This station will be a key tool for BUT in testing and developing automotive technologies, including simulations of vehicle behaviour and analysis of camera and lidar data. Configuration of the supplied equipment:

• 2x Intel Xeon Gold 5420+ processors, optimized for demanding computational tasks and multitasking

• 2×2TB SSD storage and 2x6TB 7200 RPM HDDs for extensive storage capacity

• 2x NVIDIA RTX A5000 graphics card with 24GB GDDR6 memory for ultimate graphics performance

• 1,024GB DDR5 4800MHz ECC Registered RAM for huge storage capacity

• LAN 10G PCIE network card for ultra-fast network connectivity

The Lenovo ThinkPad P16 Gen 2 and Lenovo ThinkPad P16s Gen 2 mobile workstations were selected for their performance and mobility. They feature 13th generation Intel® Core™ processors and support NVIDIA® RTX™ graphics. They offer a powerful combination of fast memory and storage, and a choice of displays, including OLED touchscreens. The laptops are spill-resistant, feature Dolby Atmos® and Dolby Voice® technologies for high-quality audio, and offer over-the-shoulder unwanted gaze detection with a hybrid infrared camera.

At the same time, Lenovo hasn't compromised on security here. The device is protected by ThinkShield technology, which includes a dedicated Trusted Platform Module (dTPM) chip for data encryption, a biometric fingerprint reader for easy one-touch login, and a self-correcting BIOS that can restore previous system settings. Your mobile workstation and data are safe wherever you are.

28+1 PC

GT-SUITE is an engineering simulation software package used to model and analyze systems in automotive and other industries. This software allows users to perform complex analyses of thermodynamics, hydraulics, pneumatics, electromechanics and many other systems within one integrated platform.

GT-SUITE provides a range of tools for simulating and optimizing various components and systems such as engines, transmissions, cooling, air conditioning, fuel systems and electrical systems. With these tools, engineers can better understand the performance and efficiency of systems, anticipate potential problems, and test new designs before real production.

Matlab Simulink is a very useful tool in the automotive industry, especially for modeling, simulation and development of control systems and components. Here are some ways you can use it effectively:

1. Modeling and simulation of vehicle dynamics - Simulink allows you to model the physical and mechanical properties of vehicles such as chassis, drivetrain, braking system, and aerodynamics. This helps engineers analyze the behavior of vehicles under different operating conditions.

2. Develop and test control systems - Use Simulink to design and test control algorithms for various vehicle systems such as adaptive cruise control, lane keeping systems, and autonomous driving. This includes integration with hardware components through Hardware-in-the-Loop (HIL) simulation.

3. Engine optimization and calibration - Simulink is used to optimize engine performance, emissions and fuel consumption. You can model combustion processes and calibrate electronic control units (ECUs) for optimal results.

4. Battery management for electric vehicles - Developing effective battery management systems is key for electric vehicles. Simulink allows you to simulate and optimize the management of battery charging and discharging, extending battery life and increasing overall vehicle efficiency.

5. Sensor and actuator integration and testing - Modeling and simulation of various sensors (e.g. ultrasound, radar, camera) and actuators can be performed in Simulink, allowing for accurate testing and verification of their function prior to implementation in the vehicle.

6. Rapid prototyping and auto code generation - Simulink supports rapid prototyping and code generation, allowing engineers to quickly convert models and algorithms into real code that can be used in automotive systems. This reduces the development cycle and improves efficiency.

7. In-car communications and networking - Simulink provides tools for modeling and simulating in-vehicle communication systems such as CAN bus, LIN and Ethernet, which are key to ensuring reliable and secure data transfer between different vehicle components.

The Siemens AMESIM (Advanced Modeling Environment for Simulation of Engineering Systems) software is an advanced simulation tool for modeling and analysis of complex multiphysics systems. This software is widely used in various engineering industries such as automotive, aerospace, rail, energy and others. The main application areas and functions of Siemens AMESIM software are listed below:

1. Multi-physics modelling: AMESIM allows modelling and simulation of systems that span different physical domains such as mechanics, electricity, hydraulics, pneumatics, thermal dynamics and more. Users can create complex models that include interactions between these domains.

