15-18 June 2027
Crocus Expo, Moscow
Single-use plastics are under increasing pressure across packaging categories. Material scrutiny is rising, disposal costs are tightening, and packaging teams are expected to move faster without compromising performance. This has pushed moulded fibre packaging and advanced paper composites into a more prominent role, particularly where protection, food contact, and retail presentation needs to be provided in a single format.
The shift now extends beyond egg trays and transit inserts. Thermoformed fibre, coated paper structures, and hybrid formats are moving into trays, lids, clamshells, and shelf-ready packs that previously relied on polymers. For machinery suppliers, converters, and brand owners, the focus has moved from feasibility to scale—how quickly fibre formats can be introduced without disrupting line performance.
The technical case has improved. Moulded fibre formats can now deliver sharper geometry, cleaner surface finish, and better pack consistency than older pulp products. That makes them more viable in premium foodservice, personal care, electronics, and protective e-commerce packaging, where appearance matters alongside cushioning and stacking strength. Advanced paper composites have widened that scope further by combining fibre with barrier layers or functional coatings to handle grease, moisture, or short-life food applications.
The pressure behind this shift is measurable. In 2023, people in the European Union generated an average of 35.3 kilograms of plastic packaging waste per person. While fibre is not a universal replacement, this level of waste highlights why packaging teams are reassessing materials with greater urgency. When disposal costs, compliance exposure, and brand perception are considered together, fibre becomes a commercial decision rather than a symbolic one.
Performance has historically limited fibre adoption. Moisture resistance, sealing performance, tight tolerances, and surface finish often fell short of plastic alternatives.
That gap is narrowing. Improved forming tools, cleaner pulp inputs, and more consistent surface treatments now allow tighter dimensional control and stronger visual quality. In practical terms, that means fibre is now entering applications once reserved for rigid plastic trays, insert packs, and selected takeaway formats. Broader access to raw and expandable materials has also helped suppliers tailor density, cushioning, and formability to the product rather than forcing a one-size-fits-all design.
Paper composites extend this capability. They combine fibre with functional layers to improve grease resistance, moisture handling, print quality, and structural performance. Outcomes depend on how well material selection matches real operating conditions, including fill processes, transport loads, storage environments, and end-of-life handling. This level of engineering is what gives fibre-based packaging commercial viability.
Material progress means little if lines cannot run it. Fibre adoption often depends on whether converting, filling, sealing, and handling systems can accommodate varying tolerances and product behaviour without compromising output. That is why machinery choices are becoming central to the discussion of plastic replacements. Tooling, denesting, robotic pick-and-place, vision inspection, and moisture control all shape whether a fibre format works at industrial speed. This is also where suppliers of recycling machinery gain relevance, because fibre-based growth depends on stronger recovery and reprocessing systems, not only better pack design.
A recent pattern in Europe points in the same direction. Machinery suppliers are putting more emphasis on formed-fibre tooling, paper-based barrier structures, and automation systems built around lower-variance handling. That sits alongside a wider interest in smart packaging materials, where substrate decisions are more closely tied to traceability, performance monitoring, and resource efficiency. For packaging buyers in Russia and the Commonwealth of Independent States (CIS), this creates a clear sourcing issue: finding suppliers that can support both the material change and the line conditions needed to make that change pay back.
The next phase will be less about pilot projects and more about conversion discipline. Buyers need to know which fibre formats can replace plastic without adding hidden labour, excess breakage, or unstable barrier performance. They also need visibility across the supply chain, from pulp sourcing and composite structure design to forming equipment, automation, and post-use recovery. That is where trade platforms matter. RosUpack brings those categories into a single buying environment, from material inputs to processing systems and finished pack formats, giving suppliers and buyers a faster route to serious conversations about fibre substitution.
For international suppliers, entering or expanding in Russia and the CIS depends on direct access to production buyers, technical decision-makers, and local partners who can assess line compatibility. RosUpack positions these conversations within a broader market context, where fibre materials, automation, sustainability, and packaging conversion are evaluated together.
Packaging suppliers working with moulded fibre, paper composites, and the machinery needed to run them are already part of that conversation at RosUpack. To put those solutions in front of buyers, submit an exhibit enquiry. To assess the market and meet suppliers directly, register to visit. This provides a direct route to assess how fibre-based substitution is moving from material discussion to production-scale implementation.
