Bioplastics offer substantial environmental benefits: they’re biodegradable, renewable, and often carbon-friendly.
Over the past decade, the global push for sustainability has thrown bioplastics and advanced plastic recycling into the spotlight. These technologies promised a cleaner, circular economy where innovation could reduce plastic pollution. But the recent bankruptcies of Danimer Scientific and Brightmark show that green technology can’t escape the gravity of market forces. Despite receiving billions in investment and benefiting from strong environmental narratives, these ventures operated on uncertain economic footing.
You can also read: Cellulose Bioplastics: The Choice of Leading Companies.
So, can bioplastics truly offer a profitable, scalable alternative to petroleum-based plastics? Or do they represent another case where green hype has outpaced market readiness?
Bioplastics provide notable environmental advantages: they are biodegradable, derived from renewable sources, and often exhibit a lower carbon footprint. However, most companies in this niche have yet to achieve financial stability, reflecting the broader economic challenges of the sector.
Bioplastics cost significantly more to produce than conventional plastics. While traditional plastics like polyethylene benefit from decades of scaling and infrastructure, newer materials like PLA and PHA face high unit costs.
Plastic Type | Production Cost (est.) USD/kg | Market Price (2024 est.) USD/kg |
Polyethylene (HDPE) | $0.90 – $1.20 | $1.10 – $1.40 |
PLA (polylactic acid) | $2.00 – $2.80 | $2.40 – $3.00 |
PHA | $4.00 – $8.00 | $5.00 – $9.00 |
Source: European Bioplastics, IHS Markit, company reports
Even as prices fluctuate, bioplastics consistently carry a premium. Without subsidies, most manufacturers and consumers refuse to pay more—particularly in competitive sectors like food packaging or disposables.
Danimer built its business model around the expectation that single-use plastic bans and environmental rules would quickly drive up demand for biodegradable materials. While some jurisdictions enacted these bans, global adoption has been inconsistent and slower than predicted.
With uncertain demand, plants like Danimer’s in Winchester operated below capacity and incurred heavy losses.
The SPAC surge of 2020–2021 funneled fast capital into green startups, often before they secured reliable revenue. Danimer reached a post-SPAC valuation of $890 million, but by 2024, its market cap had fallen below $15 million, leading to its delisting. Overpromised projections and underwhelming execution drew scrutiny from short sellers, which further destabilized investor confidence.
Brightmark also scaled too quickly. Its Indiana pyrolysis plant was built to process 100,000 tons per year but only handled about 2,000 tons before declaring bankruptcy. Without proving technical and commercial feasibility, the company burned through cash with little return.
Most bioplastics rely on agricultural feedstocks like corn or sugarcane, which compete with food markets and suffer from price swings. Additionally, recycling-based firms like Brightmark faced a different problem—dirty, mixed plastic waste that’s difficult to clean, sort, and process efficiently.
Key logistical and technical challenges:
Region | Plastic Bans / Restrictions | Bioplastics Incentives | Recycling Infrastructure Support | Key Notes |
EU (Europe) | ✔️ Extensive bans on single-use plastics since 2021 | ✔️ Tax exemptions, R&D subsidies, mandatory compostable use | ✔️ Strong investment in chemical/mechanical recycling | Leading region due to EU Green Deal & circular economy targets |
USA | ⚠️ Patchy, state-level bans (CA, NY strong; others weak) | ⚠️ Some grants (e.g., USDA bioplastics), limited federal action | ⚠️ Uneven; underfunded in many regions | Lack of national policy creates inconsistent market conditions |
China | ✔️ National bans on plastic bags & utensils since 2020 | ✔️ Investment in green tech, including bioplastics | ✔️ Rapid build-out of recycling capacity | Strong top-down support, but domestic bioplastics still emerging |
Japan | ✔️ Plastic bag charges; product-specific bans | ⚠️ Limited subsidies, mostly industry-driven innovation | ✔️ Advanced waste sorting, but limited chemical recycling | Cultural emphasis on low waste; tech-centric market |
Brazil | ⚠️ Regional bans; weak enforcement | ⚠️ Few incentives; some research funding | ⚠️ Basic recycling, informal sector dominates | High potential, but lacks federal coordination |
India | ✔️ Comprehensive single-use plastic ban (2022) | ⚠️ Limited direct support for bioplastics | ⚠️ Developing infrastructure; heavily manual | Strong political intent, but gaps in enforcement and tech capacity |
Sources: European Commission Circular Economy Reports, UNEP, OECD Plastic Outlook, national policy portals (2024).
The collapses of Danimer Scientific and Brightmark reveal more than mismanagement—they highlight deeper structural challenges in the bioplastics and recycling sectors. Even though the underlying science holds promise, the business models often falter under economic pressure.
Factor | Impact on Profitability |
High production cost | Makes bioplastics uncompetitive vs. conventional |
Limited demand | Leads to underutilized capacity |
Infrastructure gaps | Restricts adoption and end-of-life management |
Financial overreach | Rapid scaling without stable revenue |
Feedstock/logistics issues | Adds complexity and cost to operations |
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