Unlock the power of physics to revolutionize your engineering designs. In "Applied Physics for Engineering Design I: Mechanics, Vibrations, and Material Science," you'll explore the foundational principles that shape modern engineering systems and applications.

This course starts with the fundamentals of mechanics, including Newtonian and Lagrangian approaches, energy conservation laws, and rotational dynamics. From there, you’ll dive into the critical field of mechanical vibrations, exploring topics like natural frequency, damping, resonance, and vibration. The final section explores the mechanics of materials, covering stress, strain, deflection, and failure analysis, with a focus on selecting and applying materials in engineering projects.

Throughout the course, you’ll bridge the gap between theoretical physics and real world engineering, using practical examples, case studies, and design challenges to reinforce key concepts. Learn how to understand load distribution, mitigate vibrations, and ensure the reliability and safety of structural components through informed material choices and advanced analysis techniques.

By the end of this course, you’ll have a better understanding of how mechanics, vibrations, and material science intersect to create smarter, safer, and more efficient designs. Whether you're a student, a professional engineer, or someone passionate about the physics of design, this course will give you the tools and confidence to take your skills to the next level.