Container Terminal Management Training Course

Participants can assess demand patterns and identify binding terminal capacity constraints.

• Forecasting container demand from service rotations and historical call patterns
• TEU, moves and box counts used for capacity calculations
• Bottleneck analysis across berth, crane, yard, gate and rail
• Seasonality, bunching and peak-factor assumptions in terminal demand planning
• Capacity cushions for disruption, weather delays and schedule variation
• Matching service-level commitments with realistic operational capacity

Participants can prepare berth-window plans that balance vessel commitments and berth capacity.

• Berth window agreements and published service rotation requirements
• Estimating vessel service time from moves, crane rates and delays
• Berth allocation using vessel length, draft and handling priorities
• Tide, pilotage, tug and mooring constraints affecting berth plans
• Conflict resolution rules for late arrivals and priority calls
• Berth occupancy and berth productivity measures for management review

Participants can create vessel handling plans and deploy quay cranes effectively.

• Reading bay plans, BAPLIE messages and vessel stowage constraints
• Crane intensity calculated from workload, available cranes and berth time
• Sequencing discharge and load moves to protect vessel stability
• Quay crane deployment considering hatch covers, lashing and crane interference
• Gross moves per hour versus net crane productivity
• Shift handover controls for vessel plan changes and exceptions

Participants can diagnose quay productivity losses and establish corrective actions.

• Cycle-time analysis for quay crane, tractor and yard handoffs
• Delay coding standards for operational, equipment and vessel interruptions
• Measuring crane utilisation, idle time and unproductive moves
• Labour gang allocation against planned crane work windows
• Root-cause analysis using five whys and fishbone diagrams
• Daily production meetings using plan-versus-actual performance boards

Participants can select yard allocation rules that support vessel, gate and rail flows.

• Yard block design for imports, exports, transhipment and empties
• Allocating export stacks by vessel, port, weight and cut-off
• Import segregation by delivery mode, customs status and dwell risk
• Rubber-tyred gantry, rail-mounted gantry and straddle carrier yard systems
• Travel-distance reduction through equipment zoning and work-area balancing
• Yard strategy trade-offs between density, accessibility and rehandles

Participants can calculate yard capacity and target dwell-time reduction actions.

• Static yard capacity calculated from slots, stack height and occupancy
• Dynamic capacity adjusted for segregation, accessibility and operational buffers
• Dwell-time analysis by import, export, transhipment and empty containers
• Rehandle ratio measurement by block, move type and shift
• High-yard-density controls using stack plans and evacuation priorities
• Ageing reports triggering cargo follow-up, evacuation and escalation

Participants can design gate controls that reduce truck congestion and processing delays.

• Gate process mapping from pre-advice through interchange completion
• Truck appointment systems matched to hourly gate capacity
• OCR, RFID and kiosk technologies supporting transaction accuracy
• Turn-time measurement separating queue, processing and exception durations
• Exception lanes for damaged units, documentation failures and customs holds
• Peak-period staffing plans based on appointment and arrival profiles

Participants can coordinate intermodal container flows with terminal operating constraints.

• Rail ramp planning using train windows, wagon plans and cut-offs
• Barge call coordination with berth, yard and crane availability
• Interface controls between seaport terminals and inland container depots
• Pre-positioning boxes for rail loading and transfer minimisation
• Intermodal dwell measures and missed-connection root-cause analysis
• Information exchange using EDI messages and release status controls

Participants can plan equipment capacity and monitor maintenance performance indicators.

• Equipment fleet sizing from cycle times, demand peaks and redundancy
• Quay cranes, terminal tractors, reach stackers and yard cranes
• Preventive maintenance plans based on manufacturer intervals and condition data
• Mean time between failures and mean time to repair
• Availability, reliability and utilisation metrics for fleet performance
• Workshop backlog prioritisation using criticality and operational impact

Participants can define data controls needed for reliable terminal planning and execution.

• Core terminal operating system records for containers, vessels and equipment
• UN/EDIFACT messages including BAPLIE, COPRAR and CODECO
• Master-data controls for container status, location and cargo attributes
• Event timestamps supporting accurate productivity and dwell-time reporting
• Data-quality checks for duplicate records, exceptions and location errors
• Dashboard design linking operational data with management decisions

Participants can build a KPI structure that links operating actions to terminal outcomes.

• KPI tree linking safety, service, productivity, cost and asset use
• Vessel turnaround, gross moves and net moves performance measures
• Yard occupancy, dwell, rehandles and inventory accuracy indicators
• Truck turnaround and gate transaction productivity measures
• Target setting using baseline performance, capacity and service commitments
• Performance review cadence using shift, daily and weekly routines

Participants can apply core terminal controls for operational safety, dangerous goods and security.

• Task risk assessment for container handling and traffic movements
• Permit-to-work controls for maintenance, hot work and confined spaces
• IMDG Code segregation principles for dangerous-goods container storage
• Verified Gross Mass requirements and container weight discrepancy controls
• ISPS Code responsibilities for restricted areas and access control
• Incident investigation using causal analysis and corrective-action tracking

Participants can identify environmental impacts and plan practical terminal control measures.

• Fuel consumption measurement by equipment type, hour and container move
• Reefer monitoring controls for energy use and cargo protection
• Air emissions, dust, noise and stormwater operational controls
• Waste handling procedures for hazardous, ship-generated and workshop waste
• ISO 14001 environmental aspects and operational control principles
• Energy-reduction projects assessed through cost, benefit and implementation risk

Participants can relate terminal operating decisions to revenue, cost and investment outcomes.

• Terminal tariff components for lift-on, lift-off, storage and ancillary services
• Revenue exposure from service failures, storage and equipment charges
• Operating cost drivers for labour, fuel, maintenance and utilities
• Unit-cost analysis using cost per move and cost per TEU
• Capital expenditure cases for cranes, yard systems and gate automation
• Concession obligations, minimum throughput and performance commitments

Participants can prepare operational responses for common terminal disruptions and recovery periods.

• Contingency plans for weather closures, crane failures and system outages
• Recovery sequencing after vessel bunching and yard congestion
• Business continuity roles, communication routes and decision thresholds
• Prioritising reefers, dangerous goods, transhipment and time-sensitive cargo
• Scenario planning for labour shortages, gate closures and cyber incidents
• Post-incident review using lessons learned and action registers

Participants can structure a feasible terminal improvement project using operational evidence.

• Problem statements framed through service, cost, safety and capacity impacts
• Baseline data selection for terminal improvement project diagnostics
• Pareto analysis identifying priority delay, defect and rehandle causes
• Improvement options assessed through benefit, feasibility and risk criteria
• Implementation roadmaps assigning owners, milestones and control measures
• Benefits tracking through defined KPIs, baselines and review dates

Participants can build, review and present a complete terminal operating improvement plan.

• Terminal diagnostic integrating berth, quay, yard, gate and equipment evidence
• Priority problem selection supported by KPI trends and root causes
• Berth, yard and gate actions aligned with capacity constraints
• Safety, security and environmental controls embedded within proposed actions
• Implementation plan defining owners, milestones, resources and performance measures
• Peer review of assumptions, risks, trade-offs and expected benefits