Concerns about chip and system security are growing, especially in the auto sector due to overlaps in safety and security, and the increasing value of algorithms in complex systems.
Implementing security measures varies across designs, causing challenges in developing consistent tools and methodologies for effective security.
Semiconductor designers often prioritize power, area, and performance over security, leading to a lack of awareness and knowledge about designing for security.
There is a disconnect between security experts' recommendations and design teams' actions, with security often considered an add-on technology in semiconductor design.
The automotive industry stands out for prioritizing security standards, driven by safety concerns and the industry's focus on ensuring passenger safety and protecting brand reputation.
Global regulations are pushing for enhanced security measures in semiconductor designs, creating demand for certified secure solutions and application notes.
Security measures in chip and system design are crucial as the value of assets, like machine learning models, increases, necessitating robust security measures in the supply chain.
While automotive industry is advancing security standards, some edge devices in other markets lack robust security measures, making them vulnerable to cyber threats.
Consumers often lack understanding about security in devices, contributing to the lack of demand for built-in security features, resulting in a race to the bottom in terms of device security.
Security should be integrated into semiconductor designs early on to achieve defense in depth, ensuring multi-layered protection against security breaches.
EDA tools play a significant role in identifying security risks and suggesting fixes in semiconductor designs, similar to addressing DFT, power, and safety challenges.