All IPs > Interface Controller & PHY > IEEE1588
The IEEE1588 Interface Controller & PHY is a crucial category of semiconductor IPs designed for applications that require high precision time synchronization across networked devices. This suite of technologies is essential for various sectors, including telecommunications, industrial automation, and data centers, where accurate time alignment can significantly improve system performance and reliability.
These semiconductor IPs facilitate precision timing protocols by enabling devices to synchronize their clocks down to nanosecond-level accuracy. IEEE1588, also known as the Precision Time Protocol (PTP), plays a vital role in timing-critical applications like financial trading systems, smart grids, and connected car infrastructures. By integrating IEEE1588 interfaces and physical layer IPs, designers can create systems capable of robust time synchronization, essential for minimizing latency and ensuring the seamless operation of networked devices.
Products within this category typically include PHY modules and interface controllers that manage the physical layer connectivity and protocol handling required for IEEE1588 compliance. These IPs support various network topologies and standards, allowing for flexible implementation across a wide range of hardware environments. This scalability is particularly beneficial for network operators who need to maintain precise timing across complex, multi-vendor networks.
Moreover, utilizing IEEE1588 Interface Controller & PHY semiconductor IPs can lead to significant improvements in system efficiency and performance. By enabling accurate and reliable clock synchronization, these technologies help reduce the likelihood of system errors, data loss, and service interruptions. For companies interested in building cutting-edge time-sensitive applications, adopting IEEE1588-compliant solutions is a strategic investment in achieving superior network performance and user satisfaction.
KPIT Technologies is a forerunner in developing AUTOSAR-compliant platforms that support the evolution of software-defined vehicles. Their solutions facilitate efficient software integration, middleware development, and high-level application performance optimization. By using advanced tools and methodologies, KPIT helps speed up the production timelines of modern vehicles, ensuring compliance with both AUTOSAR Classic and Adaptive frameworks. Their technologies enable automakers to minimize platform validation times and reduce integration complexities, thereby enhancing the scalability and functionality of vehicle systems.
The MIPI CSI2MUX-A1F is a CSI2 Video Multiplexer designed to aggregate inputs from up to four CSI2 cameras into a single output stream. Compliant with CSI2 rev 1.3 and DPHY rev 1.2, this video multiplexer can manage data transmission at 4 x 1.5Gbps. It's perfect for applications requiring efficient conversion from multiple image sources to a consolidated feed.
Secure Protocol Engines are high-performance IP solutions tailored to manage intensive network and security operations. These IP blocks are designed to handle offloading of network processing tasks, enhancing system efficiency and performance. With integration ease and high compatibility across systems, they offer robust security by accelerating cryptographic protocols immensely necessary in today’s fast-paced digital environments.
The MIPI SVRPlus-8L-F is an advanced 8-lane, second-generation Serial Video Receiver designed specifically for FPGA applications. It supports CSI2 rev 2.0 and DPHY rev 1.2, allowing it to handle high-speed data transmission efficiently. The receiver can manage 16 virtual channels and provides 4 pixels output per clock cycle, complete with calibration support. Furthermore, it includes communication error statistics to ensure reliability.
The MIPI SVTPlus-8L-F is an innovative 8-lane, second-generation Serial Video Transmitter crafted for FPGA contexts. It aligns with CSI2 rev 2.0 and DPHY rev 1.2 standards, ensuring robust and efficient data transmission. Operating at a remarkable speed of 12Gbps, this transmitter is optimized for high-performance environments where precision and speed are paramount.
The MIPI SVRPlus2500 is a sophisticated 4-lane video receiver that adheres to CSI2 rev 2.0 and DPHY rev 1.2 standards. Designed to support low clock ratings for simpler timing closure, it offers PRBS support and outputs 4/8/16 pixels per clock. This receiver incorporates 16 virtual channels and 1:16 input deserializers per lane, making it a versatile choice for intricate video applications. Handling data rates up to 4 x 2.5Gbps, it is built for high-efficiency environments.
