EntrepreneuroDesign: A Novel Framework for Enhancing Final Year Mechanical Engineering Course Efficiency

Abstract

This paper presents an innovative theoretical framework that integrates design thinking principles with entrepreneurial education and R&D strategies to enhance the efficiency of final year mechanical engineering courses. The proposed approach, termed "EntrepreneuroDesign," combines the iterative problem-solving methodology of design thinking with entrepreneurial mindset development and industry-driven R&D practices. By restructuring the traditional course curriculum, EntrepreneuroDesign creates a dynamic learning environment that simulates real-world engineering challenges. Students engage in rapid prototyping, market analysis, and collaborative problem-solving, fostering both technical proficiency and business acumen. The framework incorporates three key components: (1) industry-partnered project challenges, (2) iterative design sprints, and (3) entrepreneurial pitch sessions. This structure not only enhances students' engineering skills but also cultivates innovation capabilities and market awareness. Preliminary assessments of the EntrepreneuroDesign framework in a pilot program demonstrate significant improvements in student engagement, project outcomes, and industry-readiness compared to traditional teaching methods. This research contributes to the evolving landscape of engineering education by offering a scalable model that bridges the gap between academic learning and industry demands, potentially developing the preparation of mechanical engineering graduates for the innovation-driven job market.

Keywords

• Design thinking
• Mechanical engineering education
• EntrepreneuroDesign
• Innovation pedagogy
• Industry-Academia collaboration

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