All IPs > Security IP > Security Subsystems
In the world of integrated circuits, Security Subsystems Semiconductor IPs play a vital role in ensuring the confidentiality, integrity, and authenticity of data. These subsystems are meticulously designed to be incorporated into larger systems, providing robust security features crucial for combating the ever-evolving cyber threats. They are essential for a wide array of applications, including IoT devices, automotive systems, and consumer electronics, which demand stringent security measures.
Security subsystems often include components such as encryption and decryption engines, secure boot mechanisms, key management systems, and hardware-based random number generators. These components work in harmony to secure data transactions and storage within an electronic device. By integrating such advanced security features directly into the silicon, device manufacturers can significantly enhance the overall security posture of their products.
Furthermore, these security IPs are not only about protecting sensitive data but also about ensuring device integrity. Features such as tamper detection, secure firmware update, and access control play critical roles in preventing unauthorized access and modifications. This is particularly important in sectors like automotive, where safety and privacy are paramount, and IoT, where devices are often part of a broader network and are susceptible to remote attacks.
Products in the Security Subsystems category offer versatile and scalable solutions that cater to varying security requirements. They are designed to address specific needs, whether it's for securing a smartphone, enabling safe digital payment services, or protecting a vehicle's communication protocols. By choosing the right security subsystem semiconductor IP, developers can build products that not only perform efficiently but also comply with the highest security standards in today's connected world.
KPIT's iDART platform revolutionizes the diagnostics and after-sales service landscape by integrating advanced software and AI-powered diagnostics. This comprehensive platform offers real-time vehicle data analytics, predictive maintenance, and seamless integration of diagnostic functions, improving first-time fix ratios. By enhancing traditional service models with innovative digital tools, KPIT enables more efficient aftersales processes and improved customer satisfaction.
PUFrt represents PUFsecurity's Hardware Root of Trust solution, delivering essential security functionalities like TRNG, UID, and Secure OTP, all within a robust anti-tamper framework. As the cornerstone of their security offerings, PUFrt is designed to remain tamper-resistant, ensuring that keys and sensitive data stay on the chip, thus binding system integrity to hardware-level security. Utilizing a 1024-bit PUF-based identification, along with the entropic power of a true random number generator, PUFrt creates an unyielding security foundation for varied applications, from simple hardware keys to complex security coprocessors. This technology protects against malicious reverse engineering and counterfeiting, while also offering customization options to fit diverse system requirements, enhancing the security value across industries. Feature-rich and versatile, PUFrt easily integrates into diverse architectures, allowing for its use in a broad array of applications. By partnering with leading chip designers and foundries, PUFsecurity ensures that PUFrt not only meets current security needs but is also prepared to handle future challenges, making it a pivotal component for companies aiming to maintain a secure digital environment.
eSi-Crypto offers a comprehensive suite of encryption and authentication intellectual property tailored for ASIC and FPGA applications. With low resource utilization and high throughput, the package includes True Random Number Generators (TRNGs), adhering to NIST 800-22 standards, available only as hard macros in target technologies. The IP cores can operate independently or interface through AMBA APB/AHB or AXI buses, supporting encryption algorithms such as CRYSTALS Kyber, ECC, RSA, and AES. By focusing on security, eSi-Crypto helps safeguard communications and data integrity, essential in today's digital landscape. The IP suite notably features advanced cryptographic algorithms, ensuring modern applications remain secured against evolving threats.
The Secure OTP (One-Time Programmable) solution by PUFsecurity elevates standard OTP technology by integrating anti-fuse memory and robust encryption techniques, ensuring the high-level protection of sensitive data. This sophisticated approach allows for secure data storage and management, even under duress from advanced attack methodologies. Secure OTP transforms how critical data like encryption keys and configuration states are stored, enabling devices to maintain data integrity during storage and transit. By encapsulating both physical macro implementations and digital RTL designs with intuitive control, Secure OTP allows seamless integration into a host of applications while safeguarding against unauthorized data extraction. The integration of diverse interface protocols makes Secure OTP adaptable to a wide range of industrial requirements. It stands as a robust defensive measure in the face of modern threats, offering reliability in an era where secure data storage solutions are more important than ever.
