Sustainable Supply Chains 1: Fundamentals and Reporting

Explore how human activity drives climate change, and how greenhouse gases like CO2 and methane are measured with global warming potential to create CO2e footprints across products and value chains.

See how everyday decisions impact emissions by turning CO2 numbers into tangible outcomes, with a real calculation comparing sea and air transport and steps like consolidation, forecasting, and local suppliers.

Explore water management as a core of sustainable development, and examine the water footprint's blue, green, and gray components, highlighting agriculture's large share and domestic use.

Explore the three water footprint types: blue, green, and grey, and how ultrapure water dominates semiconductor manufacturing, guiding supply chains to align operations, recycle water, and measure water intensity.

Explore sustainable raw material management in global supply chains, focusing on material footprint, non-renewable resources, recycling, and methods like material flow analysis and life cycle assessment.

Diagnose your current waste system and map waste streams to visualize material flows, costs, and tracking to drive circular economy initiatives from strategy to operations.

Explore how companies measure and report environmental, social and governance impacts using leading standards like GRI, SASB, and IFRS Foundation.

Navigate global esg reporting: EU CSRD and ESRS, extraterritorial reach, and ISSB-aligned frameworks in Asia-Pacific. Determine if your business touches regulated markets and prepare for SEC disclosures.

Explore how the IFRS foundation and the ISSB establish a global baseline of sustainability disclosures, including climate-related disclosures, aiding investors and supply chains through IFRS 1 and IFRS 2.

Explore the Sasb framework for disclosing financially material sustainability information to investors, using a materiality map of five dimensions and 26 issues with metrics like greenhouse gas emissions.

Discover the Global Reporting Initiative, a leading sustainability reporting standard. Learn how it covers topics like materials, energy, water and effluents, biodiversity, emissions, waste, compliance, and supplier environmental assessment.

Explore the Greenhouse Gas Protocol's corporate standard for measuring and reporting emissions, including scope 1–3, organizational and operational boundaries, equity share vs. control, and value chain insights toward net zero.

Learn how supply chain ESG reporting drives compliance across procurement, production, logistics, and product returns through CSR/CSRD, IFRS II, and GRI standards with supplier data, audits, and disclosures.

measure the carbon footprint using energy-based and activity-based calculations, apply emission factors for scope 1, 2, and 3 emissions, and use ton-kilometer and kilowatt hour conversions.

Explain energy-based vs activity-based carbon footprint measurement, showing why fuel consumption data yields more precise CO2 estimates and when to apply emission factors.

Measure the carbon footprint by defining Scope 1 emissions from direct operations, identifying sources, collecting activity data, and converting it with emission factors to CO2e.

Translate electricity consumption into Scope 2 emissions using location-based and market-based methods, aligning data with procurement to report under GRI, CSRD, and the GHG protocol.

Explore scope 3 emissions across the value chain, including suppliers, logistics, product use, and end-of-life; learn prioritization, calculation methods, and supplier engagement for scalable, transparent reporting.

Assess emissions across well to tank, tank to wheel, and wheel to wheel or cradle to gate to compare fuel-based and energy-based methods.

Compare emission factors from EPA and UK factors to measure transportation emissions. Apply the Gluck framework and consumption factor for planning and reporting logistics emissions.

Apply a five-step greenhouse gas protocol to measure your organization's carbon footprint: set boundaries, identify emissions sources, gather 12-month data, calculate with emission factors, and interpret results to set targets.

Identify the objective of measuring the carbon footprint and distinguish reporting from reduction initiatives. Map the supply chain to analyze emissions drivers and the impact of decisions along the chain.

Explore how the GLEC framework defines boundaries and calculates scope 1, 2, and 3 emissions using CPM's fleet and tank-to-wheel factors.

Learn how life cycle assessment (LCA) evaluates a product's environmental impacts across its life cycle. Compare cradle to grave, and review goal, scope, inventory, and impact assessment.

Compare charcoal and LPG grills through a life cycle assessment using 1.5 kg of grilled meat as the functional unit, assessing CO2e from cradle-to-cradle scope.

Explore a hypothetical ABC Apparel supply chain to measure a simplified carbon footprint, detailing operations, boundaries, data, emissions vectors, and targets across factory, sea and air shipments, centers, and stores.

Define organizational and system boundaries for ABC Apparel, apply the equity share approach to scope 1 and 2 emissions, and select scope 3 emissions for reporting.

Learn to estimate carbon emissions using data types and methods for scope one, two, and three, guided by the GHG Protocol, covering emission factors, fuel use, electricity, waste, and transportation.

Compare EPA and UK emission factors, apply UK data to calculate scope 1–3 emissions across fuel, transport, and waste, and illustrate how vehicle loading and transport modes shape CO2e.

Analyze emissions across scopes one, two, and three, noting scope three is smallest here, with coal consumption, factory electricity in China, and truck transport as major sources.

Explore a case study update on scope 3 reporting within sustainable supply chains, covering fundamentals and reporting practices.

Explore six sections of the operational strategies course, including introduction to supply chain sustainability approach, sustainable manufacturing, logistics, warehousing products, and the course conclusion. Understand the course objectives.

Identify priority sustainability issues across supply chain operations, manufacturing, logistics, warehousing, and product management. Set indicators aligned with priorities, measure performance, and define actions to drive continuous improvement.

Identify and prioritize sustainability issues by assessing your company's landscape, engaging stakeholders, and using a materiality map from the Sustainability Accounting Standards Board to target high-impact supply chain areas.

Map sustainability issues to supply chain processes and select KPIs, using indicators like restricted substances intensity, recyclable materials in transportation, and diverse supplier spend in sourcing, logistics, and manufacturing.

