No matter whether someone is in a car, on a bike or on foot, to name just three examples – if there is an accident involving a truck, the collision can quickly end with serious or even fatal injuries for the ‘weaker’ party, as they have no chance against the much "stronger" truck due to the huge difference in mass. However, a collision between two trucks can also result in grave consequences for those involved. For Mercedes-Benz Trucks, the top priority has always been to ideally completely avoid this type of scenario or at the very least mitigate the consequences of accidents. That is why new safety and assistance systems are continually being developed and existing systems optimised specifically for the trucks. The Group's Commercial Vehicle Accident Research plays a central role in these efforts. With its accident analyses it prepares the foundations for continually introducing further improvements to the vehicles. "We consider our studies to be indispensable for assessing the behaviour of a truck in actual accidents," Kay Morschheuser, Head of Commercial Vehicle Accident Analyses at Mercedes-Benz Trucks, said.

This procedure has a tradition: since 1972, the commercial vehicle accident researchers at Mercedes-Benz Trucks have been examining selected accidents with Mercedes-Benz trucks throughout Germany using all the existing and ascertainable information, and documenting data on the course of those accidents, the vehicles involved and the damage – complemented by relevant research by the police rescue teams and experts. "We also look for conspicuous aspects pertaining to, for example, the frequency of types of accidents, the discernibility of certain patterns of events or to injuries to persons involved in accidents," Kay Morschheuser explains. Whereas initially the focus was only on passive safety systems such as the cab structure, restraint systems, front and rear underride guards as well as side protection, that focus was expanded with time – in line with technological developments in the vehicles – to include systems for active and integral safety. These include systems such as ABS – the Anti-lock Brake System, EBS – the Electronic Brake System and ESP – the Electronic Stability Program or Proximity Control Assist and Lane Keeping Assist as well as Active Brake Assist (ABA), Sideguard Assist or Active Drive Assist.

Based on their analyses, the accident researchers derive modification measures in close co-operation with the Development department which then often end in future Mercedes-Benz requirements. That is how, several years ago, the idea for Sideguard Assist was developed; since 2016 it has been available for many truck models ex works at Mercedes-Benz Trucks and within its system limits can contribute towards avoiding accidents with pedestrians and cyclists. Active Drive Assist which allows partially automated driving (level 2) in a truck for the first time ever as well as the MirrorCam instead of the common main and wide-angle mirrors are further more recent examples of the interplay between Accident Research and Development at Mercedes-Benz Trucks.

Crash Tests  

The analyses of Accident Research also go hand-in-hand with the crash tests that have been systematically carried out for years. In this regard the developers and safety experts at Daimler Truck AG have regularly developed their own standards and trials always oriented towards actual accidents in addition to the tests for cab rigidity in line with the EU standard ECE R 29. One of the most important crash tests is, for example, the impact with a platform vehicle mock-up which reproduces the typical rear-end collision between a truck and a truck driving ahead of it on the motorway. "In future we will reconstruct real accidents on the computer as a complement to the crash test," says Kay Morschheuser with a look to the future. The combination of crash simulation and accident reconstruction offers an opportunity to examine accidents more specifically and in more detail with freely selected parameters and thus to better understand the mechanisms in an actual accident. "Above all it is the circumstances which lead to an accident that are of particular interest to us," Kay Morschheuser adds. In view of the future increase in automated driving and, consequently, the need to have the corresponding systems able to reliably handle the numerous traffic situations, this is a decisive additional benefit.

As the "icing on the cake" of a solid vehicle safety development strategy, the crash tests form a sustainable unit with accident research. This approach also follows the holistic concept of "integral safety" which Mercedes-Benz is now pursuing more than ever, whereby the passive and active systems installed in the vehicle can provide support in four phases: first during driving, second in the event of danger, third in an accident and fourth after a collision.

