Spatial distribution and determinants of acute respiratory infection among under-five children in Ethiopia: Ethiopian demographic Health Survey 2016

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Study Justification:
– Childhood acute respiratory infection is a major global cause of illness and death among children under the age of five.
– In Ethiopia, acute respiratory infection is a significant burden on the healthcare system.
– Understanding the spatial distribution of acute respiratory infection is crucial for effective intervention programs.
Highlights:
– The study utilized data from the 2016 Ethiopian Demographic and Health Survey.
– A two-stage stratified cluster sampling technique was used to select 10,006 under-five children for the study.
– Spatial analysis using SaTScan and ArcGIS revealed spatial variations in acute respiratory infection across the country.
– Factors such as history of diarrhea, age of the child, maternal education, and stunting were identified as predictors of acute respiratory infection.
Recommendations:
– Areas with high rates of acute respiratory infection should be given priority in resource allocation, including mobilizing resources, skilled human power, and improving access to health facilities.
– Interventions should focus on preventing diarrhea, improving maternal education, and addressing stunting in children.
Key Role Players:
– Ministry of Health: Responsible for coordinating and implementing intervention programs.
– Local health authorities: Involved in planning and implementing interventions at the regional and district levels.
– Healthcare providers: Responsible for delivering healthcare services and implementing interventions.
– Community health workers: Play a key role in raising awareness and providing education on preventing acute respiratory infection.
Cost Items for Planning Recommendations:
– Training and capacity building for healthcare providers and community health workers.
– Development and implementation of educational campaigns.
– Improvement of health facilities and infrastructure.
– Procurement of medical supplies and equipment.
– Monitoring and evaluation of intervention programs.

The strength of evidence for this abstract is 7 out of 10.
The evidence in the abstract is moderately strong. The study utilized a two-stage stratified cluster sampling technique and a large sample size of 10,006 under-five children. The study used statistical models to analyze the data and identified spatial variations and determinants of acute respiratory infection. However, the abstract lacks specific details on the methodology and statistical analysis used. To improve the evidence, the abstract could provide more information on the sampling procedure, statistical tests used, and the specific results of the analysis.

Background Childhood acute respiratory infection remains the commonest global cause of morbidity and mortality among under-five children. In Ethiopia, it remains the highest burden of the health care system. The problem varies in space and time, and exploring its spatial distribution has supreme importance for monitoring and designing effective intervention programs. Methods A two stage stratified cluster sampling technique was utilized along with the 2016 Ethiopian Demographic and Health Survey (EDHS) data. About 10,006 under-five children were included in this study. Bernoulli model was used to investigate the presence of purely spatial clusters of under-five acute respiratory infection using SaTScan.ArcGIS version 10.1 was used to visualize the distribution of pneumonia cases across the country. Mixed-effect logistic regression model was used to identify the determinants of acute respiratory infection. Result In this study, acute respiratory infection among under-five children had spatial variations across the country (Moran’s I: 0.34, p < 0.001). Acute respiratory infection among under-five children in Tigray (p < 0.001) and Oromia (p < 0.001) National Regional States clustered spatially. History of diarrhoea (Adjusted Odds Ratio (AOR) = 4.71, 95% CI: (3.89–5.71))), 45–59 months of age (AOR = 0.63, 95% CI: (0.45–0.89)), working mothers (AOR = 1.27, 95% CI: (1.06–1.52)), mothers’ secondary school education (AOR = 0.65; 95% CI: (0.43–0.99)), and stunting (AOR = 1.24, 95% CI: (1.00–1.54)) were predictors of under-five acute respiratory infection. Conclusion and recommendation In Ethiopia, acute respiratory infection had spatial variations across the country. Areas with excess acute respiratory infection need high priority in allocation of resources including: mobilizing resources, skilled human power, and improved access to health facilities.

