Literature DB >> 35352241

The COVID-19 Pandemic as a Threat Multiplier for Childhood Health Disparities: Evidence from St. Louis, MO.

Nadav L Sprague1, Andrew G Rundle2, Christine C Ekenga3.   

Abstract

The COVID-19 pandemic has highlighted socioeconomic and racial health disparities in the USA. In this study, we examined the COVID-19 pandemic as a threat multiplier for childhood health disparities by evaluating health behavior changes among urban St. Louis, MO, children (ages 6-14) during the COVID-19 pandemic. From 27 October to 10 December 2020, 122 parents/guardians reported on their children's health behaviors (Eating, Sleeping, Physical activity, Time outside, Time with friends in-person, Time with friends remotely, Time using media for educational proposes, Time using media for non-educational proposes, and Social connectedness) prior to and during the COVID-19 pandemic. We ran K-means cluster analyses to identify distinct health behavior cluster profiles. Relative risks were determined to evaluate behavioral differences between the two clusters. Two distinct cluster profiles were identified: a High Impact profile (n = 49) and a Moderate Impact profile (n = 73). Children in the High Impact cluster had a greater risk of being diagnosed with COVID-19, developed worsened eating habits (RR = 2.10; 95% CI = 1.50-2.93), spent less time sleeping, and spent less time outdoors (RR = 1.55; 95% CI = 1.03-2.43) than the Moderate Impact cluster. The High Impact cluster was more likely to include Black children and children from single-adult households than the Moderate Impact cluster (both p < 0.05). Our findings suggest that the COVID-19 pandemic may be a threat multiplier for childhood health disparities. Further research is needed to better understand the long-term effects of the COVID-19 pandemic on children's health.
© 2022. The New York Academy of Medicine.

Entities:  

Keywords:  Adolescent; Behavioral health; Cluster analysis; Corona virus; Disparities; Health equity; Pediatric; Public health; Youth

Mesh:

Year:  2022        PMID: 35352241      PMCID: PMC8964244          DOI: 10.1007/s11524-022-00616-8

Source DB:  PubMed          Journal:  J Urban Health        ISSN: 1099-3460            Impact factor:   5.801


Introduction

In response to the COVID-19 pandemic, caused by an acute respiratory syndrome coronavirus 2, countries worldwide have been forced to implement strict quarantine, school closures, and social distancing laws and regulations [1, 2]. While the goals of these measures have been to reduce mortality and morbidity from COVID-19, there are concerns about associated adverse health outcomes from these strict protective measures [3-5]. The COVID-19 pandemic has highlighted and exacerbated health disparities [6-8]. In the USA, mortality rates from COVID-19 are twice as high in Black, Hispanic, Latino, and Indigenous communities than their White counterparts [8]. Similar economic disparities are present, where low-income communities have higher mortality rates than high-income communities [8]. Many non-White and low-income individuals are forced to take additional health risks (such as waiting in long lines for food pantries or working as an essential worker) to ensure that basic needs are met [8]. Among children, the COVID-19 pandemic is believed to have widened educational disparities as poorly funded school districts were unable to adapt and transition to remote learning in a timely matter [9-11]. For example, several public school districts could not afford computers, tablets, and/or internet for all of their students. Thus, students without access to proper devices for remote learning faced additional learning inequities due to the digital divide [9, 10]. As equitable access to quality education is an upstream determinant of health, there is great concern over both the short-term and long-term impacts of this digital divide on the health and behavioral risk factors of both non-White and low-income children [12, 13]. In the current study, we examine the impact of the COVID-19 pandemic on health behavior outcomes among St. Louis Public Schools District (SLPS) students. SLPS is the largest non-specialized school district in the St. Louis, Missouri metropolitan area and faces well-documented health and educational disparities compared to its surrounding school districts [14-16]. In 2019, 85% of all 20,879 SLPS students were Black and/or Hispanic, and 100% of students were eligible for free or reduced lunch [16]. On March 18th 2020, due to the COVID-19 pandemic, SLPS was forced to shut down in-person schools. Three days later, the City of St. Louis issued a “Stay at Home” order, requiring residents to “stay at home when possible,” except for essential activities, such as grocery shopping, and work for essential business and government activities. Although the City of St. Louis’ “Stay at Home” order ended on May 17, 2020, SLPS schools remained closed to in-person instruction through the end of 2020. SLPS was unable to provide remote learning support to all the district’s students in the immediate aftermath of these shutdowns, thus resulting in disparate access to school-related educational and social support. We examined the pandemic’s impact using the Threat Multiplication Framework, a concept adapted from climate change research [17, 18]. A threat multiplier is an extreme event of change, such as climate change, that exacerbates stress factors in clusters of a population at pre-existing high risk of stress factors [17]. In this study, the COVID-19 pandemic is proposed as the extreme event of change; health and behavioral risk factors as the stress factors; and SLPS students as the at-risk population. Previous literature on the COVID-19 pandemic has examined singular health and behavior changes among children [19, 20]. However, little is known on the co-occurrence or clustering of multiple health and behavioral risk factors among those impacted by the COVID-19 pandemic. Using cross-sectional, parent-reported data from Fall 2020, we describe the health behavior impacts of the COVID-19 pandemic among SLPS children aged 6 to 14 years. We hypothesized that there would be racial differences in reported behavioral impacts.

