This course, Engineering Physics II, delves into the intricate subjects of electricity and magnetism, providing a comprehensive understanding of various physical concepts. The curriculum includes:
Students will gain insight into key topics such as permittivity in media, drift velocity, Lorentz force, and paramagnetism. This course is designed to equip students with the essential knowledge and skills required in the field of physics.
In this module, students are introduced to the fundamental principles of electricity and magnetism. Key topics include the laws governing electric charges, the behavior of electric fields, and the principles of magnetic fields. Understanding these concepts is crucial for further studies in electromagnetism.
This module focuses on the rectangular Cartesian coordinate system, essential for representing physical phenomena in a mathematical framework. Students will learn to navigate and utilize this coordinate system to analyze scalar and vector fields effectively.
This module covers scalar and vector fields, distinguishing between the two and exploring their applications in physics. Understanding these concepts is vital for analyzing various physical systems and phenomena, from electrostatics to fluid dynamics.
This module provides mathematical preliminaries necessary for a deeper understanding of physics. Topics include essential mathematical techniques and tools that will be used throughout the course to analyze physical phenomena effectively.
This module explores epsilon naught and the principle of superposition, critical concepts in electrostatics. Students will learn how these principles apply to the behavior of electric fields and interactions between charges.
This module delves into Coulomb's law and the expression for the electric field. Students will engage with the mathematical descriptions and physical implications of these foundational concepts, enabling them to understand electrostatic interactions.
This module covers electrostatic phenomena and the additive constant. Students will explore various electrostatic effects and their significance in physical systems, enhancing their understanding of the behavior of static charges.
This module focuses on macroscopic fields and electrostatics in media. Students will learn how electric fields behave in different materials, including conductors and dielectrics, and the implications for various physical applications.
This module examines the wave equation, monochromatic plane waves, and interference experiments. Students will explore wave behavior, including wave propagation and interference patterns, providing insights into fundamental wave phenomena.