IN Brief:
- European flexible food packaging consumption exceeded 4.2 million tonnes during 2025.
- OPP remained the largest material family, while paper-based structures moved into second place.
- Multi-material composites still account for more than 40% of demand despite growing recyclability pressure.
Schönwald Consulting has placed European consumption of flexible food packaging above 4.2 million tonnes in 2025, as manufacturers and converters prepare for a more demanding period of material redesign.
The consultancy’s Flexible Food Packaging in Europe study evaluates seven film families across 11 market segments and provides forecasts to 2030. Confectionery, convenience and fresh foods, and dry and dehydrated products together accounted for more than half of total consumption.
Oriented polypropylene remained the largest substrate family for a fourth consecutive year. Paper-based flexible materials moved into second place, reflecting growing investment in coated papers, laminates, and barrier technologies capable of extending fibre formats into applications traditionally served by plastic.
The remaining material groups include PET-, polyamide-, polypropylene-, and polyethylene-based films, together with flexible aluminium foil. Each category covers a range of mono-material and laminated structures developed around the barrier, sealing, strength, and processing needs of different foods.
Mono-material solutions now account for the larger share of the market, although multi-material composites still represent just over 40% of consumption. Their continued presence reflects the difficulty of combining moisture, oxygen, aroma, light, grease, puncture, and heat-seal performance within a single recyclable structure.
Flexible packs remain widely used because they can deliver low material weight, high product-to-pack ratios, efficient pallet utilisation, and rapid operation on form-fill-seal equipment. Their limited collection and recycling infrastructure, particularly for thin and contaminated films, remains the central weakness.
The study also examines the Packaging and Packaging Waste Regulation, including recyclability, minimisation, recycled content, labelling, reuse, and producer obligations. A guidance document published by the European Commission in March 2026 is included alongside a timeline of implementation dates and transition periods.
Packaging specifications will consequently face closer scrutiny at structure level. A pack that protects food effectively but cannot enter an established recycling route will become progressively more difficult to retain, especially where a technically feasible alternative is available.
Material simplification cannot weaken the pack
Recyclability is only one part of packaging performance. Shelf life, seal integrity, food contact compliance, line speed, machinability, print quality, opening behaviour, and distribution resistance must remain within specification when a laminate is replaced.
High-speed forming and sealing equipment can be sensitive to small changes in stiffness, friction, curl, thickness, static, hot tack, and seal window. A mono-polyethylene or mono-polypropylene structure may be recyclable in principle but still require revised jaw temperatures, dwell times, web tension, and quality checks.
Paper-based designs present a different set of engineering decisions. Fibre offers strong consumer recognition and access to established collection systems, but coatings or polymer layers may still be required for moisture, grease, oxygen, or heat sealing. The complete structure, rather than its visible outer surface, determines whether the pack can be recycled effectively.
The relationship between regulatory pressure and the technical demands placed on flexible food packs has become increasingly strained as PPWR deadlines approach. Schönwald’s figures show the industrial scale of the transition, with each material change affecting converters, packaging lines, quality systems, and supply agreements.
Progress will vary by category. Dry foods, bakery products, chilled meals, coffee, meat, cheese, snacks, confectionery, and retort applications all require different combinations of barrier and mechanical performance.
Some packs can move relatively quickly into mono-material designs, while others continue to depend on aluminium, polyamide, PET, or coatings to achieve the required shelf life. Substituting a weaker structure may increase spoilage, leakage, or product damage, offsetting reductions in packaging impact.
Converters are likely to operate parallel material portfolios during the transition. Existing laminates will remain in production while alternatives pass migration, shelf-life, transport, sealing, and factory trials, increasing specification complexity and the number of short runs.
Manufacturers can reduce that burden by harmonising structures across product ranges, although brand design, product chemistry, retailers, and regional recycling systems often pull specifications in different directions. A film accepted in one national collection scheme may be treated differently elsewhere.
Collection and reprocessing capacity must develop alongside pack design. Thin films can be difficult to sort, and food residue can affect recyclate quality, while limited end markets weaken the economics of recovery even when a material is technically recyclable.
Recycled content introduces further constraints for food-contact applications. Supply, colour, odour, mechanical properties, migration controls, and regulatory approval can limit how much recyclate can be incorporated without altering production or finished-pack quality.
With consumption exceeding 4.2 million tonnes, small improvements in film gauge, sealing yield, trim waste, pack failure, or recyclability can produce substantial cumulative effects. The same scale also means that poorly coordinated changes can create shortages, inconsistent quality, and stranded converting assets.
Europe’s flexible-packaging transition will therefore depend on detailed development work rather than broad material substitution. The market remains large because these structures protect food efficiently and run well on established machinery; the next generation will have to preserve those functions while fitting a more credible recovery system.
