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How Over-Shipping Air Increases POP Display Costs

How Over-Shipping Air Increases POP Display Costs

Most POP display programs don’t lose money on materials.

They lose it in:
👉 empty space

Displays are often shipped with:

  • Excess void space
  • Poor stacking efficiency
  • Low pallet utilization

You’re not just shipping displays—
👉 You’re shipping air

And it adds up fast.

The Hidden Cost: Cube Inefficiency

Freight is based on:

  • Volume (cube)
  • Not just weight

If your packaging:

  • Doesn’t maximize space
  • Leaves gaps between units

You pay for:
👉 unused volume

This increases:

  • Cost per unit shipped
  • Overall program spend

Without changing the display itself.

The Hidden Cost: Cube Inefficiency POP Display

Flat-Pack Doesn’t Always Mean Efficient

Flat-pack is often assumed to reduce cost.

But poor flat-pack design can:

  • Leave unused space between components
  • Prevent tight stacking
  • Create inconsistent pallet loads

Result:
👉 More units per shipment lost to air

Flat-pack only works if it’s:
👉 engineered for density

Flat-Pack Doesn’t Always Mean Efficient

Pre-Assembled Displays Can Be Worse

Pre-assembled displays:

  • Take up more space
  • Limit stacking options
  • Increase risk of inefficient pallet layouts

Without optimization:

  • You ship fewer units per pallet
  • Freight cost per display increases

Convenience comes at a cost—if not designed properly.

Pre-Assembled Displays Can Be Worse

Pallet Configuration Drives Everything

How displays fit on a pallet determines:

  • Units per load
  • Stability during shipping
  • Overall freight efficiency

Common issues:

  • Misaligned dimensions
  • Wasted edge space
  • Inconsistent stacking patterns

Even small inefficiencies:
👉 Multiply across shipments

Pallet Display Configuration Drives Everything

Void Space Between Components Adds Up

Inside packaging:

  • Gaps between parts
  • Loose configurations
  • Poor nesting

These create:

  • Inefficient use of space
  • More cartons needed
  • Higher freight cost per program

If components don’t fit tightly:
👉 You’re paying for nothing

Shipping More Loads Than Necessary

Inefficient pack-out leads to:

  • More pallets
  • More truckloads
  • More handling

Each adds:

  • Freight cost
  • Labor cost
  • Risk of damage

This is where:
👉 Small inefficiencies become large expenses

The Compounding Effect Across Programs

One inefficient shipment isn’t the issue.

But across:

  • Thousands of units
  • Multiple locations
  • Repeated programs

You get:
👉 Significant cost leakage

All from space that wasn’t optimized.

Custom corrugated pop floor display with bin shelfs

What Efficient Programs Do Differently

They:

  • Maximize units per pallet
  • Eliminate unnecessary void space
  • Design components to nest tightly
  • Align dimensions with pallet standards

They treat shipping as:
👉 A design variable—not an afterthought

Where Brands Get It Wrong

  • Assuming flat-pack is automatically efficient
  • Ignoring pallet configuration during design
  • Not optimizing component layout
  • Overlooking cube vs weight cost impact
  • Treating freight as fixed instead of controllable

These mistakes quietly increase total program cost.

How Brown Packaging Optimizes Freight Efficiency

At Brown Packaging, POP displays are designed with:
👉 shipping efficiency built in

We focus on:

  • Pack-out optimization to reduce void space
  • Pallet configuration that maximizes density
  • Structural design that supports tight nesting
  • Reducing freight cost per unit across programs

Because reducing air isn’t just about shipping—
👉 It’s about improving total cost efficiency.

References

Deloitte. (2022). Supply Chain Optimization Report.
Freedonia Group. (2023). Packaging Logistics Analysis.
McKinsey & Company. (2021). Freight and Efficiency Study.
ISTA. (2023). Packaging and Transport Guidelines.
Soroka, W. (2009). Fundamentals of Packaging Technology.

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