Rail Freight and Supply Chain Management Training Course

Duration 10 days 21 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Logistics Managers, Supply Chain 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-LD-321

Before you join: Participants should have practical exposure to logistics, transport operations, procurement, distribution planning or import-export 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

Rail freight can reduce transport cost, improve bulk and container flows, and lower transport emissions, but only when rail services are designed around reliable terminals, train paths, equipment cycles, border processes and customer delivery requirements. Supply chain teams often face a practical gap between rail’s strategic promise and its operating realities: fixed schedules, limited capacity, last-mile dependency, cross-border documentation, wagon availability and service recovery after disruption.

This course develops the skills needed to design, procure, operate and improve rail freight within an end-to-end supply chain. Participants assess which lanes suit rail, compare rail-road and intermodal options, calculate landed transport cost, plan terminal interfaces, select wagons and containers, manage cross-border movements, and set service measures with carriers and terminal operators. The course addresses domestic rail, intermodal container services, bulk commodities, industrial sidings and international corridors.

Teaching combines short instructor briefings with sector cases, route-planning work, commercial negotiations, operating simulations and structured review of participant scenarios. Participants apply SCOR, Incoterms 2020, CIM/SMGS documentation principles and RID dangerous-goods requirements to realistic freight decisions. By the end of the programme, each participant has produced a rail freight supply chain integration plan for a selected lane, including demand assumptions, route design, terminal processes, cost model, risk controls, performance measures and implementation priorities.

The course is suited to professionals responsible for freight transport, logistics sourcing, distribution planning, import-export operations, supply chain design and industrial logistics. It is particularly relevant to organisations moving containers, agricultural commodities, minerals, chemicals, automotive parts, construction materials, consumer goods or project cargo through rail-connected corridors.

What you will be able to do

  • Assess freight lanes using rail suitability criteria, volume profiles and service requirements
  • Design intermodal rail flows linking origin collection, terminals, line-haul and final delivery
  • Calculate rail freight landed cost using tariff, terminal, handling and accessorial charges
  • Apply Incoterms 2020 and CIM/SMGS documentation principles to rail movements
  • Develop carrier procurement specifications, bid evaluations and rail service-level agreements
  • Manage wagon, container and terminal capacity through cycle-time and demand analysis
  • Build rail freight performance dashboards using OTIF, dwell, utilisation and cost measures
  • Present a rail freight supply chain integration plan with risks and implementation actions

Benefits of attending

For you

  • Greater confidence selecting rail and intermodal options for specific freight lanes
  • Practical ability to challenge rail tariffs, surcharges and terminal cost assumptions
  • Stronger capability to manage carrier performance using operational service measures
  • Working knowledge of CIM/SMGS, RID and Incoterms 2020 rail implications
  • A documented rail integration plan applicable to an employer freight network

For your organisation

  • Better identification of lanes where rail can reduce cost or road dependence
  • More disciplined terminal, wagon and container planning with fewer avoidable delays
  • Clearer rail carrier specifications and measurable commercial service commitments
  • Improved control of cross-border documentation, dangerous-goods and disruption risks
  • A prioritised implementation plan for rail freight integration and performance improvement

Course modules

21 modules over 10 days

Participants can explain how rail freight creates value and constraints within an end-to-end supply chain.

  • Rail freight value drivers: volume density, distance, regularity and network access
  • Comparing rail, road, sea and barge service characteristics systematically
  • Fixed infrastructure effects on schedules, routing flexibility and capacity
  • Supply chain trade-offs between transport cost, inventory and service
  • Rail operating ecosystem: infrastructure managers, operators, terminals and forwarders
  • SCOR source, deliver and return processes mapped to rail flows

Participants can distinguish rail service models and match assets to freight requirements.

  • Block trains, wagonload services and intermodal shuttles compared
  • Train paths, slots and timetables as capacity allocation mechanisms
  • Locomotives, wagons and containers matched to cargo characteristics
  • Open-top, covered, tank and flat wagons for common loads
  • Private sidings and rail-connected warehouses assessed for operating value
  • Network gauge, axle-load and loading-gauge constraints affecting route choice

Participants can identify freight lanes with a credible operational and commercial case for rail.

