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. 2018 Nov 2;13(11):e0206659. doi: 10.1371/journal.pone.0206659

Prevalence and factors associated with stunting and thinness among school-age children in Arba Minch Health and Demographic Surveillance Site, Southern Ethiopia

Eshetu Zerihun Tariku 1,*, Getaneh Alemu Abebe 2, Zeleke Aschalew Melketsedik 3, Befikadu Tariku Gutema 1
Editor: Amos Laar4
PMCID: PMC6214544  PMID: 30388149

Abstract

Introduction

Despite consistent economic growth in the country, malnutrition remains one of the major public health problems in Ethiopia. The prevalence of malnutrition and its associated factors are well studied among under-five children. However, there is a paucity of evidence among older children in developing countries including Ethiopia. The aim of the study was to assess the prevalence of stunting and thinness and their associated factors among school-age children.

Methods

A community-based cross-sectional study was conducted among randomly selected 389 school-age children in Arba Minch Health and Demographic Surveillance Site, Southern Ethiopia, during April and May 2017. Height for age and body mass index for age z scores were calculated using WHO Anthro Plus software as indicators of stunting and thinness respectively. A binary logistic regression model was used to assess the association between independent and outcome variables.

Results

The prevalence of stunting and thinness were 41.9% (95% CI: 37–47) and 8.0% (95% CI: 5.4–10.8) respectively. The likelihood of stunting was significantly higher among children within the age group of 12–14 years old (AOR = 2.97, 95% CI: 1.78–4.95); children who were male (AOR = 1.94, 95% CI: 1.21–3.10); children living in households with medium wealth terciles (AOR = 2.90, 95%CI: 1.39–6.04); and children who were non-enrolled in schools (AOR = 2.25, 95% CI: (1.37–3.70). Moreover, thinness was 63% less common among children who had a dietary diversity score of <4 food groups (AOR = 0.37, 95%CI: 0.16–0.89).

Conclusion

The prevalence of thinness is low when compared to the prevalence reported by a single national school health and nutrition survey in Ethiopia. Stunting is a major public health concern. Therefore, this finding warrants the need to implement school health and nutrition programs to improve the nutritional status of school-age children in the study area. The interventions should focus towards both gender and special emphasis should also be given to increase the enrollment of children in schools. In addition, effort should be taken by stakeholders in different hierarchies to improve the family wealth status.

Introduction

School-age is a dynamic period of growth and development as children of this age group undergo rapid physical, mental and emotional development. Their social interaction also broadens out of their family, which poses an additional risk through reduced nutritional care and support. Like that of under-five children, school-age children are the most vulnerable segments of the population and seek special attention including their nutrition [1, 2].

Under-nutrition is widespread among school children (particularly in South Asia and Africa), and their nutritional status often worsens during their school years. It greatly affects both the cognitive and physical development of children [3, 4]. Thinness has been adopted recently as a more appropriate indicator of relatively recent nutritional deprivation, such as insufficient dietary intakes of energy, protein, or several micronutrients, than underweight in older children [5].

Globally, more than 200 million school-age children are stunted and underweight and if no action is taken, the number will grow to nearly a billion by 2020 [69]. Despite the economic growth observed in developing countries, under-nutrition is still highly prevalent [10]. Children in low and middle-income countries have been known to be at increased risk of under-nutrition due to poverty and lack of food [11]. Children’s physiology, the influence of the family and the community on their behavior may play an important role in the proper development and nutritional status of the child [1214].

In Ethiopia, child malnutrition continues to be a major public health problem. According to the Ethiopian Demographic Health and Survey (EDHS) of 2016, the prevalence of wasting, underweight and stunting in children under 5 years is high (9.9%, 23.6%, and 38.4% respectively) [15]; while the situation in older children is not well studied [16,17]. The National School Health and Nutrition (SHN) survey conducted in 2008 showed that nearly 23% of children were stunted and a similar percentage of them were also thin for age [18].

Malnutrition among children has lifelong implications; its outcomes not only cover the whole life but are also transferred from one generation to another. Health problems due to poor nutritional status in school-age children are among the most common causes of low school enrolment, high absenteeism, early dropout, unsatisfactory classroom performance, delayed cognitive development, short stature, reduced work capacity, and poor reproductive performance [1922].

