Embedded World 2025

The all-in-one solution for a large market sector (non-AUTOSAR automotive and many more). Validated safety and cybersecurity. Save time. Enhance quality.
Experience the future of development with Hitex. This comprehensive package integrates certified drivers and middleware, solution-oriented services, and full integration support, ensuring functional safety (SIL3) and cybersecurity compliance. Including the basis for requirements such as assumptions of use, compliance package, and safety analysis, our solution consolidates all your needs in one place, saving significant development resources without compromising on quality. With ready-to-use MATLAB/Simulink modules and the certified drivers model-based development of safe code is possible. Backed by our extensive experience with customers in over 100 projects and advanced capabilities, Hitex's solution empowers you to reduce complexity, save time, and enhance the quality of your development process. Hitex SafeTpal is deliberately designed for applications without Autosar use or industrial applications - for AUTOSAR applications Hitex offers the proven SafeTpack!

The PSOC™ Edge "rocket ship lander" demo showcases an interactive game built with the PSOC™ Edge MCU. Players control a descending rocket using hand wave gestures to avoid obstacles and land safely, with game graphics displayed on a 10-inch screen.
This demo highlights the PSOC Edge’s compute capabilities, utilizing the Cortex®-M55 with Helium DSP for game logic and the Ethos™-U55 CPU for machine learning tasks. Hand gestures are detected by the Infineon XENSIV™ 60GHz radar sensor (BGT60TR13C), with gesture data processed via a machine learning model using Imagimob and ModusToolbox.
The game features advanced HMI capabilities for visual elements, with visuals rendered on a 10-inch display through the PSOC Edge’s MIPI DSI interface. Users can navigate the game’s intuitive menu via touch or radar gestures, simulating next-generation HMI. Light and Versatile Graphics Library (LVGL) software provides the embedded graphics enablement.

A demo of a railroad infrastructure is presented that includes a level crossing, position sensors, and a fault injection function. The control system is responsible for monitoring the sensors and controlling the crossing.
The products used in this project include the AURIX TC4x processor in combination with a redundant AURIX TC3x processor, the TLF35584 power management IC and the TRAVEO II microcontroller. In addition, software components such as the Infineon MCAL (Microcontroller Abstraction Layer), the Hitex SafeTpack and a graphics framework are used.
A trained neural network is implemented on the AURIX TC4 processor in the PPU (Peripheral Processing Unit), which analyzes the sensor data from the position sensors and uses it to determine the position of the train. This makes it possible to detect incorrect sensor data and helps to increase safety.

Autonomous activities on Secure Firmware to achieve Functional Safety Goals

As the need for data security increases, the use of ArmV8 controllers in embedded systems is on the rise. Arm TrustZone provides process isolation, memory protection, secure boot and real-time capability according to the PSA framework, but also affects functional safety systems.
For example, systems with different Safety Integrity Levels (SIL) must prove the independence of software components. Traditional systems integrate functional safety into standard software on microcontrollers, where spatial process separation is achieved through specified memory and limited temporal separation.
TrustZone can be used for process isolation by placing safety-relevant software in the secure area, supported by Secure Boot and Secure Storage. The software architecture must ensure that all security-relevant methods are fully applied and cannot be bypassed even if the application software is faulty.
In order to provide better testability, higher safety, better integration and more flexibility, Hitex has developed self-test libraries (STL) for ArmV8 controllers that perform tests in a structured manner in the secure area. Using the Hitex STL offers the following advantages over traditional methods

• Improved process isolation
• Automated and structured testing
• Flexibility and adaptability
• Ensuring completeness of safety measures

Download our application note Autonomous activities on Secure Firmware to achieve Functional Safety Goals.

The newly developed AURIX TC4x Control Board in SO-DIMM form factor, designed to be mounted on an AURIX TC4x Carrier Board, represents a significant advancement in embedded system solutions. This innovative control board leverages the powerful capabilities of the AURIX TC4x microcontroller, known for its robustness, high performance, and versatility in automotive and industrial applications.
When integrated with an AURIX TC4x Carrier Board or a user defined Carrier Board, the control board benefits from enhanced connectivity and modularity. The modular approach not only simplifies the development process but also allows for scalability and future upgrades, making it a future-proof solution for evolving technology requirements.
The combination of the AURIX TC4x Control Board with the Carrier Board ensures a robust and reliable platform, designed to meet time-to-market developments in an early project stage.

Projects according to the highest safety standards such as SIL-4 or ASIL-D require precise planning, complete documentation and a clear test and verification strategy.
Unfortunately, in practice, the testing and verification effort is sometimes massively underestimated - resulting in project delays, additional costs and customer frustration. How a test strategy for hardware-in-the-loop (HIL) tests can also reduce these risks during development is demonstrated using a specific project in the field of railroad signaling (CENELEC/SIL4). These strategies can also be transferred to ISO 26262 ASIL-D and IEC 61508 SIL4.
Based on the development process, the measures taken are discussed and practical tips are given.

Speaker: Michael Weiss, Senior Account Manager
Date: Wednesday, March 12; 10:00-10:30 in Session 3.4: Safety & Security. Qualifying Safe Embedded Systems

The Testtool TESSY performs automated dynamic module / unit and integration testing of embedded software in C/C++. New in 2025 is, that Razorcat, as a member of the AUTOSAR consortium, enhances the development and testing of AUTOSAR SWCs with TESSY. The AUTOSAR runtime environment (RTE) for software components (SWC) will be automatically generated based on the ARXML file, with various consistency checks applied to the implementation code or dynamically during tests. TESSY will display the C code interface alongside AUTOSAR port interfaces for easy stimulation and testing. SWC ports and interfaces will be accessible within TESSY's testing interface and test data editor, allowing seamless provision of test data through the graphical interface.

Immerse yourself in the world of motor control with our co-exhibitor MOTEON, the premier specialist in mechatronic motor control solutions.
MOTEON empowers you to accelerate your development with comprehensive, end-to-end solutions. From control and system solutions to embedded software plug-in solutions, motor design and prototyping, and test automation, MOTEON offers a seamless, one-stop-shop experience.

Mobile Motor Test Bench – Revolutionizing Motor Control Test Automation with OfficeFit Technology by MOTEON

In the fast-paced world of motor application development, adaptability is key. The Mobile Motor Test Bench (mMTB) is a game-changing solution that streamlines the testing process, ensuring developers can debug and verify their software and hardware for embedded motor control applications quickly and safely. This compact, modular test bench boasts high safety standards and can be set up in under an hour, even in office environments, thanks to its innovative OfficeFit Technology.
With the mMTB, automated testing is possible in a fraction of the time, saving up to 97% of the time spent on semi-manual testing. Its remote accessibility and compact design make it the perfect tool for simplifying verification workflows.

MOTIX™ Motor Control Software – Unlocking the Full Potential of BLDC/PMSM Motor Applications

Take your motor control solutions to the next level with the MOTIX™ Motor Control Software, designed to complement Infineon's MOTIX™ low-voltage motor control solutions for BLDC motor applications. This powerful software library enables users to define and control the functional performance of their motor control solutions with ease, thanks to its modular architecture and platform.
With the MOTIX™ Solution Designer, users can optimize their solutions using static and dynamic parametrization, while the integrated oscilloscope facilitates rapid debugging. The latest version, v2.0, offers unparalleled scalability in motor control software development, featuring groundbreaking features such as closed-loop start via current-waveform analysis, windmilling with catch on fly, field-weakening, and maximum-torque-per-current. Experience the future of motor control with MOTIX™ Motor Control Software.