All IPs > Automotive
The automotive category of semiconductor IPs is primarily dedicated to addressing the intricacies and demands of modern automotive technology. As vehicles become increasingly sophisticated, integrating more electronic systems and sensors, the need for reliable, efficient, and safe semiconductor IP solutions has never been greater. Our diverse range of automotive semiconductor IPs is designed to meet the needs of various automotive applications, from enhancing communication between vehicle components to ensuring the utmost safety and connectivity.
One essential aspect of this category is the variety of communication protocols needed in automotive systems. This includes the classic Controller Area Network (CAN), which is a robust vehicle bus standard allowing microcontrollers and devices to communicate with each other within a vehicle without a host computer. Modern advancements in this area are represented by CAN-FD and CAN XL, which offer extended data formats and faster communication speeds, crucial for accommodating the growing complexity of in-vehicle networks. Additionally, the inclusion of FlexRay and LIN technologies provides options for higher bandwidth communication and budget-friendly local interconnect networks.
Safety is also a pivotal concern in automotive semiconductor IPs, as exemplified by Safe Ethernet technology. Safe Ethernet enables high-speed communication suitable for applications where safety is critical, such as advanced driver-assistance systems (ADAS) and autonomous driving technologies. These semiconductor IPs are integral in ensuring information is shared accurately and immediately between vital components, thus reducing the room for error and increasing overall vehicle safety.
Overall, the automotive category of semiconductor IPs offers essential tools for developing vehicles that are not only connected and efficient but also highly safe and reliable. Whether you’re working on enhancing the internal communications of a vehicle, implementing advanced safety systems, or developing new technologies for the networked, autonomous vehicles of tomorrow, our automotive semiconductor IP catalog has the resources you need to succeed.
KPIT offers a comprehensive solution for Autonomous Driving and Advanced Driver Assistance Systems. This suite facilitates the widespread adoption of Level 3 and above autonomy in vehicles, providing high safety standards through robust testing and validation frameworks. The integration of AI-driven decision-making extends beyond perception to enhance the intelligence of autonomous systems. With a commitment to addressing existing challenges such as localization issues, AI limitations, and validation fragmentation, KPIT empowers automakers to produce vehicles that are both highly autonomous and reliable.
Topaz FPGAs from Efinix are designed for volume applications where performance and cost-effectiveness are paramount. Built on their distinctive Quantum® compute fabric, Topaz devices offer an efficient architecture that balances logic resource availability with power minimization. Suitable for a plethora of applications from machine vision to wireless communication, these FPGAs are characterized by their robust protocol support, including PCIe Gen3, MIPI D-PHY, and various Ethernet configurations. One of the standout features of Topaz FPGAs is their flexibility. These devices can be effortlessly adapted into systems requiring seamless high-speed data management and integration. This adaptability is further enhanced by the extensive logic resource options, which allow increased innovation and the ability to add new features without extensive redesigns. Topaz FPGAs also offer product longevity, thriving in industries where extended lifecycle support is necessary. Efinix ensures ongoing support until at least 2045, making these FPGAs a reliable choice for projects aiming for enduring market presence. Among the key sectors benefiting from Topaz's flexibility are medical imaging and industrial control, where precision and reliability are critical. Moreover, Efinix facilitates migration from Topaz to Titanium for projects requiring enhanced performance, ensuring scalability and minimizing redesign efforts. With varying BGA packages available, Topaz FPGAs provide comprehensive solutions that cater to both the technological needs and strategic goals of enterprises.
The CANmodule-III is a full CAN controller catering to complex automotive and industrial applications. It supports advanced features like multiple FIFO and mailbox configurations, ensuring effective message handling. With compliance to CAN2.0B, this controller ensures impeccable communication across CAN networks, making it suitable for highly demanding environments. It's designed to seamlessly integrate custom or standard filters, enhancing message security and efficiency. Engineered with flexibility in mind, it surpasses basic CAN functionalities, offering the ability to adapt additional application-specific functions as wraparounds that leave the core uninfluenced. This ensures stability while meeting specific design requirements. Integrating the CANmodule-III into your design is facilitated by its robust interface and modular structure, guaranteeing compatibility with both ASIC and FPGA technologies. With its refined architecture, it consistently delivers high performance across a range of sectors where CAN communication is integral.
The CANmodule-IIIx is an advanced CAN controller that builds upon the foundation set by its predecessors to meet the rigorous demands of modern communication systems. Capable of managing 32 receive and 32 transmit mailboxes, this module is perfect for intensive applications requiring high throughput and reliability. It is designed to work seamlessly with industry-standard CAN2.0B protocols, ensuring consistent performance across various devices and systems. The CANmodule-IIIx also includes robust support for storage and retrieval of messages via its FIFO-based architecture, making it suitable for high-speed communications in automotive and industrial networks. In addition, this controller benefits from customizable application-specific features that enhance its overall functionality without compromising the integrity of the core functionalities. With its high integrity, reliability, and ease of use, the CANmodule-IIIx is a top choice for developers looking to implement complex CAN network solutions across various technologies including FPGA and ASIC.
