Understanding Personal Data Tracking and Sensemaking Practices for Self-Directed Learning in Non-classroom and Non-computer-based Contexts

Honorable Mention
Online Learning & MOOC PlatformsCollaborative Learning & Peer TeachingContext-Aware ComputingUniversity Professors & ResearchersOnline Tutors

Title of the Paper

Understanding Personal Data Tracking and Sensemaking Practices for Self-Directed Learning in Non-classroom and Non-computer-based Contexts

Paper Information

  • Subject Area: Artificial Intelligence and Educational Technology, specifically self-directed learning (context: non-classroom and non-computer-based scenarios)
  • Keywords: Personal Informatics, Self-tracking, Non-classroom Learning, Non-computer-based Learning, Autonomous Learning, Behavior Change

Research Background and Issues

  1. Identified Problems or Challenges:

    • Students engaged in self-directed learning may face challenges such as distractions, lack of motivation, and difficulty in conducting metacognitive analysis.
    • Current learning tracking technologies are primarily designed for classroom and computer-based learning scenarios, making them ineffective for supporting non-classroom and non-computer-based learning activities, such as tasks involving paper-based materials.
    • Existing systems lack contextual information and personalized learning feedback, focusing more on group data.
  2. Significance of the Problem:

    • Autonomous learning is a critical theory for enhancing learning ability, problem-solving skills, and a proactive learning attitude. However, achieving effective autonomous learning in non-classroom environments, such as at home or in libraries, remains challenging.
    • The COVID-19 pandemic has underscored the importance of online and autonomous learning, exposing the limitations of traditional learning tracking tools.
  3. Research Motivation:

    • There is a need to explore how to design learning tracking tools that adapt to non-classroom and non-computer-based learning activities.
    • Understanding what types of learning data hold personal significance for learners and how they utilize this data for reflection and improvement.
  4. Research Objectives:

    • Investigate the motivations, data types, and reflective practices of students recording and interpreting learning data using Timing (a popular learning tracking application).
    • Provide design insights to improve future learning tracking tool designs.

Solutions

  1. Methods and Research Design:

    • A qualitative approach was adopted, conducting semi-structured interviews with 24 Timing users.
    • Analyzed the types of data users tracked, their behaviors, and the reflective strategies they employed.
  2. Innovations:

    • Emphasized learning tracking scenarios in non-computer and non-classroom environments.
    • Explored the role of qualitative data (e.g., emotions, photos, and video recordings) in promoting metacognition and reflection.
    • Proposed design recommendations to support self-directed learning and address the shortcomings of existing learning tracking technologies.
  3. Implementation Steps and Key Techniques:

    • Users manually tracked learning data in Timing (e.g., study plans, learning videos, learning outcomes, and emotions).
    • Data was categorized progressively (e.g., pre-study planning, behavioral trajectories during learning, and learning outcomes), observing how users derived insights from diverse data types.

Research Findings

  1. Specific Findings:

    • User Motivations: Primarily to support self-discipline and maintain learning motivation through data tracking.
    • Types of Tracked Data:
      • Study Plans: Including daily, weekly, monthly, or annual plans.
      • Learning Process: Time tracking and dynamic learning videos (e.g., study tasks, environment, facial expressions).
      • Learning Outcomes: Photos of completed tasks, notes, and accelerated versions of edited videos.
      • Emotions: Represented by markers (e.g., emojis, phrases) indicating different emotional states during learning.
    • Reflective Strategies:
      • Reviewing dynamic learning videos to observe behaviors and learning states.
      • Briefly browsing static photos of plans and outcomes.
      • Cross-referencing different data types to analyze learning challenges.
      • Manually recording reflective summaries for future reference.
  2. Comparison with Existing Solutions:

    • Current learning tracking systems focus mainly on automated quantitative data, whereas this study highlights the unique value of qualitative data (e.g., learning videos, emotion records) in supporting deep reflection.
    • Emphasized the role of integrating multiple data types to enhance metacognition.
  3. Experimental and Evaluation Results:

    • Data tracking and reflection using Timing significantly helped learners with self-management, self-monitoring, and self-adjustment.
    • Compressed video playback of learning behaviors inspired and enhanced users' learning motivation.
  4. Limitations and Future Directions:

    • Limitations:
      • The sample was concentrated on Chinese students (particularly those preparing for high-stakes exams like college entrance or postgraduate exams), which may limit the generalizability of the findings.
      • Non-student users were not examined.
    • Future Directions:
      • Validate findings in broader, cross-cultural contexts, such as learners from other countries (e.g., South Korea, Japan).
      • Explore whether other learning tracking applications with different features can reveal new user behavior patterns.
      • Deepen the analysis of dynamic videos to optimize users' interpretation of rich contextual data.

Design Implications

  1. Support for Emotional Data Recording and Recall:

    • Provide privacy-friendly emotion tracking designs while avoiding additional data collection burdens on users.
  2. Balancing Learning Video Recording and Privacy Protection:

    • Allow users to control which sensitive information is recorded, offering automatic privacy masking features.
  3. Facilitating Efficient Interpretation of Dynamic Videos:

    • Introduce delayed playback for certain summary videos and incorporate computer vision analysis to mark specific behaviors (e.g., signs of distraction).
  4. Reducing the Burden of Cross-data Reflection:

    • Offer text or voice prompt features to help users integrate insights from multiple reflective data sources in real-time, enhancing the efficiency of secondary reviews.

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https://hci.top/en/papers/chi/96260/2023

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DOI: https://doi.org/10.1145/3544548.3581364
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Source
CHI
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Year
2023
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Award
Honorable Mention
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Authors
4 authors
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Subtopics
Online Learning & MOOC Platforms, Collaborative Learning & Peer Teaching, Context-Aware Computing
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Professions
University Professors & Researchers, Online Tutors
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Full text indexed
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