A community-based cross-sectional study was conducted from January 18 to June 27, 2016. The study was conducted in Ethiopia (3o-14o N and 33o – 48°E), situated in the eastern tip of Africa (Fig 1). The country covers an area of 1.1 million km2 (square kilometre) with geographical diversity, ranging from 4,550 meter (m) above sea level down to the Afar depression 110 m below sea level. There are nine regional states and two city administrations sub-divided into 68 zones, 817 districts, and 16,253 kebeles (lowest local administrative units of the country) in the administrative structure of the country [19]. The source population was all under-five children (10,006) included in the 2016 EDHS.A stratified two-stage cluster sampling procedure was employed where enumeration areas (EAs) were the sampling units for the first stage and households were the second stage. In the 2016 EDHS, a total of 645 EAs (202 urban and 443 rural) were selected with a probability proportional to EAs size (based on the 2007 housing and population census) and independent selection in each sampling stratum. Of these, 18,008 households and 16,583 eligible women were included. The detailed sampling procedure was presented in the full EDHS report [19]. Acute respiratory infection among under-five children two weeks prior to data collection were used as a dependent variable. The independent variables were classified as socio-demographic factors including sex, age of child, residence, maternal education, maternal occupation, number of under-five children, religion, and wealth index; environmental factors were source of water, types of toilet facility, and types of cooking fuel. Clinical factors including vaccination history and drug for intestinal parasites, nutritional factors: breast feeding duration, stunting, wasting, and vitamin A supplement, and co-morbidity conditions including history of diarrhoea, HIV status, anaemia status, and measles. Acute respiratory infection was defined as children that had history of cough, accompanied by short rapid breathing and/ or difficulty of breathing reported by mothers or caregivers within two weeks preceding the survey [20, 21].Co-morbidity was defined as the presence of one or more additional diseases co-occurring with a primary disease, pneumonia in under- five children [18, 22]. A letter of approval for the use of the data was secured from the Measure DHS and the data set was downloaded from the website www.measuredhs.com(https://dhsprogram.com/data/available-datasets.cfm). We used EDHS 2016 child data set and extracted the outcome and explanatory variables. Location data (latitude and longitude coordinates) was also taken from selected enumeration areas (clusters). A structured and pre-tested questionnaire was used as a tool for data collection. The 2016 EDHS interviewers used tablet computers to record responses during interviews. The tablets were equipped with Bluetooth technology to enable remote electronic transfer of files (transfer assignment sheets from team supervisors to interviewers and transfer of completed copies from interviewers to supervisors) [19]. Prior to the actual data collection, interviewers were trained and a pre-test was performed. Interviews were performed using local languages [19]. Cross tabulations and summary statistics were used to describe the study population. Descriptive and summary statistics were done using STATA version 14 software. In EDHS data, children within a cluster may be more similar to each other than children in the rest of the country. This violates the assumption of traditional regression model which are the independence of observations and equal variance across clusters. This implies that the need to consider the between-cluster variability using advanced models. Therefore, a multilevel model (both fixed and random effects) was used. As the response variable was dichotomous, logistic regression and Generalized Linear Mixed models (GLMM) were fitted. Model comparison was done based on Akakie Information Criteria (AIC), Bayesian information Criteria (BIC), and intra cluster correlation (ICC) values. The model with the lowest AIC was chosen. Variables with ≤0.2 p-values in the bi-variable analysis were fitted in the multivariable model. Adjusted Odds Ratio (AOR) with a 95% Confidence Interval (CI) and p-value <0.05 in the multivariable model were used to declare significant association with ARI. Goodness of fit was checked using deviance and ICC. Spatial autocorrelation (Global Moran’s I) statistic measure was used to evaluate whether disease patterns were dispersed, clustered, or randomly distributed in the study area. Moran’s I values close to−1 indicated disease dispersed, whereas I close to +1 indicated disease clustered, and disease distributed randomly if I value was zero. A statistically significant Moran’s I (p < 0.05) led to the rejection of the null hypothesis and indicated the presence of spatial autocorrelation. ArcGIS version 10.1 was used for doing the Moran I analysis. Spatial scan statistical analysis was employed to identify the geographical locations of statistically significant spatial clusters of ARI among under-five children using Kuldorff’sSaTScan version 9.4 software [23]. Spatial scan statistic used a scanning window that moves across the study area. Children with ARI were taken as cases and those without the disease as controls to fit the Bernoulli model. The number of cases in each location had Bernoulli distribution and the model required data with or without the disease. The default maximum spatial cluster size of <50% of the population was used as an upper limit, allowing both small and large clusters to be detected, and ignored clusters that contained more than the maximum limit with circular shape of window. A Likelihood ratio test statistic was used to determine whether the number of observed ARI cases within the potential cluster were significantly higher than the expected or not. Primary and secondary clusters were identified using p-values and likelihood ratio tests on the basis of the 999 Monte Carlo replications [24]. Ethical clearance was obtained from the University of Gondar Ethical Review Board (IRB). Permission was obtained from Measure DHS International Program which authorized the datasets. All data used in this study were publicly available; and aggregated secondary data with no any personal identity.

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Based on the information provided, here are some potential innovations that could be used to improve access to maternal health:

1. Telemedicine: Implementing telemedicine services can help overcome geographical barriers and provide access to healthcare professionals for remote areas. This can allow pregnant women to receive prenatal care and consultations without having to travel long distances.