The CANmodule-IIx is a sophisticated CAN controller tailored for streamlined message handling within specialized network systems. With its FIFO-based design architecture, it offers efficient message throughput and storage, meeting the demands of high-speed communication environments. It is fully compliant with the CAN2.0B protocol, ensuring reliable and standardized communication capabilities. The CANmodule-IIx is versatile, controlling data transfers across various modules effortlessly, while its efficient design architecture supports both FPGA and ASIC technologies. Equipped to handle an array of custom filters, this module allows for enhanced message control tailored to application-specific requirements. Its robust construction and flexible configuration options make it an ideal choice for automotive communications, industrial automation, and other demanding sectors where reliability and speed are crucial.
The 3D Imaging Chip from Altek is a sophisticated piece of technology designed to enhance depth perception in imaging applications. This chip is deeply rooted in Altek's extensive expertise in 3D sensing technology, developed over several years to provide optimal solutions for various devices requiring mid to long-range detection capabilities. It's particularly effective in enhancing accuracy in depth recognition, crucial for applications such as autonomous vehicles and complex robotics. With its integration capabilities, the 3D Imaging Chip stands out by seamlessly combining hardware and software solutions, offering a comprehensive package from modules to complete chip solutions. This versatility allows the chip to be employed across various industries, wherever precision and depth detection are paramount. It facilitates improved human-machine interaction, making it ideal for sectors like virtual reality and advanced surveillance systems. Engineered to support sophisticated algorithms, the 3D Imaging Chip optimizes performance in real-time image processing. This makes it a pivotal sensor solution that addresses the growing demand for 3D imaging applications, providing clarity and reliability essential for next-generation technology.
Time-Triggered Ethernet (TTEthernet) represents a cutting-edge networking solution, engineered for applications requiring deterministic real-time communication. By implementing time scheduling methods, TTEthernet ensures high precision and fault-tolerant communication over Ethernet, catering to the needs of cyber-physical systems across aerospace, automotive, and industrial sectors. The protocol is distinguished by its capability to handle safety and high availability requirements directly at the network level, thus bypassing application layers. This level of assurance is attained through a robust system of redundancy management and fault-tolerant clock synchronization, as standardized in SAE AS6802.\n\nThe protocol promotes a standardized approach to network design, facilitating seamless integration with a wide array of Ethernet components and maintaining compatibility with IEEE 802.3 standards. This feature is crucial for simplifying the complexities of high-availability and fault-tolerant systems. By allowing for precise scheduling and replicated packet transmission, TTEthernet significantly enhances network reliability. In cases of network faults, this feature ensures that communication is maintained without interruption, supporting fail-operational safety systems.\n\nAdditionally, TTEthernet is scalable from smaller networks to expansive systems, maintaining optimal safety, performance, and security levels. The platform's ability to partition traffic classes permits the convergence of different protocols within a single network, enhancing its adaptability and application range. As a result, TTEthernet underpins numerous critical applications by ensuring both real-time responsiveness and robust data handling capabilities, ultimately reducing time-to-market for integrated solutions.
The Advanced Flexibilis Ethernet Controller (AFEC) brings triple-speed Ethernet processing to programmable hardware environments, supporting traditional copper and modern fiber optics connections. This IP block, which functions much like a Network Interface Controller, achieves a significant efficiency by pairing DMA transfer capabilities with both receive and transmit data, thus reducing CPU load efficiently. AFEC incorporates standard MII/GMII interfaces for seamless connectivity to Ethernet PHY devices, facilitating high-speed data transfers without overwhelming moderate-caliber processors. By accommodating features like automatic CRC computation, comprehensive DMA control, and precise time stamping consistent with IEEE 1588 standards, AFEC ensures a cohesive integration into any Ethernet-based infrastructure. The AFEC's high configurability and tested Ethernet capabilities make it an excellent choice for applications spanning from telecommunications to utilities. AFEC's use of FPGA resources is optimized to minimize footprint while maximizing performance, ensuring that hardware constraints do not impede the integration of this powerful controller within complex network topologies.
Silvaco delivers robust, silicon-proven IP designed for automotive use, catering to the demanding requirements of in-vehicle networking and SoC subsystems. The range covers network standards such as FlexCAN with CAN-FD, FlexRay, and LIN. Their Automotive SoC solutions incorporate critical cores and peripherals to enhance system reliability and performance, crafted for seamless integration into critical automotive applications. This IP is thoroughly verified to meet rigorous automotive standards, facilitating the swift development of dependable electronic systems for vehicles.