Despite advocacy for health and nutrition services in primary schools, there is a clear paucity of information on the actual nutritional status of children in this age group in developing countries. Most studies focus on malnutrition in pregnant mothers and young children less than 5 years of age, whereas school-age children are often omitted from health and nutrition surveys or surveillance [23]. In Ethiopia, routine surveillance for under-nutrition among school-age children has not been conducted and there are limited data on school-age children about the prevalence and predisposing factors. Therefore, this study was designed to assess the prevalence of stunting and thinness and their associated factors among school-age children in Arba Minch Health and Demographic Surveillance Site (HDSS), Arba Minch Zuria district, Southern Ethiopia.

Materials and methods

Study design and setting

Community-based cross-sectional study with a quantitative method of data collection was conducted during April and May 2017 among school-age children (6 to 14 years old) in Arba Minch HDSS, Southern Ethiopia. Arba Minch Zuria district has 31 kebeles (the smallest administrative unit of Ethiopia) among which 9 kebeles are used as a target of Arba Minch HDSS which is being run by Arba Minch University. The administrative office of the district is in Arba Minch Town, which is located about 454 KMs south of Addis Ababa. According to the HDSS report, 74, 157 populations are living in the surveillance site, of whom 20,062 (27.1%) are aged between 6–14 years.

Sample size and sampling technique

The sample size was calculated using single population proportion formula through the assumptions of 95% Confidence Interval (CI), 5% margin of error, and 39.8% prevalence of stunting among school-age children from a research conducted in Libo Kemkem and Fogera districts, Northwest Ethiopia [24]. Finally, considering 10% for non-response, the total sample size was 405. The source population was all school-age children (between 6 to 14 years old) residing in nine kebeles of Arba Minch HDSS. Children residing in the study area for > 6 months were included while the exclusion criteria considered were children who were critically ill during the time of data collection and those with physical deformities for anthropometric measurements. For the selection of the study participants, a dataset created which contains the list of an individual in the nine kebeles with their date of birth, individual and household identification using Arba Minch HDSS database. Using this dataset sampling frame was generated for children age from 6–14 years old. Study participants were randomly selected from each kebeles. The proportion of sample was allocated based on the number of school-age children in each kebeles.

Data collection tools and procedures

Data was collected using structured, pretested Amharic version questionnaires. The study instruments included two sets of structured questionnaires. One was administered for children and another for the child’s mothers/caregivers. The data on household wealth index was collected by asking ownership of selected assets based on EDHS 2011 wealth index variables [25]. Household food insecurity level was measured with Household Food Insecurity Access Scale (HFIAS), which was developed and validated by Food and Nutrition Technical Assistant (FANTA) [26]. Child dietary intake was measured by qualitative 24 hour dietary recall of the child [27]. Children were interviewed with the presence of guardian.

Anthropometric measurements

Weight and height of each child were measured following standard anthropometric techniques [28]. For weight measurement, children were asked to remove their shoes, wear light clothes and remove accessories. Then, trained data collectors measured children’s weight on a calibrated portable digital scale (Seca, Germany model) and record the value to the nearest 0.1 kilograms. For height measurement, children were asked to stand erect with their shoulders level, hands at their sides, thighs and heels comfortably together, the buttocks, scapulae, and head are positioned in contact with the vertical backboard with a sliding head bar. Then height values were recorded to the nearest 0.1 centimeters [28].

Data quality control

A pretest was done prior to actual data collection by recruiting 20 children and their guardians in one of HDSS kebele on households which were not selected. The final version of the questionnaire was translated into Amharic language and again translated back to English to check the consistency. The data collectors were given two days of intensive training on the instruments, method of data collection, how to take anthropometric measurements, ethical issues and the purpose of the study. Data collectors’ accuracy of anthropometric measurements was standardized with their trainer during training and pretesting. During data collection, data collectors have taken two separate height and weight measurements for an individual and average value were reported. The functionality of digital weight scales was checked using known weight every morning before data collection begins and before every weight measurement. Data collectors ensured the scale reading exactly at zero [28]. Investigators have checked the collected data for completeness and consistency throughout the data collection period.