This innovative system combines voltage droop mitigation with fine-grained DVFS capabilities in a single integrated solution. Its exceptional observability stems from advanced telemetry features that provide critical insights into voltage behavior for optimized silicon management. Utilizing standard-cell design, it effectively responds to droop events with unprecedented speed, reducing voltage margins and enhancing power savings for system-on-chips (SoCs). This solution is robust across different process technologies, ensuring consistency in performance and feature reliability.
The Cramium Personal Hardware Security Module (PHSM) by CrossBar is a cutting-edge security solution designed to enhance the protection and management of digital assets within the crypto industry. Combining microcontroller technology with secure elements, Cramium PHSM delivers a robust security framework that outperforms traditional measures. The module is engineered to offer top-tier tamper-resistance, ensuring that sensitive keys and cryptographic data remain secure against physical and logical threats. Cramium PHSM is pivotal in redefining industry standards by integrating advanced protection mechanisms that cater specifically to the fast-evolving demands of cryptocurrency and blockchain applications. Its architecture is designed for adaptability and high performance, ensuring seamless integration into various systems and promoting secure, decentralized operations. Moreover, CrossBar is committed to providing open-source solutions that foster transparency and reliability in the digital asset space. The PHSM not only bolsters security but also enhances trust, thereby supporting open collaboration and innovation within the industry. By focusing on delivering secure and flexible solutions, the Cramium PHSM is set to play a crucial role in safeguarding digital assets and ensuring the integrity of next-generation secure computing systems. Overall, Cramium PHSM exemplifies CrossBar's forward-thinking approach in addressing the cybersecurity needs of modern technologies, reaffirming their position as leaders in secure memory component design. It supports global security standards, making it indispensable for developers and companies aiming to fortify their digital infrastructure against emerging cyber threats.
The AES Core by Green IP Core is designed for robust encryption standards in digital systems. This core provides advanced encryption standard (AES) operations, implementing secure encryption and decryption processes crucial for protecting sensitive information in today's digital age. With its efficient design, the AES Core ensures data security across various applications, including communications and financial systems. Engineered for flexibility, this core is compatible with a variety of bus systems and interfaces, allowing seamless integration with existing infrastructure. The AES Core can be synthesized across different FPGA platforms, making it an ideal choice for organizations that need reliable encryption solutions adaptable to diverse hardware configurations. Its versatility and compliance with established encryption standards make the AES Core a valuable asset for industries that demand high security. Whether dealing with sensitive data exchanges or protecting intellectual property, the AES Core provides an effective measure against unauthorized access and cyber threats.
The Securyzr iSSP, or Integrated Security Services Platform, provides a comprehensive security solution for devices throughout their lifecycle. It enables zero-touch security lifecycle services, including provisioning, firmware updates, security monitoring, and device identity management. The platform integrates Secure-IC's Root of Trust, ensuring robust system protection from chip-level threats. By combining strong hardware and software security measures, it ensures end-to-end protection for devices operating in various environments.
PUFsecurity's Flash Protection Series extends the security capabilities of their Hardware Root of Trust across an entire SoC, safeguarding a variety of flash memory resources. This series ensures that embedded and external flash memories, like NAND and NOR, are protected from attacks that jeopardize data integrity and privacy. Utilizing the security mechanisms embedded within their Hardware Root of Trust and Crypto Coprocessor, the Flash Protection Series provides a seamless security barrier for system architectures that rely heavily on flash storage for functionality. This security extends beyond the physical hardware to include software assets, ensuring complete system integrity against increasingly sophisticated threats. By applying PUF-based fingerprints across flash components, the Flash Protection Series establishes an expanded secure perimeter within devices. This approach not only protects firmware and sensitive software embedded in chips but also extends the formidable defense mechanisms of PUFcc across the SoC, demonstrating unparalleled security assurance for high-risk applications.
