Prevent DOA damage to high-tech components with the right packaging. Protect sensitive parts from shock, moisture, ESD and temperature changes. Custom packaging reduces risks, costs and customer dissatisfaction.
Summary of this article
High-tech components are incredibly sensitive to environmental conditions and to handling during transport. Even minor damage during shipping can render expensive electronic parts completely unusable upon arrival, creating what are known as dead-on-arrival (DOA) issues.
These failures cost companies millions annually and can disrupt entire production lines. Understanding why high-tech components are particularly vulnerable to DOA problems helps you make better packaging and logistics decisions to protect your valuable equipment.
Dead on arrival (DOA) refers to high-tech components that are nonfunctional or damaged when they reach their destination, despite working perfectly when shipped. These components fail to operate correctly due to damage sustained during transport, handling, or storage.
For high-tech components, DOA issues are particularly costly because these parts often have extremely tight tolerances and complex internal structures. A microprocessor that costs thousands of euros becomes worthless if even microscopic damage occurs to its delicate circuitry. Unlike simpler products that might survive minor impacts, high-tech components can fail completely from damage that is barely visible to the naked eye.
The financial impact extends beyond the cost of the component itself. DOA incidents can delay production schedules, require emergency replacements, and force expensive rework of manufacturing processes. In sectors such as medical devices or aerospace, a single DOA component can halt entire assembly lines until a replacement arrives.
At Faes, we know that preventing dead on arrival issues is rarely just about choosing a stronger box or adding more foam. For high-tech components, the challenge is often much more complex. These products can be sensitive to shock, vibration, humidity, electrostatic discharge, contamination, incorrect handling or a combination of risks throughout the logistics chain.
That is why leading companies in the high-tech industry turn to Faes when standard packaging is no longer enough. We are often involved in complex packaging challenges where component value, precision, reliability and continuity all matter. In these situations, packaging is not a side issue. It becomes an essential part of protecting product performance and preventing costly failures.
Faes specialises in translating demanding technical requirements into practical, reliable packaging solutions. We look at the component itself, the way it is handled, the transport route, the storage conditions and the moment it needs to be used or installed. Based on that full picture, we develop packaging that supports protection, consistency and usability throughout the entire process.
For high-tech components, this can include custom case engineering, shock-absorbing interiors, ESD-safe materials, moisture protection, clean and structured layouts, clear compartmentalisation, labelling and documentation support. The goal is not only to prevent visible damage, but also to reduce the hidden risks that can cause a component to fail on arrival.
By involving Faes early, high-tech companies can reduce DOA risk before products enter the supply chain. Our strength lies in solving complex packaging questions for valuable, sensitive and mission-critical components, where reliability is essential and every detail matters.
High-tech components fail during shipping primarily due to shock, vibration, electrostatic discharge (ESD), and exposure to contamination. These factors can damage delicate internal structures, corrupt stored data, or alter the precise calibrations components require to function properly.
Shock damage occurs when packages experience sudden impacts during handling or transport. Even a seemingly minor drop can generate forces that crack solder joints, damage circuit boards, or misalign precision components. Vibration damage accumulates over time as constant movement loosens connections or causes metal fatigue in delicate parts.
Electrostatic discharge poses a unique threat to electronic components. Static electricity buildup during transport can instantly destroy sensitive semiconductors. This damage often is not immediately visible but renders components completely nonfunctional. Contamination from dust, moisture, or chemical exposure can also interfere with electrical connections or corrode sensitive materials.
Environmental conditions such as temperature fluctuations, humidity changes, and atmospheric pressure variations can cause high-tech components to expand, contract, or develop condensation, leading to immediate failure or long-term reliability issues.
Temperature swings are particularly damaging because different materials in components expand and contract at different rates. This creates internal stress that can crack solder joints, separate layers in circuit boards, or cause precision components to shift out of alignment. Extreme temperatures can also alter the electrical properties of semiconductors, causing them to operate outside acceptable parameters.
Humidity creates multiple problems for electronic components. High humidity can cause condensation inside packages, leading to short circuits or corrosion. Low humidity increases static electricity buildup, raising the risk of ESD damage. Rapid humidity changes can also cause materials to expand or contract, creating mechanical stress on delicate connections.
Atmospheric pressure changes during air transport can affect components with sealed chambers or precise gas fills. Pressure variations can cause internal components to shift or alter calibrations in sensitive measuring devices.
Components with smaller feature sizes, higher integration density, and more sensitive materials are significantly more prone to DOA issues. Microprocessors, memory chips, optical components, and precision sensors have the highest failure rates during transport.
