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Children's Cooperation Denmark: a 3-year System Dynamics Trial (Child-COOP)
INTRODUCTION Lack of physical activity (PA) and sedentary lifestyle in Danish children is a major challenge. New strategies are needed to combat this development. Early awareness and promotion of healthy PA behaviour is important, as PA behaviour in childhood often is manifested across adolescence and into adulthood. Social inequity in health is also mirrored in PA behaviour among children. Children in families with few resources are known to be less physically active compared to peers in more affluent families. One way to promote healthy PA behaviour in children, which also considers inequity challenges, is to develop more health-enhancing active leisure communities. Unfortunately, dropout from active leisure communities is common in the transition from childhood to adolescence. These high dropout rates call for identification of initiatives that encourage children to engage in active leisure communities throughout childhood and youth. However, both sedentary behaviour and moderate-to-vigorous PA have been found to be independent predictors for health status, and they are not mutually related. Hence, focussing solely on reaching the recommended levels of daily PA is not sufficient. Instead, a comprehensive strategy is warranted to ensure that more time is spent on light, moderate and vigorous PA and less time on sedentary activity. Promoting (initiating and sustaining) a healthy PA behaviour is not an easy task because PA behaviour is shaped by a complex interplay between a wide range of factors at individual, family, community and society levels. Interventions building on a participatory system dynamics approach has been suggested as a feasible way to address such complex problems as they combine the current evidence base on prevention, best practice and local wisdom to achieve new knowledge and create solutions. A participatory system dynamics approach implies that a variety of engagement and solutions at different system levels may occur at both the interpersonal and organisational levels. This strategy has already proven successful in several international childhood obesity prevention interventions. The participatory system dynamics approach remains to be tested in a large-scale Danish context. During the past year, our research group has tested the participatory system dynamics approach in different settings in Denmark. We propose to conduct a participatory system dynamics trial across ten communities in five municipalities to create local solutions to promote healthy PA behaviour in Danish schoolchildren through Child-COOP.
AIM
The overall aim is to evaluate a participatory system dynamics approach to promote (increase and sustain) healthy PA behaviour in 6- to 12-year-old schoolchildren in local communities in Denmark through the following sub-aims:
- Measuring the effectiveness on the children's PA behaviour by assessing changes in time spent sedentary and time spent at light, moderate and vigorous intensity at three-year follow-up
- Estimating changes at system level such as assessing changes in community systems, community networks structure, policy and practice at three-year follow-up
- Identifying health-economic implications by assessing both a cost consequence analysis and an explorative analysis of the derived effects at three-year follow-up
- Conducting a process evaluation to map a final systems program theory on "what works for whom under what circumstances" to be used as a framework in future recommendations and up-scaling.
TRIAL COMPONENTS
The Child-COOP trial consists of three stages:
Stage 1: Preparation: selection of communities, training and monitoring (12 months) Selection of communities: The communities will be selected and defined by the municipalities based on their local challenges related to children's PA behaviour, socially deprived areas and motivation.
Training: Employees from all participating municipalities will receive training in how to run local community initiatives based on a participatory system dynamics approach. The target group for the training is Child-COOP municipal coordinators and other employees in the municipality taking part in the project. The training will consist of seminars and homework. The purpose of the training is to build capacity for municipal employees to understand and act within the framework of the participatory system dynamics approach and to solve complex health challenges regarding children's PA behaviour.
Monitoring: A local childhood health profile will be generated to outline daily PA behaviour, sleep patterns and leisure time activities at baseline (based on survey and objective data) and factors associated with PA behaviour in children, e.g. mental health, screen use and parental support. This profile will be generated at baseline based on survey and objective data (see details in "Individual level: data collection and measurements").
Stage 2: Recruitment, group model building (GMB) and systems mapping (9 months) Recruitment of key leaders and local stakeholders: A coordinator from each municipality will together with the research team identify and recruit key leaders (e.g. local politicians, department heads, municipality leaders) and local stakeholders (e.g. school board members, school principal, school nurse, sport club representatives). Key leaders and local stakeholders will be selected based on authority and capacity to initiate actions that are likely to influence the children's PA behaviour across sectors and organisations. During this stage, key leaders must commit to allocate resources to ensure subsequent implementation. The aim is to recruit 12-15 key leaders and local stakeholders from each community.
GMB process and systems mapping: During this stage, three workshops (WS1, WS2 and WS3) will be held at each participating community. WS1 and WS2 will engage the key leaders and stakeholders, and local childhood health data will be presented to provide the first critical engagement step. In these two workshops, the key leaders and stakeholders will map the system by building a causal loop diagram (CLD) to understand how the perceived local system affects the children's daily PA behaviour in their community. In WS3, all community members willing to engage in changing the local system will be invited to identify priority areas for action based on the developed CLD from WS1 and WS2.
Stage 3: Implementation of actions, support and monitoring (24-30 months) Actions and support: The output of WS3 is the formation of local working groups that will focus on implementing the chosen actions. The working groups will be supported and supervised by a backbone office consisting of the Child-COOP municipality coordinator(s) and the research team. A follow-up workshop (WS4) will be held with the key stakeholders six months after completion of WS3 to review the consolidated priority actions. To increase and maintain motivation and actions in the local community, subsequent follow-up meetings will be held with the working groups when needed during the 24-30 months after WS3.