The MIPI SVTPlus2500 is an advanced 4-lane video transmitter that uses CSI2 rev 2.0 and DPHY rev 1.2 protocols. Optimized for easy timing closure through its low clock rating, it includes PRBS support and can handle 8/16 pixel input per clock. With the capability to manage 16 virtual channels at a speed of 4 x 2.5Gbps, this transmitter is ideal for dynamic video environments that demand flexibility and precise programmable timing parameters.
The Platform-Level Interrupt Controller (PLIC) from Roa Logic is a fully compliant, configurable module designed specifically for RISC-V applications. It provides a versatile solution for managing interrupts in complex systems, offering the necessary infrastructure to handle numerous interrupt sources efficiently. The PLIC is particularly adept at prioritizing and routing interrupts to ensure effective processor management and operational efficiency. This module is fully parameterized, allowing developers to configure it according to the unique needs of their applications. Whether for simple embedded designs or more sophisticated systems, the PLIC offers customizable parameters that provide flexibility in setting interrupt priorities and handlers. By integrating the PLIC into a design, developers can leverage its interrupt management capabilities to streamline operations, enhance system responsiveness, and improve overall performance. This makes it a critical component for anyone looking to build stable and efficient RISC-V based systems.
The 1G Managed Ethernet Switch by SoC-e is designed for environments that require greater control and management over network traffic. Equipped with management capabilities, this switch can navigate complex network setups with ease, offering support for RMII, MII, GMII, RGMII, and high speeds of up to 1G. The managing capabilities enable administrators to optimize network performance, ensuring efficiency and reducing downtimes. With features like QoS, VLAN support, and spanning tree protocols, this managed switch is adept at handling various network layers, providing a structured yet flexible networking environment. Intended for enterprise-level applications, this managed switch is a fit for medium to large networks where maintaining network integrity is critical. Its compatibility with industry standards ensures it integrates smoothly with different systems and network devices, enhancing the overall operational landscape through comprehensive management control.
PreciseTimeBasic Core brings accuracy and reliability in time-sensitive applications where synchronization is crucial. This core offers a streamlined solution for developers needing precise timing without the complexities of more comprehensive systems. Its design aims to simplify the implementation of precise timekeeping in networks requiring accurate synchronization.<br><br>The core is ideal for environments where maintaining strict time accuracy is essential, helping to prevent data loss and synchronize processes effectively. It supports fundamental synchronization protocols, allowing it to be easily integrated into various network architectures. The PreciseTimeBasic Core ensures that all connected devices remain unified in timing, which is crucial for applications such as data acquisition systems and automated control processes.<br><br>This core is particularly advantageous in offering a cost-effective synchronization solution while ensuring robustness and ease of deployment. It offers a no-hassle integration solution with its user-friendly design, making it suitable for a range of industrial and commercial applications where precise timing is paramount.
The 1G Managed Redundant Switch from SoC-e is crafted for environments that demand both reliability and advanced management in networking. This switch supports redundancy features through protocols like HSR, PRP, DLR, and MRP, ensuring continuous data flow even in the event of network issues. Capable of high-speed data transmission at up to 1G, this switch incorporates robust management features that include QoS, VLAN setup, and spanning tree protocol compliance. These management capabilities provide precise control over network performance and aid in optimizing data flow and minimizing latency. The 1G Managed Redundant Switch is suitable for industrial networks and utility applications where maintaining connectivity is critical. It blends the need for redundancy with the capability to manage data traffic effectively, ensuring network stability and reliability under various conditions.
