Literature DB >> 23176127

Household economic impact and attitudes toward school closures in two cities in Argentina during the 2009 influenza A (H1N1) pandemic.

Ricardo Basurto-Dávila1, Roberto Garza, Martin I Meltzer, Oreste L Carlino, Rachel Albalak, Pablo W Orellano, Osvaldo Uez, David K Shay, Cora Santandrea, María del Carmen Weis, Francisco Averhoff, Marc-Alain Widdowson.   

Abstract

BACKGROUND: School closures were widely implemented in Argentina during the 2009 H1N1 influenza virus pandemic.
OBJECTIVES: To assess the economic impact of school closures on households, their effectiveness in preventing children from engaging in social group activities, and parental attitudes toward them.
METHODS: Three schools that closed for 2 weeks in response to the pandemic were identified in two socioeconomically distinct cities in Argentina. All households with children enrolled in these schools were surveyed. Direct and indirect costs attributable to closures were estimated from the household perspective. Other information collected included children activities during the closures and parental attitudes toward the intervention.
RESULTS: Completed questionnaires were returned by 45% of surveyed households. Direct and indirect costs due to closures represented 11% of imputed monthly household income in the city with lower socioeconomic status, and 3% in the other city (P=0·01). Non-childcare expenses and loss of workdays were more common in the city with lower socioeconomic status. Childcare expenses were less common and were experienced by a similar percentage of households in both cities. About three-quarters of respondents in both cities agreed with the closures. The main concern among those who disagreed with closures was their negative impact on education. Children in more than two-thirds of affected households left their home at least once during the closures to spend time in public places.
CONCLUSION: School closures may more significantly impact low-income households. Authorities should consider the range of economic impacts of school closures among families when planning their implementation.
© 2012 John Wiley & Sons Ltd.

Entities:  

Keywords:  Costs and cost analysis; healthcare economics; human; influenza; pandemics; prevention and control

Mesh:

Year:  2012        PMID: 23176127      PMCID: PMC4634266          DOI: 10.1111/irv.12054

Source DB:  PubMed          Journal:  Influenza Other Respir Viruses        ISSN: 1750-2640            Impact factor:   4.380


Introduction

Influenza transmission rates are high in schools and school‐aged children contribute to the spread of disease in the wider community. , , In Argentina, as in much of the world, 2009 pandemic influenza A (H1N1) virus (pH1N1) outbreaks occurred among the school‐aged population. , , As part of their pandemic response, the Argentinean Ministry of Health (MOH) recommended several measures to reduce disease transmission, including antiviral treatment for confirmed cases and their contacts, quarantine of symptomatic cases, and 2‐week closures of schools with a laboratory‐confirmed pH1N1 case, in addition to a general recommendation to keep children from closed schools at home and avoid outside personal contacts. Individual school closures were frequent during the months of May and June, and a nationwide closure of all schools was implemented during the first 2 weeks of July. Thereafter, the recommendation to close schools with confirmed cases for 2 weeks was kept in place through the duration of the pandemic. In addition to the closures, recommendations on social distancing measures of their children were given to families. The socioeconomic impact of school closures and their and effectiveness in preventing children sent home from engaging in other social activities are not well documented. , , We studied three schools in two Argentinean cities with significantly different socioeconomic profiles and examined (i) the economic impact of school closures on households; (ii) the opinions and attitudes of households toward closures; and (iii) household compliance during the school closures with the recommendation of preventing social contact among children.

Methods

Setting, study design, and data collection

In September 2009, after winter pandemic influenza activity had largely subsided in Argentina, we conducted a survey among households with children attending one of three public schools. Two of them (school A: ages 6–12; and school B: ages 13–15) were located in the city of Ushuaia, province of Tierra del Fuego, and the third (school C: ages 6–15) in the city of San Salvador de Jujuy, province of Jujuy. Tierra del Fuego is the southernmost province in Argentina and has one of the lowest poverty rates in the country. In contrast, Jujuy is located in the extreme northwest of the country and has among the highest poverty rates in the nation. All three schools closed for 2 weeks in response to confirmed cases of pH1N1 among pupils; schools A and B closed in mid‐June, and school C in early September. Written explanation of the study, a consent form guaranteeing anonymity and confidentiality, and questionnaires were provided to children to take home to their parents during the week of September 7–11 in schools A and B and during the week of September 14–18 in school C. The questionnaire asked about household demographic characteristics; health conditions of adults and children; economic costs due to the closures; children activities during closures; and parental attitudes toward the intervention. We sent follow‐up reminders after 2 days to parents who had not returned the questionnaire. Local health authorities collected completed questionnaires at schools, removed identifiable information, and sent them to MOH in Buenos Aires, who forwarded them to the US Centers for Disease Control and Prevention (CDC). The investigation protocol was reviewed by institutional review boards at CDC and MOH and was deemed to be part of the emergency public health response to the pandemic and not research.

