All IPs > Security IP > Security Protocol Accelerators
Security Protocol Accelerators are crucial components within the realm of semiconductor IP, designed to boost the performance of security protocols in various applications. These accelerators play a pivotal role in enhancing the speed, efficiency, and reliability of data encryption and decryption processes, which are fundamental for secure communications and transactions across networks. By implementing specialized hardware for protocol acceleration, these semiconductor IPs offer significant improvements in processing speed compared to software-only solutions.
One of the primary uses of Security Protocol Accelerators is in network security devices, including routers, firewalls, and VPNs, where they ensure secure communication by accelerating tasks such as data encryption and IPsec processing. As data breaches and cyber threats continue to evolve, the demand for robust and efficient security solutions has never been higher. These accelerators enable the optimization of cryptographic operations, providing enterprises and individuals with the confidence that their sensitive data is well-protected during transmission.
In consumer electronics like smartphones, tablets, and smart home devices, security protocol accelerators are key to maintaining user privacy without compromising on performance. They ensure that devices can handle complex security tasks quickly, extending battery life and maintaining seamless user experiences. Whether it’s ensuring the security of cloud-based services or protecting communications over Wi-Fi and cellular networks, these semiconductor IPs are increasingly vital in an interconnected world.
Moreover, the rise of IoT devices and edge computing has expanded the need for security protocol accelerators. With the massive data exchange happening at the edge of networks, having efficient security IPs ensures not just the safety of the data but also compliance with regulatory standards. As companies continue to push for innovations in AI and machine learning, the integration of security protocol accelerators in their systems helps to safeguard intellectual property and sensitive algorithms, thereby maintaining a secure operational environment. Through leveraging these semiconductor IPs, creators can focus on innovation while relying on proven security foundations.
The second generation of BrainChip's Akida platform expands upon its predecessor with enhanced features for even greater performance, efficiency, and accuracy in AI applications. This platform leverages advanced 8-bit quantization and advanced neural network support, including temporal event-based neural nets and vision transformers. These advancements allow for significant reductions in model size and computational requirements, making the Akida 2nd Generation a formidable component for edge AI solutions. The platform effectively supports complex neural models necessary for a wide range of applications, from advanced vision tasks to real-time data processing, all while minimizing cloud interaction to protect data privacy.
Polar ID offers an advanced solution for secure facial recognition in smartphones. This system harnesses the revolutionary capabilities of meta-optics to capture a unique polarization signature from human faces, adding a distinct layer of security against sophisticated spoofing methods like 3D masks. With its compact design, Polar ID replaces the need for bulky optical modules and costly time-of-flight sensors, making it a cost-effective alternative for facial authentication. The Polar ID system operates efficiently under diverse lighting conditions, ensuring reliable performance both in bright sunlight and in total darkness. This adaptability is complemented by the system’s high-resolution capability, surpassing that of traditional facial recognition technologies, allowing it to function seamlessly even when users are wearing face coverings, such as glasses or masks. By incorporating this high level of precision and security, Polar ID provides an unprecedented user experience in biometric solutions. As an integrated solution, Polar ID leverages state-of-the-art polarization imaging, combined with near-infrared technology operating at 940nm, which provides robust and secure face unlock functionality for an increasing range of mobile devices. This innovation delivers enhanced digital security and convenience, significantly reducing complexity and integration costs for manufacturers, while setting a new standard for biometric authentication in smartphones and beyond.
PUFrt stands as a bastion of semiconductor security, serving as a Hardware Root of Trust (HRoT) with unparalleled credibility. Its architecture is designed to generate and store hardware root keys securely within the chip, utilizing Physically Unclonable Functions (PUF) and a true random number generator (TRNG). These features ensure that cryptographic operations are fortified with a unique and unclonable identity, mitigating risks of physical tampering and creating a robust defense against reverse engineering.<br><br>Integral to its design is the secure OTP (One-Time Programmable) memory, which stores sensitive keys and data, adding a layer of protection that has been validated through rigorous security certifications. The PUFrt's anti-tamper technology guards against unauthorized access, ensuring the integrity of both hardware and software environments. Moreover, its design facilitates easy integration with various system architectures, expanding its applications beyond traditional security implementations.<br><br>Applications of PUFrt span from IoT devices to sophisticated computing systems, where its role as a secure entry point into connected ecosystems is crucial. By embedding a secure foundation, PUFrt not only strengthens semiconductor reliability but also enhances performance efficiency. This holistic approach to security makes it a linchpin in modern semiconductor design, supporting each stage of the device lifecycle with comprehensive, hardware-anchored security protocols.
