The Effectiveness Of Lego Manipulatives In Solving Area Problems Involving Squares And Rectangles For Grade 3 Students
Cristina P Cueva | Bryan L. Susada
Discipline: Education
Abstract:
Problem-solving skills, specifically in solving routine and non-routine problems
involving areas of squares and rectangles, are foundational to various mathematical concepts;
however, learners consistently find these concepts challenging to master. This study at
San Rafael Integrated School (2023-2024) investigated the impact of using Lego kits to teach
Grade 3 students how to solve routine and non-routine problems involving the areas of
squares and rectangles. Using a quasi-experimental methodology, two groups of 30 students
each were compared: a control group taught with traditional methods and an experimental
group taught using Legos. Pre-test results indicated that neither the control nor the
experimental group met the expectations set by the K to 12 grading system, with 7.41 and
9.12 scores. Although both groups exhibited similar initial proficiency levels, the notable
difference in pre-test scores can be attributed to various factors (including the students’
value for mathematics). However, despite their appreciation for the subject, many still
struggle with fundamental skills and concepts; this may have influenced their performance
in the pre-test. Post-test results (however) revealed a significant improvement in the
experimental group’s performance, with a mean score of 25.28 compared to the control
group’s 16.07. The findings demonstrate the superior efficacy of the Legos as a manipulative
kit over traditional methods in solving routine and non-routine problems involving areas of
squares and rectangles. Thus, teachers may incorporate Legos as manipulative kits early
in the school year to provide a visual and tactile learning experience that helps students
build a concrete understanding of mathematical operations.
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