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1.
MMWR Morb Mortal Wkly Rep ; 73(23): 529-533, 2024 Jun 13.
Artículo en Inglés | MEDLINE | ID: mdl-38870469

RESUMEN

High-quality vaccine-preventable disease (VPD) surveillance data are critical for timely outbreak detection and response. In 2019, the World Health Organization (WHO) African Regional Office (AFRO) began transitioning from Epi Info, a free, CDC-developed statistical software package with limited capability to integrate with other information systems, affecting reporting timeliness and data use, to District Health Information Software 2 (DHIS2). DHIS2 is a free and open-source software platform for electronic aggregate Integrated Disease Surveillance and Response (IDSR) and case-based surveillance reporting. A national-level reporting system, which provided countries with the option to adopt this new system, was introduced. Regionally, the Epi Info database will be replaced with a DHIS2 regional data platform. This report describes the phased implementation from 2019 to the present. Phase one (2019-2021) involved developing IDSR aggregate and case-based surveillance packages, including pilots in the countries of Mali, Rwanda, and Togo. Phase two (2022) expanded national-level implementation to 27 countries and established the WHO AFRO DHIS2 regional data platform. Phase three (from 2023 to the present) activities have been building local capacity and support for country reporting to the regional platform. By February 2024, eight of 47 AFRO countries had adopted both the aggregate IDSR and case-based surveillance packages, and two had successfully transferred VPD surveillance data to the AFRO regional platform. Challenges included limited human and financial resources, the need to establish data-sharing and governance agreements, technical support for data transfer, and building local capacity to report to the regional platform. Despite these challenges, the transition to DHIS2 will support efficient data transmission to strengthen VPD detection, response, and public health emergencies through improved system integration and interoperability.


Asunto(s)
Vigilancia de la Población , Programas Informáticos , Enfermedades Prevenibles por Vacunación , Organización Mundial de la Salud , Humanos , África/epidemiología , Enfermedades Prevenibles por Vacunación/prevención & control , Enfermedades Prevenibles por Vacunación/epidemiología
2.
Emerg Infect Dis ; 28(13): S203-S207, 2022 12.
Artículo en Inglés | MEDLINE | ID: mdl-36502406

RESUMEN

Global emergence of the COVID-19 pandemic in 2020 curtailed vaccine-preventable disease (VPD) surveillance activities, but little is known about which surveillance components were most affected. In May 2021, we surveyed 214 STOP (originally Stop Transmission of Polio) Program consultants to determine how VPD surveillance activities were affected by the COVID-19 pandemic throughout 2020, primarily in low- and middle-income countries, where program consultants are deployed. Our report highlights the responses from 154 (96%) of the 160 consultants deployed to the World Health Organization African Region, which comprises 75% (160/214) of all STOP Program consultants deployed globally in early 2021. Most survey respondents observed that VPD surveillance activities were somewhat or severely affected by the COVID-19 pandemic in 2020. Reprioritization of surveillance staff and changes in health-seeking behaviors were factors commonly perceived to decrease VPD surveillance activities. Our findings suggest the need for strategies to restore VPD surveillance to prepandemic levels.


Asunto(s)
COVID-19 , Poliomielitis , Enfermedades Prevenibles por Vacunación , Humanos , Enfermedades Prevenibles por Vacunación/epidemiología , Enfermedades Prevenibles por Vacunación/prevención & control , Pandemias/prevención & control , COVID-19/epidemiología , COVID-19/prevención & control , Poliomielitis/epidemiología , Organización Mundial de la Salud
3.
J Infect Dis ; 216(suppl_1): S337-S342, 2017 07 01.
Artículo en Inglés | MEDLINE | ID: mdl-28838181

RESUMEN

During the poliovirus outbreak in Cameroon from October 2013 to April 2015, the Ministry of Public Health's Expanded Program on Immunization requested technical support to improve mapping of health district boundaries and health facility locations for more effective planning and analysis of polio program data. In December 2015, teams collected data on settlements, health facilities, and other features using smartphones. These data, combined with high-resolution satellite imagery, were used to create new health area and health district boundaries, providing the most accurate health sector administrative boundaries to date for Cameroon. The new maps are useful to and used by the polio program as well as other public health programs within Cameroon such as the District Health Information System and the Emergency Operations Center, demonstrating the value of the Global Polio Eradication Initiative's legacy.


