The European Union generates over 300 million waste tyres annually. For recycling operators across the continent, that volume represents both a compliance challenge and a significant commercial opportunity. As EU regulations tighten and circular economy targets become legally binding, facilities are investing in advanced tyre recycling equipment that can handle the scale, consistency, and documentation demands of modern European operations.
Gradeall International, a specialist manufacturer based in Dungannon, Northern Ireland, designs and builds tyre recycling equipment exported to over 100 countries worldwide. The equipment on this page is in active use across European markets, from large processing hubs in Germany and France to agricultural operations in Spain and Italy.
Europe’s tyre waste challenge is well-documented. The EU Circular Economy Action Plan, combined with the Waste Framework Directive, sets out minimum recovery targets and traceability requirements that apply across all member states. For tyre recyclers, this regulatory environment means consistency and documentation are no longer optional. They’re auditable requirements.
Processing volumes vary significantly by country. Germany leads European tyre recycling, driven by the scale of its automotive manufacturing sector and strict environmental enforcement at the state level. France and Italy generate large volumes from both passenger vehicles and commercial logistics fleets. Spain’s agricultural regions produce significant quantities of large off-the-road (OTR) tyres from tractors and construction equipment. The Netherlands, with its port infrastructure, handles mixed tyre streams from across the continent.
The diversity of European tyre streams means that a single piece of equipment rarely covers everything. A facility processing passenger car tyres in large volumes needs a different throughput capability than one handling truck tyres from a logistics hub, or agricultural OTR tyres from a rural collection network.
Matching equipment to stream type is the starting point for any European facility. Getting this wrong creates bottlenecks, increases labour costs, and risks producing bales that don’t meet downstream quality requirements. The sections below cover the main equipment categories and how they apply to European processing conditions.
European tyre recycling regulations are designed around three core principles: material recovery, traceability, and consistent output quality. Equipment that supports all three reduces compliance risk and opens access to premium downstream markets.
The EU Circular Economy Action Plan sets a minimum 65% material recovery target by 2030. Extended Producer Responsibility (EPR) schemes, now active in most EU member states, require tyre manufacturers to fund end-of-life processing. This funding flows to certified facilities that can demonstrate recovery rates and output quality. Facilities using high-performance baling and cutting equipment are better positioned to meet certification requirements and access EPR funding streams.
The updated Waste Shipment Regulation (WSR) applies to the cross-border movement of processed tyre materials within the EU. It requires documentation of material origin, processing method, and destination use. Consistent bale production plays a direct role here. Bales produced to PAS 108 specification (the British Standard for tyre bales used in civil engineering and construction) carry recognised dimensions, density, and embedded wire documentation that simplifies customs and transport paperwork.
Facilities using Gradeall’s MKII tyre baler produce bales that meet PAS 108 requirements. This matters for operators exporting processed material across EU borders, where customs authorities increasingly require standardised bale documentation.
European facilities operate on 400V three-phase power systems, which is the standard across EU member states. Gradeall equipment is configured for European power compatibility as standard. All machinery carries CE marking and is designed to meet EU Machinery Directive requirements, including dual-hand controls on cutting equipment and guarded access points on balers and conveyors.
Tyre baling is the core processing step for most European facilities. Baling reduces tyre volume by approximately 75 to 80%, which directly cuts storage and transport costs. For facilities exporting processed material, this volume reduction has a measurable impact on shipping economics.
Gradeall manufactures three primary tyre baler models suited to different European processing scenarios. The right choice depends on daily volume, tyre type, and available footprint.
The MKII tyre baler is designed for facilities processing large volumes of car and light commercial vehicle tyres. It produces PAS 108-compliant bales at up to six bales per hour, making it one of the higher-output options available for facilities running continuous shifts.
For European facilities receiving tyres from municipal collection networks or automotive retailers, the MKII’s output rate and bale consistency support both storage efficiency and downstream sales. PAS 108 bales are used in civil engineering applications across Europe, including road embankment construction and noise barrier systems, where consistent dimensions are a purchase requirement.
The MK3 tyre baler handles a broader range of tyre sizes than the MKII, making it well-suited to facilities that process mixed streams, including light truck tyres alongside passenger car sizes. It also produces PAS 108-compliant bales, so facilities don’t trade output quality for flexibility.
Mixed streams are common in European markets where collection networks pull from multiple waste streams: municipal household waste, commercial garage collections, and retail tyre retailer returns. The MK3 manages these varied inputs without requiring pre-sorting by size, which reduces labour time before the baling stage.