A glance at general accident statistics reveals just how efficiently this concept, in particular, contributes to traffic safety along with many other measures. According to the German Federal Statistical Office the number of fatalities in accidents involving trucks in Germany dropped by around 60 percent between 1992 and 2018. The number of those seriously injured was reduced by about 45 percent during that time. And that despite an increase in transportation of around 80 percent. Accidents with serious consequences are much rarer, although their distribution by type of accident has remained almost unchanged. Rear-end collisions, accidents at junctions and accidents caused by the vehicle leaving its lane remain focal points. (MT)

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German tier 1 supplier ZF is presenting a new ‘Active Noise Reduction’ software function for vehicle chassis at the Consumer Electronics Show (CES) 2026. The purely software-based function reduces in-vehicle tyre noise transmitted through chassis components without requiring additional hardware. The company plans to expand the use of the function to other ZF chassis actuators in the future.

The solution uses ZF’s Smart Chassis Sensor with an integrated acceleration sensor to measure vibrations from the tyres. A developed algorithm recognises the characteristic noise patterns of tyre cavity noise around 200 hertz.

The software generates a counter-signal via ZF’s cubiX software through the valves of semi-active dampers (CDC). The function uses micro-movements of the damper to specifically reduce noise interference without impairing the damper function.

The technology achieves noise reductions of more than 3 dB, with future potential for up to 10 dB. This software-based noise reduction is achieved without additional installation costs or space requirements. Active Noise Reduction can be adapted to different vehicle types via software, opening a market for lower-priced vehicles.

Dr. Peter Holdmann, Member of the ZF Board of Management and Head of Division Chassis Solutions, said, “Active Noise Reduction is an excellent example of how we use smart algorithms to make ZF components even more efficient. This gives our semi-active CDC dampers a clear unique selling point in the market and sets new standards in comfort – without the need for any additional noise dampening hardware.”

Series production is scheduled to start in 2028. In the future, the function may be used in other ZF actuators, such as for active reduction of brake squeal.

Holdmann added, “Thanks to our system expertise, we are able to offer our mechatronic actuators as true innovation drivers with the help of smart algorithms and we will extend our software-based control approach to other ZF actuators in the future. The goal for us is clear: mechatronic actuators that are capable of efficiently reducing both their own and external noise with the help of software.”

The new function fits into ZF’s Chassis 2.0 product strategy, which uses intelligent and networkable actuators to enable new chassis functions via software.

Holdmann noted: “With our Chassis 2.0, we are laying the foundation for the software-defined vehicle.”

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California-based Drako Tech has announced DriveOS with HyperSafety, an automotive operating system designed for single-Electronic Control Unit (ECU) operation. The platform consolidates vehicle subsystems, including control systems, ADAS and digital cockpit, into one unit to reduce costs and enable over-the-air (OTA) updates.

Launched in 2015 and utilised in Drako GTE and Drako Dragon vehicles, DriveOS supports internal combustion, electric and hybrid propulsion systems.

The HyperSafety system provides real-time performance via a single-ECU architecture. According to Drako Tech, the networking backbone facilitates communication four times faster than multi-ECU Time-Sensitive Networking (TSN) automotive Ethernet.

The architecture employs hardware isolation and redundancy to maintain operation during component failures. By using a reduced code footprint and hardware partitioning, the platform aims to limit attack surfaces for cyber security and streamline validation processes.

Industry Integration

Drako Tech provides development environments that run natively on DriveOS:

• Control Systems: Allows engineers to build vehicle controls from Simulink models.
• Digital Cockpit: A system for instrument clusters, navigation and multimedia.
• ADAS: A software foundation for driver assistance with low-latency control.

The platform addresses the complexity of multi-ECU architectures, which typically require separate units for functions such as seats, doors and thermal management. Drako Tech uses a separation kernel to run safety-critical systems alongside non-critical systems, such as infotainment, on the same ECU.

DriveOS introduces hard real-time capabilities to Linux without requiring kernel changes. This allows developers to use Linux libraries and tools for safety-critical systems.