Methods

This study was approved as exempt from written consent by the Institutional Review Boards at Washington University in St. Louis and Columbia University.

Study Context

Prior to the COVID-19 pandemic, a pre-existing community-academic partnership (CAP) between Gateway to the Great Outdoors and the Brown School at Washington University in St. Louis provided a nature-based education intervention to SLPS schools [21-24]. In March 2020, in response to the school closures and limited access to remote learning, the CAP quickly pivoted their intervention to provide interactive S.T.E.A.M. (science, technology, engineering, art, and math) learning kits for parents to take home when picking up their free 7-day meal kit provided by SLPS. Between April and December 2020, the CAP distributed over 4000 interactive S.T.E.A.M. to students free of charge to SLPS and the parents.

Data Collection

From 27 October to 10 December 2020, the CAP distributed a health impact questionnaire to the parents and/or guardians picking up the S.T.E.A.M. learning kits. Table 1 presents descriptive statistics for the study sample. There were 122 guardians who completed the questionnaire. The average age of the guardians was 35.5 years old (standard deviation (SD) = 7.2). Approximately 91% of the respondents were parents, 7% legal guardians, and 3% grandparents. Only 4.9% (n = 6) of respondents were Hispanic and/or Latino. The respondents were 68.9% Black, 25.4% White, 3.3% Asian, and 2.5% identified as other.
Table 1

Guardian characteristics of the study sample (n = 122)

Age (mean years (SD))35.5 (7.2)
People in household (mean (SD))4.3 (1.5)
n%
Hispanic/Latino64.90%
Race
  Black8468.90%
  White3125.40%
  Asian43.30%
  Other32.50%
Guardian status
  Parent11191.00%
  Legal guardian86.60%
  Grandparent32.50%
Relationship status
  Married/living with partnership4738.50%
  Separated108.20%
  Divorced119.00%
  Widowed54.10%
  In a relationship, but not living together64.90%
  Single4335.20%
Education
  Some high school or less1512.30%
  Grade 12 or GED3125.40%
  2-year associates degree108.20%
   > 4 years of college4133.60%
  College graduate or more2520.50%
Annual household income
  Less than $25,0007158.20%
  $25,000 to $750,0003831.10%
  More than $750,00086.60%
Child diagnosed with COVID-1954.10%
Employment status
  Employed and working from home3024.60%
  Essential/frontline worker5041.00%
  Laid-off or furloughed due to the pandemic1713.90%
  Previous unemployed/not working2520.50%
Guardian characteristics of the study sample (n = 122) The 29-item parent questionnaire included questions on how the COVID-19 pandemic impacted the child, including whether the child had been diagnosed with COVID-19. The questionnaire also included questions about nine child health behaviors (Eating, Sleeping; Physical activity; Time outside; Time with friends in-person; Time with friends remotely; Time watching TV, playing video/computer games, or using social media for educational proposes; including schoolwork, Time watching TV, playing video/computer games, or using social media for non-educational proposes; and Social connectedness). These nine questions were adapted from the National Institute of Health’s Environmental Influences on Child Health Outcomes Cohort (ECHO) COVID-19 Questionnaire [25]. For each behavior, parents/guardians were given three response options: (1) the behavior increased, (2) the behavior decreased, or (3) the behavior remained the same compared to before March 1, 2020 (the emergence of the COVID-19 pandemic in the USA).