The 10G TSN Ethernet Switch by SoC-e offers top-tier performance and reliability, making it an essential component for high-speed networking solutions. This switch supports a wide range of communication interfaces, including RMII, MII, GMII, RGMII, and serialized options such as SGMII and QSGMII, offering versatile connectivity ranging from 10M to 10G speeds. Designed to excel in Time-Sensitive Networking environments, the switch is compliant with IEEE standards such as 802.1Qav, 802.1Qbv, 802.1Qci, and more, which are critical in enhancing network performance by ensuring low-latency and predictable data transmission. The advanced synchronization capabilities via IEEE 802.1AS and IEEE1588 (PTPv2) further underscore its applicability in environments requiring precise time synchronization. On the operational level, the 10G TSN Ethernet Switch supports various features like QoS management, VLAN configuration, and spanning tree protocols, catering to dynamic network configurations. Its integration into networks that require high data rates and minimal delays is seamless, making it an optimal choice for sectors where network performance can significantly impact operational effectiveness.
1588Tiny is a specialized slave-only core designed for precision time protocol (PTP) networking environments. It is engineered to ensure highly accurate timestamping and synchronization of networking devices, which is critical in time-sensitive applications. The core focuses on reducing complexity while delivering precise time coordination across network nodes.<br><br>Compact in size, the 1588Tiny core is particularly suited for applications where footprint and power consumption are concerns, without sacrificing precision. Its architecture supports standard PTP protocols, enabling easy integration into existing network infrastructures that require synchronized operations, such as financial services and data centers.<br><br>The core caters to industries where synchronization and precision are non-negotiable, providing a reliable solution for environments demanding rigorous time accuracy. By maintaining precise time relationships across network devices, the 1588Tiny core helps ensure data integrity and process efficiency.
IRIGtimeS: IRIG-B Slave is crafted to act as a follower in synchronization networks adhering to the IRIG-B standards. This product provides precise timing functions crucial for systems that depend on accurate time distribution, such as in power and communication infrastructures. Its DCLS modulation capabilities ensure that time is efficiently received and processed, maintaining sub-microsecond accuracy. With support for IEEE 1344 extensions, this slave clock can adapt to various operational standards, ensuring a versatile role in complex system architectures. IRIGtimeS integrates seamlessly into existing setups, offering reliability and operational consistency across architectures craving precise timing. Designed for high-accuracy synchronization applications, it allows systems to efficiently utilize time, optimizing overall system operations in demanding environments.
The DHSR, or Deterministic HSR Switch, serves as a cornerstone in SoC-e's switches designed for environments requiring high reliability and redundancy. This switch is adept at managing data transmission with precision and dependability through the High-availability Seamless Redundancy (HSR) protocol. Supporting a variety of communication interfaces, the DHSR switch is adaptable to various network configurations, offering redundancy and failover protection that ensures continuous data flow even under network faults. Its compliance with the HSR protocol enables uninterrupted communication across interconnected nodes, critical for systems where downtime is not an option. With built-in features that support multi-protocol configurations, the DHSR switch not only strengthens network reliability but also optimizes performance through streamlined data handling. Its design is geared towards applications in industrial environments, where consistent and reliable communication is paramount.
The HSR-PRP Switch by SoC-e is an advanced networking device designed to provide seamless redundancy and increased reliability in critical network environments. This switch utilizes both High-availability Seamless Redundancy (HSR) and Parallel Redundancy Protocol (PRP) to ensure that data communications remain uninterrupted in case of network failures. HSR and PRP are key protocols that allow for zero-delay recovery from network faults, making this switch ideal for use in industrial and utility networks where operational continuity is vital. By combining these protocols, the switch supports flexible network topologies, enhancing reliability across the system. Designed with compliance to multiple industrial standards, the HSR-PRP Switch guarantees robust performance and optimization for critical applications. Its deployment ensures continuous data flow, which is essential for maintaining system effectiveness and reliability, even during unexpected network interruptions.
