Tyre baler footprint planning is one of the most practical decisions you’ll make before a machine arrives on site. Get it right, and installation is straightforward; get it wrong, and you’re moving racks, relocating services, or worse, turning a delivery lorry away.
The machine dimensions are only the starting point. Total floor area requirements include operational clearances on all loading sides, bale ejection space, maintenance access, and safe movement for both operators and forklifts. This guide covers the footprint and weight specifications across Gradeall’s tyre baler range, floor loading requirements, ceiling heights, and practical layout guidance for different site types, drawn from nearly 40 years of installation experience across more than 100 countries.
A tyre baler is a substantial piece of industrial equipment. Getting the space planning right before delivery prevents problems that are both expensive and time-consuming to fix after the machine has arrived on site.
The machine footprint is only part of the picture. The total floor area required for a tyre baling operation includes clearance for loading on all sides, space for bale removal and stacking, maintenance access to hydraulic and electrical components, and safe movement of operators and forklift trucks around the machine.
This guide covers the footprint and weight specifications for Gradeall’s tyre baler range, the operational clearances that determine total floor area requirements, floor loading considerations, and practical space planning for different site types.
Gradeall International manufactures tyre balers at our facility in Dungannon, Northern Ireland. The specifications below are drawn from our equipment range, with guidance based on nearly 40 years of installation experience across waste transfer stations, tyre recycling facilities, dealership workshops, and industrial sites in over 100 countries.
Understanding the base dimensions and weights of the main machines in the Gradeall tyre baler range is the starting point for any space planning exercise.
These are machine dimensions only. Add a full bale (typically 900 to 1,100kg for a car tyre bale) to the machine weight for floor loading calculations during operation.
Heights given are for the machine in operating position. Confirm ceiling heights allow for the machine to be positioned and operated correctly, including clearance for any overhead obstructions such as services, lighting, or roof structures.
For the most current and detailed specifications for any specific machine, see the individual product pages: MKII Tyre Baler, MK3 Tyre Baler, Truck Tyre Baler.
The machine footprint tells you how much floor area the machine occupies when standing still. The operational clearance is the total area the machine and its associated activities require to function properly and safely.
Loading clearance: Gradeall tyre balers use a multi-door loading design. Access from multiple sides is part of the operational design, not a preference. Blocking one or more loading doors with walls, racking, or other equipment reduces loading efficiency and forces operators into more awkward loading positions. Allow a minimum of 1,200mm clear on each accessible loading side.
Bale ejection clearance: The completed bale is ejected from the front of the machine. The bale needs to land clear of the machine and remain accessible for forklift collection without blocking the next loading cycle. Allow a minimum of 2,000mm in front of the ejection face, and ideally 3,000mm to allow comfortable forklift access without the operator needing to manoeuvre tightly.
Maintenance clearance: Hydraulic components, the power unit, and the electrical cabinet all require periodic access for inspection, adjustment, and replacement. An engineer working on the hydraulic power unit needs to be able to open panels, remove components, and work without being forced into a confined position. Allow a minimum of 800mm clear on the hydraulic and electrical access sides; 1,200mm is more practical for comfortable working.
Operator movement: The operator loading tyres into the machine is moving around the machine constantly during a shift. Clear, unobstructed floor between the tyre storage area and the loading doors reduces fatigue and trip hazard risk. Consider the movement path of both the loading operator and the forklift collecting finished bales when planning the layout.
Combining machine footprint with operational clearances gives the minimum total floor area for a functioning tyre baling operation.
These are minimum working areas. In practice, sites benefit from additional space for tyre input storage (loose tyres before baling) and bale output storage (completed bales awaiting transport). At typical processing rates, a day’s output of bales can take up significant floor area; plan for this in the layout rather than discovering it once operations begin.
A useful rule of thumb for a mid-volume operation (50 to 100 car tyres per day): allow space for a two-day input stockpile of loose tyres (allowing for days when incoming volumes are higher than baling capacity) and a two-day output stockpile of completed bales (allowing for days when collection doesn’t arrive as planned). This buffer avoids the operation being bottlenecked by either an overflowing input area or an inability to store completed bales.
The combined weight of the baler and a full bale creates a point load on the floor that must be within the floor’s capacity. Floors that are adequate for normal industrial use are not always adequate for the combined loading of a tyre baler.
Minimum floor specification for a standard tyre baler installation:
The levelness requirement is particularly important for hydraulic systems. If the floor slopes significantly across the machine’s footprint, the hydraulic ram does not operate truly vertically. This causes uneven compression, faster wear on cylinder seals and guide rails, and potentially inconsistent bale geometry.
Most modern industrial buildings (post-1990 warehouses, waste transfer stations, manufacturing facilities) meet these specifications without modification. Older buildings, particularly those with thin concrete slabs over packed hardcore rather than properly designed industrial floors, may need assessment. A structural engineer can confirm whether your existing floor meets specifications; the assessment typically costs £500 to £1,000 and takes one to two weeks to arrange.
