Last data update: Aug 15, 2025. (Total: 49733 publications since 2009)
| Records 1-4 (of 4 Records) |
| Query Trace: Weinberg MP[original query] |
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| Enhanced surveillance for coccidioidomycosis, 14 US states, 2016
Benedict K , Ireland M , Weinberg MP , Gruninger RJ , Weigand J , Chen L , Perez-Lockett K , Bledsoe C , Denny L , Cibulskas K , Gibbons-Burgener S , Kocharian A , DeBess E , Miller TK , Lepp A , Cronquist L , Warren K , Serrano JA , Loveland C , Turabelidze G , McCotter O , Jackson BR . Emerg Infect Dis 2018 24 (8) 1444-1452 Although coccidioidomycosis in Arizona and California has been well-characterized, much remains unknown about its epidemiology in states where it is not highly endemic. We conducted enhanced surveillance in 14 such states in 2016 by identifying cases according to the Council of State and Territorial Epidemiologists case definition and interviewing patients about their demographic characteristics, clinical features, and exposures. Among 186 patients, median time from seeking healthcare to diagnosis was 38 days (range 1-1,654 days); 70% had another condition diagnosed before coccidioidomycosis testing occurred (of whom 83% were prescribed antibacterial medications); 43% were hospitalized; and 29% had culture-positive coccidioidomycosis. Most (83%) patients from nonendemic states had traveled to a coccidioidomycosis-endemic area. Coccidioidomycosis can cause severe disease in residents of non-highly endemic states, a finding consistent with previous studies in Arizona, and less severe cases likely go undiagnosed or unreported. Improved coccidioidomycosis awareness in non-highly endemic areas is needed. |
| Non-mumps viral parotitis during the 2014-2015 influenza season in the United States
Elbadawi LI , Talley P , Rolfes MA , Millman AJ , Reisdorf E , Kramer NA , Barnes JR , Blanton L , Christensen J , Cole S , Danz T , Dreisig JJ , Garten R , Haupt T , Isaac BM , Jackson MA , Kocharian A , Leifer D , Martin K , McHugh L , McNall RJ , Palm J , Radford KW , Robinson S , Rosen JB , Sakthivel SK , Shult P , Strain AK , Turabelidze G , Webber LA , Weinberg MP , Wentworth DE , Whitaker BL , Finelli L , Jhung MA , Lynfield R , Davis JP . Clin Infect Dis 2018 67 (4) 493-501 Background: During the 2014-2015 US influenza season, 320 cases of non-mumps parotitis (NMP) among residents of 21 states were reported to the Centers for Disease Control and Prevention (CDC). We conducted an epidemiologic and laboratory investigation to determine viral etiologies and clinical features of NMP during this unusually large occurrence. Methods: NMP was defined as acute parotitis or other salivary gland swelling of >2 days duration in a person with a mumps- negative laboratory result. Using a standardized questionnaire, we collected demographic and clinical information. Buccal samples were tested at the CDC for selected viruses, including mumps, influenza, human parainfluenza viruses (HPIVs) 1-4, adenoviruses, cytomegalovirus, Epstein-Barr virus (EBV), herpes simplex viruses (HSVs) 1 and 2, and human herpes viruses (HHVs) 6A and 6B. Results: Among the 320 patients, 65% were male, median age was 14.5 years (range, 0-90), and 67% reported unilateral parotitis. Commonly reported symptoms included sore throat (55%) and fever (48%). Viruses were detected in 210 (71%) of 294 NMP patients with adequate samples for testing, >/=2 viruses were detected in 37 samples, and 248 total virus detections were made among all samples. These included 156 influenza A(H3N2), 42 HHV6B, 32 EBV, 8 HPIV2, 2 HPIV3, 3 adenovirus, 4 HSV-1, and 1 HSV-2. Influenza A(H3N2), HHV6B, and EBV were the most frequently codetected viruses. Conclusions: Our findings suggest that, in addition to mumps, clinicians should consider respiratory viral (influenza) and herpes viral etiologies for parotitis, particularly among patients without epidemiologic links to mumps cases or outbreaks. |
| Tuberculosis among temporary visa holders working in the tourism industry - United States, 2012-2014
