All IPs > Interface Controller & PHY > I2C
The I2C Interface Controller & PHY category in our semiconductor IP catalog presents a crucial array of technologies tailored for seamless communication within embedded systems and a variety of electronic devices. The I2C, or Inter-Integrated Circuit, standard is a well-established protocol that facilitates serial communication, primarily in microcontrollers and other integrated circuits. Within this category, developers will find both controller IPs and Physical Layer (PHY) IPs designed to optimize the efficiency and functionality of I2C communications.
The products in this category include comprehensive controller IP cores that manage the I2C protocol, enabling devices to communicate over a shared bus efficiently. These controllers are essential components for systems requiring robust data exchange, such as sensor networks, home automation systems, and industrial control environments. Leveraging these IP cores can lead to significant reductions in design time, providing developers with a ready-to-use solution that adheres to standard I2C specifications while offering flexibility for customization.
PHY semiconductor IPs are crucial for ensuring the physical transmission of I2C data complies with electronic standards needed in various environments. They handle critical functions such as signal transmission, clock generation, and power management, thereby ensuring that data integrity is maintained across different system components and operating conditions. These IPs are particularly vital for applications that demand high reliability and performance in their I2C communications, such as automotive electronics, consumer devices, and medical equipment.
Integrating I2C Interface Controller & PHY semiconductor IPs can considerably enhance the performance of multi-device systems, offering scalable solutions that adapt to the increasing complexity of modern electronic configurations. By focusing on high efficiency and compatibility, these IPs support the development of innovative products that require reliable and efficient communication protocols, paving the way for advancements in technology and connectivity across industries.
The AHB-Lite APB4 Bridge is a critical interconnect component that facilitates communication between AMBA 3 AHB-Lite and AMBA APB bus protocols. This soft IP is parametrically designed, allowing for optimized connections between an AHB-Lite bus master and a range of APB peripherals. Its architecture is focused on providing efficient, low-latency data transfer, supporting streamlined communication in complex SoC designs. Implementing this bridge in a system allows developers to seamlessly integrate a wide variety of peripheral devices, leveraging the simplicity and reduced resource demands of the APB protocol. The design is highly configurable, supporting various data widths and clock domains, enabling precise tailoring to fit the specific needs of any system. By using the AHB-Lite APB4 Bridge, designers can ensure comprehensive and efficient integration of peripherals into larger system-on-chip (SoC) designs, enhancing their functionality and performance.
eSi-Connect offers an extensive suite of AMBA-compliant peripheral IPs designed to streamline SoC integration. This suite encompasses versatile memory controllers, standard off-chip interface support, and essential control functions. Its configurability and compatibility with low-level software drivers make it suitable for real-time deployment in complex system architectures, promoting reliable connectivity across various applications.
CT25203 is an Analog Front-End IP core compliant with IEEE 802.3cg standard for 10BASE-T1S applications. It is part of Canova Tech's strategic offerings in analog domain, enhancing high-performance communication. The IP supports integral interoperability with digital PHYs, such as the CT25205, and is designed to operate with a high-voltage process technology, ensuring exceptional electromagnetic compatibility (EMC) performance. Its features facilitate reliable communication for industrial and automotive applications, proven in diverse environments.
The Chipchain C100 is a pioneering solution in IoT applications, providing a highly integrated single-chip design that focuses on low power consumption without compromising performance. Its design incorporates a powerful 32-bit RISC-V CPU which can reach speeds up to 1.5GHz. This processing power ensures efficient and capable computing for diverse IoT applications. This chip stands out with its comprehensive integrated features including embedded RAM and ROM, making it efficient in both processing and computing tasks. Additionally, the C100 comes with integrated Wi-Fi and multiple interfaces for transmission, broadening its application potential significantly. Other notable features of the C100 include an ADC, LDO, and a temperature sensor, enabling it to handle a wide array of IoT tasks more seamlessly. With considerations for security and stability, the Chipchain C100 facilitates easier and faster development in IoT applications, proving itself as a versatile component in smart devices like security systems, home automation products, and wearable technology.
