Methods of Implementing Problem-Based Learning in Physics Through Digital Technologies Pardayeva Kibriyo Zafarovna

Аннотация

This article explores the methodological foundations for implementing problem-based learning (PBL) in physics education through digital technologies. Emphasis is placed on interactive simulations, collaborative platforms, and cloud-based environments that foster critical thinking and student engagement. Drawing from contemporary educational frameworks, the study analyzes how digital tools enhance conceptual understanding, promote inclusive learning, and support teacher competence. The findings suggest that integrating PBL with digital innovation significantly improves the quality and accessibility of physics instruction in secondary education. Keywords: Problem-Based Learning, Physics Education, Digital Technologies, Interactive Simulations, Collaborative Platforms, Conceptual Understanding, Cloud-Based Learning, Student Engagement, Critical Thinking, Virtual Laboratories, Educational Innovation, Teacher Competence, Inclusive Learning, STEM Education, Pedagogical Methods. Education Introduction: In contemporary education, the integration of digital technologies has transformed Problem-Based Learning (PBL) is an instructional pedagogical methodologies, particularly in the field of method that emphasizes active learning through the physics. As educators increasingly adopt problem- exploration of complex, real-world problems. By based learning (PBL) strategies, it becomes essential to engaging students with challenges that require critical explore effective methods for implementation within thinking and collaboration, PBL fosters deeper digital frameworks. PBL emphasizes real-world understanding and retention of knowledge. This problem-solving, fostering critical thinking and approach aligns particularly well with the educational collaborative skills among students. Digital needs of physics, where abstract principles must be technologies, such as interactive simulations and linked to tangible applications. For instance, through collaborative platforms, serve to enhance this learning digital technologies, students can engage in approach by providing diverse tools that cater to collaborative projects that simulate real-world various learning needs. The ASTER project underscores engineering challenges, as demonstrated by the DIDET the importance of integrating Information and Framework which outlines principles for effective Communication Technologies (ICT) to support dialogue distributed design learning across cultural contexts [3]. among learners, noting that the manner of integration Additionally, the rise of robotics and DIY projects, significantly influences educational outcomes [1]. empowered by contemporary technologies such as Moreover, exploring trends in the learning technology Arduino and Raspberry Pi, offers exciting opportunities community reveals critical insights into the types of to implement PBL effectively in physics education [4]. tools that can facilitate PBL in physics while addressing Thus, PBL not only enhances student learning the unique needs of the discipline [2]. Such an outcomes but also prepares learners to tackle the intersection of methods and technologies sets the complexities of the modern scientific landscape. stage for a transformative educational experience. Digital Technologies in Physics Education