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 AES Encrypt/Decrypt 128/192/256 offering from Secantec presents a secure, efficient encryption solution catering to a wide array of security-critical applications. This IP provides flexible encryption levels, supporting 128, 192, and 256-bit key lengths. One of its standout features is the parallel processing of key calculation and data encryption, significantly reducing the number of clock cycles needed. Operating on an 8-bit primitive polynomial in the Galois Field, this asynchronous design underscores both power efficiency and low-latency performance. The encryption/decryption process is nimble, capable of completing within a single clock cycle if conditions are optimized. Targeting areas with stringent security needs, this encryption IP finds use in sectors demanding robust data protection mechanisms, including secure communications and sensitive data transmission. The architecture's flexibility and verified RTL ensure adaptability across various implementation environments.
SphinX provides industry-standard encryption and decryption using high-performance, low-latency AES-XTS technology. Its design features independent, non-blocking encryption and decryption channels, ensuring data security is maintained without impeding processing speed or system throughput. SphinX is tailored for environments where data protection is paramount, delivering robust security capabilities while preserving system efficiency and performance.
FortiCrypt offers a comprehensive lineup of AES solutions, explicitly engineered for robust defense against side-channel attacks (SCA) and fault injection attacks (FIA), including variants like SIFA. Highlighting exceptional performance, these solutions employ masking techniques based on finite field arithmetic. These mechanisms ensure encryption and decryption processes are secure, while maintaining impressive speeds without additional latency. Balancing high security, low gate count, and power consumption, FortiCrypt products are available in configurations focusing on performance, power efficiency, or compact design options. With TVLA methodology verification and Common Criteria accreditations, FortiCrypt products are designed to thrive in even the most vulnerable situations. The suite supports ultra-high performance, ultra-low power efficiency, significant gate count reduction, and satisfies diverse industrial needs, making it applicable for both high-end and existing field devices vulnerable due to insufficient original protections. Moreover, FortiCrypt can be utilized with AMBA, AXI, or APB buses, offering a hardware-software solution integrated into diverse circuit architectures, thus ensuring comprehensive compatibility and security across systems.
FortiPKA-RISC-V serves as a powerful public key accelerator for handling extensive cryptographic computations, which traditional CPUs struggle with. It is crafted to offload heavy computational tasks from the main processor, thereby optimizing performance and resource efficiency. By avoiding cumbersome data transformation processes, FortiPKA-RISC-V underscores its superior operational speed over other solutions, while being optimal in size and energy consumption. Its cryptographic algorithms are implemented in firmware executed via an embedded RISC-V core, with extended support for custom arithmetic operations, making it versatile across applications that demand high-efficiency cryptographic processing. Moreover, it offers hardware configuration options that balance between performance and resource utilization tailored for specific applications. Supporting an array of cryptography standards, such as RSA and elliptic curve algorithms, and equipped with features for robust defense against side-channel and fault injection attacks, FortiPKA-RISC-V is adaptable to diverse cryptographic environments and requirements. Whether integrated into networks, communications, or IoT devices, it delivers outstanding reliability and security across platforms.
The FortiMac IP core is developed to deliver secure HMAC SHA2 implementations, offering substantial protection against side-channel and fault injection attacks. Utilizing the robust Threshold Implementation (TI) paradigm, FortiMac ensures that even the most sophisticated attacks are unable to compromise its security features. This protection robustness has been validated both through analytical methods and real-world physical device testing. FortiMac's standout feature is its unprecedented security, which answers the requirements of today’s rapidly evolving threat landscapes. This IP can be harnessed in both hardware and software configurations, extending its usability to various critical and non-critical applications, unrestricted by conventional design limitations. It's the only solution of its type in the market, setting a high bar for hardware security implementations. FortiMac is integral in securing applications where safeguarding against SCA and FIA is paramount, especially vital in sectors targeting optimal performance and high-security integrity.
Post-Quantum Cryptography IP addresses the emerging challenges presented by quantum computing threats. This IP includes hardware accelerators that are prepared for lattice-based algorithms, ensuring strong defense capabilities against future cyber threats. It is designed for configurable performance, offering tunable power and area efficiency, which is essential for maintaining security standards as quantum computing evolves. This solution is tailored to secure cryptographic operations, ensuring data remains protected amidst advancements in computational technologies.
