A Randomized Trial of a Gamified Mobile App for Improving Antibiotic Adherence and Completion Rates in Children with Acute Respiratory Infections

Main Article Content

Aleeza Sana
Mohammad Shaiq Mahmood
Aijaz Ali Tunio
Rahool Kumar
Mariyum Abid

Abstract

Background: Adherence to short-course antibiotic treatment in children depends largely on caregivers, and missed or irregular doses may reduce prescribed treatment exposure. Mobile applications combining reminders, tracking, and rewards may support medication administration. Objective: To evaluate a caregiver-operated gamified mobile application for improving antibiotic adherence and prescribed-dose completion among children with acute respiratory infections. Methods: This parallel-group randomized controlled trial enrolled 80 children aged 2–10 years receiving outpatient oral antibiotic treatment in Central Punjab, Pakistan. Participants were allocated equally to a gamified mobile-application intervention or standard care. Complete follow-up data were available for 75 participants. Primary outcomes were adherence score and percentage of prescribed doses recorded as administered; secondary outcomes included caregiver-reported symptom severity and recovery. Results: The intervention group had higher post-treatment adherence than controls (91.4 ± 6.8 vs 78.2 ± 9.5; mean difference 13.2, 95% CI 9.4–17.0; p<0.001) and greater recorded-dose completion (94.6 ± 5.2% vs 81.3 ± 8.7%; mean difference 13.3%, 95% CI 10.0–16.6%; p<0.001). Symptom reduction was greater in the intervention group (5.2 ± 1.3 vs 3.5 ± 1.4; p<0.001), while caregiver-reported recovery occurred in 81.1% and 57.9%, respectively. Conclusion: The multicomponent mobile intervention was associated with improved short-term recorded adherence and caregiver-reported outcomes, although complete-case analysis and subjective measurement limit interpretation

Article Details

Section

Articles

How to Cite

1.
Aleeza Sana, Mohammad Shaiq Mahmood, Aijaz Ali Tunio, Rahool Kumar, Mariyum Abid. A Randomized Trial of a Gamified Mobile App for Improving Antibiotic Adherence and Completion Rates in Children with Acute Respiratory Infections . JHWCR [Internet]. 2026 Mar. 30 [cited 2026 Aug. 1];4(6):1-11. Available from: https://jhwcr.com/index.php/jhwcr/article/view/1996

References

1. Huang Z, Ow JT, Tang WE, Chow AJ. An evidence-based serious game app for public education on antibiotic use and resistance: randomized controlled trial. JMIR Serious Games. 2024;12:e59848.

2. Huang Z, Tang WE, Guo H, Natarajan K, Lee TH, Yeo TW, et al. An evidence-based serious game app for public education on antibiotic use and antimicrobial resistance: protocol of a randomized controlled trial. 2023;12:e45833.

3. Sumana MN, Shettar SR, Maheshwarappa YD, Megha G, GS VS, Shylaja Eshwarappa C, et al. Gamified interventions to improve knowledge, attitudes and practices regarding rational antibiotic use among schoolchildren in Mysuru, South India, to curb antimicrobial resistance. 2025;13:1574647.

4. Zhao H. Effect of gamified health education on medication compliance of Chinese school-age children with asthma.

5. Malizia V, Ferrante G, Fasola S, Montalbano L, Cilluffo G, La Grutta S. New technologies for promoting physical activity in healthy children and children with chronic respiratory diseases: a narrative review. Sensors. 2021;13(21):11661.

6. Exner B, Frielitz-Wagner IV, Frielitz FS. Telemedicine and digital health for chronic conditions in pediatrics: a systematic review. J Telemed Telecare. 2026;32(3):165–211.

7. Jaque LR, Salcedo VT. Strategies for long-term adherence. In: Wearable sensing and intelligent data analysis for respiratory management. Elsevier; 2022. p. 273–97.

8. Baker JA, Berlinski A. Use of digital health in pediatric asthma. Respir Care. 2025;70(6):686–99.

9. Lea SA. Exploring an infection-control game to reinforce learning in health-professions education [dissertation]. Walden University; 2025.

10. Dramburg S, Dellbrügger E, van Aalderen W, Matricardi PM. The impact of a digital wheeze detector on parental disease management of preschool children with wheezing: a pilot study. 2021;7(1):185.

