Maritime Decarbonisation Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Fleet Managers, Port and Terminal Managers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-MP-024

Before you join: Participants should have working familiarity with shipping, port operations, logistics, marine engineering, environmental management or commercial maritime activity.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Maritime companies, ports, cargo owners and financial institutions face decisions that combine regulatory compliance, fuel choices, asset investment, chartering strategy and emissions reporting. The IMO 2023 GHG Strategy sets a net-zero direction for international shipping, while measures such as CII, EEXI, EU ETS and FuelEU Maritime create immediate operational and commercial consequences. Poorly defined emissions baselines, weak data controls and untested fuel assumptions can lead to costly compliance exposure, stranded investments and contracts that allocate carbon costs poorly.

This course equips participants to assess maritime decarbonisation requirements and convert them into practical transition plans. Participants work with IMO targets, GHG accounting boundaries, voyage and fleet emissions data, CII calculations, EEXI requirements, SEEMP Part III, EU ETS obligations and FuelEU Maritime compliance methods. The course examines operational efficiency, energy-saving technologies, alternative fuels, shore power, port emissions management, charter-party clauses, carbon-cost allocation and investment appraisal. Participants also assess lifecycle emissions, fuel availability, safety constraints and infrastructure dependencies before recommending a decarbonisation pathway.

Teaching combines instructor briefings with shipping, terminal and port cases, calculation-based group work, regulatory scenarios and structured planning sessions. Participants progressively build a maritime decarbonisation work package using their own fleet, port, trade-lane or client context where suitable. They leave with a documented baseline, compliance register, fuel pathway assessment, prioritised abatement measures and an implementation roadmap that can support internal investment, operational and governance decisions. A certificate of completion is issued to participants who complete the course.

The course is suited to professionals responsible for vessel operations, fleet performance, ports, logistics, sustainability, marine finance, chartering, procurement and regulatory compliance. It is designed for organisations needing a shared working method across technical, commercial and environmental functions.

What you will be able to do

  • Interpret IMO 2023 GHG Strategy targets and associated shipping decarbonisation measures
  • Build a fleet, voyage or port emissions baseline using defined accounting boundaries
  • Calculate CII performance and identify operational measures affecting annual ratings
  • Assess EEXI, SEEMP Part III, IMO DCS and EU MRV compliance requirements
  • Compare fuel pathways using lifecycle greenhouse-gas emissions, availability and infrastructure criteria
  • Develop marginal abatement cost curves for vessel and port decarbonisation options
  • Evaluate EU ETS and FuelEU Maritime financial exposure and contractual allocation options
  • Present a phased maritime decarbonisation roadmap with governance, milestones and investment priorities

Benefits of attending

For you

  • Ability to explain IMO, EU and port decarbonisation requirements to operational and commercial colleagues
  • Practical method for diagnosing CII exposure and prioritising vessel efficiency actions
  • Confidence to challenge fuel claims using lifecycle emissions and supply-chain evidence
  • Working templates for preparing investment cases and carbon-cost scenarios
  • Stronger capability to lead cross-functional maritime transition planning discussions

For your organisation

  • Clearer compliance planning for IMO DCS, CII, EEXI, EU ETS and FuelEU Maritime
  • Better prioritisation of operational, technical and fuel-related emissions reduction measures
  • More consistent carbon-cost assumptions in chartering, procurement and investment decisions
  • Improved evidence base for lender, customer, board and regulator discussions
  • A phased roadmap linking fleet, port, fuel, data and governance actions

Course modules

20 modules over 10 days

Participants can explain the principal regulatory, commercial and financial drivers shaping maritime decarbonisation decisions.

  • IMO 2023 Strategy targets: 2030 intensity, 2040 reduction, 2050 net-zero
  • Differentiate absolute GHG emissions, carbon intensity and lifecycle emission measures
  • Map shipowners, charterers, cargo interests, ports and fuel suppliers
  • Identify regulatory, commercial, financial and reputational decarbonisation drivers
  • Compare IMO measures with regional and voluntary climate requirements
  • Establish a decarbonisation programme charter, governance and decision rights

Participants can define suitable emissions boundaries and construct an auditable maritime emissions baseline.

