Europe’s industrial landscape is reshaping fast to safeguard autonomy and sovereignty. Geopolitics, new regulations and rising costs are forcing companies to review their bills of materials, swap components and near-shore supply chains — moves that can introduce risks and cost pressures alongside new opportunities. This track delves into how to turn those challenges into a competitive edge. From robust supplier-selection processes and design-for-future-component swaps to advanced automation and quality inspection, we’ll show how design-to-cost methods combined with Industry 4.0 technologies — precision manufacturing, smart sensors, robotics and IoT-enabled platforms — can boost efficiency, manage risk and transform complexity into advantage. Check out the presentations from the Innovation Day of 2024 on:

• Next-gen efficiency with local processor platforms & OS innovations
  By Rudy Van Raemdonck, Coordinator EmbeddedLab at Verhaert Product Innovation
• Navigating nearshoring in Europe: A systems thinking approach
  By Thomas Degreef, Consultant PhysicsLab at Verhaert Product Innovation and Sam Van den Driessche, Consultant MechLab at Verhaert Product Innovation
• Cyber resilience for digital products: Addressing supply chain challenges in the European industry
  By Bart De Vos, Consultant EmbeddedLab at Verhaert Product Innovation and Jasper Bogaerts, Software Engineer at Verhaert Digital Innovation

View the presentation

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The European Union’s new Cyber Resilience Act (CRA) is setting a bold expectation: cybersecurity is no longer optional, nor an afterthought. It must be baked into every product from the start. For innovators, engineers, and leaders across industries, this is a turning point: embed cybersecurity into the DNA of your products, and you’ll enter a new era of accountability.

The growing urgency: Why cybersecurity can’t be an afterthought anymore

Cyberattacks are no longer rare events. They’re everyday realities. Fueled by massive digital expansion, more sophisticated threats, enormous financial incentives, and widespread gaps in cyber hygiene and awareness, hacking is growing at an unprecedented pace. In 2024 alone, global cybercrime damages are projected to reach over $1 trillion annually — a staggering figure. Beyond the numbers, the stakes are human: breached medical devices, hijacked smart homes, and sabotaged industrial robots. Consumers and businesses alike are waking up. They demand not just performance and price, but trust. Today, products are getting smarter, more autonomous, and more connected than ever before, integrating sensing technologies, robotics, real-time data flows, and seamless connectivity. But this intelligence comes with greater complexity, and every new line of code, every new sensor, every connection becomes a new potential target. Cybersecurity isn’t just an add-on for these next-generation products. It’s a fundamental promise that must evolve hand-in-hand with innovation, embedded deeply into the hidden code, the firmware, and the systems driving the future.

CRA at a glance: What innovators need to know

At its heart, the Cyber Resilience Act (CRA) is Europe’s bold move to create cybersecurity requirements for all products with digital elements, meaning any product that contains or is software. The regulation demands that cybersecurity be considered from planning, design, and development all the way through production, delivery, maintenance, and beyond. Manufacturers must actively manage vulnerabilities, report incidents, provide clear instructions to users, and ensure security updates are available for as long as the product is expected to be in use.

The ultimate goal? Harmonized, essential cybersecurity rules that apply across the entire value chain, setting a duty of care for the full lifecycle of every connected product. The CRA calls for one thing: security by design. Key requirements include:

• Designing products with security principles integrated from the first line of code.
• Regular testing and monitoring for vulnerabilities throughout the entire product lifecycle.
• Fast, transparent patching of discovered vulnerabilities.
• Clear documentation of cybersecurity measures for authorities and users alike.
• Accountability across the supply chain, ensuring third-party components and services meet the same security standards.

For developers of embedded systems, from industrial controllers to IoT devices, this regulation cuts deep into the heart of design. Systems must be robust, not just at launch but through years of use in an unpredictable, evolving threat landscape. Here’s the bigger picture: The CRA is more than a checklist. It’s an invitation to reinvent how we innovate, embedding trust, resilience, and responsibility as core elements of product excellence.

CRA-compliance as a competitive edge: Turning challenges into advantages

Early compliance with the CRA offers powerful advantages for innovators willing to lead. First, it builds brand trust, security earns customer loyalty, and strengthens reputations that endure over time. Second, it opens the doors to market access, enabling products that meet CRA standards to move more easily and quickly across borders. Third, it drives cost efficiency, since addressing vulnerabilities during the design phase is dramatically cheaper, up to 100 times, than fixing them after launch. And finally, it fuels an innovation boost: new secure-by-design frameworks and smarter security models unlock faster development cycles and better, safer user experiences.

