ORGANIZATION OF PROJECT-BASED ON LEARNING IN PHYSICS BASED ON CREATIVE APPROACHES

The article "Organization of Project-Based Learning in Physics Based on Creative Approaches" by A. Khakimov and Yo. Mamatokhunov examines the integration of creative methodologies into physics education through project-based activities. It emphasizes the necessity of fostering independent thinking, problem-solving skills, and the practical application of theoretical knowledge among students. The research methodically outlines the steps of creative project-based learning: problem identification, idea development, model creation, result testing, and final presentation. These stages are carefully constructed to promote student engagement, collaboration, and higher-order cognitive skills such as analysis and synthesis. Empirical evidence presented in the study highlights significant improvements in student motivation, teamwork capabilities, creativity, and depth of understanding in physics concepts. Quantitative data, including attendance rates and assessment scores, show that the experimental group, which adopted a creative project-based approach, significantly outperformed the control group subjected to traditional teaching methods. Students involved in creative projects demonstrated stronger analytical thinking, greater enthusiasm for learning, and more effective group cooperation. The article is grounded in established pedagogical theories such as constructivism (J. Piaget, L. Vygotsky), Bloom’s taxonomy of higher-order thinking skills, the metacognitive approach, and interdisciplinary STEM integration. The research confirms that creative project-based learning not only improves academic achievement but also equips students with essential 21st-century skills, including communication, critical thinking, and the ability to independently navigate complex problems. The authors conclude that implementing creative approaches in physics education transforms the learning environment into a dynamic, student-centered space where knowledge is not merely transferred but actively constructed. They recommend the broader adoption of this methodology across STEM fields to enhance educational outcomes and better prepare students for scientific and technological advancements. The findings contribute valuable insights into the modernization of physics teaching methods and reinforce the importance of innovation in education.