All IPs > Memory Controller & PHY > SDRAM Controller
The SDRAM Controller semiconductor IP is an integral component in digital electronics, facilitating the interaction between a processor and the SDRAM (Synchronous Dynamic Random Access Memory). At Silicon Hub, our collection of SDRAM Controller IPs is engineered to cater to the diverse demands of modern computing and embedded systems.
SDRAM controllers are essential for managing data flow and maintaining synchronization between the CPU and memory modules. They ensure that the SDRAM can be maximally leveraged to meet the requirements of fast data access and large storage capacities intrinsic to today's technology environments. These controllers play a crucial role in applications that require high-speed data processing and efficient memory utilization, such as in personal computers, servers, mobile devices, and consumer electronics.
In our SDRAM Controller category, you will find IPs that support a variety of SDRAM types, including DDR, DDR2, DDR3, and the latest advancements in DDR technology. Each controller is designed to optimize energy consumption while maximizing data throughput, making them suitable for both high-performance and low-power applications. These semiconductor IPs offer customizable features to support diverse system architectures and operational requirements.
Moreover, our SDRAM Controller IPs are rigorously tested for reliability and compliance with industry standards to ensure seamless integration into electronic products. By utilizing these high-quality IPs, designers and engineers can significantly reduce development time and resources, paving the way for innovative product solutions that are both efficient and competitive in the market. Explore Silicon Hub's SDRAM Controller solutions to bring your electronic designs to the forefront of technology.
The LPDDR4/4X/5 Secondary/Slave PHY is engineered to complement main PHY systems by enhancing their capacity for data management and processing simultaneously. This component maintains the effective data transfer rates characteristic of the LPDDR series, ensuring that secondary systems can manage alternative data streams without bottlenecking. Optimized for parallel processing, it supports additional pathways for data, ensuring that extensive data sets and complex calculations do not impede system performance. The design adheres to JEDEC standards, promising seamless compatibility with master PHY systems.
Chevin Technology's Ultra-Low Latency 10G Ethernet MAC is engineered to meet the demanding performance needs of modern telecommunications environments. This IP core optimizes data processing speed with its cutting-edge design, ensuring minimal latency and consistent data throughput. The Ultra-Low Latency 10G Ethernet MAC is particularly suited for real-time data exchange applications where swift data transmission is essential. It leverages a compact logic structure to achieve outstanding efficiency, minimizing resource requirements while bolstering performance capabilities. The core's versatile design supports straightforward integration into both new and existing systems across various FPGA platforms. It stands out for its energy-efficient operation, offering sizeable power savings over CPU-based implementations, and provides a robust licensing model to offer cost flexibility for developers.
DenseMem doubles the memory capacity for computing systems linked through CXL, advancing efficiency in managing large-scale data activities. This IP is pivotal in extending capabilities within cloud and enterprise data centers where memory demands are escalating. By seamlessly increasing memory availability, DenseMem supports greater data throughput and processing power, essential for modern data management. Optimizing the memory layout, DenseMem ensures that systems can handle larger datasets with remarkable ease, which is particularly beneficial in data-intensive applications such as big data analytics, machine learning, and real-time processing. This enhancement leads to reduced bottlenecks and improved system responsiveness, making it an essential asset for operations requiring high-level data manipulation. Moreover, DenseMem is crucial for businesses aiming to leverage enhanced data processing without necessitating extensive physical infrastructure upgrades. The efficient management of memory prescribes a balanced approach to scaling operations, contributing to both cost savings and resource conservation within expanding digital environments.
Dolphin Technology offers a comprehensive range of memory IP products, catering to diverse requirements in semiconductor design. These products include a variety of memory compilers, specialty memory, and robust memory test and repair solutions such as Memory BIST. Designed to meet the demands of contemporary low-power and high-density applications, these IPs are built to work across a broad spectrum of process technologies. Advanced power management features, like light and deep sleep modes and dual rails, enable these products to tackle even the toughest low-leakage challenges. What sets these products apart is their flexibility and adaptability, evident in the support for different memory types and process nodes. Dolphin Technology’s memory IPs benefit from seasoned design teams that have proven their mettle in silicon across several generations. Thus, these IPs are not only versatile but also reliable in serving a wide variety of industry needs for technology firms worldwide. Clients can expect memory solutions that are fine-tuned for both power efficiency and performance. Additional capabilities such as power gating cater to ultra-low power devices while achieving a high level of device integration and compatibility. The specialized focus on low noise and rapid cycle times makes these memory solutions highly effective for performance-driven applications. These features collectively make Dolphin Technology’s memory IP an invaluable asset for semiconductor designers striving for innovation and excellence.
