A tyre baler is a substantial piece of industrial equipment. Poor installation planning causes delays, unexpected costs, and operational problems that persist for years. The most common issues we see are inadequate floor strength, missing electrical infrastructure, and insufficient space for maintenance access.
Get the site preparation right before delivery day, and installation takes 1 to 2 days with no complications. Get it wrong, and you’re looking at weeks of remedial work, additional contractor costs, and a baler that can’t be positioned optimally for your workflow.
This guide walks through everything you need to prepare before a Gradeall tyre baler arrives on site. Floor specifications, electrical requirements, physical space, access for delivery, and commissioning procedures are all covered based on real installation experience from nearly 40 years of manufacturing.
Gradeall International manufactures tyre balers at our facility in Dungannon, Northern Ireland, and we’ve installed equipment in over 100 countries. The specifications below are standard requirements for industrial balers. Site-specific variations exist, but these are the baseline criteria every installation must meet.
Industrial tyre balers weigh 2,200kg to 3,500kg empty. Add a full bale (900kg to 1,100kg) and you’re at 3,100kg to 4,600kg total. The floor needs to support this weight plus the dynamic loading from the compression cycle.
Minimum floor specification:
Most modern industrial buildings with concrete floors meet these specifications. Warehouses, factories, and waste transfer stations built in the last 20 years typically exceed them. Older buildings (pre-1990) may have thinner slabs or lower-grade concrete that requires assessment.
If your floor doesn’t meet specification, you have three options:
Option 1: Structural engineer assessment Hire a structural engineer to assess actual floor capacity. Sometimes older floors exceed their original specification due to conservative design. Assessment costs £500 to £1,200. If the floor passes, you’re clear to proceed.
Option 2: Steel base frame Install a steel base frame that distributes the baler’s weight over a larger floor area, reducing point loading. The frame sits between the baler and floor, spreading 4,600kg across 6 to 8 square metres instead of 3 to 4. Frame cost: £1,800 to £3,500 including fabrication and installation.
Option 3: Floor reinforcement If the floor is genuinely inadequate (cracked, subsiding, or thin slab over poor substrate), you need proper reinforcement. This typically means breaking out a section, excavating deeper, installing rebar, and pouring a new reinforced pad. Cost: £3,000 to £8,000 depending on size and access. This is the most expensive option and adds 2 to 3 weeks to installation timeline.
Levelness matters for hydraulic systems. If the floor slopes more than 5mm over the baler’s footprint, the hydraulic ram may not operate vertically. This causes uneven bale compression, premature seal wear, and potential safety issues. Most installers carry shims to compensate for minor slopes, but anything beyond 10mm requires floor levelling compound or a custom base.
Outdoor installations need additional considerations. If you’re installing a baler outdoors (not recommended but sometimes necessary), the concrete pad needs to be 200mm thick minimum with proper drainage. Water pooling around the baler causes electrical faults and rust. You’ll also need a weatherproof enclosure, which adds £4,000 to £8,000 to the project.
The MKII tyre baler requires three-phase 415V power with a 7.5kW motor. The MK3 baler can run on single-phase 240V with a 4kW motor, but if you have three-phase available, the MKII’s higher capacity makes it the better choice.
Electrical specification for MKII:
Electrical specification for MK3:
If you’re on an industrial estate or in a manufacturing facility, you probably have three-phase power. Check your distribution board or consumer unit. Three-phase has four wires (three live phases plus neutral) vs single-phase which has two wires (live and neutral). If unsure, ask your electrician.
If you don’t have three-phase, you need an electrical upgrade. This involves:
Total cost: £5,000 to £15,000 depending on:
Installation timeline: 4 to 12 weeks from quote acceptance to connection. The electricity supplier’s schedule drives this, not your timeline. Book the upgrade before ordering the baler if possible.
Isolation and emergency stops: The baler needs a local isolator within 3 metres of the machine. This allows engineers to isolate power for maintenance. The isolator must have a lockout facility (padlock point) to prevent accidental reactivation during service work.