The AVB/Automotive Ethernet Switch by SoC-e is engineered to provide efficient networking solutions tailored for the automotive industry and similar use cases with stringent data transmission requirements. This switch plays a pivotal role in facilitating Audio Video Bridging (AVB) across automotive networks, ensuring seamless data flow with precise timing. Supporting a variety of interface standards and communication speeds, the AVB switch seamlessly integrates with modern automotive communication networks. Its compliance with industry standards ensures consistent quality of service (QoS), enhancing the reliability of data streams across connected systems. This accuracy is essential in applications where timely data delivery is crucial for system performance and safety. Beyond its primary role in AVB, the switch's design reflects flexibility and robustness, allowing for adaptation to other critical network infrastructures. Whether used in vehicles or other environments demanding high-performance networking, this AVB switch promises durability, ease of integration, and robust data management across complex systems.
The Flexibilis Ethernet Switch (FES) is an efficient Ethernet Layer 2 switch IP, designed to provide gigabit forwarding capabilities per port. Operable across multiple speed settings, FES integrates PTPv2 end-to-end transparent clock processing, contributing significantly to the synchronization and management of high-performance Ethernet networks. FES is a versatile IP core that supports a wide array of interface standards, offering various configurations from 3 to 12 ports. This flexibility allows it to be tailored to specific applications, such as connecting FPGA blocks or external PHYs. The core's advanced memory management system ensures efficient use of FPGA resources, making it a cost-effective solution for network developers. Furthermore, FES's integration of multiple prioritization queues per port, coupled with Quality of Service measures, ensures critical data is prioritized effectively even under network congestion. Its synchronization via the IEEE 1588 protocol empowers precise application in domains demanding exact timing, enhancing its utility in industrial automation and telecom environments.
IRIGtimeM provides robust time synchronization capabilities for networks requiring precise timing using the IRIG timecode standards. This core is focused on offering reliable and accurate time distribution across complex network systems, ensuring all devices are in sync using well-established IRIG standards.<br><br>By facilitating uniform time dissemination, IRIGtimeM ensures that network events are accurately timestamped and synchronized, minimizing discrepancies in time-critical operations. It is especially beneficial in aerospace and defense sectors, where precise timing can significantly impact mission success.<br><br>The IRIGtimeM core supports various IRIG formats, making it adaptable to different network configurations and systems. Its design allows for seamless incorporation into existing infrastructures, enhancing timing accuracy monumentally in sectors where rigorous timekeeping is paramount.
IRIGtimeS specializes in synchronizing network systems using IRIG timecode, offering refined accuracy for applications where precision timekeeping is essential. Designed for demanding environments, this core provides dependable synchronization capabilities crucial for mission-critical functionalities and operations reliant on exact timing.<br><br>The core is adept at managing synchronization across diverse infrastructural setups, supporting a range of IRIG formats. It is crafted to ensure minimal lag and maximum accuracy in time-sensitive scenarios, providing assurance in sectors such as telecommunications and scientific research.<br><br>Integrating IRIGtimeS into network systems aids in achieving precise temporal synchronization necessary for the seamless execution of coordinated tasks and functions. Its adherence to IRIG standards guarantees compatibility and reliability across different platforms and devices.
The 1G MTSN, or Multiport TSN Switch, stands as a robust solution within SoC-e's portfolio aimed at enhancing network reliability and efficiency. This switch provides seamless integration into Time-Sensitive Networking (TSN) environments, supporting a variety of communication interfaces, including RMII, MII, GMII, and RGMII. Its design allows for connectivity at speeds ranging from 10M to 1G, complying with critical standards like IEEE 802.1Qav, IEEE 802.1Qbv, IEEE 802.1Qci, and several others. In the realm of synchronization, the MTSN switch facilitates IEEE 802.1AS and IEEE1588 (PTPv2), ensuring precise time coordination across networked devices. This accuracy in time-sensitive applications is critical for maintaining networked systems' reliability and effectiveness. Additionally, the switch offers advanced features such as QoS, IEEE 802.1Q tag-based, and port-based VLANs, integrating seamlessly with existing network protocols. Suited for a myriad of applications, the 1G MTSN provides not only high performance but also flexibility in integration, which is critical for industries reliant on robust and scalable networking solutions. Its alignment with open standards ensures interoperability with products from other vendors, further enhancing its appeal in diverse settings. The design's attention to detail makes the MTSN switch a valuable asset for enterprises aiming to optimize their network infrastructure.