The 10G Ethernet MAC and PCS from Chevin Technology is designed to deliver exceptional network performance for FPGA systems. This IP core boasts high throughput and low latency, ensuring efficient data transmission capabilities. Tailored for flexibility, it can integrate seamlessly into a variety of systems, providing reliability and reduced hardware complexity through its all-logic architecture. Offering compatibility with both Intel and Xilinx FPGAs, the core is intended for high-efficiency applications, making it suitable for use in environments where space and power consumption are critical factors. With its support for the latest Ethernet standards, it enhances network communication within embedded systems. Engineered for design efficiency, this MAC and PCS IP can lower system costs and footprint by fitting numerous cores on a single chip. By maximizing space for other logic components, it provides a cost-effective solution without compromising on performance.
Designed to enhance DDR bandwidth by up to 25%, Ziptilion BW is a pivotal technology in boosting the performance and energy efficiency of systems-on-chip (SoC). It achieves this by maintaining nominal frequency and power levels, which are crucial for the efficient operation of modern processors. Through compression and optimization, this IP stands out as a crucial tool for managing data center resources effectively, particularly in scenarios demanding high throughput. Incorporating this IP within data centers enables smoother and faster processing, allowing for swift data handling and greater parallel processing capabilities. This results in significant improvements in performance metrics and supports efforts to reduce power consumption, aligning with sustainable data center strategies. Ziptilion BW offers a robust solution for industries where data-heavy operations are conducted. It ensures that resources are utilized optimally, maintaining high efficiency even under demanding workloads. This allows organizations to keep up with processing needs without incurring excessive energy costs or compromising on service quality.
This memory module designed for AHB-Lite masters is fully parameterized, ensuring flexibility and efficiency in hardware designs. It allows for seamless integration of on-chip memory solutions, vital for high-performance applications requiring local data storage. The module supports a wide range of configurations to match specific processing needs.
The AXI4 DMA Controller is designed to manage data transfers efficiently across multiple channels, supporting up to 16 independent streams between various sources and destinations. Capable of handling high throughput across both small and large data sets, this DMA controller provides enhanced data management and reliability in system operations focused on data-centric tasks. This controller offers configurable parameters for its channels, each possessing independent read and write controllers to optimize data handling flows. It supports scatter-gather linked-list control and can manage complex data flow patterns, thereby reducing processing overhead and enhancing overall system performance. The flexibility of AXI3 and AXI4 burst features further accentuates its versatility, providing customizable data widths ranging from 8 to 1024 bits, making it well-suited for a diverse array of applications from networking to embedded systems. Offering a sparse footprint, the controller integrates seamlessly with different system architectures, supporting various AXI configurations that allow for simpler integration with existing AMBA-connected systems. Its design emphasizes minimizing silicon usage while maintaining robust functionality to fit custom project requirements, thereby reducing implementation and operational costs. The available design options together with a comprehensive set of evaluation and test resources provide significant development advantages to teams working across platforms like RISC-V or ARM-based systems, thereby facilitating agile project development and optimization.
Cache MX is a cutting-edge compression solution designed to enhance cache capacity by twofold, while achieving significant savings in area and power compared to traditional SRAM capacities. This technology is developed to optimize data center operations by minimizing the physical space required and reducing power consumption, effectively lowering operational costs and supporting sustainable growth. Its application is critical in environments where energy efficiency is prioritized without sacrificing performance. The enhanced cache capacity not only improves system performance but also supports a wider range of applications by accommodating larger data sets. This is particularly beneficial in high-performance computing and data-intensive applications where maximizing resource utilization is key. By employing advanced compression algorithms, Cache MX ensures that systems run efficiently, providing faster access to cache with reduced latency. Incorporating this technology into data centers leads to a more sustainable setup as it minimizes the carbon footprint through decreased energy usage. Moreover, Cache MX offers a scalable solution that can be adapted to different needs, making it versatile for various industry requirements focused on collective processing and real-time analytics.
