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★Mark us as a preferred sourceFinnish researchers have uncovered a troubling pattern: despite massive investments in recycling, progress is neutralised when regulation, markets, technology and consumer behaviour are not aligned. A new study in the Journal of Circular Economy has given the phenomenon a name – the “recycling for nothing paradox”.
Introduction: the circular transition is a systemic challenge, not a technological one
Plastic has been one of the engines of economic growth and social well-being since the 1950s: versatile, inexpensive, and deeply embedded in the functioning of modern economies. At the same time, ever-growing volumes of plastic waste have become one of the most serious global environmental and health challenges. Until now, plastic pollution has been examined mainly from an environmental science and engineering perspective, with a focus on waste management and technological solutions. A study published in February 2026 by researchers at the University of Eastern Finland – Ville-Veikko Piispanen, Kristina Leppälä and Hanna Lehtimäki – asks a different question: not which technology can recycle more plastic, but how a circular plastics ecosystem functions – or fails to function – as a system.
The central concept of the research, published in the Journal of Circular Economy, is the Circular Plastics Ecosystem (CPE): an evolving, structured, non-hierarchical group of independent plastics actors – manufacturers, recyclers, waste management companies, regulators, consumers – who collaborate interdependently to co-create complementary circular economic value while maintaining their own competitiveness.
The researchers’ question sounds simple, but the answer is sobering: how is the circular economy ecosystem enacted in practice within the plastics sector? The short answer: not as a linear, coordinated transition, but as a fragile, contested and continuously renegotiated process – one in which the different elements of the system frequently cancel out each other’s achievements.
Methodology: seven Finnish companies, seven perspectives across the plastics value chain
The study is built on a qualitative, multiple case study design. Between November 2024 and March 2025, the researchers conducted in-depth, semi-structured narrative interviews of 40–87 minutes with senior executives from seven Finnish plastics companies. The companies represent different positions in the plastics value chain:
- polymer production (a large international producer investing in chemical recycling),
- insulation materials (closed-loop recycling in the construction sector),
- plastic recycling (integrating mechanical and chemical recycling),
- medical plastics (a hospital-focused, highly regulated environment),
- biodegradable materials (bio-based material innovation),
- bio-based materials (integration of chemically recycled materials),
- innovative packaging (sensitive packaging for food and medical devices).
The Finnish context is particularly instructive: Finland is one of the frontrunners in circular economy policy and innovation, with a national circular economy strategy, nearly 600 plastics-related businesses, around 10,000 employees and a sector value of €3.2 billion. If systemic friction obstructs the transition even in such a strategically committed country, that is a strong warning for every other waste management system – including Hungary’s.
Six dimensions, six sources of tension
Based on the analysis of the interviews, the researchers identified the operating dynamics of the circular plastics ecosystem across six themes. The same pattern emerges in each dimension: every factor is simultaneously a driver and a barrier.
1. Regulation and governance: a layered and contradictory force field
One of the study’s most important findings is that regulation is not a neutral enabler but a layered, often contradictory force that companies must actively navigate. Circularity targets are regularly misaligned across governance levels – EU, national and sectoral.
The polymer producer’s case illustrates this well: EU-level recycling and packaging directives encourage incumbents to integrate recycling into their product portfolios, yet progress is slowed by inconsistencies between EU targets, Finnish national regulation and the availability of waste suitable for high-quality recycling. In the executive’s words, what is needed is long-term goal setting and the certainty that regulation will not change into something else every couple of years – without this, the investments needed to bring secondary raw materials into use cannot be justified.
The recycler’s experience reveals the gap between ambitious EU quotas and limited domestic processing capacity: Finland must import and export certain plastics to meet its recycling obligations, which undermines the credibility of a nationally self-sufficient circular model.
The sharpest contradiction appears in sensitive sectors: in medical plastics and food packaging, hygiene and safety regulations – despite technical recyclability – often mandate incineration, eliminating recovery options altogether. Here, regulation does not merely slow circularity down; it outright forbids it.
