Certificate Course in Circular Economy

Participants can distinguish circular strategies and select appropriate value-retention options.

• R-ladder strategies from refuse and rethink through remanufacture and recycle
• Value retention options for products, components, materials and biological nutrients
• Technical cycles and biological cycles in the circular economy systems diagram
• Product life extension through maintenance, repair, refurbishment and remanufacturing
• Regenerative resource management for soils, biomass, water and ecosystems
• Rebound effects, burden shifting and circularity claim limitations

Participants can identify circular economy opportunities in coastal and water-dependent economic systems.

• Blue economy activities: fisheries, ports, shipping, tourism and coastal infrastructure
• Marine litter pathways from production, consumption, collection and disposal systems
• Circular fishing gear management, retrieval schemes and extended producer responsibility
• Water-dependent value chains and risks from drought, flooding and salinisation
• Nature-based solutions using mangroves, wetlands, reefs and seagrass ecosystems
• Coastal livelihood considerations in circular resource and adaptation projects

Participants can construct a system map showing actors, flows, risks and intervention points.

• System boundary definition for facilities, cities, value chains and watersheds
• Stakeholder maps identifying users, suppliers, regulators, communities and financiers
• Causal loop diagrams showing feedback between resource use and climate vulnerability
• Stock-and-flow mapping for materials, water, energy, assets and waste
• Hotspot identification using risk, volume, cost and environmental significance
• Intervention-point selection using systems leverage points and feasibility criteria

Participants can prepare a material flow baseline and identify priority circular loops.

• Material flow analysis using inputs, stocks, outputs, losses and recovered materials
• Mass-balance checks for production systems, construction projects and municipal services
• Sankey diagrams communicating material pathways, leakage points and recovery potential
• Virgin material dependency measured by quantity, cost, origin and criticality
• Waste characterisation methods for composition, contamination, seasonality and collection patterns
• Baseline assumptions documented with data sources, units and confidence ratings

Participants can assess water circularity options for operational resilience and adaptation.

• Water balance construction from abstraction, use, discharge, reuse and losses
• Water risk screening using basin stress, flood exposure and regulatory constraints
• Fit-for-purpose water quality standards for reuse, recycling and cascading
• Industrial symbiosis opportunities for treated effluent, heat and by-product exchange
• Rainwater harvesting, stormwater capture and managed aquifer recharge options
• Water stewardship actions linking facility measures with catchment-level outcomes

Participants can use lifecycle assessment principles to compare circular intervention options.

• Goal and scope definition under ISO 14040 lifecycle assessment principles
• Functional units that enable fair comparison between circular design alternatives
• System boundaries: cradle-to-gate, cradle-to-grave and cradle-to-cradle approaches
• Lifecycle inventory data for materials, energy, transport, use and end-of-life
• Impact categories including climate change, water use, toxicity and resource depletion
• Sensitivity analysis for recycling rates, service life and collection assumptions

Participants can specify circular design requirements for products, assets and services.

• Design for durability, modularity, repairability, disassembly and material recovery
• Bill of materials review for hazardous substances and mixed-material constraints
• Product passports recording composition, repair information, ownership and recovery routes
• Service-life extension through predictive maintenance, spare parts and repair networks
• Designing take-back systems with collection incentives and reverse logistics
• Circular design specifications aligned with climate resilience and user needs

Participants can develop circular business model options with clear value and revenue logic.

• Circular business model patterns: access, performance, recovery and resource loops
• Product-as-a-service contracts allocating maintenance, usage and end-of-life responsibilities
• Revenue models for leasing, sharing, repair services and secondary materials
• Value proposition design for customers facing resource, cost and climate risks
• Reverse logistics economics: collection density, sorting quality and transport costs
• Business model assumptions tested through customer, supplier and operator evidence

Participants can draft procurement requirements that support circularity and climate resilience.

• Total cost of ownership incorporating maintenance, downtime, disposal and residual value
• Circular procurement criteria for recycled content, durability and repair availability
• Performance-based specifications replacing prescriptive material and ownership requirements
• Supplier questionnaires covering traceability, take-back, recovery and climate resilience
• Contract clauses for repair, spare parts, data access and end-of-life collection
• Bid evaluation matrices balancing cost, circularity, adaptation and delivery risk

Participants can identify circular adaptation measures for buildings and infrastructure assets.

• Asset inventories linking condition, material composition, hazard exposure and service criticality
• Adaptive reuse strategies for buildings, public facilities and industrial sites
• Design for disassembly in buildings, roads, utilities and temporary structures
• Construction and demolition material audits supporting reuse and secondary aggregates
• Resilient infrastructure choices under heat, flooding, coastal erosion and water scarcity
• Material banks and digital records for future asset recovery

Participants can prioritise waste prevention and recovery pathways using technical and market criteria.