The THOR platform is a versatile tool for developing application-specific NFC sensor and data logging solutions. It incorporates silicon-proven IP blocks, creating a comprehensive ASIC platform suitable for rigorous monitoring and continuous data logging applications across various industries. THOR is designed for accelerated development timelines, leveraging low power and high-security features. Equipped with multi-protocol NFC capabilities and integrated temperature sensors, the THOR platform supports a wide range of external sensors, enhancing its adaptability to diverse monitoring needs. Its energy-efficient design allows operations via energy harvesting or battery power, ensuring sustainability in its applications. This platform finds particular utility in sectors demanding precise environmental monitoring and data management, such as logistics, pharmaceuticals, and industrial automation. The platform's capacity for AES/DES encrypted data logging ensures secure data handling, making it a reliable choice for sectors with stringent data protection needs.
RegSpec is a cutting-edge tool that streamlines the generation of control and status register code, catering to the needs of IP designers by overcoming the limitations of traditional CSR generators. It supports complex synchronization and hardware interactions, allowing designers to automate intricate processes like pulse generation and serialization. Furthermore, it enhances verification by producing UVM-compatible code. This tool's flexibility shines as it can import and export in industry-standard formats such as SystemRDL and IP-XACT, interacting seamlessly with other CSR tools. RegSpec not only generates verilog RTL and SystemC header files but also provides comprehensive documentation across multiple formats including HTML, PDF, and Word. By transforming complex designs into streamlined processes, RegSpec plays a vital role in elevating design efficiency and precision. For system design, it creates standard C/C++ headers that facilitate firmware access, accompanied by SystemC models for advanced system modeling. Such comprehensive functionality ensures that RegSpec is invaluable for organizations seeking to optimize register specification, documentation, and CSR generation in a streamlined manner.
Certus Semiconductor's Digital I/O solutions are engineered to meet various GPIO/ODIO standards. These versatile libraries offer support for standards such as I2C, I3C, SPI, JEDEC CMOS, and more. Designed to withstand extreme conditions, these I/Os incorporate features like ultra-low power consumption, multiple drive strengths, and high levels of ESD protection. These attributes make them suitable for applications requiring resilient performance under harsh conditions. Certus Semiconductor’s offerings also include a variety of advanced features like RGMII-compliant IO cells, offering flexibility for different project needs.
Dyumnin's RISCV SoC is a versatile platform centered around a 64-bit quad-core server-class RISCV CPU, offering extensive subsystems, including AI/ML, automotive, multimedia, memory, cryptographic, and communication systems. This test chip can be reviewed in an FPGA format, ensuring adaptability and extensive testing possibilities. The AI/ML subsystem is particularly noteworthy due to its custom CPU configuration paired with a tensor flow unit, accelerating AI operations significantly. This adaptability lends itself to innovations in artificial intelligence, setting it apart in the competitive landscape of processors. Additionally, the automotive subsystem caters robustly to the needs of the automotive sector with CAN, CAN-FD, and SafeSPI IPs, all designed to enhance systems connectivity within vehicles. Moreover, the multimedia subsystem boasts a complete range of IPs to support HDMI, Display Port, MIPI, and more, facilitating rich audio and visual experiences across devices.
LightningBlu is designed specifically to transform the connectivity landscape of high-speed rail by providing uninterrupted, on-the-move multi-gigabit connectivity. By bridging the gap between trackside infrastructure and the train, it offers onboard services such as internet access, entertainment, and passenger information. Operating within the mmWave range, LightningBlu ensures a seamless communication experience even at high speeds, significantly enhancing the onboard experience for passengers. Integrating robust mmWave technology, the solution supports high data throughput, ensuring passengers can enjoy swift internet access and other online services while traveling. This wireless solution eliminates the need for traditional wired networks, reducing complexities and enhancing operational flexibility. With a profound ability to support high-speed data-intensive applications, LightningBlu sets a new benchmark in transportation connectivity. This platform's design facilitates smooth operation at velocities exceeding 300 km/h; coupled with its ability to maintain service over several kilometers, it is a critical component in advancing modern rail systems. LightningBlu not only meets today’s connectivity demands but also future-proofs the necessities of tomorrow's rail network implementations.