The HDCP Encryption-Decryption Engine developed by Trilinear Technologies is designed to protect digital audio and video content from unauthorized access during transmission. It aligns with the HDCP 2.2 standard, ensuring that all data exchanged between a display source and receiver remains secure and resistant to interception. This solution is vital for industries where content protection is paramount, such as in premium consumer electronics, professional audiovisual setups, and sensitive government or military communication channels. This engine supports the authentication protocols necessary for protected transactions over DisplayPort interfaces, using sophisticated AUX channels to seal data transfer securely. It is engineered to reduce the processing load by offloading encryption tasks from the system processor, thereby enhancing the overall system performance while maintaining robust security. Capable of integrating into a range of devices from set-top boxes to large multimedia systems, the HDCP Encryption-Decryption Engine offers developers a trustworthy method to shield content from piracy and unauthorized dissemination. Its implementation ensures that content providers can operate freely with the assurance that their digital rights are upheld across all endpoints.
The eSi-Crypto suite offers a comprehensive set of encryption and authentication solutions, optimized for ASIC and FPGA applications with low resource demands and high throughput. It features essential components such as a True Random Number Generator (TRNG), compliant with NIST 800-22, available as a hard macro. The IP includes a variety of encryption algorithms including CRYSTALS Kyber, CRYSTALS Dilithium, ECC/ECDSA, RSA, AES, and SHA1-SHA3. These algorithms are designed for robust security and can be integrated as standalone cores or with AMBA APB/AHB or AXI bus interfaces, serving diverse applications like secure communications and financial transactions.
aiWare stands out as a premier hardware IP for high-performance neural processing, tailored for complex automotive AI applications. By offering exceptional efficiency and scalability, aiWare empowers automotive systems to harness the full power of neural networks across a wide variety of functions, from Advanced Driver Assistance Systems (ADAS) to fully autonomous driving platforms. It boasts an innovative architecture optimized for both performance and energy efficiency, making it capable of handling the rigorous demands of next-generation AI workloads. The aiWare hardware features an NPU designed to achieve up to 256 Effective Tera Operations Per Second (TOPS), delivering high performance at significantly lower power. This is made possible through a thoughtfully engineered dataflow and memory architecture that minimizes the need for external memory bandwidth, thus enhancing processing speed and reducing energy consumption. The design ensures that aiWare can operate efficiently across a broad range of conditions, maintaining its edge in both small and large-scale applications. A key advantage of aiWare is its compatibility with aiMotive's aiDrive software, facilitating seamless integration and optimizing neural network configurations for automotive production environments. aiWare's development emphasizes strong support for AI algorithms, ensuring robust performance in diverse applications, from edge processing in sensor nodes to high central computational capacity. This makes aiWare a critical component in deploying advanced, scalable automotive AI solutions, designed specifically to meet the safety and performance standards required in modern vehicles.
Secure Protocol Engines from Secure-IC are designed to enhance network and security processing in data centers by offloading heavy computational tasks. These engines feature some of the industry's fastest SSL/TLS handshaking capabilities, paired with ultra-high-performance MACsec and IPsec processing. By managing demanding network tasks, Secure Protocol Engines enable data centers to optimize resources and improve system performance significantly. As data transmission and sensitive information exchange become increasingly common, these engines provide crucial support in maintaining robust security measures against interception and unauthorized access. The Secure Protocol Engines are optimized to integrate seamlessly with existing infrastructures, ensuring minimized impact on overall system efficiency and maximizing throughput and security.
The HOTLink II IP Core is a highly sophisticated implementation of layer 2 hardware for High-Speed Interconnect (HSI) systems. It provides a comprehensive and robust platform for data communication, ensuring seamless integration into systems through an intuitive frame interface. The core is compatible with various operational rates, including full-rate, half-rate, and quarter-rate, as explicitly specified by the associated standard. Engineered for compatibility with F-18 interface requirements, the HOTLink II IP Core enhances system reliability and efficiency. It empowers engineers to achieve reliable high-speed data links necessary for modern defense and aerospace applications. This core is designed to operate under diverse conditions, providing resilient support for complex networking needs. The HOTLink II IP Core stands out with its ease of integration and operational flexibility, making it invaluable for enterprises looking to enhance high-speed data communication capabilities. With its robust design, it can handle intensive demand cycles, ensuring uninterrupted performance even in critical environments.
Securyzr iSSP is a versatile platform that aims to provide a comprehensive security lifecycle management solution. This embedded security service platform ensures that devices are protected from the chip level throughout their lifecycle. It features security operations like secure boot, firmware updates, and intrusion detection, all managed from the cloud, enabling secure deployment and management across fleets of devices. Its design caters to complex security challenges by offering a scalable, end-to-end solution for managing device security without manual intervention, known as zero-touch security services. The Securyzr iSSP is optimized to handle critical operations securely across different hardware and software environments, ensuring integrity and confidentiality.
This core focuses on providing robust encryption standards, ensuring data protection and secure communications in various applications. Built with enhanced fault resilience, it aims to ensure data integrity even when faced with logic errors. The AES Core is designed to handle complex industrial and consumer encryption needs efficiently.
