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FIMIC Sees Growing Asian Demand for Advanced Plastic Recycling Filtration

Maílis Carrilho
Written by Maílis Carrilho
Published Nov 11, 2026
5 min read
Updated Nov 9, 2026

FIMIC highlighted growing demand for advanced melt filtration technologies across Asia at Plastics Recycling Show Asia in Shanghai, with Southeast Asia and Japan among the markets showing interest in improving recycled plastic quality.

Speaking to Plastics News, regional sales manager Michelle Colombari linked that demand to increasingly contaminated feedstocks. The company is promoting its RPS and FCS technologies alongside pumps developed for post-consumer recycling, while identifying opportunities in automotive components and textile recycling.

The developments reflect a practical challenge for recyclers: recovering more material is only commercially useful when the output meets manufacturers’ requirements. Removing contamination and maintaining stable processing conditions are central to reaching those higher-value applications.

Contaminated Feedstocks Increase Processing Demands

Melt filtration removes solid contaminants from plastic after it has been heated into a molten state. The polymer passes through a screen before continuing toward pellet production or another processing stage.

For recyclers, the challenge extends beyond selecting a fine screen. Contamination must also be discharged effectively so that accumulated residue does not undermine processing stability.

FIMIC’s RPS system is designed around stable operating pressure. The company describes an adjustable-speed discharge screw working with a cylinder that keeps scraping channels clear. Contamination is discharged continuously and in a controlled manner, with the aim of maintaining consistent flow when processing difficult materials.

The FCS technology addresses stubborn deposits through active mechanical cleaning. According to FIMIC, a dedicated piston removes residue from scraping channels and directs it toward a front discharge valve. The company identifies post-consumer plastics, aluminum, unmelted fibers, and multilayer films among the materials or contaminants relevant to the system.

These are supplier descriptions of intended functionality. Their value for an individual plant depends on the waste stream, operating conditions, and required output.

Automotive Tests Point to Bumper Recycling Opportunities

One application highlighted in the report concerns polypropylene automotive bumpers contaminated with metallic paint.

According to the report, FIMIC tested its FCS technology within a two-stage filtration process to remove this contamination. The reported results enabled automotive suppliers to incorporate up to 25% recycled polypropylene into new bumpers.

That figure describes the reported application. It should not be interpreted as a guaranteed recycled-content level for every bumper design or waste stream.

For automotive suppliers, the opportunity is to recover plastic for a demanding manufactured component. Buyers evaluating such material would still need to establish that it satisfies the relevant processing and component specifications.

The commercial implications also depend on collection and preparation. A filtration system operates within a wider recovery chain, so consistent access to suitable discarded bumpers remains part of the investment case.

European Vehicle Rules Add a Demand Signal

European policy provides a further reason for automotive supply chains to develop reliable recycled plastic sources.

On June 29, 2026, the Council of the European Union announced its formal adoption of a regulation on vehicle circularity and end-of-life vehicle management. Its announcement describes recycled plastic requirements of 15% six years after entry into force, rising to 25% after ten years.

The Council also states that at least 20% of that recycled plastic must come from end-of-life vehicles.

These phased vehicle requirements provide context for investment in automotive recycling. They should be distinguished from the reported 25% recycled polypropylene content in particular bumpers: a component-level result does not itself demonstrate compliance with vehicle-level requirements.

Textile Recycling Requires Several Processing Steps

Colombari also identified textile-to-textile recycling as an opportunity, while acknowledging the difficulties created by mixed materials and contamination.

The report describes potential for combining pre-filtration with finer filtration downstream. The practical logic is to remove larger impurities before a subsequent stage addresses smaller particles.

However, filtration cannot independently solve every textile recycling challenge. Equipment supplier MAS notes that melt filtration does not by itself remove dissolved contamination or incompatible polymers. Feedstock separation and preparation therefore remain important when recovered textiles contain material blends.

Separately, a verified collaboration between FIMIC and Nordson BKG, part of Nordson Corporation, demonstrates the integration of filtration with other recycling equipment. Announced in October 2025, it combines FIMIC filters with Nordson pumps, valves and underwater pelletizing systems for high-throughput polyolefin recycling.

That collaboration provides broader equipment context, rather than confirmation of a specific textile-to-textile installation.

Equipment Investment Must Follow Output Requirements

Colombari expects greater adoption of twin-screw extruders in Asia as recyclers move toward higher-quality applications. This remains a company representative’s market expectation, rather than an independently quantified regional forecast.

For operators, the purchasing decision should connect the complete processing line with a defined customer requirement. Representative trials can establish whether filtration, extrusion and material preparation together produce acceptable output.

Relevant measures include saleable material yield, residual contamination, production interruptions, energy consumption and polymer losses in discharged residue. MAS also identifies pressure, thermal exposure, maintenance and wear parts as filtration trade-offs.

The environmental case similarly depends on operating results. Recovering plastic for new products can support resource efficiency, but a machine installation alone does not establish an emissions saving.

FIMIC’s reported Asian market outlook points to an industry seeking more demanding uses for recovered plastics. The next step for recyclers is to demonstrate consistent material quality at a cost that customers and plant operators can sustain.

Sources:


Maílis Carrilho
Written by:
Maílis Carrilho
Sustainability Research Analyst
Maílis Carrilho is a Sustainability Research Analyst (Intern) at Net Zero Compare, contributing research and analysis on climate tech, carbon policies, and sustainable solutions. She supports the team in developing fact-based content and insights to help companies and readers navigate the evolving sustainability landscape.
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