  • Lane screening matrix using distance, volume, density and delivery windows
  • Annual shipment data segmented by origin, destination, product and season
  • Minimum viable volumes tested against train and terminal economics
  • Demand variability assessed through weekly profiles and peak-season scenarios
  • Customer service requirements translated into transit and delivery constraints
  • Rail suitability scorecards prioritised by value, feasibility and risk

Participants can design integrated first-mile, terminal, rail and final-mile freight flows.

  • Origin collection plans linked to terminal cut-off times
  • Terminal gate processes, loading windows and equipment handovers mapped
  • Mainline rail schedules aligned with customer receiving availability
  • Final-mile delivery routes planned from destination terminal capacity
  • Containerised and trailer-on-rail flows compared for operational fit
  • Handover points assigned using RACI responsibilities and escalation paths

Participants can select rail corridors using route, capacity, border and terminal criteria.

  • Corridor mapping identifies origin nodes, gateways and destination markets
  • Route alternatives compared by mileage, transit, border crossings and cost
  • Diversion routes assessed for infrastructure compatibility and operating restrictions
  • Border stations evaluated for dwell, inspections and locomotive changes
  • Terminal catchment areas calculated using road drayage distance bands
  • Seasonal capacity constraints incorporated into corridor selection decisions

Participants can plan terminal processes that protect train schedules, cargo integrity and truck flow.

  • Terminal process maps cover gate-in, inspection, lifting, staging and release
  • Lift capacity calculated from crane cycles, shifts and utilisation
  • Yard layout principles reduce rehandles, congestion and equipment travel
  • Truck appointment systems matched to terminal throughput and dwell targets
  • Container stack rules reflect departure sequence, weight and hazardous segregation
  • Terminal operating agreements define handover records and liability points

Participants can convert demand forecasts into workable train, wagon and terminal capacity plans.

  • Train formation plans balance payload, axle limits and destination sequence
  • Wagon allocation models match equipment pools with confirmed demand
  • Capacity calendars combine train paths, terminal slots and maintenance windows
  • Cut-off discipline protects loading plans and departure reliability
  • Booking controls manage overcommitment during constrained operating periods
  • Rolling forecasts trigger capacity actions before seasonal demand peaks

Participants can improve asset availability by analysing equipment cycle time and imbalance.

  • Equipment cycle-time maps identify loaded, empty, dwell and repair stages
  • Wagon turnaround measured from release through return to availability
  • Container repositioning plans address directional trade and demand imbalances
  • Empty-move decisions evaluated against lease, storage and repositioning costs
  • Maintenance holds tracked separately from commercial and terminal delays
  • Equipment utilisation dashboards highlight idle assets and recurring bottlenecks

Participants can assign documentation, risk and handover responsibilities for rail freight movements.

  • CIM consignment note fields and carrier responsibilities examined
  • SMGS documentation requirements for Eurasian rail corridors reviewed
  • CIM/SMGS common consignment note supports border documentation continuity
  • Incoterms 2020 rules allocated to rail collection and delivery points
  • Commercial invoices, packing lists and certificates aligned with shipment records
  • Document-control checklists prevent release delays and data inconsistencies

Participants can plan border processes and controls for international rail freight movements.

  • Customs transit procedures linked to rail consignment and cargo status
  • Pre-arrival data submissions scheduled against border station arrival windows
  • Border dwell analysis separates customs, railway and inspection delays
  • Gauge changes, bogie exchange and transhipment risks evaluated
  • Sanctions and restricted-party screening incorporated into shipment release controls
  • Cross-border escalation matrices define contacts, evidence and decision authority

Participants can match cargo characteristics to rail handling, loading and protection requirements.