The INAP375R Receiver complements its transmitter counterpart in offering comprehensive high-speed data reception for automotive applications. It supports multiple video and audio channels, facilitating seamless data conversion and transfer for automotive entertainment systems. Designed to work effectively with up to 12 meters of cable, the receiver ensures consistent data fidelity over distance. Incorporating an advanced current mode logic, the INAP375R efficiently handles differential signals, maintaining data integrity even in demanding environments. Its capacity to deliver up to 3Gbps over a single cable ensures compatibility with various automotive applications, be it infotainment or safety-related systems. The versatile interface options of the INAP375R enable it to adapt to varying automotive standards while ensuring reliable performance. With built-in support for AShell protocol for error detection and correction, the receiver guarantees the safe and accurate transmission of critical data across automotive networks, underpinning its suitability for high-reliability applications.
The APB4 GPIO module is a fully parameterized core providing flexible general purpose input/output (GPIO) capabilities within an APB bus environment. Designed to support a user-defined number of bidirectional I/O pins, it allows customization to fit a variety of system requirements, enhancing its adaptability in different design scenarios. This GPIO core supports programming capabilities for each of its pins, enabling tailored configurations for specific input, output, and interrupt purposes. It is an essential component for interfacing with various peripheral devices within an integrated system, providing accessibility and control where needed. Through its comprehensive configurability, the APB4 GPIO creates extensive possibilities for design enhancement and functionality expansion.
The 802.15.4 Transceiver Core is a specialized solution for ultra-low power and reliable wireless communication networks. It is designed to support the IEEE 802.15.4 standard, which is the backbone of protocols such as Zigbee. This core provides robust and secure networking capabilities, making it an ideal choice for applications in Smart Metering, Home Automation, and Industrial Automation sectors. Its operation in the 2.4GHz band ensures a balance between range and data rate, which is optimal for maintaining low power consumption while ensuring reliable data transmission. Optimized for small form factor devices, the 802.15.4 Transceiver Core features advanced power management techniques, extending the battery life of portable and wireless sensor devices. It integrates comprehensive security features to protect data integrity and prevent unauthorized access, catering to the growing demand for cybersecurity in IoT networks. The core’s architecture supports rapid deployment of mesh networking, allowing devices to communicate over extended distances by routing through intermediate devices. Compatibility with other communication standards is another asset of the 802.15.4 Transceiver Core, enabling integration with wider network infrastructures. This ensures flexibility in deployment, allowing seamless expansion and adaptation in dynamic environments. Its robust design and efficient operation make it a cornerstone in modern wireless sensor networks, facilitating the realization of smart, interconnected ecosystems.
The Satellite Navigation SoC Integration offering by GNSS Sensor Ltd is a comprehensive solution designed to integrate sophisticated satellite navigation capabilities into System-on-Chip (SoC) architectures. It utilizes GNSS Sensor's proprietary VHDL library, which includes modules like the configurable GNSS engine, Fast Search Engine for satellite systems, and more, optimized for maximum CPU independence and flexibility. This SoC integration supports various satellite navigation systems like GPS, Glonass, and Galileo, with efficient hardware designs that allow it to process signals across multiple frequency bands. The solution emphasizes reduced development costs and streamlining the navigation module integration process. Leveraging FPGA platforms, GNSS Sensor's solution integrates intricate RF front-end components, allowing for a robust and adaptable GNSS receiver development. The system-on-chip solution ensures high performance, with features like firmware stored on ROM blocks, obviating the need for external memory.
Secure Protocol Engines by Secure-IC are high-performance IP blocks designed to offload the intensive computational tasks of network and security processing from primary processors. These engines improve overall system efficiency by handling complex security protocols, ensuring that the main computing resources are available for critical applications. They are architected to provide robust protection against security breaches while ensuring swift data processing, maintaining the integrity, confidentiality, and availability of data across networks.
The Digital Blocks eSPI Master/Slave Controller IP is expertly tailored to conform with the Enhanced Serial Peripheral Interface (eSPI) Specification. It incorporates design flexibilities that allow it to function as either a master or a slave controller, enhancing its adaptability across various applications. Additionally, it is compliant with SPI specifications and supports AMBA interconnects such as AXI or AHB, further extending its interface and integration capabilities. This controller can handle the entire scope of eSPI operations, from the technical handling of the Bus Protocol to the intricacies of the Transaction and Link Layers. Given this robustness, the controller easily fits into high-demand environments where precise, reliable communication across SPI and eSPI networks is crucial. Developers can benefit from the design's extendable AMBA interfacing options, allowing it to interact with microprocessors via a spectrum of protocols. This ensures that the IP is suitable for environments where flexibility in interconnect compatibility maximizes the utility of embedded system designs, making it ideal for complex, multi-device platforms.