The EW6181 is an advanced multi-GNSS silicon designed for high sensitivity and low power consumption, a stand-out product in GPS and GNSS technology. It supports multiple global positioning systems like GPS L1, Glonass, BeiDou, Galileo, SBAS, WASS, and A-GNSS. This silicon includes an integrated RF frontend, a digital baseband for signal processing, and ARM MCU to efficiently run the necessary firmware. This chip is tuned for low energy use, incorporating a DC-DC converter along with high voltage and low voltage LDOs, which makes it ideal for battery-powered devices. Its size and energy efficiency make it a competitive module component that reduces the overall Bill of Materials (BoM) for manufacturers. The EW6181's architecture is optimized for cloud readiness, offering enhanced capabilities for applications needing intensified accuracy and power savings through cloud connectivity. A unique feature of the EW6181 is its implementation in a 2-antenna Evaluation Kit, showcasing its potential to improve device connectivity and performance with antenna diversity mode, perfect for rotating devices like action cameras and wearable tech. This diversity offers key advantages in both connectivity and user experience, emphasizing the EW6181 as a flexible, high-performing component in various technological ecosystems.
The Flexibilis Redundant Switch (FRS) is a versatile triple-speed Ethernet Layer-2 switch IP core designed to integrate High-availability Seamless Redundancy (HSR) and the Parallel Redundancy Protocol (PRP) into a single solution. Known for its exceptional performance, FRS can handle full-duplex gigabit speeds across multiple ports, making it one of the most robust hardware options for ensuring redundant network communication. FRS eliminates the need for separate RedBoxes by allowing devices to be connected directly, thereby reducing costs and complexity in deployment. Its FPGA-based design provides a flexible implementation with port customization capabilities, enabling it to operate under various network configurations and speed requirements. Additionally, FRS supports the IEEE1588 Precision Time Protocol (PTP), ensuring accurate time synchronization across network nodes, a critical function for network stability in time-bound communication environments. Available in customizable configurations ranging from 3 to 8 ports, FRS can be adapted to specific user needs. Its robust support for wire-speed Ethernet packet forwarding, coupled with transparent clock processing, makes it ideal for applications demanding high reliability and precision like industrial networks, smart grid solutions, and any infrastructure where seamless communication is imperative.
Bluespec's Portable RISC-V Cores are crafted to provide extensive flexibility and compatibility across numerous FPGA platforms, including industry leaders such as Achronix, Xilinx, and Lattice. These cores are designed to support both Linux and FreeRTOS, offering developers a broad range of applications in system development and software integration. Leveraging standard open-source development tools, these cores allow engineers to adopt, modify, and deploy RISC-V solutions with minimal friction. This simplifies the development process and enhances compatibility with various hardware scenarios, promoting an ecosystem where innovation can thrive without proprietary constraints. The Portable RISC-V Cores cater to developers who require adaptable and scalable solutions for diverse projects. By accommodating different FPGA platforms and supporting a wide range of development environments, they represent a versatile choice for implementing cutting-edge designs in the RISC-V architecture space.
The APIX3 transmitter and receiver modules cater to the increased performance demands of modern infotainment and cockpit architectures, supporting multi-Gbps data transmission over singular or multiple twisted pair cables. Engineered for automotive UHD video transmission, the APIX3 modules offer a scalable solution for a wide range of in-car video needs, providing capabilities like multiple video channel transmission over a singular connection and rigorous diagnostic features for preemptive cable health checks. Backward compatibility with APIX2 ensures seamless integration into existing setups, while the active equalizers automatically adjust to different transmission conditions, promoting adaptability and reliability in various implementations.
The DVB-RCS and IEEE 802.16 WiMAX Turbo Decoder is expertly crafted for decoding tasks in high-speed data networks, particularly those using satellite and broadband wireless communication standards. This 8 state Duobinary Turbo Decoder features an optional 64 state Viterbi decoder, highlighting its capacity for intricate data throughput and error correction. Functional in a multitude of data environments, this decoder can handle a variety of signal paths, ensuring robust data recovery and integrity. Its architecture is especially suited for dynamic network conditions, offering adaptability and reliability-critical factors in maintaining service quality in challenging communication scenarios. This Decoder is ideal for systems operating under diverse protocols, ensuring seamless interoperability and efficient error detection and correction. By optimizing data processing technologies, it supports high-speed data exchanges across broader channels, catering to the growing demand for superior network performance in modern telecommunication infrastructures.
The Digital PreDistortion (DPD) Solution by Systems4Silicon is crafted to elevate the power efficiency of RF amplifiers. This adaptive technology thrives on various platforms, being vendor-independent and offering scalability for FPGAs and ASICs. The solution can handle bandwidths over 1 GHz and supports a plethora of communication standards, including 5G, enabling operations with multi-carrier and multi-standard single-antenna transmissions. Operating efficiently across different transistor technologies, the DPD advances amplifier performance by compensating for memory effects and facilitating operation in non-linear regions, achieving efficiency improvements above 50% under certain configurations.