The JPEG-LS Encoder delivers high-efficiency lossless image compression tailored for FPGA deployment. Known for its exceptional compression ability in comparison to other standards like JPEG-2000, this encoder operates without the need for external memory resources, offering a streamlined solution with minimal latency. With capabilities to handle image sample depths ranging from 8 to 16 bits, the JPEG-LS encoder stands out with less than one line of encoding delay, ensuring swift and efficient processing. Its low resource requirements make it an ideal solution for applications demanding compact and efficient image compression. JPEG-LS Encoder supports a configurability feature, allowing adjustment of output data word width and accommodating varied image dimensions extending to ultra-high definition scenarios. This adaptability, combined with either pixel and data FIFO inputs/outputs or through an Avalon Streaming interface, provides ample flexibility for integrations into various digital imaging systems.
Helion Technology's AES-XTS solution offers state-of-the-art encryption for data-at-rest in storage systems, adept at mitigating threats such as copy-paste and dictionary attacks. AES-XTS operates by encrypting disk sector data with blocks of 16-bytes under a secret AES key, incorporating a modifier value corresponding to each block's logical disk location. This method ensures that identical plaintext sectors stored at different positions yield different encrypted outputs. Designed to handle high performance requirements, Helion's AES-XTS cores enable custom levels of throughput scaling from 1Gbps up to over 64Gbps, suitable for diverse scenarios like servers and high-speed SSDs. The product range includes single, twin, quad, and giga variants, aligning closely with specific performance and logic resource parameters, optimizing both hardware usage and security efficacy. This flexibility and adherence to the IEEE 1619 standard make Helion's AES-XTS cores valuable for any application demanding secure disk-level encryption. Available for either ASIC or FPGA platforms, these cores are constructed to leverage the unique capabilities of each technology, achieving the best possible performance across different use cases.
The NeuroSense AI Chip is a remarkable innovation for wearable technology, designed to address the key pain points of power consumption and data privacy in mass-market devices. It significantly enhances the accuracy of heart rate measurements and human activity recognition, operating independently of the cloud. The chip processes data at the sensor level, which not only increases precision but also extends battery life, a crucial factor for fitness trackers, smartwatches, and health monitoring devices. With unparalleled power efficiency, the NeuroSense chip maintains high accuracy by implementing analog computation and neural network strategies, translating to more effective biometrics extraction. NeuroSense excels in reducing the typical power burdens of AI-capable wearables. The diminutive size allows for easy integration into small devices without compromising functionality. By bypassing the need for cloud data processing, it ensures faster response times and greater privacy for users. Its capacity to learn from and accurately classify human activity transcends simple monitoring, offering potential expansions into fields like exercise coaching and senior care. Additionally, the NeuroSense chip allows for extended device operation times, which conventional sensor units struggle to deliver. It supports a broader range of applications by making wearables more intelligent and adaptive to various user needs. This positions the NeuroSense as a leading choice for developers seeking to enhance product features while minimizing cost and energy demands.
The ONNC Calibrator is engineered to ensure high precision in AI System-on-Chips using post-training quantization (PTQ) techniques. This tool enables architecture-aware quantization, which helps maintain 99.99% precision even with fixed-point architecture, such as INT8. Designed for diverse heterogeneous multicore setups, it supports multiple engines within a single chip architecture and employs rich entropy calculation techniques. A major advantage of the ONNC Calibrator is its efficiency; it significantly reduces the time required for quantization, taking only seconds to process standard computer vision models. Unlike re-training methods, PTQ is non-intrusive, maintains network topology, and adapts based on input distribution to provide quick and precise quantization suitable for modern neural network frameworks such as ONNX and TensorFlow. Furthermore, the Calibrator's internal precision simulator uses hardware control registers to maintain precision, demonstrating less than 1% precision drop in most computer vision models. It adapts flexibly to various hardware through its architecture-aware algorithms, making it a powerful tool for maintaining the high performance of AI systems.
The Securyzr Key Management System is designed to handle complex cryptographic key management centrally, ensuring secure generation, distribution, and storage of keys. This system is integral for maintaining the security of cryptographic protocols which form the backbone of secure communications and digital identity verifications. Featuring flexible and scalable key management strategies, this product is essential for industries with stringent data protection requirements such as banking, telecommunications, and cloud services. It is engineered to seamlessly integrate with a variety of IT infrastructures, offering powerful protective measures against unauthorized access and enhancing the overall security posture of an organization.
