Defending Advanced Driver Assistance Systems (ADAS)
Industry: Automotive
Advanced Driver Assistance Systems (ADAS) enhance safety using sensors, cameras, radar, and complex software. Examples of ADAS include lane keeping assist, which centers the vehicle in its lane; traffic jam assist, which manages speed and steering in slow traffic; and automated emergency braking, which prevents collisions. Specific safety features such as Forward Collision Warning with Autobrake have reduced front-to-rear collisions by 50% and injuries by 56%.
Challenge
Advanced Driver Assistance Systems that are written in languages like C or C++ are at risk of memory safety vulnerabilities like buffer overflows, dangling pointers, and potential exploitation and software crashes due to improper memory handling. Memory safety vulnerabilities in an automotive software pose a significant safety risk because a successful attack could alter sensor data or decision-making algorithms, endangering the vehicle’s safety. For example, memory corruption in sensors could result in incorrect object detection, leading to collisions or other dangerous situations.
“From our perspective, adding RunSafe means we have more opportunity to shrink the attack surface and reduce overall risks for our customers since security is now already built into our product.”
Key Features:
Protect Vehicle Safety and Security
Comply with Automotive Regulations
Enable New Automotive Technologies
Solution
RunSafe offers a memory-based cybersecurity solution designed to keep ADAS safe and secure against known and unknown vulnerabilities.
Key features of RunSafe’s solution include:
- Protect Vehicle Safety and Security
Fortify critical systems like braking and steering against cyber attacks. Millions of lines of code create a large attack surface. RunSafe provides automated cybersecurity protection from source to runtime, reducing vulnerabilities and enhancing vehicle safety.
- Comply with Automotive Regulations
Accelerate compliance with increasing regulatory requirements. RunSafe’s cybersecurity measures are easily integrated and support existing automotive safety standards (such as ISO/SAE 21434 and ISO 26262), improving compliance and enhancing the overall safety of vehicle systems.
- Enable New Automotive Technologies
Strong cybersecurity measures are essential for implementing emerging automotive technologies at scale. RunSafe’s solution continuously monitors automotive embedded software systems for potential threats, identifying and mitigating risks before they can impact vehicle safety and operation.
Examples
Enhancing vehicle safety: RunSafe offers collaboration with automotive companies to ensure the safety of autonomous vehicles. By implementing cybersecurity measures that comply with ISO 26262 standards, RunSafe can help protect autonomous systems from cyber threats, ensuring their safe operation.
Securing telematics and communication systems: RunSafe stands ready to partner with automotive manufacturers to secure telematics and communication networks within connected vehicles. By implementing RunSafe’s advanced cybersecurity solutions, automotive manufacturers can protect against potential cyber threats, ensuring the safe and efficient operation of their fleets.
Latest Resources
Converting C++ to Rust: RunSafe’s Journey to Memory Safety
Memory safety vulnerabilities are one of the biggest challenges we face as developers. For years, we’ve relied on C++ as a trusted workhorse for building complex systems. But managing memory manually in C++ brings constant risk of bugs that jeopardize security and...
What Is Load-time Function Randomization? Beyond ASLR
Modern software is facing major cybersecurity challenges, with memory safety vulnerabilities being one of the biggest risks. Even with billions invested in advanced security tools, attacks targeting memory vulnerabilities are still common. Studies show that up to 90%...
What Is Runtime Exploit Prevention? Securing Embedded Software with RASP
Critical infrastructure today is powered by software. The need to secure millions of lines of code in embedded systems deployed in ICS/OT environments, the automotive industry, defense, and more has never been more urgent. Embedded systems in these industries often...