Associated Urinary Tract Infection and the Medicare Rule Changes

Sanjay Saint; Jennifer Meddings; David P. Calfee; Christine P. Kowalski; Sarah L. Krein

Previously published guidelines are available that provide comprehensive recommendations for detecting and preventing healthcare-associated infections. The intent of this document is to highlight practical recommendations in a concise format designed to assist acute care hospitals in implementing and prioritizing their ventilator-associated pneumonia (VAP) prevention efforts. Refer to the Society for Healthcare Epidemiology of America/Infectious Diseases Society of America “Compendium of Strategies to Prevent Healthcare-Associated Infections” Executive Summary and Introduction and accompanying editorial for additional discussion.1. Occurrence of VAP in acute care facilities.a. VAP is one of the most common infections acquired by adults and children in intensive care units (ICUs).i. In early studies, it was reported that 10%-20% of patients undergoing ventilation developed VAP. More-recent publications report rates of VAP that range from 1 to 4 cases per 1,000 ventilator-days, but rates may exceed 10 cases per 1,000 ventilator-days in some neonatal and surgical patient populations. The results of recent quality improvement initiatives, however, suggest that many cases of VAP might be prevented by careful attention to the process of care.2. Outcomes associated with VAPa. VAP is a cause of significant patient morbidity and mortality, increased utilization of healthcare resources, and excess cost.i. The mortality attributable to VAP may exceed 10%.ii. Patients with VAP require prolonged periods of mechanical ventilation, extended hospitalizations, excess use of antimicrobial medications, and increased direct medical costs.


The Journal of Infectious Diseases | 1999

Nasal Cytokine and Chemokine Responses in Experimental Influenza A Virus Infection: Results of a Placebo-Controlled Trial of Intravenous Zanamivir Treatment

R. Scott Fritz; Frederick G. Hayden; David P. Calfee; Lindsey Cass; Amy W. Peng; W. Gregory Alvord; Warren Strober; Stephen E. Straus

Preventable healthcare-associated infections (HAIs) occur in US hospitals. Preventing these infections is a national priority, with initiatives led by healthcare organizations, professional associations, government and accrediting agencies, legislators, regulators, payers, and consumer advocacy groups. To assist acute care hospitals in focusing and prioritizing efforts to implement evidence-based practices for prevention of HAIs, the Society for Healthcare Epidemiology of America and the Infectious Diseases Society of America Standards and Practice Guidelines Committee appointed a task force to create a concise compendium of recommendations for the prevention of common HAIs. This compendium is implementation focused and differs from most previously published guidelines in that it highlights a set of basic HAI prevention strategies plus special approaches for use in locations and/or populations within the hospital when infections are not controlled by use of basic practices, recommends that accountability for implementing infection prevention practices be assigned to specific groups and individuals, and includes proposed performance measures for internal quality improvement efforts.

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Cassandra D. Salgado

Medical University of South Carolina

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Deborah S. Yokoe

Brigham and Women's Hospital

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William Greendyke

Columbia University Medical Center

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Dale N. Gerding

Loyola University Chicago

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