The CodaCache Last-Level Cache by Arteris provides an optimized caching solution to enhance SoC performance by actively managing memory-related issues like latency and power efficiency. With its configurable architecture, CodaCache allows SoC developers to fine-tune cache settings to unlock performance potential in scenarios requiring intensive data reuse and access. By addressing optimization and integration demands, CodaCache plays a pivotal role in easing challenges such as scalability, timing closure, and layout congestion. This IP effectively supports seamless communication and software integration through AXI support, facilitating efficient data handling. CodaCache capacitates system enhancement with its features, including flexible physical organization, performance monitoring, and cache partitioning. Incorporating it in conjunction with FlexNoC and FlexWay networks, it aids in delivering composite solutions that meet the high-performance requirements of sophisticated SoC designs while simultaneously reducing development time and risk.
The xT CDx is an advanced FDA-approved assay designed for tumor and normal DNA sequencing. Incorporating a comprehensive 648-gene panel, this assay provides critical insights for diagnosing and treating solid tumors, with specific functions in guiding targeted therapies in colorectal cancer patients. The test includes a thorough mutation profiling system that allows healthcare professionals to analyze substitutions, insertions, and deletions, delivering a powerful means to refine treatment options. Beyond the standard, the xT CDx offers tumor and normal matched sequencing to distinguish somatic alterations, reducing false-positive results and improving accuracy in clinical assessments. Its integration into clinical practices is supported by its compatibility with various companion diagnostic claims, making it an essential tool for aligning treatment decisions with approved therapeutic products. By utilizing next-generation sequencing technologies, the xT CDx supports the optimization of treatment pathways and enhances patient care through detailed molecular insights. With the capacity to perform detailed analyses on formalin-fixed paraffin-embedded tumor tissues and matched normal samples, this assay promises high specificity and sensitivity in tumor profiling. Leveraging Tempus' cutting-edge bioinformatics infrastructure, the xT CDx ensures healthcare providers can make informed decisions supported by rich genetic data, setting a transformative benchmark in precision oncology.
The DDR Memory Controller from OPENEDGES Technology forms a crucial part of their ORBIT Memory Subsystem, aiming to deliver exceptional memory management performance. This controller, noted for low latency and high utilization, integrates seamlessly with various DDR PHYs, including both OPENEDGES’ own and third-party options. Engineered for next-generation semiconductor applications, it combines high-speed capability with advanced scheduling algorithms to optimize DRAM utilization. Equipped with JEDEC-compliant support for multiple DRAM types, such as LPDDR5, DDR5, and GDDR6, the controller ensures broad compatibility and scalability for various applications. Its out-of-order scheduling and dynamic DRAM tuning enable both significant area savings and power reductions, which are critical for conserving resources in high-demand scenarios. The memory controller's design includes advanced features like inline ECC for data integrity and dual-PHY control, which doubles DRAM channel bandwidth using a single controller instance. With a sophisticated pipeline architecture, this controller is designed to maximize efficiency in high-bandwidth applications, meeting the rigorous demands of AI/ML, HPC, and automotive uses.
The DB9000-AXI Multi-Channel DMA Controller is built to optimize data transfer efficiency within systems, capable of managing multiple data streams concurrently. Supporting up to 16 independent data channels, this DMA controller excels at enhancing throughput across diverse applications, from large data sets to intricate peripheral connections. Engineered to integrate seamlessly with AXI-based systems, it provides vital Scatter-Gather functionality to manage complex data paths and tasks, ensuring minimal overhead on CPUs. Its comprehensive control features allow users to customize data handling operations, catering to varying design needs that involve either high-speed or high-volume data transactions. This controller's architecture supports a breadth of configurations to optimize memory bandwidth usage, making it a critical asset in systems requiring rapid, reliable data exchange. By supporting both AXI3 and AXI4 protocols, it brings flexibility and adaptability to system designers who need fine-tuned integration for their specific application requirements. Offering comprehensive documentation, simulation kits, and technical support, this DMA controller aids in advancing designs in RISC-V, ARM, and other ASIC/FPGA platforms, making it invaluable to industries involved in high-performance computing, telecommunications, and beyond.