The FortiPKA-RISC-V is a highly specialized Public Key Algorithm coprocessor designed to streamline cryptographic operations by integrating modular multiplication with protections against side-channel and fault injection threats. It operates without the need for Montgomery domain transformations, optimizing the coprocessor’s performance while reducing area requirements. Tailored for applications demanding high efficiency and security, FortiPKA-RISC-V ensures robust performance in public key operations, suitable for secure communications and data protection scenarios. With a focus on reduced latency and power efficiency, this coprocessor can be implemented in various platforms, enhancing protection in devices and systems The coprocessor is part of FortifyIQ's line of advanced IP solutions, providing a technology-agnostic approach that is adaptable to diverse environments. The FortiPKA-RISC-V offers benefits in applications requiring stringent security and efficiency, making it an ideal solution for developers looking to enhance cryptographic functionalities.
The Aeonic Insight delivers advanced on-die telemetry for SoCs, allowing for actionable insights into power grids, clock health, and silicon security. Suitable for applications ranging from data centers to automotive systems, it features programmability and process portability, ensuring high efficiency and scalability through advanced process technologies. It integrates seamlessly with third-party analytics platforms through industry-standard interfaces.
ArrayNav represents a significant leap forward in navigation technology through the implementation of multiple antennas which greatly enhances GNSS performance. With its capability to recognize and eliminate multipath signals or those intended for jamming or spoofing, ArrayNav ensures a high degree of accuracy and reliability in diverse environments. Utilizing four antennas along with specialized firmware, ArrayNav can place null signals in the direction of unwanted interference, thus preserving the integrity of GNSS operations. This setup not only delivers a commendable 6-18dB gain in sensitivity but also ensures sub-meter accuracy and faster acquisition times when acquiring satellite data. ArrayNav is ideal for urban canyons and complex terrains where signal integrity is often compromised by reflections and multipath. As a patented solution from EtherWhere, it efficiently remedies poor GNSS performance issues associated with interference, making it an invaluable asset in high-reliability navigation systems. Moreover, the system provides substantial improvements in sensitivity, allowing for robust navigation not just in clear open skies but also in challenging urban landscapes. Through this additive capability, ArrayNav promotes enhanced vehicular ADAS applications, boosting overall system performance and achieving higher safety standards.
Tailored specifically for AI and machine learning requirements at the edge, the SiFive Intelligence X280 brings powerful capabilities to data-intensive applications. This processor line is part of the high-performance AI data flow processors from SiFive, designed to offer scalable vector computation capabilities. Key features include handling demanding AI workloads, efficient data flow management, and enhanced object detection and speech recognition processing. The X280 is equipped with vector processing capabilities that include a 512-bit vector length, single vector ALU VCIX (1024-bit), plus a host of new instructions optimized for machine learning operations. These features provide a robust platform for addressing energy-efficient inference tasks, driven by the need for high-performance yet low-power computing solutions. Key to the X280's appeal is its ability to interface seamlessly with popular machine learning frameworks, enabling developers to deploy models with ease and flexibility. Additionally, its compatibility with SiFive Intelligence Extensions and TensorFlow Lite enhances its utility in delivering consistent, high-quality AI processing in various applications, from automotive to consumer devices.
Crypto Quantique’s Quantum Resistant Encryption Core offers a robust solution for post-quantum cryptography challenges. This core is designed to withstand potential vulnerabilities that arise with quantum computing technology. It leverages advanced quantum-driven technology to create secure cryptographic keys that are resistant to traditional and quantum-based attacks. It is aimed at providing a future-proof security framework for next-generation electronic devices. The product ensures data integrity and confidentiality, crucial for applications where data breaches could have severe consequences. With a strong emphasis on secure key storage and management, the Quantum Resistant Encryption Core is ideal for industries needing enhanced security measures, such as finance, healthcare, and government sectors. Additionally, this encryption core supports scalable and efficient deployment across various IoT devices. Its compatibility with existing cryptographic systems ensures that companies can integrate it into their current infrastructure without significant overhauls, enabling seamless transitions to quantum-secure communications.