Data analysis

Data were entered into Epi Data version 3.1 and cleaned for inconsistency. For further analysis, the data were exported to Statistical Package for Social Science (SPSS) version 22 software. Descriptive analysis of data was indicated using numerical summary measures. Outliers and influential cases were also checked. The wealth index was constructed via Principal Component Analysis (PCA) method [29]. For anthropometric data analysis, standard deviation (Z-scores) scores were obtained by WHO Anthro Plus software to determine the nutritional status of children. Children whose Height for Age z-score (HAZ) and BMI for Age z-score (BAZ) above-2SD scores were considered as well-nourished and those below -2SD scores as being malnourished (stunted and thin respectively). The collinearity effect was checked using variance inflation factor (VIF) and standard error and non-collinear covariates were included in the independent binary logistic regression model to assess the possible association of independent and outcome variables. Independent variables with p-value ≤ 0.25 in bivariate analysis were included for multivariate analysis [30]. Additionally, context and previous studies were also considered to make a variables candidate for multivariate analysis. Statistical significance at p-value < 0.05 in multivariable analysis was considered. The fitness of the model was tested by Hosmer- Lemeshow goodness of fit test.

Ethical considerations

Ethical approval was obtained from Institutional Ethics Review Board (IRB) of Arba Minch University. Official permission letter was obtained from Arba Minch Zuria district administrative and health offices and the data collection begun after permission and cooperation letter was written to all nine kebeles where the study was carried out. Individual informed written consent and assent was obtained and the respondents were assured of confidentiality.

Results

Socio- economic and demographic characteristics of study participants

A total of 389 school-age children with their mothers/caregivers were participated in the study making a response rate of 96%. The mean ±SD age of children was 10.14±2.6 years. Among the total children participated, 222 (57.1%) were enrolled in school. Two hundred seventy-one (69.7%) of interviewed caregivers were females and the majority (65.6%) of mothers/ caregivers did not attend formal education. From participated households, 183 (47.0%) of households were food secured (Table 1).

Table 1. Socio-demographic and economic characteristics of study participants (n = 389), Arba Minch HDSS, Southern Ethiopia, April to May 2017.

Variables Category Frequency Percentage
Age of child (in years) 6–11 252 64.8
12–14 137 35.2
Child sex Male 194 49.9
Female 195 50.1
School Enrolment Enrolled 222 57.1
Non enrolled 167 42.9
Grade (n = 222) 1–4 class 169 76.1
5–8 class 53 23.9
Child birth order ≤ 2 born into the family 199 51.2
>2 born in to the family 190 48.8
Age of parent/ care giver 18–35 191 49.1
36–45 145 37.3
>45 53 13.6
Sex of parent/ care giver Male 118 30.3
Female 271 69.7
Religion of parent/ care giver Orthodox 141 36.2
Protestant 240 61.7
Others 8 2.1
Educational status of mothers/care takers No formal education 256 65.8
Unable to read and write 38 9.8
Primary level 82 21.1
Secondary level and above 13 3.3
Educational status of father No formal education 215 55.3
Unable to read and write 43 11.1
Primary level 106 27.2
Secondary level and above 25 6.4
Occupation of mother/ care giver Housewife 369 94.9
Private employee 14 3.6
Others 6 1.5
Occupation of father Government employee 11 2.8
Private employee 217 55.8
Farmer 133 34.2
Daily laborer 18 4.6
Merchant 8 2.1
Others 2 0.5
Family size <4 18 4.6
≥4 371 95.4
Family wealth terciles Poor 129 33.2
Medium 131 33.7
Rich 129 33.2
Household food security status Food secured 183 47.0
Food in-secured 206 53.0

Child health, dieting habit and environmental characteristics

Only 16 (4.1%) children experienced illness two weeks preceding data collection period. One hundred eighty-five (47.6%) children had the habit of missing any of meal schedule. More than half of the children (60.9%) had a Dietary Diversity Score (DDS) of ≥ 4 groups. Nearly all surveyed households (95.6%) had latrine and the most common (77.4%) source of drinking water was pipe water (Table 2).

Table 2. Child health, dieting habit and environmental characteristics of study participants (n = 389), Arba Minch HDSS, Southern Ethiopia, April to May 2017.