• Waste hierarchy decisions prioritising prevention, reuse, recycling, recovery and disposal
• Source separation systems reducing contamination and improving secondary material quality
• Industrial symbiosis matching by-products, utilities, logistics and processing capacity
• Market assessment for secondary materials, including specifications, buyers and price volatility
• Organic waste valorisation through composting, anaerobic digestion and bio-based products
• Informal sector integration through fair contracts, safety measures and traceability

Participants can integrate nature-positive principles into circular climate adaptation proposals.

• Nature-related dependencies and impacts identified through TNFD LEAP assessment
• Regenerative agriculture practices improving soil carbon, water retention and biodiversity
• Biomass sourcing safeguards for land use, ecosystem health and community rights
• Blue carbon ecosystems supporting coastal protection, fisheries and carbon storage
• Biodiversity safeguards for recycling facilities, extraction sites and logistics corridors
• Nature-positive indicators linking operational actions with ecosystem condition

Participants can assess physical climate risks affecting circular assets, operations and supply chains.

• Hazard screening for heat, flood, drought, storms and sea-level rise
• Asset vulnerability assessment considering location, design, maintenance and critical dependencies
• Supply-chain disruption scenarios for collection, processing, transport and material availability
• Adaptation options appraisal using effectiveness, cost, equity and maladaptation criteria
• Climate scenario assumptions drawn from relevant national and regional projections
• Residual risk statements with controls, contingencies and monitoring triggers

Participants can select indicators and data controls for circular economy performance management.

• ISO 59020 circularity measurement principles for organisational performance assessment
• Material circularity indicators covering recycled inputs, recovery and product utility
• Operational metrics for waste intensity, water reuse, repair rates and asset life
• Data governance covering ownership, calculation methods, assurance and version control
• Greenhouse gas accounting for avoided emissions and lifecycle comparison claims
• Dashboard design linking indicators to targets, decisions and accountable owners

Participants can prepare a financial case for prioritised circular climate adaptation interventions.

• Capital and operating cost estimates for circular equipment, systems and services
• Cash-flow modelling for savings, revenues, maintenance and replacement cycles
• Net present value, payback period and sensitivity analysis for project appraisal
• Avoided-cost estimation for waste fees, water purchases, downtime and material volatility
• Blended finance, green bonds and public-private partnership funding structures
• Investment memoranda presenting risks, assumptions, returns and decision requests

Participants can align circular initiatives with relevant policy instruments and regulatory obligations.

• Policy instruments: standards, taxes, bans, deposits, subsidies and procurement mandates
• Extended producer responsibility schemes for packaging, electronics, batteries and fishing gear
• Waste shipment controls, hazardous material rules and secondary material compliance
• Building codes and planning requirements affecting adaptive reuse and material recovery
• Municipal by-laws supporting source separation, reuse markets and collection services
• Policy gap analysis identifying barriers, enabling conditions and advocacy priorities

Participants can design stakeholder engagement plans that address distributional effects and implementation risk.

• Stakeholder salience analysis using power, legitimacy and urgency criteria
• Community consultation plans for waste facilities, water projects and coastal interventions
• Just transition considerations for workers, informal recyclers and affected communities
• Conflict mapping around land use, resource access, tariffs and service changes
• Partnership models involving government, business, civil society and research institutions
• Communication messages supported by evidence, trade-offs and decision transparency

Participants can develop a governed implementation roadmap for circular climate adaptation action.

• Portfolio prioritisation using impact, feasibility, cost, risk and readiness scoring
• Roadmap sequencing from baseline, pilot and scale-up through institutionalisation
• RACI matrices assigning accountable, responsible, consulted and informed parties
• Milestones, dependencies and critical-path risks for multi-partner implementation
• Pilot design criteria covering scope, data, safeguards and scale decisions
• Governance cadence for steering committees, operational reviews and performance reporting

Participants can build, review and present a complete circular climate adaptation project proposal.

• Project charter defining challenge, scope, beneficiaries and intended resilience outcomes
• Circularity baseline combining material flows, water data and lifecycle hotspots
• Climate and nature risk assessment supporting intervention selection and safeguards
• Intervention portfolio with design, procurement, business model and partnership actions
• Implementation roadmap specifying governance, milestones, budget and performance indicators
• Investment case presenting costs, benefits, assumptions, sensitivities and funding options
• Peer review against feasibility, circularity, adaptation value and evidence quality
• Panel-style presentation defending recommendations, trade-offs and next-step decisions