  • Define organisational, operational and value-chain emissions reporting boundaries
  • Apply GHG Protocol Scope 1, Scope 2 and Scope 3 categories
  • Separate tank-to-wake, well-to-wake and lifecycle carbon dioxide equivalent emissions
  • Select activity data: fuel, distance, cargo, time and energy consumption
  • Calculate fuel-based emissions using recognised emission factors and global warming potentials
  • Document assumptions, data sources, exclusions and calculation-control procedures

Participants can assess reporting obligations and establish reliable controls for maritime emissions data.

  • IMO DCS reporting fields, annual timelines and statement-of-compliance requirements
  • EU MRV voyage reporting, monitoring plans and verification arrangements
  • Reconcile bunker delivery notes, noon reports, engine logs and invoices
  • Create data-quality checks for completeness, consistency, accuracy and traceability
  • Manage emissions-data gaps using documented estimation and correction procedures
  • Assign accountable owners for collection, review, approval and submission

Participants can produce a baseline that identifies major emissions sources and improvement priorities.

  • Segment emissions by vessel class, trade lane, cargo type and customer
  • Rank material sources using Pareto analysis and emissions-intensity indicators
  • Compare fleet baselines against historical performance and peer benchmarks
  • Identify data anomalies through fuel-consumption and voyage-duration reconciliation
  • Set baseline year criteria for acquisitions, disposals and fleet changes
  • Prepare an emissions baseline narrative for management review

Participants can calculate CII performance and identify practical actions to improve vessel ratings.

  • CII attained-rating calculation using annual fuel, distance and capacity data
  • Required CII trajectories, correction factors and vessel-type reference lines
  • Interpret A-to-E ratings and three-year corrective-action triggers
  • Test speed, routing, weather and waiting-time effects on CII
  • Assess cargo utilisation and ballast-leg impacts on carbon intensity
  • Build a vessel CII action plan with measurable operating controls

Participants can evaluate EEXI compliance routes and their operational implications for existing vessels.

  • EEXI applicability, attained values and required-index comparison methods
  • Engine Power Limitation settings, documentation and operational constraints
  • Assess shaft generators, energy-saving devices and propulsion improvements
  • Compare retrofit options using fuel savings, downtime and capital expenditure
  • Identify class, flag-state and technical-file approval requirements
  • Integrate EEXI decisions with dry-docking and asset-renewal schedules

Participants can prepare a SEEMP Part III structure that addresses CII underperformance.

  • SEEMP Part III requirements for ships subject to CII ratings
  • Define corrective measures for consecutive D ratings or E rating
  • Link planned measures to causes identified through performance analysis
  • Set implementation dates, responsible persons and monitoring indicators
  • Record CII improvement evidence for verification and internal assurance
  • Review corrective plans against chartering and operational constraints

Participants can select operational measures that reduce fuel consumption without compromising safe delivery.

  • Just-in-time arrival planning using berth availability and voyage schedules
  • Weather routing principles, safety constraints and fuel-consumption trade-offs
  • Apply speed-power curves to assess slow steaming opportunities
  • Hull and propeller performance monitoring using trend analysis
  • Reduce auxiliary loads through onboard energy-management procedures
  • Develop voyage efficiency indicators for master, operator and charterer review

Participants can estimate EU ETS exposure and establish a practical compliance administration process.

  • EU ETS maritime scope, phase-in percentages and covered voyages
  • Identify responsible entities under the shipping-company definition
  • Calculate allowance exposure from verified EU MRV emissions data
  • Distinguish intra-EU, extra-EU and berth-at-port emissions coverage
  • Plan allowance procurement, surrender dates and cash-flow requirements
  • Allocate EU ETS costs through charter-party and customer arrangements

Participants can assess FuelEU Maritime exposure and compare compliance options for relevant voyages.

  • FuelEU Maritime scope, greenhouse-gas intensity limits and reporting periods
  • Calculate well-to-wake fuel intensity using FuelEU lifecycle values
  • Assess pooling, banking and borrowing mechanisms for compliance management
  • Evaluate shore-power requirements for eligible container and passenger vessels
  • Estimate FuelEU penalties and compare alternative compliance pathways
  • Align FuelEU planning with EU ETS and fuel-procurement decisions

Participants can compare alternative marine fuels using lifecycle, safety, supply and operational criteria.