Benchmark internally and with peers, then set targets such as reducing energy intensity by 25% in three years or removing restricted substances within five years.

Explore Ford's sustainability and financial report, showing how aspirations, goals, and progress are linked with a 15% fresh water use reduction by 2025 (baseline 2019) and 21.7% progress since 2019.

Identify options and strategies to reduce energy intensity and assess feasibility, including insulation upgrades, equipment maintenance, and lighting controls, with capital expenditures to improve reliability and lower return on investment.

Expand your sustainability insights in sustainable supply chains by leveraging ISO environmental management standards and other frameworks to broaden performance indicators via life cycle assessment.

Explore sustainable manufacturing impact through the triple bottom line, detailing economic gains (jobs, profits), social duties (human rights, fair supplier treatment), and environmental goals (waste reduction, energy efficiency, biodiversity).

Explore production and maintenance strategies to reduce raw materials and energy use, cut waste and emissions, and boost efficiency with eco innovations such as rainwater and recycled materials.

Toyota's Georgetown plant uses real-time energy monitoring, energy audits, LED lighting, VFDs, and renewable energy to improve efficiency and achieve Energy Star certifications under lean TPS.

Reduce costs and energy consumption, lower waste and monitoring expenses, and boost efficiency by upgrading equipment, while staying ahead of regulations and enhancing reputation and employee morale.

Examine sustainability impact KPIs including water intensity, water footprint components (green, blue, gray), energy intensity, and greenhouse gas intensity, plus renewable energy share, residual intensity, and recycled waste.

Explore Intel's sustainability impact KPIs, including energy intensity, water intensity, and waste generation metrics. Learn how normalization factors measure and improve performance.

Analyze the environmental impact of logistics, including greenhouse gas emissions from planes, trucks, ships, and motorcycles, energy use in storage, packaging waste, and rail and ocean freight efficiency.

Examine sustainable logistics strategies across distance, mode, equipment, and load planning to cut environmental impact. Learn how strategic, tactical, and operational decisions—from network design to vehicle routing—minimize emissions.

Explore how distance, load, slope, and topography affect fuel use and CO2 emissions in vehicle routing; uphill increases emissions, downhill can save fuel, so the fastest route isn’t always green.

Identify how transport mode factors, including infrastructure, costs and services, order sizes and cycles, product type, and consignment size, shape modal shift strategies. Review rail vs truck case studies.

Examine why rail and ocean freight are carbon efficient, compare emissions by mode, and summarize EU and US policies promoting modal shifts from road to rail and waterways.

Invest in cleaner equipment and pilot alternative fuels to reduce emissions and upgrade aging assets for real environmental performance. Use sustainable maintenance to track performance and minimize waste.

Improve truck fuel efficiency by addressing maintenance issues such as under-inflated tires, axle misalignment, poor combustion, and aerodynamics, while exploring alternative fuels and vehicles to reduce emissions.

Learn sustainable logistics strategies, from strategic load planning and packaging redesign to rail utilization improvements (half pallets) and collaboration with customers for green, metric-driven routing and shipment consolidation.

Explore why truck capacity remains underutilized due to market, regulatory, and coordination constraints, and learn loading planning strategies to reduce empty miles and boost consolidation for lower emissions.

Develop operational excellence and an environmentally aware logistics culture by benchmarking environmental performance, setting dashboards and targets, and applying slow steaming and speed limits to boost fuel efficiency.

Assign the right vehicles to the right jobs and reallocate delivery capacity based on route topography and vehicle performance to maximize fleet efficiency and reduce CO2 emissions.

Explore strategies and trade-offs in sustainable supply chains, balancing cost, service, and environmental impacts across sourcing, planning, manufacturing, and logistics.

Analyze how strategic, tactical, and operational decisions shape environmental impact via a model linking logistics activity to emissions, and identify levers like modal split and energy efficiency to reduce footprint.

Explore the additional benefits of sustainable logistics for companies, including lower costs, reduced emissions, efficiency gains, renewable and recyclable materials, local sourcing, and waste reduction.

Explore the three p's of sustainable logistics, people, planet, and profit, and how safety, access, and efficient distribution drive growth, jobs, and fair pricing while reducing greenhouse gases and waste.

Identify key sustainability impact kpis for logistics, including carbon emissions, tank-to-wheel and well-to-wheel calculations, transportation capacity, idle time, and recycled materials usage.

Assess the environmental impact of warehouses in sustainable supply chains, including emissions, traffic, land and water effects, and compare Leed and Breeam certification through real-world examples.

Analyze embedded emissions and embodied carbon in building life cycles, including materials, land use, and insulation trade-offs with operational emissions. Compare material choices to illustrate embodied energy and sustainability.

Identify the main factors driving operational emissions in warehouses, from energy use and temperature control to water, waste generation, rainwater harvesting, and explore green energy options and waste reduction.

Explore eco design and environmental impact of products, noting that impact is determined at the design stage. Learn reuse, recycling, hazard avoidance, lighter materials, and responsible production.

Learn the ten golden principles of eco design for sustainable supply chains, illustrated by a cordless drill case study, covering material clarity, resource management, and design for reuse.

Discover the additional benefits of sustainable product management, including lower material costs from recycled and renewable materials, energy savings, reduced hazardous substances handling, and improved durability and market value.

Explore sustainability impact KPIs for product management, including recyclability, renewable materials content by weight, restricted substances, energy intensity, and life cycle assessment of product emissions.

Gain insights from section four course conclusions of sustainable supply chains 1, summarizing the key takeaways and the course's focus on fundamentals and reporting.

Review section six conclusions and references to reinforce the key takeaways from sustainable supply chains fundamentals and reporting. Identify cited sources and final insights for practical application.