Key features include:

• Performance: 108-microsecond end-to-end performance compared to 514 microseconds for TSN Ethernet.
• Consolidation: The ability to move functions onto a single PC architecture to reduce hardware mass and complexity.
• Redundancy: Hardware-backed isolation ensures faults in one subsystem do not affect driving functions.
• Cloud Integration: Real-time fleet management and diagnostics without creating access paths to control systems.

Dean Drako, CEO, Drako Tech, said, “Nearly half of the cost of new vehicles is tied up in software and electronics. Drako Tech now offers all OEMs worldwide – regardless of size or influence – a definitive leap in their ability to deliver exceptionally safe, connected, AI-enhanced vehicles, with massive cost advantages. We are the first to achieve the ultimate goal – a single-ECU, hard real-time operating system and unified electronics architecture with mixed criticality – while providing OEMs a flexible deployment path.”

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German technology company dSPACE is set to showcase end-to-end test solutions at CES 2026 to assist vehicle manufacturers with the development of software-defined vehicles (SDV).

The company will present a validation portfolio featuring AI-supported software-in-the-loop (SIL) and hardware-in-the-loop (HIL) solutions.

It is exploring how generative and agentic AI technologies can support SIL testing and enable CI/CD pipelines for validation. An exhibit will demonstrate a Visual Studio Code and GitHub Copilot solution for the generation of virtual ECUs for SIL tests.

To meet the requirements of short-cycle development, dSPACE is demonstrating a CI/CT concept presenting a cloud-native validation approach. This includes a GitLab pipeline integrated with VEOS, the dSPACE SIL test software, and SCALEXIO, the HIL test platform.

dSPACE is also presenting a HIL Farm Management Demo designed to increase test efficiency. This displays the availability and utilisation of HIL systems and potential errors to reduce system downtimes and improve the use of test resources.

The technology company will use its test solutions for battery charging and battery management systems to demonstrate end-to-end SIL/HIL validation. Efficiency is increased by reusing test cases, simulation models, bus configurations and user interfaces across both methods. This allows for the demonstration of functions, including conformance tests, with the same layouts and cases.

The company is introducing DARTS ARROW, a radar solution for functional testing of sensors. Developed for end-of-line tests and periodic technical inspections, it validates safety systems such as emergency braking and lane departure warnings by simulating traffic scenarios to detect sensor errors.

For security, dSPACE will present HydraVision, a cybersecurity test framework. Using test case templates, it allows for the integration of cybersecurity tests into the development process to identify and mitigate weak points.

Additionally, the new SCALEXIO Essential system expands the SCALEXIO real-time platform. It is designed for the validation of edge ECUs for mechatronic applications in the automotive, agricultural, and construction machinery sectors. The system includes a software package and is intended as a cost-efficient entry point for HIL testing.

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Greaves Cotton has appointed Santosh Singh as Chief Strategy and AI Officer. He will be based in Mumbai and will lead strategy, transformation, AI-led enterprise capability building and business excellence for the Greaves Cotton Group.

Singh comes with over two decades of experience in strategy, business excellence, innovation, and AI-led enterprise transformation. He joins Greaves Cotton from Tata Technologies (TTL), where he served as Global Head – Marketing and Business Excellence. During his tenure there, he co-led the enterprise GenAI roadmap and developed use cases focused on customer engagement and productivity.

His primary mandate is to drive the Greaves.NEXT strategy, the company’s roadmap for growth across the energy, mobility and industrial solutions sectors.

In his new role, Singh will focus on accelerating growth for Greaves Technologies (GTL), developing an enterprise-wide AI roadmap, and establishing partnerships with hyperscalers and AI labs.

Parag Satpute, Managing Director & Group CEO, Greaves Cotton, said, “We are pleased to welcome Santosh to the leadership team. His extensive expertise in strategy, digital transformation, and AI will play a significant role in shaping Greaves’ next phase of growth. His global experience will further strengthen our innovation roadmap and support our long-term business priorities.”

Singh will also work across business units to incubate and scale growth vectors and lead business excellence initiatives.

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