The ONNC Calibrator is crafted to optimize AI System-on-Chips by employing post-training quantization (PTQ) techniques to maintain high precision, especially in architectures using fixed-point formats like INT8. By leveraging architecture-aware quantization, it ensures chips retain 99.99% accuracy, offering unparalleled precision control across diverse hardware configurations. This calibrator supports configurable bit-width architectures, allowing the balance of precision and performance to be tailored for various applications. Capable of working with different AI frameworks such as ONNX and PyTorch, the calibrator aligns seamlessly with standard PTQ workflows without needing complex retraining. Its internal AI engine autonomously determines optimal scaling factors, making it an indispensable tool in maintaining model accuracy while reducing computational demand.
eSi-Crypto offers a robust suite of encryption and authentication solutions designed for ASIC and FPGA implementations. Characterized by low resource usage and high throughput, this cryptographic IP includes True Random Number Generators (TRNGs) that are compliant with NIST standards and can be integrated as a hard macro in the target technology. The IP supports several algorithms, such as CRYSTALS Kyber, CRYSTALS Dilithium for post-quantum cryptography, and widely used standards like RSA and AES, facilitating secure communication across diverse applications. It is compatible with AMBA APB/AHB as well as AXI bus interfaces, making it a versatile choice for sophisticated security needs.
The Securyzr iSSP is a holistic security lifecycle management solution that integrates secure services across all phases of a device's existence. It allows for seamless provisioning, firmware updates, security monitoring, and device identity management in a zero-touch manner. This platform facilitates efficient management and extensive security oversight, empowering enterprises to handle security change implementation smoothly.
The Securyzr Key Management System provides robust, secure key management services across embedded systems. It ensures secure boot, efficient key isolation, and anti-tampering measures, enhancing the trustworthiness of critical systems. Its design ensures data integrity and confidentiality, making it a core component for any secure system architecture. This comprehensive IP solution integrates with existing frameworks to support seamless security management.
The AES (standard modes) product from Helion offers a robust encryption solution featuring the Advanced Encryption Standard (AES) algorithm, a 128-bit block cipher known for its efficiency and security. With key sizes of 128, 192, and 256 bits, the AES algorithm complies with NIST standards and is recognized globally for securing sensitive information. This product caters to applications necessitating rapid data processing and heightened security, such as in IPsec, wireless communication, and storage encryption. Helion's AES cores are crafted to deliver optimal performance across a vast array of settings, including both ASIC and FPGA implementations. The cores are designed with scalability in mind, accommodating applications from minimal data rates up to multi-gigabit transmission speeds. Thanks to their architecture, these cores maintain high usability, enabling easy adoption and integration into user systems without excessive resource allocation. Helion's AES suite includes numerous versions tailored to meet varying data transmission needs, ensuring adaptability in resource-constrained environments. Users benefit from the choice of low-power, space-efficient, and high-speed solutions, supporting a wide range of encryption requirements. These cores are also compatible with an array of programmable technologies, reaffirming their utility across diverse platforms, from commercial applications to government-level data protection setups.
The AES Encryption for RFID applications is engineered to provide robust security for data in RFID communications. Utilizing Advanced Encryption Standard (AES) techniques, it offers a secure and efficient mechanism for protecting sensitive information transmitted in RFID systems. This encryption solution is ideal for applications where data integrity and confidentiality are paramount, protecting against unauthorized access and ensuring secure wireless transactions.
The TakeCharge Electrostatic Discharge Solutions are specialized innovations designed to offer unparalleled protection against electrostatic discharge in advanced semiconductor processes. These solutions are compatible with the latest FinFET technology, including TSMC's 3nm node, which presents unique challenges such as narrow design windows that traditional ESD methods like ggNMOS cannot address effectively. Sofics's TakeCharge solutions provide a reliable and robust alternative, ensuring the safety and functionality of high-speed devices. The narrow margins in modern FinFET processes necessitate precision and adaptability, which is where TakeCharge shines. It is capable of safeguarding delicate electronics used across various applications, ranging from AI to data centers and beyond. The solutions in this portfolio leverage low parasitic capacitance and high voltage tolerance, maintaining performance without compromising on efficiency or footprint. In addition to their technological prowess, these solutions have been silicon-proven across multiple foundries, demonstrating their adaptability and success in real-world scenarios. TakeCharge assures interfacing reliability and protection for state-of-the-art integrated circuits, making it indispensable for modern electronic design.
MACSec IP by CoMira Solutions is designed to safeguard network communications by implementing Media Access Control Security as defined by IEEE standards. By using a unique time-division multiplexed cut-through architecture, the MACSec IP ensures secure and efficient data transfer within local area networks. It supports a wide range of configurations including custom security associations and supports multiple ports for simultaneous data protection, thereby making it adaptable to diverse network topologies and security requirements.