DXCorr's Static Random-Access Memory (SRAM) offers a critical balance of speed and power consumption, crucial for a multitude of applications in the semiconductor industry. These SRAM designs are highly regarded for their ability to provide fast access times, making them ideal for use in cache memory contexts and other high-speed data applications. They are built to optimize space and performance, catering well to applications that require reliable and quick storage. These SRAMs are tailored to support varied design requirements, with capabilities that span across different process nodes and technologies. By leveraging cutting-edge techniques, DXCorr ensures that their SRAM solutions are power-efficient and robust, even in dual-port SRAM applications that demand concurrent reading and writing operations. This adaptability is especially significant for networking and computing where performance and reliability are paramount. The integration of advanced design methodologies allows these SRAMs to meet stringent industry standards while offering scalability for future demands. Thus, they play a crucial role in modern electronics, assisting devices to maintain lower power profiles while ensuring the highest performance levels.
TimeServoPTP extends the capabilities of the TimeServo System Timer to provide a complete IEEE 1588v2 Precision Time Protocol (PTP) Ordinary Clock (OC) solution for FPGAs. This implementation supports both 1-Step and 2-Step synchronization with a network time grandmaster, ensuring accurate time alignment within a communication system. The IP is designed to interface directly with a PTP master through Ethernet, utilizing L2 EtherType frames for communication. It features flexible clocking options and independent time output domains, providing up to 32 precise timing outputs. Each output can be individually configured in various formats and includes a pulse-per-second signal for precise timing applications. TimeServoPTP employs a Gardner Type-2 digital phase-locked loop (DPLL) to maintain synchronization accuracy, leveraging FPGA resources efficiently. This solution supports Intel Agilex and Xilinx UltraScalePlus devices, demonstrating its adaptability across different hardware platforms.
Enyx’s nxLink is a forward-thinking network management suite tailored for constructing low-latency, high-efficiency trading environments. Leveraging FPGA technology, nxLink enhances network capabilities by enabling advanced link management and bandwidth distribution, critical for the infrastructure of financial firms and telecommunication sectors. The product suite is designed to tackle common networking challenges like latency, signal reliability, and bandwidth inefficiency, offering solutions that ensure minimal data loss and enhanced transmission stability by integrating wireless links with fiber backups. nxLink’s Share and Secure modules provide bandwidth management and redundancy handling, safeguarding network operations from outages or performance dips. Built for next-generation trading networks, nxLink supports features such as Ethernet fragmentation, link redundancy, and packet arbitration, thus boosting network performance and maintaining wire-speed processing. This adaptable network solution is well-suited for organizations keen on optimizing their communication infrastructures for rapid, stable data exchanges across multiple sites.
The Aeonic Integrated Droop Response System is designed to enhance droop and DVFS response for integrated circuits. It includes multi-threshold droop detection and fast adaptation times, ensuring power savings and optimal system performance. This technology provides extensive observability and integrates standard interfaces like APB & JTAG, aiding silicon health management by delivering data-driven insights for lifecycle analytics.
Floadia's LEE Flash G2 builds upon the foundational architecture of LEE Flash G1, offering unique enhancements that further broaden its application scope. Notably, this IP iteration requires no high voltage for read operations, a feature that simplifies integration with logic circuits by eliminating isolation areas. It operates efficiently across broader temperature ranges, making it perfect for automotive and other high-precision environments. LEE Flash G2 supports more significant memory capacity, stretching its utility across applications that necessitate storage reaching megabytes. Its compatibility with standard CMOS platforms is a hallmark, underscoring its adaptability and ease of use without impacting pre-existing design parameters or necessitating extensive redesigns. Moreover, the G2 design leverages an innovative power scheme that reduces electrical consumption during both program and erase cycles. This significantly decreases operational costs and enhances testing procedures by reducing test times to a minimum, thereby positioning it as a robust solution for industries seeking efficient, scalable memory solutions.
