Strategic Location of Stores and Stockyards for Efficiency

Ever wondered why some warehouses seem to have everything perfectly organized while others feel like a maze where nothing can be found? The secret often lies not in what’s stored, but in where it’s stored. Strategic location planning for stores and stockyards is the backbone of efficient materials management, directly impacting everything from operational costs to delivery times. When done right, it transforms chaotic storage into a well-oiled machine that supports seamless production and distribution.

Key factors for locating your main store 🔗

Choosing the right location for your main store isn’t as simple as picking the cheapest available space. It’s a strategic decision that shapes the entire supply chain network and can make or break your entire supply chain efficiency. Think of it like choosing where to build your home – you wouldn’t just consider the price, but also proximity to work, schools, and essential services.

Centralized production considerations 🔗

When your production operates from a single, centralized location, the store location decision becomes more straightforward but no less critical. The key question is: Are materials being delivered from a central distribution point? If yes, your store should ideally be positioned to minimize the distance between the delivery point and production areas.

Consider the handling methods your operation uses. Are you moving materials manually, using forklifts, or employing automated systems? A store located on the ground floor might be perfect for forklift operations but terrible if you’re relying on overhead crane systems. The handling method directly influences how close or far your store can be from production lines.

Bulk storage risks also play a crucial role. Storing large quantities of hazardous materials near production areas might seem efficient, but it could pose safety risks. Sometimes, a slightly less convenient location that ensures safety compliance is the smarter long-term choice.

Scattered production challenges 🔗

For organizations with multiple production facilities spread across different locations, store placement becomes a complex puzzle. Geographical dispersion is your starting point – you need to map out where each facility is located and understand the material flow between them.

Factory size variations matter significantly. A small assembly unit doesn’t need the same storage support as a major manufacturing plant. You might need multiple smaller stores rather than one large central facility, or vice versa.

Product similarity across different facilities can be a game-changer. If three of your facilities produce similar items requiring similar materials, a strategically placed central store might serve all three efficiently. However, if each facility produces completely different products, individual stores might be more practical.

Don’t forget about transportation costs. These can quickly spiral out of control if your store is poorly positioned. A location that seems cost-effective from a real estate perspective might prove expensive when you factor in daily transportation expenses.

Finally, consider material availability throughout the year. Some materials might be available only during specific seasons or might have price fluctuations. Your store location should account for these patterns to ensure consistent supply.

The centre of gravity method for optimal placement 🔗

Mathematics isn’t just for textbooks – it can solve real-world storage location problems through the centre of gravity method. This technique treats your storage network like a physics problem, finding the optimal balance point that minimizes overall transportation effort.

Understanding the concept 🔗

Imagine a wooden beam with different weights attached at various points. The centre of gravity is where you could balance this beam perfectly on a single support. Similarly, in materials management, the centre of gravity method finds the location where total transportation costs and efforts are minimized across all delivery and pickup points.

The method analyzes three critical factors:

• Frequency of vehicle movement: How often do vehicles travel to and from each location?
• Tonnage moved: What’s the weight or volume of materials being transported?
• Distance calculations: How far are the various facilities from potential store locations?

Practical application 🔗

Let’s say you have three factories: Factory A receives 100 tons monthly, Factory B receives 200 tons, and Factory C receives 150 tons. Using coordinate mapping and weighted calculations, you can determine the optimal store location that minimizes the total “ton-miles” of transportation.

The beauty of this method is its objectivity. Instead of making location decisions based on intuition or convenience, you’re using data-driven analysis to find the mathematically optimal solution.

Practical challenges in storehouse location 🔗

Theory meets reality, and unfortunately, reality often wins. Even with perfect mathematical calculations, several practical constraints can derail your ideal location plans.

Existing capital investment dilemma 🔗

Your organization might already have significant money tied up in current storage facilities. Heavy existing capital investment creates a financial anchor that’s hard to abandon. Imagine you’ve spent millions on a state-of-the-art warehouse that’s not optimally located – do you write off that investment for a better location? It’s a tough pill to swallow.

This situation often leads to the “make do” approach, where organizations try to optimize around existing infrastructure rather than starting fresh. While not ideal, smart modifications and process improvements can sometimes bridge the efficiency gap without requiring massive new investments.

Supply source location issues 🔗

Sometimes your suppliers are located in areas that make ideal store placement impossible. Unsuitable supply source locations can force you to choose between being close to suppliers (reducing inbound transportation costs) or close to production facilities (reducing internal handling costs).

