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Knowledge Based Engineering
Engineering Enterprise Enablement – Automation & Technology
Automated framework for higher productivity, knowledge retention, and improved design process
Engineering Analytics – Improve operational efficiency, optimize development life cycle and improve time to market.
Cost Efficiency
Identification of inefficient processes; benchmarking of SG&A costs compared to industry peers/best practices; assessment and quantification of improvement effects; support with implementation.
Business Process Transformation
Project governance, clear reporting and meeting structures and operational support to implement transformation programs and adapt the organization during execution while ensuring full transparency and aligned communication.
Delivering business success
Accelerating the transformation to software – defined vehicles
This particular scenario involves an extensive Finite Element Analysis (FEA) investigation, focusing on assessing the structural performance and refining the design of a truck frame. Employing advanced simulations, the objective was to bolster load-bearing capability, minimize weight, and enhance overall efficiency.
The main goals of this Finite Element Analysis (FEA) was to evaluate the structural integrity of the vehicle in frontal collisions, assess the performance of restraint systems, and offer guidance for design improvements to comply with Euro NCAP standards. LS-DYNA, renowned for its explicit dynamics features, was utilized to simulate the complex interactions in a controlled frontal crash scenario, enabling a thorough investigation of forces, deformations, and safety measures for occupants.
The aerodynamic characteristics of a vehicle play a crucial role in its fuel efficiency, stability, and overall dynamics. This project offers an intricate Computational Fluid Dynamics (CFD) investigation centered on the external airflow around an automobile. By conducting extensive simulations, the objective was to assess aerodynamic forces, pinpoint regions contributing to drag, and suggest design enhancements to boost vehicle performance and efficiency.
Effective and dependable pump operation is essential for numerous industrial applications. This research presents a thorough Computational Fluid Dynamics (CFD) investigation into the internal flow dynamics of a pump, employing Fluent software. The aim was to comprehend fluid dynamics, pressure distribution, and overall performance attributes within the pump to refine its design for improved efficiency and reliability.
This project details an extensive Computational Fluid Dynamics (CFD) examination of the internal airflow within a vehicle cockpit, utilizing Fluent software. The objective was to grasp airflow patterns, temperature distributions, and occupant comfort levels, with the aim of refining the cockpit design to enhance aerodynamics and thermal regulation.