Across industries, from ambitious start-ups to established industrial giants, early movers have a unique opportunity, not just to meet cybersecurity expectations, but to shape the standard for the next generation of trusted, resilient products.

The path forward: How to strengthen your product strategy

The journey toward true cyber resilience begins with action:

• Assess and audit: Map your product’s vulnerabilities today, before hackers do it tomorrow.
• Design securely from the start: Integrate threat modeling and secure coding into your embedded systems development.
• Monitor continuously: Cyber risks evolve, so must your surveillance and patching strategies.
• Collaborate fearlessly: Build cross-functional teams where cybersecurity is part of engineering, not a separate afterthought.
• Learn, iterate, improve: Make resilience a permanent layer of your innovation DNA.

Taking cybersecurity seriously is not just about protecting users; it’s also about protecting your business. Non-compliance under the CRA can lead to significant financial penalties, putting reputations, market access, and growth at serious risk. Innovation isn’t just about solving today’s problems.  It’s about anticipating tomorrow’s challenges and being ready.

Resilience is the new innovation

In a world that runs on code and connection, the products that thrive will not be the flashiest or the fastest, but the most trusted. The Cyber Resilience Act challenges us all, not just to comply, but to lead.

• To embed trust deep into our systems.
• To turn security into a competitive advantage.
• To build a future where users can be confident in every line of code, every signal, every device.

Mitigation strategies aren’t just technical exercises. They’re blueprints for bold, better, and braver products. And the journey doesn’t have to be overwhelming. Start simple: build a secure minimum viable product (MVP) using off-the-shelf components where security has already been designed in. Learn how these components behave, monitor them closely, act on real-world feedback, and iterate.

Remember: cybersecurity isn’t something you add at launch; it must be woven into every phase of your product’s development life cycle, from the very first concept to long after the product is in users’ hands. Let’s build products that don’t just survive tomorrow’s threats—but shape tomorrow’s possibilities.

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Requirements management: Key in complex product development

Today’s products are more advanced than ever. They combine hardware, software, connectivity, and intelligence in ways that push technical and regulatory limits. As innovation grows more layered, so does the challenge of keeping everyone, from engineers to executives, on the same page.

Take, for example, a company designing a reusable, traceable shipment box as an alternative to cardboard packaging. What starts as a simple idea quickly becomes a web of interconnected requirements. To enable tracking, the box needs embedded electronics, which leads to durability and waterproofing challenges. Cybersecurity adds another layer: encrypted data must be secure, but the interface must remain accessible. Meanwhile, sustainability targets demand that the box be reused a certain number of times to offset its environmental impact. That, in turn, raises questions about repairability, modularity, and material selection.

This is where requirements management proves its value. It translates technical needs, product constraints, and stakeholder expectations into a shared understanding. From the first sketch to the final validation, it reduces risks and guides development with clarity. In fast-paced, high-stakes environments, it’s no longer optional. It’s the key to building products that deliver on their promise.

Why do bigger teams demand clearer communication?

As products become more sophisticated, so do the teams building them. Developing that smart shipment box involves dozens of specialists: software engineers, hardware designers, compliance officers, UX teams, supply chain managers, and more. Each brings a unique perspective, but without a common framework, collaboration can easily unravel.

That’s where structured requirements come in. They align diverse voices and disciplines, turning complex input into actionable direction. Requirements ensure that everyone is speaking the same language, reducing confusion and keeping the project moving forward. Without them, a team optimizing the electronics might inadvertently complicate repairability, or a push for added security might damage usability. Requirements management brings order to that chaos. It links strategy to execution, ensuring everyone’s working toward the same outcome, not just the same deadline.

Develop products with purpose from the start

Requirements aren’t just for documenting what the product should do, they shape how the product gets built. Early choices define architecture, influence cost, impact sustainability, and can even steer a company’s business model.

In theory, the shipment box had it all: reusability, repairability, and traceability. Reinforced materials extended its life, modular components made repairs easier, and embedded sensors were shielded against moisture and shock. But then gravity intervened. On high-speed conveyor belts, the unit wobbled, lost balance, and tipped over. Why? Because the electronics module, housing the battery and camera, was mounted on top.

