Sustainable Logistics Operations Training Course

Participants can identify the standards, controls and claims requirements affecting logistics operations.

• ISO 14001 environmental aspects register linked to logistics operational controls
• ISO 14083 principles applied to transport-chain greenhouse gas quantification
• CSRD and ESRS E1 reporting implications for logistics data
• Carrier contract clauses address emissions data, fuel and reporting assurance
• Green claims substantiation avoids unsupported carbon-neutral delivery statements
• Compliance calendar aligns reporting dates, owners and evidence retention

Participants can structure, assess and document logistics data for emissions calculations.

• Data dictionary standardises shipment, fuel, energy, distance and load fields
• Primary carrier data reconciled against invoices, telematics and transport management systems
• Emission factors selected by fuel, vehicle class, geography and reporting year
• Data-quality scoring records completeness, representativeness, accuracy, timeliness and uncertainty
• Estimation hierarchy documents proxies where supplier activity data remains unavailable
• Audit trail links source files, calculations, approvals and restatements

Participants can calculate transport, warehouse and packaging emissions using suitable allocation methods.

• Well-to-wheel and tank-to-wheel boundaries compared for modal decisions
• Distance calculations distinguish route distance, detours and empty repositioning
• Shipment emissions allocated by mass, volume, pallets or revenue tonne-kilometres
• Warehouse electricity emissions calculated using location-based and market-based methods
• Packaging footprints include material weight, recycled content and end-of-life assumptions
• Carbon intensity KPIs expressed per order, tonne-kilometre and sales unit

Participants can assess network changes using cost, service and emissions criteria.

• Network maps expose consolidation opportunities, cross-dock flows and redundant miles
• Lane segmentation combines volume, frequency, service promise and emissions intensity
• Total landed cost compares freight, inventory, carbon, duty and handling
• Centre-of-gravity analysis tests distribution-centre locations against demand patterns
• Scenario assumptions define demand, fuel prices, grid factors and constraints
• Business cases quantify cost-to-serve and carbon trade-offs by network option

Participants can identify lower-emission transport and service-tier options for different lanes.

• Modal hierarchy compares walking, cycling, rail, road, sea and air
• Mode-shift screening tests lead time, capacity, handling and emissions constraints
• Intermodal design identifies terminal handling, equipment compatibility and schedule risks
• Rail and short-sea options assessed using lane-specific carbon intensities
• Expedited freight root causes classified through demand, planning and supplier failures
• Service-tier redesign matches delivery promises to customer needs and carbon

Participants can improve routing, consolidation and vehicle utilisation using transport planning controls.

• Transport management system parameters reduce empty miles and partial loads
• Route optimisation balances distance, stops, time windows, payload and driver hours
• Backhaul matching converts return journeys into revenue or supplier collections
• Consolidation rules set order cut-offs, minimum drops and departure frequencies
• Dynamic routing controls distinguish savings claims from actual operational performance
• Daily dispatch dashboard tracks fill rate, kilometres, fuel and missed deliveries

Participants can compare fleet and fuel options using operational, financial and emissions evidence.

• Fleet baseline records vehicle age, fuel, payload, utilisation and maintenance
• Total cost of ownership compares diesel, battery-electric, biofuel and hydrogen vehicles
• Charging assessments cover depot power, dwell time, tariffs and route range
• Alternative fuel claims checked for feedstock, certification and lifecycle emissions
• Eco-driving scorecards link idling, harsh acceleration, speed and fuel consumption
• Preventive maintenance reduces tyre losses, fuel waste and roadside failures

Participants can identify, quantify and prioritise warehouse energy reduction opportunities.

• Energy walk-through identifies lighting, HVAC, refrigeration, conveyors and compressed air
• Submetering plan separates base load, peak demand and process consumption
• LED, controls and daylight harvesting evaluated through payback and operating hours
• Warehouse management system slotting reduces travel distance and equipment energy
• Refrigerant register tracks leaks, global warming potential and maintenance actions
• Energy intensity dashboard reports kilowatt-hours per order, pallet and square metre

Participants can reduce packaging impacts while protecting product quality and transport efficiency.

• Packaging specifications balance protection, cube utilisation, material use and recyclability
• Right-sizing analysis measures void fill, damage rates and transport impacts
• Reusable transit packaging loops define pooling, collection, cleaning and loss controls
• Packaging supplier scorecards assess recycled content, certifications and material data
• Waste hierarchy directs prevention, reuse, recycling, recovery and disposal decisions
• Material flow mapping identifies scrap, damaged stock and single-use consumables

Participants can design reverse logistics flows that reduce waste and improve asset recovery.