Health Behavior Impacts

We used parent questionnaire data to evaluate whether the child had been diagnosed with COVID-19. We coded a child being diagnosed with COVID-19 as a negative health outcome and a child not diagnosed with COVID-19 as “no change.” We also evaluated changes in each of the nine health behaviors based on a priori theoretical framework. For the eating outcome, since traumatic events during childhood have been associated with increased food insecurity, risk of obesity, and risk of developing eating disorders [26-28], we defined increased and decreased eating as negative health outcome of the COVID-19 pandemic and the “remained the same” response was coded as no change. A large body of evidence suggests an inverse relationship between childhood health and increased time spending time watching TV, playing video/computer games, or using social media for non-educational proposes [27, 29, 30]. Therefore, we defined increased time spending time watching TV, playing video/computer games, or using social media for non-educational proposes as a negative health outcome of the pandemic, decreased time as a positive health outcome, and remained the same as no change. Finally, based on the current literature, we defined decreases in all of the other health behaviors—sleeping; physical activity; time outside; time with friends in-person; time with friends remotely; watching TV, playing video/computer games, or using social media for educational proposes, including schoolwork; and social connectedness—as negative health outcomes [31-36]. Increases were coded as positive health outcomes and remain the same was coded as no change. Positive health outcomes were coded as − 1, no change as 0, and negative health outcomes as 1.

Analysis

The data analysis plan was twofold. First, we applied k-means cluster analyses on the pandemic’s impact on children’s health to identify distinct health behavior cluster profiles. The k-mean cluster analysis was based on nine health behaviors and if the child was diagnosed with COVID-19. We labeled the clusters based on the Castleberry and Nolen thematic analysis approach, rather than an a priori framework [37]. Second, once the distinct health behavior cluster profiles were identified, chi-squared and t-tests were used to test differences in the different cluster profiles based on parent’s demographics and school responses to COVID-19. To understand the strength of the association between a health behavioral factor and the High Impact cluster, we also calculated the relative risk (RR) of the High Impact cluster compared to the Moderate Impact cluster for each of the nine health behaviors.

Sensitivity Analysis

Children diagnosed with COVID-19 may have had different health behavior impacts than children not diagnosed with COVID-19. Accordingly, we performed a sensitivity analysis in which children diagnosed with COVID-19 were removed from the dataset.

Results

Health Behavior Profiles

As presented in Table 2, the k-means cluster analysis identified two distinct cluster profiles: a High Impact profile (n = 49) and a Moderate Impact profile (n = 73). The two clusters were significantly different in COVID-19 diagnosis, eating habits, sleeping habits, spending time outdoors, and spending time with friends virtually (p < 0.05). Children in the High Impact cluster had a greater risk of being diagnosed with COVID-19, developed worsened eating habits (RR = 2.10; 95% CI = 1.50–2.93), spent less time sleeping, and spent less time outdoors (RR = 1.55; 95% CI = 1.03–2.43) than the Moderate Impact cluster (all p 0.02). Children in the High Impact cluster were less likely to virtually spend time with friends than children in the Moderate Impact profile (RR = 0.49; 95% CI = 0.28–0.86). Sensitivity analyses revealed the robustness of our findings as we observed similar effects when children diagnosed with COVID-19 were excluded from the analyses (Appendix).
Table 2