IRIGtimeM: IRIG-B Master is a synchronization tool that serves as the master clock in networks requiring synchronized operations based on the IRIG-B standard. This product is essential in applications where coordinated timekeeping is critical, such as in power grid management systems and broadcast stations. Operating with DCLS modulation, the IRIGtimeM allows for consistent and precise time distribution. It supports features like IEEE 1344 extensions and offers configurable IRIG-B time codes, allowing adaptability to specific network requirements. This ensures optimal network performance by providing a reliable time reference across all connected devices. Designed to integrate smoothly into existing infrastructure, the IRIGtimeM serves as a cornerstone for networked systems requiring consistent timing. Its robust design offers a durable solution for maintaining synchronization standards vital to the uninterrupted operations of various sectors.
The PoE Analog Clock from the Traditional Series offers a classic design that seamlessly integrates with network capabilities. It utilizes Power over Ethernet (PoE) technology to deliver synchronized time across various facilities without the need for batteries or electrical rewiring. This makes it ideal for environments where reliability and accuracy are paramount. Designed to suit a wide range of industries, from healthcare to education, the PoE Analog Clock ensures precise timekeeping with minimal maintenance. Its traditional aesthetic fits well with both modern and classic decor, providing versatile placement options. Furthermore, these clocks are part of an NTP network, allowing them to maintain accurate time through Ethernet connections. One of the key features of the PoE Analog Clock is its ability to integrate into existing network infrastructures. This enables centralized control over time settings across all clocks within a facility, supported by a robust power input via Ethernet cables. The clocks also feature a durable construction, making them suitable for high-traffic areas where durability is as important as precision. By incorporating network synchronization, the PoE Analog Clock reduces operational costs associated with manual time setting and maintenance. This not only helps ensure consistency in time display across various rooms but also enhances the overall efficiency of operations within a facility, making it an indispensable tool for institutions requiring meticulous time management.
MultiSync: PTP and IRIG-B Time Synchronization is an advanced synchronization solution designed to ensure precision timing across networks utilizing both PTP and IRIG-B standards. This dual capability allows for redundant and highly reliable time synchronization, crucial in sectors where precise timekeeping is mandatory. The MultiSync system bridges PTP and IRIG-B protocols seamlessly, providing versatility in synchronization applications. With multi-PTP profile capabilities, it supports Layer-2 and Layer-3 configurations, ensuring compatibility with a wide range of network architectures and facilitating efficient time distribution. This product is designed for applications where time precision directly impacts operational performance, such as telecommunications, broadcasting, and power distribution networks. The incorporation of event timestamping and alarm detection features enhances its functionality, making it a valuable asset for comprehensive time management in complex systems.
PreciseTimeBasic: IEEE 1588-2008 Clock Synchronization is a highly accurate clock synchronization system that adheres to the IEEE 1588-2008 standard, also known as Precision Time Protocol (PTP). This technology is essential for applications where precise timing is critical, such as financial transactions, telecommunication networks, and industrial automation. The solution delivers precise clock synchronization with minimal time deviation, promoting consistency in systems where timing accuracy is imperative. It is capable of operating with a variety of network configurations, supporting multiple PTP profiles, which enhances its applicability across different industries. This synchronization system is engineered to ensure that all networked devices operate in unison, thus optimizing efficiencies and maintaining data integrity. Its ability to seamlessly integrate into existing networks underscores its utility as a key component in modern synchronized operations.
TimeServoPTP extends the remarkable features of the TimeServo timer by complying fully with the IEEE 1588v2 PTP standards. This implementation as an ordinary clock slave for FPGA improves operational precision with synchronization mechanisms that communicate effectively with external network time sources. Supporting both one-step and two-step synchronization, TimeServoPTP facilitates accurate delay requests and enables robust timekeeping in networked environments. This IP is especially vital for applications demanding precise time distribution and synchronization, making it indispensable for systems where timing integrity is critical.
