A side-channel attack (SCA) is a security exploit that attempts to extract secrets from a chip or a system. This presentation will give an overview of some of the most common types of SCA and highlight the countermeasures that designers can implement to diminish risk in low-power IoT designs.
Securing MCUs with SCA Protection in IoT Designs
Cybersecurity: A Top Priority for the Automotive Industry
Automotive systems, and the semiconductors used within them, are some of the most complex electronics seen today. That complexity is set to dramatically rise as cars reach new levels of automation. This presentation will explore how designers can navigate the delicate balance between achieving new levels of performance and automation, while meeting the safety and security requirements unique to the automotive industry.
The Convergence of MACsec and IPsec in Data Center Silicon Designs
Data centers continue to adopt full line-rate security at various levels and use cases. Layer 2 (MACsec) and Layer 3 (IPsec) protocols are used to protect either full links or specific subnets or even customer-driven virtual networks. The integration of multiple security protocols is becoming an important requirement for data center silicon that aims to support multiple use cases. Join Maxim Demchenko to learn about the requirements for adding MACsec/IPsec into data center silicon designs.
Inline Memory Encryption to Enable Confidential Computing for Data Center Designs
There is a growing industry consensus on the imperative of incorporating memory encryption in computing architectures for protecting data in use. Designing and implementing a secure memory encryption system can be complex and comes with unique challenges from both the memory and security technology perspectives. Join Ajay Kapoor to learn how memory encryption can be used in your next data center design to enable confidential computing.
Securing the Semiconductor Supply Chain with Silicon Provisioning and Cloud Key Management
The semiconductor industry is the lifeblood of the digital economy. The design, manufacturing and consumption of chips is a global ecosystem, and competition is fierce as scaling and cost reductions based on Moore’s law are diminishing. Counterfeit and other unauthorized chips create real risks in areas of reliability, functionality, performance and safety. This presentation will discuss how semiconductor companies can protect their IP and business by securely provisioning silicon, and the means to provide the ecosystem-wide capabilities needed to verify the identity and provenance of semiconductor devices.
Rambus Safeguards Accelerated Computing with FPGA-targeted Security IP
Highlights:
- Bring FPGAs with a state-of-the-art offering of security IP products
- Secures the broad range of FPGAs from high-performance accelerators to low-power, lightweight devices
- Supports FPGAs serving applications for the Data Center, Artificial Intelligence / Machine Learning, Edge, IoT, Defense, and more
SAN JOSE, Calif. – Aug. 22, 2023 – Rambus Inc. (NASDAQ: RMBS), a premier chip and silicon IP provider making data faster and safer, today announced a full suite of Security IP solutions for the FPGA market with state-of-the-art cryptographic, side-channel, and Quantum Safe protections. Designed to meet the unique needs of FPGAs, the offering secures the broad range of devices from high-performance accelerators for generative AI, to low-power solutions for IoT devices. Rambus security IP protects FPGAs serving applications in the Data Center, AI/ML, Edge, IoT, Defense, and beyond.
“As customer demand for security continues to accelerate, Rambus is dedicated to providing state-of-the-art security IP for the broad range of applications increasingly enabled by FPGAs,” said Neeraj Paliwal, general manager of Security IP at Rambus. “Our security IP solutions safeguard these FPGA devices now and in the future with Quantum Safe protection from PQC attacks.”
“In the increasingly distributed and accelerator-based computing architectures enabled by Intel FPGAs, it is mission critical to secure data and devices against today’s threats and those that arise with the advent of quantum computing,” said Premal Buch, vice president and general manager of Programmable Solutions at Intel. “We’re pleased to see Rambus offer security IP solutions tailored to FPGAs powering the growing landscape of accelerated computing.”
As part of the industry-leading portfolio, Rambus offers advanced FPGA targeted security IP products including root of trust, 800G MACsec, IPsec, classic and quantum safe public key encryption solutions. Leveraging pioneering work in differential power analysis (DPA) and fault injection attack (FIA) countermeasures, Rambus security IP delivers the highest levels of protection available against both cryptographic and side-channel attacks. With new Quantum Safe security IP products, Rambus futureproofs the protection of FPGAs for the coming Post Quantum Cryptography (PQC) era.
For more information about Rambus Security IP, please visit www.rambus.com/security.