Modern semiconductors pack millions of transistors into tiny spaces, making them extremely vulnerable to even microscopic damage. The smaller the component features, the less force required to cause permanent damage. A shock that would not affect a simple resistor can completely destroy a high-density memory chip.
Optical components such as lasers, sensors, and fiber-optic devices are particularly fragile because they rely on precise alignment and clean surfaces. Any contamination or misalignment can render them useless. Similarly, components with moving parts or delicate mechanical structures have higher DOA rates because these elements can be damaged more easily during transport.
Components that require precise calibration, such as sensors or measurement devices, often fail not from physical damage but from shifts in calibration during transport. Even if the component appears undamaged, it may no longer meet performance specifications.
Inadequate packaging contributes to component failures by failing to provide sufficient protection against shock, vibration, ESD, and environmental contamination. Poor packaging design allows damaging forces to reach components and exposes them to harmful environmental conditions.
Generic packaging often lacks the specialized protection high-tech components need. Standard foam padding might absorb some shock but provides no ESD protection. Cardboard boxes offer minimal protection against humidity or temperature changes. Without proper cushioning systems, components experience the full force of impacts during handling.
Insufficient ESD protection is a major packaging failure. Components need conductive or dissipative materials that safely channel static electricity away from sensitive parts. Regular plastic packaging can actually generate static electricity, making DOA problems worse rather than better.
Poor sealing allows environmental contamination to reach components. Dust particles can interfere with electrical connections, while moisture can cause corrosion or short circuits. Packaging that does not maintain stable internal conditions exposes components to damaging temperature and humidity swings.
Improper handling during loading, transport, and delivery significantly increases DOA rates by subjecting components to excessive forces, drops, and rough treatment that their packaging cannot fully absorb.
Warehouse and shipping personnel often do not understand how sensitive high-tech components are to mishandling. A package marked “fragile” might still be tossed onto conveyor belts or stacked under heavy items. Each rough-handling event increases the cumulative damage components experience.
Loading and unloading procedures create high-risk moments for component damage. Forklifts dropping pallets, packages falling during sorting, or improper stacking can generate forces far exceeding what most packaging can protect against. Even vibration from transport vehicles can cause damage if components are not properly secured.
Multiple handling points multiply the risk. Each time a package changes hands, there is another opportunity for damage. International shipments with multiple transfers face significantly higher DOA rates than direct deliveries. This is why understanding your entire supply chain is important for protecting valuable components.
When you are dealing with high-value components and cannot afford DOA issues, working with specialists who understand these unique challenges makes a significant difference. Professional packaging management services can help you design protection systems that address all these failure modes, ensuring your components arrive ready to perform.
Conduct drop tests, vibration tests, and ESD measurements on your current packaging with sample components. Monitor your DOA rates and correlate them with specific shipping routes or handling points. If DOA rates exceed 1-2% or you're experiencing temperature/humidity damage, your packaging likely needs upgrading to specialized protective materials and designs.
Start with anti-static bags and moisture barrier packaging for ESD-sensitive components, then add impact-absorbing foam designed for electronics. Use temperature and humidity indicators to monitor environmental exposure. For small volumes, pre-designed protective packaging kits are often more cost-effective than custom solutions while still providing significant DOA reduction.
Air freight typically results in lower DOA rates due to shorter transit times and fewer handling points, despite pressure changes during flight. Ground transport exposes components to more vibration and handling events over longer periods. However, air freight requires pressure-resistant packaging for components with sealed chambers or gas fills.
Document the component's condition immediately upon arrival with photos and functional tests. Use shock and tilt indicators in packaging to prove mishandling occurred during transport. Maintain detailed records of packaging methods, shipping routes, and environmental conditions. This documentation is essential for insurance claims and identifying systematic shipping issues.
Use data loggers that track temperature, humidity, and shock events throughout transit. Set alerts for temperature excursions beyond ±5°C and humidity outside 30-70% RH. For critical shipments, real-time GPS tracking with environmental monitoring allows immediate intervention if conditions become dangerous to your components.
Reusing packaging is risky because protective materials degrade with each use - foam loses cushioning ability, anti-static properties diminish, and seals may fail. If you must reuse packaging, inspect it thoroughly for damage, test ESD protection with a static meter, and replace any compromised materials. Generally, the cost of new packaging is minimal compared to DOA replacement costs.
Do not power on potentially damaged components immediately. Photograph all packaging and components before removal, document any visible damage, and test components in a controlled environment. Check for loose particles inside packages that indicate internal damage. Report issues to your carrier within 24 hours and preserve all packaging materials for investigation.
Thijs Canjels is Business Innovation Manager at Faes and specializes in packaging management and supply chain optimization. In his blogs, he shares insights on efficiency improvements, cost savings and the strategic role of packaging in modern supply chains.
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