Simulation Topics

Learn how multiphysics simulation is used to analyze the complex interactions between simultaneous physical phenomena in a system.

Learn about finite element analysis (FEA), how finite element modeling works, and how it’s used in engineering applications.

Learn what computational fluid dynamics (CFD) is and how it’s used across different industries. 

Learn how lidar is used in applications like autonomous vehicles and how it’s different from other AV technologies.

Read to learn about what a Heads-Up Display (HUD) is, how it works, the applications, benefits and more.

Explore ADAS, its role in enhancing safety, and the technology that defines the future of safe driving.

Photonics is a multidisciplinary domain that involves the generation, control, manipulation, and detection of light.

Silicon photonics is developing into mainstream tech to speed communication and computing by merging silicon electronics and photonics on one chip.

This guide to nanophotonics will help you understand the fundamental principles and plenty of practical applications of nanophotonics.

Learn about the different types and applications of plasmonics, including novel metamaterials, plus insights into the future of plasmonics.

Explore PCB design: what they are, how they function, and the techniques used to build these essential components in modern electronics.

Read about what Augmented Reality (AR) is and how it works, and learn about AR examples, types of AR and more.

Learn about virtual reality (VR), how it works, the different types of VR, and how it’s being used across industries and applications.

Read about the different types of stray light, issues it can cause, and how it is measured.

Learn about the purposes and functions of automotive exterior lighting, the unique challenges in designing them, and the tools that can help.

Learn more about how a CMOS image sensor has enabled many imaging applications, from tiny digital smartphone cameras to Earth observation sensors on satellites.

Learn the fundamentals of signal integrity in the context of electronics engineering, particularly PCBs, and how engineers rectify identified problems.

Learn about ASIC design and delve into advanced integrated circuits and unlock their transformative potential.

A mixed-signal integrated circuit combines analog and digital components onto a single semiconductor chip. 

Learn about Analog Integrated Circuits (ICs) and explore their multifaceted functionality and pivotal role in advanced electronics.

The materials characterization process helps you choose the best materials and design — and discover the root causes of any product failures.

Advanced semiconductor packaging is a collection of manufacturing processes combining multiple semiconductor chips into a single electronics package. 

Learn what nodal analysis is with helpful examples, why it's important, and the six steps used to perform a nodal analysis.

Electrical engineers can apply S-parameters to a wide range of engineering designs. Learn about S-parameters, their purpose, measurement process, and different types.

Understanding how the interaction of fluids and structures impacts your project requires a solution that accurately predicts and integrates both behaviors.

Find out about RTL design, its role in integrated circuit design, the steps involved in RTL design flow, and how it applies to semiconductor chips.