When the European Commission approved Commission Regulation (EU) 2024/3190 of 19 December 2024, amending Regulation (EU) 10/2011 and repealing 2018/213, it hinted at a decisive change for the food-contact materials sector. The regulation was published in the Official Journal on 31 December 2024 and applies from 20 January 2025. It generally prohibits the use of bisphenol A (BPA) in food-contact materials and articles and restricts other bisphenols that carry harmonized classifications (carcinogenic, mutagenic, toxic for reproduction, or endocrine-disrupting), with limited derogations under strict non-detectable migration conditions.
The regulation provides transitional deadlines to allow industry adaptation. Most consumer repeat-use articles that contain BPA or restricted bisphenols must be first placed on the market no later than 20 July 2026. Certain professional food-production equipment may be first placed until 20 January 2028. Items first placed under those provisions may remain on the market until 20 January 2029.
The Countdown Has Begun
Replacing bisphenol-based polymers is a complex challenge. Polycarbonate and sulfone-based plastics such as polysulfone and polyethersulfone became established because of their unique combination of clarity, toughness, and resistance to hot water and repeated cleaning cycles. Very few material families combine these attributes at the same performance level. For this reason, the industry now faces a genuine material gap. The emerging strategy is not to search for one universal replacement but to create a diversified portfolio of materials, each selected for specific use cases, balancing compliance, safety, and functional performance.
The Rise of Bisphenol-Free Materials
One of the strongest candidates in the replacement portfolio is modified polyphenylene ether (mPPE), usually blended with polystyrene. These resins are inherently free of bisphenols and provide a compliance advantage from the start. PPE itself has a glass transition temperature above 200°C. But commercial blends used in food-contact articles usually give thermal stability in the range of 140 to 160°C, sometimes higher depending on formulation. They also absorb very little water. This ensures dimensional accuracy and stability even under hot and wet service conditions. Also, this makes them suitable for repeated dishwasher cycles, clean-in-place systems, and environments where long-term dimensional stability is essential. Applications already include coffee brewing systems, vending machines, filtration housings, and appliance components. The most widely known commercial family is NORYL™, and comparable mPPE blends are offered by other suppliers (for example, XYRON™). Specific grade approvals for food or drinking-water contact are grade- and color-dependent and should be verified on supplier datasheets and Declarations of Compliance.
Strength with a Price: Polyamides in Focus
High-performance polyamides such as PA 66 and semi-aromatic PA 6T are another important alternative. Their strengths are mechanical durability, stiffness, and thermal resistance. Glass-reinforced grades extend their toughness. This makes them suitable for pump housings, appliance handles, machine brackets, as well as structural parts. But polyamides absorb water over time. And this causes dimensional changes and also acts as a plasticizer, reducing stiffness and altering mechanical properties. In repeated dishwasher cycles or long-term exposure to hot water, this effect can be quite significant. Yes, there are limitations, but polyamides remain attractive for applications where toughness and resistance to mechanical stress outweigh the drawbacks of moisture uptake.
Polyester’s Second Act
Polyesters such as PBT, PET, PEN, and PCT are naturally bisphenol-free and already familiar in food-contact uses ranging from bottles and trays to appliance housings. They are valued for their resistance to detergents, their good surface finish, and their ease of processing. Recent developments have extended their performance. PEN and PCT extend the performance envelope: PEN has a Tg around 120°C, and PCT grades are typically ~90–105°C Tg, with reinforced formulations delivering higher heat-deflection temperatures. These can suit hot-fill, beverage system parts, and some higher-temperature service when properly designed, though their long-term hydrolytic stability is generally below that of sulfone polymers.
Everyday Plastics, Elevated
Polyolefins, particularly polypropylene (PP) and polyethylene (PE), are among the most widely used plastics for food-contact articles. They are low cost, readily available, and, because they do not rely on bisphenols, generally aligned with the new bisphenol restrictions; overall compliance remains grade- and use-specific under EU 10/2011. They combine low density, toughness, and processing versatility. This is why they dominate in utensils, containers, packaging films, and household storage. Their key limitation is thermal resistance. Within their operating window, PP and PE remain indispensable. But they are generally unsuitable for applications requiring repeated exposure to ≥ 121°C steam sterilization or prolonged high-temperature cleaning cycles. Specialized high-heat PP grades exist. But their use is application-specific and does not close the performance gap with engineering polymers.