The L5-Direct GNSS Receiver by oneNav is a pioneering solution designed to acquire and process L5-band signals independently. This advanced receiver utilizes a unique Application Specific Array Processor (ASAP) to directly acquire L5 signals, ensuring high sensitivity and rapid location fixing. This innovation allows the receiver to function effectively without relying on the older L1 signals, providing a robust alternative in urban settings where signal interference can be a significant issue. The technology supports a multitude of satellite signals, including those from GPS, Galileo, QZSS, and BeiDou, enabling it to adapt to various constellations. Its design optimizes space and power through a single RF chain, reducing the need for complex dual-band systems. This results in a smaller footprint and lower costs, making it ideal for compact electronic devices such as wearables or IoT gadgets. One of the standout features of this technology is its ability to manage multipath errors using machine learning algorithms, which effectively discriminate between direct signals and reflections. The receiver's resilience against GPS spoofing and jamming enhances security and trustworthiness, critical in areas of contested or compromised signals. By integrating seamlessly with non-terrestrial networks, the L5-Direct GNSS Receiver ensures reliable connectivity and positioning in diverse environmental conditions. Moreover, oneNav's receiver is built for endurance and efficiency, with a design that allows for continuous, low-power tracking—a feature especially beneficial for battery-operated applications. The overall architecture demonstrates significant advancements in both GNSS receiver technology and the broader field of navigation systems, offering unparalleled performance, precision, and reliability in the GNSS domain.
The FortiCrypt solution stands as a beacon in hardware security, offering unmatched protection against side-channel attacks and fault injection. Utilizing a multi-pipeline architecture, FortiCrypt is designed to deliver superior throughput without sacrificing performance or increasing latency, making it ideal for both authentication and storage encryption applications. This IP core's architecture includes unique features that protect not only the core encryption process but also the associated authentication mechanisms, setting it apart from standard solutions on the market. FortiCrypt's protection scheme is algorithm-driven and implementation-agnostic, meaning it fits seamlessly into any existing framework while maintaining its superior security measures. Its rigorous Test Vector Leakage Assessment certification underscores its resilience, having been validated both in analytical and real-world environments. The design is fully synthesizable, removing the need for custom cell designs, which saves time and resources in the development process. The FortiCrypt core offers multiple configurations, including ultra-low power and ultra-compact options, aligning with varying user-specific requirements. These configurations provide a balance between performance, energy efficiency, and gate count, making it a versatile choice for a wide range of applications from IoT devices to secure communication systems.
The PUFcc Crypto Coprocessor sets a new standard in embedded security solutions by integrating a robust Hardware Root of Trust with advanced cryptographic capabilities. Tailored for modern applications, PUFcc features a comprehensive set of NIST-certified cryptographic algorithms that enhances device security across all stages of its lifecycle. This coprocessor excels in managing key generation, storage, and execution of sophisticated cryptographic tasks, embedding security deeply within the hardware.<br><br>PUFcc distinguishes itself with its high-speed performance and adaptability to contemporary security standards. By including support for TLS 1.3, it meets emerging demands for secure communication protocols in IoT and AI applications. Its design is optimized for ease of integration, featuring standard interfaces that enhance the design process and reduce time to market for new semiconductor products.<br><br>Operability across different system architectures is enhanced through PUFcc's ability to interface with various external memory systems thus extending the security functions beyond conventional boundaries. It is particularly beneficial for sectors demanding high security and flexibility, offering a robust foundation for safe data transactions in critical infrastructures.
Helion Technology offers industry-standard AES solutions effective for high data security applications across various industries. Their AES cores, used globally in commercial developments, can perform encryption and decryption using 128-bit, 192-bit, or 256-bit keys, depending on the intended security level. These cores cater to needs ranging from ultra-low area usage and data rates to top-tier multi-gigabit applications. Helion’s AES cores are distinguished by their ability to deliver performance close to that of ASICs when programmed into FPGAs like those from Xilinx, Altera, Microsemi, and Lattice. Clients have access to a series of AES engine families that cover an array of requirements from ultra-low size to very high-speed executions. The cores are designed to seamlessly integrate into any design, emphasizing user-friendliness and flexibility. They cater to multiple modes, such as CBC, CFB, CTR, and others, with validated solutions for applications needing hardware acceleration of the basic AES algorithm. This portfolio further extends to specialized configurations for advanced applications like AES-CCM, AES-GCM, and those needing key wrapping or supporting communication protocols like IPsec and SSL.
The Customizable Cryptography Accelerator by ResQuant is designed to cater to diverse client needs, offering a broad range of configurable options. It integrates seamlessly with the complete set of NIST post-quantum cryptography standards, including algorithms like Dilithium, Kyber, and XMSS. This flexibility extends further by allowing customers to incorporate their own algorithms. This cryptography accelerator is straightforward to tailor in terms of performance and size, helping cater to varied application requirements. Its design incorporates defenses against various side-channel attacks, although some features like resistance to Differential Power Analysis (DPA), timing attacks, and Simple Power Analysis (SCA) are in development. The adaptability of the accelerator is enhanced with AXI 4 compatibility, ensuring it can be easily integrated into complex system-on-chip designs. Customers can expect a future-proof, versatile cryptographic solution that addresses both existing and emerging cybersecurity challenges. This product represents a significant advancement for organizations transitioning to quantum-safe security solutions.