The OSIRE E3731i is crafted to meet high-intensity RGB lighting demands in automotive interiors, featuring an intelligent RGB LED configuration with an embedded integrated circuit. This circuit manages the R/G/B LEDs and stores optical measurement data, ensuring enhanced control over color algorithms via an external microcontroller. The device uses open system protocols, allowing comprehensive data reading and control features, including temperature management for color consistency. The OSIRE E3731i is specifically patent-compliant and supports automotive production requirements, maintaining rigorous standards for both temperature compensation and controller communication within the LED unit.
The SiFive Automotive E6-A processor is crafted to meet the burgeoning demands of the automotive sector, offering a suite of RISC-V safety processors that comply with ISO26262 standards. Featuring balanced performance and efficiency, the E6-A series supports automotive safety functions across ASIL B and D ratings. This processor is ideal for advanced driver-assistance systems (ADAS), in-vehicle infotainment, and automotive body control, emphasizing low power consumption and compact design, all while ensuring high reliability and system security.
The Time-Triggered Protocol (TTP) is an advanced communication protocol specifically designed for managing the growing complexity and requirements of distributed fault-tolerant systems. TTP provides a framework for creating modular, scalable control systems that are essential in modern automotive, aerospace, and industrial applications. Its structured time-triggered communication is tailored to support reliable, synchronized distributed computing, which is crucial for safety-critical systems demanding high-precision operations at lower lifecycle costs.\n\nEstablished as a standard (SAE AS6003), TTP boasts a significant improvement in communication bandwidth over legacy interfaces like ARINC 429 and MIL-1553, enabling efficient integration within sophisticated system architectures. Beyond just enhancing deterministic communication, TTP delivers distributed platform services that simplify designing advanced systems, effectively reducing both software and system lifecycle costs. This attribute makes TTP especially valuable for managing applications where timing and safety are paramount.\n\nComprehensive toolsets and components, including chip IPs and development systems, support and streamline TTP application development. These resources are pivotal in facilitating rapid prototyping and testing, allowing engineers to implement robust and reliable network solutions efficiently. TTP's capability to reduce system complexity positions it as a vital technology in progressing vehicle electronics, aerospace systems, and other automation-driven industries.
The ADNESC ARINC 664 End System Controller is crafted to meet the challenges of modern aerospace applications, where high-speed data handling and compliance with stringent industry standards are paramount. This controller supports a target device-independent approach, leveraging generic VHDL code to ensure adaptability across various hardware platforms. With the capability to manage multiple host interfaces at data rates up to 400 Mbit/s, it sustains high-performance requirements needed in sophisticated avionics setups. The inclusion of embedded SRAM enhances the controler's efficiency, facilitating swift data processing and storage. Such features enable robust communication systems that are essential for cutting-edge aeronautic applications, supporting seamless integration into a mixed-fleet environment. Developed with a design process that aligns with RTCA DO-254 DAL A, the ADNESC ARINC 664 Controller ensures adherence to industry’s highest reliability and safety criteria. It's a testament to IOxOS Technologies' commitment to delivering solutions that address the complexities and strict safety standards of aerospace systems.
EFLX eFPGA is a cutting-edge embedded FPGA solution that offers unprecedented flexibility and adaptability for SoC designs. It allows developers to enhance their chip designs by incorporating reconfigurable logic that can be adjusted even post-production. This capability enables shorter time-to-market and reduced costs by allowing rapid prototyping and customization without full chip redesigns. The EFLX eFPGA is particularly beneficial for applications requiring frequent updates or where multiple variants of a product are needed. By integrating reprogrammable logic into an SoC, it provides a scalable solution adaptable to various applications, from consumer electronics to complex communication systems. Its architecture is optimized for fast configuration and supports a wide range of processes and nodes, ensuring compatibility with major foundries. Moreover, the EFLX eFPGA's innovative approach reduces latency and power consumption compared to traditional FPGA solutions. Its seamless integration into existing hardware platforms makes it an ideal choice for upgrading legacy systems with new functionalities, giving companies a competitive edge in rapidly evolving markets.
The Flexray RTL Core offers robust communication solutions tailored for automotive networks, adhering to the Flexray protocol. Known for its deterministic and high-speed data exchange, this IP core enhances system reliability and facilitates the management of complex vehicle networks. It's pivotal for automotive systems requiring synchronized data exchange and is adaptable to various automotive platforms.
The SiFive Automotive suite provides optimized RISC-V processors tailored for automotive applications, ensuring not only performance but also adherence to industry safety standards like ISO26262 and ISO/SAE 21434. These processors cater to advanced automotive systems, offering scalability, low power consumption, and robust security measures. They're designed to handle the high demands of next-generation vehicles, covering everything from safety islands to central computing requirements while being flexible enough to adapt to emerging automotive challenges.