It wasn’t a design flaw. It was a missing requirement. No one had asked how a fully loaded, top-heavy unit behaves under the acceleration of automated transport systems. If the logistics team had been involved early on, or if conveyor dynamics had been mapped as part of the environmental intake, the risk would’ve been clear.

That’s the thing about requirements management: it’s not about specs and features, it’s about mapping all requirements, including real-world handling environments. With full visibility early on, teams avoid costly rework and build smarter from the start.

Building resilience, agility, and trust

Good requirements management creates transparency. It documents not just what a product does, but why it does it. This gives teams the context they need to adapt responsibly when priorities shift or constraints tighten.

Just as importantly, it fosters trust. Internally, it aligns developers, designers, and decision-makers. Externally, it ensures that customers receive a product that performs as promised, whether that’s a shipment box that protects goods and data across dozens of uses or a medical device that meets critical performance thresholds. Fewer surprises. More confidence. And, in the end, stronger loyalty.

Strong start with requirements management to create winning products

Clear, well-managed requirements are more than a project deliverable, they’re a strategic asset. They bring focus, enable agility, and give innovation a strong foundation. They reduce costly detours and provide teams with a roadmap to build with confidence.

Requirements don’t eliminate change, they make it manageable. They help teams assess impact, adapt with confidence, and keep the product on track.

The products that win in the market are the ones built with clarity from the start. So if you’re aiming to create something that lasts, start with the foundation. Master requirements management, and give your ideas the structure they need to succeed. Ready to take control and steer toward a winning product?

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AI at the edge: the future of embedded intelligence

A major theme at Embedded World 2025 was the growing use of AI and Machine Learning (ML) at the edge. The shift from cloud-based learning to on-device AI is changing how products are developed, making them more intelligent, efficient, and connected to users. This shift brings tangible benefits like:

• Real-time processing – Faster decision-making and smoother user experiences.
• Reduced network traffic – Less reliance on cloud infrastructure, which lowers costs and increases reliability.
• Enhanced security & privacy – On-device AI keeps sensitive data safer.
• Power efficiency – Optimized energy use for always-on devices.
• Smarter products – AI-driven personalization and adaptive functionality.

Altera’s CEO, Sandra Rivera, highlighted how FPGAs (Field-Programmable Gate Arrays) boost AI processing efficiency. Ambiq’s heartKIT AI Development Kit, which won the Embedded Award in AI, showcased energy-efficient healthcare applications. Edge AI is setting the course for the future of embedded systems development.

IoT’s growth: from smart devices to smart everything

The rapid growth of IoT across industries is being driven by a wave of advanced and diverse connectivity options. Whether it’s wired IIoT (Industrial Internet of Things), LPWAN (Low Power Wide Area Networks), or the latest 5G/6G technologies, IoT solutions are becoming more efficient and scalable, enabling data-intensive applications. The ‘smart everything’ trend is pushing technological boundaries in every sector. Some exciting advancements in IoT and embedded systems include:

• Ultra-low power processing – Energy-efficient microcontrollers extend battery life for wearables and IoT sensors.
• TinyML – AI-powered microcontrollers enable features like speech recognition and anomaly detection.
• Secure-by-design IoT – Built-in security boosts trust in connected devices.
• Ultra-wideband (UWB) precision – UWB enhances precise tracking, indoor navigation and secure contactless human-machine interactions, while chipsets enable smart car access and child presence detection.
• Subscription-free eSIMs – Flexible IoT connectivity without needing pairing via another technology like Bluetooth or Wi-Fi.

As IoT matures, the focus on security, compliance, and interoperability is shaping a more robust, intelligent, and scalable future for embedded systems.

Securing the connected world: innovations in embedded safety

As the number of connected devices grows, security has become a top priority. The development of secure embedded systems is critical, especially with regulations like the EU Cybersecurity and Resilience Act. A security-by-design approach is essential, integrating protections like secure boot, hardware encryption, and Trusted Execution Environments (TEEs). These systems prevent tampering and unauthorized access while ensuring sensitive data remains secure through end-to-end encryption. Additionally, protocols like DTLS safeguard communication on resource-constrained devices, while multi-factor authentication helps verify user identities and restrict access.

Hardware security modules (HSMs) and over-the-air (OTA) updates ensure devices stay secure throughout their lifecycle. Real-time threat detection, powered by AI/ML, enhances a system’s ability to detect and respond to security breaches. This comprehensive approach ensures embedded systems stay resilient and trustworthy in an increasingly connected world.