WiseEye2 AI Solution by Himax revolutionizes edge computing in AI applications with its unique blend of an ultralow power CMOS image sensor and the HX6538 AI microcontroller. This solution is specifically engineered for battery-powered applications that require continuous operation, yet consume minimal power. The HX6538 microcontroller boasts unmatched power efficiency and performance gains, driven by its ARM-based architecture sporting Cortex M55 CPU and Ethos U55 NPU. This enables highly complex and accurate AI computations to be made directly at the endpoint, without exorbitant power usage.<br> <br> In terms of security and functionality, the WiseEye2 incorporates sophisticated cryptography engines and a layered power management system. These features ensure the solution not only processes data efficiently but also safeguards sensitive information. Its prowess in executing intricate AI models and seamless sensor fusion makes it an ideal player in the AIoT landscape, powering intelligent devices across various verticals from smart home solutions to advanced security systems.<br> <br> Himax's WiseEye2 thus extends its capabilities beyond typical AI solutions, facilitating continuous, real-time processing that is both resource-conservative and remarkably thorough. This blend of low-energy operation with high computational capability positions WiseEye2 as a frontline solution in the push towards smarter, more secure IoT ecosystems.
The Securyzr Key Management System provides a robust framework for managing cryptographic keys within embedded systems. By ensuring secure storage, key generation, and access protocols, it strengthens the cryptographic foundation of devices. This system supports multiple security applications and meets stringent certification requirements, ensuring that key information remains protected throughout the device lifecycle. It enhances security by preventing unauthorized access and preserving data integrity through effective key management strategies.
NVM Defender is a pioneering hardware module focused on safeguarding integrated circuits from common invasive attacks that aim to extract non-volatile memory (NVM). This solution provides protection against unauthorized replication, emulation, cloning, and counterfeiting by being self-aware, detecting attacks instantly, and employing a structure that resists bypass attempts. NVM Defender ensures 'Security by Design,' offering a robust protective measure that chip makers and integrators can deploy to protect their intellectual assets seamlessly. Throughout the years, Texplained has discovered that many components remain vulnerable to NVM code extraction. This necessity led to the development of the NVM Defender, a hardware-only countermeasure that strengthens security against such attacks. Unlike conventional solutions which often rely on software and may fail under comprehensive invasive attacks, NVM Defender's hardware-centric approach guarantees that even if the ICs architecture secrets are exposed, code extraction remains impractical. The module not only serves to secure embedded software and cryptographic keys but also effectively safeguards personal data embedded within chips, making it a sought-after solution in today's security-conscious environment. NVM Defender stands out for being user-friendly and cost-effective while maintaining a high level of security that deters both physical and remote attempts of intrusion.
PUFcc is an advanced crypto coprocessor that combines a Hardware Root of Trust with a comprehensive set of cryptographic algorithms, creating a versatile security module suitable for a wide range of system architectures. This turnkey solution enables seamless integration of security protocols into existing systems, making it a critical component in industries such as IoT, AI, automotive, and fintech. It establishes a secure foundation for device security, complementing existing software solutions by providing deep hardware-level protection from design to deployment. The PUFcc integrates a NIST CAVP-certified crypto accelerator, along with OSCCA-compliant ciphers and key derivation algorithms. It features advanced components like the APB and AXI interfaces, facilitating rapid memory access, and a sequencer to eliminate the need for additional processors or boot ROMs. The coprocessor also offers capabilities for extending protection to external flash memory, ensuring secure handling of sensitive data across its lifecycle. With over-the-air secure boot, TLS support, and robust key management possibilities, PUFcc simplifies and strengthens SoC design while providing a secure boundary to protect against threats like cloning and unauthorized access. Its scalable and customizable nature, exemplified by the addition of the PUFcc7 model, allows it to adapt to evolving security requirements, making it an indispensable tool for developers and manufacturers focused on robust cybersecurity infrastructures.