Designed to revolutionize AI-driven data centers, the Photowave Optical Communications Hardware capitalizes on the inherent advantages of photonics. With capabilities that support PCIe 5.0/6.0 and CXL 2.0/3.0, this hardware facilitates enhanced scalability of AI memory applications within data centers. The technology provides significant latency reduction and energy efficiency, allowing for more effective resource allocation across server racks, which is a crucial feature for modern data infrastructure. The Photowave hardware serves the evolving needs of data-driven applications, ensuring seamless integration and performance boosts in environments demanding high-speed data transfer and processing. By addressing the latency and power efficiency concerns prevalent in traditional electronics, it is integral in the transition towards faster, more sustainable data center operations. Incorporating these photonic advantages, Photowave stands as a testament to Lightelligence’s goal of transforming data operations and enhancing the utility of AI technologies. Its role in this ecosystem is vital, making it a cornerstone product for entities looking to modernize their computational frameworks.
The SPI Master/Slave Controller by Digital Blocks is a versatile Verilog IP core tailored for both master and slave Serial Peripheral Interface (SPI) bus communications. Designed to provide seamless integration, it supports various bus interfaces including AMBA AXI, AHB, and APB, connecting microprocessors to external devices through SPI master/slave interactions. Capable of handling Single, Dual, Quad, and Octal SPI Flash Memory devices, this controller offers enhanced functionality, including Execute-in-Place (XIP) operations for efficient use of flash memory within system designs. This makes it particularly advantageous for applications requiring in-situ code execution from the non-volatile memory, minimizing latency. Moreover, the SPI Master/Slave Controller is expandable to meet specific application requirements, maintaining compatibility with industry-standard specifications, and supporting a broad range of embedded system applications. Its adaptable design ensures users can configure this IP core to their specifications, optimizing performance and operational efficiency in multiple application domains.
The I2C Master/Slave Controller IP Core crafted by Digital Blocks allows robust interfacing between microprocessors and the I2C bus. Designed for seamless integration into various systems, it supports a wide range of functions and data rates, including standard and higher-speed operations such as Fast-mode Plus and Hs-mode. This IP core offers complete compliance with the latest NXP I2C specifications, encompassing system-level features for advanced applications. Its architectural design simplifies the controller’s integration into SoC environments, supporting AMBA interconnects such as AXI, AHB, and APB, which enhances its adaptability and performance. Enhanced with features for improved system-level integration, it covers both master and slave operation modes, providing a comprehensive solution for device-to-device communication and data transactions in embedded systems. This adaptability makes it a valuable asset across various sectors needing reliable and efficient communication protocols.
The UDP Offload Engine (UOE) from Atomic Rules provides a robust offload platform for UDP operations, enabling configurations from 10 GbE up to 400 GbE on popular FPGA devices. By implementing the UDP/IPv4 standards, the solution includes hardware offload for checksum, segmentation, and reassembly processes, supporting seamless integration with Ethernet MACs. With the ability to instantly deliver data across diverse Ethernet speeds, UOE facilitates improved data transfer rates while simplifying the overhead management of UDP operations. A pre-functionality for IGMPv2 multicast helps streamline traffic, preventing unwanted data from burdening the application layer. Suitable for both high-speed data transfer and resource-efficient deployment, it supports programmable frame sizes up to 16KBytes and allows datagram manipulation up to IPv4 limits, maximizing the operational efficiency of network-centric FPGA deployments. Through interoperability with widespread protocols and a low-area implementation, UOE enables advanced data processing solutions that promote system scalability and reliability.
Sofics has verified its ESD protection clamps on technology nodes between 0.25um CMOS down to 3nm across various fabs and foundries. The ESD clamps are silicon and product proven in more than 5000 mass produced IC-products. The cells provide competitive advantage through improved yield, reduced silicon footprint and enable low-leakage, high-speed or high voltage tolerant interfaces. The Analog I/O clamp described in this document can be used for 3.3V pads in the TSMC 7nm FinFET technology. The ESD clamp is designed to provide 2kV HBM protection for 3.3V interfaces. It features a small silicon footprint.