VeriSyno's Digital Systems and Security Solutions deliver high-performance digital IPs that are crucial in modern electronic design, catering specifically to the growing demand for secure and efficient systems. These solutions encapsulate years of expertise in digital design, offering vital IP cores necessary for building cutting-edge technology products. This suite aims at enhancing security protocols through its innovative designs, providing assurance in data protection and system integrity. Whether used for consumer electronics, industrial applications, or any sensitive data-driven operations, these solutions provide peace of mind and reliability. The company ensures these digital solutions remain adaptable to various architectures, highlighting their commitment to flexibility and client-focused innovation. With ongoing support and extensive customization options, the Digital Systems and Security Solutions offer a resilient foundation for any high-stakes technology ecosystems.
The Individual IP Core Modules offered by ResQuant are designed to support a wide array of post-quantum cryptography needs, featuring compatibility with all recognized NIST PQC standards. These include pioneering algorithms such as Dilithium, Kyber, XMSS, and SPHINCS+, guaranteeing breadth in cryptographic applications. These modules offer comprehensive cryptographic functions like advanced encryption standards using AES, hashing with SHA2 and SHA3 families, and generation of true random numbers, posing as a versatile security solution adaptable to a variety of environments. Scheduled for future updates with additional protocols like the FRODO Key Encapsulation Mechanism, these IP cores promise continuous alignment with evolving cryptographic needs. Their structure accommodates substantial flexibility in terms of performance tuning and system integration, enabling easy deployment in diverse application scenarios, from IoT devices to large-scale data centers, making them a staple for entities preparing for quantum computing advancements. These modules ensure security frontiers remain resilient against future computational intricacies.
AES-GCM is an innovative authenticated encryption technique, employing universal hashing in a binary Galois field to secure data with concurrent privacy and authentication. Known for enabling very high data rates thanks to pipeline and parallel processing efficiencies, AES-GCM is used in a variety of networking and storage applications. This method is recognized by several standards, including MACsec and ANSI Fibre Channel protocols, offering unmatched data protection across high-speed environments. Helion's AES-GCM offerings span throughput requirements from modest 50Mbps to beyond 40Gbps, accommodating diverse performance and area constraints without sacrificing efficiency. These cores are meticulously optimized for major target technologies like Altera, Microsemi, and Xilinx FPGAs, as well as ASIC implementations, ensuring compatibility and high performance across platforms. Each AES-GCM version is tweaked for particular throughput needs while maintaining a compact logic footprint, reflecting Helion's engineering precision and quality. Whether for low or ultra-high bandwidth demands, Helion's solutions present robust encryption capabilities, underscored by ease of integration and operation benefits.
PhantomBlu, specifically engineered for military applications, offers sophisticated mmWave technology for secure, high-performance communications across various tactical environments. This product is designed for strategic defense communications, enabling connectivity between land, sea, and air vehicles. PhantomBlu excels in supporting IP networking on robust anti-jam resistant mesh networks, ensuring communication security and reliability. Its configurable and adaptable design makes PhantomBlu suitable for diverse military scenarios, from convoys on the road to high-altitude surveillance operations. The system is distinguished by its stealth capabilities like low probability of interception (LPI) and detection (LPD), as well as its highly efficient data transmission rate, which exceeds that of Wi-Fi and 5G technologies. PhantomBlu's deployment requires no dependency on fiber networks, featuring a quick setup process suited for mobile and tactical requirements. Its design supports long-range communications, effective up to 4 km and allows seamless integration with existing defense infrastructure, making it a future-proof solution for all modern military communications needs. The product is licensed for operations over 57-71 GHz, offering scalable and high-data rate networks essential for today's demanding defense operations.
Secure-IC's Post-Quantum Cryptography solutions are at the forefront of preparing for a future where quantum computing could challenge traditional cryptographic methods. These solutions ensure data and communications remain secure against the potential power of quantum decryption techniques. As this technology is expected to revolutionize cryptography, Secure-IC's post-quantum solutions involve new algorithms that are unlikely to be broken even by quantum computers. This proactive approach serves to safeguard data integrity in anticipation of technological shifts, providing long-term security solutions for industries like finance, healthcare, and defense, where data security is paramount. The post-quantum cryptography IPs are crafted to be highly integrative, compatible with existing systems while paving the way for new cryptographic standards in a quantum-ready future.
