Collection of essential formulas across thermodynamics, mechanics, and fluid dynamics.

Explains gear types, design methods, and the mechanics of power transmission.

Explains types, design parameters, and uses of heat exchangers in mechanical systems.

Explains the working and classification of common machine tools in mechanical workshops.

Introduction to computer numerical control systems and their role in manufacturing.

Basics of control theory and its application in mechanical system automation and regulation.

Explores eco-friendly design and sustainable manufacturing in mechanical engineering.

Explores conduction, convection, and radiation heat transfer with real-world mechanical applications.

Detailed study of mechanisms, linkages, and the theory behind machine design.

An overview of vehicle mechanics, engine systems, and chassis design fundamentals.

Combining mechanical engineering with electronics and control systems fundamentals.

Fundamental concepts of tribology and its impact on mechanical component longevity.

Study of industrial robots, their design, and automation integration in manufacturing.

Introduction to robotics concepts, kinematics, and mechanical design of robotic systems.

Fundamentals of energy conversion and power generation in mechanical engineering contexts.

Comprehensive coverage of mechanical design methodologies, including stress analysis and material selection.

Introduction to fluid power systems, including pneumatics and hydraulics in mechanical applications.

Study of motion and velocity analysis of machine components without considering forces.

Techniques to assess and improve the reliability and lifespan of mechanical components.

An introduction to the core principles of thermodynamics and their applications in mechanical engineering.