Monitoring: Survey childhood health data will be collected from the study population on an annual basis and from the newly enrolled schoolchildren (first grade) every year (see details in "Individual level: data collection and measurements"). At an annual meeting in each community, these data on the children's health and well-being in the local community will be presented to actions groups, key leaders and stakeholders to sustain and promote engagement.
RESEARCH PLAN
Child-COOP will be evaluated through an assessment of outcomes at individual and systems level, process and economic implications. Combined, these three elements will give an essential understanding of what it would require to upscale Child-COOP to regional or national level. Few guidelines exist on how to evaluate public health programs in complex adaptive systems. Child-COOP is inspired by both the Medical Research Council recent evaluation guidelines for process evaluations of complex interventions and the newly developed ENCOMPASS framework aiming to generate a comprehensive, yet practically realistic evaluation. The evaluation will be structured al...
Mostrar másChildren's Cooperation Denmark (Child-COOP): Promoting Healthy Physical Activity Behaviour in Children Aged 6-12 Years: a 3-year System Dynamics Trial
- Melby PS, Elsborg P, Nielsen G, Lima RA, Bentsen P, Andersen LB. Exploring the importance of diversified physical activities in early childhood for later motor competence and physical activity level: a seven-year longitudinal study. BMC Public Health. 2021 Aug 2;21(1):1492. doi: 10.1186/s12889-021-11343-1.
- Kristensen PL, Moller NC, Korsholm L, Wedderkopp N, Andersen LB, Froberg K. Tracking of objectively measured physical activity from childhood to adolescence: the European youth heart study. Scand J Med Sci Sports. 2008 Apr;18(2):171-8. doi: 10.1111/j.1600-0838.2006.00622.x. Epub 2007 Jun 6.
- Ryan DJ, Stebbings GK, Onambele GL. The emergence of sedentary behaviour physiology and its effects on the cardiometabolic profile in young and older adults. Age (Dordr). 2015 Oct;37(5):89. doi: 10.1007/s11357-015-9832-7. Epub 2015 Aug 28.
- Rutter H, Cavill N, Bauman A, Bull F. Systems approaches to global and national physical activity plans. Bull World Health Organ. 2019 Feb 1;97(2):162-165. doi: 10.2471/BLT.18.220533. Epub 2018 Dec 19. No abstract available.
- Hovmand P. Community based systems dynamics. 1. ed. New York: Springer-Verlag; 2014
- Allender S, Brown AD, Bolton KA, Fraser P, Lowe J, Hovmand P. Translating systems thinking into practice for community action on childhood obesity. Obes Rev. 2019 Nov;20 Suppl 2(Suppl 2):179-184. doi: 10.1111/obr.12865. Epub 2019 Jul 29.
- Luna Pinzon A, Stronks K, Dijkstra C, Renders C, Altenburg T, den Hertog K, Kremers SPJ, Chinapaw MJM, Verhoeff AP, Waterlander W. The ENCOMPASS framework: a practical guide for the evaluation of public health programmes in complex adaptive systems. Int J Behav Nutr Phys Act. 2022 Mar 28;19(1):33. doi: 10.1186/s12966-022-01267-3.
- Nobles J, Wheeler J, Dunleavy-Harris K, Holmes R, Inman-Ward A, Potts A, Hall J, Redwood S, Jago R, Foster C. Ripple effects mapping: capturing the wider impacts of systems change efforts in public health. BMC Med Res Methodol. 2022 Mar 18;22(1):72. doi: 10.1186/s12874-022-01570-4.