2. Mobile health (mHealth) applications: Developing mobile applications that provide information and resources related to maternal health can empower women with knowledge and support. These apps can provide information on prenatal care, nutrition, and vaccination schedules, as well as reminders and alerts for important appointments.

3. Community health workers: Training and deploying community health workers can improve access to maternal health services in underserved areas. These workers can provide basic prenatal care, education, and referrals to healthcare facilities when necessary.

4. Transport services: Establishing transportation services specifically for pregnant women can help overcome transportation barriers in rural areas. This can ensure that women can reach healthcare facilities in a timely manner for prenatal check-ups, delivery, and postnatal care.

5. Mobile clinics: Setting up mobile clinics that travel to remote areas can bring essential maternal health services closer to communities that lack access to healthcare facilities. These clinics can provide prenatal care, vaccinations, and basic healthcare services for pregnant women.

6. Health education programs: Implementing comprehensive health education programs that focus on maternal health can increase awareness and knowledge among women and their families. These programs can cover topics such as prenatal care, nutrition, hygiene, and the importance of seeking timely medical assistance.

7. Public-private partnerships: Collaborating with private healthcare providers and organizations can help expand access to maternal health services. This can involve leveraging private sector resources, expertise, and infrastructure to improve the availability and quality of care.

8. Maternal health insurance schemes: Introducing or expanding insurance schemes specifically for maternal health can help reduce financial barriers and ensure that women can afford necessary healthcare services during pregnancy, childbirth, and postpartum.

It is important to note that the specific implementation of these innovations would require further research, planning, and coordination with relevant stakeholders to ensure their effectiveness and sustainability.
AI Innovations Description
Based on the information provided, the recommendation to improve access to maternal health is to allocate resources and prioritize areas with a high burden of acute respiratory infection among under-five children. This includes mobilizing resources, skilled human power, and improving access to health facilities in these areas. Additionally, interventions should focus on addressing the determinants of acute respiratory infection, such as history of diarrhea, age of the child, maternal education, maternal occupation, and stunting. By targeting these factors and providing appropriate interventions, access to maternal health can be improved and the burden of acute respiratory infection among under-five children can be reduced.
AI Innovations Methodology
Based on the provided information, here are some potential recommendations to improve access to maternal health:

1. Strengthening healthcare infrastructure: Investing in the development and improvement of healthcare facilities, particularly in areas with high burden of acute respiratory infections among under-five children, can help improve access to maternal health services. This includes ensuring the availability of skilled healthcare professionals, essential medical equipment, and necessary medications.

2. Community-based interventions: Implementing community-based interventions, such as training community health workers and volunteers, can help increase awareness about maternal health and provide basic healthcare services to underprivileged areas. These interventions can include education on preventive measures, early recognition of symptoms, and timely referral to healthcare facilities.

3. Mobile health (mHealth) solutions: Utilizing mobile technology to deliver maternal health services can help overcome geographical barriers and improve access to healthcare. This can include mobile apps for appointment scheduling, telemedicine consultations, and health education messages delivered via SMS or voice calls.

4. Maternal health insurance schemes: Implementing or expanding maternal health insurance schemes can help reduce financial barriers to accessing maternal healthcare services. This can include subsidized or free healthcare services for pregnant women and under-five children, ensuring that cost is not a deterrent for seeking necessary care.

To simulate the impact of these recommendations on improving access to maternal health, a methodology could include the following steps:

1. Data collection: Gather data on the current state of maternal health access, including information on healthcare infrastructure, community health workers, mobile technology usage, and existing insurance schemes. This can be done through surveys, interviews, and analysis of existing data sources.

2. Modeling the impact: Develop a simulation model that incorporates the various recommendations mentioned above. This model should consider factors such as population distribution, healthcare facility locations, coverage of community-based interventions, mobile technology penetration, and the reach of insurance schemes.

3. Data analysis: Use the collected data and the simulation model to analyze the potential impact of each recommendation on improving access to maternal health. This can be done by comparing the current state with different scenarios that incorporate the recommendations.

4. Evaluation and refinement: Assess the results of the simulation and evaluate the effectiveness of each recommendation in improving access to maternal health. Refine the simulation model based on the findings and adjust the recommendations accordingly.

5. Implementation planning: Based on the simulation results, develop an implementation plan that prioritizes the most effective recommendations and outlines the necessary steps for their implementation. This plan should consider factors such as resource allocation, stakeholder engagement, and monitoring and evaluation mechanisms.

By following this methodology, policymakers and healthcare stakeholders can gain insights into the potential impact of different recommendations and make informed decisions to improve access to maternal health.

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