The 10G Unmanaged Switch from SoC-e is engineered for high-speed networking needs in environments where simplicity and reliability take precedence over configuration capabilities. This switch supports interfaces like RMII, MII, GMII, and RGMII, enabling seamless connections at speeds reaching up to 10G, which is ideal for straightforward network architectures. Its unmanaged nature translates to ease of use, as it requires no complex setup or administrative oversight, making it perfect for quick deployments. Despite lacking management features, the switch ensures swift data transmission, embodying a balance between performance and simplicity. This switch is most suitable for use in environments where automatic and continuous connectivity is needed without the complexity of network management. The robustness of this switch makes it an asset in settings like small businesses or remote office installations, where fast and reliable network connections are essential without the need for extensive configuration.
The 1588 Tiny: CPU-less IEEE 1588v2 Slave Clock is a specialized synchronization module designed for precise timing in network environments. This minimalistic, hardware-only solution focuses on achieving accurate time synchronization without requiring CPU intervention, thus reducing overhead on system resources. Employing the IEEE 1588v2 standard, commonly known as Precision Time Protocol (PTPv2), this slave clock is capable of maintaining sub-microsecond time accuracy across networked systems. Its design optimizes resource usage, ensuring reliable operations even in constrained environments where hardware resources are limited. This compact timing module finds its niche in applications where simplicity and precision are crucial, such as industrial networks and telecommunications, enabling efficient synchronization with minimal footprint. It's an excellent choice for enhancing timing accuracy while preserving system resources, maintaining operational efficacy with ease.
The 1G Unmanaged Ethernet Switch from SoC-e offers a straightforward yet reliable solution for network connectivity, ideal for scenarios where a basic and robust Ethernet network is required. With support for interfaces such as RMII, MII, GMII, and RGMII, this switch offers standard Ethernet connectivity at speeds up to 1G. Despite its unmanaged nature, the switch ensures high performance and network stability, perfectly suited for deployments in less complex network environments where ease of setup and minimal maintenance are advantageous. Its design caters to plug-and-play functionality, allowing swift deployment without the need for detailed configuration. The switch is built upon standardized protocols to ensure compatibility across various devices and vendors, providing a high level of interoperability and flexibility. This characteristics make it suitable for installations where simplicity and cost-effectiveness are prioritized without compromising on performance and reliability.
The XRS7000 Series encompasses a line of single-chip HSR/PRP switches, designed to add high-availability and redundancy features to Ethernet networks. These switches support both High-availability Seamless Redundancy (HSR) and Parallel Redundancy Protocol (PRP) standards. As pioneers in this field, these switches are the first off-the-shelf Ethernet chips of their kind in the market, offering unparalleled network reliability and performance. The XRS7000 Series is particularly suited for industrial automation, vehicle communication, and networking equipment. These devices feature integrated time synchronization functionality via the IEEE 1588 Precision Time Protocol (PTP), ensuring sub-microsecond accuracy that is crucial for time-sensitive applications. The XRS7003 and XRS7004 variants accommodate various network needs with different port configurations, supporting up to three or four ports respectively. Furthermore, these switches provide high-speed data transmission capabilities, optimizing both latency and throughput across network segments. Engineered for flexible deployment, the XRS7000 Series supports diverse I2C and MDIO register access methods, alongside cut-through and store-and-forward operations, ensuring versatile application in complex network topologies. With distinct advantages in ease of integration, these switches are instrumental in reducing system development time and costs.
SoC-e's 10G Managed Ethernet Switch offers advanced networking solutions tailored for environments where comprehensive control over data traffic is essential. This switch supports communication speeds of up to 10G over a variety of interfaces, including RMII, MII, GMII, and RGMII, making it suitable for intensive data environments. Equipped with management features, this switch allows for precise control over network resources with capabilities such as QoS management, VLAN configuration, and the use of spanning tree protocols, ensuring optimal network performance. Its robust design ensures high availability, making it ideal for enterprise settings that demand reliable and scalable networking infrastructure. This switch's compatibility with industry standards ensures seamless interoperability with other network devices and platforms. It is tailored for organizations that seek to maintain high-performance networks with minimal downtime, while also enabling adapted management strategies to meet dynamic business needs.
