Particle dynamics – systems of particles - Lagrange and Hamilton Equations – Impulsive response –Kinematics and Dynamics of rigid bodies - impulsive motion – Differential approach to equations of motion – Integral approach to equations of motion – Transpositional Relations.
Master of Science in Marine Engineering
Data will be available soon!
| content serial | Description | 
|---|---|
| 1 | Introduction to particle dynamics – particle motion. | 
| 2 | Systems of particles. | 
| 3 | Constraints and configuration on space-work, energy and momentum – impulse response | 
| 4 | Lagrange and Hamilton Equationsrnrn | 
| 5 | Hamilton’s equation – integrals of motion | 
| 6 | Impulsive response – analytical methods | 
| 7 | Kinematics and dynamics of rigid bodies – kinematical preliminaries / 7th week evaluation. | 
| 8 | Dyadic notation – basic rigid body dynamics | 
| 9 | Impulsive motion | 
| 10 | Equations of motion: differential approach | 
| 11 | Boltzman-Hamel equation – the general dynamical equation – a fundamental equation | 
| 12 | The Gibbs-Appell Equation – constraints and energy rates / 12th week evaluation | 
| 13 | Equation of motion: Integral approach | 
| 14 | Tranpositional relations | 
| 15 | Introduction to numerical methods | 
| 16 | Final Examination | 
| 1 | Introduction to particle dynamics – particle motion. | 
| 2 | Systems of particles. | 
| 3 | Constraints and configuration on space-work, energy and momentum – impulse response | 
| 4 | Lagrange and Hamilton Equationsrnrn | 
| 5 | Hamilton’s equation – integrals of motion | 
| 6 | Impulsive response – analytical methods | 
| 7 | Kinematics and dynamics of rigid bodies – kinematical preliminaries / 7th week evaluation. | 
| 8 | Dyadic notation – basic rigid body dynamics | 
| 9 | Impulsive motion | 
| 10 | Equations of motion: differential approach | 
| 11 | Boltzman-Hamel equation – the general dynamical equation – a fundamental equation | 
| 12 | The Gibbs-Appell Equation – constraints and energy rates / 12th week evaluation | 
| 13 | Equation of motion: Integral approach | 
| 14 | Tranpositional relations | 
| 15 | Introduction to numerical methods | 
| 16 | Final Examination | 
Start your application