Emergency stops are built into the baler’s control panel. You don’t need to install separate e-stops, but if your site has a central emergency shutdown system, the baler can be integrated into this. Discuss this during installation planning.
Earthing is critical. Industrial equipment with hydraulic systems and metal frames needs proper earthing to prevent electric shocks. The installer will test earth continuity and resistance. Any reading above 0.5Ω indicates a problem with the earth connection, which must be resolved before the baler can be commissioned.
The baler needs space not just for the machine itself, but for loading, bale removal, maintenance access, and operator movement.
MKII space requirements:
MK3 space requirements:
Why the extra space beyond the machine footprint? Four-door loading design means operators access from all sides. If one side is blocked by a wall, you’ve lost 25% of your loading efficiency. Maintenance engineers need to access hydraulic components on the rear panel and electrical cabinets on the side. Bale ejection requires clear space at the front for removing finished bales.
If you’re planning to add conveyor systems for automatic feeding, add another 5 to 8 metres to the length requirement. Inclined conveyors need ground-level loading at one end and elevated discharge at the baler’s loading chamber. That’s 6 to 8 metres of additional floor space plus clearance for the conveyor structure.
Delivery access: The baler arrives on an articulated lorry (usually a flatbed with crane for offloading). You need:
If the baler needs to go through a doorway to reach final position, check door dimensions. The MKII needs a 3,000mm (width) × 3,500mm (height) opening minimum. The MK3 needs 2,500mm × 3,000mm. Standard industrial roller doors are 3,000mm × 3,600mm, so they’re usually adequate.
Can’t get the baler through your door? You have three options: remove the door temporarily (if it’s a roller shutter, this is straightforward), dismantle the baler partially for transport (adds 4 to 6 hours to installation time and £500 to £800 in labour), or cut a larger opening in the wall (expensive and not usually necessary).
Most tyre balers don’t need to be bolted down. The machine’s weight (2,200kg to 3,500kg) plus the bale weight (900kg to 1,100kg) provides sufficient stability. The compression cycle generates some vibration, but modern balers have vibration-damping feet that prevent movement.
When bolt-down is required:
If bolt-down is needed, the floor must be drilled for M16 anchor bolts at four or six points. Each anchor point needs 150mm embedment depth into the concrete. The installer provides anchor positions and specifications.
Cost: £200 to £400 for materials and drilling if not included in standard installation.
Vibration isolation: Some facilities require vibration isolation to prevent transmission to adjacent areas. This is common in mixed-use buildings or facilities with sensitive equipment nearby. Vibration isolation mounts cost £800 to £1,500 and sit between the baler and floor. They’re specified based on machine weight and vibration frequency.
Complete this checklist at least two weeks before delivery date:
Floor:
Electrical:
Space and Access:
Site Logistics:
Documentation:
If any item can’t be checked off, contact Gradeall before delivery. We’ll advise on solutions or reschedule if necessary. Last-minute surprises on installation day are expensive.
Installation day typically follows this schedule:
08:00 – Delivery vehicle arrives The baler is secured on a flatbed lorry with crane. Driver calls ahead when 30 minutes away. Have your site contact and forklift operator ready.
08:30 – Offloading Lorry crane lifts the baler off the flatbed. Forklift operator positions forks and takes the weight. Crane releases. Total time: 15 to 30 minutes. The baler is transported to the installation location on the forklift.
09:00 – Positioning Baler is positioned on the floor. Gradeall’s installation engineer checks position, levelness, and clearances. Adjustments made if needed (shims added for level, position shifted for optimal access). This takes 30 to 60 minutes.
10:00 – Electrical connection Your electrician connects the supply cable to the baler’s isolator and motor terminals. Gradeall’s engineer supervises and checks connections. Insulation testing, earth continuity testing, and polarity checks completed. Time: 1 to 2 hours.
