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Parenting Journal · Volume 2 · Issue 5 · Licensed source edition

Socio-Cognitive Engineering of a Robotic Partner for Child's Diabetes Self-Management

Originally published 2019-11-15 · Frontiers in Robotics and AI
Frontiers Media SA · DOI 10.3389/frobt.2019.00118 ↗

CollaborationSocio-cognitive engineering/R&D synthesis with iterative field evaluationsCC BY (version not stated)
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AI / system type

Hybrid narrow AI/knowledge-based social robot and avatar; not a generative LLM or automated diabetes treatment

Direct parenting evidence

Directly addresses parents or caregiving, including parent studies, syntheses and audits of parenting advice.

The AI connection

PAL combined a social robot, home avatar, shared ontology/knowledge base, personalization, planning, and caregiver/clinician dashboards.

Why this reading matters

Provides specific ways to make an AI-supported care partnership explicit, with outcome-specific evidence and visible engagement failures.

Editorial reading guide · Collaboration

How could a child, parent, and care team agree on what an AI partner supports and what information they share?

PAL was designed around shared goals, explanations, agreements about information, and continuity between a hospital robot and home avatar. Later evaluation reported stronger diabetes-knowledge and self-care scores than waiting-list care, alongside null effects on parental stress and glucose regulation. Earlier versions also lost many users after a few weeks. The combination makes it a useful account of both partnership design and the difficulty of sustaining it.

Study context

Children, parents, and clinicians in Italy and the Netherlands across camps, hospital and home iterations; the final reported randomized evaluation enrolled 49 children

Age / stage: Children mainly 7–14 years with type 1 diabetes

Read with three questions

  1. How did shared objectives and information agreements connect the child, parent, clinician, robot, and home avatar?
  2. Why did relationship/bonding reports fail to prevent declining use in an earlier version?
  3. Which reported outcomes improved, which did not, and why does that matter for claims about diabetes management?

Keep the limits in view

This paper synthesizes evolving systems and several studies rather than fully reporting one uniform trial; detailed final-trial reporting was cited as separate work. Small samples, country differences, changing content, and nonuse constrain inference. Knowledge/self-care results do not establish better glucose control or lower parent stress. Transfer of responsibility and caregiver involvement remained areas for development.

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Attribution & reuse

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Original authorship, publication date, journal and DOI are preserved. This issue’s TRICK placement and reading questions are editorial additions, not claims made by the original authors.

Mark A Neerincx; Willeke van Vught; Olivier Blanson Henkemans; Elettra Oleari; Joost Broekens; Rifca Peters; Frank Kaptein; Yiannis Demiris; Bernd Kiefer; Diego Fumagalli; Bert Bierman (2019). Socio-Cognitive Engineering of a Robotic Partner for Child's Diabetes Self-Management Frontiers in Robotics and AI. https://doi.org/10.3389/frobt.2019.00118

Permissions checked against the saved article notice; repository publication notices screened 2026-11-04. This is not a new peer-review decision. The source authors and publishers are not represented as endorsing this issue.