2. Dynamic simulation: the software provides tools to simulate the dynamic behavior of systems over time. Users can analyze the time-dependent behavior of components and systems, which is crucial for developing and optimizing engineering solutions.

3. Virtual prototyping: AMESIM enables the creation and testing of virtual prototypes, reducing the need for physical prototyping and accelerating the product development process. Engineers can evaluate different design concepts and optimize them before manufacturing physical prototypes.Konec formuláře

4. System optimization: the software provides advanced optimization algorithms that enable users to identify optimal design solutions based on multiple criteria, such as efficiency, energy consumption, performance, and cost.

5. Control system Simulation: AMESIM supports the modeling and simulation of control systems, making it a valuable tool for the design and testing of automatic control and regulation systems. Users can integrate control algorithms into their models and evaluate their performance under various operating conditions.

6. Integration with other tools: AMESIM is designed to integrate seamlessly with other engineering software and simulation tools. This enables a multidisciplinary approach to the analysis and optimization of complex systems.

7. Energy efficiency analysis: the software provides tools for analyzing and optimizing the energy efficiency of systems, which is essential for the development of environmentally friendly and energy-efficient solutions.

8. Component libraries: AMESIM includes extensive libraries of predefined components and models, enabling users to quickly and efficiently build models of their systems.

Overall, Siemens AMESIM is a powerful tool for engineers and developers who require detailed modeling, simulation, and optimization of multidisciplinary physical systems. It enables faster and more efficient development of innovative technologies and products by supporting comprehensive system analysis and design.

Catia, the CAD/CAM/CAE software from Dassault Systèmes, is one of the most widely used tools in the automotive industry due to its advanced 3D modelling, simulation and product process integration capabilities. Here are some of the key areas where Catia brings significant benefits to the automotive sector: 

Comprehensive design and modeling - Catia enables detailed design of automotive parts and assemblies, from vehicle bodies, interiors and exteriors to complex components such as engines and transmissions. It allows engineers to create, modify and optimize 3D models with high accuracy.

PTC Creo is an advanced CAD (Computer-Aided Design) software widely used in the automotive industry for the design, simulation and analysis of automotive parts and systems. Here are some of the main uses of PTC Creo in this sector:

1. Component design and modeling: PTC Creo provides comprehensive 3D modeling tools that enable engineers to design complex parts and assemblies. These include a wide range of components, from engines, transmissions, and braking systems to complete vehicle bodies.

2. Prototyping and testing: The software enables the creation of accurate 3D models that can be used for additive manufacturing (3D printing) and rapid prototyping. This accelerates the testing and validation of design concepts before the start of serial production.

3. Design for Manufacturability (DFM) Optimization: Creo includes Design for Manufacturability (DFM) tools that help engineers optimize designs for easier, faster, and more cost-effective manufacturing.

4. Interference and assembly analysis: Creo enables to perform interference detection and assembly analysis, ensuring that all vehicle components fit together correctly and that the overall assembly process is efficient and free of potential issues.

5. Collaboration and Feedback: Creo supports team collaboration and integration with Product Data Management (PDM) and Product Lifecycle Management (PLM) systems. This enables engineering teams to efficiently share, manage, and update design data, improving communication and reducing design errors.

 Overall, PTC Creo is an essential tool for the automotive industry, providing a       comprehensive solution for the design, testing, and development of vehicles and their components. 

The HEXAGON - ADAMS (Automated Dynamic Analysis of Mechanical Systems) software is a specialized tool used for simulation and analysis of the dynamic behaviour of mechanical systems. This software is widely used in various fields of engineering, especially in the automotive, aerospace, mechanical engineering and manufacturing industries. The main areas of application and functions of the HEXAGON - ADAMS software are listed below:

1. Dynamic simulation: ADAMS enables the simulation of motion and the dynamic forces acting on mechanical systems. Users can analyze the movement of machine and equipment components, evaluate interactions between individual parts, and study their dynamic behavior and performance.

