Course overview
Manufacturing decisions made at the drawing board and on the production floor shape a plant's material, energy, and waste footprint for years. This course treats sustainability as an engineering discipline: choosing materials for their full life cycle, designing processes that use less energy per unit produced, and closing loops so that scrap and end-of-life products re-enter the value stream. The angle is mitigation at source, reducing the environmental burden of production itself, not managing its downstream effects.
Participants examine how cleaner production principles, life-cycle assessment, and circular-economy models translate into concrete engineering choices. The course connects these ideas to management systems and disclosure practice, including ISO 14001 and ESG reporting, so that technical improvements can be measured, audited, and communicated. Much of the same thinking underpins a broader circular economy and sustainable business practices approach, which this course draws on while keeping its focus firmly on the factory.
Why this matters
Regulators, customers, and investors now read a factory's environmental performance as a measure of its quality. Carbon border adjustment rules, extended producer responsibility schemes, and supplier scorecards push emissions and material use directly into procurement and design decisions. A production engineer who can quantify energy intensity, reduce process waste, and document improvement against recognized frameworks protects both margin and market access.
The technical levers are well established but unevenly applied. Cleaner production audits routinely surface double-digit reductions in water, solvent, and energy use that pay back quickly, yet many plants still treat sustainability as a reporting exercise bolted on after the fact. This course closes that gap by grounding decisions in life-cycle data, energy efficiency KPIs, and circular-economy design so that green outcomes are engineered in from the start.
What you will be able to do afterwards
By the end of the course, participants will be able to:
- Scope a cleaner production assessment for a production line.
- Structure a life-cycle assessment comparing material options.
- Define and track energy efficiency KPIs.
- Identify remanufacturing and reverse-logistics opportunities.
- Align technical improvements with ISO 14001 requirements.
- Map improvements to ESG disclosure requirements.
Course outline
Unit 1: Foundations of sustainable engineering
- Eco-efficiency, dematerialization, design for environment.
- Carbon pricing, EPR, and ESG screening drivers.
- ISO 14001, UN SDGs, and GHG Protocol frameworks.
- Design-stage case studies in environmental cost cuts.
Unit 2: Green manufacturing fundamentals
- Cleaner production and pollution prevention basics.
- Process substitution, closed-loop water, solvent recovery.
- Supplier screening, traceability, and carbon accounting.
- Case studies of certified green factory gains.
Unit 3: Energy and resource efficiency
- Energy audits and ISO 50001 energy management.
- Specific energy consumption, power factor, and leakage KPIs.
- Water reuse, heat recovery, and yield improvement.
- On-site renewables, PPAs, and scope 2 accounting.
Unit 4: Sustainable materials and life-cycle design
- Life-cycle assessment under ISO 14040/14044.
- Recycled, bio-based, and biodegradable material selection.
- Design for disassembly and material simplification.
- Environmental product declarations and LCA claims.
Unit 5: Circular economy and remanufacturing
- Narrowing, slowing, and closing material loops.
- By-product exchange and industrial symbiosis.
- Core collection, inspection, and refurbishment process.
- Circularity, service models, and secondary-material revenue.
Unit 6: Environmental management systems, compliance, and ESG reporting
- ISO 14001 structure and the plan-do-check-act cycle.
- ESG reporting via GRI Standards and CSRD.
- Emissions permits, waste manifests, and EPR obligations.
- Certification and audit process review.
Unit 7: Digital tools and the future of green manufacturing
- Digital monitoring via sub-metering and dashboards.
- Industrial IoT and AI for energy optimization.
- Digital product passports and material data systems.
- Cleaner production roadmap by abatement cost.
How the course is delivered
Each unit is taught with seminars, life-cycle case discussions, worked calculations, and facilitated review, so that participants move from principle to applied reasoning using documented factory examples rather than theory alone. Discussion is anchored in real standards, published cases, and quantified metrics, keeping the emphasis on decisions an engineer or manager can defend with data. Offered as an educational overview, the course does not confer ISO 14001 certification or an environmental compliance sign-off for any facility.
Who should attend
Sustainability leaders, plant managers, and production engineers will gain the most from this course, along with process and design engineers, environmental and EHS specialists, supply chain professionals, and operations managers who are responsible for reducing the environmental burden of production and reporting on it credibly.
About EuroQuest International Training
With more than 1,000 courses in its catalog, EuroQuest International Training has served over 15,000 professionals since its founding in 2015. The institute is based in Bratislava, Slovakia, and delivers programs in Geneva, Paris, Barcelona, Istanbul, London, Dubai, and Vienna. Its instructors combine sustainability practice with engineering know-how. Sessions draw on manufacturing, environmental management, and life-cycle expertise across a range of industries.
Frequently asked questions
Will the course provide an environmental certification?
Those who finish the course are given a Certificate of Completion by EuroQuest International Training, setting out the sustainability themes addressed. It signifies attendance instead of a compliance certification or an ISO auditor qualification.
Is ISO 14001 covered in the course?
ISO 14001 is discussed as an educational framework for environmental management, showing how its structure supports cleaner production rather than as a route to certification.
How does the course treat the circular economy?
Circular-economy ideas run throughout, from material selection and waste minimization to reverse logistics and remanufacturing, illustrated with documented factory examples.
Related courses
For a wider view of sustainable operations, see these courses:
- ISO 14001 Environmental Management Standards for a deeper study of the environmental management system referenced throughout this course.
- Lean Manufacturing and Process Optimization to pair waste reduction with productivity and flow improvement.
- Energy Efficiency in Industrial Operations for a focused treatment of energy KPIs and conservation on the plant floor.
- Managing Sustainability and Green Projects to lead green initiatives from business case through delivery.
Register for this course
Sign up for the Sustainable Engineering and Green Manufacturing course to embed environmental thinking into production. Take your place with EuroQuest International Training and drive greener operations.
All Course Dates & Locations
23 dates · 12 cities · Oct 2026 – May 2027