Analysis

Survey data were entered into an Access database (Microsoft Corporation, Redmond, WA, USA) and analyzed using stata 11 (StataCorp LP, College Station, TX, USA). We combined the data from the schools in the city of Ushuaia and compared these responses to those from the school in Jujuy. Statistical analyses were conducted using bootstrapping, a methodology in which the original sample is resampled multiple times to produce a larger sample that has a distribution with similar characteristics to the original. We generated 2000 bootstrapped samples and tested differences between the two cities in household characteristics and illness rates during the school period using Pearson chi‐squared tests. For the variables of interest, we used the same samples to generate 95% confidence intervals of their means and used Wald tests to determine the statistical significance of differences in means between the two cities. From the perspective of the household, direct (out‐of‐pocket) and indirect (income losses) costs due to school closures in the two cities were compared. Additionally, opinions regarding school closures and adherence to social‐distancing recommendations during the closures were compared. Because household income was higher in Ushuaia than in Jujuy, household costs due to closures were compared both in absolute terms and relative to household income. Monthly household income information was aggregated into four categories (<Arg$1000; Arg$1001–Arg$2000; Arg$2001–Arg$3000; and >Arg$3000); actual monthly household income was imputed using this categorical information and the 2009 Encuesta Permanente de los Hogares (EPH) survey (see Appendix). Then, among all households, average costs due to the closures as a proportion of imputed income were calculated.

Results

Demographic characteristics and illness

Questionnaires were sent to 499 households, and 226 were completed and returned (45% overall response rate, 49% in Ushuaia, and 41% in Jujuy). Clear socioeconomic differences among respondents existed between the two cities (Table 1). Households in Jujuy were larger on average than those in Ushuaia. Household income, parental education, and full‐time employment were higher in Ushuaia than in Jujuy. Prevalence of medical conditions with high risk of serious complications with influenza infection was similar in Ushuaia and Jujuy. Incidence of influenza‐like illness (ILI; defined as the presence of fever with cough or sore throat) during the time of the school closures was higher in Jujuy: ILI symptoms among adults were reported in 17% of households in Ushuaia and 26% in Jujuy (P = 0·20), while ILI symptoms among children were reported in 22% of households in Ushuaia and 30% in Jujuy (P = 0·31).
Table 1

Household characteristics and illness during school closure*

Ushuaia no. (%)Jujuy no. (%) P‐value**
Total households (n = 226)14581
Adults in household (n = 225)
 One12 (8)11 (14)0·020
 Two89 (61)30 (38)
 Three or more44 (30)39 (49)
Children ages 4 or younger (n = 223)
 None107 (75)46 (57)0·027
 One28 (20)21 (26)
 Two or more7 (5)14 (17)
Children ages 5–12 (n = 223)
 None50 (35)4 (5)<0·001
 One50 (35)27 (33)
 Two or more42 (30)50 (62)
Children ages 13–16 (n = 223)
 None88 (62)42 (52)0·053
 One44 (31)26 (32)
 Two10 (7)13 (16)
Total Household Income (n = 205)***
 ARG$1000 or less4 (3)49 (65)<0·001
 ARG$1001–$20003 (2)18 (24)
 ARG$2001–$300013 (10)4 (5)
 ARG$3001 or more110 (85)4 (5)
Education, head of household (n = 217)
 Primary school or less17 (12)50 (67)<0·001
 Secondary school51 (36)21 (28)
 Tertiary school26 (18)4 (5)
 University48 (34)0 (0)
Employment, head of household (n = 217)
 Public sector65 (45)14 (19)0·001
 Private sector29 (21)15 (20)
 Self‐employed31 (22)24 (32)
 Business owner6 (4)0 (0)
 Family business, no fixed income2 (1)9 (12)
 Unemployed, retired, stay at home10 (7)12 (16)
Work schedule, head of household (n = 214)
 Full‐time103 (73)25 (35)<0·001
 Part‐time6 (4)11 (15)
 No fixed schedule23 (16)24 (33)
 Does not work10 (7)12 (17)
Adults available to care for children (n = 220)
 Unemployed/retired /stay at home34 (24)39 (51)0·003
 Part‐time work23 (16)18 (25)0·248
 Flexible schedule32 (23)43 (59)<0·001
 Student (age 16 or older)41 (28)19 (25)0·462
Only one adult in household (n = 226)
 Yes12 (8)11 (14)0·307
Health conditions of high risk during influenza infection (n = 226)††
 Adults30 (21%)15 (19%)0·486
 Children11 (8%)10 (12%)0·329
Influenza‐like illness symptoms during closures†††
 Among adults (n = 220)24 (17%)21 (26%)0·204
 Among children (n = 222)32 (22%)24 (30%)0·310

