PLoS Negl Trop Dis 10(7): e0004794. doi:10.1371/journal.pntd.0004794
A handbook for leaders and managers
Growing emergencies and displacements across the world demand increasingly complex interventions and responses. The World Health Organization (WHO) has developed Malaria control in emergencies: a field manual to provide technical guidance to help partners respond effectively to malaria in emergency ...situations. This field manual supersedes the 2013 WHO handbook.
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These guidelines provide recommendations for the non-pharmacological aspects of infection prevention and control for acute respiratory diseases (ARD) in health care. Administrative and infection controls, including early detection, isolation and reporting, and establishment of infection control infr...astructure, are key components for containment and mitigation of the impact of pathogens that may constitute a major public health threat. In these guidelines, the options of using natural ventilation and/or exhaust fan assisted ventilation in health-care facilities (HCF) are considered.
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Regional Tuberculosis Program, Pan American Health Organization (PAHO/WHO)
This guideline for the prevention and control of chikungunya fever
(CF) is intended for use by all peripheral health workers in the Region and
is based on the strategy outlined above. This document will focus mainly
on preventing, predicting and detecting outbreaks, and after detection,
investig...ating and containing them.
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The aim of this toolkit is to guide countries on how to best estimate their current burden of dengue by combining existing data from dengue surveillance systems with on-going research efforts to measure the community burden
of dengue.
The WHO continuously reviews available data on SARS-CoV-2 variants of concern. For this version, the global epidemiological
situation of the COVID-19 pandemic as of 21 January 2022 – at a time when the Omicron VOC had been identified in 171
countries across all six WHO Regions and was rapidly re...placing Delta worldwide – was considered Omicron has a substantial growth advantage, higher secondary attack rates and a higher observed reproduction number than Delta.
There is now significant evidence that immune evasion contributes to the rapid spread of Omicron. Other factors may be a shorter
serial interval (by about 0.8 to 1.2 days compared to Delta) and potential increased intrinsic transmission fitness . There is
growing evidence that with Omicron, there is lower vaccine effectiveness (VE) against infection and symptomatic disease soon after vaccination compared to Delta. There is also evidence of accelerated waning of VE over time of the primary series against infection and symptomatic disease for the studied vaccines. Further studies are required to better understand the drivers of transmission and declining incidence in various settings. These factors include the intrinsic transmission fitness properties of the virus, degree of immune evasion, vaccination coverage and level of vaccine-derived and post-infection immunity, levels of social mixing and degree of application of public health and social measures (PHSM).
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