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  April 28th, 2026 | Written by

Surging Industrial Freight Volumes Expose the Need for Custom Storage Racks

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Warehouse operators face a storage problem as facilities handle heavier throughput without the additional space. Standard racking systems can no longer accommodate the loads and dimensions industrial operations demand. This article draws on the expertise from Dexco Racks to show how custom-engineered racking systems solve this by aligning structural capacity with the specific materials and equipment used in each operation.

Read also: Logistics and Freight Transportation Trends

The Growing Pressure on Today’s Warehouses

The warehouse sector experiences demand levels not seen since the pandemic boom. Large warehouse leases increased by 31% year over year in 2025, marking the strongest leasing level since 2022.

This movement reflects broader momentum in logistics. Fleet buying activity remains high as freight volumes surge nationwide. Warehouse demand increases fill facilities faster than operators can expand their footprints.

This results in denser storage configurations and higher utilization rates per square foot. Transportation and warehousing remain among the deadliest industries for workers. When facilities push capacity limits due to inadequate infrastructure, errors and dangers become inevitable.

Common Storage Challenges for High-Volume Operations

Standard racking systems create specific pain points for operations handling industrial materials. Several issues appear consistently.

Accommodating Heavy, Oversized or Unconventional Inventory

Materials that don’t conform to pallet dimensions need different support structures. Long steel extrusions and heavy stamping dies impose concentrated loads that standard systems can’t handle.

For example, a 12-foot steel beam can’t rest safely on shelving built for uniform pallets. Coils weighing thousands of pounds need dedicated cradles, and such cradles distribute weight across structural members instead of point-loading narrow shelves.

Forcing unconventional inventory onto inadequate racking causes two problems. One is that the load may exceed the system’s rated capacity at specific points. This happens even if the total weight falls within spec. The second is that improper support also allows materials to shift unevenly, increasing the risk of failure during loading or retrieval.

Ensuring Long-Term Durability and Preventing Deflection

Deflection is the bowing or sagging that happens when loaded shelving flexes under heavy weight. Some deflection is normal and engineers account for it in calculations. However, excessive deflection indicates that a system is operating beyond its structural limits.

Standard racking often uses thinner gauge steel to reduce costs. In this case, the deflection becomes visible and problematic much sooner under heavy industrial loads, leading the operational costs to extend beyond the equipment itself. When this happens, facilities must halt operations in affected areas. They relocate inventory and remove compromised systems before installing replacements. Systems built to handle maximum anticipated loads eliminate these recurring replacement cycles.

Managing the Custom Quoting Process

Many operators hesitate to pursue custom solutions because they lack clarity about what information manufacturers need. The quoting process for custom-engineered systems requires more detail than ordering catalog items, but the required specifications remain straightforward for anyone familiar with their operation.

Manufacturers need several types of information. Material details include what items the system will store and their respective weights. Equipment specifications cover forklift types and lift heights. Spatial parameters include ceiling heights and floor load ratings. Operational objectives address throughput requirements.

Types of Custom-Engineered Racking Systems

Industrial racking systems fall into several categories, depending on how they reinforce and organize materials. Knowing these helps operators identify which configuration best matches their inventory characteristics.

Cantilever Racking for Long or Bulky Items

Cantilever systems eliminate front columns and use vertical columns with horizontal arms extending from one or both sides. This design allows unobstructed access to the full length of stored materials. The configuration accommodates lumber, pipe, bar stock and steel extrusions, with each arm functioning as an independent support point. Operators can adjust arm spacing vertically. The open front design enables forklifts to load and retrieve items quickly.

Widespan Racking for Heavy, High-Capacity Loads

Widespan systems use shelving supported by structural beams that span between vertical columns. Unlike light-duty shelving, widespan racking uses heavier-gauge steel and includes reinforced connections capable of supporting loads in tons.

Widespan configurations can include various accessories. Fork entry bars allow pallet jacks to access individual shelves directly. Decking provides solid surfaces for items that don’t sit on pallets. The modular design enables facilities to configure each bay according to storage requirements.