Variables Category Frequency Percentage
Illness/infection in the last two weeks prior to the survey Yes 16 4.1
No 373 95.9
Habit of hand washing before going to meal Yes 275 70.7
No 114 29.3
Habit of missing some meal schedules Yes 185 47.6
No 204 52.4
Child DDS <4 groups 152 39.1
≥ 4 groups 237 60.9
Latrine availability at home Yes 372 95.6
No 17 4.4
Waste disposal system Pit 152 39.1
Burning 105 27.0
Garbage can 54 13.9
Open field 78 20.0
Source of drinking water Pipe water 301 77.4
Protected well/ spring 36 9.3
Unprotected well/ spring 37 9.5
River 15 3.9
Mothers/care-givers ever received health or nutrition related information regarding child care Yes 182 46.8
No 207 53.2

Nutritional status of school-age children (N = 389)

The mean (SD) HAZ and BAZ of school-age children were -1.92 (2.02) and -0.15 (1.81), respectively. Using WHO growth reference for school- age children [31], 41.9% (95% CI: 37–47) were stunted and 8.0% (95% CI: 5.4–10.8) were thin. The prevalence of severe form of stunting (HAZ <-3SD) and thinness (BAZ < -3SD) among school-age children were 26.0% (95% CI: 21.9–30.8) and 3.6% (95%CI: 2.1–5.4) respectively.

Factors associated with stunting and thinness among school-age children

In the multivariable logistic regression analysis, the likelihood of stunting was significantly higher among children within the age group of 12–14 years old (AOR = 2.97, 95% CI: 1.78–4.95); male (AOR = 1.94, 95% CI: 1.21–3.10); those who live in households with medium family wealth terciles (AOR = 2.90, 95%CI: 1.39–6.04); and non-enrolled in schools (AOR = 2.25, 95% CI: (1.37–3.70). Children who had a habit of missing some meal schedules (AOR = 0.43, 95% CI: 0.26–0.72) were associated with decreased odds of stunting. Moreover, thinness was 63% less common among children who had DDS of <4 food groups than their counterparts who had DDS of ≥4 food groups (AOR = 0.37, 95%CI: 0.16–0.89) (Tables 3 and 4).

Table 3. Factors associated with stunting among school-age children (n = 389), Arba Minch HDSS, Sothern Ethiopia, 2017.

Covariates Category Stunted (HAZ < -2SD) COR (95%CI) AOR (95%CI)
Yes. N (%) No. N (%)
Age of child (in years) 6–11 93 (36.9) 159(63.1) 1 1
12–14 70 (51.1) 67 (48.9) 1.79(1.17–2.72) 2.97 (1.78–4.95)*
Child sex Male 92 (47.4) 102(52.6) 1.58(1.05–2.36) 1.94 (1.21–3.10)*
Female 71 (36.4) 124(63.6) 1 1
School Enrolment Enrolled 76 (34.2) 146 (65.8) 1 1
Non enrolled 87 (52.1) 80 (47.9) 2.01(1.39–3.15) 2.25 (1.37–3.70)*
Sex of parent/care giver Male 67 (56.8) 51 (43.2) 2.40(1.54–3.72) 1.52 (0.91–2.54)
Female 96 (35.4) 175 (64.6) 1 1s
Educational status of mother No formal education 145 (49.3) 149 (50.7) 4.16 (2.37–7.30) 1.55 (0.74–3.24)
Formal education 18 (18.9) 77 (81.1) 1 1
Educational status of father No formal education 131 (50.8) 127 (49.2) 3.20 (2.00–5.09) 1.53 (0.83–2.81)
Formal education 32 (24.4) 99 (75.6) 1 1
Family wealth terciles Poor 65 (50.4) 64 (49.6) 3.66(2.13–6.30) 2.15 (1.00–4.60)
Medium 70 (53.4) 61 (46.6) 4.14(2.41–7.11) 2.90 (1.39–6.04)*
Rich 28 (21.7) 101 (78.3) 1 1
Household food security status Food secure 77 (42.1) 106 (57.9) 1 1
Food insecure 86 (41.7) 120 (58.3) 0.95(0.66–1.48) 0.88 (0.54–1.42)
Habit of missing some meal schedules Yes 66 (35.7) 119 (64.3) 0.61(0.41–0.92) 0.43 (0.26–0.72)*
No 97 (47.5) 107 (52.5) 1 1
Child DDS <4 groups 83 (54.6) 69 (45.4) 2.36(1.56–3.58) 1.30 (0.76–2.21)
≥4 groups 80 (33.8%) 157 (66.2) 1 1

Note: AOR = Adjusted Odd Ratio; CI = Confidence Interval, COR = Crude Odd Ratio

* = p-value <0.05.