The DAES is a sophisticated cryptographic processor core, expertly crafted to implement the Rijndael encryption algorithm, commonly known as Advanced Encryption Standard (AES). This processor strengthens system security through its ability to handle varying levels of encryption with support for 128-bit and 256-bit key lengths. This versatility enables it to secure a wide range of applications, from consumer electronics to complex data centers where robust encryption is paramount. This cryptographic processor seamlessly bridges to widely used bus architectures, including APB, AHB, and AXI, ensuring broad compatibility with contemporary SoC designs. The DAES core also supports several block cipher modes such as ECB, CBC, CFB, OFB, and CTR, providing a flexible framework for encryption operations across different domains. Its internal key expansion module enhances encryption operations by allowing swift transitions and minimal resource utilization, crucial for systems requiring frequent key changes. Besides its encryption capabilities, the DAES processor excels in performance and efficiency, enabling rapid processing of cryptographic tasks without compromising security. Its architecture and design facilitate easy integration, allowing engineers to deploy secure solutions quickly in diverse electronic ecosystems. By addressing the ever-growing demand for effective data protection mechanisms, the DAES core plays a vital role in safeguarding sensitive information across myriad applications.
Designed for memory-constrained applications, PQCryptoLib Embedded extends the capabilities of PQCryptoLib to environments like microcontrollers and IoT devices. This specialized library emphasizes configurability to optimize for minimal binary size and memory usage, essential in constrained computing environments. It offers secure post-quantum cryptographic algorithms suited for devices where resource allocation is a challenge.
PQCryptoLib is a comprehensive cryptographic library offering support for the latest post-quantum and classical algorithms. Certified under FIPS 140-3, this library is central to offering crypto-agility and protecting against potential 'harvest-now, decrypt-later' attacks. PQCryptoLib provides a secure API for integrating hybrid solutions within TLS 1.3. Its primary aim is to aid organizations in transitioning to quantum-resilient infrastructures seamlessly.
The DSHA2-256 is an advanced cryptographic co-processor core, meticulously engineered to optimize the SHA2-256 hash function. It implements a universal solution with bus bridge capabilities to APB, AHB, and AXI buses, promoting flexibility in integration. Its compliance with the FIPS PUB 180-4 standard and RFC 2104 enhances its reliability, ensuring robust cryptographic performance across various applications. The processor supports both SHA2 224-bit and 256-bit modes, making it adaptable to numerous security requirements. Underlying the DSHA2-256 is a focus on efficient cryptographic processing, where high-speed computation of hash values is crucial for secure data handling and protection. Its architecture is designed to accelerate hash operations significantly, which makes it ideal for systems where large data streams require rapid and secure processing. The core's integration capabilities further allow seamless incorporation into system designs, supporting comprehensive application scenarios in security-focused sectors. The core also features native HMAC (Hash-based Message Authentication Code) support, enhancing secure message verification processes. This capability ensures that data authenticity and integrity are maintained, adding another layer of security to systems deploying the DSHA2-256. With the increasing demand for secure computing environments, this cryptographic co-processor stands as a vital component for products requiring enhanced data security and encryption capabilities.
The AES Core offered by Green IP Core is a pioneering encryption solution that ensures robust security for electronic systems. Designed for high-performance environments, this core implements the Advanced Encryption Standard (AES), a specification widely recognized and adopted for securing data across diverse applications. It provides accelerated encryption and decryption capabilities, which are essential for protecting sensitive information in real-time operations. Featuring flexible configuration options, the AES Core can be tailored to specific security needs, ensuring that it integrates seamlessly with existing systems while maintaining the highest standards of security. Its design is optimized for low latency and minimal power consumption, making it suitable for resource-constrained environments. Additionally, it supports a wide range of cryptographic key lengths, offering versatile solutions for complex security requirements. Targeted at applications requiring reliable data protection, such as financial transactions and secure communications, the AES Core stands as a testament to Green IP Core's dedication to delivering trustworthy security solutions. Its efficient architecture not only enhances performance but also simplifies the implementation process, thereby reducing the time and cost typically associated with incorporating advanced encryption into electronic systems.