The ONNC Compiler is a sophisticated tool designed for AI-on-chip implementations, facilitating the transformation of neural networks into machine-specific instructions. Its architecture is particularly advantageous for heterogeneous multicore SoCs, accommodating configurations like big.LITTLE ARM and various DSPs. The compiler supports a modular parser that leverages MLIR frameworks, facilitating support for popular deep learning frameworks like PyTorch and TensorFlow. It includes both single and multiple backend modes, ensuring adaptability across broad AI system-on-chip architectures, including support for PCIe accelerators and application processors in smartphones. One of the standout features of ONNC is its capability to manage fragmented memory spaces, allowing efficient data flow and optimization across complex systems. Its design addresses intricate memory configurations with non-linear, often fragmented memory spaces, and it offers a high-dimensional memory allocation system that minimizes RAM usage. ONNC enhances performance by optimizing data movement with techniques such as software pipelining and DMA allocation, ultimately aiming to maximize processing element utilization and reduce memory overhead. The ONNC Compiler has been engineered to be modular and retargetable, allowing it to cater to diverse hardware architectures and optimize both performance and resource use. Key optimizations such as software pipelining, DMA scheduling, and memory management support are built into its backend, making ONNC an attractive choice for those looking to maximize efficiency in AI system design.
NeoPUF leverages the concept of Physically Unclonable Functions (PUFs) to establish a robust hardware security foundation. It exploits the natural variance in silicon manufacturing to generate a unique fingerprint for each device, serving as an unforgeable 'silicon biometrics' that enhances security functions in electronic designs. The PUF-derived numbers can be applied to security tasks such as key management, authentication, and encryption, providing a hardware root of trust vital for critical data protection. NeoPUF offers a scalable, rootless security solution that requires no additional processing steps, making it highly efficient. In an era where hardware security is crucial, NeoPUF provides a robust solution for safeguarding sensitive operations, aligning with modern semiconductor needs and beyond conventional software security measures.
Designed for environments that demand high security and fault tolerance, this IP offers advanced features for encryption while maintaining operation stability during transient faults. With its fault-resistant architecture, the core ensures consistent performance and data security even in the presence of unexpected errors. Suitable for integration in critical industrial applications and secure communication systems, it enhances both security and reliability.
The FPGA Lock Core is an innovative FPGA solution designed to secure FPGAs and hardware against unauthorized access and counterfeiting, leveraging a Microchip ATSHA204A crypto authentication IC. It reads a unique ID, generates a 256-bit challenge, and uses secure hashing to verify the hardware's authenticity, ensuring hardware integrity in sensitive applications like military and medical fields. This solution allows hardware protection against IP theft by enforcing authentication and disables FPGA functionality if unauthorized access is detected. The core utilizes minimal logic resources and one FPGA pin, communicating through a bidirectional open drain link. The clarity of this system is enhanced by providing the core in VHDL, allowing users to thoroughly understand its functionality, supported by example designs on Cyclone10 and Artix 7 boards, catering to both Intel and Xilinx FPGA platforms. Complementing this security measure is the Key Writer Core, which allows programming of custom secret keys into the ATSHA204A in situ on assembled boards, ensuring a seamless integration with the FPGA Lock system. Available for various FPGA platforms, the Efinix version, distributed with TRS Star, expands its applicability, with webinars and user guides offering in-depth implementation insights.
The AES Crypto core by Dillon Engineering offers robust encrypting and decrypting functionalities, rigorously designed to cater to high-performance requirements in secure communications. Using the ParaCore Architect platform, this core is highly parameterized and ensures compatibility with a wide array of FPGA and ASIC systems, providing maximum versatility. This AES core complies fully with the Federal Information Processing Standard (FIPS) 197, covering a variety of operational modes such as ECB, CBC, and CTR. The ability for dynamic key changes without compromising throughput boosts its efficiency in high-frequency security applications. Dillon’s design emphasizes balance between speed and resource usage, offering configurations adaptable to specific use cases. Whether for digital communications or secure data storage, the AES Crypto core stands out for its reliable operation and compliance with key encryption standards.
The QUIC Protocol Core utilizes modern cryptographic protocols like TLS 1.3 to establish secure, fast connections ideal for today's data transmission needs. This core is tailored for FPGA-based client applications, providing complete hardware logic solutions that adhere to the latest security standards. By offloading complex processing from the CPU, the QUIC Protocol Core manages payload data encryption and decryption effectively, as well as QUIC and UDP/IP layer management. This results in smoother operations and heightened security, crucial for applications relying on high-speed secure transmissions. The core's comprehensive design, which includes reference specifications, greatly simplifies the product development cycle. It is well-suited for projects requiring tight security and rapid data flow control, such as high-frequency trading, where speed and reliability are paramount.
PUFhsm is an advanced embedded Hardware Security Module designed to meet the rigorous security demands of automotive and high-performance applications. This module serves as a secure enclave within systems, isolating critical security functions to enhance protection against external threats. It integrates a dedicated CPU along with cryptographic engines to support a complete suite of security processes, such as secure boot, secure updates, and lifecycle management.<br><br>Incorporating EVITA-Full compliance, PUFhsm provides a fortified environment for automotive systems, safeguarding against sophisticated cyber threats. It supports autonomous cryptographic operations within the system, ensuring that sensitive information is shielded from potential vulnerabilities inherent in main processor systems.<br><br>PUFhsm's flexibility and scalability make it an ideal choice for engineers looking to boost security without compromising system efficiency or time-to-market. Its integration into existing architectures is seamless, and when paired with PUFrt, it delivers unparalleled security features, creating a robust defense mechanism that upholds data integrity across the semiconductor lifecycle.
