Frequently asked questions

Start with the building address, available floor area, clear ceiling height, column spacing, door locations and any obstructions. Also include product dimensions and weights, pallet type, desired storage quantity, lift-truck information and photos or drawings of the space. The more complete the information, the more accurately equipment and layout options can be evaluated.

The right system depends on what you store, how frequently it moves, available space, inventory rotation, handling equipment and future growth. Selective pallet rack offers direct pallet access, while higher-density systems trade some selectivity for capacity. Shelving, cabinets, mezzanines and conveyors solve different workflow and storage needs.

Yes. Layout planning can address storage density, aisle widths, lift-truck travel, picking flow, receiving and shipping areas, safety clearances and expansion. A useful design balances capacity with practical daily operation rather than simply fitting the maximum amount of equipment into the building.

Aisle width is based primarily on the lift truck, load dimensions, rack configuration and maneuvering clearance. Fire-code access, pedestrian paths, column locations and product overhang also matter. Confirm the required operating aisle with the lift-truck manufacturer before finalizing a layout.

Project documents may include equipment layouts, elevations, anchoring details and engineering information as required by the scope and local authority. Permit requirements vary by jurisdiction, equipment type, height, load and building conditions, so the required package should be established early.

Beam capacity depends on the beam model, length, connector and load distribution. Frame capacity depends on upright design, frame depth, bracing, unsupported column length and the spacing of beam levels. Never rely on appearance alone; use manufacturer or engineer-approved capacity information for the complete configuration.

Components that appear similar are not necessarily compatible. Connector geometry, steel properties, tolerances and capacity ratings can differ. Mixing manufacturers should only be considered after compatibility and structural performance have been properly verified.

Selective rack provides direct access to every pallet. Drive-in rack stores multiple pallets deep with fewer aisles. Push-back rack stores pallets on nested carts and is typically loaded and unloaded from one face. Pallet-flow rack uses sloped roller lanes for first-in, first-out movement. Product rotation, pallet quality, selectivity and throughput help determine the best choice.

Industrial pallet rack is generally anchored to a suitable concrete slab according to the approved design, manufacturer requirements and applicable code. Anchor type, embedment and location are project-specific. Do not install anchors without checking slab conditions and the required engineering details.

Common accessories include wire decking, pallet supports, row spacers, wall ties, column protectors, end-of-aisle guards, safety netting, backstops and load plaques. The correct accessories depend on the pallet, load, rack layout and risk assessment.

Shelving is normally designed for hand-loaded cartons, parts, records and supplies. Pallet rack is designed for palletized loads handled by lift equipment. Each has different capacities, dimensions and safety considerations, so pallet loads should not be placed on ordinary shelving.

Open shelving provides visibility and access from multiple sides. Closed shelving helps separate and protect contents. Dividers, drawers and bins improve organization for smaller parts. Product size, security, dust control, picking method and inventory count determine the best configuration.

Many systems can be configured with different heights, widths, depths, shelf spacing, dividers, drawers, doors and work surfaces. Modular systems can also make future reconfiguration easier as inventory and processes change.

A mezzanine can add usable floor area when a facility has sufficient clear height and the operation would benefit from separating storage, offices or work processes vertically. Building structure, slab, egress, stairs, guards, fire protection, accessibility and permitting must all be evaluated.

Correct installation affects alignment, anchoring, capacity and safe operation. Experienced crews follow approved drawings, identify field conflicts and coordinate the work around the facility. Complex systems may also require inspections, electrical work or specialized commissioning.

Often, yes. Equipment should be identified, inspected and documented before relocation. Damaged components should be removed from service, and the new configuration must be checked for compatibility, capacity, anchoring and code requirements at the destination.

Requirements vary by city and project. Rack height, storage height, seismic design, commodity type, sprinkler conditions, mezzanines and building modifications can trigger permits or engineering. The local authority having jurisdiction makes the final determination.

Timing depends on design complexity, approvals, equipment availability, freight, site readiness and installation scope. Standard equipment may move quickly, while engineered systems and permitted projects take longer. Identifying decisions and site constraints early is the best way to protect the schedule.

Employees should report damage as soon as it is observed, with regular documented inspections performed at intervals appropriate to traffic, impacts and risk. High-activity areas may require more frequent review. A qualified person should evaluate questionable damage and determine the proper response.

Protect the area and unload affected bays when damage may compromise capacity. Do not straighten, weld or field-repair structural components without an approved repair procedure. Have the damage evaluated and use an engineered repair or compatible replacement when required.

Load signage commonly identifies maximum allowable unit loads, beam-level loads and rack configuration limitations. Capacity information must match the installed system. If beam elevations or components change, the capacity should be reviewed and signage updated.

Use appropriate aisle widths, operator training, good lighting, clear floors and properly sized pallets. Column guards, end-of-aisle barriers and rack protection can reduce exposure, but they do not replace inspection or careful lift-truck operation.

Used equipment can be economical when the components are correctly identified, compatible, suitable for the application and in serviceable condition. Availability changes frequently, and cosmetic condition may vary. Structural components should be inspected before reuse.

The Used Equipment page is intended to display available Salt Lake City inventory synchronized from our business system. Quantities can change as material is sold or allocated, so final availability should be confirmed when requesting a quote.

Yes. Add each desired item to the quote cart, adjust quantities and submit one request. Our team will confirm availability, compatibility, condition and pricing together.

Price depends on equipment type, dimensions, capacity, finish, quantity, accessories, engineering, freight and installation. Used-equipment condition and availability also matter. A complete project quote helps separate equipment, delivery and installation requirements.

Your request is securely recorded with the originating page and submission time. A material handling specialist can then review the project details, confirm any missing information and prepare the appropriate next step.