The Advanced Flexibilis Ethernet Controller (AFEC) is a versatile Ethernet controller IP block providing triple-speed operations for both FPGA and ASIC applications. It combines seamlessly with Ethernet Physical layer devices to establish robust Network Interface Controller functionality, offering key features that enhance performance and reduce CPU load. AFEC supports Full-Duplex operations, providing compatibility with both copper and fiber Ethernet connections. Its support for IEEE 1588 Precision Time Protocol allows for precise time-stamping, crucial for time-sensitive data applications. The IP also incorporates advanced DMA functionality, facilitating efficient data transfers between CPU and FPGA, significantly alleviating processing overheads on host systems. Designed for ease of integration, AFEC's interface for register access includes powerful tools like an integrated MDIO controller. These design considerations ensure straightforward management of connected PHY devices. With such comprehensive capabilities, AFEC represents a valuable asset for applications in test and measurement, power management, and industrial communication fields.
The Flexibilis Redundant Card (FRC) is a PCIe Network Interface Card (NIC) designed to deliver seamless redundancy and highly accurate clock synchronization for Ethernet networks. This device integrates the High-availability Seamless Redundancy (HSR) and Parallel Redundancy Protocol (PRP) standards within a compact form factor, making it an excellent choice for applications requiring uninterrupted communication. Engineered for critical environments, the FRC supports seamless redundant communication over Ethernet and performs clock synchronization adhering to the Precision Time Protocol (PTP). It is built on the robust Flexibilis Redundant Switch (FRS) core, offering 1Gb full-speed non-blocking performance. This integration guarantees a high level of reliability and network availability, essential for substation automation and similar use cases. Moreover, the FRC card excelling in ease of use provides a straightforward path to implement advanced redundancy features in existing infrastructures. Equipped with four RJ45 ports, this NIC offers a flexible interface setup while supporting various management interfaces like GUI and NETCONF, simplifying its deployment and configuration processes.
The FireLink Basic serves as a host-driven data exchange solution that offers minimal footprint and resource utilization. It is highly suitable for environments focused on non-OHCI and non-GP2Lynx designs, providing streamlined IEEE-1394 functionalities optimized for low resource consumption. This IP core is ideal for deployment in Remote Nodes, Remote I/O Stations, and Networked Data Buses in various aerospace and defense applications, ensuring efficient data handling without overwhelming system resources and infrastructure.
The Flexibilis Redundant Switch (FRS) is a high-performing, triple-speed Ethernet Layer-2 switch IP core intended for providing seamless redundancy in Ethernet networking. Supporting up to 1Gbps data rates, this IP is integrated with standards like HSR and PRP, along with IEEE1588v2 PTP functionality. It is specifically optimized for FPGA implementations, ensuring high-throughput performance ideal for industrial networking environments. One of the standout features of FRS is its capability to operate with multiple speed settings across ports, enhancing flexibility and scalability of network designs. The switch's support for HSR/PRP protocols ensures zero-loss redundancy, which is pivotal for mission-critical communications requiring consistent data flows. FRS also features end-to-end and peer-to-peer transparent clock functionality, making it a preferred choice when synchronization is necessary alongside redundancy. This capability complements its robust switching functions like cut-through and store-and-forward operation, ensuring efficient packet management in complex multi-node networks.