• Returns taxonomy separates avoidable, recoverable, refurbishable and end-of-life flows
• Closed-loop logistics designs collection points, inspection rules and disposition routes
• Return avoidance uses product information, quality controls and delivery accuracy
• Disposition matrix compares resale, repair, remanufacture, recycling and destruction
• Reverse transport consolidation reduces collection kilometres and handling touches
• Asset recovery KPIs track return rate, recovery value and disposal cost

Participants can build supplier requirements and scorecards that drive measurable logistics improvements.

• Supplier segmentation identifies high-emission carriers, 3PLs, packaging and fuel vendors
• Request-for-proposal criteria weight price, service, emissions data and improvement plans
• Carrier scorecards compare grams CO2e, fill rate, damage and punctuality
• Supplier development plans set targets, milestones, evidence and review cadence
• Contract incentives share savings from consolidation, utilisation and fuel reductions
• Procurement due diligence checks subcontractor controls, labour and environmental risks

Participants can set measurable targets and appraise logistics decarbonisation investments.

• Balanced scorecard links carbon, cost, service, safety and waste measures
• SMART targets define baselines, boundaries, owners, milestones and target years
• Marginal abatement cost curves rank initiatives by cost and emissions reduction
• Capital appraisal uses NPV, payback, sensitivity analysis and carbon-price assumptions
• Internal carbon prices test investment decisions under future emissions costs
• KPI governance assigns calculation owners, approval routes and escalation thresholds

Participants can assess climate-related disruptions and strengthen logistics continuity arrangements.

• Climate risk register records flood, heat, wildfire and infrastructure disruption
• TCFD-style scenario analysis tests physical and transition risks to logistics assets
• Business continuity plans define alternate routes, carriers, sites and inventory buffers
• Fuel supply contingency plans address shortages, quality failures and price volatility
• Supplier risk heatmaps combine concentration, geography, emissions and criticality
• Incident postmortems convert disruption evidence into corrective action plans

Participants can organise logistics decarbonisation initiatives into an accountable delivery programme.

• Initiative pipeline groups quick wins, pilots, capital projects and policy changes
• RACI matrix assigns accountable owners for logistics decarbonisation workstreams
• Implementation roadmaps sequence dependencies, procurement gates, data needs and budget approvals
• Change impact assessments identify dispatcher, driver, warehouse and supplier requirements
• Communication plans translate targets into role-specific operating instructions and feedback
• Benefits registers track forecast, realised, cashable and non-cashable savings

Participants can prepare logistics emissions reports supported by traceable evidence and controls.

• ISO 14083 calculation records prepared for internal review and assurance
• GHG Protocol Scope 3 disclosures reconcile logistics categories and supplier data
• Management dashboards distinguish absolute emissions from intensity and avoided emissions
• Variance analysis explains changes from volume, mix, efficiency and emission factors
• Evidence packs retain factor sources, invoices, meter reads and approvals
• Board papers present decisions, investment asks, risks and performance trends

Participants can adapt sustainable logistics methods to sector-specific operating constraints.

• Cold-chain distribution balances temperature compliance, refrigerant control and route efficiency
• Humanitarian last-mile planning addresses access constraints, consolidation and safeguarding
• Retail replenishment models reduce store deliveries while protecting shelf availability
• Bank cash logistics considers security, routing, vehicle idling and service windows
• Industrial spare-parts networks balance uptime commitments against expedited freight
• Construction logistics plans consolidate deliveries, packaging returns and site constraints

Participants can test logistics data, claims and operational controls for evidence and reliability.

• Climate claims reviewed against evidence, boundaries, exclusions and calculation methods
• Internal audits sample activity data, factor selection, controls and approvals
• Corrective action logs assign root causes, due dates and verification evidence
• Limited assurance readiness tests traceability, consistency and calculation reproducibility
• Control matrices connect reporting risks with preventive and detective controls
• Management review agenda evaluates objectives, performance, incidents and resource needs

Participants can prepare a prioritised, evidence-based logistics decarbonisation plan for presentation.

• Baseline findings translated into a prioritised logistics decarbonisation opportunity register
• Initiative charters specify scope, baseline, targets, costs, owners and dependencies
• Scenario model compares three interventions using cost, service and carbon
• Stakeholder map identifies sponsors, operators, carriers, customers and approvers
• Implementation risks assessed through probability, impact, mitigations and contingency actions
• Presentation storyboard structures evidence, recommendations, decisions and next steps

Participants can build, review and present a complete logistics decarbonisation plan with quantified priorities and implementation controls.

• Capstone brief integrates transport, warehouse, packaging, returns and supplier data
• Complete baseline calculates emissions, costs, intensities and data-quality limitations
• Opportunity portfolio ranks initiatives using abatement cost, feasibility and service impact
• Delivery roadmap assigns milestones, governance, investment requirements and operational controls
• Peer review challenges assumptions, calculations, risks and claimed benefits
• Executive presentation defends recommendations against cost, service and compliance questions