Jul 2026· Indonesian Journal of Science and Mathematics Education· 0 citations· 25 references
TL;DR
An AI-supported P3 Task Taxonomy was developed that integrates Practice, Problem, and Project tasks with adaptive feedback and scaffolding mechanisms tailored to students' cognitive characteristics that guides instructors in designing AI-assisted learning environments that foster CT development.
Abstract
Critical thinking (CT) and the limitations of Artificial Intelligence (AI)-based learning design have become major challenges in contemporary education. This study aims to identify students' critical-thinking challenges and to develop an AI-supported instructional framework based on the P3 Task Taxonomy. This study employed the ADDIE instructional design model and was limited to the Analysis and Design phases. The participants consisted of 42 pre-service physics teachers. Data were collected through open-ended CT tasks and analyzed descriptively based on students' cognitive response patterns. The findings revealed that 76.2% of the students predominantly exhibited System 1 thinking, characterized by intuitive responses with minimal elaboration, whereas only 20.3% demonstrated analytical System 2 reasoning. Based on these findings, an AI-supported P3 Task Taxonomy was developed that integrates Practice, Problem, and Project tasks with adaptive feedback and scaffolding mechanisms tailored to students' cognitive characteristics. Practically, the framework guides instructors in designing AI-assisted learning environments that foster CT development. Theoretically, this study extends current understanding of the relationships among cognitive systems, instructional task design, and AI support in the development of CT skills.
PBL is more effective for students with low BSPS, whereas Discovery Learning is more effective for students with high BSPS, highlighting that instructional effectiveness depends on students’ initial skill levels and support the development of adaptive learning strategies in science education.
Muhammad Sirih, Jahidin, Nurrijal et al.· International journal of tec...· 1 citation
This study reports the design, development, and initial validation of collaborative problem solving based learning materials for dynamic electricity, targeting first-year physics teacher education students. The materials were developed using the ADDIE instructional design model and focus on building students’ systems t...
Endang Susilawati, Ida Hamidah, Nuryani Rustaman et al.· The Physical Educator· 0 citations
A holistic framework that integrates inquiry-based learning (IBL) with artificial intelligence (AI) to support learning is proposed, arguing that the sustainability of such a system depends on shifting assessment from content mastery to measurable complex thinking skills.
Lori B. Doyle, Jill L. Swisher· Educational Point· 0 citations
Qualitative findings show that students transitioned from procedural to conceptual reasoning, demonstrating the ability to connect geometric concepts with real-world design contexts, and AI-supported PBI effectively promotes interconnected mathematical understanding and meaningful learning experiences in elementary edu...
F. Firdaus, Khairunnisa Zulfa Alifah· Frontiers in Education· 0 citations
The shift in 21st-century educational paradigms demands that elementary school students develop high-level competencies, particularly critical thinking skills, which are often underutilized in traditional teacher-centered classrooms. This study aims to improve students’ critical thinking skills through the implementati...
Lutfiana Nurohmah, W. Wuryandani· Attadrib Jurnal Pendidikan G...· 0 citations
The findings show that AI was used differently across the six cases, and appeared to function more as a cognitive scaffold when participants questioned, checked, revised, or justified AI-generated outputs, and more as a shortcut when outputs were used mainly for convenience with limited further reflection.