Comparison of clusters’ health behavior characteristics

High Impact (n (%))Moderate Impact (n (%))p-value*Relative risk and 95% CI
Total49 (100%)73 (100%)
Children diagnosed with COVID-195 (10.2%)0 (0.0%)0.02
Children with negative eating outcomes38 (77.6%)27 (37.0%) < 0.0012.10 (1.50, 2.93)
Children with negative sleeping outcomes44 (90.0%)0 (0.0%) < 0.001
Children with negative physical activity outcomes29 (59.2%)41 (56.2%)0.60.86 (0.62, 1.20)
Children with reduced time outside42 (85.7%)44 (60.3%)0.011.55 (1.03, 2.43)
Children with reduced time with friends, in person44 (90.0%)63 (86.3%)0.241.67 (0.99, 2.76)
Children with reduced time with friends, virtually16 (32.7%)31 (42.5%)0.010.49 (0.28, 0.86)
Children with reduced educational TV and video games time2 (4.1%)6 (8.2%)0.150.64 (0.37, 1.09)
Children with increased TV and video games time26 (53.1%)33 (45.2%)0.541.10 (0.85, 1.43)
Children with reduced social connectedness16 (32.7%)16 (21.9%)0.451.43 (0.86, 2.36)

*p-values are derived from t-tests

Comparison of clusters’ health behavior characteristics *p-values are derived from t-tests

Demographic Characteristics of Health Behavior Profiles

We then compared the demographic characteristics of the two impact profiles. Table 3 presents the differences in guardian demographics between the two clusters. The two clusters significantly differed in racial compositions (p = 0.023). The High Impact profile had a larger proportion of Black respondents than the Moderate Impact cluster. The Moderate Impact cluster had a larger proportion of White and Asian respondents than the High Impact cluster. Guardian relationship status also varied significantly among the two clusters (p = 0.049). The High Impact profile had a higher proportion of guardians that were separated, widowed, single, or in a relationship but not living together than the Moderate Impact cluster. There were no significant differences between the two clusters in mean guardian age, mean people in household, percent Hispanic or Latino, guardian status, guardian education level, annual household income, and employment status (p > 0.05).
Table 3

Comparison of clusters based on guardian demographic characteristics

High Impact (n = 49)Moderate Impact (n = 73)P-value
Age (mean years (SD))35.0 (6.95)35.8 (7.41)0.74
People in household (mean (SD))4.5 (1.70)4.0 (1.44)0.534
Hispanic/Latino (n (%))2 (4.1)4 (5.5)0.999
Race (n (%))0.023
  Black40 (81.6)44 (60.3)
  White7 (14.3)24 (32.9)
  Asian0 (0)4 (5.5)
  Other2 (4.1)1 (1.4)
Guardian status (n (%))0.634
  Parent44 (90.0)67 (91.8)
  Legal guardian3 (6.1)5 (6.8)
  Grandparent2 (4.1)1 (1.4)
Relationship status (n (%))0.049
  Married/living with partnership14 (28.5)33 (45.2)
  Separated5 (10.2)5 (6.8)
  Divorced2 (4.1)9 (12.5)
  Widowed3 (6.1)2 (2.7)
  In a relationship, but not living together5 (10.2)1 (1.4)
  Single20 (40.8)23 (31.5)
Education (n (%))0.463
  Some high school or less5 (10.2)10 (13.7)
  Grade 12 or GED15 (30.6)16 (21.9)
  2-year associates degree6 (12.2)4 (5.5)
   > 4 years of college14 (28.6)27 (37.0)
  College graduate or more9 (18.4)16 (21.9)
Annual household income (n (%))0.565
  Less than $25,00032 (65.3)39 (53.4)
  $25,000 to $75,00013 (26.5)25 (34.2)
  More than $75,0002 (4.1%)6 (8.2)
Employment status (n (%))0.829
  Employed and working from home10 (20.4)20 (27.4)
  Essential/frontline worker23 (46.9)27 (37.0)
  Laid-off or furloughed due to the pandemic7 (14.3)10 (13.7)
  Previous unemployed/not working9 (18.4)16 (21.9)