  • Cargo profiles classify density, fragility, temperature and handling requirements
  • Load plans protect weight distribution, securement and unloading sequence
  • Bulk commodity flows planned around loading rates and stockpile capacity
  • Palletised freight specifications address packaging strength and vibration exposure
  • Temperature-controlled rail options assessed against product shelf-life requirements
  • Damage claims evidence captured through inspection records and photographs

Participants can identify key dangerous-goods and operational safety controls for rail shipments.

  • RID classification determines packaging, marking, documentation and wagon requirements
  • Dangerous-goods segregation rules applied to loading and terminal storage
  • Emergency response information prepared for carriers, terminals and consignees
  • Tank wagon inspections scheduled against product compatibility and maintenance records
  • Incident reporting preserves evidence, notification duties and corrective actions
  • Safety management controls address loading, shunting and access risks

Participants can build transparent rail freight cost models and compare transport alternatives.

  • Rail tariff structures separate line-haul, access, handling and fuel charges
  • Terminal fees analysed by lift, storage, gate and inspection activity
  • Cost-per-tonne and cost-per-container calculations tested against utilisation assumptions
  • Accessorial charges tracked for detention, demurrage, reconsignment and diversion
  • Total landed transport cost compares rail-road and direct-road alternatives
  • Sensitivity analysis tests volume, dwell, fuel and empty-return assumptions

Participants can prepare rail freight tenders and evaluate carrier proposals against operating needs.

  • Rail request-for-proposal scope defines lanes, volumes, equipment and service windows
  • Bidder qualification checks licences, insurance, safety records and network access
  • Pricing schedules request transparent rates, surcharges and escalation formulas
  • Technical evaluation criteria assess capacity, terminals and contingency arrangements
  • Weighted bid scorecards combine commercial, operational and risk factors
  • Clarification meetings test assumptions behind carrier capacity commitments

Participants can establish rail contracts with measurable service, liability and escalation provisions.

  • Service-level agreements specify transit, departure reliability and delivery performance
  • OTIF definitions distinguish customer promise dates from carrier milestones
  • Liability clauses address loss, damage, delay and claim notification
  • Force majeure provisions reviewed against foreseeable operational disruption scenarios
  • Rate-review mechanisms link indices, thresholds and notice periods
  • Governance calendars set operational reviews, executive reviews and corrective actions

Participants can define rail performance measures and use data to identify operational losses.

  • Milestone plans track booking, gate-in, departure, arrival and delivery
  • Event data quality checked for timestamps, locations and exception codes
  • Rail dashboards combine OTIF, dwell, utilisation, damage and cost
  • Terminal dwell analysed by container, wagon, customer and delay reason
  • Root-cause analysis uses Pareto charts and five-whys questioning
  • Data governance assigns ownership for master data and milestone accuracy

Participants can prepare practical responses to rail disruption and customer service failures.

  • Disruption scenarios cover derailments, strikes, floods, congestion and border closures
  • Business impact assessments quantify delayed volume, customer exposure and cost
  • Contingency transport plans define road, alternate terminal and alternate route options
  • Control-tower routines establish exception triage and communication intervals
  • Customer communications distinguish confirmed facts, decisions and expected recovery dates
  • Post-incident reviews assign corrective actions, owners and completion dates

Participants can align rail schedules with inventory policies, replenishment plans and customer commitments.

  • Rail transit variability incorporated into safety-stock and reorder-point calculations
  • Replenishment calendars align production release with terminal and train cut-offs
  • Inventory-in-transit measured separately from warehouse stock and customer stock
  • Customer order promising reflects rail schedules and final-mile delivery capacity
  • Expedite rules define when premium road transport is commercially justified
  • Sales and operations planning incorporates rail capacity and seasonal constraints

Participants can assess rail’s emissions contribution and build credible modal-shift proposals.

  • Transport emissions boundaries defined for rail, road and terminal operations
  • Modal-shift calculations compare tonne-kilometres, load factors and energy sources
  • Empty running and terminal dwell included in emissions improvement analysis
  • Customer emissions reporting requirements translated into shipment data fields
  • Decarbonisation proposals balance emissions reduction, service and total cost
  • Rail electrification assumptions tested against corridor-specific energy information

Participants can establish governance routines that sustain rail freight service and cost improvements.

