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Penerapan Model Problem-Based Learning (PBL) dalam Meningkatkan Hasil Belajar IPA Fisika pada Sub-pokok Bahasan Kalor Hidayana Hidayana; Sukainil Ahzan; Helmi Rahmawati
Reflection Journal Vol. 2 No. 2 (2022): Desember
Publisher : Lembaga Penelitian dan Pemberdayaan Masyarakat

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.36312/rj.v2i2.1131

Abstract

Penelitian ini bertujuan untuk menginvestigasi penerapan model PBL dalam pembelajaran sub-pokok bahasan kalor serta mengukur sejauh mana model tersebut dapat meningkatkan hasil belajar siswa. Penelitian ini menggunakan metode penelitian tindakan kelas yang terdiri dari dua siklus, meliputi tahap perencanaan, pelaksanaan, observasi, evaluasi, dan refleksi. Data penelitian dikumpulkan dengan mengukur hasil belajar siswa melalui tes pilihan ganda. Hasil penelitian menunjukkan bahwa implementasi model PBL berhasil meningkatkan hasil belajar siswa pada sub-pokok bahasan kalor. Persentase ketuntasan belajar siswa pada siklus pertama adalah 63,16%, sementara pada siklus kedua meningkat menjadi 85%. Oleh karena itu, disarankan agar metode pengajaran yang beragam, seperti model PBL, diterapkan secara lebih sering dalam pembelajaran, terutama pada mata pelajaran yang memerlukan kemampuan pemecahan masalah. Application of the Problem-Based Learning (PBL) Model in Improving Science Physics Learning Outcomes on the subject of Calor This study aims to investigate the application of the PBL model in learning the sub-topic of calor and to measure the extent to which this model can improve student learning outcomes. This study uses a classroom action research method which consists of two cycles, including the stages of planning, implementing, observing, evaluating, and reflecting. Research data was collected by measuring student learning outcomes through multiple choice tests. The results showed that the implementation of the PBL model succeeded in increasing student learning outcomes in the sub-topic of heat. The percentage of student learning completeness in the first cycle was 63.16%, while in the second cycle it increased to 85%. Therefore, it is recommended that various teaching methods, such as the PBL model, be applied more frequently in learning, especially in subjects that require problem-solving abilities.
Implementasi Model Pembelajaran Quantum Leraning Untuk Meningkatkan Hasil Belajar Fisika Happy Febry Monaliata; Sukainil Ahzan; Armansyah Armansyah; Zaenudin Zaenudin
Reflection Journal Vol. 3 No. 1 (2023): June
Publisher : Lembaga Penelitian dan Pemberdayaan Masyarakat

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.36312/rj.v3i1.1227

Abstract

Tujuan penelitian ini adalah mengimplementasikan model pembelajaran Quantum Learning dalam pembelajaran fisika pokok bahasan besaran dan satuan serta menganalisis dampaknya terhadap peningkatan hasil belajar siswa. Penelitian ini merupakan Penelitian Tindakan Kelas (PTK) dengan subjek siswa kelas VII MTs. Nahdatul Mujahidin NW Jempong yang berjumlah 27 orang siswa. Teknik pengumpulan data utama yang digunakan dalam penelitian ini dilakukan dengan dua teknik, yaitu tes dan non-tes. Tes disusun dan dilakukan untuk menilai tingkat kemampuan kognitif (prestasi belajar) siswa sesuai dengan siklus yang ada. Tes dilaksanakan pada akhir siklus I dan siklus II. Hasil penelitian diperoleh temuan pada siklus I, rata-rata ketuntasan klasikal hasil belajar fisika siswa sebesar 63,16, dan pada siklus II rata-rata ketuntasan klasikal hasil belajar fisika siswa sebesar 85. Peningkatan hasil belajar pada siklus II tersebut adalah signifikan secara statistik, dengan peningkatan dari siklus I ke siklus II mencapai 21,84. Hal ini menunjukkan bahwa penerapan Quantum Learning secara efektif membantu siswa dalam memahami konsep fisika dengan lebih baik..  Implementation of the Quantum Learning Learning Model to Improve Physics Learning Outcomes  The purpose of this study is to implement the Quantum Learning learning model in learning physics on the subject of units and units and to analyze its impact on improving student learning outcomes. This research is a Classroom Action Research (CAR) with class VII MTs students as subjects. Nahdatul Mujahidin NW Jempong, totaling 27 students. The main data collection technique used in this study was carried out using two techniques, namely tests and non-tests. Tests are arranged and carried out to assess the level of cognitive ability (learning achievement) of students according to the existing cycle. The test was carried out at the end of cycle I and cycle II. The results of the study showed that in the first cycle, the average classical completeness of students' physics learning outcomes was 63.16, and in the second cycle, the average classical completeness of students' physics learning outcomes was 85. The increase in learning outcomes in the second cycle was statistically significant. with an increase from cycle I to cycle II reaching 21.84. This shows that the application of Quantum Learning effectively helps students understand physics concepts better.
Technology-Based Future Science Education: Axiological Philosophy in the Framework of Bibliometric Analysis Sukainil Ahzan; Saiful Prayogi; Irham Azmi; Muhammad Asy'ari; Taufik Samsuri
Prisma Sains : Jurnal Pengkajian Ilmu dan Pembelajaran Matematika dan IPA IKIP Mataram Vol 12, No 1: January 2024
Publisher : IKIP Mataram

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.33394/j-ps.v12i1.10895

Abstract

Science education is crucial in developing our understanding of the natural world and enhancing knowledge growth. With rapid advancements in information and communication technology, there is a unique opportunity to transform science education into a more interactive, inclusive, and relevant discipline. However, this evolution prompts philosophical questions, especially concerning axiology—the study of the value and impact of technology on the future of science education. This research explores the axiological aspects of technology integration in science education through a bibliometric analysis, focusing on how technology-based methods can enrich science learning. A comprehensive literature review reveals that technology is crucial in making science education more accessible, motivating students, facilitating the acquisition of new skills, fostering critical thinking, and boosting student engagement. It highlights the value of incorporating technology into educational practices and how it aligns with axiological considerations in science education. The findings emphasize the need for a deeper philosophical understanding of technology's role in science education to ensure its ongoing relevance and effectiveness. Looking forward, the integration of technology in science learning promises to advance our knowledge and suggests a fertile area for future research, emphasizing the exploration of innovative technological tools that can further enhance science education for all students.