Table 4. Factors associated with thinness among school-age children (n = 391), Arba Minch HDSS, Southern Ethiopia, 2017.

Variables Category Thinness (BAZ<-2SD) COR (95%CI) AOR (95%CI)
Yes N (%) No N (%)
Age of child (in years) 6–11 17 (6.7) 235 (93.3) 0.64(0.30–1.33) 0.60 (0.28–1.27)
12–14 14 (10.2) 123 (89.8) 1 1
Family size <4 3 (16.7) 15 (83.3) 1 1
> = 4 28 (7.5) 343 (92.5) 0.41(0.11–1.50) 0.52 (0.14–2.01)
Average estimated monthly income <500 26 (9.1) 261 (90.9) 4.58(0.61–34.60) 5.00 (0.63–39.60)
500–999 4 (7.3) 51 (92.7) 3.61(0.39–33.46) 3.77 (0.40–35.44)
> = 1000 1 (2.1) 46 (97.9) 1 1
Household food security status Food secure 9 (4.9) 174 (95.1) 1 1
Food insecure 22 (10.7) 184 (89.3) 2.31(1.04–5.16) 2.13 (0.91–4.98)
Child DDS <4 groups 8 (5.3) 144 (94.7) 0.52(0.23–1.19) 0.37 (0.16–0.89)*
≥ 4 groups 23 (9.7) 214 (90.3) 1 1

Note: AOR = Adjusted Odd Ratio; CI = Confidence Interval, COR = Crude Odd Ratio;

* = p-value <0.05.

Discussion

In the present study, the prevalence of stunting was found to be 41.9% which is comparable with the study from Libo Kemkem and Fogera, Ethiopia (39.8%) and Obafemi Owode, Nigeria (40.3%) [24, 32]. However, the prevalence in this study is lower than the prevalence reported from Nkwanta district, Ghana (50.3%) [33]. The difference could be attributed to the difference in the study period, variation in the age category of target populations and the recently initiated nutrition sensitive intervention activities in the study area.

When compared with the result from China (11.68%) [34], India (18.5%), and Mexico (22.3%) [35], the prevalence of stunting in this study was much higher. The prevalence we found in this study was also higher than the findings reported from different parts of Ethiopia; Gondar (23%) [36], Fogera (30.7%) [8] and Somali (32.96%) [37]. It is also much higher than the result from Kersa and Addis Ababa where the prevalence of stunting is below 20% [38, 39]. Again it is higher than the prevalence of stunting report by national SHN survey, Ethiopia (23%) [40]. From nine kebeles of the study site of Arba Minch HDSS, one is semi-urban, the remaining are rural. Higher prevalence of stunting in this study could be due to the difference in residency characteristics of the study subjects.

In this study, about 8.0% of school-age children living in Arba Minch HDSS were thin. This finding is nearly similar to the report from Pakistan where the prevalence of thinness was 10% [41]. Nonetheless, this prevalence is lower than the finding reported from Ghana (19.4%) [33] and the prevalence reported by the study from Fogera, Ethiopia (21.4%) [24]. It is also lower than the finding from the national SHN survey, Ethiopia (23%) [40]. The decreased prevalence of thinness in this study might be related with season variation of the study period. In the study area, April and May are among the major crop production periods (wet season) which may contribute to the decreased prevalence of thinness. This is supported by previous studies in Ethiopia where seasonal variations in the prevalence of under-nutrition have been reported [42, 43]. In addition, the presence of relatively minimum percent (4.1%) of children affected by illness, one of the major causes of acute malnutrition, in this study might be contributed to the decreased prevalence.

Poor nutrition arises from multifaceted and interrelated circumstances and determinants, from immediate to underlying causes. The present study showed that the age of children was significantly associated with stunting. Older children were more likely to be stunted than the younger age group. A study in Northern, Ethiopia [24] and India [44] among school-age children showed a similar relationship between age and stunting, especially for children from 5–14 years old. This pattern might be an indication for the continuity of the process of stunting during school age in low and middle-income countries. This could probably be due to older children are in the transition life stage to adolescence when several unique challenges, including an increased body requirement for nutritional need, are observed [45].

