AdaCore
This article discusses the growing cybersecurity risks in the automotive software supply chain due to increased connectivity and software dependence in vehicles. It highlights the complexity of securing this supply chain, which includes various third-party components and systems that may have vulnerabilities, and emphasizes the importance of moving beyond mere regulatory compliance to continuous security assurance.
Learn how NVIDIA tackled cybersecurity challenges by switching from C/C++ to SPARK, enhancing software security and reliability. This case study offers actionable insights for adopting SPARK to strengthen your defenses against cyber threats.
What makes autonomous vehicles truly safe? It all comes down to secure software. Discover how SPARK programming and ISO 26262 standards play a pivotal role in safeguarding the future of self-driving cars.
This article discusses the increasing complexity of software in the automotive industry and the resulting safety challenges. It highlights the importance of the ISO 26262 standard for functional safety and the benefits of formal verification methods, particularly the SPARK language and tool suite.
Explore how Ada, SPARK, and Rust address critical memory safety challenges in this whitepaper from AdaCore. Memory safety issues account for over 70% of security vulnerabilities in major tech systems, making robust solutions essential. This paper discusses common bugs like out-of-bounds writes and null pointer dereferences, and demonstrates how the unique features of these programming languages significantly reduce risks and enhance system reliability. Discover how adopting these memory-safe languages can fortify your software against pervasive security threats, enabling you to develop complex systems with greater confidence and security.