*Two schools were surveyed in Ushuaia (grades 1–6 and 7–9) and one school in Jujuy (grades 1–9). Schools in Ushuaia closed in May 2009 and the school in Jujuy closed in September 2009.

**P‐values were calculated using Pearson chi‐squared tests from 2000 bootstrapped samples.

***Exchange rate on 1 September 2009 was 3·8 Argentine pesos per U.S. dollar.

†Primary school refers to basic education, grades 1–6; secondary school refers to the 6 years following primary school; tertiary school refers to post‐secondary education, usually technical and of shorter duration than a university degree.

††High‐risk conditions include asthma, chronic respiratory conditions, chronic heart conditions, diabetes, renal disease, pregnancy status (only adults), and immune system conditions.

†††The case definition for ILI was the presence of fever with cough or sore throat.

Household characteristics and illness during school closure* *Two schools were surveyed in Ushuaia (grades 1–6 and 7–9) and one school in Jujuy (grades 1–9). Schools in Ushuaia closed in May 2009 and the school in Jujuy closed in September 2009. **P‐values were calculated using Pearson chi‐squared tests from 2000 bootstrapped samples. ***Exchange rate on 1 September 2009 was 3·8 Argentine pesos per U.S. dollar. †Primary school refers to basic education, grades 1–6; secondary school refers to the 6 years following primary school; tertiary school refers to post‐secondary education, usually technical and of shorter duration than a university degree. ††High‐risk conditions include asthma, chronic respiratory conditions, chronic heart conditions, diabetes, renal disease, pregnancy status (only adults), and immune system conditions. †††The case definition for ILI was the presence of fever with cough or sore throat.

Childcare arrangements and direct costs

Most households, 82% in Ushuaia and 88% in Jujuy, were able to make arrangements for either a family member or a friend to care for children. About 14% of households hired a babysitter or made other special childcare arrangements, and 3% reported that children were left alone (Table 2). Not all households with special childcare arrangements had childcare expenses: only 6% of households in Ushuaia and 4% in Jujuy reported these expenses. In contrast, although most households in both cities reported zero costs from other types of expenses – food, transportation, or other miscellaneous expenses –, these were more common, especially in Jujuy where 44% of households had at least one of these types of expenses, compared with 21% in Ushuaia (P < 0·001).
Table 2

Childcare arrangements and household costs due to school closures*,**

Ushuaia n (%; 95% CI)Jujuy n (%; 95% CI) P‐value
Childcare arrangements (n = 202)
 Relative or family friend cared for children103 (82; 75–88)67 (88; 81–95)0·196
 Hired nanny16 (13; 7–18)5 (7; 1–12)0·123
 Other special arrangement4 (3; 0–6)3 (4; 0–8)0·777
 Children were left alone3 (2; 0–5)1 (1; 0–4)0·564
Households with costs due to the closures
 Childcare expenses (n = 214)8 (6; 2–10)3 (4; 0–8)0·561
 Other expenses (n = 194)27 (21; 14–29)30 (44; 32–56)<0·001
 Transportation7 (6; 2–10)13 (19; 10–29)0·009
 Food8 (6; 2–11)18 (26; 16–37)0·001
 Other miscellaneous21 (17; 10–23)21 (31; 20–42)0·029
 Lost workdays (n = 198)36 (27; 20–34)7 (11; 3–19)0·002
 Lost work income (n = 192)4 (3; 0–6)4 (6; 0–13)0·329

*Confidence intervals and P‐values were estimated using 2000 bootstrapped samples.

