LEARNING PATH · Beginner
Bioeconomy 101
A guided first journey through the vocabulary, constraints and full system logic of the bioeconomy.
2.8 h9 lessonsBeginner
Start path →Prerequisites
No prior technical background required.
Learning objectives
- Explain bioeconomy, circular economy and renewable carbon without conflating them.
- Trace one resource through conversion, deployment and outcomes.
- Ask the right boundary and evidence questions.
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Visual roadmap
Lesson sequence
220 min
1What is the bioeconomy?2Bioeconomy, circular economy and renewable carbon3Why biomass and waste are finite resources4Technical → sustainable → economic → deployable potential5Resources → Conversion → Deployment → Outcomes6Biomass, wastes and secondary carbon7Conversion pathways, mass and energy balances8Why optimal is not deployable9Carbon accounting, boundaries and counterfactuals
01What is the bioeconomy?Beginner · 18 minA systems definition that includes biological resources, knowledge, production, use and regeneration—without assuming that every bio-based option is sustainable.↗02Bioeconomy, circular economy and renewable carbonBeginner · 20 minThree overlapping lenses: one emphasizes biological resources, one value retention, and one the origin and circulation of carbon.↗03Why biomass and waste are finite resourcesBeginner · 22 minRenewable flows still have rates, locations, qualities, ecosystem functions and competing uses.↗04Technical → sustainable → economic → deployable potentialBeginner · 20 minA four-filter ladder for preventing theoretical possibility from being reported as real-world supply or capacity.↗05Resources → Conversion → Deployment → OutcomesBeginner · 24 minA repeatable way to read any pathway across material flows, decisions, places and consequences.↗06Biomass, wastes and secondary carbonBeginner · 24 minA resource taxonomy broad enough for agriculture, forests, organic wastes, plastics, industrial by-products and mineral or alkaline streams.↗07Conversion pathways, mass and energy balancesBeginner · 26 minA pathway is credible when every input, product, coproduct, emission and loss is accounted for on a common basis.↗08Why optimal is not deployableAdvanced · 34 minA model chooses within its represented world; deployment must survive omitted constraints, uncertainty, actor incentives, timing and implementation.↗09Carbon accounting, boundaries and counterfactualsIntermediate · 32 minCarbon claims depend on what flows are counted, over what time, compared with which alternative and under whose attribution.↗ CASE STUDIES
Examples from Wang Group
2026Conversion
Ambient-pressure conversion of plastic waste to jet fuel cycloalkanes by tandem hydropyrolysis and vapour-phase hydrogenation
A plastic-to-jet-fuel conversion case for separating molecular feasibility from feedstock supply, hydrogen, certification and deployment questions.
2023Conversion
Mixed plastics wastes upcycling with high-stability single-atom Ru catalyst
A conversion case for discussing mixed-plastic heterogeneity, catalyst stability and why selectivity must be read with feedstock composition.
2024Conversion
A novel three-stage ex-situ catalytic pyrolysis process for improved bio-oil yield and quality from lignocellulosic biomass
Illustrates how staged catalytic process design can trade equipment complexity against product yield and quality.
2022Outcomes
Novel carbon-negative methane production via integrating anaerobic digestion and pyrolysis of organic fraction of municipal solid waste
Illustrates an integrated organic-waste pathway where process coupling and the counterfactual waste fate determine the carbon claim.