Returns are one of the least visible costs in e-commerce, and one of the largest. A damaged item does not just cost the sale. It costs the outbound freight, the return freight, the inspection labor, the restocking decision, and in many cases a customer who does not order again. When operations managers look for ways to reduce returns, they usually look at carrier performance, box sizing, or product quality. Packaging material selection sits further down the list, and it probably should not.
The connection between material and returns is mechanical. Damage in transit happens when an item moves inside a box, when it contacts another item, or when it absorbs an impact it cannot withstand. Each of those failure modes is a function of how the item is secured, not of how strong the box is. A sturdy box with loose contents will produce more damage than a modest box with contents held firmly in place. That distinction is why material choice matters more than it first appears.
Air-based packaging materials work on a simple principle. They trap air and let it compress. That works well until the air escapes. A punctured air pillow does not cushion anything, and a box in a sorting facility experiences enough contact to puncture air pillows regularly. Foam works differently. It holds its shape and absorbs energy through deformation, which is effective but bulky, and it does not adapt to irregular shapes without custom tooling. Both categories also share a limitation that matters for returns specifically: neither can be recycled in most facilities, so every damaged shipment also generates waste that has to be handled.
There is a second-order effect that operations teams often miss. When packaging materials fail unpredictably, staff compensate by over-packing. They add extra layers, extra fill, extra tape, because they have learned they cannot trust the material to do its job consistently. Over-packing raises material consumption per box, increases dimensional weight, and slows the packing line. The cost of an unreliable material is not just the damaged shipments. It is also the extra material and labor spent guarding against the damage.
Paper-based cushioning changes that equation in a way that is easy to underestimate. A material that conforms to the item and holds it in place eliminates the movement that causes most transit damage. It also removes the failure mode where the cushioning itself stops working, because paper does not deflate. For operations that ship fragile items such as ceramics, glassware, cosmetics, and electronics, that reliability shows up in the damage rate, and the damage rate shows up in the returns number.
There is a third effect that is harder to quantify but shows up in customer behavior. Customers form an impression of a brand at the moment they open a box, before they have used the product. Packaging that looks careless primes them to look for problems. Packaging that looks considered primes them to give the product a fair assessment. A damaged item that arrives in neat packaging sometimes still gets a second chance. A damaged item that arrives in a mess usually does not. This is not a soft benefit. It shows up in review scores, in repeat purchase rates, and in the number of customers who bother to contact support rather than simply requesting a refund.
For operations making this switch, the practical question is not which material is theoretically better. It is which material can be used at the speed the packing line requires. That is where many paper-based materials have historically fallen short. A material that has to be prepared by hand at every station slows the line down, and staff revert to whatever is faster. The operations that make paper cushioning work at volume are the ones that pair the material with equipment that removes the manual step, so the paper behaves like any other consumable at the bench.
Aircosan's kraft honeycomb paper roll is one example of this approach. The material is made from virgin kraft paper, pressed into a 3D honeycomb structure, and it is zero-plastic, 100% recyclable, and biodegradable, with FSC certification confirming responsible sourcing. It comes in 70g and 80g paper weights, widths of 300mm, 380mm, and 500mm, and roll lengths from 20m to 250m, with an expansion ratio of 1:7 and an average tensile strength of 13.86N based on close to 100 tests. Each roll carries a batch number engraved inside for traceability. Used with the electric honeycomb paper dispenser, it expands and cuts automatically at up to 25m/min, which is what makes it viable on a line that ships daily rather than occasionally. The dispenser handles both honeycomb paper and liner paper, runs on 110V or 220V, and comes in an H30 standard model and an H30 cutter model, with foot control available for workstations where operators need both hands free.
None of this means returns disappear. Products fail for reasons packaging cannot fix, and customers return items for reasons unrelated to damage. But the portion of returns caused by transit damage is addressable, and it is addressable at the material level. For operations that have already optimized carrier selection and box sizing, packaging material is where the remaining improvement sits. The numbers are usually smaller than the ones that come from product quality, but they are also easier to move, and they compound across every shipment rather than every order.
The way to test this is straightforward. Take a sample of shipments over a defined period, record the damage-related return rate, then switch the packaging material for one product category and measure again. Most operations that run this test find the difference is larger than they expected. The reason is that packaging material affects three separate numbers at once: the damage rate, the material consumption per box, and the customer's willingness to give the product a fair assessment. Improvements in all three compound, which is why the returns rate moves more than a simple damage reduction would suggest.