The path forward: building smarter, safer products in the IoT age

The growing use of edge AI across applications marks a shift toward more intelligent, responsive, and privacy-conscious embedded systems. As the IoT ecosystem continues to expand, building connected solutions that are both robust and secure is more important than ever. At the same time, the increased focus on embedded security highlights the need for a proactive approach to protect devices from emerging threats while meeting new regulatory standards.

This moment in technology is a call to action for all those involved in product development: the future is in our hands. By embracing the potential of edge AI, IoT, and security innovations, we have the opportunity to shape a new era of intelligent, connected, and secure devices. As we navigate these challenges, we are not just building products — we’re contributing to a safer, more resilient digital world. The possibilities are vast, and the time to act is now. How will you harness these innovations to create the next generation of secure, intelligent products?

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From exclusive to inclusive: the shift to open automation systems

Traditionally, industrial automation systems were like a members-only club – every component and technology had to come from the same manufacturer. With Industry 4.0, the game has changed to openness and interoperability! Now, different technologies, systems and processes can be integrated seamlessly through standardized interfaces and protocols.

The real magic here is how this openness boosts flexibility, scalability and agility in manufacturing. You can easily mix in new technologies or functionalities, adapt to changing market demands, and optimize your production processing in real-time. Bosch Rexroth’s ctrlX AUTOMATION is a prime example in this scene. Breaking down the classic boundaries between machine controls, IT and IoT, and setting new standards with its Linux-based ctrlX OS. The ctrlX World expands the range of the automation system with hardware and apps, making it a breeze for machine builders and users to create and operate machines with minimal risk.

By fostering interoperability and collaboration, openness in automation sparks ecosystem-driven innovation. Diverse experts can now team up, driving continuous improvement and creativity across the industrial landscape. The future of manufacturing is not just open – it’s wide open!

Beyond simulation: the power of physics-informed machine learning

Once upon a time, engineering simulation software was all about designing new products. Thanks to advanced sensors, engineers can now create digital twins, enabling predictive maintenance, optimized operations, virtual prototyping and real-time decision-making. With Ansys’ Hybrid Analytics, it gets even better by blending machine learning with physics-based methods for ultra-accurate predictions. Physics-informed machine learning takes it up a notch, integrating physics principles into data-driven models for more reliable and robust simulations. Ansys Twin Builder lets you craft virtual prototypes, managing products and assets throughout their lifecycle. This means more efficient operations, precise predictive maintenance, and cost savings. And the best part? It’s IoT-friendly!

AI-powered automation ramping up productivity

Automation, powered by AI and advanced robotics, is giving manufacturing a fresh groove! Imagine automating repetitive tasks faster and more consistently than humans, boosting throughput and freeing up our teams for strategic work. Beckhoff is jumping on the chatbot bandwagon with their TwinCAT 3 Chat Client, a nifty tool for automation engineers to create AI models and integrate them into control systems. It’s a wizard at automating PLC code creation, optimization and commenting, ramping up productivity in software development. Beckhoff’s open chat interface with LLMs connects clients to their data sources. Openness is key, and it’s all coming together beautifully!

The hydrogen era, breaking barriers in sustainable energy

Hydrogen is hitting the big leagues as a clean energy superstar! According to the Gartner Hype Cycle for Low-Carbon Energy Technologies, everyone’s buzzing about hydrogen’s potential to turbocharge our green future. Sure, the market’s still figuring things out, but the excitement is real. People are betting big on hydrogen to swap out fossil fuels and keep energy markets steady. Enter Agfa Gevaert, the imaging and IT giant, showcasing their hydrogen tech, Zirfon, at Hannover Messe 2024. The Fraunhofer Society found Agfa’s Zirfon membranes are the most cost-efficient for producing hydrogen, boosting the hydrogen ecosystem with sustainable solutions. Green energy, here we come!

Generative design is shaping the industry

This modeling method is a double win, boosting both innovation and sustainability! Designers and engineers pop the parameters, dimensions and constraints into a CAD program, and voilà – the software works its magic, generating all sorts of designs. The best part? These models are lighter, more flexible, quicker to design, use fewer materials, and can be tested and verified with FEA analysis. The flip side of generative design? The output designs might not fit traditional production methods, so either simplify the designs or tweak production methods – a bit of a headache, but worth it! At the conference, Hexagon Nexus and Microsoft wowed everyone with a new open digital reality platform using the latest cloud technology. It’s like a magic wand for real-time collaboration, connecting engineers worldwide and turbocharging innovation.

