Choosing the right Pallet Conveyor starts with the load, not the catalog.
A 1,000-kilogram pallet needs different support from a fragile, mixed-SKU load. Consider pallet dimensions, weight distribution, bottom-board condition, speed, accumulation, and transfer points. Measure the aisle width and available elevation changes. A small mistake can create large maintenance costs.
MHI’s 2024 Annual Industry Report identifies continued investment in supply-chain technology, with 55% of respondents expecting higher technology spending. This trend supports automation, but it does not justify automating every movement. The report also highlights workforce and integration challenges. A conveyor must connect reliably with scanners, warehouse-management software, lifts, wrappers, and people.
John Paxton, President and CEO of MHI, has described the supply chain as “the backbone of our economy.” That principle matters here. A Pallet Conveyor is not an isolated machine; it is part of a working network. The best choice balances throughput, safety, controls, energy use, noise, and service access.
Do not trust speed alone.
A faster line may increase accumulation pressure, product damage, or downstream congestion. CEMA conveyor standards and manufacturer load tables provide useful technical references, yet site conditions still decide performance. Dust, temperature, uneven floors, and seasonal demand can change the result. This guide compares roller, chain, and powered conveyor options through those practical limits. Some assumptions may prove wrong. That is useful. A careful selection process should expose them before installation.
How to Choose the Right Pallet Conveyor?
Define Your Pallet Handling Requirements
Before selecting equipment, measure the pallets you actually use. Record length, width, height, weight, and bottom-board condition. Do not rely on nominal pallet sizes. Small variations can affect transfers, guides, and sensors. I have seen clean-looking pallets stall because one damaged board caught a roller.
Map the movement, not just the distance. Note loading points, unloading points, accumulation zones, and manual workstations. Estimate pallets per hour during normal and peak shifts. Include start-stop frequency and queue length. A line handling 20 pallets steadily may need less capacity than one handling 20 pallets in short bursts. Consider whether loads arrive centered. They often do not. Define the required direction changes, elevation changes, and transfer gaps before requesting quotations.
Your product also defines the conveyor. Paper cartons, drums, and unstable loads need different support and control. Specify the center of gravity, wrapped-load condition, and acceptable contact points. Decide whether operators need access from both sides. Safety clearances and emergency stops must fit the working area. Environmental details matter too: dust, moisture, temperature, and cleaning methods can change component choices. Leave room for maintenance. This is easy to forget. Review the layout with operators, maintenance staff, and a safety professional. Their practical objections may reveal a requirement hidden in the drawing.
| Requirement Dimension | Key Data to Define | Typical Design Reference | Recommended Conveyor Consideration |
|---|---|---|---|
| Pallet footprint | Length × width, entry orientation, and dimensional variation | Common industrial footprints include approximately 1,200 × 800 mm and 1,200 × 1,000 mm; actual site standards may differ. | Select the conveyor frame and roller pitch to provide stable support for the smallest pallet and adequate clearance for the largest pallet. |
| Pallet construction | Wood, plastic, steel, nestable, stringer, or block pallet | Pallet bottoms may have continuous boards, gaps, runners, or uneven surfaces. | Use chain conveyors or additional support when pallet bottom gaps could cause roller drop-through, skewing, or unstable transfer. |
| Pallet load | Maximum gross weight, load distribution, and center of gravity | A practical specification should include the heaviest pallet, not only the average pallet. | Choose rated rollers, shafts, bearings, frames, drive units, and braking systems with an appropriate engineering safety margin. |
| Throughput | Pallets per hour, peak demand, operating hours, and shift pattern | Calculate peak flow separately from average daily flow; loading and shipping peaks often determine conveyor capacity. | Size conveyor speed, spacing, accumulation capacity, transfers, and workstation interfaces for the peak requirement. |
| Conveyor speed | Required travel speed and acceptable acceleration or deceleration | Many pallet conveyor applications operate at moderate speeds, commonly around 0.1–0.5 m/s, depending on layout and controls. | Use variable-speed drives when product stability, merging, positioning, or operator safety requires controlled movement. |
| Accumulation method | Zero-pressure, minimum-pressure, or simple line accumulation | Zero-pressure accumulation requires independent zones and sensors to reduce pallet-to-pallet contact. | Choose zoned motorized rollers for controlled accumulation; use simpler driven sections where contact accumulation is acceptable. |
| Conveyor type | Straight transport, transfer, merge, turn, lift, or positioning function | Roller conveyors suit stable pallet bottoms; chain conveyors are useful for cross-transfer and pallets with unsuitable roller contact surfaces. | Combine roller, chain, turntable, lift, or shuttle sections according to the required material flow and layout constraints. |
| Layout and elevation | Straight-line distance, turns, inclines, declines, floor space, and access aisles | Inclines require sufficient traction and load retention; turns require adequate pallet clearance and controlled guidance. | Confirm floor loading, structural supports, service access, emergency egress, and forklift interaction before final selection. |
| Operating environment | Temperature, moisture, dust, washdown, corrosion, and indoor or outdoor use | Wet or corrosive areas require suitable materials, seals, finishes, electrical protection, and drainage provisions. | Specify corrosion-resistant components, appropriate enclosure ratings, washdown compatibility, and protection for sensors and drives. |
| Control and integration | Manual, semi-automatic, or automatic operation; required system interfaces | Typical interfaces may include barcode or RFID identification, warehouse control software, sensors, and programmable controllers. | Define communication protocols, pallet tracking logic, fault handling, manual override, and data collection requirements early. |
| Safety requirements | Guarding, pinch points, emergency stops, pedestrian crossings, and access control | Risk assessment should address moving parts, unexpected restart, falling loads, and interaction with people or vehicles. | Include accessible emergency-stop devices, guarding where needed, warning indicators, safe maintenance access, and documented procedures. |
| Maintenance and lifecycle | Cleaning, lubrication, spare parts, inspection frequency, and expected availability | Wear items commonly include rollers, chains, sprockets, bearings, belts, sensors, and drive components. | Prioritize accessible components, condition monitoring, standard spare parts, preventive maintenance, and clear fault diagnostics. |
| Future capacity | Expected growth, new pallet sizes, additional lines, and layout expansion | A conveyor designed only for current average demand may become a bottleneck during seasonal or business growth. | Reserve electrical capacity, control-system flexibility, floor space, and modular connection points for future expansion. |
Note: The reference ranges are general planning guidelines. Final conveyor dimensions, capacities, speeds, and safety measures should be verified against the actual pallet, load, layout, operating conditions, and applicable local regulations.