VeriSyno's Digital Systems and Security Solutions focus on ensuring high-performance operations within digital frameworks while emphasizing secure data management. These solutions cover a vast array of applications, from memory controller interfaces and network solutions to advanced security protocols. The goal is to provide digital systems that are not only efficient but also robust against modern security challenges. These digital IP components, including network IP solutions like vMAC, attend to contemporary issues by integrating AI and authentication technologies. Such innovations are designed to meet the security demands of today’s digital landscape, empowering enterprises with reliable solutions that safeguard data while optimizing performance. By offering these advanced digital components, VeriSyno empowers industries such as finance, healthcare, and IT with crucial IP that enhances data processing capabilities and secures operational integrity. Their security solutions are instrumental in facilitating secure and efficient operations in a variety of digital environments.
FortifyIQ's Side-channel Attack Resistance offers advanced security solutions designed to protect devices against SCA vulnerabilities during the early design stages. By enabling integrated simulations of side-channel scenarios, it supports identifying and mitigating potential weaknesses before hardware manufacturing. This capacity ensures cost-effective and timely preventative measures that preempt costly post-production fixes. Integrating advanced testing methodologies such as the rigorous Test Vector Leakage Assessment (TVLA), FortifyIQ’s SCA solution allows comprehensive assessment and validation of security under extreme scenarios. The technology successfully detects fault injection risks, ensuring the highest standards of security compliance are met. This system is particularly vital for sectors where data integrity and security are paramount, including automotive, defense, and Internet of Things (IoT). Its extensive simulation and analysis capabilities allow users to optimize systems efficiently, ensuring safe deployment and continuous protection of sensitive data against evolving security challenges.
FortifyIQ's Fault Injection Attack Countermeasures address vulnerabilities in pre-silicon stages, allowing design engineers to detect potential weaknesses early in the development cycle. This method replaces traditional post-manufacture testing, thereby reducing costs and development timelines. Using simulation techniques within FaultInjection Studio, these countermeasures ensure robust system integrity against fault injection attacks. The platform supports accurate and detailed analysis, identifying vulnerabilities through simulation engines like FAST IQ, tailored to simulate various fault scenarios. This preemptive approach facilitates immediate corrective measures, ensuring compliance with emerging security standards and significantly mitigating potential risks associated with hardware flaws. Employing this technology enhances reliability in critical infrastructures such as telecommunications, finance, and secure manufacturing. It combines the latest cryptographic protections to offer a balanced, safe operating environment for devices susceptible to fault-induced breaches. These countermeasures are integrated seamlessly, maximizing system uptime and security resilience in sensitive applications.
The Fault Resistant AES Core offers enhanced encryption capabilities with built-in protection against faults. This IP integrates traditional AES encryption with advanced fault detection and correction features, making it particularly suitable for applications requiring both high security and reliability. The core is designed to detect and rectify faults in real-time, preventing data corruption during transmission or storage. By embedding fault-tolerance mechanisms directly within the encryption process, the Fault Resistant AES Core minimizes vulnerabilities associated with soft errors or environmental interference. This makes it ideal for use in critical systems such as automotive electronics, where data integrity is crucial. Incorporating patented technologies, this IP stands out for its robustness in maintaining security even under power fluctuations or transient errors. The Fault Resistant AES Core is compatible with various FPGA and ASIC platforms, offering a reliable, adaptable, and secure solution for modern electronic systems.
NeoPUF stands out as a revolutionary hardware security technology leveraging the concept of Physically Unclonable Functions (PUF). NeoPUF is predicated on the intrinsic variances found in silicon during the manufacturing process, providing a unique and immutable identifier akin to a fingerprint for semiconductor devices. As a foundation for hardware security, NeoPUF excels in delivering unmatched protection by generating random, unique numbers for each device. These numbers can be utilized as identifiers, root keys, or cryptographic nonces, ensuring secure key management, authentication, and data encryption. Its tamperproof nature makes it an ideal component for applications where security is paramount. The introduction of NeoPUF allows companies to integrate a hardware root of trust directly into their silicon designs, offering a straightforward, cost-effective solution to modern security challenges. Whether for IoT devices, mobile computing, or enterprise-level systems, its deployment offers heightened security while simplifying the key management infrastructure.