The ASPER radar sensor by NOVELIC is a high-frequency, 79GHz short-range device designed to excel in automotive environments. This innovative sensor delivers a 180-degree field of view, significantly improving upon traditional ultrasonic park assist systems. With its capacity to replace ultrasonic setups, ASPER provides comprehensive vehicle awareness, enabling 360-degree coverage with just four modules. This radar’s robustness allows it to function flawlessly across diverse conditions, including challenging weather and varying light environments. Engineered for both front and rear collision avoidance, as well as urban blind spot detection, ASPER is versatile in its applications. It features advanced functionalities such as kick-to-open and tailgate protection, enhancing the convenience and safety aspects of both passenger and commercial vehicles. Furthermore, this radar sensor supports adaptive cruise control, employing cutting-edge edge processing capabilities for effective domain processing. Notably, ASPER’s forward-thinking design is apt for transportation vehicles, offering seamless integration and lateral monitoring. It provides improved resolution and detection accuracy, unaffected by common obstacles like fog or dirt. Through integrating these capabilities, ASPER sets a new standard for automotive radar technology, promising enhanced security and operational efficiency across sectors.
CMNP is a dedicated image processing NPU from Chips&Media, engineered to provide superior image enhancement through advanced processing algorithms. Targeted at improving image quality across numerous applications such as mobile, drones, and automotive systems, CMNP is built to accommodate the rigorous demands of contemporary image processing tasks. This solution is especially effective in achieving notable image clarity enhancements, leveraging proprietary instruction set architectures for optimal performance. CMNP's state-of-the-art architecture supports high-efficiency super-resolution and noise reduction features, capable of converting 2K resolution visuals to 4K with enhanced clarity and minimal resource consumption. It utilizes CNN-based processing engines that are fully programmable, ensuring flexibility and precision in complex image operations. The focus on low-bandwidth consumption makes it ideal for resource-sensitive devices while maximizing computational efficiency. Incorporating features like extensive bit-depth processing and the ability to handle expansive color formats, CMNP adapts seamlessly to varying media requirements, upholding image quality with reduced latency. The NPU's adaptability and performance make it valuable for developers looking to integrate robust image-processing capabilities into their designs, be it in high-performance consumer electronics or sophisticated surveillance equipment.
DCAN XL revolutionizes communication technology by bridging the gap between the CAN FD protocol and 100Mbit Ethernet. This advanced IP core is designed to support data rates as high as 20 Mbit/s, making it highly suitable for applications requiring swift and reliable communication pathways. Engineered for automotive and industrial uses, DCAN XL incorporates both standard CAN transceivers for bitrates below 10Mbps and CAN SIC XL transceivers for bitrates over 10Mbps. This adaptability allows for a seamless transition in environments where varying bandwidth and protocol requirements are present. The CAN XL IP core not only supports traditional CAN 2.0B frames but also fully aligns with the specifications for CAN FD and CAN XL, and overcomes standard limitations. This provides a comprehensive communication solution for next-gen automotive systems, ensuring efficient data flow and integration into high-level network infrastructures.
ISELED is a breakthrough technology redefining automotive interior and ambient lighting by integrating a smart RGB LED driver within the LED package. This technology enables precise color calibration from the point of manufacture, as well as internal temperature compensation, thereby reducing the dependency on external control systems. The ISELED network is robust to environmental variations and compact enough to fit seamlessly within existing automotive designs. Furthermore, the protocol's enhancement includes a wide address range for individual LED control and advanced communication capabilities, making this system ideal for creating consistent and vibrant interior lighting experiences seamlessly.
The CAN Controller Core is specifically developed to implement the CAN protocol for automotive and industrial communication systems. This IP core simplifies integration into existing systems while maintaining secure and reliable data transmission. It excels in networks requiring frequent and instantaneous communication, offering broad compatibility with various microcontrollers.
Ncore Cache Coherent Interconnect represents a robust solution for managing cache coherency in multi-core ASICs, offering high bandwidth and low-latency communication fabric suitable for both legacy and modern processors. Specialized for handling the challenges associated with multi-core system integration, this interconnect simplifies the complexities of synchronization and verification while optimizing power efficiency. Its comprehensive suite of features includes support for true heterogeneous coherency with AMBA CHI and ACE protocols, empowering developers to create efficient, coherent SoCs that cater to a variety of architectures including ARM and RISC-V. Designed with scalability in mind, Ncore is accommodating of small embedded systems as well as extensive designs. Its mesh topology and network configurations enable flexible and scalable integration, allowing seamless adoption in various industrial and consumer applications. Ncore's functional safety capabilities are certified under ISO 26262, ensuring compliance with safety-critical standards, making it suitable for automotive and other high-assurance sectors. Ncore enhances overall performance by reducing off-chip memory access, leveraging advanced snoop filters to provide seamless data transport and optimized cache utilization. Its capacity to automate Fault Modes Effects and Diagnostic Analysis (FMEDA) and maintain configurability for different initiator IPs makes it an essential tool for modern SoC developers wanting to achieve market differentiation through advanced system integration.