The CANsec Controller Core integrates cybersecurity features into the widely adopted Controller Area Network (CAN) bus protocol. This enhancement ensures secure transmission of data between vehicle components, mitigating potential cyber threats. Designed with automotive environments in mind, it includes cryptographic modules that provide authentication and encryption, safeguarding data integrity and confidentiality. Integrating seamlessly into existing CAN infrastructure, the core supports various security algorithms while maintaining the low-latency communication that CAN networks are known for. Its design allows automotive manufacturers to update their existing systems to meet evolving security standards without significant overhauls in software or hardware. The core is compliant with the CAN in Automation (CiA) specifications and supports onboard diagnostics and other automotive functions, enhancing vehicle safety and reliability. By providing an additional layer of security, the CANsec Controller Core stands as a crucial component in the development of modern, intelligent transportation systems.
QDID PUF is a unique offering designed to generate a distinct identity for devices, leveraging the principles of quantum tunneling. The randomness essential to this process comes from natural variations in oxide thickness and the random distribution of defects in the gate oxide. These properties make the QDID PUF a foundational element for establishing hardware root-of-trust within a security architecture, ensuring robust protection against unauthorized access and attacks. The QDID technology excels in resisting side-channel attacks by creating on-demand and unique identities without needing permanent storage of cryptographic keys, further reducing risk and cost in secure device provisioning. With proven performance under varying environmental conditions, it ensures operational integrity over extended periods, contributing to the security of embedded systems.
The Security Protocol Accelerator is engineered to enhance cryptographic processes within digital systems by offloading computationally intensive operations. By integrating this solution, systems benefit from accelerated security protocols while maintaining a low power footprint and efficient resource usage. Designed specifically for secure data transactions, this accelerator manages both symmetric and asymmetric cryptography. It enables seamless encryption processes for secure communications channels, ensuring data privacy and integrity across various platforms. As systems evolve to address ever-growing security challenges, the Security Protocol Accelerator provides the necessary infrastructure for enhancing real-time data protection protocols. This product not only ensures compliance with contemporary security standards but also prepares systems for future technology advancements, laying a foundation for post-quantum cryptographic frameworks.
The Stellar Packet Classification Platform is a high-performance network solution tailored to enhance the efficiency and security of digital communications. Designed for FPGAs, this platform offers ultra-fast search capabilities using sophisticated lookup rules derived from complex Access Control List (ACL) and Longest Prefix Match (LPM) methodologies. It's engineered for applications that require robust filtering, swift data routing, and highly reliable network security operations. Capable of processing hundreds of millions of lookups per second, Stellar enables carrier-grade performance across diverse operational scopes. Its extensive rules engine can manage millions of complex protocols, ensuring that data packets are accurately classified and routed, mitigating latency and enhancing data throughput. Live update capabilities further allow the system to adapt to evolving network conditions, ensuring continuous optimization. The platform suits demanding applications in areas such as IPV4/6 address lookups, routing tables, and intricately layered network firewalls. For organizations focused on security, it serves as a defensive mechanism against DDoS attacks and similar threats, ensuring components of critical infrastructure remain secure while maintaining seamless data flow. Its dynamic nature makes it indispensable for high-reliability systems in contemporary digital frameworks.
CoMira Solutions offers a Media Access Control Security (MACSec) solution adhering to IEEE standards aimed at safeguarding communication within 802.1 LAN environments. MACSec ensures data confidentiality and integrity, preventing unauthorized access and disruptions. It employs advanced encryption standards and supports flexible traffic management through various port configurations. The MACSec IP's time-division multiplexed architecture aligns seamlessly with CoMira's UMAC, ensuring synchronous operation despite differing link speeds. This implementation includes FIPS-compliant encryption methods such as GCM-AES-128 and GCM-AES-256, supporting robust security needs. Furthermore, CoMira's MACSec supports multiple secure channels and security associations per port, adding layers of protection to client systems. The configurability of Secure Channels and the ability to strip security tags enhances its adaptability in varied networking scenarios, reflecting CoMira's commitment to delivering tailor-fit security solutions.
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 SHA-3 Crypto Engine is a high-performance hardware accelerator designed to handle cryptographic hashing functions efficiently. It fully complies with NIST's FIPS 202 standard and supports all standard SHA-3 hash functions, including SHA-3-224, SHA-3-256, SHA-3-384, and SHA-3-512, along with extendable output functions such as SHAKE-128 and SHAKE-256. This IP core is engineered to offer robust security measures, including protection against time-based side-channel attacks, and features automatic byte padding. Operating within a single clock domain, it has undergone thorough verification to ensure reliability. Its noteworthy versatility makes it suitable for diverse applications like message authentication codes, secure boot engines, TLS/SSL protocol engines, blockchain systems, and pseudo-random bit generation. The SHA-3 Crypto Engine provides a seamless integration into systems, with AMBA® AXI4-Stream support and a fully synchronous design, enabling compatibility with both FPGA and ASIC platforms. Moreover, its comprehensive deliverables include Verilog RTL source code, extensive testbenches, integration examples, and support resources.
