In many industrial facilities, infrastructure investments tend to follow a familiar pattern: wait until something breaks, then fix it. A rack fails. A part gets damaged. A workflow bottleneck becomes too disruptive to ignore. Only then does the conversation around upgrading storage systems begin. Aging or undersized storage infrastructure steadily erodes efficiency, increases risk and drives up operational costs in ways that are easy to overlook.

Making the business case for storage infrastructure upgrades requires shifting this mindset. Instead of treating storage as a static asset, organizations need to recognize it as a dynamic part of the production environment; one that directly impacts throughput, safety, labor efficiency and long-term scalability.

The operational costs of outdated storage systems

Outdated storage systems typically degrade gradually, creating a series of small inefficiencies that compound over time.

Consider the impact of wasted space. Older racking layouts often fail to take advantage of vertical capacity or are poorly configured for current inventory needs. The result is not just clutter, but measurable inefficiency:

• more floor space consumed
• longer travel times for material handling
• increased reliance on workarounds.

Labor inefficiency is a common consequence of a poor storage layout. When materials are difficult to access or poorly organized, employees spend more time searching or waiting for access. These incremental delays may seem minor in isolation, but across shifts and teams, they translate into significant lost productivity.

There are also less visible costs. Aging storage systems often require frequent maintenance or ad hoc repairs, diverting both time and resources. Poorly supported or improperly stored materials increase the likelihood of damage, leading to scrap, rework or production delays. In some cases, disorganized layouts can even drive up energy usage by expanding the footprint that needs to be lit or climate-controlled.

Perhaps most critically, outdated storage infrastructure introduces safety risks. Systems that lack verified load ratings or have been modified over time may no longer meet current standards. The potential consequences include injuries, downtime, compliance issues, and higher insurance costs—all of which can far outweigh the perceived savings of delaying an upgrade.

How Chicago Dryer replaced unrated storage racks

At Chicago Dryer Company, a manufacturer of commercial laundry finishing systems, its storage upgrades offer a clear example of how a system that works 'well enough' for years can quietly become a liability.

The company relies on a steady supply of heavy raw materials, including steel tubing up to ten feet long. For years, these materials were stored using a custom, in-house-built racking solution. The system was functional but lacked one critical element: a verified load rating.

As operations evolved, the absence of engineering certification raised safety concerns, as the system itself was not optimized for the size, weight, or handling requirements of the materials it supported. Recognizing these risks, Chicago Dryer Company made the decision to invest in a purpose-built storage system designed specifically for heavy steel materials. The upgraded solution provided documented load ratings, improved accessibility, and better visibility of stored inventory.

The previous rack had been welded together in-house from 2-inch square steel tubing and carried no load rating. Dexco replaced it with a double-deep widespan rack built from structural steel and fitted with waterfall decking. The decking gives full-surface support to the round and square tubing, which runs up to 10 feet long, improving it so pieces no longer bridge gaps or shift during loading. The design was PE-stamped by a third-party engineer and adjusted to fit the site, including clearances around an electrical panel.

Chicago Dryer reported that the new rack was easier to load and unload, and stored material was much easier to see. Material handling became more efficient, reducing strain on both personnel and equipment, and improving workflow on the shop floor. Just as importantly, the facility was able to meet internal safety standards and external compliance expectations, including those set by its insurance provider.

Storage racks fall under OSHA’s general requirement that stored material be stable and secure and not create a hazard (29 CFR 1910.176(b)), as well as under ANSI MH16.1, the industry design standard for steel storage racks. Insurers and their risk inspectors commonly look for documented load capacities, posted load signs, engineering certification, and evidence of regular inspection to prove compliance. For small manufacturers, an insurer’s main concern is simply having a rack that is load-rated; homemade or modified racks with no rating are a frequent red flag. That said, regardless of size, having storage that follows the regulations and is load-rated will help ensure the safety and compliance of the operation.

Matching storage systems to manufacturing needs

Storage infrastructure is often viewed as a necessary cost center. In reality, proper storage can become a powerful lever for improving operational performance.

Modern, engineered storage systems are designed with specific use cases in mind. They account for material type, handling methods, load requirements, and facility constraints. This level of alignment enables more efficient use of space, faster material flow, and safer working conditions.