Various studies showed that under-nutrition exists in both sexes and in different age groups differently [6, 44, 46]. In the present study, stunting was common among males than females. This is in agreement with those of other studies among school-age children in Ethiopia [24], India [6] and Sir Lanka [46]. This could be because males’ growth and development is more influenced by environmental and nutritional stress (including common childhood illnesses) than females and thus, making males more likely to be affected by chronic under-nutrition [47].

This study revealed that the odds of being stunted were more common among children who were non-enrolled in school than enrolled children. This could probably result from the possibility that non-enrollment in schools increased children’s participation in work for pay outside the household which may consequently attribute to an imbalance in their body’s nutritional intake and requirements [48]. This may have an important implication that school-based health and nutrition interventions programs should be planned in a way that will also benefit non-enrolled children.

The economic status of a household where a child lives has been identified as one of the key determinants of child nutritional status and it is stated that household economic status significantly affects access to food [49]. In this study, children in lower wealthy households were significantly associated with increased risk of stunting than children in wealthier households. The odds of stunting were three times more among children from medium family wealth terciles than children from rich family wealth terciles. These findings concurred with the result from previous research in Pakistan [41], and provide further evidence that household wealth inequality is an important risk factor for child chronic under-nutrition.

Inappropriate feeding practices could have a negative effect on child growth and development, especially in developing countries, where the accessibility of basic health service is not sufficient [6, 50]. The present study, however, affirmed that the likelihood of stunting was 57% less likely among children who had a habit of missing some meal schedules than those who did not miss their meal schedules. This might be explained by stunting is a chronic form of under-nutrition and the short term dietary habit of the child would have a minimal contribution.

In this study, the covariate, child DDS was found to be negatively associated with thinness among school-age children. Children with DDS of <4 groups were 63% less likely to be thin than those children with DDS of ≥ 4 groups. This could, however, be an area where further research is needed.

Being community-based, this study provided evidence which could be representative of all school-age children, in Arba Minch HDSS. This could be very essential for planning intervention strategies which will equally benefit school-age children regardless of their enrollment status in the schools.

One of the major limitations of this study was since the study was conducted in a wet season; it might underestimate the prevalence of thinness (acute under-nutrition). Second, a cross-sectional design was used and it was difficult to establish the cause-effect relationship between the outcome variable and the covariates. However, since there is supporting evidence, the effect estimated in this study could be a good measure of associations between the identified factors and child under-nutrition.

Conclusion

In this study, the prevalence of thinness is low when compared to the prevalence reported by a single national school health and nutrition survey in Ethiopia. However, the prevalence of stunting is very high and it is considered as a major public health concern among school-aged children in Arba Minch HDSS, Southern Ethiopia. The likelihood of stunting was significantly higher among older school age children and children who were non-enrolled in schools. Being male, and living in households with lower wealth index were also associated with increased odds of stunting. Therefore, this finding warrants the need to implement school health and nutrition programs to improve the nutritional status of school-age children in the study area. The interventions should focus towards both gender and special emphasis should also be given to increase the enrollment of children in schools. In addition, effort should be taken by stakeholders in different hierarchies to improve the family wealth status. Moreover, more-large scale studies or the national nutritional surveys need to consider school-age children as one component to regularly assess the nutritional status of this age group.

Supporting information

S1 Tool. This is the S1 English version tool.

(DOCX)

S2 Tool. This is the S2 Amharic version tool.

(DOCX)

S1 Data. This is the S1 SPSS data set.

(SAV)

Acknowledgments

First, we would like thank all study participants, data collectors and Arba Minch Zuria district administrative office. We are very thankful to Arba Minch Demographic surveillance and Health Research Center for providing us the sampling frame of HDSS. We are also greatly indebted to Arba Minch HDSS staffs for their continuous support during data collection time and the Ethiopian Public Health Institute (EPHI) for its material assistance.

Data Availability

All relevant data are within the paper and its Supporting Information files.

Funding Statement

Arba Minch University is funding this research work with a project grant code of Gov/AMU/TH.2-1/CMHS/NUR/01/09. The website of the university is http://www.amu.edu.et/. The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.

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Data Availability Statement

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