PPT ICWSDGS BIMA_STEM-INTEGRATED DIGITAL MODULE DEVELOPMENT.pdf
MustikaWati11
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Oct 24, 2025
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About This Presentation
STEM-INTEGRATED DIGITAL MODULE DEVELOPMENT:
VALIDITY, PRACTICALITY, AND EFFECTIVENESS IN
FOSTERING PROBLEM-SOLVING SKILLS
Size: 6.17 MB
Language: en
Added: Oct 24, 2025
Slides: 14 pages
Slide Content
Pengaruh Implementasi Modul Ajar Digital
Fisika Bermuatan Authentic Learning Dengan
Pendekatan STEM Terhadap Keterampilan
Pemecahan Masalah Peserta Didik Mustika Wati, Sri Hartini, Dewi Dewantara
Universitas Lambung Mangkurat
STEM-INTEGRATED DIGITAL MODULE DEVELOPMENT:
VALIDITY, PRACTICALITY, AND EFFECTIVENESS IN
FOSTERING PROBLEM-SOLVING SKILLS Mustika Wati, Sri Hartini, Dewi Dewantara, Nor Aida, Surya Haryandi
Institutions: Universitas Lambung Mangkurat
Universitas Negeri Yogyakarta
BACKGROUNDSTEM (Science, Technology,
Engineering, Mathematics)
integration promotes active,
contextual, and project-
based learning.
Limited availability of modules
specifically designed to foster
these skills.
Problem-solving skill is
essential in 21st-century
learning.
Need for innovative digital
teaching modules aligned
with the Merdeka
Curriculum.
RESEARCH PURPOSE
Develop a STEM-based digital module
on “Energy and Its Changes.”
Evaluate its:
1.Validity (expert assessment)
2.Practicality (ease of use and
implementation)
3.Effectiveness (learning improvement &
problem-solving skills).
4.Provide a foundation for improving
STEM-based learning in vocational
schools.
RESEARCH METHOD
Research Design:
Research & Development
(R&D) with ADDIE model
(Analyze–Design–Develop).
Instruments:
Validation sheets,
observation sheets,
pretest–posttest,
student worksheets.
Data Analysis:
Mean score, N-Gain,
and reliability (%
agreement).
Participants:
Grade X students,
SMK Penerbangan
Banjarbaru.
PjBL Syntax
STEM Activity (Mini Solar
Panel Project)
Problem-Solving Skill
Formulate driving question
Design how to make a mini
solar panel
Clarify problem
Design plan
Create design & select
materials
Brainstorm ideas
Schedule production Plan workflow
Evaluate & select best
option
Monitor project Build and test connections Implement solution
Test results Measure voltage/current Assess effectiveness
Reflect Review process Reflect and improve
STEM–PJBL INTEGRATION
RESULT AND DISSCUSSION
Validity
Practicallity
Effectiveness
Aspect Avg. Score Category Reliability
Format 3.33 Very Good 95%
Language 3.4 Very Good —
Content 3.67 Very Good —
Presentation 3.78 Very Good —
Usefulness 3.67 Very Good —
➡️ Overall: Highly
valid and reliable
MODULE VALIDITY
WORKSHEET VALIDITY
LEARNING OUTCOME
TEST VALIDITY
Format, language, and content = Very Good
Reliability = 80% (Good)
Revisions: clearer objectives, improved color
design, added answer key.
Validity per item ≈ 3.5 (Very Good)
Revisions: added problem-based items and
scoring rubric.
PRACTICALITY RESULTS
Observations over 4 meetings: all aspects rated Very Good
(avg. = 3.38).
High reliability between observers.
Module considered easy to use, engaging, and time-efficient
for teachers and students.
Average Pretest Average Posttest N-Gain Category
17.05 62 0.55 Medium
➡️ Indicates medium
effectiveness in
EFFECTIVENESS RESULTS
STEM–PjBL enhances critical thinking, creativity, and collaboration.
Students engage in contextual problem-solving and project creation.
STEM-based digital module: Highly valid, highly practical, moderately effective.
Students’ problem-solving skills improved but remain not optimal.
Needs refinement through:
➡️ Full Implementation & Evaluation stages of ADDIE.
➡️ Larger-scale trials and extended classroom application.
➡️ Potential to strengthen 21st-century skills and STEM literacy in vocational education.
CONCLUSION