*Categorical variable p-values are derived from chi-square tests and for continuous variable p-values are derived from t-tests

Comparison of clusters based on guardian demographic characteristics *Categorical variable p-values are derived from chi-square tests and for continuous variable p-values are derived from t-tests

Discussion

We examined the health behavior impacts of the COVID-19 pandemic among low-income children in the St. Louis metropolitan area. We observed two distinct cluster profiles: a High Impact cluster with children more likely to have been diagnosed with COVID-19, more likely to have worsened eating habits, more likely to have spent less time sleeping, and more likely to have spent less time spent outdoors and a Moderate Impact cluster with children more likely reduced their virtual time with friends. We found the High Impact cluster’s threat multiplied, as children in this cluster were more likely to develop worsen eaten habits as well as spending less time sleeping and time outdoors during the COVID-19 pandemic than children in the Moderate Impact cluster. The majority of St. Louis city is located in a food desert or food swamp [38, 39]. Children who reside in food deserts are at higher risk of being obese or malnourished than children who do not [40-43]. With more children developing poor eating habits during the pandemic, the threat of obesity and malnutrition for children in the High Impact cluster is enhanced. The High Impact cluster also had a higher proportion of children with reduced time outside compared to the Moderate Impact cluster. However, it is important to note that over 60% of children in each cluster (66% of total children) saw reductions in time outside. Prior to the COVID-19 pandemic, there were well-documented racial and socioeconomic disparities to time spent outside, with Black and urban low-income children spending less time outdoors than White or urban high-income children, respectively [44-48]. During the COVID-19 pandemic, outdoor time has been observed as a buffer against the negative mental and physical health effects of social distancing regulations [49, 50]. Reduction in time outside is another alarming example of the COVID-19 pandemic as a threat multiplier. In the USA, a large body of evidence has demonstrated that both Black people and predominantly Black communities have been disproportionally affected by the COVID-19 pandemic [7, 37, 51, 52]. One study found that Black COVID-19 patients were on average younger than White COVID-19 patients and had a larger number of comorbidities associated with increased risk COVID-19 mortality [52]. Another study discovered a positive association between ZIP codes with higher proportions of Black and Hispanic residents and increased confirmed COVID-19 cases per capita in St. Louis, Atlanta, Baltimore, Chicago, New York City, and San Diego [53]. Our study’s results support this growing body of evidence of Black-White disparities in COVID-19-related outcomes. Prior to the COVID-19 pandemic, there were well-documented racial disparities in childhood sleep duration and sleep quality [54, 55]. One literature review found that Black children are significantly less likely to have sufficient sleep time compared to White children [54]. Additionally, there is some evidence that children from single parent households are more likely to have sleeping complications than children from two parent households [55]. Therefore, the High Impact cluster’s threat is enhanced, as this cluster that was at risk of poor sleeping outcomes prior to the pandemic has seen even further declines in sleeping patterns. Our findings suggest that the COVID-19 pandemic has widened