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1.
BMJ Glob Health ; 7(Suppl 3)2022 06.
Article in English | MEDLINE | ID: covidwho-1909727

ABSTRACT

Since the first case of COVID-19 in Djibouti in March 2020 up to the end of May 2021, the country experienced two major epidemic waves of confirmed cases and deaths. The first wave in 2020 progressed more slowly in Djibouti compared with other countries in the Eastern Mediterranean Region. The second wave in 2021 appeared to be more aggressive in terms of the number and severity of cases, as well as the overall fatality rate. This study describes and analyses the epidemiology of these two waves of the COVID-19 pandemic in Djibouti and highlights lessons learnt from the National Plan for Introduction and Deployment of COVID-19 vaccines developed and implemented by the Ministry of Health of Djibouti.From 17 March 2020 up to 31 May 2021, Djibouti officially reported 11 533 confirmed cases of COVID-19 with 154 related deaths (case fatality rate, CFR: 1.3%), with an attack rate of 1.2%. The first epidemic wave began in epidemiological week 16/2020 (12-18 April) and ended in epidemiological week 25/2020 (14-20 June) with 4274 reported cases and 46 deaths (CFR: 1.1%). The second wave began in epidemiological week 11/2021 (14-20 March) and ended in epidemiological week 18/2021 (2-8 May) with 5082 reported cases and 86 deaths (CFR: 1.7%).A vaccination campaign was launched by the President of the Republic in March 2021; approximately 1.6% of the population were vaccinated in only two months' time. Early Preparedness, multisectoral and multicoordinated response, and collaboration with WHO are among the major lessons learnt during the pandemic in Djibouti.


Subject(s)
COVID-19 , COVID-19/epidemiology , COVID-19/prevention & control , COVID-19 Vaccines , Djibouti/epidemiology , Humans , Pandemics/prevention & control , Vaccination
2.
PLoS One ; 15(12): e0243698, 2020.
Article in English | MEDLINE | ID: covidwho-992701

ABSTRACT

First cases of COVID-19 were reported from Wuhan, China, in December 2019, and it progressed rapidly. On 30 January, WHO declared the new disease as a PHEIC, then as a Pandemic on 11 March. By mid-March, the virus spread widely; Djibouti was not spared and was hit by the pandemic with the first case detected on 17 March. Djibouti worked with WHO and other partners to develop a preparedness and response plan, and implemented a series of intervention measures. MoH together with its civilian and military partners, closely followed WHO recommended strategy based on four pillars: testing, isolating, early case management, and contact tracing. From 17 March to 16 May, Djibouti performed the highest per capita tests in Africa and isolated, treated and traced the contacts of each positive case, which allowed for a rapid control of the epidemic. COVID-19 data included in this study was collected through MoH Djibouti during the period from 17 March to 16 May 2020. A total of 1,401 confirmed cases of COVID-19 were included in the study with 4 related deaths (CFR: 0.3%) and an attack rate of 0.15%. Males represented (68.4%) of the cases, with the age group 31-45 years old (34.2%) as the most affected. Djibouti conducted 17,532 tests, and was considered as a champion for COVID-19 testing in Africa with 18.2 tests per 1000 habitant. All positive cases were isolated, treated and had their contacts traced, which led to early and proactive diagnosis of cases and in turn yielded up to 95-98% asymptomatic cases. Recoveries reached 69% of the infected cases with R0 (0.91). The virus was detected in 4 regions in the country, with the highest percentage in the capital (83%). Djibouti responded to COVID-19 pandemic following an efficient and effective strategy, using a strong collaboration between civilian and military health assets that increased the response capacities of the country. Partnership, coordination, solidarity, proactivity and commitment were the pillars to confront COVID-19 pandemic.