Secure-IC's Integrated Secure Element (iSE) serves as a cornerstone for secure computing environments. Embedded on the main system-on-chip (SoC), it provides services including secure boot, key isolation, and anti-tampering measures. The iSE ensures security at a hardware level, creating a more robust defense against advanced cyber threats. Its design incorporates features to maintain strong isolation, offering dual computation capabilities that aid in resisting various forms of attacks while maintaining high performance.
Designed to enhance system reliability, the Fault Resistant Recovery Companion integrates seamlessly into existing systems, providing single-sequence recovery from faults. This IP detects and corrects faults, ensuring continuity of operations by initiating precise recovery actions to restore functionality after disruptions. Key to its functionality is the single-sequence recovery ability, which simplifies error correction processes by enabling swift and effective responses to detected issues. This approach is particularly advantageous in critical applications where minimizing downtime is crucial. Utilizing sophisticated fault correction algorithms, this IP is tailored for systems that demand high levels of fault tolerance. It supports various computational platforms, ensuring that complex systems remain operational, even in harsh conditions or environments prone to disruptions.
The PUFhsm is PUFsecurity's sophisticated Hardware Security Module, tailored for automotive industries and advanced applications that demand high-level security. Designed as an Embedded Security Enclave, it compartmentalizes sensitive information, isolating it from the main system to bolster security. Incorporating a dedicated CPU, cryptographic engines, and advanced software modules, PUFhsm addresses a plethora of automotive and industrial security applications. It is particularly compatible with EVITA-Full compliance, setting a benchmark for in-vehicle and chip-level security against modern cybersecurity threats. PUFhsm not only supports robust applications like secure boot, secure updating, and lifecycle management but also facilitates key management and secure debugging. Its architecture is designed to be interchangeable with PUFrt, enhancing anti-tampering capabilities and optimizing system resource use. The cohesive design provides a scalable security solution adaptable to various system requirements, ensuring the integrity and authenticity of all software and hardware components.
The QDID PUF, a core offering from Crypto Quantique, leverages quantum tunneling current variations to generate unique, unforgeable device identities. This patented Physical Unclonable Function (PUF) technology generates identities based on oxide thickness variations within standard CMOS processes, creating an unpredictable and secure hardware root-of-trust. Instead of relying on stored identities that are vulnerable to tampering and side-channel attacks, QDID PUF creates identities dynamically on demand. This approach minimizes security risks associated with permanent identity storage and makes the system robust against attacks such as counterfeiting and cloning. The IP is optimized for various cryptographic applications, including key generation and device authentication, making it suitable for high-security environments in medical, industrial, and IoT applications. Its design ensures compliance with rigorous security standards and its adaptability extends to integration in diverse hardware platforms, providing a versatile and secure solution. Moreover, QDID PUF is validated across multiple manufacturing nodes and process technologies, ensuring its reliability and performance in different environmental conditions, further underscoring its suitability for long-term deployment in a range of applications. Its robustness across voltage and temperature variations reinforces its capability as a secure element in electronic devices.
The Stellar Packet Classification Platform for FPGAs provides a sophisticated packet processing solution capable of handling ultra-high-speed search operations. Its architecture supports advanced functions through extensive lookup rules based on complex Access Control Lists (ACL) and Longest Prefix Match (LPM), making it essential for advanced networking tasks requiring scalability and high performance.\n\nDesigned to manage numerous and varied network rules, Stellar supports performance requirements ranging from 25 Gbps to over 1 Tbps. It features the ability to execute hundreds of millions of lookups per second, catering to the demands for high-speed data forwarding and network security operations. Its design allows for seamless integration into existing network infrastructure, optimizing processes like IPv4/6 routing, firewall management, and anti-DDoS systems.\n\nIts scalable architecture enables real-time updates and modifications, supporting high-reliability systems that require minimal downtime and maximal efficiency. Stellar's capabilities are integral to maintaining robust network infrastructures, preventing intrusions, and ensuring secure data flow across complex networks. The platform's adaptability makes it a versatile component in telecommunications, data centers, and enterprise networking environments.
