This note covers the following topics: Acceleration, Angular Momentum, Conservation of Energy, Frames of Reference,
Friction, Forces, Gravitation, Linear Inertia, Mechanical Advantage, Linear
Momentum, Motion in One Dimension, Physical Measurements, Projectiles,
Rotational Dynamics, Rotational Inertia, Statics and Mechanical Equilibrium,
Torque, Vectors.
Author(s): Museum Informatics Project, University of
California, Berkeley
This note describes the following
topics: fundamentals of engineering mechanics, Equilibrium, Friction, Centroid
and moment of inertia, Simple machines and dynamics.
Author(s): State Council for Technical
Education and Vocational Training, Odisha
The PDF explains the following topics related to Orbital Mechanics :
Two-Body Problem, The Orbit in Space, The Orbit as a Function of Time, Rocket
Dynamics, Impulsive Orbit Transfer, Interplanetary Orbital Transfer.
Author(s): Anil V. Rao, University of Florida,
Gainesville
The topics explained in this pdf include:: Kinematics, Newtonian
Mechanics for single particles, Work and Energy, System of many particles,
Lagrangian mechanics - first approach, Lagrangian mechanics from Hamilton’s
principle, Elements of Hamiltonian mechanics, Central force motion and
two-body problem, Harmonic oscillator, Coupled oscillations, Non-inertial
reference frames, Motion of rigid bodies.
This lecture note helps students to develop the ability to work comfortably with basic engineering
mechanics concepts Required for analyzing static structures. Topics covered includes: friction And
Basics Structural Analysis, Centroid And Centre Of Gravity And Virtual Work And Energy Method, Particle Dynamics And Introduction To
Kinetics, Mechanical Vibrations.
This note covers the following topics: Fundamentals Of Engineering Mechanics, Equilibrium,friction, Centroid
and Moment of Inertia, Simple Machines and Dynamics.
This
note provides an introduction to the mechanics of solids with
applications to science and engineering. Itemphasize the three essential
features of all mechanics analyses, namely: (a) the geometry of the
motion and/or deformation of the structure, and conditions of geometric
fit, (b) the forces on and within structures and assemblages; and (c)
the physical aspects of the structural system which quantify relations
between the forces and motions/deformation.
Author(s): Prof. Carol Livermore, Prof.
Henrik Schmidt, Prof. James H. Williams, Prof. Simona Socrate