2. Market structures and business models: a fragile and fragmented market
Circular business models are spreading, but they remain constrained by scalability challenges, profitability concerns, and power asymmetries between incumbents and smaller players. The market-leading polymer producer can buffer risks with its diversified portfolio and invests in chemical recycling – yet this makes it dependent on securing reliable, high-quality feedstock, leaving the company tied to linear value chains despite its circularity investments.
The insulation manufacturer operates a highly specialised closed-loop system in the construction sector: this creates stability but also vulnerability, since the model depends on cyclical construction demand and a narrow customer base. Medium-sized firms face dual pressures: upstream suppliers and downstream customers alike demand consistent quality and price, while the availability of recycled inputs fluctuates. The overall picture is of a fragmented, fragile and unevenly distributed market in which smaller actors remain the most exposed.
3. Technology and innovation: not a solution, but an arena of competing pathways
The study breaks with the widely held view that technology alone will solve the plastics crisis. According to the researchers, technology is a contested space in which mechanical, chemical and bio-based pathways coexist, compete and sometimes conflict – and none of them offers a singular solution.
The polymer producer invests in both chemical and mechanical recycling with the aim of producing food-grade plastics from secondary materials – this provides a competitive advantage but is highly energy-intensive, with uncertain returns. The bio-based materials company, by contrast, pursues niche innovations, selectively collaborating with partners capable of adopting its proprietary materials. The insulation manufacturer’s example shows that even mature, well-established mechanical recycling can become a bottleneck due to contamination and input variability.
4. Consumer behaviour: the weakest and most unpredictable link in the system
Although consumers play a crucial role in enabling the circular plastics economy, the research shows that their contribution is inconsistent and unreliable. The recycling company’s operations depend on household-level sorting practices – yet despite significant awareness campaigns, contamination levels remain high, degrading material quality and inflating processing costs.
The dynamics are similar among institutional consumers: hospital staff and food industry professionals rarely prioritise recycling; material safety requirements dominate, and sorting practices are followed inconsistently. Downstream customers, meanwhile, demand affordable, high-quality recycled plastics while remaining unwilling to absorb price premiums or tolerate aesthetic imperfections.
One of the study’s most vivid interview excerpts – and one worth considering for packaging design everywhere – describes the consumer’s everyday dilemmas: where should I put this tray, do I have to rinse it first, what do I do with the lid made of a different plastic? The interviewee’s proposal is radically simple: packaging designers should think across the entire lifecycle – for example, if it were agreed that all polyethylene packaging is square and polypropylene packaging is red and round, the path of the waste would become self-evident for both the consumer and post-consumer sorting.
5. Collaboration and ecosystem dynamics: essential but fragile
Taken together, the cases show that ecosystem-level collaboration is a crucial yet fragile driver of circular plastics, characterised by tensions, dependencies and selective participation. The polymer producer depends on a carefully curated network of partners to secure feedstock, which requires substantial governance mechanisms to align quality standards. In the insulation manufacturer’s narrow, sector-specific system, the withdrawal of a single partner can jeopardise the entire closed loop.
The bio-based materials producer follows a model of selective collaboration: it partners only with firms able to adopt its proprietary innovations – ensuring control but constraining openness. According to the study, ecosystems are simultaneously platforms for resource pooling and knowledge exchange and sites of negotiation, contestation and exclusion.
6. Systemic interdependencies: when a failure in one element cascades through the whole system
The sixth dimension is the study’s synthesis: regulatory frameworks, market dynamics, technological investments and collaborative practices are so tightly interwoven that shortcomings in one dimension cascade into the others. EU recycling quotas incentivise investment in advanced technologies – but without sufficient consumer participation in proper sorting, these capacities remain underutilised. Safety requirements in sensitive sectors limit recovery options, reducing the returns on innovation and weakening incentives for collaboration. When customers prioritise price and appearance over sustainability, firms cannot justify costly technological upgrades – even when they are technically feasible.
The four feedback loops: how system elements reinforce or neutralise one another
Based on the cross-case analysis of the seven companies, the researchers identified four characteristic feedback patterns that determine whether the system enters an upward or downward spiral.