- Child-COOP
- 790941
Group Model Building
Children
| Grupo de participantes | Intervención/Tratamiento |
|---|---|
ExperimentalIntervention communities A participatory system dynamics approach will be implemented by the municipal staff and research group. | Participatory System Dynamics Approach First, local health profiles of children will be collected and used to engage key leaders and stakeholders from intervention communities and municipal administrations in participatory processes. These will be used to develop a systems map of drivers of PA behaviour in schoolchildren aged 6-12 years in the local communities. Second, based on the systems map, stakeholders from the civic and private sectors will be involved in developing and implementing actions to promote healthy PA behaviour through system changes. |
Sin intervenciónComparison communities No intervention will be applied, but according to the wait-list design, the participatory system dynamics approach will be implemented in the comparison community by the municipal staff after follow-up. | N/A |
| Medida de resultado | Descripción de la medida | Periodo de tiempo |
|---|---|---|
Between group change in total movement time (children) | Total daily time the children spent moving in different body positions and engaging in different physical activities (standing, walking, running and biking). To asses changes in total movement, movement behaviour will be measured with thigh worn accelerometers (Axivity AX3) for 8 consecutive days. | Measured at baseline and at 3 year follow-up. |
Between group change in time spent being sedentary (children) | Sedentary time is defined as any waking activity characterized as being in a sitting, reclining or lying posture with minimal stationary movement. Activity is measured for 8 consecutive days at baseline and follow-up using thigh worn accelerometry (Axivity AX3). | Measured at baseline and at 3 year follow-up. |
Between group change in time being moderate to vigorous physical active (MVPA) (children) | Activity is measured for 8 consecutive days at baseline and follow-up using thigh worn accelerometry (Axivity AX3) (www.hbsc.dk/download/HBSC-Fysisk-aktivitet-monitorering-2022.pdf page 17). | Measured at baseline and at 3 year follow-up. |
| Medida de resultado | Descripción de la medida | Periodo de tiempo |
|---|---|---|
Between group change in total evening and night reclining as a measure of sleep duration (children) | Activity is measured for 8 consecutive days at baseline and follow-up using thigh worn accelerometry (Axivity AX3) and survey data | Measured at baseline and at 3 year follow-up. |
Change in proportion meeting the sleep guidelines (children) | Activity is measured for 8 consecutive days at baseline and follow-up using thigh worn accelerometry (Axivity AX3) and survey data. | Measured at baseline and at 3 year follow-up. |
Fitness level (children) | Fitness level will be measured using Andersens running test (Aadland E, Terum T, Mamen A, Andersen LB, Resaland GK. The Andersen aerobic fitness test: reliability and validity in 10-year-old children. PLoS One. 2014 Oct 17;9(10):e110492. doi: 10.1371/journal.pone.0110492. PMID: 25330388; PMCID: PMC4201545) | Measured at baseline and at 3 year follow-up. |
Strength level (children) | Strength will be measured using a hand-grip dynamometer | Measured at baseline and at 3 year follow-up. |
Leg power (children) | Leg power will be measured using standing long jump test | Measured at baseline and at 3 year follow-up. |
Coordination (children) | Number of side-jumps in 30 seconds | Measured at baseline and at 3 year follow-up. |
Physical literacy (children) | Assessed through a questionnaire. A Danish developed questionnaire developed from the Cana-dian Assessment of Physical Literacy (Elsborg P, Melby PS, Kurtzhals M, Tremblay MS, Nielsen G, Bentsen P. Translation and validation of the Canadian assessment of physical literacy-2 in a Danish sample. B M C Public Health. 2021;21. 2236. doi.org/10.1186/s12889-021-12301-7) | Measured at baseline and at 3 year follow-up. |
Change in BMI z-scores (children) | Data is collected via a portable stadiometer and bioimpedance digital scale (InBody270). | Measured at baseline and at 3 year follow-up. |
Change in weight status in % | Between group difference in change in prevalence of children with underweight, normalweight, overweight and obesity, based on the cutoffs defined by Cole et al. and the International Task Force of Obesity. Body weight is measured by a bioimpedance analysis (InBody 270) and height by using a portable stadiometer. | Measured at baseline and at 3 year follow-up. |
Change in the overweight and obesity prevalence calculated using the WHO cut points (children) | Data is collected via a stadiometer and bioimpedance digital scale (InBody270). | Measured at baseline and at 3 year follow-up. |
Health-related quality of life (children) | Between group difference in change in the total summary score of health-related quality of life measured with the KIDSCREEN 27 child self-report questionnaire. Data is collected using an adapted video and speech assisted electronic version with a smiley scale for each answer. The questionnaire assesses the child's physical well-being (5 items), psychological well-being (7 items), autonomy and parent relation (7 items), peers and social support (4 items), and school environment (4 items). | Measured at baseline and at 3 year follow-up. |
Change in typical/usual serves of fruit consumed weekly (children) | A simple dietary questionnaire: 'How often do you eat fruit?' with the following categories: 'Every day', '5-6 days per week'. '3-4 days per week', '1-2 days per week', 'Never or almost never' | Measured at baseline and at 3 year follow-up. |
Change in typical/usual serves of non-core (discretionary) foods consumed weekly (children) | A simple dietary questionnaire: 'How often do you eat candy, chips or cake?' with the following categories: 'Every day', '5-6 days per week'. '3-4 days per week', '1-2 days per week', 'Never or almost never' | Measured at baseline and at 3 year follow-up. |
Change in typical/usual serves of sugar-sweetened beverages consumed weekly (children) | A simple dietary questionnaire: 'How often do you drink sugar-sweetened beverages (eg. soda, juice and cocoa)?' with the following categories: 'Every day', '5-6 days per week'. '3-4 days per week', '1-2 days per week', 'Never or almost never' | Measured at baseline and at 3 year follow-up. |
Change in typical/usual serves of vegetable weekly (children) | A simple dietary questionnaire: 'How often do you eat vegetables?' with the following categories: 'Every day', '5-6 days per week'. '3-4 days per week', '1-2 days per week', 'Never or almost never' | Measured at baseline and at 3 year follow-up. |
Height | Between group difference in change in standing height measured using a portable stadiometer. | Measured at baseline and at 3 year follow-up. |
- All children from grade 1 (aged 6-7 years) to grade 6 (aged 11-12 years) at the participating schools
- No
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