The truck tyre baler is built specifically for large commercial vehicle tyres. These are common in northern European logistics hubs, port areas, and transport depots. Truck tyres are significantly denser and heavier than car tyres; they require a baler with a higher compression force and a larger intake aperture.
“We’ve seen strong demand from European logistics operators who want to process tyres on-site rather than paying for whole-tyre collection and disposal,” says Conor Murphy, Director of Gradeall International. “The economics shift substantially when you’re producing baled material you can sell, instead of paying per tyre for removal.”
Sidewall cutting is the preparatory step that most significantly improves bale quality and baler throughput. Removing the sidewalls from a tyre before baling reduces spring-back, improves bale density, and lowers stress on baler components. For facilities processing truck tyres at volume, this step is not optional if consistent PAS 108 bale quality is the target.
Gradeall manufactures sidewall cutters for car tyres, truck tyres, and OTR sizes. Each is designed for the tyre dimensions and rubber thickness typical of its category.
The truck tyre sidewall cutter is the most widely used piece of preparatory equipment in European commercial vehicle tyre processing. It removes both sidewalls from a truck tyre in a controlled cut, producing a clean separation without contaminating the central rubber band with wire fragments.
French logistics operators, German freight hubs, and Dutch port facilities all generate high volumes of truck tyres. Adding a sidewall cutter upstream of a baler increases baler output rate, extends baler service life, and improves bale uniformity. The net result is lower cost per bale and better downstream material quality.
The car tyre sidewall cutter serves facilities processing passenger vehicle tyres. It operates at a faster cycle rate than truck tyre cutters, matching the throughput of high-volume car tyre streams from municipal collection points and retail tyre retailers across Europe.
Steel wire extraction rates improve when sidewalls are removed before shredding or baling. For facilities supplying material to crumb rubber producers, this translates to a cleaner feedstock and better per-tonne pricing.
Europe’s agricultural sector produces large volumes of OTR tyres from tractors, harvesters, and construction plant. These tyres are too large for standard balers and require dedicated cutting equipment before further processing.
Gradeall’s OTR tyre splitter and the broader OTR tyre cutting equipment range are designed to reduce these large tyres to manageable sections. Spain’s agricultural interior, southern France’s farming regions, and Germany’s construction belt all generate OTR tyre volumes that require this approach. Without dedicated OTR cutting equipment, large tyres typically go to landfill or incur high disposal costs. With it, the processed rubber enters the same downstream markets as car and truck tyre material.
Rim separation is a necessary step for any facility that receives tyres still mounted on wheels. Processing a tyre-on-rim through a baler or cutter risks equipment damage and produces mixed-material output that lowers the value of recovered rubber.
Gradeall’s tyre rim separator and the heavier truck tyre rim separator handle car and commercial vehicle sizes, respectively. Both operate hydraulically and are designed for continuous production use.
For European facilities receiving tyres from garage networks, which often include a proportion of tyre-on-rim deliveries, adding rim separation to the processing line improves both material quality and downstream metal recovery. Steel rims separated cleanly at this stage go directly to scrap metal buyers, adding a secondary revenue stream alongside rubber output.
Most European tyre recycling facilities don’t run a single piece of equipment in isolation. Efficient operations use a configured processing line where each stage feeds the next without creating bottlenecks or handling inefficiencies.
A typical configuration for a mid-volume European facility processing mixed car and truck tyres might look like this: incoming tyres go through rim separation if needed, car tyres go to a sidewall cutter before baling, truck tyres go through the truck sidewall cutter before entering the truck baler, and bales go to a covered storage area before shipping.
Adding a tyre conveyor system between processing stages removes manual handling steps, reduces labour requirements, and keeps the line running at a consistent rate. For facilities targeting throughput volumes that justify shift-based operation, conveyors make the difference between a processing line that needs frequent stops for manual loading and one that runs continuously.
European facilities with limited floor space benefit from inclined conveyor configurations that move tyres vertically between stages, making use of building height rather than floor area.
Some European operators run collection networks across multiple sites rather than centralising processing at a single facility. The portable tyre baling system is designed for this scenario. It can be transported between sites, set up quickly, and operated without permanent installation.
For operators managing regional collection across France, Germany, or the Iberian Peninsula, portable baling reduces the cost of transporting whole tyres to a central facility. Baled material from multiple sites can be consolidated for onward shipping at a much lower transport cost per unit.
European markets offer an established and growing demand for processed tyre material across several end-use categories.
Civil engineering is the largest single application for PAS 108-compliant tyre bales. Bales are used in road embankment construction, retaining wall systems, and flood defence structures. German and Dutch infrastructure programmes have both used tyre bales in engineered fill applications. Consistent bale dimensions and documented PAS 108 compliance are requirements for most civil engineering procurement specifications.