Weinberg MP , Cherry C , Lipnitz J , Nienstadt L , King-Todd A , Haddad MB , Russell M , Wong D , Davidson P , McFadden J , Miller C . MMWR Morb Mortal Wkly Rep 2016 65 (11) 279-281 Tuberculosis (TB) is a contagious bacterial disease of global concern. During 2013, an estimated nine million incident TB cases occurred worldwide (1). The majority (82%) were diagnosed in 22 countries, including South Africa and the Philippines, where annual incidence was 860 TB cases per 100,000 persons and 292 TB cases per 100,000 persons, respectively (1). The 2013 TB incidence in the United States was three cases per 100,000 persons (2). Under the Immigration and Nationality Act, TB screening is required for persons seeking permanent residence in the United States (i.e., immigrants and refugees), but it is not routinely required for nonimmigrants who are issued temporary visas for school or work (3). A portion of the U.S. tourism industry relies on temporary visa holders to accommodate seasonal and fluctuating demand for service personnel (4). This report describes three foreign-born persons holding temporary visas who had infectious TB while working at tourist destinations in the United States during 2012-2014. Multiple factors, including dormitory-style housing, transient work patterns, and diagnostic delays might have contributed to increased opportunity for TB transmission. Clinicians in seasonally driven tourist destinations should be aware of the potential for imported TB disease in foreign-born seasonal workers and promptly report suspected cases to health officials. |
| Rapid response to Ebola outbreaks in remote areas - Liberia, July-November 2014
Kateh F , Nagbe T , Kieta A , Barskey A , Gasasira AN , Driscoll A , Tucker A , Christie A , Karmo B , Scott C , Barradas D , Blackley D , Dweh E , Warren F , Mahoney F , Kassay G , Calvert GM , Castro G , Logan G , Appiah G , Kirking H , Koon H , Papowitz H , Walke H , Cole IB , Montgomery J , Neatherlin J , Tappero JW , Forrester J , Woodring J , Mott J , Attfield K , DeCock K , Lindblade KA , Powell K , Yeoman K , Adams L , Broyles LN , Slutsker L , Belcher L , Cooper L , Santos M , Westercamp M , Weinberg MP , Massoudi M , Dea M , Patel M , Hennessey M , Fomba M , Lubogo M , Maxwell N , Moonan P , Arzoaquoi S , Gee S , Zayzay S , Pillai S , Williams S , Zarecki SM , Yett S , James S , Grube S , Gupta S , Nelson T , Malibiche T , Frank W , Smith W , Nyenswah T . MMWR Morb Mortal Wkly Rep 2015 64 (7) 188-192 West Africa is experiencing its first epidemic of Ebola virus disease (Ebola). As of February 9, Liberia has reported 8,864 Ebola cases, of which 3,147 were laboratory-confirmed. Beginning in August 2014, the Liberia Ministry of Health and Social Welfare (MOHSW), supported by CDC, the World Health Organization (WHO), and others, began systematically investigating and responding to Ebola outbreaks in remote areas. Because many of these areas lacked mobile telephone service, easy road access, and basic infrastructure, flexible and targeted interventions often were required. Development of a national strategy for the Rapid Isolation and Treatment of Ebola (RITE) began in early October. The strategy focuses on enhancing capacity of county health teams (CHT) to investigate outbreaks in remote areas and lead tailored responses through effective and efficient coordination of technical and operational assistance from the MOHSW central level and international partners. To measure improvements in response indicators and outcomes over time, data from investigations of 12 of 15 outbreaks in remote areas with illness onset dates of index cases during July 16-November 20, 2014, were analyzed. The times to initial outbreak alerts and durations of the outbreaks declined over that period while the proportions of patients who were isolated and treated increased. At the same time, the case-fatality rate in each outbreak declined. Implementation of strategies, such as RITE, to rapidly respond to rural outbreaks of Ebola through coordinated and tailored responses can successfullyreduce transmission and improve outcomes. |
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