Marine Engineering Fundamentals for Non-Engineers Training

Marine Engineering Fundamentals for Non-Engineers Training

Practical insights for shipping, offshore, and maritime professionals

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Platform:
Online
In-class
Revised and Updated: 23 October 2026
Date Venue Duration
16 - 20 November 2026 Sandton, Gauteng 5 Days
18 - 22 January 2027 Sandton, Gauteng 5 Days
21 - 25 June 2027 Sandton, Gauteng 5 Days
02 - 06 August 2027 Sandton, Gauteng 5 Days
13 - 17 September 2027 Sandton, Gauteng 5 Days

Course Introduction

Ships, offshore units, and port equipment depend on engineering systems that many of the people who manage, finance, insure, buy for, and plan around them have never been taught to understand. When an engine fails or a maintenance decision is deferred, the cost falls on the whole business, through off-hire time, repair bills, insurance claims, delayed projects, and safety incidents.

 

This five-day course gives project managers, support staff, asset and insurance managers, procurement and contract professionals, and others who work alongside marine engineers a practical, non-mathematical understanding of how marine engines and their supporting systems work, how they fail, and how good maintenance prevents failure. Participants cover 2-stroke and 4-stroke engines, fuels and emissions rules, pumps, lubrication and corrosion, propulsion, electrical and auxiliary systems, condition monitoring, and the human factors behind many engine-room accidents.

 

Through case studies, hands-on exercises, and communication drills, participants gain the technical literacy to ask the right questions, read engineers’ reports and fault data, and take better operational, commercial, and risk decisions, with no prior engineering background needed.

Course Objectives

By the end of this Marine Engineering Fundamentals for Non-Engineers Training course, participants will be able to:

  • Explain the core principles of marine engineering, including 2-stroke and 4-stroke engine operation, fuel systems, and propulsion
  • Recognise common engine failure modes and maintenance pitfalls in marine environments, and ask the right questions when they occur
  • Identify major engine components, such as pistons, bearings, seals, pumps, turbochargers, and exhaust systems, and describe their functions
  • Interpret engine checklists, fault reports, alarms, and performance data to support informed decisions
  • Describe how current emission rules and the move to new fuels affect engines, costs, and safety
  • Promote and oversee good practice in lubrication, corrosion prevention, planned maintenance, and condition monitoring
  • Explain the basics of naval architecture, and how engine performance, ship stability, and propulsion interact
  • Apply lessons from real incidents to reduce human error and improve the safety and reliability of vessel operations
  • Communicate confidently with engineering teams, procurement, insurers, and technical vendors

Who should attend?

  • Project Managers and Directors in maritime, shipping, and offshore sectors
  • Asset and Insurance Managers responsible for vessel and equipment risk
  • Back Office and Support Teams who work with technical personnel
  • Procurement, Logistics, and Contract Managers
  • Chartering and Operations Staff
  • Quality Assurance and Compliance Professionals
  • Project Planners, Cost Estimators, and Technical Assistants
  • Master Mariners, Discipline Engineers (non-mechanical), and Cargo and Equipment Providers
  • Anyone seeking foundational knowledge of marine engineering without a technical background
Environmental, Social and Governance (ESG) Training

Training Methodology

Our diverse instructional approaches ensure effective learning:

– Lectures & Presentations: Engage with expert-driven, stimulating content.
– Course Material: Access well-crafted supporting resources.
– Group Work: Collaborate on discussions and case studies for practical insights.
– Workshops & Role-Play: Participate in immersive, scenario-based activities.
– Practical Application: Focus on applying theoretical knowledge in real situations.
– Post-Training Support: Receive extensive support after training for skill implementation.

Training Outline

Day 1 — Foundations and Engine Basics
Module 1: Introduction to Marine Engineering for Non-Engineers
  • The role of marine engineering in shipping and offshore operations; how a ship's machinery and crew are organised
  • Why non-engineers need to understand technical concepts: downtime, off-hire, repair cost, and insurance impact
  • Key terminology and basic mechanical concepts: force, work, power, pressure, temperature, and efficiency
  • The regulatory and class framework in plain terms: SOLAS, MARPOL, the ISM Code, classification societies, and surveys
  • Practical Exercise: build a one-page glossary of ten engineering terms and match each to a business consequence
Module 2: Internal Combustion Engines on Vessels
  • Anatomy of 2-stroke and 4-stroke marine engines, and where each is used
  • How diesel (compression-ignition) engines produce power: strokes, efficiency, and why large ships use slow-speed 2-stroke engines; where petrol engines are used, such as outboards on small craft
  • Key components: pistons, cylinder liners, crankshafts, valves, and fuel injectors; where spark plugs or glow plugs are used
  • Fuels and options: marine diesel and fuel oils, LNG, biofuels, methanol, and diesel-electric and hybrid systems
  • Practical Exercise: label the main components on a cutaway engine diagram and explain what each does in plain language