these disparities, and therefore, Black children’s threats are multiplied. In our study, the High Impact cluster had a significantly higher proportion of children from single-adult households than the Moderate Impact cluster (p = 0.049). The COVID-19 pandemic significantly weighted the burden of childcare for parents and families [56]. Furthermore, single guardians were forced to face this burden alone [56, 57]. The additional burden and stressors experienced by single-guardian households during the pandemic may also explain why children in the High Impact cluster were less likely to reduce their virtual time with friends than children the Moderate Impact cluster. Unlike children from two adult households, children from stressed single-guardian households may have been less likely to forgo the social support provided through peer interaction. Our study is not without limitations. First, this study is cross-sectional and does not account for longitudinal changes throughout the COVID-19 pandemic. Second, the generalizability of this study is limited as only parents of students from the SLPS were included in the sample. A third weakness of our study is that we did not collect information on child age or gender in the parent questionnaire. Emerging literature suggests that there may be age and gender differences in pandemic-related health behavior changes [58, 59]. However, results to date have been mixed. For example, some studies have found gender effects [60-63] while others have not [64, 65], and in a systematic review of mental health outcomes during 2020, older adolescents exhibited more depressive symptoms than younger adolescents and children, while findings on anxiety differences by age group were mixed [20]. Finally, given that our findings were based on a small sample of predominately low-income parents, our study may not have been sufficiently powered to detect all significant associations, particularly associations with income status. While this study captured data during the first year of the pandemic, large, longitudinal studies will greatly improve our understanding of pandemic-related behavioral impacts. Our findings provide valuable information that can inform interventions to help mitigate the effects of the COVID-19 pandemic and help reduce the burdens of future threat multipliers. Our study identified the characteristics of children who experienced “threat multiplication” due to the COVID-19 pandemic. Additionally, our findings identified which specific threats cluster together upon children. Therefore, study results may inform interventions that aim to mitigate the harms caused by the COVID-19 pandemic. Moreover, our findings may inform efforts to help reduce the burden of future threat multipliers as current climate change studies suggest that minority and low-income communities in the USA are at risk of threat multiplication from other extreme weather-related events [17, 18, 66].
High Impact (n (%))Moderate Impact (n (%))p-value*
Total52 (100%)65 (100%)
Children diagnosed with COVID-19
Children with negative eating outcomes40 (76.9%)21 (32.3%) < 0.001
Children with negative sleeping outcomes38 (73.1%)2 (3.1%) < 0.001
Children with negative physical activity outcomes26 (50.0%)39 (60%)0.23
Children with reduced time outside41 (78.8%)40 (61.5%)0.005
Children with reduced time with friends, in person42 (80.8%)60 (92.3%)0.1
Children with reduced time with friends, virtually15 (28.8%)32 (49.2%) < 0.001
Children with reduced educational TV and video games time1 (1.9%)6 (9.2%)0.09
Children with increased TV and video games time27 (51.9%)29 (44.6%)0.08
Children with reduced social connectedness12 (23.1%)20 (30.7%)0.08

