THE AUTOMOTIVE COMPUTER-AIDED ENGINEERING (CAE) CONFERENCE 
Automotive CAE: Innovations and Impact on Modern Vehicle Development
May 22, 2025 VIRTUAL CONGRESS (Eastern Daylight Time)

Join us for the Automotive Computer-Aided Engineering (CAE) Conference, a premier gathering for industry professionals, researchers, and enthusiasts dedicated to advancing the field of automotive engineering through innovative CAE methodologies. This conference will bring together leading experts, practitioners, and thought leaders to explore the latest trends, technologies, and challenges in automotive design and development.

The automotive industry is undergoing a significant transformation driven by the integration of advanced technologies, including electrification, automation, and connectivity. CAE plays a critical role in this evolution by enabling manufacturers to simulate, analyse, and optimize vehicle performance throughout the development cycle. This conference aims to address key topics such as virtual prototyping, predictive modelling, and the use of artificial intelligence in CAE processes.

This conference is an invaluable opportunity for automotive engineers, researchers, and professionals to stay at the forefront of the industry, share knowledge, and collaborate on innovative solutions that drive progress in automotive design and engineering. Join us in shaping the future of automotive technology through the power of Computer-Aided Engineering!

Key topics on this year’s agenda include:

  • Data Integration Strategies: Managing the integration of diverse data sources such as CAD, CAE, and testing systems is crucial for automotive development. Effective workflows, tools, and practices help maintain data integrity and transform large datasets into actionable insights that drive innovation.
  • Elevating Data Quality: Ensuring data accuracy is essential for reliable decision-making in automotive CAE. Inconsistencies or errors in data can compromise analyses and designs, making data quality management a key factor for successful engineering outcomes.
  • Enhancing Model Accuracy: Accurate simulation models are essential for reliable real-world application in automotive CAE. Validation with robust experimental data ensures the accuracy of these models, reducing errors introduced by necessary simplifications in modelling processes.
  • Overcoming Skill Gaps: As CAE software grows in complexity, continuous training and knowledge transfer within teams are critical. Addressing skill shortages and ensuring retention of expertise are essential for maintaining high model accuracy and tool effectiveness.
  • Regulatory Compliance: In automotive design, compliance with safety and environmental standards is crucial. Accurate modelling and documentation practices help ensure adherence to changing regulations while enhancing overall design integrity.
  • Real-Time Simulation and Analysis: Accelerating development cycles requires achieving model accuracy alongside rapid simulations. Balancing the speed of simulation-driven design with physical testing ensures reliability while meeting the demand for faster product development.
  • Integrating Emerging Technologies: Adoption of AI, machine learning, and digital twins into CAE workflows is vital for future innovation. Continuous learning and adaptation to emerging technologies enhance efficiency, driving innovation in automotive design and development.
  • IT Fragmentation and Integration: Addressing the challenges of fragmented IT systems in product development fosters better collaboration and streamlines workflows. Unified systems help reduce redundancies, enhancing efficiency and speeding up time-to-market.
  • Sustainability in CAE: CAE tools play a pivotal role in developing eco-friendly automobiles by enabling the design of lightweight and energy-efficient vehicles. Simulations optimize material use and reduce emissions while meeting performance and regulatory standards.
  • Digital Twin Technology: The use of Digital Twins in CAE enhances product development by simulating real-world performance and predicting failures. This technology reduces testing costs and bridges the gap between virtual simulations and physical applications.

 

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