**Boldface indicates point estimates for percentages and is used only for easier reading of the table.

Childcare arrangements and household costs due to school closures*,** *Confidence intervals and P‐values were estimated using 2000 bootstrapped samples. **Boldface indicates point estimates for percentages and is used only for easier reading of the table. Average childcare expenditures were higher in Ushuaia than in Jujuy: Arg$36 vs. Arg$7 (P = 0·06). Mean non‐childcare expenditures were higher in households in Jujuy, although not statistically significant: Arg$48 vs. Arg$86 (P = 0·20). When average expenditures were calculated only among households that had expenses, similar expenditure patterns were observed.

Indirect costs

In Ushuaia, 27% of households reported adults missing workdays, compared with 11% in Jujuy (P = 0·002, Table 2). The average number of workdays lost in the household was also significantly higher in Ushuaia than in Jujuy: 2·3 days vs 0·3 days, respectively (P < 0·001). In Ushuaia, only 11% of households with lost workdays also reported lost work income, compared with 57% in Jujuy. Average income lost due to missed workdays was Arg$35 in Ushuaia and Arg$13 in Jujuy (P = 0·293). Two households in Ushuaia and one in Jujuy (data not shown) reported employment loss due to closure‐related work absences. We do not include job loss in our calculations of economic costs summarized below.

Costs of closures relative to monthly household income

Childcare expenses as a percentage of household income were higher in Jujuy (1·4%) than in Ushuaia (0·5%), but the difference was not statistically significant (P = 0·31). Work‐related lost income as percentage of household income was also higher in Jujuy (1·8%) than in Ushuaia (0·5%), but this difference was not statistically significant (P = 0·26). Non‐childcare expenses as a share of household income were significantly larger in Jujuy than in Ushuaia (8·4% vs. 1·6%, P = 0·01). Total household costs due to the closures in Ushuaia represented about 2·6% of monthly household income, while in Jujuy they amounted to 11·3% of monthly household income (P = 0·01) (Figure 1).
Figure 1

 Average household costs, as a percentage of household income, due to closures of three schools during the 2009 pH1N1 pandemic in two Argentinean cities. Household income was imputed (see Appendix) Whiskers represent 95% confidence intervals, estimated using 2000 bootstrapped samples. Statistical significance for differences between the two cities: *P < 0·05.

Average household costs, as a percentage of household income, due to closures of three schools during the 2009 pH1N1 pandemic in two Argentinean cities. Household income was imputed (see Appendix) Whiskers represent 95% confidence intervals, estimated using 2000 bootstrapped samples. Statistical significance for differences between the two cities: *P < 0·05.

Household opinions regarding school closures

Most respondents (70%) reported that school closures did not affect their household’s economy (Table 3). This percentage, however, was larger in Ushuaia than in Jujuy: 75% vs. 61%, respectively (P = 0·04). Similarly, while only 6% of households in Ushuaia reported that the closures affected them “considerably”, 18% of households in Jujuy reported they had been affected as such (P = 0·02).
Table 3

Household opinion regarding school closures*,**

Ushuaia n (%; 95% CI)Jujuy n (%; 95% CI) P‐value
Do you think school closure affected your household’s economy? (n = 209)
 No101 (75; 68–82)45 (61; 50–72)0·039
 Yes, somewhat26 (19; 13–26)16 (22; 13–31)0·693
 Yes, considerably8 (6; 2–10)13 (18; 9–26)0·016
Do you agree with the closure? (n = 221)
 Yes109 (78; 71–84)58 (72; 62–81)0·295
 No21 (15; 9–21)20 (25; 15–34)0·090
 Unsure10 (7; 3–11)3 (4; 0–8)0·259
If you do not agree or unsure, why? (n = 47)***
 My child’s education would be affected13 (52; 31–73)18 (82; 65–99)0·024
 Closures do not protect against influenza11 (44; 24–64)7 (32; 11–52)0·381
 Economic impact of closure1 (4; 0–12)1 (5; 0–14)0·922
 Did not have alternatives for childcare0 (0; –)1 (5; 0–14)0·286
 My child would not get school lunches0 (0; –)1 (5; 0–14)0·286
 Another reason7 (28; 10–46)1 (5; 0–14)0·020

*Confidence intervals and P‐values were estimated using 2000 bootstrapped samples.

**Boldface indicates point estimates for percentages and is used only for easier reading of the table.

***Households in the bottom panel are those who either disagreed with the closures or were not sure they agreed with them and gave a reason for it. Multiple answers were allowed.