Specialty Racks for Dies, Coils and Tooling

Some applications require fully specialized designs, demonstrating why standard systems often fail to meet operational needs.

For example, stamping die storage must support extremely concentrated weights. It also needs to enable access from multiple sides for overhead crane handling. Meanwhile, coil storage needs cradles that prevent round materials from rolling. The cradles distribute weight across the entire coil diameter.

How Custom I-Beam Racking Provides a Long-Term Solution

Operations handling industrial materials need infrastructure built around their specific conditions. Custom engineering solves these challenges by building each system to exact specifications.

The Advantage of a Custom Engineering Process

Dexco Racks understands that no two facilities share identical requirements. Every system receives design attention based on four main factors.

Engineers analyze the materials each client stores, including exact dimensions and weights. They evaluate handling equipment to ensure the system accommodates existing forklifts or specialized material handlers. They assess spatial limitations, such as ceiling heights and column locations, and consider operational objectives, including throughput targets.

Their engineers guide clients through the information-gathering process and translate operational needs into structural requirements. The detailed process addresses the uncertainty many operators face when quoting.

Why Structural I-Beam Construction Is the Gold Standard

Dexco Racks uses American-sourced wide-flange I-beams that are fully fabricated in-house. The process includes cutting, punching, welding and painting. Wide-flange I-beams distribute loads more effectively than lighter structural profiles, allowing systems to support heavier weights with less deflection.

This construction method costs more than standard racking because the materials are of a higher-grade steel. The fabrication process also requires more labor-intensive operations. Structural I-beam systems can support loads exceeding 80,000 pounds per shelf in wide-span configurations and handle 20,000 pounds per arm in cantilever designs.

The systems maintain their structural integrity under repeated loading cycles over decades.

A Proven Partner in Warehouse Optimization

JACQUET Mid Atlantic faced a common challenge. The company had accumulated more than 200,000 pounds of unmanaged bar stock, which consumed floor space and created retrieval inefficiencies.

After implementing Dexco Racks’ solutions, JACQUET optimized its inventory management and utilized previously inaccessible vertical space. This case demonstrates how custom-engineered I-beam racking systems solve real operational problems. JACQUET gained organized access to materials that were difficult to locate. Aside from reducing search time, it eliminated safety risks associated with moving heavy bar stock from unstable floor piles.

Frequently Asked Questions About Custom Storage Racks

The following questions arise consistently when facilities evaluate whether custom racking fits their needs.

What information do you need to design and price custom racking?

Manufacturers require several details. Material specifications include what items the system will store and their weights. Equipment details cover the types of forklifts in use. Spatial parameters include ceiling heights and floor load ratings. Operational requirements address throughput volumes. Facilities do not need to provide engineering drawings. A conversation with the manufacturer’s team can gather these details.

What are typical lead times for custom-engineered racking systems?

Lead times vary, especially as every project receives custom engineering. Projects requiring unique configurations or specialized materials take longer than straightforward applications. Manufacturers aim to provide timeline estimates quickly, so facilities can then plan accordingly. The extended timeline represents the trade-off for receiving a system that precisely matches the application.

How can a business calculate the ROI of a custom racking system?

Return on investment goes beyond the initial equipment cost. Reduced product damage happens when materials receive proper support. Increased storage density enables facilities to store more inventory in the same footprint. These benefits potentially avoid additional warehouse leases. Improved workflow efficiency also reduces the time workers spend accessing materials and the enhanced safety reduces workers’ compensation costs.

Custom Engineering Delivers Long-Term Value in a High-Demand Market

Surging freight volumes and warehouse utilization rates expose the limitations of standard storage infrastructure. Systems built from custom storage, like structural I-beams, provide the load capacity, durability and configuration flexibility that high-volume operations require. These solutions involve a higher up-front investment, but they eliminate the recurring costs of replacing inadequate systems, delivering safer and more efficient operations for many years.