Suite-Q SW consists of a versatile cryptographic software library designed for optimizing code size, stack usage, and performance across various embedded processors and microcontrollers. Available in portable C code and high-speed assembly, Suite-Q SW can be tailored to fit the specific needs of diverse development environments. This library provides extensive support for symmetric and asymmetric cryptographic functions, catering to systems ranging from high-end processors to memory-constrained embedded devices. By facilitating efficient cryptographic computations, Suite-Q SW ensures minimal impact on system performance while maximizing data security. Its adaptability is marked by simple integration modules that work seamlessly with hardware accelerators, enabling enhanced cryptography for both standard and custom specifications. This reliability makes Suite-Q SW an indispensable tool for ensuring secure communication channels while maintaining an optimal balance between speed and resource utilization.
Suite-Q HW represents a sophisticated system-on-chip (SoC) design that integrates essential cryptographic operations crucial for modern data security protocols. Targeting both high-end servers and low-end embedded systems, Suite-Q HW employs a unified hardware architecture to ensure efficient execution of cryptographic tasks. This hardware solution supports a diverse range of cryptographic algorithms, including both classical and post-quantum options. It incorporates advanced public key cryptographic operations such as ECDSA and various isogeny, lattice, and code-based strategies awaiting broader standardization. The suite’s flexibility allows it to adapt to different operational demands and integrate with existing infrastructure seamlessly. Suite-Q HW's cornerstone is its high degree of configurability, offering customizable performance based on targeted applications. This versatility ensures optimal resource allocation, making it a preferred choice for systems requiring stringent security measures without compromising on computational efficiency. With optional features for defending against differential power analysis (DPA) attacks, the SoC further enhances its defense mechanisms, ensuring robust protection against sophisticated threats.
The DAES is a sophisticated cryptographic co-processor IP designed to implement the Rijndael encryption algorithm, which forms the basis of the Advanced Encryption Standard (AES). By supporting key sizes of both 128 and 256 bits, this core provides robust encryption capabilities through various cipher modes including ECB, CBC, CFB, OFB, and CTR, ensuring diverse applications can leverage these functionalities for enhanced data security. The DAES core is equipped with an internal key expansion module, allowing it to manage encryption and decryption operations efficiently. It offers seamless integration into APB, AHB, and AXI buses, enabling it to be easily incorporated into a wide variety of digital solutions where encryption is paramount. This IP core is adaptable, providing developers with a reliable and scalable solution to safeguard sensitive data across multiple platforms and environments. The DAES benefits sectors that heavily rely on encryption for secure transactions and communications, making it a valuable asset in industries like finance, government, and telecommunications.
ReRAM Secure Keys by CrossBar redefine memory integration for secure cryptographic applications through innovative use of ReRAM technology. These secure keys utilize the physical unclonable function (PUF) capabilities of ReRAM, offering a superior security measure against unauthorized access and data breaches. ReRAM Secure Keys facilitate a high level of data protection critical for cryptographic operations across various systems. By implementing PUF technology, ReRAM Secure Keys prevent duplication and hacking attempts, making them an integral component for systems requiring high-level security, such as secure computing and financial transactions. This built-in security mechanism ensures ReRAM Secure Keys remain unique and resistant against cloning, thereby enhancing the security infrastructure of the systems they are deployed in. The ReRAM Secure Keys are designed to be easily integrated with existing memory architectures, reducing complexity and ensuring seamless adaptation to a wide variety of applications. The low power requirements and stable performance across diverse environments further their suitability for robust security applications. As digital security threats evolve, CrossBar's ReRAM Secure Keys stand as a vital solution for advancing secure encryption key storage, ensuring data integrity, and offering peace of mind for industries facing increasing cybersecurity challenges. This pioneering approach marks a significant milestone in embedded secure memory design, ready to address future technology needs.