Sofics has verified its ESD protection clamps on technology nodes between 0.25um CMOS down to 3nm across various fabs and foundries. The ESD clamps are silicon and product proven in more than 5000 mass produced IC-products. The cells provide competitive advantage through improved yield, reduced silicon footprint and enable low-leakage, high-speed or high voltage tolerant interfaces. The Analog I/O clamp described in this document can be used for 3.3V pads in the TSMC 3nm FinFET technology. The ESD clamp is designed to provide 2kV HBM protection for 3.3V interfaces. It features a small silicon footprint.
MIFARE Certification Technologies offered by LSI-TEC represent advanced solutions in ensuring secure data transfer and authentication necessary for modern smart card operations. These technologies are pivotal in the wireless communication industry and facilitate seamless interactions across security systems. The certification technologies adhere to stringent international standards, ensuring optimal performance and increased reliability across various applications. MIFARE technologies integrate with numerous smart card systems, offering a robust framework for transaction security. Their implementation ensures that data integrity and access security are maintained, which is crucial in sectors like banking, transportation, and identification. Through these advanced certification technologies, organizations can rely on a safe, scalable, and efficient solution tailored to their unique security needs.
I2C IP is designed to deliver robust communication capabilities over short distances, utilizing the Inter-Integrated Circuit protocol for enhanced component interfacing. It offers a reliable solution for connectivity within integrated circuit environments, ensuring smooth data exchange. Targeted towards applications where simplicity and efficiency in data transmission are paramount, this IP is ideal for consumer electronics, instrumentation, and control applications where streamlined communication is crucial. With user-friendly configuration options, I2C IP manages synchronization efficiently, providing maintainable and effective solutions across various platforms. Its integration aids developers in creating systems that require minimal overhead and high data integrity.
The INAP375T Transmitter is a high-performance device engineered to enhance serial data transmission. Leveraging state-of-the-art technology, this transmitter offers robust support for high-speed video channels, Ethernet, as well as audio channels, making it ideal for applications in automotive infotainment. The device features current mode logic for its physical layer, ensuring reliable and long-distance data transmission over a single twisted pair cable. This flexibility in transmission format allows the INAP375T to cater to various use cases, from video streaming to audio data interchange. Designed with versatility in mind, the INAP375T supports up to 12 meters of transmission distance at impressive gigabit speeds. This makes it suitable for complex automotive architectures where reliability and data integrity are paramount. The transmitter includes advanced AShell protocol support to optimize data handling and ensure error-free communication. The INAP375T is equipped to handle dual video channels with RGB/LVDS support, enabling seamless integration in advanced automotive video systems. The device’s diverse configuration options, accessible via SPI and I2C interfaces, enhance usability and adaptability. This transmitter is well-matched for high-demand environments where precision and high data throughput are critical.
Sofics has verified its ESD protection clamps on technology nodes between 0.25um CMOS down to 3nm across various fabs and foundries. The ESD clamps are silicon and product proven in more than 5000 mass produced IC-products. The cells provide competitive advantage through improved yield, reduced silicon footprint and enable low-leakage, high-speed or high voltage tolerant interfaces. The Analog I/O clamp described in this document can be used for 2.5V pads in the TSMC 5nm FinFET technology. The ESD clamp is designed to provide 2kV HBM protection for 2.5V interfaces. It features a small silicon footprint.
The LineSpeed FLEX family represents a range of 100G PHY products, enabling retimer, gearbox, and multiplexing functionalities with integrated redundant link options. These products are optimized for use on line cards or within modules, meeting industry standards and varying data rates from 10G to 100G. Equipped with on-chip 100G RS-FEC capabilities, these devices are built to improve gearbox and retimer performance while ensuring that systems can handle dense data aggregation efficiently. The multi-link gearbox (MLG) feature facilitates effective data management and transition, supporting 10GbE aggregation across 100G ports seamlessly. The FLEX family devices are characterized by their protocol independence, allowing for flexibility across different deployment scenarios, such as handling mixed port speeds and ensuring high reliability through robust design. Each device's serial mux/demux functions help enhance system throughput, contributing to more efficient data flow and system operations. Widely applicable in high-reliability systems, including 100GbE line cards and switches, the LineSpeed FLEX family is critical for managing data transfer across modern telecommunications and data network frameworks. These solutions allow businesses to optimize their networking capabilities, aligning well with the current advancements in high-speed communications.