The regulatory–technological loop: EU-level targets encourage firms to invest in advanced recycling technologies, yet insufficient feedstock and inconsistent national implementation lead to underutilised capacity and increasing investment hesitation.
The consumer–technology loop: inadequate household and institutional sorting generates low-quality inputs, which create bottlenecks in mechanical and chemical recycling processes; the resulting lower output quality further weakens consumer willingness to adopt recycled products – and the loop closes.
The market–innovation loop: demand for low-cost, consistent materials discourages firms from introducing circular innovations, which slows market transitions and preserves existing market power structures.
The collaboration–ecosystem loop: trust, shared standards and coordination can drive efficient material loops and ecosystem expansion, whereas weak trust and fragmented participation lead to stalled circular economy implementation.
The shared lesson of the four loops: progress in any one part of the system depends on alignment across all the other parts.
The “recycling for nothing paradox”: the study’s central concept
The research’s most important theoretical contribution is the introduction of a new concept: the “recycling for nothing paradox”. According to the authors’ definition, this is the phenomenon whereby, despite significant investments in the recycling, reuse and reduction of plastics, misalignments across the ecosystem dilute or neutralise progress towards circularity and limit the transformative impact of circular solutions.
This finding fundamentally challenges the prevailing logic of the circular transition, which is built on isolated interventions – a new plant here, a new regulation there, an awareness campaign somewhere else. According to the Finnish researchers, it is not the strength of individual drivers but their alignment that determines the system’s performance. A world-class chemical recycling plant is worth nothing without feedstock of adequate quality; the strictest quota is ineffective if domestic infrastructure cannot deliver on it; even the best-intentioned consumer gets stuck if packaging design does not support correct sorting.
Conclusions and policy messages
The study’s conclusion is twofold. First, innovation, trust and systemic alignment are critical for scaling circular plastics solutions. Second, overcoming systemic barriers requires strategies that harmonise regulation, sustain demand for recycled materials, and strengthen cross-sector collaboration.
The authors’ policy recommendation: decision-makers should incentivise cross-sector collaborations and support niche experimentation, as both appear essential to the formation and resilience of circular plastics ecosystems. For business leaders, the practical lesson of the research is that sector-specific constraints on sourcing high-quality recycled materials, opportunities for innovation with sustainable materials, and the role of diversification jointly determine the viability of circular business models.
The researchers openly acknowledge the limitations of their work: the seven Finnish cases do not capture all possible ecosystem configurations, the focus on Finland restricts generalisability to other institutional contexts, and the research does not extend to quantitative assessment of ecosystem-level circular performance. Future research directions include the study of governance mechanisms for navigating the identified paradoxes, the analysis of how collaboration evolves over time, and comparative research across national contexts.
Editorial commentary: what does this mean for Hungarian waste management?
The findings of the Finnish research will sound eerily familiar to anyone who has followed the Hungarian waste management system in recent years. The tensions of a multi-level regulatory environment – the layering of the EU Packaging and Packaging Waste Regulation (PPWR), the extended producer responsibility (EPR) scheme and the national concession model – raise the same question of predictability that the Finnish interviewees identified as the most important precondition for investment decisions. Quality problems in household separate collection, the lack of alignment between sorting capacities and domestic processing industry, and fluctuating market demand for recycled feedstock are all phenomena in which the risk of the “recycling for nothing paradox” is recognisable in a Hungarian context as well.
Perhaps the study’s most important message for the Hungarian profession is this: the success of the circular transition is decided not by individual elements – a new sorting plant, a deposit return scheme, a stricter quota – in isolation, but by their systemic alignment. As long as regulation, infrastructure, market incentives and consumer behaviour do not point in the same direction, the impact of even the largest investments can be ground away by the friction of the system.
Source: Piispanen, V.-V., Leppälä, K., & Lehtimäki, H. (2026). Systemic Interdependencies of Circular Plastics Ecosystems. Journal of Circular Economy, 3(5), 100–118. https://doi.org/10.55845/joce-2026-3594 (Open Access, CC BY 4.0)