Driving industry innovation and efficiency

All these trends promise a future where we need to be able to offer products and machines addressing the need for adaptability, agility and energy efficiency. Open and AI-driven automation innovations are the answer to increase efficiency by boosting flexibility, scalability and productivity, while physics-informed machine learning empowers better products, offering better control and real-time adaptivity.

On top of that it’s clear that hydrogen and generative design are driving industries, enabling a significant shift toward sustainability in energy, faster development and smarter products. If you’re open for a discussion on how these advancements and challenges are to be tackled or how they can benefit your new innovations, reach out to us. Together, we drive success in the modern industrial landscape!

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AI is good, but its real value lies in the Edge

Science-fiction film directors often sketch futuristic worlds with self-driving cars, talking robots, and advanced medical facilities. With artificial intelligence (AI) becoming commonplace, we’re closer than ever to reaching this future vision, especially if AI operates at the edge. Embedded World ‘24 focused on the future of Edge AI and its challenges. Edge AI enhances new embedded systems by bringing advanced processing and decision-making capabilities directly into products, reducing reliance on cloud solutions.

AMD-Xilinx identifies key Edge AI challenges: power, throughput, latency, accuracy, environmental interaction, safety, security, workloads, and regulation. Companies address these using low-power chips, energy harvesting methods, Edge AI processors, communication modules able to meet throughput and latency requirements, new time of flight sensors, security devices, etc.

Edge AI empowers embedded systems to operate more autonomously, efficiently and securely. Today’s technology enables Verhaert to integrate Edge AI in new cost-effective products, promising a revolution in the industry, home automation, medical, and automotive sectors.

The EU Cyber Resilience Act and its effect on new products

The European Parliament’s approval of the Cyber Resilience Act (CRA) in March ’24 marks a significant step in addressing the security of digital products throughout their lifespan, notably impacting the development of new embedded systems. However, the practical implementation of the law remains uncertain. For sure, manufacturers are prohibited from consciously bringing insecure products on the market. Responsibility is extended across the entire value chain, except for open-source developers, who cannot be held liable for security breaches in their code. To protect the open-source world, the responsibility for potential security leaks lies with the companies using the open-source code.

To navigate the CRA effectively, it’s imperative to incorporate security features into your product design early on. A more security-focused approach in embedded systems development includes: secure coding, data encryption, access control, and vulnerability management. Continuous monitoring and updates are essential to mitigate emerging cyber threats.

Comprehensive documentation, including a general security process, specific features, potential vulnerabilities for each product version, and a hardware and software Bill of Materials (BOM) with security risk assessments, ensures clarity and compliance. Thorough preparation before product launch is key, as severe penalties await those who neglect security. The software lifecycle now requires heightened attention, with bug-free software no longer being sufficient.

Bluetooth is much more than communication

As Bluetooth’s Low Energy version advances, it’s crucial to understand its application-level distinctions and integration benefits. The main innovations are:

• Channel sounding in Bluetooth 5, employing time flight or phase-based running for 10 cm accuracy in localization and tracking.
• Enhanced Bluetooth 5 LE audio offers multichannel streaming and improved sound quality with new audio codec, higher data rates, and increased payload per package.
• Bluetooth 5 introduces Periodic Advertisement with Responses (PaWR) for secure communication with electronic shelf labels in warehouse settings, extending battery life through ultra-low power consumption.

These innovations showcase Bluetooth’s versatility, expanding beyond its conventional services. Channel sounding replaces GPS for indoor localization, enhancing cost-effectiveness through a widely adopted protocol. LE audio enriches user experiences with improved performance and music sharing, while PaWR prioritizes ultra-low power consumption. Bluetooth’s readiness to evolve ensures its prominent role in IoT communications.

Together toward a smart, sustainable and secure future

From AI that’s smarter at the edge to Bluetooth’s indoor magic, music sharing and efficiency! And let’s not forget the EU’s new security-first Cyber Resilience Act: embed, comply, update, navigate. So as embedded systems move to smart, sustainable, secure future features, it’s time to understand what added value you’ll be able to create for your customers. We’re on the edge of a great opportunity!