The SPI Slave is a critical module designed for stable and efficient serial communication in systems that leverage the SPI protocol. Adhering to the Motorola reference standard, this slave device accommodates varying clock speeds and data bits, ensuring smooth and synchronized data exchanges. It's integral for electronic applications requiring consistent throughput and error management, often employed in consumer electronics and industrial equipment for its reliability and performance under diverse conditions.
This networking solution from CetraC endows high-performance capabilities into FPGA and ASIC products, tailored for distributed architectural systems. It is crafted specifically for industries that demand high-speed data transmissions and excellent reliability across their networking infrastructures. The product supports numerous protocols such as TSN, CAN FD, and ARINC429, making it versatile for integration into various high-tech systems needing comprehensive data management and communication structures. The solution also features robust security measures including AES256 encryption to protect data integrity while facilitating seamless protocol conversions to enhance interoperability between various network segments.
The I2C Slave module complements the I2C Master by providing a robust interface for responding to master-driven commands using the I2C protocol. Fully aligned with I2C-bus specifications, this slave module handles data communication efficiently across different data modes—Standard, Fast, and Fast Plus. It facilitates seamless communication with minimal power consumption, making it a reliable choice for embedded systems, where multiple devices must communicate cohesively. Its adaptability contributes to efficient system integration across diverse electronic platforms.
The I2C Master core enables communication between integrated circuits using the I2C protocol. Compliant with the I2C-bus specification and user manual Rev. 5, it supports Standard-mode, Fast-mode, and Fast-mode Plus (Fm+) operations. This master module is capable of transmitting and receiving data efficiently, making it suitable for applications requiring control over multiple slave devices within electronic systems. It's widely used in consumer electronics and embedded systems where precise data coordination is crucial.
The SPI Master core is designed to facilitate synchronous serial communication between various devices using the SPI protocol. It aligns with the SPI Standard and is fully compliant with Motorola's M68H11 Reference Manual. This core is ideal for controlling multiple slave devices, supporting bi-directional communication that is essential in high-speed data environments. It's a popular choice in embedded systems for applications that demand efficient, low-latency communication solutions.
The D68HC11F is a synthesizable SOFT Microcontroller IP Core, fully compatible with the Motorola 68HC11F1 industry standard. It can be used as a direct replacement for the 68HC11F1 Microcontrollers. Major peripheral functions are integrated on-chip, including an asynchronous serial communications interface (SCI) and a synchronous serial peripheral interface (SPI). The main 16-bit, free-running timer system includes input capture and output-compare lines, and a real-time interrupt function. An 8-bit pulse accumulator subsystem counts external events or measures external periods. Self-monitoring on-chip circuitry protects the D68HC11F against system errors. The Computer Operating Properly (COP) watchdog system and illegal opcode detection circuit provide extra security features. Two power-saving modes, WAIT and STOP, make the IP core especially attractive for automotive and battery-driven applications. Additionally, the D68HC11F can be equipped with an ADC Controller, offering compatibility with external ADCs. Its customizable nature means it's delivered in configurations tailored to need, avoiding unnecessary features and silicon waste. The D68HC11F also includes a fully automated test bench and comprehensive tests for easy SoC design validation. It supports DCD’s DoCD™, a real-time hardware debugger, for non-intrusive debugging of complete SoCs. This IP Core is technology agnostic, ensuring 100% compatibility with all FPGA and ASIC vendors.
The 12~85MHz LVDS Rx from Leo LSI is designed to efficiently handle low voltage differential signaling across a broad frequency range. This receiver supports shift clock frequencies from 12 to 85MHz, making it versatile for various data communication needs while maintaining energy efficiency. It offers a common-mode range around +1.2V and a throughput capability of up to 2.38Gbps, paired with a bandwidth of 297.53Mbytes/sec. The design incorporates LVDS devices for low EMI environments and requires no external components, simplifying integration into existing systems. Optimized for high-speed data reception, this LVDS Rx is suitable for applications demanding robust signal integrity and minimal electromagnetic interference, such as in high-speed data transfer and multiplexing systems.