  • Operating cadence links daily exceptions with monthly performance reviews
  • KPI trees connect customer outcomes to terminal and carrier measures
  • Corrective-action registers track recurring failures, owners and verification evidence
  • Process audits test adherence to booking, documentation and release controls
  • Continuous-improvement prioritisation uses impact, effort and implementation risk
  • Stakeholder maps align procurement, operations, finance, sales and carriers

Participants can build, review and present a complete rail freight supply chain integration plan for a selected freight lane.

  • Lane profile defines demand, cargo, service requirements and stakeholders
  • Rail suitability assessment justifies modal choice and operating model
  • Route and terminal design identifies handovers, capacity and constraints
  • Cost model compares rail options with current transport arrangements
  • Risk register addresses disruption, border, safety and equipment exposures
  • Implementation roadmap sequences procurement, pilots, measures and governance
  • Peer review challenges assumptions, controls, commercial terms and feasibility
  • Executive presentation communicates recommendation, benefits, risks and required decisions

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

What you take back to work

  1. Rail lane suitability assessment template
  2. Intermodal route and terminal process map
  3. Rail freight landed-cost model
  4. Carrier tender evaluation scorecard
  5. Rail service-level agreement checklist
  6. Rail freight supply chain integration plan

Who should attend

  • Logistics Managers — need to integrate rail services into transport and distribution plans
  • Supply Chain Managers — need lower-cost, reliable options for strategic freight lanes
  • Transport Procurement Managers — need to source carriers and negotiate rail service terms
  • Distribution Planners — need to align inventory, terminals and delivery schedules
  • Import-Export Managers — need control of rail documentation, borders and handovers
  • Operations Managers — need to improve wagon cycles, terminal flows and service recovery

Skills and tools covered

Rail network designIntermodal operations planningFreight cost modellingRail carrier procurementCross-border rail complianceRail performance management

Tools and standards

SCOR Digital Standard, Incoterms 2020, CIM/SMGS consignment note, RID Regulations

How the course runs

Training methodology

The course uses short technical briefings followed by case analysis, route-design tasks, cost-model work, procurement scenarios, group discussions and rail disruption simulations. Participants work with realistic shipment profiles, terminal constraints, carrier offers, wagon cycles and border requirements. Facilitators use structured templates to connect commercial decisions with operational execution. Individual application planning is built through both weeks, allowing participants to test assumptions against their own lanes, customers, cargo types and service commitments.

Requirements and prerequisites

Participants should have practical exposure to logistics, transport operations, procurement, distribution planning or import-export activity. They should be comfortable reading shipment data, discussing transport cost components and interpreting basic service measures such as transit time, delivery performance and volume. Experience with rail freight is helpful but not essential. No engineering qualification, railway operating licence, advanced finance training or specialist customs certification is required. Participants may bring a current freight lane, carrier contract, shipment profile or operational issue to use during application work.

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

Participants should understand basic logistics or transport operations and be able to discuss shipment volumes, delivery requirements and transport costs. Rail freight experience is useful but not required; the course introduces the operating concepts needed for informed decisions.

Bring a current or proposed freight lane if possible, including approximate origin-destination details, volumes, cargo type, service expectations and known transport costs. Sensitive information can be anonymised before discussion.

It suits logistics, supply chain, transport procurement, distribution, import-export and operations professionals who influence freight mode selection or rail service performance. It is also relevant to managers operating rail-connected warehouses, terminals or industrial sites.

General transport courses cover broad modal planning and carrier management. This programme concentrates on rail-specific network constraints, train capacity, terminal interfaces, wagon cycles, rail documents, cross-border processes, dangerous goods and rail service contracts.

Participants leave with a structured rail integration plan for a selected lane or business case. The templates can be used to screen rail opportunities, prepare tenders, assess terminal readiness, monitor carrier performance and manage improvement actions.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes rail network, route, terminal, documentation and costing foundations; the second week focuses on procurement, performance, risk, inventory integration and the capstone plan.

Questions about this course?

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