Idealization of marine structures. Classical theorems of structural analysis. Matrix structural analysis: forces and displacement methods. Virtual work, real and complementary energy.
Finite element methods. Element coordinate systems. Numerical integration methods. Basic elements. Axisymmetric shells and solids. Plate bending elements. FEM modeling of marine structures.
Hull girder bending moments and stresses. Hull girder shear forces and stresses. Hull torsion loading and stresses. Hull girder deflections. Local strength problems. Classification societies requirements.
The motion of a viscous fluid. Navier-stokes equation. Boundary conditions. Boundary layer theory. Conformal mapping. Source-sink distribution techniques. Green’s theorem. Damping and added mass. Hydrofoil theory. Theory of wave resistance.
Uncoupled modes of motion. Irregular seaways. Motion in an irregular seaway. Coupled motions. Nonlinear rolling motion. Loads due motion. Motion stabilization. Model tests, full scale trials and scale effects. Seakeeping considerations in design.
Power cycles. Operating characteristics and limitation. Advanced marine steam and gas turbine power plants. Advanced diesel marine power plants. Combined cycles. Propulsion. Heat exchangers. Pumps and compressors.
Power plant selection. Machinery vibration. Electrical and thermal loads calculations . Hull machinery interactions. Engine/propeller matching. Advanced heat balance and heat recovery system. Fuel consumption.
Primary energy. Types of fuels. Heat values. Renewable energy. Solar energy. Wind energy. Water energy. Fuel cell. Hydrogen fuel. Application of energy saving in marine field.
Logic circuits. Logic gates. Open and closed control systems. De Morgan’s theorems. Data logging and control. Propulsion power plant control systems. Applications in shipbuilding and operation. Modern automatic control. Frequency and time response.
Steel cutting processes. Forming of plates and sections. Welding technology. Fabrication distorsion. Fabrication residual stresses. Assembly and erection. Fabrication tolerances. Fabrication of non-ferrous materials.
Hull girder inspection and maintenance. Ship corrosion problems. Cathodic protection. Surface preparation. Ship painting technology. The economics of ship maintenance. Classification societies requirements. Ship structural requirements. Design for inspection and maintenance. Technology of ship repairing. Non-destructive testing.
The concepts and requirements of ship design. Tendering and specifications. Detail design. Optimization problems in ship design. Computer software for ship design. Special craft. Unitization and containerization.
Design and classification societies requirements. Deck equipment and machinery. Anchoring arrangements. Cargo hatch covers. Derricks and cranes. Steering gears and rudders. Mooring arrangements-Hull piping system- Ventilation- Insulation. Safety equipment.
Government administration. International Maritime Organization (IMO). SOLAS. Surveys and certification. Subdivision and stability. Machinery and electric installations. Fire protection. Fire detection and fire extinction. Life saving appliances. Radiotelegraphy and radiotelephony. Safety of navigation. Carriage of grain. Carriage of dangerous goods. Nuclear ships.
Drilling systems. Types of ocean structures. Support systems. Offshore loading systems. Role of classification societies. Mooring and dynamic positioning systems. Pipelaying. Diving and submersibles.
Single degree of freedom systems. Multi-degree of freedom systems. The analysis of offshore structures by spectral techniques. Wave forces on slender members. Diffraction problems. Effect of currents and winds. Dynamic response of typical structures. Effect of structural vibrations. Uses of models to predict dynamic loads and the response of structures.
Applications in marine field – Tutorials – CAD/CAM systems – Typical software packages for marine field- Project.
Review of engineering economics. Shipbuilding cost estimation. Economics of ship operation. Feasibility analysis of marine systems. Contracts and specification. Scheduling and planning.
Types of casualties. Ship stability. Ship strength. Oil and hazardous substances. Salvage plans and surveys. Foundering. Stranding. Restoring buoyancy. Lifting. Tanker salvage. Offloading hazardous cargos. Salvage calculations.
Sources of marine pollution. Hazards of marine pollution. Methods and measures of preventing and controlling marine pollution. Oil spill response methods: mechanical containment and recovery, chemical dispersion, in-situ burning, shoreline clean-up, treatment of recovered oil, disposal of oil and oil debris. Clean-up cost analysis.
Developing contingency plans. Reporting and assessment during an oil spill incident. Spill scenarios. Weather scenarios. Behaviour of oil spills. Effective response measures. Comparing alternative response strategies. Economical and environmental effects of oil spills.
Marine pollution sources: shipping, waste dumping, offshore development, land-based activities, etc. Different legal mechanisms produced to control sources of marine pollution. Administrative and regulatory bodies. International laws and regulations for marine environmental protection. International conventions: MARPOL, OPA90, etc. National laws and regulations with particular reference to Egypt.
Forms management systems. Marine pollution databases. Required personnel and resources. Oil spill trajectory and fates models. Necessary tools needed to manage oil spill response. Organizing response operations. Damage assessment. Decision making for oil spill response.
Independent individual study or investigation of problems in a field related to the Diploma, under the supervision of a faculty member
Review of classical methods of structure analysis. Review of matrix algebra. Matrix methods for structural analysis: force and displacement methods. Methods of virtual work, real and complementary energy.
Finite element methods for marine structural analysis. Element coordinate systems. Numerical integration methods. Basic elements. Plate bending elements. FEM modeling of marine structures. Use of FEM computer packages.