The DVB-RCS and IEEE 802.16 WiMAX Turbo Encoder provides a sophisticated solution for broadband wireless access systems. Featuring an 8 state configuration, it ensures robust data encoding processes suited for high-capacity networks. This encoder is pivotal in enhancing error control and efficiency across satellite and wireless communication systems, where maintaining high uptime and performance is vital. This encoder is optimized to integrate with DVB-RCS systems, allowing for standardized communication across varied platforms. Its design not only enhances signal integrity but also supports extensive customizations, accommodating specific project requirements and streamlining deployment processes in complex environments. The turbo encoder is also compatible with IEEE 802.16 WiMAX, making it a versatile choice for companies developing wireless infrastructure. By offering unparalleled data processing speeds and reliability, this encoder plays a critical role in modern telecommunication setups. It leverages cutting-edge technology to minimize latency and maximize throughput, addressing the rigorous demands of cutting-edge wireless networks.
The SFA 100 is designed for handling data processing tasks at the edge of IoT networks. This component is built to efficiently process data streams, making it ideal for edge computing environments where low latency and high throughput are crucial. It plays a vital role in enhancing the performance and efficiency of IoT networks by managing data processing directly at the source, thus reducing the need for data transmission back to central servers.
SafeCore's CAN FD Controller stands as an advanced addition to the portfolio, supporting the ISO 11898-1:2015 specification. This controller provides enhanced data rates up to 10 Mbps for Flexible Data Rate (FD) frames, while maintaining compatibility with Classical CAN frame formats. It is tailored for modern vehicular electronic systems that demand increased bandwidth and enhanced performance, thus harmonizing the efficiency and reliability necessary for contemporary automotive and industrial standards.
Focused on automotive applications, the SFA 250A offers single-channel ADAS (Advanced Driver Assistance System) capabilities. It ensures enhanced safety and efficiency in automobiles by processing sensor data to assist in driver alert systems, collision avoidance, and automated driving features. This IP is integral to the development of smart vehicular systems that prioritize safety and performance.
The Automotive IP Suite from InPsytech is engineered to meet the rigorous demands of the automotive industry. This suite is comprised of interfaces designed to ensure reliability and performance in vehicular systems, supporting various protocols and standards. It is crucial for applications in vehicular communication systems, infotainment, and safety-critical operations.
The CAN FD Full Controller is a comprehensive IP core that supports both CAN 2.0B and CAN FD frame types, aligning with ISO 11898-1:2015 standards. This versatile controller is adept at bridging the communication gap between traditional CAN networks and more advanced CAN FD networks, broadening the potential for integration across a multitude of automotive and industrial applications. This IP core is designed to overcome limitations commonly experienced in standard CAN systems by facilitating higher data rates and more flexible frame configurations. It supports both legacy CAN communications and the extended features of the CAN FD protocol, making it an adaptable solution for evolving technological landscapes. Engineered for robust performance, the CAN FD Full Core integrates seamlessly within APB, AHB, and AXI bus systems. Its design ensures high compatibility and performance reliability, all while maintaining the established reliability and simplicity that traditional CAN systems are known for, making it an indispensable part of modern automotive communication frameworks.
Glasswing provides a pioneering ultra-short reach SerDes solution, leveraging Chord signaling for enhanced data throughput with low power consumption. This innovation supports scalable connections across diverse devices, facilitating higher bandwidth while reducing the need for excessive pins. The technology optimally uses CNRZ-5 signaling, delivering twice the bandwidth per pin compared to traditional NRZ methods and achieving remarkable power efficiency. This makes it a versatile choice for demanding environments such as high-performance computing and AI, where power savings are crucial. By harnessing the benefits of Chord signaling, Glasswing can expand chip interconnects without sacrificing signal integrity, supporting large multi-chip modules (MCMs) and offering comprehensive diagnostics with built-in tools like EyeScope. This makes it an ideal choice for applications demanding reliability and efficiency at scale.
The Flexibilis Redundant Card (FRC) is a PCIe Network Interface Card uniquely developed to provide High-availability Seamless Redundancy (HSR) and Parallel Redundancy Protocol (PRP) standards compliant networking capabilities. FRC excels in facilitating redundant communication for critical traffic, ensuring systems remain operational even during network failures, a critical feature for essential services such as power utility automation. FRC card balances traditional Ethernet network functionalities with specialized redundancy capabilities, all while integrating seamlessly with existing infrastructures. The card is designed to offer precision synchronized events via its IEEE1588-2008 compliant Precision Time Protocol, achieving sub-microsecond accuracy vital for time-sensitive applications. This standalone solution harnesses the sophisticated features of Flexibilis's Redundant Switch technology, presenting itself as a comprehensive system on a PCIe form factor. Hence, it provides a flexible solution to enhance commercial Ethernet environments, offering intuitive management via graphical interfaces or standard protocols like NETCONF.