The MVDP2000 series is engineered to deliver high sensitivity in differential pressure measurement using proprietary capacitive technology. This series is specifically designed for applications that demand precision and low power use, excelling in environments such as healthcare, HVAC, and industrial settings. It provides fast and accurate pressure readings while maintaining low energy consumption, making it suitable for portable and OEM devices where efficiency and quick response are essential.
ISPido is a robust and fully configurable Image Signal Processing (ISP) pipeline designed for high-end image processing needs. It is implemented in RTL and utilizes the AXI4-LITE protocol for flexibility. The pipeline is equipped with comprehensive features including defective pixel correction, color filter array interpolation, and color space conversion. It supports resolutions up to 7680×7680 and complies with AMBA AXI4 standards, addressing modern image processing challenges efficiently. This ISP handles inputs of 8, 10, or 12 bits depth, making it highly adaptable to different processing requirements. It features modules for statistics collection, auto-white balance, gamma correction, and high dynamic range (HDR) support. These enhancements enable users to achieve precise and accurate image quality with maximum efficiency. Furthermore, the ISPido pipeline supports YUV color conversion and chroma subsampling, ensuring compatibility with various output formats like 4:2:2 and 4:2:0. Its design ensures seamless integration into existing systems, optimizing resources while offering high-quality image output.
The xSPI MRAM product family from Everspin is crafted for Industrial IoT and embedded systems, using their proprietary STT MRAM technology. These devices adapt the Expanded Serial Peripheral Interface standard, offering high-speed, low pin count communication with a frequency up to 200 MHz. Operating on a single 1.8V supply, xSPI MRAMs deliver a throughput up to 400MBps, perfect for applications replacing legacy SRAMs, NVSRAMs, or NOR Flash. This range targets diverse sectors including automotive, gaming, and industrial automation.
DRAM modules are essential components used in a range of electronics, from gaming machines to medical devices. Avant's DRAM offerings are particularly noted for their compliance with JEDEC standards, which ensures interoperability and reliability across different systems and environments. Available in various configurations and designed to manage both low voltage and high power demands, Avant's DRAM caters to industrial, commercial, and consumer needs. Their embedded series of DIMMs offers extensive options, enabling a wide application spectrum, including use in point-of-sale and automation systems.
The Parallel Interface MRAM from Everspin is designed to be SRAM compatible while ensuring non-volatility. Available in configurations supporting both 8-bit and 16-bit parallel interfaces, these MRAMs are tailored to provide high-speed access times of 35 to 45 nanoseconds and unlimited endurance. A protective mechanism prevents unintentional write operations under low power situations, ensuring data reliability over its extended 20-year lifespan. This makes them ideal for applications requiring dependable data retention and quick access.
RADX's Trifecta-SSD-RAID is engineered to satisfy the rigorous data storage demands of PXIe/CPCIe applications, where efficiency and performance are paramount. It excels in providing high-capacity, high-speed data storage ideal for RF and microwave recording, playback, and sustained data transfer activities, achieving up to 7 GB/Sec in sequential read and write speeds. This efficiency ensures that operational performance doesn’t stumble due to SSD write inconsistencies. The modular design of the Trifecta-SSD-RAID allows it to house up to eight M.2 NVMe SSDs within a single PXIe/CPCIe slot, representing a significant leap in storage capacity—ranging from 8TB to 64TB per slot. This makes it a reliable choice for extensive RF/IF data streaming and long-duration data logging systems, thus supporting the most data-intensive applications with ease and speed. Furthermore, the Trifecta-SSD-RAID is built with compliance to crucial international standards and is easily integrated into varied operating environments, supporting 64-bit Windows and select Linux systems. Its performance metrics not only provide high return on investment but also ensure that industries relying on rapid, heavy data traffic have a sustainable and scalable storage solution.
