Understand the fundamentals of hydraulics, buoyancy, and ship stability through applied fluid mechanics. This video explains how fluid pressure, force transmission, and Pascal’s law govern hydraulic systems, while buoyant forces and center of gravity determine whether a vessel floats, trims, or capsizes. Learn how metacentric height, stability curves, and fluid behavior influence ship design, load distribution, and safety at sea. Built for mechanical, marine, and naval engineers seeking practical insight into fluid mechanics principles that control stability, control systems, and real-world maritime performance.

Explore how stress, deflection, energy methods, and finite element analysis work together to predict real structural behavior. This video connects classical mechanics with modern computational tools, showing how loads translate into stress and deformation and how strain energy and virtual work reveal hidden failure risks. Learn how FEA validates hand calculations, exposes stress concentrations, and improves design confidence in complex geometries. Built for mechanical and structural engineers seeking a clear, engineering-first framework for accurate analysis, verification, and high-reliability design.

Understand how combined stresses and beam deflection govern real structural behavior. This video breaks down axial, bending, and shear stress acting simultaneously in structural members and shows how to calculate resulting stresses and deflections with engineering accuracy. Learn how load combinations affect neutral axis shift, maximum stress locations, and serviceability limits in beams and frames. Built for mechanical and structural engineers who need practical methods to predict deformation, prevent failure, and design structures that meet strength and deflection criteria under real-world loading conditions.