Using Data Mining and Observation to derive an enhanced theory of SRL in Science learning environments
Effective Years: 2016-2021
This project aims to enhance theory and measurement of students' self-regulated learning (SRL) processes during science learning. SRL refers to learning that is guided by metacognition (thinking about one's thinking), strategic action (planning, monitoring, and evaluating personal progress against a standard), and motivation to learn. The project will accomplish this by developing a technology-based framework which leverages human expert judgment and machine learning methods to identify key moments during SRL and analyze these moments in depth. The project uses an existing science learning environment, Betty's Brain, that combines learning-by-modeling with critical thinking and problem solving skills to teach complex science topics. The environment is designed to have the student teach Betty science topics using concept maps (the critical elements of the science) and reading materials provided by the environment. A critical component of this project is to determine when a student using the system needs help. Using SRL as a basis, the additions to Betty's brain will identify key points in the SRL processes of metacognition, strategic action, and motivation. Some of these points can be determined automatically in recognizing key points while others require human intervention to recognize key points and then to determine what actions should be taken to enable the student. This information will be recorded and the experiences then are used to update the automatic identification of key points. The project's main intellectual merit is in integrating the power of data mining to rapidly sift through large amounts of data to find key inflection or change points in student reasoning and strategies, with the power of human beings to deeply understand other humans' SRL processes. This measurement framework, with the accompanying detectors of inflection points in students' SRL in online learning, has the potential to transform science learning and teaching in K-12 settings by providing insights into how SRL unfolds during learning through the interactions between affect, engagement, cognition and metacognition. Those insights will be used to extend an existing theory of SRL, increasing its richness, specificity, and predictive power. Self-regulated learning is important to student success, both in K-12 education and during life-long learning afterwards. Better understanding of SRL processes will support the development of computer-based science learning environments, such as Betty's Brain, with the capability to better support students' learning of SRL skills and strategies in science classrooms. By studying these issues within the diverse population of urban students who currently use Betty's Brain, success of the project will increase the relevance of SRL to the full diversity of America's learners. The project's software will be available through the portal www.teachableagents.org.
14 Publications Related to This Project:
- Can Strategic Behaviour Facilitate Confusion Resolution? The Interplay Between Confusion and Metacognitive Strategies in Betty's Brain
- Exploring Confusion and Frustration as Non-Linear Dynamical Systems
- Students' Verbalized Metacognition During Computerized Learning
- The Relationship Between Confusion and Metacognitive Strategies in Betty's Brain
- Modeling Learners' Cognitive and Affective States to Scaffold SRL in Open-Ended Learning Environments
- Analysing Adaptive Scaffolds that Help Students Develop Self-Regulated Learning Behaviours
- Academic Procrastination, Incentivized and Self-Selected Spaced Practice, and Quiz Performance in an Online Programming Problem System: An Intensive Longitudinal Investigation
- The Evolution of Metacognitive Strategy Use in an Open-Ended Learning Environment: Do Prior Domain Knowledge and Motivation Play a Role?
- Detector-Driven Classroom Interviewing: Focusing Qualitative Researcher Time by Selecting Cases in SITU
- How are Feelings of Difficulty and Familiarity Linked to Learning Behaviors and Gains in a Complex Science Learning Task?
- Expert Feature-Engineering vs. Deep Neural Networks: Which is Better for Sensor-Free Affect Detection?
- Help Seekers vs. Help Accepters: Understanding Student Engagement with a Mentor Agent
- Using Epistemic Networks to Analyze Self-Regulated Learning in an Open-Ended Problem-Solving Environment
- Modeling the Relationships Between Basic and Achievement Emotions in Computer-Based Learning Environments
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