  • Compare LNG, methanol, ammonia, hydrogen, biofuels and synthetic fuels
  • Well-to-wake assessment boundaries, default values and certification evidence
  • Fuel readiness criteria: storage, handling, crew competence and bunkering
  • Assess feedstock availability, additionality and sustainability certification risks
  • Identify methane slip, nitrous oxide and upstream-emissions considerations
  • Construct a fuel pathway decision matrix for selected vessel segments

Participants can screen technical measures and prioritise retrofit candidates using transparent criteria.

  • Screen air lubrication, wind assistance and waste-heat recovery technologies
  • Evaluate hull coatings, propeller upgrades and duct installation options
  • Use discounted cash flow for fuel-saving retrofit appraisal
  • Calculate payback period, net present value and sensitivity ranges
  • Assess installation windows, dry-docking requirements and class approvals
  • Prioritise measures using emissions reduction, cost and technical readiness

Participants can develop an emissions inventory and reduction priorities for port and terminal operations.

  • Define port emissions sources: vessels, cargo equipment, trucks and buildings
  • Prepare berth-at-port inventories using vessel call and auxiliary-engine data
  • Apply the GHG Protocol to terminal equipment and purchased electricity
  • Identify idle-time, congestion and gate-process emissions reduction opportunities
  • Set port emissions indicators for throughput, calls and equipment hours
  • Coordinate port authority, terminal operator and shipping-line responsibilities

Participants can assess shore-power and port-energy projects from technical, commercial and operational perspectives.

  • Shore-power system components: grid connection, frequency conversion and onboard interface
  • IEC/ISO/IEEE 80005 standards for high-voltage shore connection systems
  • Estimate berth demand using vessel load profiles and call schedules
  • Assess grid capacity, renewable supply and electricity tariff structures
  • Compare shore power with auxiliary-engine emissions and operating costs
  • Develop stakeholder agreements for connection, tariffs, maintenance and utilisation

Participants can identify carbon-cost allocation issues and prepare informed inputs for maritime contracts.

  • Compare time-charter, voyage-charter and contract-of-affreightment emissions responsibilities
  • Analyse fuel clauses, speed clauses and performance warranty interactions
  • Allocate EU ETS allowances between owners, charterers and cargo interests
  • Specify fuel-quality, sustainability-documentation and audit-rights contract provisions
  • Manage CII consequences where commercial instructions affect vessel performance
  • Create a carbon-cost allocation matrix for proposed contractual arrangements

Participants can evaluate decarbonisation investments using financial, regulatory and asset-risk assumptions.

  • Build total-cost-of-ownership models for vessel fuel and technology options
  • Include fuel price, carbon price, downtime and residual-value assumptions
  • Test sensitivity to utilisation, policy changes and fuel availability
  • Compare retrofit, newbuild, charter-in and asset-disposal decision pathways
  • Assess stranded-asset risk using compliance and market-access scenarios
  • Prepare an investment recommendation with stated assumptions and decision triggers

Participants can prepare decision-ready decarbonisation information for lenders, investors, customers and boards.

  • Poseidon Principles indicators and climate-alignment reporting for ship finance
  • Sustainability-linked loan structures, targets and reporting obligations
  • Prepare customer emissions disclosures using carrier and freight data
  • Translate technical findings into board-level risk and investment messages
  • Identify assurance needs for emissions claims and transition disclosures
  • Create reporting calendars covering regulatory, lender and customer submissions

Participants can convert decarbonisation priorities into a governed, phased implementation roadmap.

  • Sequence no-regret actions, pilot projects, retrofits and fleet-renewal decisions
  • Set milestones for compliance, emissions, fuel readiness and capital approvals
  • Assign RACI roles across technical, operations, commercial and sustainability teams
  • Build risk registers covering fuel supply, technology, finance and regulation
  • Define leading and lagging indicators for roadmap performance reviews
  • Establish escalation routes for missed targets and material assumptions

Participants can prepare implementation plans that embed decarbonisation actions into operating routines and decisions.