11. Yan R, Zou C, Yang X, Zhuang W, Huang Y, Zheng X, et al. Nebulized inhalation drug delivery: clinical applications and advancements in research. 2025;13(3):821–43.

12. Donà D, Barbieri E, Brigadoi G, Liberati C, Bosis S, Castagnola E, et al. State of the art of antimicrobial and diagnostic stewardship in pediatric settings. 2025;14(2):132.

13. Cîrstea N, Radu A, Vesa C, Radu AF, Bungau AF, Tit DM, et al. Current insights on treatment adherence in prevalent dermatological conditions and strategies to optimize adherence rates. 2024;16(9).

14. Adeghe EP, Okolo CA, Ojeyinka OT. Integrating the Internet of Things in pediatric dental health: a data-driven approach to early prevention and education. Int J Front Life Sci Res. 2024;6(1):22–35.

15. Davies NW. Digital health solutions for medication-adherence support.

16. Howard A, Reza N, Green PL, Yin M, Duffy E, Mwandumba HC, et al. Artificial intelligence and infectious diseases: tackling antimicrobial resistance, from personalized care to antibiotic discovery. 2026;26(3):e181–92.

17. Zhang B. Effectiveness of an artificial intelligence-empowered video-game system in patients with post-stroke dysphagia: a randomized controlled trial. 2025.

18. Munira MS. Designing a caregiver-responded survey for autism-support strategies: medication use, gastrointestinal health, and digital-health interventions [dissertation]. RMIT University; 2025.

19. Youngster I, Gelernter R, Klainer H, Paz H, Kozer E, Goldman M. Electronically monitored adherence to short-term antibiotic therapy in children. Pediatrics. 2022;150(6):e2022058281.

20. Du Toit J, Palmer M, Manji K, Faye PM, Tollman S, Bresser M, et al. ToolCAP: novel tools to improve the management of pediatric community-acquired pneumonia—a preliminary study protocol for a randomized controlled trial. 2024.

21. Kulinkina AV, Rwandarwacu VP, Habakurama J, Cobuccio L, Norris M, Kalisa E, et al. Effectiveness of a digital clinical decision-support algorithm for guiding antibiotic prescribing in pediatric outpatient care in Rwanda: a pragmatic cluster non-randomized controlled trial. 2026;23(2):e1004692.

22. Mackey WL. Educational program for caregivers of children with tympanostomy-tube otorrhea: impact on caregiver self-efficacy and clinical outcomes [dissertation]. Yale University; 2022.

23. Isaeva E, Bloch J, Akylbekov A, Skov RL, Poulsen A, Kurtzhals JAL, et al. C-reactive protein testing in primary care and antibiotic use in children with acute respiratory-tract infections in Kyrgyzstan: an open-label, individually randomized controlled trial. 2025;51.

24. Beynon F, Mhalu G, Kumar D, Cicconi S, Langet H, Levine GA, et al. Effectiveness of introducing pulse oximetry and clinical decision-support algorithms for managing sick children in primary care in India and Tanzania: the TIMCI pragmatic cluster-randomized controlled trial. 2025;85.

25. Langet H, Faye PM, Njiri F, Cicconi S, Levine GA, Glass TR, et al. Effectiveness of introducing pulse oximetry and clinical decision-support algorithms for managing sick children in primary care in Kenya and Senegal: the TIMCI quasi-experimental pre-post study. 2025;83.

26. Beynon F, Langet H, Bohle LF, Awasthi S, Ndiaye O, Machoki M’Imunya J, et al. The Tools for Integrated Management of Childhood Illness study protocol: a multicountry mixed-method evaluation of pulse oximetry and clinical decision-support algorithms. 2024;17(1):2326253.

27. Schmitz T, Beynon F, Musard C, Kwiatkowski M, Landi M, Ishaya D, et al. Effectiveness of an electronic clinical decision-support system in improving childhood-illness management in primary care in rural Nigeria: an observational study. 2022;12(7):e055315.

28. Das JK, Salam RA, Padhani ZA, Rizvi A, Mirani M, Jamali MK, et al. An innovative community-mobilization and community-incentivization intervention for child health in rural Pakistan: the CoMIC cluster-randomized controlled trial. 2025;13(1):e121–33.