The I2C Master/Slave Controller core offers a two-wire interface solution, facilitating bidirectional communication over I2C protocols. It includes serial data and clock lines with straightforward integration through register programming, compatible with AHB, APB, and Avalon bus systems. This controller core is designed for seamless use in custom logic circuits and bus fabric designs, enhancing communication capabilities in embedded systems.
GOWIN's LittleBee family is a series of non-volatile, flash-based FPGAs optimized for low power usage with extremely compact packaging, some as small as 2.4x2.3mm. These FPGAs excel in IO-intensive, source-synchronous interfacing and bridging tasks, handling protocols like MIPI CSI-2, MIPI DSI, USB 2.0, Ethernet, and HDMI with ease. LittleBee FPGAs are perfect for hardware management requiring quick booting and strong security features. Beyond their base offerings, they come with several innovative sub-features including expanded memory, embedded ARM Cortex-M processor cores, security enhancements, and Bluetooth LE, pushing their applicability beyond traditional FPGAs. GOWIN has also enhanced their development environment to support the LittleBee series, providing user-friendly FPGA development software. This includes tools for synthesis, mapping, placement, and bitstream generation, supplemented by embedded logic analyzers and power calculators for comprehensive project analysis.
The Arora V series of FPGAs from GOWIN Semiconductor represent the second generation in the Arora family. These FPGAs boast a plethora of internal resources, a new architecture, and advanced DSP capabilities designed to support artificial intelligence operations. They come equipped with high-speed LVDS interfaces and a wealth of BSRAM resources. Featuring sophisticated 22nm SRAM technology, these devices integrate high-speed SerDes interfaces ranging from 270Mbps to 12.5Gbps. Included within these devices is a PCIe 2.1 hard core that effortlessly supports PCIe x1, x2, and x8 modes. Alongside this, a MIPI hard core single lane module operates at speeds of up to 2.5Gbps, complemented by DDR3 interfacing capable of managing speeds up to 1333 Mbps. The initial offering in the Arora V family is the GW5AT-138FC676, which comes with 138K LUT logic resources and 6.4MB of block RAM, ensuring robust performance for diverse applications. The Arora V family is supported by GOWIN EDA, which provides a streamlined and user-friendly FPGA hardware development environment, compatible with multiple RTL-based programming languages. This comprehensive development toolset includes synthesis, placement, routing, bitstream generation and download, power analysis, and an in-device logic analyzer, all designed to enhance the efficiency of your FPGA projects.
The Ares SoM utilizes the Agilex 7 SoC F-Series FPGA, combining high-performance and versatility. It is tailored for the rapid implementation of complex algorithms, ensuring optimal use in fields like electronic warfare and satellite communication. The system-on-module design enables it to be easily integrated into various systems, helping reduce development cycles and time-to-market for embedded solutions. The Ares SoM effectively supports applications that demand reliability and speed.
The Vulcan SoM is a flexible platform based on Versal Prime or AI Edge FPGA SoC modules, offering a blend of AI processing and advanced connectivity. It is designed for implementing complex algorithms across various embedded applications, promising enhanced performance with lower power usage. This module is optimized for sectors like bioscience instrumentation, radar systems, and quantum computing. The integrated heatsink and fan support makes it an ideal choice for high-demand environments.
Achilles SoM is developed with the Intel Arria 10 SoC, offering an efficient blend of CPU control and FPGA programming flexibility. It is crafted to support high-power applications, including automotive and military systems, where quick processing and adaptability are crucial. The Achilles SoM significantly reduces time-to-market by integrating essential components into a compact board design, making it ideal for diverse industrial uses.
The COMXpress SoM leverages Intel's Stratix 10 SoC technology to deliver high-performance computing in a compact form. Designed for applications that require intensive processing and high transceiver bandwidth, this module is ideal for markets such as HPC and video processing. Its architecture allows for customizable integration, supporting development in both industrial and embedded sectors.
Based on the AMD Zynq Ultrascale+ MPSoC, the Zeus SoM merges ARM and FPGA capabilities to drive innovative designs across sectors such as radar and high-precision measurement systems. With multiprocessing capabilities, the Zeus SoM enables the concurrent execution of complex tasks, enhancing system efficiency. The board's compatibility with its carrier board allows for a streamlined development process, targeting markets demanding robust and scalable solutions.
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