The XRS7000 series are advanced integrated circuits designed to add High-availability Seamless Redundancy (HSR), Parallel Redundancy Protocol (PRP), and time synchronization capabilities to both existing and novel applications. As part of the SpeedChips family, these chips provide market-leading redundancy in Ethernet networks, ensuring zero data loss without any single point of failure. The series offers high reliability and availability, fundamental for sectors like industrial automation and vehicle communication, as well as substation automation. XRS7000 devices are versatile with distinct models like XRS7003 and XRS7004, each featuring multiple ports for flexible deployment. The XRS7003 version is apt for HSR and PRP endpoints, whereas the XRS7004 version supports both endpoint and RedBox functions, enabling broader connectivity across network nodes. Their integration simplifies the implementation of sophisticated networking systems by providing ready-made IC options that combined, form a more expansive redundancy structure. These chips support features such as cut-through and store-and-forward operation, quality of service (QoS) with priority tagging, as well as time and frequency synchronization via IEEE1588-2008, ensuring not only reliability but also precision in data transmission across networks. The XRS7000 series, by coupling functionality with robust design, effectively enhances communication networks for diverse industrial applications.
The 802.15.4 Transceiver Core from RF Integration is a highly specialized solution for low-power personal area networks (PANs). Compatible with the IEEE 802.15.4 standard, this transceiver is essential for applications such as Zigbee networks, which are utilized extensively in smart home and industrial IoT systems. It encompasses both RF front-end and digital baseband components needed for effective low-data-rate communication across short to medium ranges. The core is engineered to provide energy-efficient performance, catering to the needs of battery-operated devices where power conservation is paramount. By supporting diverse network topologies and node densities, it enhances the flexibility of network deployment. Additionally, it can be integrated into various products ranging from smart meters and industrial controls to personal health devices and smart lighting systems, facilitating the growth of interconnected smart applications.
The Nerve IIoT Platform crafted by TTTech Industrial Automation offers a comprehensive framework for machine builders, embedding cutting-edge edge computing capabilities. By seamlessly connecting hardware, protocols, and operating systems, it provides a robust software backbone for industrial setups. This platform advances digital transformation by allowing businesses to scale and manage operations without disruption. Nerve integrates cloud-managed services with a focus on openness, security, and flexibility. Its salient features include Docker and CODESYS compatibility, and it supports running virtual machines which empower users to choose their preferred systems for device management and application deployment. The platform’s emphasis on security ensures IEC 62443-4-1 certification, safeguarding data and operations within the edge environments. The real-time capabilities of Nerve facilitate instantaneous machine data processing, allowing for immediate action and optimization, thus improving productivity and operational efficiency. Moreover, the platform’s ability to handle multiple applications on standard industrial hardware enhances resource utilization and opens new avenues for digital services.
Systems4Silicon's Crest Factor Reduction (CFR) Technology is designed to optimize the power efficiency of RF amplifiers by controlling the transmit signal's envelope. This versatile solution is independent of the target device vendor and accommodates a variety of communication standards through dynamic re-programming. CFR technology proficiently reduces amplifier costs and enhances efficiency by increasing transmit power relative to bias power and is capable of adapting for single and multi-carrier operations. Furthermore, it exhibits 100% deterministic behavior, allowing for precise performance modeling and supports integration with Digital Predistortion and envelope tracking technologies.
The ACAM solution from NOVELIC represents a significant innovation in automotive in-cabin monitoring technology. Utilizing a 60GHz radar sensor, ACAM offers comprehensive monitoring capabilities within vehicle interiors, ensuring enhanced safety for occupants. This solution stands out for its ability to deliver detailed analyses of passenger presence and behavior, distinguishing between humans and inanimate objects with ease. Equipped to comply with Euro NCAP requirements, ACAM offers a suite of protective features including child presence detection to prevent unattended child accidents. The system's seat occupancy detection further ensures that safety features are deployed effectively, while its intrusion alert capabilities enhance overall vehicle security. The ACAM's multifunctionality is achieved through its capability to monitor vital signs such as respiration rates, thus offering applications in both comfort and healthcare settings. With its machine learning integration, it even enables gesture controls, allowing drivers to manage vehicle features effortlessly without distraction.
The OSIRE E5515 is an advanced RGB LED solution engineered for automotive interior applications. Known for its individually addressable LED chips, it offers substantial flexibility in color management and driver selection. The slim design is particularly suited for integration into tight spaces such as lightguides in automotive assemblies, allowing for ultra-compact design solutions. This LED's durability and improved temperature compatibility make it ideal for use with IMSE technologies. Additionally, OSIRE E5515 facilitates improved production efficiencies, as it includes a data matrix code providing measurement data for each LED, hence simplifying the optical measurement process.
The SFA 350A is tailored for advanced ADAS applications in automotive systems, supporting quad-channel capabilities for comprehensive sensing and processing. This component ensures superior safety and operational control in vehicles by integrating data from multiple sensors, facilitating autonomous driving technologies and driver assistance features. Perfectly suited for modern smart vehicles, it enhances navigational accuracy and safety.
This core facilitates precise and fault-tolerant networking, essential for environments requiring consistent timing and reliability, such as automotive and industrial applications. It supports scalable network speeds from 1Gbps to 10Gbps and includes features like babbling protection and anti-masquerading functionalities. The AXI standard interface simplifies integration, ensuring this core remains user-friendly and versatile.