Consider a scenario where your main supplier is located in a remote industrial area with poor transportation links to your production facilities. You might be forced to locate your store near the supplier and accept higher internal transportation costs, or locate it near production and deal with expensive inbound logistics.

Communication and operational challenges 🔗

Long communication lines can create operational nightmares. If your store is far from your main office or production management, coordinating inventory levels, emergency supplies, and routine operations becomes complicated. In today’s connected world, this might seem less important, but physical distance still affects response times and operational flexibility.

Varying seasonal demands add another layer of complexity. Your storage needs might fluctuate dramatically based on seasons, product cycles, or market demands. A location that’s perfect during peak season might be wastefully large during slow periods.

Inconsistent material availability throughout the year can force you to maintain larger safety stocks or multiple storage locations. This variability might require you to choose a location with more space and flexibility, even if it’s not optimal from a transportation perspective.

Planning and surfacing effective open stockyards 🔗

Not everything needs to be stored in expensive enclosed warehouses. For weather-resistant materials, open stockyards offer a cost-effective storage solution that can significantly reduce your facilities costs.

Surface material choices 🔗

The foundation of any good stockyard is its surface. You have several options, each with distinct advantages:

• Consolidated cinders: An economical option that provides decent load-bearing capacity and drainage. However, it can create dust issues and might not be suitable for areas with heavy rainfall.
• Tarmac surfaces: Offer smooth vehicle movement and are relatively cost-effective. They’re ideal for areas with moderate to heavy traffic but can soften in extreme heat.
• Reinforced concrete: The premium option that handles heavy loads, provides excellent durability, and maintains surface integrity under all weather conditions. While initially expensive, it often proves cost-effective over the long term.

Essential infrastructure requirements 🔗

Secure fencing isn’t just about preventing theft – it’s about controlling access, ensuring safety, and maintaining inventory accuracy. Consider the height, material, and access points based on what you’re storing and local security requirements.

Proper drainage might seem obvious, but poor drainage has ruined countless stored materials. Even weather-resistant items can suffer from prolonged water exposure or ground moisture. Plan for both surface water runoff and groundwater management.

Access roads need to accommodate your largest delivery vehicles while allowing for efficient traffic flow. Consider turning radii for trucks, loading zones, and how traffic will move during peak delivery periods.

Mechanical handling and safety considerations 🔗

Plan for the mechanical handling equipment you’ll use. Crane access might require overhead clearance, while forklift operations need smooth, level surfaces. Consider both current equipment and potential future upgrades.

Fire safety barriers become critical when storing flammable goods. Even in open areas, fire can spread rapidly between stored materials. Proper spacing, firebreaks, and access for emergency vehicles can prevent minor incidents from becoming major disasters.

Remember that stockyard planning isn’t just about maximizing storage capacity – it’s about creating an efficient, safe, and sustainable storage environment that supports your overall materials management objectives.

What do you think? How might emerging technologies like GPS tracking and automated inventory systems change the way we approach store location decisions? Could the rise of same-day delivery expectations force organizations to reconsider their current storage strategies and locations?

References

1. https://www.scmr.com/article/ten-best-warehouse-network-locations
2. https://www.mdpi.com/2227-7390/12/5/776
3. https://www.firefree.com/blog/protecting-your-warehouse-from-fire-what-you-need-to-know
4. https://lglna.com/the-importance-of-location-in-warehousing-strategy/
5. https://www.anylogistix.com/resources/blog/the-center-of-gravity-method-how-to-build-your-supply-chain-from-the-ground-up/
6. https://www.mapize.com/center-of-gravity-method-supply-chain-optimization/
7. https://biz.libretexts.org/Courses/Northeast_Wisconsin_Technical_College/Introduction_to_Operations_Management_(NWTC)/07%3A_Facility_Location/7.03%3A_Centre_of_Gravity_Method
8. https://6sigma.com/distribution-center-location-optimizing-your-logistics-network/
9. https://www.tensarcorp.com/resources/articles/what-are-the-different-types-of-road-construction-methods
10. https://swiftdrain.com/concrete-trench-drain-systems/
11. https://tarmacdriveways.ie/ultimate-guide-driveway-drainage-solutions/
12. https://www.inventoryops.com/articles/warehouse-fire-safety.html