Loads on ship structures. Response analysis. Methods of structural stability analysis. Buckling as a design criterion. Limit state analysis. Grillage theory. Theory of plates and shells. Local strength problems.
Review of probability theory. Random processes. Extreme value distributions. Analysis of uncertainties. Reliability analysis methods. Modes of failure. Component and system reliability. Fatigue reliability. Probabilistic description of loads on marine structure. Design considerations.
Dynamic forces on marine structures. Analysis of forces and deformations in marine structures. Single and multiple degree of freedom systems. Linear and nonlinear response. Response spectra. Introduction to probabilistic methods in structural dynamics. Applications to marine structures.
Use of mathematical programming methods for structural design optimization including linear and nonlinear programming methods. Problem formulation. Application to minimum weight and minimum cost design.
Elasticity/Plasticity. Fracture mechanics. Failure mechanisms. Structural and environmental factors. Defects. Tolerable and non-tolerable defects. Application to shipbuilding materials.
Materials testing and evaluation. Stress analysis in composite materials. Laminated composite structures. Design considerations of composite structures. Marine applications.
Description and formulation of wave problems in the ocean. Development of classical wave theory. Free waves and forced waves. Diffraction, refraction and reflection of waves. Shallow-water theory.
Review of vector algebra. Derivations of equations of motion. Viscous flows. Laminar and turbulent flows. Boundary layer theory. Navier-stokes equations. Theory of ship resistance. Wave resistance.
Motion of vessels in waves. Response in regular and irregular seas. Added mass and damping coefficients. Equations of motion of a ship in waves. Hydrodynamic forces and moments. Stability and control. Dynamic simulation.
Introduction to CFD. Flow equations. General approximation. Equations of motion. Momentun equations. Turbulence. Computational methods for ship waves. CFD applications to simulate flows around ships.
Review of basic hydrodynamics equations. Flow past propellers. Aerofoil design. Cavitation phenomena. Propeller types. Propulsive efficiency.
Design of ship power system components. Heat balance studies. Safety and pollution control. Electrical power systems. Modern diesel power plants, different cooling loads.
Principles of fluid system design. Piping systems. Combustion in marine power plants. Marine gas turbines. Renewable energy. Modern marine power plants.
Introduction to energy management. Electric load calculation. Thermal load calculation. Cooling load calculation. Power systems. Fuel consumption. Cooling machines. Energy management in ship systems. Case study.
Review of automatic control with marine applications. Ship steering. Ship control. Data logging and control. Computer control. Fluidics. Special topics in marine automation.
Primary energy . Types of fuels. Heat values. Renewable energy. Wind energy. Water energy. Fuel cell. Hydrogen fuel. Application of energy saving in marine field.
Planning and scheduling. Network application in scheduling shipbuilding. Production control. PERT/CPM and other control techniques. Information systems. Standardization.
Definitions and codes of practice. Why is it essential to apply Q.A. and Q.C. Case studies and applications.
Introduction. Statistical principles. Accuracy control planning. Executing. Evaluation. Applications.
Types of distortion created during ship production. Causes of distortions. Methods of reducing distortions. Distortion removal using flame straightening technique.
Advances in shipbuilding as seen by recent research. Directed study in advanced topics in shipbuilding
Design of modern ship types such as: hydrofoils, SWATH, multi-hulls, hovercraft, planing craft, etc.
Advances in ship design as seen by recent research. Directed study in advanced topics in ship design.
Introduction to probability theory and statistics. Random variables. Evaluation of data. Stochastic processes. Power spectral density techniques. Representation of the sea surface. Marine applications of random process theory.
Dynamic response of platforms in regular and irregular seas. Second order forces and moments. Stability in sea waves. Mono-hull and twin-hull platform motion. Sea loads.
Material in the ocean. Construction of ocean structures. Impact of the ocean environment on structural design. Structural assembly. Outfitting. Preservation of ocean structures. Cost and contracts.
Response phenomena. Harmonic oscillators. Vibrational modes. Damping. Response operators. Hydrodynamic forces. Stationary random processes. Special problems.
Introduction. Materials. Pipe capacity. Limit-state design. Penetration in soil. Hydrodynamics. On-bottom stability. Finite element analysis. Installation.
Advanced programming in one of the following languages: Fortran, Pascal, or C. Numerical methods. Introductory computer graphics. Data structures. Simulation.
Underwater equipment. Underwater cutting. Underwater welding. Underwater inspection. Underwater repair operations.
Ship stability. Reasons for ship foundering. Up-righting methods. Underwater salvage operations. Calculations for rescue operations. Calculations of ship stability during breakage and cutting.
Sources of marine pollution. Hazards of marine pollution. Statutory regulations and international conventions to prevent marine pollution. Methods and measures of controlling marine pollution.
For students working on an advanced research program leading to the completion of the master’s thesis. Students registered for the master’s degree must register every term in this course starting the third term of their registration. Course is taken on a satisfactory/unsatisfactory basic.
For students working on an advanced research program leading to the completion of the Ph.D. thesis. Students registered for the Ph.D. degree must register every term in this course starting the first term after passing their qualifying examination. Course is taken on a satisfactory/unsatisfactory basis.
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