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By leveraging the power of the Internet of Things, smart devices can revolutionize the way we interact with everyday household items. Moreover, the integration of artificial intelligence opens up a realm of new possibilities, providing valuable insights for users and manufacturers alike. The best and most efficient way for such cases is to connect them to a platform that acts as a one-stop shop for all stakeholders involved. In this perspective, we will delve into the digital innovation possibilities brought by connected devices, how they can create added value for all stakeholders involved, and how you can go the extra mile to differentiate from other brands and create loyal customers. Ready to take your rightful place of being the #1 provider in your product market?

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Room for improvement

Although minimally-invasive surgery offers many benefits, there’s still quite some room for improvement. To start, the current procedure requires X-ray imaging for localization inside the patient. This not only leads to frequent radiation exposure for everyone in the operating room, it also provides limited 2D visibility. On top of that, it also means the slightest movement, whether through patient breathing, body movement or repositioning by the surgeon, makes the images outdated. In short, radiation exposure, precision, visibility and real-time validity could all be improved.

Or check out the key features in the video below!

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Elevating your Fast Moving Consumer Goods appliances

As technology advances, sensors are becoming more affordable due to improved manufacturing processes and increased competition in the market. This competition has resulted in manufacturers offering sensors in a wide variety to target specific applications. In addition, miniaturization is the first step towards integrating sensors into everyday appliances.

Cost efficiency and size are important, but integrating new sensors can be a challenge. So let’s give you a few examples of the sensing technologies we have employed, their potential applications, and the associated challenges.

1. VIRTUAL TEMPERATURE SENSOR

Temperature is a critical factor to control in appliances, ensuring an accurate and consistent recipe for a quality food or beverage. Temperature sensors are widely used in many applications and are now small and cost-effective. You can use them not only for process monitoring and control but also for signal compensation, as temperature has a considerable influence on most measurements. Despite its widespread usage, there are still challenges that need to be addressed and overcome. Indeed, you can’t indiscriminately add sensors everywhere due to food-safety concerns and/or manufacturing requirements.

For instance, placing a temperature sensor in a beer keg can be difficult. To solve this problem, you can implement virtual temperature sensors, which simulate the behavior of a physical sensor by using data from other physical sensors. Back to the example, the temperature of the contents of a keg can be predicted by using sensors to monitor the temperature of its surroundings. Additionally, you can employ sensor fusion to acquire multiple data and merge the measurements into a single output, ensuring greater reliability and accuracy.

2. SENSITIVE TO PRESSURE?

Beginning with the automotive sector and then extending to numerous industries, pressure sensors are now cost-effective and available in a variety of shapes and sizes. In addition to measuring pressure and flow, you can use these sensors for indirect measurements such as volume. By measuring the pressure and its rate of change over time, it’s possible to calculate the liquid volume contained in a bag.

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Complete elimination of ultrafine particles is virtually impossible yet reducing the sources and individual exposure to ultrafine particles within tolerances is the best way to ensure healthy living.
Creating a healthy workplace is critical for cities and mainly for airports to keep operating. Awareness on the topic of ultrafine particles is rising and receives special attention from stakeholders like employees, unions, employers, media, insurance companies, and politics. Providing a healthy work environment is in that respect essential. Yet all sources of ultrafine particles are not identified yet. Where, when, and how much are employees exposed to ultrafine particles is mostly unknown. To start innovating an important question is which (economic) actors have the reason, motivation, and ability to change the existing solutions of ultrafine particles generation and processes where exposure is high? Which (economic) actors are blocking the current adoption of new solutions?

Innovation for effective measures

People working at for example airports face severe health risks. High concentrations of ultrafine particles in combination with long-term exposure cause cardiovascular diseases and have been shown to cause pulmonary inflammation due to the retention in the lungs. Although the effects are highly unknown, research has proved that ultrafine particles translocate to all organs. Long and heavy exposure induces cough, worsens asthma, and is also linked to diabetes and even cancer. The longer people are exposed and the heavier the exposure, the higher the health risk. Research indicates that especially the bay areas and the platforms are subject to high concentrations of ultrafine particles.
We realize that it is hard to imagine for the average worker what the health risks of ultrafine particles are. Ultrafine particles are invisible, and we can’t smell it (yet). Awareness and behavior are critical success factors elements. The behavior of people who work on the airside has a major influence on the exposure to ultrafine particles. Experience has shown that the workforce working on the platform is difficult to mobilize. Think of the limited use of lifting aids in the baggage halls. Explicit attention to behavioral change is mission-critical.

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