For example, long bar and tube stock may call for cantilever or widespan racks with full decking. Dies and molds need deck capacity sized for concentrated point loads, while plate and coil each need cradles or supports matched to their shape. The handling method matters just as much. Forklift-served racks need aisle width and clear entry, while crane-served storage needs open access from above. Matching the rack to both the load and the equipment reduces handling steps, frees floor space, and removes improvised workarounds that cause injuries.

Flexibility is another key advantage. As product lines evolve or volumes fluctuate, modular systems can be adjusted rather than replaced. At Chicago Dryer, for example, shelf levels can be raised or lowered by repositioning bolted connections. That adaptability lowers the long-term cost of change and lets facilities respond more quickly to shifting business needs.

Durability also plays a role in the overall return on investment. Long-term, it comes from structural steel members rather than light-gauge roll-formed sections, capacities rated with a safety margin, bolted connections that can be inspected and reconfigured, impact protection at forklift entry points, and finishes suited to the environment. PE certification documents that the design meets its stated capacity.

Storage systems that are engineered for long-term use reduce the need for ongoing maintenance, while minimizing the disruptions caused by repairs or failures. Over time, this reliability translates into a lower total cost of ownership.

Building a Data-Driven Case

Despite these benefits, many organizations still struggle to justify storage infrastructure upgrades, when the costs of inaction are not clearly quantified. Building a compelling business case requires translating operational challenges into measurable financial impact. Here are some key areas to examine and build your business case for a storage upgrade around:

• Labor and Productivity – Track how much time is spent on non-value-added activities, such as searching for materials, repositioning inventory or navigating inefficient layouts. Tracking doesn't have to be exhaustive. Time a sample of retrievals over a week or two. Count how many times material is moved before it reaches production. Ask operators where they lose time. Forklift telematics, if you have them, can also show travel and idle time. Even small-time savings per task can add up significantly across a workforce.
• Space Utilization – Evaluate how effectively current storage systems use available space. Underutilized vertical capacity or inefficient layouts may be driving unnecessary expansion or limiting throughput within the existing footprint. Common signs include material stored far from where it's used, items blocked behind other inventory, aisles too narrow for the equipment, unused vertical space, frequently used stock stored in hard-to-reach spots and staging areas that become permanent storage.
• Damage and Waste – Review records of damaged materials, scrap or rework associated with storage and handling. These direct costs are often easier to quantify and can provide a clear baseline for improvement.
• Safety and Compliance – Review incident reports, near misses and maintenance logs related to racks, material handling and storage areas, such as rack repairs, impact damage and forklift incidents in storage aisles. Consider also the potential financial impact of non-compliance, including insurance premiums, fines or downtime. Unrated or damaged racks can result in OSHA citations, findings from insurer risk inspections, higher premiums or required corrective work on a deadline, and they can cause downtime if a rack has to be offloaded.

Additional data sources, including maintenance expenses, energy usage and throughput metrics, can also be used to further strengthen the analysis. Maintenance costs include repairs to damaged racks and to forklifts and attachments. Energy costs rise when inefficient storage spreads into more square footage that has to be lit, heated or cooled, and when longer forklift travel uses more fuel or battery charge. Throughput suffers when slow retrieval delays the start of production jobs. The goal is to build a credible, evidence-based narrative that connects infrastructure performance directly to business outcomes.

Investing before storage upgrades are urgent

One of the most challenging aspects of infrastructure upgrades is timing. When systems are still functioning, it can be difficult to justify investment. But waiting until failure occurs often means making decisions under pressure, which is also typically when costs are higher, and options are more limited.

A more effective approach is to treat storage as a planned investment, evaluated with the same data used by any other capital project. By identifying early signs of inefficiency or risk, and addressing them strategically, organizations can avoid disruptions, improve day-to-day operations, and create a foundation for future growth. Facilities that make the shift in thinking—from reactive fixes to planned improvements—are better positioned to control costs and sustain performance over time.

For Chicago Dryer, replacing an unrated system with an engineered, load-rated one resolved a safety and insurance concern, and operators found material easier to load, retrieve and see. For facilities building their own case, pairing that kind of operational feedback with the data outlined above makes an upgrade easier to justify, and harder to ignore.