Word count: 3500 words

Objectives to cover:

  • Introduction to Vector Calculus: Introduces the study of vector fields and their importance in modeling physical systems.

  • Gradient, Divergence, and Curl: Defines key operations used to analyze changes and behaviors in scalar and vector fields.

  • Line Integrals in Physics: Calculates work done by a force field along a curve in space.

  • Surface Integrals in Physics: Measures the flow of a vector field across a given surface.

  • The Fundamental Theorem for Line Integrals: Simplifies line integrals in conservative vector fields using potential functions.

  • Green’s Theorem in Fluid Dynamics: Relates a line integral around a curve to a double integral over the region it encloses.

  • Gauss’s Theorem in Electromagnetism: Connects the divergence of a field to the total flux through a closed surface.

  • Stokes’ Theorem in Rotational Flow: Equates a surface integral of curl to a line integral around the boundary curve.

  • Conclusion: Applications and Tools: Highlights the significance of vector calculus in physics and engineering, supported by computational tools.

Reference:  IEEE style