  • Identify affected roles, decisions, incentives and operating procedures
  • Develop stakeholder engagement plans for crew, charterers and port users
  • Plan competence requirements for new fuels, systems and reporting processes
  • Integrate decarbonisation controls into safety-management and maintenance systems
  • Use pilot reviews to validate assumptions before fleet-wide deployment
  • Prepare monthly management-review packs for implementation progress

Participants can build, review and present a complete maritime decarbonisation action plan for a fleet, vessel segment, port or terminal.

  • Consolidate emissions baseline, compliance register and materiality assessment findings
  • Select operational, technical, fuel and infrastructure abatement measures
  • Quantify emissions reductions, carbon costs, capital needs and implementation dependencies
  • Develop a phased roadmap with owners, milestones and performance indicators
  • Review assumptions, data limitations, risks and stakeholder impacts
  • Present a decision-ready action plan for peer and instructor review

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Maritime emissions baseline template
  2. CII and corrective-action plan
  3. EU ETS and FuelEU exposure model
  4. Alternative-fuel pathway decision matrix
  5. Port emissions inventory checklist
  6. Phased maritime decarbonisation roadmap

Who should attend

  • Fleet Managers — need to improve vessel efficiency, CII ratings and compliance performance
  • Port and Terminal Managers — need practical plans for berth emissions, shore power and equipment transition
  • Sustainability Managers — need defensible maritime emissions baselines, targets and transition plans
  • Chartering and Commercial Managers — need to understand carbon-cost exposure and contract allocation
  • Marine Technical Superintendents — need to assess EEXI upgrades, operational limits and retrofit options
  • Finance and Investment Managers — need to evaluate decarbonisation projects, fuel risks and asset value implications

Skills and tools covered

Maritime emissions accountingCII and EEXI complianceFuel pathway assessmentPort emissions planningCarbon cost allocationTransition roadmap design

Tools and standards

IMO 2023 GHG Strategy, Carbon Intensity Indicator, EU MRV Regulation, FuelEU Maritime Regulation

How the course runs

Training methodology

The course uses short technical briefings followed by applied case work from shipping, ports, terminals and cargo supply chains. Participants interpret regulations, assess emissions data, calculate selected compliance metrics, compare fuel pathways and test commercial scenarios. Group exercises address fleet and port decarbonisation choices, including CII improvement, shore power, carbon-cost allocation and fuel procurement. Facilitated discussions examine trade-offs between cost, safety, infrastructure, lifecycle emissions and operational reliability. Each participant develops and refines a work-based transition package throughout the programme.

Requirements and prerequisites

Participants should have working familiarity with shipping, port operations, logistics, marine engineering, environmental management or commercial maritime activity. They should understand basic vessel operations, fuel use and common shipping terminology such as voyage, charterer, deadweight and bunker consumption. Experience with emissions reporting, IMO regulations or carbon markets is useful but not required. The course does not require engineering design expertise, advanced financial modelling, prior CII calculations or specialist knowledge of alternative-fuel chemistry. Participants should be prepared to interpret operational data, compare options and contribute examples from their organisation.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

You should understand basic shipping, port, logistics or marine operations terminology. Prior work with emissions reporting, CII, EEXI, EU ETS or alternative fuels is not required.

Bring a laptop for calculation-based work and, where permitted, non-confidential examples of fleet, voyage, port or fuel data. Participants without organisational data can work from provided cases.

It suits managers and specialists working in fleet operations, ports, terminals, sustainability, chartering, technical management, procurement and maritime finance. It is particularly useful where several functions need to agree a common transition plan.

This course focuses on shipping and port decisions, including CII, EEXI, IMO DCS, EU MRV, EU ETS, FuelEU Maritime, vessel fuels and shore power. It applies emissions methods to operational, technical and commercial maritime choices.

Participants build a baseline, compliance register, fuel assessment and action roadmap during the programme. These materials can be adapted for fleet reviews, port decarbonisation plans, investment proposals or chartering discussions.

Each day runs from 08:30 to 16:30, providing about 6.5 contact hours. The first part of the course establishes regulation, data and compliance methods; later modules address fuels, ports, contracts, finance and the final action-plan capstone.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.