Quantum Safe IP: Hardware Level Security for the Quantum Computing Era
Quantum computers will enable us to solve complex problems faster than is currently possible on classical computers, but they also pose a serious security threat, placing important data and assets at risk. We have just announced our new family of Quantum Safe IP solutions, designed to protect hardware and data with quantum-resistant algorithms. Wondering what these algorithms are and why they are needed? Read on to find out more!
Powerful quantum computers will be capable of breaking public key-based cryptography, also known as asymmetric cryptography. Public key-based cryptography is used to protect everything from online communications to financial transactions. Leveraging Shor’s algorithm, quantum computers will be capable of breaking RSA (Rivest-Shamir-Adleman) and ECC (Elliptic Curve Cryptography) encryption – even data considered secure today is vulnerable!
Governments, researchers, and tech leaders the world over have recognized the quantum threat. Many initiatives have been launched throughout the world to develop and deploy new cryptographic algorithms, known as Post-Quantum Cryptography (PQC).
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Related Semiconductor IP
- Quantum Safe IPsec Toolkit
- Quantum Safe, ISO 21434 Automotive-grade Programmable Hardware Security Module
- Programmable Root of Trust with Quantum Safe Cryptography acceleration, DPA-resistant & FIA-protected cryptographic accelerators and Caliptra RoTM
- Programmable Root of Trust Family With DPA & Quantum Safe Cryptography
- Programmable Root of Trust with Quantum Safe Cryptography acceleration and DPA-resistant & FIA-protected cryptographic accelerators
Related Blogs
- The Post-Quantum Cryptography Mandate: Building Cryptographically Agile Systems for the Quantum Era
- What Are the Quantum Computing Threats to Security?
- Bringing IPsec into the Quantum Safe Era
- Evaluating the Side Channel Security of Post-Quantum Hardware IP
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