Where the floor does not meet specification, a steel base frame distributes the machine’s weight over a larger floor area. This is a cost-effective solution for many older buildings and allows installation without floor reinforcement work.
Ceiling height is relevant both for machine operation and for delivery and positioning.
The minimum operational ceiling height is determined by the machine height plus clearance for overhead services, and by the need for operators to work safely around the machine. For the MKII, the 2,800mm machine height requires a minimum 3,500mm ceiling for comfortable operation. Lower ceilings are possible, but reduce the working space above the machine and makes maintenance access to the top of the hydraulic cylinder more difficult.
For delivery, the machine is transported on a flatbed lorry and manoeuvred into position by forklift. If the installation site is inside a building, the door opening must allow the machine to pass through. The MKII requires a door opening of at least 3,000mm wide and 3,500mm high. Standard industrial roller shutters at 3,000mm wide × 3,600mm high are usually adequate; check the specific dimensions of your building’s access points before confirming the machine specification.
If overhead services (pipes, cable trays, sprinkler systems) run across the proposed installation area, check that they don’t obstruct the machine in operating position or create a risk during the positioning process. Minor services can often be relocated; major structural or safety-critical services need to be assessed before the installation location is confirmed.
Sites processing higher tyre volumes frequently add a conveyor feed system to automate the loading stage. An inclined tyre baler conveyor feeds tyres from ground level up to the baler’s loading chamber, removing the manual handling element of loading.
Conveyor integration adds substantially to the total floor area required:
If you’re planning to add a conveyor either at installation or in the future, factor the total conveyor footprint into the initial space planning. Retrofitting a conveyor into a space that was planned around the baler alone is possible, but usually involves compromises. Plan for the full system from the outset.
The portable tyre baling system is an alternative for sites where space constraints make a fixed installation difficult. The portable unit can be positioned as required and moved if site layouts change.
Space planning is not just about fitting the machine in. The layout affects operational efficiency, safety, and the overall throughput of the tyre handling process.
Waste transfer stations: Typically have large floor areas but complex vehicle movements. The baler should be positioned to allow tyre delivery vehicles to drop loads without blocking the baling operation, with a clear separation between vehicle movement areas and the operator’s working zone around the baler.
Tyre dealerships and workshops usually have tighter floor space. Prioritise loading clearance on the primary working side and accept reduced clearance on secondary sides. Ensure the bale ejection area is clear and accessible without requiring forklift movements that conflict with workshop traffic.
Tyre recycling facilities: Often process multiple tyre types and use pre-processing equipment (sidewall cutters, rim separators) before baling. The layout should create a logical flow from tyre intake through pre-processing to baling to bale storage, minimising the distance tyres travel between stages.
Mobile and temporary installations: For sites where permanent installation is not practical or where the volume of tyres is seasonal, the portable baling system offers flexibility that a fixed installation doesn’t. See the portable tyre baling system for specifications.
These questions come from real enquiries Gradeall receives from operators planning their first baler installation. If your question isn’t covered here, contact our team directly for site-specific guidance.
The minimum operating area for the MKII Tyre Baler is 8,000mm × 6,000mm (48 square metres). This includes the machine footprint plus operational clearances for loading, bale ejection, and maintenance access. Add additional space for tyre input storage and bale output storage based on your daily processing volumes and collection frequency.
In most cases, no. The machine’s weight provides sufficient stability. Bolt-down is recommended where the floor slopes more than 10mm across the machine’s footprint, in seismic risk areas, or for outdoor installations subject to wind loading. If bolt-down is required, the floor needs 150mm embedment depth for M16 anchor bolts at four or six positions.
3,500mm for the MKII and Truck Tyre Baler. 3,000mm for the MK3. Lower ceilings are possible, but reduce working space above the machine and makes maintenance more difficult. Confirm that overhead services don’t obstruct the machine before finalising the installation location.
Yes, positioning one side against a wall reduces the total floor area required. The trade-off is losing loading access on that side, which reduces loading flexibility. Position the wall side on the least-used loading face (usually the hydraulic component side) to minimise the operational impact.
Arrange a structural engineer’s assessment before proceeding. The assessment confirms whether the existing slab meets the 5,000 kg/m² loading capacity and C25/30 strength requirements. If it doesn’t, a steel base frame is usually the most practical and cost-effective solution, distributing the machine’s weight over a larger area without requiring floor reinforcement.
Significantly. Completed bales are large and heavy, and if collection is infrequent, the bale storage area can quickly become a constraint on the whole operation. Plan for at least a two-day output buffer in your space calculations. Bales can be stacked two or three high if your forklift has sufficient lift capacity and the floor loading capacity supports it.
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