Looking to the Future: Biopolymers
Emerging biopolymers such as polyethylene furanoate (PEF), polylactic acid (PLA) blends, and cellulose-based plastics are attracting attention not only because they are BPA-free but also because they align with sustainability goals. PEF gives improved gas-barrier properties compared with PET and is being developed for bottles and films. PLA is commercially available and widely used in disposable packaging. But its relatively low glass transition temperature (around 60 °C) and sensitivity to hydrolysis limit its use in durable or hot applications unless heavily modified. Cellulose-based plastics provide an additional biobased route but remain niche. These materials are not yet ready to replace polycarbonate or sulfone polymers in demanding uses. But as supply chains expand and processing know-how matures, they show a strategic pathway to compliance along with reduced environmental impact. PEF is not yet fully authorized for food contact in the EU. Though petitions and evaluations are ongoing. Current pilots use it under specific project-based or multilayer approvals.
From Coffee Cups to Filtration Lines
The transition to BPA-free materials is already reshaping product design across industries. Small appliances, beverage systems, cookware, and vending machines need polymers that tolerate both high heat and repeated cleaning. Filtration equipment and professional food-processing lines require stiffness, chemical resistance to alkaline cleaning agents, and dimensional stability under long service lives. Even utensils and tableware are influenced by the new regulation, as both consumers and professional caterers expect dishwasher durability combined with full compliance. No single polymer satisfies every requirement. Manufacturers must therefore select materials case by case, building a balanced portfolio that ensures both regulatory approval and application-specific performance.
Compliance Is More Than Materials
Selecting a compliant polymer is just the first step. Food-contact approval is specific to the grade, formulation, and production site. Each material must undergo migration testing as per the EU Regulation 10/2011, under service conditions that reflect intended use. For products exposed to dishwashers or clean-in-place sterilization, validation of long-term durability against detergent and steam cycles is quite important. After qualification, manufacturers must prepare a Declaration of Compliance. They should also refer to Regulation (EU) 2024/3190 and Regulation (EU) 10/2011, with full traceability of material selection and testing. These requisites highlight the need to put compliance planning into the earliest stages of product design.
Industry Actions
In the coatings and polymers domain, suppliers sped up the pace for BPA-free offerings in line with Europe’s timelines. In July 2025, PPG expanded BPA-non-intent easy-open-end coatings for aluminium beverage cans in Europe, hinting at production-ready options for compliant can ends. In February 2025, PPG also broadened its non-BPA HOBA internal coatings for aluminium bottles, targeting water, wine, and other beverages.
Recyclability credentials for BPA-free copolyesters got strong. In January 2025, Eastman received RecyClass recyclability approvals for 8 specialty PET copolyester grades and their Renew equivalents, with most classified as fully compatible with state-of-the-art PET bottle recycling in Europe.
Bio-based PEF advanced within PET systems. In June 2025, RecyClass validated an Avantium PET/PEF bottle as fully recyclable in the PET stream. And in the next month, that is, July 2025, the European PET Bottle Platform extended its interim endorsement for bottles containing PEF, maintaining a defined pathway for market pilots.
Note: These actions demonstrate market readiness and recyclability alignment. Final food-contact compliance still depends on the specific grade, intended use, migration testing, and a proper Declaration of Compliance under EU 10/2011.
A New Era for Food-Contact Materials
The ban on BPA and the restrictions on other bisphenols present a regulatory challenge as well as an opportunity for innovation. Instead of relying on derogations or last-minute substitutions, manufacturers may take advantage of this shift, that is, to adopt safer and more sustainable materials. Modified polyphenylene ethers, polyamides, polyesters, polyolefins, and emerging biopolymers each bring unique advantages. Together they form a comprehensive toolkit capable of covering the diverse requirements of modern food-contact applications. Companies that begin qualification and design adaptation today are set to meet the 2026 to 2029 deadlines. They will also be in the best position to present themselves as leaders in compliance, safety, and sustainable product development.