Household opinion regarding school closures*,** *Confidence intervals and P‐values were estimated using 2000 bootstrapped samples. **Boldface indicates point estimates for percentages and is used only for easier reading of the table. ***Households in the bottom panel are those who either disagreed with the closures or were not sure they agreed with them and gave a reason for it. Multiple answers were allowed. About 78% of households in Ushuaia and 72% in Jujuy (P = 0·29) reported agreement with school closures. Among those that did not agree or were uncertain, the most common reason was concern about the impact of closures on children’s education, reported by 52% of these households in Ushuaia and 82% in Jujuy. The next most important reason was skepticism about their effectiveness in protecting children, reported by 44% of households who did not agree with closures in Ushuaia and 32% in Jujuy. Only two households, one in each province, reported concerns about an economic impact of the closures as a reason to disagree with them.

Compliance with social distancing recommendations

Overall, 67% of households reported that children visited public places at least once during the 2 weeks schools were closed, and 45% left the house several times. The most commonly visited place was the supermarket. Other commonly visited places were plazas and recreation areas, shopping malls, and indoor gatherings with groups of four or more friends. There were a few differences between the two cities in places visited by children. For example, children in Jujuy were more likely to attend religious events, use public transportation, and go to plazas and recreation areas than children in Ushuaia. Children in Ushuaia were more likely to go to the movie theater and restaurants than children in Jujuy were (Figure 2). The frequency of ILI reported by children in either city who visited public places was not different to the frequency among those who did not visit such places (data not shown).
Figure 2

 Places visited by children during the closures of three schools in the 2009 pH1N1 pandemic in two Argentinean cities. Statistical significance for difference between the two cities: *P < 0·1, **P < 0·05, ***P < 0·01.

Places visited by children during the closures of three schools in the 2009 pH1N1 pandemic in two Argentinean cities. Statistical significance for difference between the two cities: *P < 0·1, **P < 0·05, ***P < 0·01.