The AES-XTS solution by Helion is tailored for disk encryption, leveraging the Tweakable block cipher algorithm to provide enhanced data security at the sector level on storage devices. The AES-XTS mode is designed to prevent threats like copy-and-paste or dictionary attacks and can independently encrypt and decrypt data in sector-sized blocks. This encryption core is crucial for safeguarding sensitive data on storage arrays, ensuring that identical plaintext blocks placed at different sectors result in distinct ciphertext. Helion offers a variety of AES-XTS cores to address differing data throughput needs, with capabilities ranging from less than 1Gbps to over 64Gbps, making it suitable for singular hard disks to large server arrays. Helion's AES-XTS solutions can be deployed on both ASIC and FPGA platforms, ensuring maximum performance and resource efficiency across varied technological landscapes. They support key sizes of 128-bit and 256-bit, with options for Ciphertext Stealing, adapting to diverse encryption protocols and operational environments.
The Dukosi Cell Monitoring System (DKCMS) revolutionizes battery system operations by incorporating real-time, cell-specific data monitoring for enhanced safety and efficiency. With the capacity to improve battery management in electric vehicles and stationary energy storage systems, this system utilizes innovative technology to log events and data continuously. By eliminating complex wiring, DKCMS simplifies battery architecture while maintaining superior performance. The system offers a sustainable solution by enabling circular economy practices through detailed data insights collected over the battery lifecycle.
Designed for AI-on-chips, the ONNC Compiler is a comprehensive bundle of C++ libraries and tools tailored to enhance compiler development for deep learning accelerators. It efficiently transforms neural networks into machine instructions suitable for diverse SoC architectures, from single core systems to more complex layouts with multi-level memory hierarchies. The compiler allows seamless connectivity to leading deep learning frameworks such as PyTorch and TensorFlow. It enables the scaling of deep learning tasks across heterogeneous multicore AI SoCs by utilizing both single backend and multiple backend modes to optimize computing resources. Additionally, it supports intricate features like multiple view address maps, ensuring effective memory allocation and data movement across fragmented memory spaces. Known for performance optimization, the ONNC Compiler employs hardware/software co-optimization techniques to reduce data movement overhead, thereby improving system throughput and efficiency.
The PQSDK is a versatile software development kit designed to simplify the prototyping and experimentation of both post-quantum and conventional cryptographic primitives. It integrates PQShield's PQCryptoLib library with OpenSSL and mbedTLS, two prominent cryptographic libraries. PQSDK is tailored to facilitate secure application prototyping and enable post-quantum enhancements in secure communication protocols, like TLS 1.3.
Helion's AES-GCM core provides a high-performance implementation of the AES in Galois Counter Mode (GCM), which is renowned for offering both encryption and authentication functionalities. This mode is specifically engineered to achieve high throughput rates while maintaining robust security, suitable for applications such as secure networking and high-speed data transfers. The GCM mode allows pipelining and parallelism, making it ideal for environments where latency and throughput are critical. Helion's AES-GCM implementations support a wide range of processing requirements, with throughput options from less than 50Mbps up to over 40Gbps, thus accommodating both lightweight applications and those demanding extensive data handling capabilities. Available for various technologies like ASICs and FPGAs, including platforms from Xilinx and Altera, Helion's AES-GCM cores are designed to deliver fast, efficient encryption and authentication. Its adaptability and performance efficiency make the Helion AES-GCM solution a strong candidate for any system requiring secure data encryption combined with swift response times.
The DCRP1A CryptOne by Digital Core Design is a cutting-edge cryptographic system developed to meet the challenges posed by quantum computing advancements. The system distinguishes itself with an exceptionally compact silicon footprint while maintaining high processing speeds. Its robust design ensures resilience against power and timing attacks, making it a formidable choice for industries requiring superior security protocols. With over 20 years of market experience, DCRP1A integrates seamlessly into various applications by leveraging its advanced architectural design. This cryptographic system is built to align with evolving security standards, providing adaptable solutions for telecommunications, automotive, and military sectors. The DCRP1A ensures secure communication channels are established, mitigating risks associated with data interception and unauthorized access. Furthermore, DCRP1A demonstrates resilience through its compatibility with elliptic curve cryptography, which is further enhanced by its capacity to manage disposable keys for heightened security assurance. By adhering to both European and US security guidelines, the system serves as a trusted platform for organizations seeking to future-proof their cryptographic framework against emerging cyber threats.
The DKCMS Core provides a robust, contactless solution for monitoring high-voltage battery packs across various applications. With features supporting high accuracy per-cell voltage metrics and temperature measurements, the core facilitates seamless data processing to enhance the battery management system (BMS) operations. Utilizing the proprietary C-SynQ communication protocol, the DKCMS Core enables efficient, low-latency communication between cell monitors and a system hub, reducing component needs by eliminating complex wiring harnesses. Its design fosters scalability, allowing for significant flexibility in battery pack development and deployment across different market segments.