Sports surface applications use crumb rubber from shredded tyres in athletic tracks, playground surfaces, and artificial turf infill. European demand for these materials is steady, supported by public investment in recreational infrastructure. Facilities producing clean, size-graded crumb rubber from properly processed tyre material can access premium pricing in this segment.
Energy recovery through tyre-derived fuel (TDF) remains an active market across Europe, particularly for cement kilns. Cement producers in Germany, France, and Poland use TDF as a coal substitute, and the EU’s emissions trading system creates an incentive to increase substitution rates. Facilities that can supply TDF to specification benefit from long-term supply contracts.
Recycled rubber is also used in automotive manufacturing, where EU producers are under pressure to increase recycled material content in new vehicles. This is an emerging but growing demand channel for well-processed tyre material.
Getting the equipment right is only part of the planning process. European facilities also need to account for building requirements, utility connections, regulatory permits, and operator training before a processing line can go live.
Gradeall provides pre-installation support to help European operators plan their facility layout. This covers equipment footprint, loading and unloading access, power supply requirements, and extraction or ventilation needs for cutting equipment. For customers visiting the manufacturing facility in Dungannon, Northern Ireland, full working demonstrations of the equipment are available before purchase.
All Gradeall equipment comes with operator training as part of the installation package. Training covers machine operation, safety procedures, routine maintenance, and fault diagnosis. For European facilities, training materials and support documentation are available in English, with additional language support available on request.
Ongoing technical support is provided through Gradeall’s service network, which covers major European markets. OEM spare parts are available for all current equipment models, and planned maintenance schedules are provided to help facilities manage servicing without unplanned downtime.
Gradeall designs equipment for container-optimised shipping, which reduces freight costs for European buyers receiving equipment by sea or road freight. Full installation support is provided on arrival, covering commissioning, operator training, and initial production runs.
Tyre balers are the most common piece of processing equipment in European facilities. The MKII tyre baler and truck tyre baler from Gradeall are both in active use across EU markets. Sidewall cutters are typically paired with balers in higher-volume operations to improve bale quality and protect baler components. OTR cutting equipment is used by facilities in agricultural regions of Spain, France, and Germany that process large tractor and construction tyres.
Yes. All Gradeall tyre balers carry CE marking and are designed to meet EU Machinery Directive requirements. Equipment operates on 400V three-phase power, which is standard across EU member states. Safety features include guarded access points, dual-hand controls on cutting equipment, and emergency stop systems on all powered equipment.
PAS 108 is the British Standard that defines the specification for tyre bales used in civil engineering and construction. It covers bale dimensions, density, wire gauge, and documentation requirements. European infrastructure projects increasingly specify PAS 108-compliant bales for engineered fill applications. Facilities producing PAS 108 bales can access civil engineering markets that are not open to facilities producing non-standard bales.
It depends on the model. The MKII and MK3 tyre balers handle car and light commercial tyres. The truck tyre baler is designed specifically for large commercial vehicle tyres. Many European facilities run both types, with tyres routed to the appropriate machine based on size. Adding a sidewall cutter upstream of each baler improves throughput and bale quality regardless of tyre type.
A rim separator removes the steel wheel rim from a tyre that’s still mounted. A sidewall cutter removes the sidewall sections from a dismounted tyre before baling. Both are preparatory steps, but they address different inputs. Facilities receiving tyres still on rims need a rim separator first; facilities receiving dismounted tyres go directly to sidewall cutting. Some European facilities receive both types and run both pieces of equipment.
Gradeall’s portable tyre baling system is transported to each collection site, where it’s set up and operated to bale tyres on-site before transport. This avoids the cost of shipping whole tyres across long distances to a central facility. The baled output is much denser than loose tyres, so transport costs per unit are significantly lower. For operators covering multiple regions across France, Germany, or Spain, this approach reduces logistics costs substantially.
The main markets are civil engineering (PAS 108 bales for infrastructure projects), sports surfaces (crumb rubber for tracks and playground surfaces), energy recovery (tyre-derived fuel for cement kilns), and automotive manufacturing (recycled rubber content in new vehicles). Civil engineering and energy recovery are the largest and most established markets. Sports surface demand is growing with public investment in recreational infrastructure across the EU.
Commissioning timelines vary by installation complexity. A single baler installation typically takes one to two days for mechanical setup and a further day for operator training and initial production runs. A full processing line, including conveyors, rim separator, sidewall cutters, and balers, takes longer and is planned in detail during the pre-installation survey. Gradeall provides an installation schedule as part of the sales process so facilities can plan staffing and production around the commissioning period.
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