Conveyor integration changes how a warehouse racking system needs to be designed. Bay dimensions, beam heights and aisle configurations all have to work around where the conveyor line runs, not the other way around. For operations managers planning a semi-automated fit-out, getting this sequence right early prevents costly rework once the conveyor is installed.
Why conveyor integration changes racking design requirements
Racking designed for manual picking assumes forklifts and reach trucks move pallets along aisles and load them into bays by hand or with a truck attachment. A conveyor line changes that assumption. Pallets now arrive or depart through fixed infeed and outfeed points, and racking has to align with those points rather than sit independently of them. Once a conveyor is part of the workflow, racking design becomes a coordination exercise between two systems rather than a single design problem, and that decision needs to happen at the planning stage.
Coordinating racking bay dimensions with conveyor line placement
Bay width and bay depth need to account for where a conveyor enters or exits a racking run. If the conveyor line is finalised after racking has already been ordered, bays often end up misaligned with infeed and outfeed points, forcing gaps, extensions or costly modifications on site. The sequencing matters as much as the specifications themselves. Racking dimensions should be set once the conveyor layout is confirmed, not before it, so the two systems are designed against each other rather than adjusted to fit after the fact.
Beam height and clearance planning
A conveyor line needs clear space either beneath or beside the racking beam it runs past, and that clearance has to be planned into the racking design rather than retrofitted around a live conveyor. Beam height decisions made without reference to the conveyor route tend to surface as clash points during installation, when they are far more expensive to fix. The exact clearance a given conveyor needs depends on the equipment specification, so this figure is confirmed with the conveyor supplier and the racking design team together, not assumed from a generic guideline. Building this confirmation into the design phase, rather than the installation phase, keeps beam height changes on the drawing board where they belong.
Aisle configuration for conveyor access and traffic flow
Aisle width has to serve two functions when a conveyor is present: forklift or reach truck movement, and ongoing access for conveyor maintenance. A narrow aisle layout that works well for manual picking can leave too little clearance once a conveyor line and its maintenance access are added. Double deep racking carries the same consideration, since deeper bays change how traffic flows around a conveyor crossing point. Aisle configuration should be tested against the conveyor layout before it is finalised, particularly at points where the two systems cross paths.
Where racking design typically diverges once a conveyor is introduced
The table below sets out where these decisions change once a conveyor is part of the layout. Site-specific figures for aisle width, beam height clearance and bay depth depend on the conveyor equipment and the warehouse layout.
| Design parameter | Standard manual-pick racking | Conveyor-integrated racking | Why it matters |
| Aisle width | Set for forklift or reach truck turning circles | Set for truck access plus ongoing conveyor maintenance access | Insufficient width restricts maintenance and creates safety risks |
| Beam height clearance | Set for pallet height and truck lift height | Set for pallet height, truck lift height and conveyor clearance at crossing points | A clash between beam and conveyor is expensive to correct after installation |
| Bay depth and alignment | Set independently of any fixed infeed or outfeed point | Aligned to the infeed and outfeed points of the conveyor line | Misalignment forces gaps, extensions or rework once the conveyor is installed |
Planning racking design alongside AGV and AMR systems
Conveyor integration and automated vehicle planning are related decisions, but they are not the same decision. An automated guided vehicle (AGV) follows a fixed or guided path, while an autonomous mobile robot (AMR) navigates more flexibly around a warehouse floor, and both interact differently with racking aisles than a conveyor line does. Warehouses moving toward semi-automation often plan for AGVs or AMRs and conveyors at the same time, which means racking design has to accommodate both sets of requirements from the outset rather than one after the other. For a closer look at how AGVs and AMRs affect warehouse layout, see the Storepro guide to automated guided vehicles and autonomous mobile robots (URL to confirm before publication).
Common integration mistakes in NZ warehouse fit-outs
The most common mistake is finalising racking layout before conveyor placement is confirmed, which locks in bay dimensions that do not match where the conveyor will run. A related mistake is underestimating the aisle width needed once truck access and conveyor maintenance access are both accounted for. A third is treating beam height as a fixed specification rather than a figure that depends on the conveyor equipment chosen. Each of these mistakes is avoidable when racking and conveyor planning happen in the same design conversation rather than in sequence.
How the Storepro design team leads racking-conveyor coordination
The design team at Storepro works through racking and conveyor coordination as a single design problem, not two separate ones. Bay dimensions, beam heights and aisle configurations are planned against the confirmed conveyor layout from the start, rather than adjusted once installation is underway. With over 20 years of experience and end-to-end design, supply and installation capability, the team is positioned to lead this coordination directly with whichever automation partner is supplying the AGV or AMR system. Every racking design is checked against AS/NZS 4084:2023 before installation begins.
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