The AES Crypto IP Core from Dillon Engineering is a comprehensive solution adhering to the Advanced Encryption Standard (AES), as specified by FIPS 197. This core offers adaptability for both encryption and decryption tasks, supported by multiple operation modes such as ECB, CBC, CFB, OFB, and CTR. Developed using the ParaCore Architect utility, this core is flexible in its application, easily customizable to meet specific performance or area requirements. It ensures high data throughput up to 12.8 Gb/s with several configurations available to balance throughput against silicon area in FPGA or ASIC implementations. The IP supports dynamic key changes without impacting throughput, providing an effective balance of security and performance. It is available in both generic HDL and targeted EDIF formats, ensuring seamless integration within a range of project frameworks, equipped with a full testbench for validation.
The DAES is a high-performance cryptographic co-processor that utilizes the Rijndael encryption algorithm. Designed for integration with APB, AHB, and AXI buses, this co-processor provides robust encryption capabilities. It is compliant with key industry standards, supporting multiple key lengths and cipher modes to ensure data security. Supporting 128 and 256-bit key lengths, the DAES co-processor is versatile for various encryption scenarios. It handles various block cipher modes such as ECB, CBC, CFB, OFB, and CTR, ensuring adaptability to different security requirements. This flexibility makes it a critical component in infrastructure requiring secured data exchanges. The DAES stands out with its internal key expansion module, offering enhanced security by generating and managing encryption keys internally. This feature not only simplifies implementation but also strengthens the encryption process, shielding sensitive information from exposure and tampering threats.
PhantomBlu stands out in the realm of tactical communications, providing cutting-edge connectivity solutions for the defense sector. This mmWave technology supports anti-jam, low probability of detection communications across air, sea, and land vehicles. PhantomBlu enables seamless, mission-critical IP networking using its highly configurable mesh network. By integrating mechanisms like low SWaP (Size, Weight, and Power), the system ensures reliable long-range communications. Beyond its technological prowess, PhantomBlu offers a secure yet flexible way to connect legacy and future military assets, proving crucial for various high-altitude and convoy applications. It's a sophisticated solution, delivering data rates tenfold greater than conventional Wi-Fi and mobile networks, designed to maintain connectivity even under the most challenging conditions and distances.
DSHA2-256 is a highly efficient cryptographic hash accelerator designed by Digital Core Design. This IP core bridges seamlessly to APB, AHB, and AXI bus protocols, driving a universal approach to accelerating SHA2-256 hash functions. It complies with the FIPS PUB 180-4 standards, ensuring top-tier security and integrity in data processing. This versatile hash accelerator supports multiple hashing modes, including SHA2 224 and 256 bits, making it a flexible solution for different cryptographic needs. With native HMAC mode support, DSHA2-256 offers enhanced security features to meet modern cryptographic requirements. The core is built to accommodate future needs, providing a scalable framework for industries ranging from IT security to financial services. Its robust design not only accelerates hash functions but also improves overall system performance with its efficient processing capabilities. The DSHA2-256 is regarded as a universal solution that enables rapid data integrity verification, catered towards high-performance computing environments.
The DSHA2-384 is a specialized cryptographic IP core from Digital Core Design, focusing on accelerating the SHA2-384 hash function. Designed for seamless integration into modern computing environments, it supports APB, AHB, and AXI interface protocols, offering a versatile approach to cryptographic processing. As a FIPS PUB 180-4 compliant product, the DSHA2-384 ensures the highest standards of data integrity, with RFC 2104 compliant HMAC native mode for secure message authentication. By supporting multiple hashing modes including SHA2 224, 256, and 384 bits, it provides comprehensive cryptographic coverage for versatile applications. The efficiency of the DSHA2-384 lies in its capability to significantly accelerate data processing tasks, reducing the computational load on the main CPU and enhancing overall system performance. This makes it an invaluable asset for applications that require high-speed data hashing and encryption, fortifying data security protocols across various sectors.