NRAM Technology represents a breakthrough in memory storage that utilizes carbon nanotubes to achieve unprecedented speed and density. At its core, NRAM combines the swift data access of DRAM with the endurance and cost efficiency of emerging memory technology. Non-volatile and highly scalable, this memory solution remains stable and functional even in the most demanding environments, including extreme temperatures and radiance. The innovative approach of using CNTs, or carbon nanotubes, contributes to NRAM's robust performance, allowing it to operate in dual resistive states, representing binary data. Through this method, it achieves lower power consumption during standby and quicker 'instant on' capabilities than existing flash memory systems. Additionally, its construction is compatible with standard CMOS fabrication, eliminating the need for new manufacturing tools, which further reduces cost and complexity. What sets NRAM apart is its potential for scalability beyond 5nm, making it suitable for future technological demands. It can be integrated into various electronic devices, from consumer electronics to enterprise systems, offering high-speed data handling and energy efficiency. This impressive synergy between cost, reliability, performance, and environmental resilience positions NRAM as a transformative memory solution, ready to set new industry standards.
Mobiveil's Universal Multi-port Memory Controller (UMMC) is tailored for RLDRAM2, RLDRAM3, and a variety of DDR standards, including DDR4 and DDR3. It offers a flexible and configurable architecture well-suited for applications requiring high bandwidth and low power, such as mobile, networking, and consumer electronics. The controller is designed for high-frequency operations and dynamic power management to optimize performance and efficiency within complex systems, offering a robust solution for next-generation memory needs.
The D-Series DDR5/4/3 PHY from MEMTECH is designed to address high-performance demands in servers, desktops, laptops, and other consumer electronics. It provides high-bandwidth and energy-efficient operations, supporting data rates up to 6400 Mbps. This PHY interface integrates effortlessly into designs, offering robust features like advanced calibration routines, signal integrity tests, and supports multitudes of DDR standards. This high-tech solution comes as a hard macro, ensuring ease of integration and maximum performance, particularly suited for high-demand applications needing registered and load-reduced modules. The D-Series DDR5 PHY offers further enhancements with support for data rates over 6400Mbps, featuring a variety of calibration and equalization techniques to ensure peak performance in varying conditions.
The High Speed Adaptive DDR Interface is a pioneering technology that incorporates patented adaptive features to efficiently handle process, voltage, and temperature variations within a system. This interface is designed to optimize both high performance and low power consumption, making it suitable for diverse market sectors such as data centers, 5G, mobile, ADAS, AI/ML, IoT, and display technologies. Supporting DDR3/4/5, LPDDR3/4/5, and HBM standards, this interface boasts a wide range of compatibility with process nodes from 65nm to 7nm. Looked upon as a reliable choice by industry leaders, this DDR System from Uniquify addresses the crucial need for system reliability and performance enhancement. Its patented Self Calibrating Logic (SCL) efficiently eliminates unnecessary logic gates, reducing power consumption and ensuring the least latency by replacing FIFO with flops. Furthermore, it automatically corrects for bit-to-bit skew, providing a clean output signal for optimal performance. Uniquify's DDR interface holds a significant patent portfolio, with 24 US patents awarded since 2006, underscoring its commitment to innovation. Its adaptive elements support a broad array of applications, ensuring the highest yield and reliability for any given system, in turn fostering increased power efficiency and performance effectiveness.
NuRAM Low Power Memory represents a breakthrough in memory technology, utilizing the reliable MRAM architecture to deliver fast access times while significantly reducing leakage power. This IP is a compelling choice for system designs looking to upgrade from traditional SRAM or nvRAM, as well as embedded Flash. Its innovative design allows for substantial size reduction, enabling more efficient memory footprints, which translates into reduced power needs and potentially minimal DDR memory access. Furthermore, the memory can be completely powered down without losing stored data, offering impressive power and latency optimizations that are critical for modern digital systems.