Asunto(s)
Sistemas de Información Geográfica , Programas de Inmunización/métodos , Poliomielitis , Vigilancia en Salud Pública/métodos , Salud Pública/métodos , Camerún/epidemiología , Humanos , Poliomielitis/epidemiología , Poliomielitis/prevención & control , Teléfono Inteligente
4.
BMJ Glob Health ; 5(7)2020 07.
Artículo en Inglés | MEDLINE | ID: mdl-32694218

RESUMEN

In 2010, Nigeria adopted the use of web-based software District Health Information System, V.2 (DHIS2) as the platform for the National Health Management Information System. The platform supports real-time data reporting and promotes government ownership and accountability. To strengthen its routine immunisation (RI) component, the US Centers for Disease Control and Prevention (CDC) through its implementing partner, the African Field Epidemiology Network-National Stop Transmission of Polio, in collaboration with the Government of Nigeria, developed the RI module and dashboard and piloted it in Kano state in 2014. The module was scaled up nationally over the next 4 years with funding from the Bill & Melinda Gates Foundation and CDC. One implementation officer was deployed per state for 2 years to support operations. Over 60 000 RI healthcare workers were trained on data collection, entry and interpretation and each local immunisation officer in the 774 local government areas (LGAs) received a laptop and stock of RI paper data tools. Templates for national-level and state-level RI bulletins and LGA quarterly performance tools were developed to promote real-time data use for feedback and decision making, and enhance the performance of RI services. By December 2017, the DHIS2 RI module had been rolled out in all 36 states and the Federal Capital Territory, and all states now report their RI data through the RI Module. All states identified at least one government DHIS2 focal person for oversight of the system's reporting and management operations. Government officials routinely collect RI data and use them to improve RI vaccination coverage. This article describes the implementation process-including planning and implementation activities, achievements, lessons learnt, challenges and innovative solutions-and reports the achievements in improving timeliness and completeness rates.


Asunto(s)
Sistemas de Información en Salud , Inmunización , Humanos , Nigeria , Estados Unidos , Vacunación
5.
Cancer ; 101(12): 2713-21, 2004 Dec 15.
Artículo en Inglés | MEDLINE | ID: mdl-15547933

RESUMEN

BACKGROUND: Immunocompromised patients have an increased risk of experiencing progression of latent Mycobacterium tuberculosis infection (LTBI) to active tuberculosis (TB) disease. In January 2002, 2 patients with leukemia (Patients 1 and 2) developed pulmonary TB after recent exposure at 3 hospitals (Hospital A, Hospital B, and Hospital C) and at a residential facility for patients with cancer. Neither was known to have LTBI. Within 1 year, 3 other patients with malignancy and TB disease had been identified at these facilities, prompting an investigation of healthcare facility-associated transmission of M. tuberculosis. METHODS: The authors performed genotypic analysis of the five available M. tuberculosis isolates from patients with malignancies at these facilities, reviewed medical records, interviewed individuals who had identical M. tuberculosis genotypic patterns, and performed tuberculin skin testing (TST) and case finding for possible exposed contacts. RESULTS: Only Patients 1 and 2 had identical genotypic patterns. Neither patient had baseline TST results available. Patient 1 had clinical evidence of infectiousness 3 months before the diagnosis of TB was ascertained. Among employee contacts of Patient 1, TST conversions occurred in 1 of 59 (2%), 2 of 34 (6%), 2 of 32 (6%), and 0 of 8 who were tested at Hospitals A, B, and C and at the residential facility, respectively. Among the others who were exposed to Patient 1, 1 of 31 (3%), 1 of 30 (3%), 0 of 40 (0%), and 12 of 136 (9%) who were tested had positive TSTs at Hospitals A, B, and C and at the residential facility, respectively. CONCLUSIONS: Delayed TB diagnosis in 2 patients with leukemia resulted in the transmission of M. tuberculosis to 19 patients and staff at 3 hospitals and a residential facility. Baseline TB screening and earlier clinical recognition of active disease could reduce healthcare facility-associated transmission of M. tuberculosis among patients with malignancy.


Asunto(s)
Infección Hospitalaria , Hospitales , Neoplasias/complicaciones , Instituciones Residenciales , Tuberculosis Pulmonar/transmisión , Adolescente , Adulto , Anciano , Niño , Preescolar , Trazado de Contacto , Femenino , Humanos , Transmisión de Enfermedad Infecciosa de Paciente a Profesional , Transmisión de Enfermedad Infecciosa de Profesional a Paciente , Leucemia/complicaciones , Leucemia/microbiología , Masculino , Persona de Mediana Edad , Mycobacterium tuberculosis , Neoplasias/microbiología , Tuberculosis Pulmonar/complicaciones
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