The Keccak Hash Engine serves as a cornerstone for cryptographic functions, primarily recognized for its hashing capabilities. However, its utility extends significantly into domains requiring authenticated encryption and pseudo-random number generation. Built upon the innovative sponge construction and leveraging the Keccak-f cryptographic permutation, the Keccak Hash Engine provides unmatched configurability and adaptability. Its extensive standardization under 3GPP TS 35.231 for mobile telephony (TUAK) and NIST's FIPS 202 and SP 800-185, emphasizes its flexibility. The IP core is engineered to function within a single clock domain, allowing for seamless integration and extensive verification to meet industry standards. Its ability to support different output lengths and security levels positions it as a versatile tool across various applications. Keccak Hash's scope of application is diverse, encompassing hash functions, authenticated encryption, secure communication protocols, pseudo-random number generation, and blockchain technology. Its adaptability and robust construction make it an integral component in safeguarding digital data.
Synopsys' Security Protocol Accelerators are engineered to provide top-tier security for semiconductor designs, facilitating efficient encryption and secure data transfer across networks. These accelerators support a variety of security protocols like TLS, IPsec, and MACsec, ensuring data integrity and confidentiality across numerous applications.\n\nAimed at enhancing the security architecture of semiconductor devices, these accelerators are vital for managing cryptographic operations without imposing a significant burden on the primary processing resources. They are optimally designed to work alongside traditional processing units, providing a seamless integration pathway for enhancing the security posture of embedded systems.\n\nSecurity Protocol Accelerators by Synopsys are widely applicable across industries, including automotive, mobile, and data centers, where data protection is paramount. Their integration ensures the devices’ resilience against unauthorized access and cyber threats, enabling robust protection in data-sensitive environments. These accelerators also support power-efficient operation, making them ideal for both high-performance and power-constrained systems.
Comcores' MACsec solution addresses the needs for secure communication on Ethernet links by implementing the IEEE 802.1AE standard for MAC Security. It provides comprehensive protection against eavesdropping and manipulation, making it suitable for applications demanding high security over public and private networks. Built to support various data rates, the MACsec IP core integrates robust cryptographic suites like AES-GCM to encrypt and authenticate network traffic. Its deployment ensures data confidentiality and integrity, fostering a secure environment for transmitting sensitive information such as in military communication systems and data centers.
The Quantum Safe Cryptography IP from Rambus is engineered to fortify hardware and data against the impending threats posed by quantum computing. Utilizing algorithms selected by NIST and CNSA, this solution is crucial for securing data exchanges and maintaining confidentiality in the future computing landscape. Designed for integration with Root of Trust systems or as standalone solutions, this IP supports advanced security applications that require heightened resistance to cyber attacks.
The SHA-3 Secure Hash Function Core adheres to FIPS 180-4 and FIPS 202 standards. It supports comprehensive hash functions including SHA3-224, SHA3-256, SHA3-384, SHA3-512, SHAKE-128, and SHAKE-256, capable of handling up to 48 Mbit/MHz. With a compact design requiring only 28K gates, it ensures efficient cryptographic operations across a variety of applications.
The KiviPQC-KEM is a groundbreaking IP core that offers cutting-edge post-quantum cryptographic capabilities. Designed to withstand quantum computer attacks, it supports all ML-KEM variants as standardized by NIST in FIPS 203, facilitating secure key encapsulation mechanisms. This IP core is intended to enable two parties to establish a shared secret key securely over public channels. KiviPQC-KEM's strength lies in its resource efficiency and minimal logic utilization, which enables cost-effective hardware acceleration. The standalone nature of the IP core ensures that it can be integrated into various SoC platforms for ASIC or FPGA implementation, maintaining flexibility in deployment while ensuring performance integrity. Applications for the KiviPQC-KEM are numerous, spanning quantum-resistant networks, secure public key infrastructures, and secure communications over protocols like MACsec, IPsec, TLS, and SSL. It's constructed to handle computationally intensive operations with robust protection against side-channel attacks, ensuring data remains secure from inception to execution.
ChevinID™ is a security solution designed to safeguard silicon production by authorizing and authenticating hardware and software processes within devices. It establishes a secure root of trust and integrates seamlessly with FPGAs, ASICs, and Chiplets to prevent unauthorized access and modifications. Compatible with various server configurations, including FPGA-based and cloud-hosted setups, ChevinID™ is vendor agnostic, making it versatile for systems using multiple product suppliers.
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