The Soft Fault Detection IP is an all-digital solution designed to identify and signal the presence of faults within digital circuits. This IP helps maintain system integrity by continuously monitoring for soft errors that can arise during regular operations. Key features include its ability to flag and address faults in real-time, which is crucial for systems where downtime or data corruption cannot be tolerated. As a purely digital solution, it integrates seamlessly with various device architectures, providing fault detection capabilities without significant overhead. This IP's versatility makes it ideal for applications in fields including aerospace, where reliability is critical, and in industrial systems where fault detection can enhance operational stability and safety.
Green IP Core's Fault Detector provides a comprehensive solution for detecting errors in digital circuits. It is engineered to identify inconsistencies that could affect system performance, enabling quick resolutions that maintain chip integrity and performance. This detector is particularly valuable for applications in sensitive environments where faults could lead to catastrophic failures, such as in aerospace and automotive electronics. By utilizing state-of-the-art fault detection algorithms, this IP stands as a line of defense that constantly monitors and reacts to errors. Integrated within semiconductor designs, the Fault Detector enhances reliability by supporting preemptive fault management strategies. Its deployment ensures minimal system interference, providing an efficient means of maintaining high operational standards in complex electronic systems.
Rambus Root of Trust solutions provide a critical foundation in securing SoC hardware and data. These solutions include programmable secure co-processors that employ Quantum Safe Cryptography, alongside compact firmware-controlled designs. Making them highly versatile for diverse applications, these solutions are developed with options compliant with FIPS 140 CMVP and ISO 26262 standards, catering to stringent requirements of government and automotive sectors.
Ultra-Secure, PQC-first, Root-of-Trust A complete PQC-focused security system that provides architects with the tools needed for the quantum age and beyond. PQPlatform-TrustSys is a fully programmable Root-of-Trust subsystem, containing advanced post-quantum (ML-KEM, ML-DSA) and classical cryptography (ECC and RSA – essential for hybrid and legacy protocols during transition), enabling bulk encryption, hash acceleration, advanced accelerators for symmetric cryptography, including AES, SHA2, SHA3, HMAC, and seamless integration with third-party components. PQPlatform-TrustSys can also be deployed with our world-leading fault-tolerance and power/EM side-channel attack countermeasures.
The Soft Fault Detection IP is a digital component primarily focused on identifying and reporting soft errors in electronic systems. Its integration into various systems allows for continuous monitoring of circuit behavior to ensure seamless performance and minimal error rates. Its core functionality enables systems to identify and react to transient faults rapidly, which is crucial in sectors like aerospace and automotive where failure is not an option. This IP marks the early detection of faults, enabling systems to handle errors effectively without needing significant system redesigns. With the ability to be synthesized across different platforms, the Soft Fault Detection IP stands out for its versatility and effectiveness in maintaining system integrity and performance. This IP enhances the reliability of systems where operational precision is critical.
The AES XP-DPA-FIA core is engineered for demanding high-performance applications, featuring AES GCM for secure network communications and AES XTS for data encryption. Its multi-pipeline architecture offers customization in the number of pipelines, making it highly suitable for applications needing robust performance. Unique in its market space, this core extends its protection to the GHASH authentication mechanism, combining high throughput (up to hundreds of Gbps at 500 MHz on a 45nm process) with advanced attack resistance. Utilizing FortifyIQ's RAMBAM protection scheme, the core effectively mitigates side-channel attacks without affecting latency, verified under rigorous Test Vector Leakage Assessment (TVLA) with over a billion traces. The core's design eliminates the need for custom cells and supports seamless synthesis across different technologies. AES XP-DPA-FIA stands out with its comprehensive SCA and FIA safeguards, integrating features that support secure, authenticated operations in communication and storage systems. Specifications include compliance with NIST FIPS-197, support for AES-128/192/256 encryption modes, and tunable protection levels suiting various use cases. Its compatibility extends to standard interfaces such as AMBA AXI, ABP, and options for embedded random masking, making it a versatile component for modern security architectures.
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