Can shock absorbers eliminate Dead-on-arrival deliveries?

Dead-on-arrival deliveries typically result from inadequate protection against shock, vibration, and impact forces during transport. Products fail when packaging cannot absorb the energy from drops, bumps, and handling throughout the supply chain.

The most common culprits include sudden impacts during loading and unloading, vibrations from vehicle engines and road conditions, and compression forces when packages are stacked. High-value electronics, medical devices, and precision instruments are particularly vulnerable because even minor jolts can disrupt delicate internal components.

Temperature fluctuations compound these problems by making materials more brittle or causing expansion that creates additional stress points. Poor packaging design often fails to account for the cumulative effect of multiple smaller impacts, which can be just as damaging as one major drop.

Shock absorbers in packaging work by converting kinetic energy from impacts into other forms of energy, typically heat, through controlled deformation of materials. They create a buffer zone that extends the time over which deceleration occurs, reducing the peak forces transmitted to your product.

The most effective systems use engineered materials like closed-cell foam, air cushions, or specialized polymers that compress under impact and then recover their shape. These materials are designed with specific crush strengths that match the weight and fragility of the protected item.

Advanced shock absorption systems often combine multiple materials with different properties. For example, a packaging solution might use firm outer foam to handle major impacts while softer inner materials provide fine vibration control. The key is creating a graduated response that handles everything from minor jostling to significant drops.

Shock absorbers handle sudden, high-energy impacts like drops and collisions, while vibration dampeners control continuous, low-amplitude oscillations during transport. Both serve different but complementary protective functions in packaging systems.

Shock absorbers typically use materials that deform significantly under impact, such as expanded polystyrene or polyurethane foam. They’re designed to crush in a controlled manner, absorbing energy through permanent or semi-permanent deformation. Think of them as your first line of defense against major handling incidents.

Vibration dampeners, on the other hand, use materials that can repeatedly compress and recover without losing their protective properties. These include elastomeric materials, gel pads, and specialized spring systems that isolate products from engine vibrations and road noise during long-distance transport.

The best packaging solutions combine both technologies. You might see this in flight cases for sensitive equipment, where shock-absorbing foam handles impacts while vibration-dampening materials protect against continuous movement during transport.

High-tech manufacturing, medical device companies, and defense contractors see the greatest returns from shock-absorbing packaging due to their high-value, precision products that are extremely sensitive to physical damage.

In the semiconductor industry, even microscopic disruptions can render chips useless, making DOA rates particularly costly. Medical equipment manufacturers face similar challenges, with the added complexity of regulatory requirements that make damaged products not just expensive but potentially dangerous.

The aerospace and defense sectors rely heavily on shock absorption because their components often travel to remote locations where replacement parts aren’t readily available. A single damaged component can ground aircraft or disable critical systems, making prevention far more cost-effective than replacement.

The entertainment and touring industries also depend on robust shock protection for audio, video, and lighting equipment that must function perfectly after repeated transport cycles. These applications often require packaging that can handle both the rigors of frequent shipping and quick setup times.

At Faes, we believe that shock absorption is not just about choosing the right material. It is about understanding the full complexity of your product, your supply chain and the risks your equipment faces during transport, handling, storage and reuse.

That is why our packaging experts and engineers look beyond standard solutions. We analyse your specific challenge, from product sensitivity and vibration risks to logistics processes, environmental conditions and total cost of ownership. Based on these insights, we design and develop packaging solutions that are built around your application, not the other way around.

Whether you need to reduce Dead-on-Arrival deliveries, protect high-value components or create a reusable packaging solution for a complex supply chain, our engineers are ready to take on your challenge. At Faes, complex packaging questions are exactly where our expertise adds the most value.

Choose shock absorption based on your product’s weight, fragility level, and the specific threats it faces during transport. Start by identifying the maximum G-forces your product can withstand, then select materials that keep transmitted forces below this threshold.

Consider the drop height your packaging must survive—typically 30 inches for standard shipping, but potentially much higher for air freight or rough-handling scenarios. Your shock absorption material should have enough thickness and the right crush strength to handle these impacts without bottoming out.

Environmental factors play a huge role in material selection. Temperature extremes can make some foams brittle or overly soft, while humidity can affect performance over time. For international shipping, you’ll need materials that maintain their properties across a wide range of conditions.

Testing is non-negotiable. Work with packaging engineers who can simulate real-world transport conditions and validate your protection strategy before full-scale implementation. This might include drop testing, vibration analysis, and compression testing to ensure your solution works in practice, not just in theory.

Do you have a complex packaging challenge?

Our experts and engineers are ready to help. At Faes, we combine technical packaging knowledge, material expertise and practical supply-chain experience to develop solutions that protect your products in the real world. From shock absorption and vibration damping to reusable packaging and total cost optimisation, we help you create a packaging solution that fits your product, your process and your business goals.