2. Kinematic and kinetic analysis: the software provides advanced tools for the analysis of kinematics (motion characteristics) and kinetics (forces and moments) of mechanical systems. Users can model complex mechanical systems and perform analyses to optimize their performance.

3. Virtual prototyping: ADAMS enables the creation of virtual prototypes, significantly reducing the time and costs associated with physical prototyping. Engineers can test, evaluate, and optimize their designs in a virtual environment before producing physical prototypes.

4. Strength and fatigue analysis: the software provides advanced tools for the analysis of material strength and fatigue, which are essential for ensuring the reliability, durability, and safety of mechanical systems.

5. Multidisciplinary analysis: ADAMS supports integration with other engineering software for multidisciplinary analysis. This includes integration with tools for structural analysis, thermal analysis, computational fluid dynamics (CFD), and other engineering simulation applications.

6. Design optimization: due to advanced optimization algorithms that enable users to identify optimal design solutions for mechanical systems based on multiple design objectives, such as minimizing weight, maximizing structural strength, or improving dynamic performance.

7. Real-time simulation: Some versions of ADAMS support real-time simulation, making them suitable for testing and validating control systems as well as for interacting with physical prototypes in Hardware-in-the-Loop (HIL) testing environments.

Overall, Hexagon ADAMS is a powerful engineering tool for engineers and designers who need to perform detailed analyses and optimization of mechanical systems 

IPG CarMaker is an advanced simulation software platform designed for the development, testing, and validation of automotive systems and vehicles. It is widely used in the automotive industry to simulate and verify vehicle behavior under a wide range of operating and environmental conditions. The main application areas and key functionalities of IPG CarMaker are summarized below:

1. Vehicle dynamics simulation: IPG CarMaker enables detailed simulation of vehicle dynamics, including the analysis of vehicle motion, stability, handling, and behavior during various driving maneuvers. These capabilities are essential for the development, validation, and optimization of chassis systems.

2. Virtual testing and validation: IPG CarMaker enables virtual testing and validation of vehicles and their components, reducing the need for physical testing and shortening the development cycle. Engineers can simulate a wide range of scenarios and conditions, including different road surfaces, weather conditions, and driving situations.

3. ADAS (Advanced Driver Assistance Systems) development and testing: IPG CarMaker is widely used for the development and testing of Advanced Driver Assistance Systems (ADAS), including adaptive cruise control, autonomous braking, lane-keeping assistance, and other driver assistance functions. The simulation environment enables these systems to be tested safely and efficiently under controlled and repeatable conditions.

4. Electric and Hybrid powertrain simulation: IPG CarMaker supports the simulation of electric and hybrid powertrains, making it an essential tool for the development of modern electrified vehicles. Users can model, analyze, and optimize electric propulsion systems, battery packs, regenerative braking systems, and other key vehicle components.

5. Hardware-in-the-Loop (HIL) and Software-in-the-Loop (SIL) Testing: IPG CarMaker supports the integration of physical hardware components into the simulation environment through Hardware-in-the-Loop (HIL) testing, as well as the testing of software control units using Software-in-the-Loop (SIL) methodologies. These capabilities enable the validation and verification of both hardware and software in a realistic virtual environment.

6. Scenario and environment simulation: IPG CarMaker enables the creation and simulation of a wide range of driving scenarios and environments, including urban, suburban, and highway conditions. Users can evaluate vehicle behavior in various situations, such as traffic accidents, emergency maneuvers, traffic jams, and other complex driving scenarios

7. Fuel consumption and emissions optimization: IPG CarMaker provides tools for analyzing and optimizing vehicle fuel consumption and emissions, supporting the development of environmentally friendly vehicles that comply with the strict emission regulations.

8. Support for multiple vehicle types: IPG CarMaker supports the simulation of a wide variety of vehicle types, including passenger cars, commercial vehicles, buses, and special-purpose vehicles. Users can model, simulate, and evaluate the performance of different vehicle classes under various conditions.

Overall, IPG CarMaker is a powerful engineering tool for automotive engineers and developers who require detailed simulation, testing, and optimization of vehicles and their systems. It supports faster, more efficient, and safer vehicle development through comprehensive virtual validation and performance analysis.