Discussion

In our study of school closures during the 2009 pandemic in two socioeconomically diverse cities in Argentina, we found differences in the economic impact of this intervention between the two cities. In Ushuaia (the wealthier city), the total costs and workdays lost due to the closures were higher than in Jujuy; yet, as a percentage of income, households in Jujuy experienced the greater economic impact. This result was also reflected in subjective household opinions regarding the impact of closures, where a larger proportion of households in Jujuy reported they were affected by the intervention. Interestingly, the proportion of households in the wealthier city (75%) that considered the closures did not affect them was similar to the proportion of households that did not consider closures a problem in a recent report in the United States. This finding suggests that local contexts are important in assessing the impact of school closures. Although few households had childcare‐related expenses during the closures, we found that non‐childcare expenses, such as food and transportation, were common. Nearly half the households in the city with lower socioeconomic status were affected by these expenses, probably in large part due to higher dependence on school‐provided meals than households in Ushuaia (Jujuy school staff, personal communication, September 2010). Studies of the economic costs of school closures often focus on childcare expenses and lost work income, but our findings suggest that – at least in middle‐income countries like Argentina, where households are larger, and thus, adults are more likely to be available to care for children – other types of expenses may be a more important burden for households. Jujuy households appear to have experienced higher income loss than Ushuaia households when working adults stayed home to care for the children. Although households in Ushuaia were more likely to report lost workdays, only 11% of households that lost workdays also reported lost work income, compared with 57% in Jujuy. In our sample, the percent of householders in Jujuy who worked with no fixed schedule is twice as large as in Ushuaia (33% vs. 16%, Table 1), indicating that adults in Ushuaia may be more likely to have salaried jobs where a lost workday may not lead to income loss, while adults in Jujuy may be more likely to earn income on a per hour or day worked basis. Although we found broad support for school closures in both cities (76%), despite the differential economic impact, this was lower than the support recently reported in the United States (90%). However, this difference might be attributed to the fact that only 26% of closures in the United States survey lasted 4 days or longer. Concern about the educational impact of the intervention was particularly high among Jujuy households, perhaps because they have lower access to means to minimize this impact (e.g., private tutors) than households in Ushuaia. This is consistent with findings that the impact of summer school breaks on learning is larger among children from disadvantaged backgrounds. In addition, of those who disagreed with the closures, 38% cited a lack of belief that they protect children from influenza. In both cities, despite recommendations from MOH, children in more than two‐thirds of households left their home during the school closures to spend time in public places. This is consistent with previous findings in Australia and the United States that school closures do not pre‐empt children from gathering in alternative locations such as markets, friends’ houses, or shopping malls. , , However, the impact of lack of compliance on the effectiveness of the intervention is not clear because contact patterns may be lower during the closure, thus reducing virus transmission even if children visit public places. A recent study estimated the influenza reproduction number decreased by 35% during holidays due to lower contact rates. Moreover, empirical studies have found significant impacts of school closures in reducing influenza transmission among school‐aged children and the community, , , including studies conducted in Argentina. , . Additionally, a recent Australian study found high compliance with social isolation recommendations during school closures in the early stages of the 2009 pandemic, perhaps due to high awareness and uncertainty about health risks. There are several limitations to our study. First, we have a small, convenience sample of households and a low response rate, so our results may not be representative of households in the cities where these schools were located. Second, schools were selected based on their willingness to participate in the study, resulting in households in Ushuaia being surveyed 3 months after the school closures, while households in Jujuy were surveyed only 1 week after the closure; thus, some of the estimated differences between the two cities may be due to recall bias. Research suggests recall bias for earnings is small within 1 year and higher earnings relative to income are easier to recall; however, it is unclear how this result may apply to recall of costs that represent only a fraction of household income. Third, a large number of heads of household in Ushuaia were employed in the public sector. Estimates from the 2001 Argentinean National Census indicate that the proportion of public employees in Tierra del Fuego is larger than in Jujuy, but the difference (37% vs. 30%) is not as large as in our sample. Public workers may be more likely than part‐time or self‐employed workers to receive paid sick leave. Fourth, there were significant differences between the two cities in the ages of children living in households affected by the closures; this might explain, at least partially, the differences in costs. Finally, we may have underestimated household costs because we did not have interviewers explaining questions to parents or guardians; for example, several respondents who said their children went to restaurants, movie theaters, or used public transportation during the closure also reported zero non‐childcare expenses; some of those expenses might not have occurred without the closure and should have been reported. In addition, because we used the household perspective, we did not estimate societal costs such as expenses to plan and implement the closures and productivity losses due to lost workdays. Our results indicate that school closures may disproportionately affect low‐income households. It is not clear whether this impact (11% of imputed monthly household income on average) is significant, but 20% of households in the lower‐income city subjectively considered the impact to be substantial. Policymakers should consider how to minimize the negative effects of closures on households, especially in low‐income areas; for example, strategies used to cope with large disasters could be adopted to ensure the continuity of school lunch programs during school closures. Legislation may also be needed to guarantee job security for parents staying home to care for children during a mandated school closure. Policies to reduce the educational impact of closures should be considered as well, as this was the most important concern expressed by parents; for example, measures used to ensure continuity of school lunch programs could be modified to accommodate giving instructions to parents on lessons or readings to assign to their children. Distance learning could also be used, although it may not be feasible in middle‐ and lower‐income settings. Finally, authorities should develop a communication strategy to help parents understand the benefits of school closures and the importance of practicing social distancing during the closures.

Addendum

Ricardo Basurto‐Dávila is the principal investigator (PI). He contributed to study conception and design, questionnaire design, data collection, data entry, data analysis, and manuscript drafting and revision; Roberto Garza is the co‐PI. He contributed to study conception and design, questionnaire design, data entry, interpretation of results, and manuscript drafting and revision; Martin I. Meltzer contributed to study design, questionnaire design, data analysis, interpretation of results, and manuscript revision; Oreste L. Carlino led the Argentinean MOH team. He contributed to study conception and design, questionnaire design, and manuscript revision; Rachel Albalak contributed to study design, questionnaire design, interpretation of results, and manuscript revision; Pablo W. Orellano led the investigation efforts in Tierra del Fuego. He contributed to school recruitment and training, data collection, and manuscript revision; Osvaldo Uez contributed to coordination efforts with authorities in Jujuy, school recruitment and training, data collection, and manuscript revision; David K. Shay contributed to study design, interpretation of results, and manuscript revision; Cora Santandrea contributed to study design, questionnaire design, school recruitment, data collection, and manuscript revision; María del Carmen Weis contributed to study design, questionnaire design, school recruitment, and manuscript revision; Francisco Averhoff contributed to study conception and design, questionnaire design, interpretation of results, and manuscript revision; Marc‐Alain Widdowson contributed to study conception and design, questionnaire design, interpretation of results, and manuscript revision.