Subject(s)
COVID-19/diagnosis , COVID-19/epidemiology , SARS-CoV-2/isolation & purification , Adult , Africa/epidemiology , COVID-19/pathology , COVID-19/virology , COVID-19 Testing , Disease Outbreaks , Djibouti/epidemiology , Female , Humans , Male , Middle Aged , Pandemics , SARS-CoV-2/pathogenicity
3.
J Clin Anesth ; 64: 109854, 2020 09.
Article in English | MEDLINE | ID: covidwho-141546

ABSTRACT

We performed a narrative review to explore the economics of daily operating room management decisions for ambulatory surgery centers following resolution of the acute phase of the Coronavirus Disease 2019 (COVID-19) pandemic. It is anticipated that there will be a substantive fraction of patients who will be contagious, but asymptomatic at the time of surgery. Use multimodal perioperative infection control practices (e.g., including patient decontamination) and monitor performance (e.g., S. aureus transmission from patient to the environment). The consequence of COVID-19 is that such processes are more important than ever to follow because infection affects not only patients but the surgery center staff and surgeons. Dedicate most operating rooms to procedures that are not airway aerosol producing and can be performed without general anesthesia. Increase throughput by performing nerve blocks before patients enter the operating rooms. Bypass the phase I post-anesthesia care unit whenever possible by appropriate choices of anesthetic approach and drugs. Plan long-duration workdays (e.g., 12-h). For cases where the surgical procedure does not cause aerosol production, but general anesthesia will be used, have initial (phase I) post-anesthesia recovery in the operating room where the surgery was done. Use anesthetic practices that achieve fast initial recovery of the brief ambulatory cases. When the surgical procedure causes aerosol production (e.g., bronchoscopy), conduct phase I recovery in the operating room and use multimodal environmental decontamination after each case. Use statistical methods to plan for the resulting long turnover times. Whenever possible, have the anesthesia and nursing teams stagger cases in more than one room so that they are doing one surgical case while the other room is being cleaned. In conclusion, this review shows that while COVID-19 is prevalent, it will markedly affect daily ambulatory workflow for patients undergoing general anesthesia, with potentially substantial economic impact for some surgical specialties.


Subject(s)
Coronavirus Infections , Coronavirus , Pandemics , Pneumonia, Viral , Ambulatory Surgical Procedures , Betacoronavirus , COVID-19 , Humans , Infection Control , Operating Rooms , SARS-CoV-2 , Staphylococcus aureus
4.
J Infect Public Health ; 13(3): 418-422, 2020 Mar.
Article in English | MEDLINE | ID: covidwho-7352

ABSTRACT

BACKGROUND: Approximately half of the reported laboratory-confirmed infections of Middle East respiratory syndrome coronavirus (MERS-CoV) have occurred in healthcare settings, and healthcare workers constitute over one third of all secondary infections. This study aimed to describe secondary cases of MERS-CoV infection among healthcare workers and to identify risk factors for death. METHODS: A retrospective analysis was conducted on epidemiological data of laboratory-confirmed MERS-CoV cases reported to the World Health Organization from September 2012 to 2 June 2018. We compared all secondary cases among healthcare workers with secondary cases among non-healthcare workers. Multivariable logistic regression identified risk factors for death. RESULTS: Of the 2223 laboratory-confirmed MERS-CoV cases reported to WHO, 415 were healthcare workers and 1783 were non-healthcare workers. Compared with non-healthcare workers cases, healthcare workers cases were younger (P < 0.001), more likely to be female (P < 0.001), non-nationals (P < 0.001) and asymptomatic (P < 0.001), and have fewer comorbidities (P < 0.001) and higher rates of survival (P < 0.001). Year of infection (2013-2018) and having no comorbidities were independent protective factors against death among secondary healthcare workers cases. CONCLUSION: Being able to protect healthcare workers from high threat respiratory pathogens, such as MERS-CoV is important for being able to reduce secondary transmission of MERS-CoV in healthcare-associated outbreaks. By extension, reducing infection in healthcare workers improves continuity of care for all patients within healthcare facilities.


Subject(s)
Coronavirus Infections/epidemiology , Coronavirus Infections/transmission , Health Personnel , Middle East Respiratory Syndrome Coronavirus , Adult , Coronavirus Infections/mortality , Cross Infection/epidemiology , Cross Infection/transmission , Female , Humans , Infectious Disease Transmission, Patient-to-Professional/prevention & control , Laboratories , Male , Middle Aged , Retrospective Studies , Risk Factors , World Health Organization
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