The MultiSync Core provides specialized synchronization features required in networks where timing precision is critical. It facilitates the harmonious operation of multiple network components by ensuring that all devices are perfectly synchronized. This capability is particularly essential for applications that demand high precision, such as telecommunications and data centers.<br><br>This core allows for seamless integration into existing network infrastructures, offering flexibility and broad compatibility. The synchronization achieved through the MultiSync Core improves network efficiency and reduces latency, ensuring a smooth data flow. Its robust architecture supports various synchronization protocols, enhancing its adaptability to different technological environments.<br><br>Places requiring precise timing, such as broadcasting and scientific research, benefit greatly from the reliability of the MultiSync Core. Its careful attention to synchronization helps prevent timing discrepancies that could compromise network operations, making it a valuable addition to any synchronization-sensitive environment.
The IEEE1588 PTP IPr by Korusys is a flexible system that adheres to IEEE1588v2 standards. It includes multiple modules, such as a Line Rate Master and compliant Slave, accented by a software network stack and simulator. The system caters to 4000 slaves using its high-speed processing capability. Designed for precision timing needs, it offers plug-and-play flexibility, with options to simulate network conditions and oscillator drift for robust testing. The product is conducive to bespoke configurations, tailored to meet specific customer requirements.
The PRBS Generator, Checker, and Error Counter is an innovative solution designed to handle the highest levels of data integrity and accuracy. This all-in-one unit supports pseudo-random binary sequence orders 7, 15, and 31, making it incredibly versatile for various applications. Featuring a differential CMOS input for data and clock signals, the component integrates a robust error counting mechanism to ensure precise operational outputs and validation. The design supports a high data rate of up to 36 Gbps when fabricated with TSMC's 28HPC process, illustrating its efficiency in handling demanding telecommunications tasks. One of the unique features of this product is its power-down mode, which enhances energy efficiency, crucial for portable and battery-operated devices. Its compact size, coupled with high performance, makes it ideal for a wide range of applications requiring reliable high-speed data communication. Scheduled for availability in 2024 and 2025 across multiple TSMC processes, this IP module embodies future-ready technology. This anticipated release timeline provides developers ample opportunity to integrate and test the IP within various design flows. By maintaining a consistent focus on innovation, this component offers a valuable addition to advanced data networking and telecommunications infrastructure.
FireCore combines PHY and Link Layer functionalities into a cohesive IEEE-1394-2008 Beta controller core. This synthesizable solution integrates PHY and LLC requirements, offering a comprehensive platform adept at accommodating data rates from S100 to S3200 along various host interfaces. Key advantages include customizable PHY port configurations, error injection capabilities, and a master-capable DMA host interface. FireCore targets high-bandwidth applications primarily in Aerospace and Defense, aiming to resolve the common limitations of off-the-shelf silicon. This solution allows complete customization and is future-proof, supporting field upgrades and optimizations for AS5643 deployment.
The SMVSubscriberBoard is crafted to perform precise and efficient management of Sampled Measured Values (SMVs) in power networks adhering to the IEC 61850 standard. This board is integral to substation automation, ensuring that critical power system data is monitored and processed accurately. Designed to facilitate seamless data interaction across complex power networks, the SMVSubscriberBoard enhances real-time data processing capabilities, enabling smoother transmission of information. Its compliance with IEC 61850 ensures interoperability across various system components, making it a vital component in modern substation implementations. Through its robust design, the SMVSubscriberBoard supports improved data integrity and response time, crucial for sustaining power grid operations' reliability and efficiency. Its integration into power systems represents a step towards optimizing grid management and ensuring consistent and reliable energy distribution.
KeyASIC's Interface IP collection features a myriad of solutions designed to facilitate robust connectivity across various digital platforms. With Ethernet PHY, USB controllers and PHYs supporting versions 1.1, 2.0, and 3.0, developers have flexible options for implementing high-speed data transfers. The PCIe Gen1 and Gen2 controllers and PHYs ensure seamless peripheral connectivity, while advanced interfaces such as SATA and IEEE 1394 PHY are available for high-speed storage and multimedia applications. Additionally, the multi-purpose Serializer & Deserializer (SerDes) and LVDS transceiver provide essential capabilities for efficient data serialization and low-power differential signaling respectively, enhancing the performance of complex electronic systems.