Biographical sketch

Dr. Basurto‐Dávila is an Economist and the Los Angeles County Department of Public Health. He was a Prevention Effectiveness Fellow at the U.S. Centers for Disease Control and Prevention when this work was conducted. His research interests include health economics, burden of illness, and control of infectious diseases.

Disclosure of competing interests

The authors have no competing interests. Data S1. Parental consent form and questionnaire. Supporting info item Click here for additional data file.
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Journal:  Emerg Infect Dis       Date:  2008-07       Impact factor: 6.883

8.  Pandemic potential of a strain of influenza A (H1N1): early findings.

Authors:  Christophe Fraser; Christl A Donnelly; Simon Cauchemez; William P Hanage; Maria D Van Kerkhove; T Déirdre Hollingsworth; Jamie Griffin; Rebecca F Baggaley; Helen E Jenkins; Emily J Lyons; Thibaut Jombart; Wes R Hinsley; Nicholas C Grassly; Francois Balloux; Azra C Ghani; Neil M Ferguson; Andrew Rambaut; Oliver G Pybus; Hugo Lopez-Gatell; Celia M Alpuche-Aranda; Ietza Bojorquez Chapela; Ethel Palacios Zavala; Dulce Ma Espejo Guevara; Francesco Checchi; Erika Garcia; Stephane Hugonnet; Cathy Roth
Journal:  Science       Date:  2009-05-11       Impact factor: 47.728

9.  Social contact networks for the spread of pandemic influenza in children and teenagers.

Authors:  Laura M Glass; Robert J Glass
Journal:  BMC Public Health       Date:  2008-02-14       Impact factor: 3.295

Review 10.  Closure of schools during an influenza pandemic.

Authors:  Simon Cauchemez; Neil M Ferguson; Claude Wachtel; Anders Tegnell; Guillaume Saour; Ben Duncan; Angus Nicoll
Journal:  Lancet Infect Dis       Date:  2009-08       Impact factor: 25.071

View more
  7 in total

Review 1.  Public perceptions of non-pharmaceutical interventions for reducing transmission of respiratory infection: systematic review and synthesis of qualitative studies.

Authors:  Emma Teasdale; Miriam Santer; Adam W A Geraghty; Paul Little; Lucy Yardley
Journal:  BMC Public Health       Date:  2014-06-11       Impact factor: 3.295

2.  Simulating the effect of school closure during COVID-19 outbreaks in Ontario, Canada.

Authors:  Elaheh Abdollahi; Margaret Haworth-Brockman; Yoav Keynan; Joanne M Langley; Seyed M Moghadas
Journal:  BMC Med       Date:  2020-07-24       Impact factor: 8.775

3.  Why did some parents not send their children back to school following school closures during the COVID-19 pandemic: a cross-sectional survey.

Authors:  Lisa Woodland; Louise E Smith; Rebecca K Webster; Richard Amlôt; Antonia Rubin; Simon Wessely; James G Rubin
Journal:  BMJ Paediatr Open       Date:  2021-09-29

Review 4.  COVID-19-What Price Do Children Pay? An Analysis of Economic and Social Policy Factors.

Authors:  Stephanie Lange; Claire-Marie Altrock; Emily Gossmann; Jörg M Fegert; Andreas Jud
Journal:  Int J Environ Res Public Health       Date:  2022-06-21       Impact factor: 4.614

5.  Effect of winter school breaks on influenza-like illness, Argentina, 2005-2008.

Authors:  Roberto C Garza; Ricardo Basurto-Dávila; Ismael R Ortega-Sanchez; Luis Oreste Carlino; Martin I Meltzer; Rachel Albalak; Karina Balbuena; Pablo Orellano; Marc-Alain Widdowson; Francisco Averhoff
Journal:  Emerg Infect Dis       Date:  2013-06       Impact factor: 6.883

Review 6.  The impact of unplanned school closure on children's social contact: rapid evidence review.

Authors:  Samantha K Brooks; Louise E Smith; Rebecca K Webster; Dale Weston; Lisa Woodland; Ian Hall; G James Rubin
Journal:  Euro Surveill       Date:  2020-04

7.  Child and Family Outcomes Following Pandemics: A Systematic Review and Recommendations on COVID-19 Policies.

Authors:  Vanessa C Fong; Grace Iarocci
Journal:  J Pediatr Psychol       Date:  2020-11-01
  7 in total

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