Day 2 — Engine Mechanics, Performance and Failure
Module 3: Inside Marine Engine Mechanics
  • Engine arrangements and combustion processes
  • Compression, ignition timing, and fuel delivery
  • Exhaust systems, turbochargers, and engine cooling
  • Emissions and compliance in plain terms: the sulphur limits (0.50% globally, 0.10% in emission control areas), NOx limits, scrubbers and low-sulphur fuels, and the EEXI and CII energy-efficiency and carbon-intensity ratings for existing ships
  • New technologies and global innovations, including dual-fuel engines and the present position of the IMO net-zero framework (confirm current detail)
  • Practical Exercise: compare two compliance options for a sample vessel, such as a scrubber and low-sulphur fuel, on cost, risk, and operational impact
Module 4: Engine Performance, Wear, and Failure
  • Mechanical wear, piston and bearing failure, and engine vulnerabilities
  • Identifying and diagnosing faults through checklists, alarms, and monitoring; what to ask the engineering team
  • Fuel quality and contaminated bunkers as a cause of engine damage
  • OEM standards and instructions, turbocharger function, and common service failures
  • Real case studies of breakdowns, root causes, and corrective action
  • Practical Exercise: read a sample fault report, identify the likely root cause, and list five questions to ask the chief engineer

Day 3 — Pumps, Lubrication, Corrosion and Propulsion
Module 5: Pump Systems, Lubrication and Corrosion Management
  • How pumps work in marine engines and systems
  • Types and roles of lubricants and oils; oil analysis and what the results show
  • Corrosion control and the impact of marine environments: coatings, cathodic protection, and water treatment
  • Case study: costly failures caused by poor lubrication or corrosion
  • Practical Exercise: review a sample oil analysis report and decide what action it calls for
Module 6: Propulsion, Shafting and Naval Architecture Basics
  • Propeller types (fixed and controllable pitch), shafts, and gearbox design
  • Introduction to naval architecture: stability, hydrodynamics, and ship movement
  • The impact of engine and propulsion design on ship performance and fuel use
  • Analysis of propulsion system failures
  • Practical Exercise: explain to a non-technical manager why a vessel is losing speed and burning more fuel, using a sample set of operating data

Day 4 — Maintenance, Monitoring, Electrical and Auxiliary Systems
Module 7: Condition Monitoring and Maintenance Best Practice
  • Planned maintenance systems and why they matter; the cost of deferred maintenance
  • Condition monitoring techniques: trend analysis, vibration and oil analysis, and condition-based maintenance
  • Preventive maintenance, spare parts planning, and hazard identification
  • Practical Exercise: review a sample maintenance backlog and rank the items by safety and commercial risk
Module 8: Electrical and Auxiliary Systems
  • Basics of marine electrical systems: generation, distribution, circuits, and alarms
  • Auxiliary engines, boilers, and equipment
  • Energy flows: mechanical, electrical, and thermal; batteries and hybrid systems and their safety considerations
  • Automation and control systems, and why cyber security now matters for ship machinery
  • Practical Exercise: trace the energy flow through a sample vessel from fuel to propeller and electrical load, and mark where losses and risks occur

Day 5 — Human Factors, Safety and Practical Scenarios
Module 9: Human Error, Safety and Incident Response
  • The impact of human factors in marine engineering failures: fatigue, training, communication, and procedures
  • Fire prevention, accident classification, and emergency response basics, including engine-room fires
  • Safe use of new fuels: toxicity, flammability, and storage issues, including ammonia (the IMO interim guidelines for ammonia-fuelled ships) and hydrogen
  • Lessons learned from notable maritime incidents, and investigation and reporting
  • Practical Exercise: analyse an incident summary to separate the technical causes from the human and organisational causes
Module 10: Practical Exercises and Real-World Scenarios
  • Hands-on exercises: fault diagnosis and maintenance checklists
  • Analysing failures: case studies and group problem-solving
  • Communication drills: bridging the gap between technical and non-technical teams
  • Review of key learning outcomes, group discussion, and certificate of completion
  • Practical Exercise: run a mock management meeting about a major engine failure, with each participant taking a role

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FAQs – Marine Engineering Fundamentals for Non-Engineers Training

Master marine engineering fundamentals for non-engineers, learning vessel propulsion systems, shipboard machinery, auxiliary power systems, marine safety protocols, and technical maintenance concepts to improve decision-making across maritime operations.

What is covered in the Marine Engineering Fundamentals for Non-Engineers Training?
The course covers vessel propulsion systems, shipboard auxiliary machinery, marine electrical and hydraulic systems, ship stability principles, hull architecture, and essential marine safety equipment.
Who should attend this Marine Engineering Fundamentals Training?
This course is ideal for maritime logistics coordinators, port operations personnel, shipping line administrators, marine insurance adjusters, maritime lawyers, and non-technical staff working in maritime industries.
How does this course bridge technical and non-technical marine roles?
Delegates gain a non-technical breakdown of vessel systems, technical terminology, and operational mechanics, enabling effective communication with chief engineers, technical superintendents, and dry-dock teams.
Will delegates learn about ship stability and safety management?
Yes. The curriculum explores basic buoyancy principles, center of gravity, load line regulations, trim and stability factors, and vessel compliance under MARPOL and SOLAS conventions.
Does the training cover vessel maintenance cycles and engine room operations?
Yes. The course provides clear insights into routine engine room workflows, planned maintenance systems (PMS), survey requirements, and identifying primary causes of mechanical downtime.
Why is non-engineering maritime technical knowledge valuable?
Understanding fundamental ship engineering improves risk management, streamlines vessel chartering and claims processing, enhances operational decision-making, and reduces costly communication gaps.

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