12:00 – Hydraulic system fill Hydraulic reservoir filled with ISO VG 46 hydraulic oil (approximately 250 litres). System purged of air. Initial run to circulate oil and check for leaks. Time: 1 hour.
13:00 – Control system setup PLC controller programmed with site-specific settings (cycle timings, pressure limits, wire feed parameters). Safety systems tested (emergency stops, interlocks, two-hand controls). Time: 1 to 2 hours.
15:00 – Commissioning test Full compression cycle with scrap tyres. Check bale quality, wire tension, ejection function. Fine-tune pressure and timing if needed. Run 3 to 5 test cycles to verify consistent operation. Time: 1 to 2 hours.
17:00 – Operator training On-site staff trained on operation (loading, starting cycle, bale removal, wire spool changing). Safety procedures explained. Emergency protocols covered. Basic troubleshooting reviewed. Time: 1 to 2 hours.
18:00 – Handover Installation complete. Documentation provided (CE certificate, operating manual, maintenance schedule, parts list). Warranty registration completed. Contact details for service support provided.
Total installation time: 8 to 10 hours for a standard installation with no complications. If electrical work or floor preparation is needed on the day, add time accordingly.
After installation, several compliance items need attention:
LOLER examination (Lifting Operations and Lifting Equipment Regulations): The baler’s hydraulic ram is a lifting device. It must be examined by a competent person every 12 months. Your insurance company may require this for coverage. Cost: £150 to £300 per examination. Gradeall can provide this service or recommend local providers.
PUWER assessment (Provision and Use of Work Equipment Regulations): Your site must conduct a risk assessment for the baler as work equipment. Gradeall provides a template risk assessment covering typical hazards. You customise this for site-specific risks and local procedures. The assessment should be reviewed annually or when operating procedures change.
Operator training records: Keep records of who received training, when, and what was covered. This demonstrates compliance with Health and Safety at Work Act 1974 and supports your defence if an incident occurs. Records should include trainer name, trainee names, date, duration, and topics covered.
Electrical testing: Your site’s portable appliance testing (PAT) schedule should include the baler. Although it’s fixed equipment, the electrical system needs periodic inspection and testing. Frequency: annually at minimum, every 6 months for high-use equipment. Cost: £80 to £150 per inspection.
Insurance notification: Inform your insurer that you’ve installed new equipment. Some policies require notification within 30 days. Provide the equipment value, CE certificate, and installation documentation. Check whether your existing policy covers the full replacement value or if you need additional coverage.
Based on nearly 40 years of installations, these are the most common issues:
Problem: Floor not level enough Solution: Shims (thin metal plates) placed under the baler’s feet to compensate for slopes up to 10mm. For slopes beyond 10mm, use self-levelling compound or a custom base frame. Shims are included in standard installation. Levelling compound costs £200 to £500 depending on area.
Problem: Three-phase power not available Solution: If discovered before delivery, reschedule and arrange electrical upgrade (4-12 weeks). If discovered on delivery day (rare but it happens), the baler can’t be commissioned. The installer will position it and return once power is available. No additional installation charge, but you’ve lost time. Always verify power supply before confirming delivery date.
Problem: Door too small for baler Solution: Remove door temporarily (if roller shutter) or partially dismantle baler (hydraulic ram can be removed to reduce width by 600mm). Dismantling adds 4 hours to installation time and £500 to £800 in labour. Check door dimensions before ordering the baler.
Problem: No forklift available on delivery day Solution: Hire a forklift for the day (£150 to £300). Or reschedule delivery. The lorry crane can offload the baler to ground level, but you need a forklift or overhead crane to move it to final position. Pallet jacks won’t work (baler too heavy).
Problem: Other operations preventing access Solution: Schedule installation during downtime (weekend, evening shift, facility closure). Or coordinate with other operations to clear access for 2 to 3 hours during offloading and positioning. The baler is large and can’t be navigated around active forklifts or occupied workstations.
