19: Self Pacing
Effectiveness of Self-Paced Learning
Overview
Research study by Tullis & Benjamin (2011) focuses on the effectiveness of self-paced learning.
Examines how self-regulated learning impacts study choices and outcomes.
Self-Regulated Learning
Definition: Self-regulated learning involves students making choices in their study behaviors which directly affect their learning outcomes.
Key Elements:
Choice of items to re-study.
Scheduling of re-study sessions.
Accurate monitoring of learning progress.
Application of effective learning strategies.
How Learners Allocate Study Time
Positive correlation between item difficulty and study time; harder items receive more study time.
Discrepancy Reduction Theory (Dunlosky & Thiede, 1998):
Concept that students set a norm of what they wish to learn (goal) and study to decrease discrepancies between their current knowledge and that norm.
Region of Proximal Learning Theory (Metcalfe & Kornell, 2003):
Learners should continue studying until the “rate of return” (the improvement in learning) falls below a predetermined criterion.
Monitoring Learning
Inverse relationship between Judgment of Learning (JOL) and study time:
Items perceived as well-learned are studied for shorter durations.
Students often are not accurate in monitoring their memory performance.
Poor performance students may overestimate test scores by as much as 30%.
JOLs can be influenced by biases and false beliefs (e.g., beliefs regarding how font size affects learning).
Inaccurate monitoring can lead to ineffective study time allocation.
Delaying JOLs can improve study time allocation effectiveness.
Effectiveness of Self-Paced Learning
Numerous studies indicate that study time allocation can vary based on material types and task criteria.
Fewer investigations have delved into the overall effectiveness of self-paced learning, revealing conflicting results:
Self-paced study resulted in better performance compared to a fixed average study time group (Mazzoni & Cornoldi, 1993).
Studies showed that self-paced learners performed equivalently to control groups that studied for the total time that self-paced learners did (Koriat et al., 2006).
Engaging with more difficult items is not always the most efficient use of study time.
Experiment 1 (N = 148)
Objective:
Comparison of self-paced learning versus a yoked control group (participants studied the same items but for the average time chosen by the yoked partner).
Recognition Testing:
Recognize items based on whether they are old or new (old/new recognition test).
Study conditions varied between:
Study items for as long as one wishes
Study items for fixed time based on last participant's average study time.
Challenges Identified:
Recognition tests can hinder a learner’s ability to control their retrieval strategically.
Prior studies utilizing free recall indicated inconsistent results but recognition testing can adjust for decision-making variables.
Self-Pacing Strategies
Discrepancy Reducers vs. Discrepancy Increasers
Self-paced learning was found to improve recognition accuracy over fixed study time (matched total time).
Notably driven by those who studied harder items for longer durations.
Essential finding: Effective self-pacing is contingent upon executing self-pacing in the correct manner.
Experiment suggests the presence of item-selection effects; control groups exhibited varied performance based on their paired discrepancy reducers or increasers.
Experiment 2 (N = 234)
Design:
Replicate Experiment 1 while adding a third group with items studied for variable times based on normative difficulty.
Three experimental groups:
Self-paced study
Fixed study, aligned to the average of prior participants’ times
Variable study times divided proportionally based on item discriminability from Experiment 1.
Group 3 aimed to consistently act as discrepancy reducers.
Combined Experiment Analysis
Results demonstrated:
Self-paced discrepancy reducers outperformed their self-paced discrepancy increaser counterparts.
No significant difference was observed in the control groups paired with either strategy.
Interaction noted between self-pacing (versus control) and strategy, indicating self-pacing only benefits when combined with a discrepancy reducing strategy.
Analyzed levels of item difficulty:
The diagonal line represented equal item difficulty in two study conditions.
Dashed line indicated the best fit of the data showcasing that overall difficulty was lower for the self-paced group compared to the fixed-rate group.
Slope of performance data was less steep than diagonal, suggesting self-pacing improved difficult items more so than easy items.
Discussion Points
Less than half of those using self-paced strategies adopted discrepancy reduction effectively.
Investigated reasons:
It is unlikely that motivational factors account for this as mean study time per word and standard deviation of study times remained similar between reducers and increasers.
Potentially low performance goals could lead to a preference for easier items rather than challenging ones.
However, similar total study times for both strategies contradict this assumption.
Possible explanations include difficulties in monitoring one’s learning or predicting outcomes of test conditions.
Self-paced study may enhance learning potential, yet learners might require additional support for monitoring.
Conclusion
Self-paced study shows promise in improving learning outcomes, contingent upon appropriate monitoring and strategic execution of study time allocation.
Ongoing exploration is needed to optimize self-regulated learning practices and to guide effective study methodologies among learners in varied contexts.