Digital Core Design's DSHA2-512 represents a cutting-edge cryptographic solution for accelerating the SHA2-512 hash function. This IP core is compatible with interfacing standards such as APB, AHB, and AXI, allowing smooth integration into existing systems. It is designed to meet the FIPS PUB 180-4 specifications, which guarantees its reliability and robustness. The DSHA2-512 supports a wide range of hash modes, including SHA2 224, 256, 384, and 512 bits, providing extensive versatility for different security protocols. It incorporates RFC 2104 compliant HMAC native mode, enhancing its ability to deliver secure message authentication coding. This feature ensures that even the most sensitive data remains protected from unauthorized manipulation. Designed to optimize data processing speeds, the DSHA2-512 reduces the burden on central processors, enhancing the efficiency of security operations in high-demand environments. Whether applied in financial, governmental, or general IT systems, it upholds data integrity and security with peerless dependability.
The DAES XTS Co-Processor from Digital Core Design is an advanced cryptographic module that integrates support for the AES-XTS encryption mode. Coupled with compliance to IEEE Std 1619-2007, this IP core is indispensable for storage encryption solutions, offering robust data protection for industries handling critical information. Supporting 128 and 256-bit key sizes, the DAES XTS ensures a high degree of flexibility in encryption scenarios, accommodating a variety of security requirements. Its design facilitates random access to memory blocks, enhancing efficiency in data handling operations and improving overall system performance. The DAES XTS's capabilities are tailored for elevated security across sectors such as finance, defense, and IT. The co-processor supports seamless integration with a multitude of embedded systems, reinforcing data confidentiality through sophisticated cryptographic measures.
Synopsys offers Security Protocol Accelerators, providing robust cryptographic solutions for secure communications in digital systems. These accelerators are designed to enhance data security through efficient encryption and decryption processes, supporting multiple cryptographic protocols to meet varied application needs. These security solutions are optimized for performance and power, ensuring that security measures do not compromise system efficiency. The accelerators are ideal for use in applications where data integrity and confidentiality are crucial, such as in financial services, government communications, and enterprise networks. Integrated with broad hardware and software security modules, the Security Protocol Accelerators offer a comprehensive solution for developers looking to implement advanced security features quickly and reliably. Synopsys supports these with detailed documentation and technical support to facilitate seamless integration into broader system architectures.
Gyrus AI offers a Video Anonymization solution that employs state-of-the-art computer vision and deep learning techniques to ensure privacy in video surveillance. This technology utilizes intricate algorithms to mask, blur, or replace sensitive information in video footage, providing a reliable way to anonymize visual data without losing analytical value. The solution is particularly beneficial for organizations needing to comply with privacy regulations while simultaneously extracting valuable insights from video content. The Video Anonymization process has multiple levels of intensity, offering options such as face blurring or substitution with synthetic characters. This flexibility allows users to choose the appropriate level of privacy protection based on the specific requirements of their projects. Additionally, these models can be customized and deployed either on-premises or in cloud-based environments, ensuring versatility to meet varying IT infrastructure needs. By utilizing this IP, businesses can safely store, share, and analyze video data without breaching privacy regulations, turning anonymized data into actionable insights. This represents a forward-thinking approach to data security and compliance, effectively addressing the challenges of contemporary video surveillance and processing.
The Fault Resistant AES Core represents a significant advancement in secure, fault-tolerant cryptographic technology. Building on the foundational capabilities of its predecessor, this IP core is designed to maintain encryption integrity even under fault conditions. By incorporating resilience features, it ensures that data remains secure even when subjected to potential disruptions that may arise in real-world settings. This core's robust design is tailored for environments where errors are not just possible but likely, such as aerospace and defense applications. Its architecture allows it to perform consistently, safeguarding sensitive information while mitigating risk factors associated with electronic faults and errors. This makes it ideal for critical systems where maintaining data integrity is paramount. In terms of compatibility, the Fault Resistant AES Core is designed to integrate seamlessly with a variety of systems, ensuring that upgrades in security do not compromise system performance or reliability. Its ability to handle unforeseen fault scenarios without losing cryptographic precision highlights its value to developers seeking to enhance the dependability and resilience of their security protocols.
The True Random Number Generator (TRNG) core is designed to produce pure random numbers, which is essential for cryptographic applications and secure communications. This core leverages hardware-based sources of entropy to generate numbers that are unpredictably random and comply with stringent security standards, such as FIPS 140-2 Annex C. By employing advanced algorithms validated through rigorous test suites like NIST SP 800-22, the TRNG guarantees high security and reliability. The core is small, self-contained, and incorporates both a true random number generation function and a pseudorandom number generator (PRNG) element to enhance randomness and ensure continuous operation. Its capability to reset and reseed automatically or as required ensures it continuously provides secure random outputs, addressing needs in applications like secure data transactions, encryption keys, and more.