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Modern children are increasingly sedentary and spend an average of six hours a day in front of a screen (Barnett et al., 2018). This has a significant impact on the movement capabilities of children worldwide. Indeed, a recent study evaluating the 鈥榝undamental movement skills鈥 (FMS) of more than 2,000 Irish children revealed that one in four could not run properly, half could not kick a ball properly and even fewer could jump properly (Behan, Belton, Peers, O鈥機onnor, & Issartel, 2019). Poor FMS in childhood can cause a person to develop negative perceptions in relation to their physical abilities. In turn, this can lead to non-participation in physical activity and/or sport across the life course (Peers, Issartel, Behan, O鈥機onnor, & Belton, 2020) with serious consequences for health (such as obesity, heart disease, and so on). So, what can we do to change the situation?

Transforming the problem

For previous generations, street games such as hopscotch, hand skipping and leapfrog saw children hop, skip and jump daily, for fun. Fundamental movement skills were a common part of self-generated 鈥榩lay鈥. For the current generation, however, 鈥榩lay鈥 typically involves some swiping, scrolling or finger-tapping through social media platforms or relatively addictive video games. Researchers and medical professionals are calling for children to disengage from digital devices and participate in real-life physical activity. This is particularly challenging for two reasons. First, societal and environmental factors are ever-changing, with increasingly sedentary modes of transportation to and from school/work and a lack of safe 鈥榩lay鈥 spaces in many communities. Second, new digital technologies are continually emerging to engage children in digital 鈥榩lay鈥 even further. An alternative approach is to reimagine the way children interact with technology and consider the design of movement-based interactive experiences that are both fun and capable of supporting improved movement skill outcomes.

鈥楢n alternative approach is to reimagine the way children interact with technology and consider design of movement-based interactive experiences that are both fun and capable of supporting improved movement skill outcomes.鈥

Video games to develop movement skills

In our article, 鈥楬op.Skip.Jump.Games鈥, published in the British Journal of Educational Technology, we explored the potential to do just that (McGann, Issartel, Hederman, & Conlan, 2019a). The paper outlined a suite of educational video games developed to support improvements in children鈥檚 locomotor skills (hop, skip, jump, slide, run). Children (aged five and six) participated in 鈥榮hort bouts鈥 of gameplay over a period of eight weeks. While games had a numeracy/literacy focus, the overarching 鈥榩lay鈥 experience was designed to support improved user movement skills. Typical hand-held controllers were replaced with a 3D sensor system. This meant children could 鈥榗ontrol鈥 gameplay using their bodies and hop, skip or jump their way to gaming success. Results suggest that gameplay supported a 98 per cent improvement in children鈥檚 overall movement skill performance.

Marrying PE and game design

The study outlined a novel game design framework entitled PaCMAn (Principles and Conditions for Motor Skill Acquisition) (McGann, Issartel, Hederman, & Conlan, 2019b). PaCMAn takes 鈥榠ngredients鈥 deemed crucial to support motor skill acquisition and marries them with fundamental principles of game design. This means that gameplay is theoretically underpinned to support positive movement skill outcomes for children. Another novel component of gameplay relates to the role of the teacher. That is, teachers are valued as a key component in the gameplay experience. As with all curriculum subjects, they are tasked with making important decisions about individual learner (or 鈥榰ser鈥) needs. To support this, features of the games are 鈥榓daptable鈥, enabling the teacher to personalise how high the user is expected to jump, how many jumps they are expected to perform, how many 鈥榩oints鈥 they receive for their efforts, and so on. This model, described in the article as a 鈥榟uman-in-the-loop personalisation process鈥, was informed by the PaCMAn framework and considered crucial to the positive impact of gameplay on children鈥檚 movement skills.

The implications of this study include the following.

  • Teachers can work with a gaming system to use educational technology in a way that supports improved movement skills in children.
  • The design and development of educational technology could consider the teacher as a core 鈥榟uman intelligent system鈥 capable of making informed decisions about a child鈥檚 needs that artificial intelligence will always struggle to match.

Moving with the times

With popular video games like Fortnite prompting users to learn intricate dance sequences (ask any kid to do the floss) and phone applications such as TikTok promoting movement and dance creativity, it appears modern children have an appetite for gamified movement-based human鈥揷omputer interactions. By moving with the times and embracing this trend, technology developers, teachers and parents alike could find new and exciting technology-mediated experiences to get children moving for positive health outcomes.


This blog is based on the article 鈥楬op.Skip.Jump.Games: The effect of 鈥減rincipled鈥 exergameplay on children鈥檚 locomotor skill acquisition鈥, by Jamie McGann, Johann Issartel, Lucy Hederman and Owen Conlan, in the British Educational Research Journal.


References

Barnett, T. A., Kelly, A. S., Young, D. R., Perry, C. K., Pratt, C. A., Edwards, N. M., Rao, G., & Vos, M. B. (2018). Sedentary behaviors in today鈥檚 youth: Approaches to the prevention and management of childhood obesity: A scientific statement from the American Heart Association. Circulation, 138(11).

Behan, S., Belton, S., Peers, C., O鈥機onnor, N. E., & Issartel, J. (2019). Moving well-being well: Investigating the maturation of fundamental movement skill proficiency across sex in Irish children aged five to twelve. Journal of Sports Sciences, 37(22), 2604鈥2612.

McGann, J., Issartel, J., Hederman, L., & Conlan, O. (2019a). Hop.Skip.Jump.Games: The effect of 鈥榩rincipled鈥 exergameplay on children鈥檚 locomotor skill acquisition. British Journal of Educational Technology, 51(3), 798鈥816.

McGann, J., Issartel, J., Hederman, L., & Conlan, O. (2019b). PaCMAn: A 鈥榩rincipled鈥 framework to underpin design and deployment of video games for motor skill acquisition. Entertainment Computing, 31.

Peers, C., Issartel, J., Behan, S., O鈥機onnor, N., & Belton, S. (2020). Movement competence: Association with physical self-efficacy and physical activity. Human Movement Science, 70(102582).