Gradeall includes standard installation in the equipment price for UK and Ireland customers. International installations are quoted separately based on location and complexity.
What’s included in standard installation:
What’s NOT included:
For international installations, Gradeall provides detailed installation specifications. You arrange local contractors for floor and electrical work. Our installation engineer travels to site for commissioning, control setup, and training. Travel and accommodation costs are quoted separately.
Installation timeline:
Order lead times are separate (add 4 to 8 weeks for baler manufacturing). Plan accordingly.
Minimum 5,000 kg/m² floor loading capacity with C25/30 concrete strength. Most modern industrial buildings exceed this. Older buildings (pre-1990) may need structural assessment. If your floor is inadequate, a steel base frame distributes weight over a larger area (£1,800-£3,500) or floor reinforcement may be required (£3,000-£8,000).
The MK3 runs on single-phase 240V but has lower capacity (40-50 tyres per hour vs 80 for the MKII). If you process 80+ tyres daily, installing three-phase is cost-effective despite the £5,000-£15,000 upgrade cost. The MKII’s higher throughput delivers ROI that justifies the electrical investment within 12-18 months.
MKII needs 6m × 5m clear space (30 square metres). MK3 needs 5m × 4m (20 square metres). This includes the machine footprint plus clearance for four-door loading, bale removal, and maintenance access. If space is tight, position against one wall to save 1-2 metres, but you’ll sacrifice loading efficiency.
Not recommended. Outdoor installations need weatherproof enclosures (£4,000-£8,000), thicker concrete pads (200mm vs 150mm), proper drainage, and more frequent maintenance. Hydraulic components and electrical systems deteriorate faster when exposed to weather. If indoor space is absolutely unavailable, outdoor installation is possible but expect higher lifetime costs.
Rarely for indoor installations. If you’re installing outdoors or making significant building modifications (new power supply, structural changes), check with your local planning authority. Most industrial equipment installations are permitted development. If you’re operating under an environmental permit, notify the regulator that you’re adding equipment.
Standard installation takes 1-2 days (8-10 hours) with no complications. If electrical work or floor preparation is needed, add time accordingly. International installations may take 3-4 days to allow for travel and thorough commissioning.
Minor slopes (up to 10mm) are compensated with shims (thin metal plates under the baler’s feet). Slopes beyond 10mm require self-levelling compound (£200-£500) or a custom base frame. Slopes beyond 20mm indicate a floor problem that needs addressing before installation proceeds.
Your electrician runs the supply cable from your distribution board to the baler’s isolator location. Gradeall’s installation engineer supervises the final connection to the baler’s motor terminals and control panel. Both electricians must be qualified to BS 7671 (18th Edition Wiring Regulations).
Proper site preparation prevents installation delays and operational problems. The three critical requirements are adequate floor strength (5,000 kg/m² minimum), correct electrical supply (three-phase 415V for MKII, single-phase 240V for MK3), and sufficient clear space (6m × 5m for MKII, 5m × 4m for MK3).
Complete the pre-installation checklist at least two weeks before delivery. If you can’t check off every item, contact Gradeall before the delivery date. We’ll advise on solutions or reschedule if necessary. The worst outcome is a delivery that can’t be installed because the site isn’t ready.
Most installations take 1 to 2 days with no complications. The MKII baler and MK3 baler are designed for straightforward installation when site preparation is correct.
If you’re uncertain about any site requirement, arrange a pre-installation survey. Gradeall’s installation engineer visits your site, assesses conditions, and provides a detailed installation plan with any remedial work needed. Survey cost: £300 to £600 (UK), credited against installation if you proceed with the order.
Request installation specifications and a site checklist when ordering your tyre baling equipment. We’ll work with you to ensure the site is ready and installation proceeds smoothly.
* The prices and running-cost figures below are based on real UK customer examples and are correct at the time of writing, but should be treated as indicative only.
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