*P-value is derived from t-tests.

  49 in total

1.  Covid-19 and Health Equity - Time to Think Big.

Authors:  Seth A Berkowitz; Crystal Wiley Cené; Avik Chatterjee
Journal:  N Engl J Med       Date:  2020-07-22       Impact factor: 91.245

2.  The quality of the outdoor environment influences childrens health -- a cross-sectional study of preschools.

Authors:  M Söderström; C Boldemann; U Sahlin; F Mårtensson; A Raustorp; M Blennow
Journal:  Acta Paediatr       Date:  2012-11-03       Impact factor: 2.299

3.  Traumatic event exposure associated with increased food insecurity and eating disorder pathology.

Authors:  Carolyn Black Becker; Keesha Middlemass; Clara Johnson; Brigitte Taylor; Francesca Gomez; Autumn Sutherland
Journal:  Public Health Nutr       Date:  2018-08-15       Impact factor: 4.022

4.  Impact of the COVID-19 virus outbreak on movement and play behaviours of Canadian children and youth: a national survey.

Authors:  Sarah A Moore; Guy Faulkner; Ryan E Rhodes; Mariana Brussoni; Tala Chulak-Bozzer; Leah J Ferguson; Raktim Mitra; Norm O'Reilly; John C Spence; Leigh M Vanderloo; Mark S Tremblay
Journal:  Int J Behav Nutr Phys Act       Date:  2020-07-06       Impact factor: 6.457

5.  COVID-19 and obesity-lack of clarity, guidance, and implications for care.

Authors:  Stuart William Flint; Abd A Tahrani
Journal:  Lancet Diabetes Endocrinol       Date:  2020-04-29       Impact factor: 32.069

6.  The Expanding Digital Divide: Digital Health Access Inequities during the COVID-19 Pandemic in New York City.

Authors:  Chukwuma N Eruchalu; Margaret S Pichardo; Maheetha Bharadwaj; Carmen B Rodriguez; Jorge A Rodriguez; Regan W Bergmark; David W Bates; Gezzer Ortega
Journal:  J Urban Health       Date:  2021-01-20       Impact factor: 3.671

7.  INFLUENCES OF FAMILY AND HOUSEHOLD CHARACTERISTICS ON CHILDREN'S LEVEL OF PHYSICAL ACTIVITY DURING SOCIAL DISTANCING DUE TO COVID-19 IN BRAZIL.

Authors:  Cristhina Bonilha Huster Siegle; André Pombo; Carlos Luz; Luis Paulo Rodrigues; Rita Cordovil; Cristina Dos Santos Cardoso de Sá
Journal:  Rev Paul Pediatr       Date:  2020-12-07

Review 8.  How is COVID-19 pandemic impacting mental health of children and adolescents?

Authors:  Debora Marques de Miranda; Bruno da Silva Athanasio; Ana Cecília Sena Oliveira; Ana Cristina Simoes-E-Silva
Journal:  Int J Disaster Risk Reduct       Date:  2020-09-10       Impact factor: 4.320

9.  Initial Challenges of Caregiving During COVID-19: Caregiver Burden, Mental Health, and the Parent-Child Relationship.

Authors:  B S Russell; M Hutchison; R Tambling; A J Tomkunas; A L Horton
Journal:  Child Psychiatry Hum Dev       Date:  2020-10

10.  Changes of Physical Activity and Ultra-Processed Food Consumption in Adolescents from Different Countries during Covid-19 Pandemic: An Observational Study.

Authors:  María Belén Ruíz-Roso; Patricia de Carvalho Padilha; Diana C Matilla-Escalante; Paola Brun; Natalia Ulloa; Diofanor Acevedo-Correa; Wilza Arantes Ferreira Peres; Miquel Martorell; Thais Rangel Bousquet Carrilho; Letícia de Oliveira Cardoso; Fernanda Carrasco-Marín; Katherine Paternina-Sierra; María-Carmen Lopez de Las Hazas; Jhon E Rodriguez-Meza; Luisa F Villalba-Montero; Giulia Bernabè; Anthony Pauletto; Xhoajda Taci; Richar Cárcamo-Regla; J Alfredo Martínez; Alberto Dávalos
Journal:  Nutrients       Date:  2020-07-30       Impact factor: 5.717

View more
  2 in total

Review 1.  Growing up green: a systematic review of the influence of greenspace on youth development and health outcomes.

Authors:  Nadav L Sprague; Pilar Bancalari; Wasie Karim; Shabnaz Siddiq
Journal:  J Expo Sci Environ Epidemiol       Date:  2022-05-25       Impact factor: 6.371

2.  Rationale, Feasibility, and Acceptability of the Meeting in Nature Together (MINT) Program: A Novel Nature-Based Social Intervention for Loneliness Reduction with Teen Parents and Their Peers.

Authors:  Ashby Lavelle Sachs; Eva Coringrato; Nadav Sprague; Angela Turbyfill; Sarah Tillema; Jill Litt
Journal:  Int J Environ Res Public Health       Date:  2022-09-04       Impact factor: 4.614

  2 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.