Engineering the Seas: Naval Architecture Fundamentals Training Course

Introduction

Naval architecture is the multidisciplinary engineering science and art of designing, building, and maintaining marine vessels and offshore structures. From towering cargo ships and agile passenger ferries to intricate offshore platforms and specialized underwater vehicles, every vessel operating on or beneath the waves is a testament to the principles of naval architecture. This field demands a profound understanding of hydrostatics, hydrodynamics, structural mechanics, and systems engineering to ensure safety, efficiency, and performance in the demanding marine environment.

This intensive training course is meticulously designed to equip participants with a comprehensive and practical understanding of the fundamental principles of naval architecture. From exploring ship geometry and stability to mastering resistance and propulsion, structural design, and marine systems integration, you will gain the foundational knowledge essential for a career in maritime design, construction, or operations. This empowers you to approach vessel design challenges with a solid theoretical base, ensuring seaworthiness, optimal performance, and adherence to critical safety and regulatory standards.

Target Audience

  • Junior Naval Architects and Marine Engineers.
  • Shipyard Personnel (Design, Production, Project Management).
  • Maritime Surveyors and Regulators.
  • Marine Superintendents and Vessel Managers.
  • Mechanical and Civil Engineers transitioning to Marine Sector.
  • Students pursuing related engineering disciplines.
  • Technical Sales and Procurement Professionals in Maritime Industry.
  • Anyone interested in the fundamental principles of ship and offshore structure design.

Duration: 10 days

Course Objectives

Upon completion of this training course, participants will be able to:

  • Understand the fundamental principles of ship geometry and form definition.
  • Grasp the concepts of hydrostatics, stability, and trim for marine vessels.
  • Analyze the factors contributing to ship resistance and the principles of propulsion.
  • Comprehend the basics of structural strength, materials, and scantling determination for ship structures.
  • Evaluate the essential marine systems and their integration within a vessel.
  • Develop practical skills in reading and interpreting ship drawings and technical specifications.
  • Navigate the complexities of basic regulatory frameworks and classification society rules.
  • Formulate foundational design considerations for various types of marine vessels.

Course Content

  1. Introduction to Naval Architecture
  • Defining Naval Architecture : scope, history, and key disciplines
  • Types of Marine Vessels : cargo ships, passenger ships, naval vessels, offshore platforms, specialized craft
  • Key Phases of Ship Design and Construction : conceptual, preliminary, contract, detail design, construction
  • Role of the Naval Architect : from initial concept to decommissioning
  • Overview of the global maritime industry and its importance
  1. Ship Geometry and Form Definition
  • Lines Plan : sheer plan, half-breadth plan, body plan
  • Offsets Table : numerical representation of ship form
  • Hydrostatic Curves and Tables : relationships between displacement, draft, wetted surface area
  • Coefficients of Form : block coefficient, prismatic coefficient, midship section coefficient, waterplane coefficient
  • Tonnage Measurement : gross tonnage, net tonnage, deadweight tonnage
  1. Hydrostatics and Initial Stability
  • Buoyancy and Displacement : Archimedes' principle, calculating displacement
  • Center of Buoyancy (B) : location and its importance
  • Metacentric Height (GM) : initial stability, GZ curve introduction
  • Trim and Longitudinal Stability : moments to change trim, shifting weights
  • Flooding and Damage Stability : intact stability, subdivision, IMO requirements
  1. Ship Resistance and Propulsion
  • Components of Ship Resistance : frictional resistance, form resistance, wave-making resistance, air resistance
  • Total Resistance Calculation : empirical methods (e.g., Taylor's series, Holtrop-Mennen)
  • Propulsion System Components : propeller types (fixed, controllable pitch), prime movers (diesel engines, gas turbines, electric motors)
  • Propeller Theory : basic principles, thrust, efficiency
  • Hull-Propeller Interaction : wake fraction, thrust deduction
  1. Main Marine Systems
  • Propulsion Systems : shafting, bearings, stern tube, reduction gears
  • Steering Gear : rudder types, control systems
  • Auxiliary Systems : bilge, ballast, fuel, lube oil, freshwater systems
  • Electrical Systems : power generation, distribution, lighting, navigation equipment
  • Safety Systems : fire detection and suppression, emergency power, lifesaving appliances
  • Heating, Ventilation, and Air Conditioning (HVAC) systems
  1. Structural Strength and Materials
  • Global and Local Strength : hull girder bending, slamming, racking, local panel strength
  • Loading Conditions : still water bending moment, wave bending moment
  • Shipbuilding Materials : steel grades, aluminum, composites, welding considerations
  • Structural Elements : frames, stiffeners, bulkheads, decks
  • Corrosion Protection : coatings, cathodic protection for structural longevity
  1. Ship Construction and Manufacturing
  • Shipyard Layout : building docks, slipways, workshops
  • Fabrication Processes : plate cutting, bending, welding
  • Assembly and Erection : block construction, grand block assembly
  • Quality Control and Inspection : ensuring adherence to design and standards
  • Outfitting and Commissioning : installation of machinery, systems, trials
  1. Ship Motions and Seakeeping
  • Six Degrees of Freedom : heave, sway, surge, roll, pitch, yaw
  • Response to Waves : natural periods, resonance
  • Seakeeping Qualities : motion sickness, cargo damage, speed loss
  • Motion Reduction Devices : anti-roll tanks, fin stabilizers, bilge keels
  • Introduction to numerical methods for seakeeping prediction
  1. Regulatory Frameworks and Classification Societies
  • International Maritime Organization (IMO) : role, major conventions (SOLAS, MARPOL, LOAD LINES)
  • Flag State and Port State Control : enforcement of regulations
  • Classification Societies : role (e.g., Lloyd's Register, DNV, ABS), rules, surveys, certification
  • Statutory Requirements : certificates required for vessel operation
  • Interaction between design, construction, and regulatory compliance
  1. Design Process and Future Trends
  • Conceptual Design : defining mission, constraints, preliminary sizing
  • Preliminary Design : major dimensions, weight estimate, stability analysis
  • Feasibility Studies : technical and economic viability
  • Computer-Aided Design (CAD) and Engineering (CAE) : software tools for naval architecture
  • Sustainable Ship Design : energy efficiency, alternative fuels, emissions reduction
  • Digitalization in Naval Architecture : digital twins, smart ships, autonomous vessels
  • Introduction to specialized vessel design (e.g., offshore structures, submersibles).

CERTIFICATION

  • Upon successful completion of this training, participants will be issued with Macskills Training and Development Institute Certificate

TRAINING VENUE

  • Training will be held at Macskills Training Centre. We also tailor make the training upon request at different locations across the world.

AIRPORT PICK UP AND ACCOMMODATION

  • Airport pick up and accommodation is arranged upon request

TERMS OF PAYMENT

Payment should be made to Macskills Development Institute bank account before the start of the training and receipts sent to info@macskillsdevelopment.com

For More Details call: +254-114-087-180

 

 

Engineering The Seas: Naval Architecture Fundamentals Training Course in Benin
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