Developed to meet the rigors of modern automotive data transmission standards, the INAP590T module provides high-definition, secure video transfer with extensive bandwidth capabilities. This module supports various video interfaces and can handle dual-channel video streams, all while supporting Ethernet and SPI interfaces for versatile application scopes. The integration of HDCP ensures content protection, making the INAP590T apt for systems demanding secure data transmission, such as rear-seat entertainment and infotainment systems in vehicles. With a focus on adaptability, this module equips automotive networks with reliable data channel encapsulation and dynamic configuration support in high-speed environments.
The TSN Switch for Automotive Ethernet is designed to enhance network performance in advanced vehicular systems. It aims to address the stringent real-time requirements of automotive networks, ensuring reliable and low-latency data transmission. The technology is developed to meet the growing demand for higher data rates and more complex data interactions within modern automotive infrastructures. Utilizing cutting-edge Time Sensitive Networking (TSN) protocols, this switch offers deterministic networking capabilities, crucial for time-critical automotive applications like autonomous driving and advanced driver assistance systems. By employing advanced scheduling and traffic shaping techniques, the switch ensures that crucial data packets are prioritized, reducing delays and improving overall network efficiency. The switch is optimized for a variety of automotive network configurations, from basic architectures to more complex multi-tier systems. Its robustness and adaptability make it suitable for integrating into a wide range of vehicles, preparing the network infrastructure for upcoming innovations in automotive technology.
The CAN 2.0/CAN FD controller is an advanced embedded solution designed for seamless integration into FPGAs and ASICs, supporting both standard CAN and the enhanced CAN FD protocol. This IP core complies fully with the ISO 11898-1:2015 standard, allowing payloads to achieve significantly higher transmission rates of up to 10 Mbit/s and expanding payload capacity to 64 bytes, compared to the traditional 8 bytes. Designed for compatibility, this IP solution works with a wide range of FPGA devices from Xilinx, Altera, Lattice, and Microsemi. It natively supports system bus interfaces such as AXI, Avalon, and APB, ensuring flexible processor integration options that cater to SOC FPGA types. Its architecture is particularly beneficial for applications needing robust diagnostic and CAN bus debugging tools, making it well-suited for data loggers and similar devices. Additional features of the CAN 2.0/CAN FD controller include low-latency DMA with interrupt rate adaptation, auto-acknowledge modes, single-shot capabilities, and configurable hardware buffer sizes. Designed with a small footprint, this IP core can be configured to minimize resource usage when advanced features are not required, offering a balanced solution for both traditional and modern applications.
The DCAN XL IP offers a transformative breakthrough in bridging traditional CAN FD with high-speed Ethernet, achieving data rates up to 20 Mbit/s. Designed as an advanced solution for automotive and industrial communication systems, it integrates a CAN SIC XL transceiver to handle bitrates exceeding 10Mbps efficiently. A pivotal feature of DCAN XL is its dual compatibility, allowing seamless transitions across varied networking environments. This makes it suitable for applications demanding flexible and rapid data exchange, such as in automated systems and connected vehicle platforms, providing reliable communication links that maintain system integrity and performance. Employers of DCAN XL benefit from enhanced communication capacity without the need for extensive architectural adjustments. This core not only ensures consistent data flow but also supports future-proofing of existing systems as the industry demand for advanced communication solutions continues to grow.
Tailored for high-speed data networks, the IEEE 802.16 WiMAX Turbo Decoder operates with an 8 state Duobinary Turbo Decoder design, incorporating 4 parallel MAP decoders. This configuration offers exceptional data processing speeds critical for expansive broadband networks. The decoder is adept at managing complex data environments, adapting to various network conditions and maintaining high performance and minimal error rates. Its capabilities support robust signal recovery and data integrity, essential for modern communication infrastructures. Ideal for broadband wireless applications, this decoder supports high data throughput and efficient error correction, catering to the demanding expectations of today's network architectures. It serves as a pivotal tool for maximizing network capabilities and ensuring consistent service delivery across wide-ranging operating conditions.
The Inmarsat Turbo Encoder is designed for high-speed satellite communication systems, enabling robust data transmission with enhanced error correction capabilities. It operates with a 16 state configuration, which is a significant improvement for achieving reliable communication over long distances. The Turbo Encoder is built to seamlessly integrate with Inmarsat platforms, optimizing for efficiency and performance. The encoder's specialized architecture supports a variety of configurations, making it suitable for applications that require dynamic adaptation to different channel conditions. This flexibility is crucial for maintaining high data integrity and throughput in the ever-changing satellite communication landscape. Furthermore, the encoder's modular design allows for tailored solutions, meeting specific needs of advanced telecommunication infrastructures. In addition to its standard functionalities, the Inmarsat Turbo Encoder can be enhanced with optional features such as pseudo-randomisers and input memory adaptation, which further extends its application range. By focusing on scalability and durability, this encoder provides a competitive edge in the field of satellite communications.