NVMe Expansion is an advanced solution providing 2-4x increased storage capacity through LZ4 or zstd hardware accelerated compression techniques. It leverages non-volatile memory express (NVMe) protocols to maximize storage efficiency, enabling organizations to address growing storage needs without significant infrastructure overhaul. This allows for scalable, high-performance storage solutions critical for data centers dealing with extensive data volumes. The implementation of this technology allows enterprises to maintain high-speed storage access, reducing latency and ensuring quick data retrieval, which is essential in processing-intensive tasks. This results in improved data handling efficiency and provides the foundation for advanced applications that require rapid access to large datasets. By optimizing storage resources, NVMe Expansion contributes to reduced overall power consumption, promoting an environmentally responsible approach to data center management. This aligns with industry trends towards sustainability while still meeting the growing data trend challenges, making it a strategic investment for future growth.
Spin-transfer Torque MRAM (STT-MRAM) by Everspin harnesses the manipulation of electron spins to create high-efficiency memory solutions. Providing significant energy savings over traditional MRAM models, STT-MRAM offers scalability for high-density applications. It features a perpendicular magnetic tunnel junction which ensures data retention and high endurance, suitable for industrial IoT and enterprise storage uses. The advanced ST-DDR4 interface of STT-MRAM aligns with DDR4 protocols, enhancing its usability in demanding data workloads and environments.
SystemBIST represents a comprehensive plug-and-play device enhancing FPGA configurations and embedded JTAG testing methodologies on PCBs. This sophisticated module allows for seamless FPGA device programming and reconfiguration in-field, supporting IEEE 1532 and IEEE 1149.1 standards. Designed with a vendor-independent approach, SystemBIST offers scalable configurations for both flash memory and CPLD devices, integrating built-in self-tests (BIST) that utilize stored test patterns in flash memory. This product simplifies the traditional complex methods of FPGA configuration, removing the need for large PROM parts and streamlining production concerns with its cost-effective design, widening its appeal across sectors needing flexible, reliable re-programmable solutions.
Providing a versatile and high-performance storage solution, RADX’s Trifecta-SSD-RM serves both PXIe and CPCIe systems well with its M.2 NVMe SSD Data Cartridges that can be easily interchanged. Its design supports breakthrough data speeds of up to 3.5 GB/Sec using PCIe Gen3 interfaces, ensuring quick access to and recording of large volumes of data, critical for intensive data acquisition undertakings. Available in a range of capacities from 1TB to 8TB, the Trifecta-SSD-RM delivers multiple times the capacity of conventional embedded controllers. This module stands out not only for its speed but for its cost efficiency. It is an optimal upgrade path for both existing and new PXIe infrastructures, particularly where security level adaptations and rapid backup investigations are necessary. Notably, this module facilitates software RAID configurations to further enhance data reliability and performance. This adaptability makes the Trifecta-SSD-RM particularly suited to enterprises striving for improved output with robust data collection capabilities, without compromising on economic viability.
Flash Protection Series extends security frameworks within SoCs, safeguarding critical assets across different types of flash memory like embedded and external NAND/NOR flash. The series utilizes PUF technology to create a secure boundary, preventing intellectual property theft and information breaches. This comprehensive suite supports real-time encryption for secure data execution and caters to multiple memory configurations, adding an additional security layer against potential attacks. With Flash Protection Series, SoCs are better equipped to stall unauthorized access, using innovative asset management techniques standard in critical industry sectors.
The MVWS4000 series provides a comprehensive solution with its three-in-one digital sensors that measure humidity, pressure, and temperature. Designed for high performance, these sensors offer rapid readings and are optimized for battery efficiency. The use of Silicon Carbide technology ensures durability and energy efficiency, making the sensors suitable for battery-powered applications across various markets. Their compact design and multiple accuracy grades make them adaptable to specific client requirements.
Silicon Library's SD UHSII offers high-speed data transfer capabilities optimized for flash memory storage devices. It aligns with SD 4.x UHSII specifications, ensuring backward compatibility with previous SD protocols while offering significant performance enhancements. The SD UHSII IP is ideal for applications requiring rapid data access and storage capabilities, such as digital cameras, portable devices, and embedded systems. It provides high data throughput with low latency, crucial for applications that demand quick data retrieval and storage. Designed to minimize power consumption, the SD UHSII IP is suitable for use in battery-powered devices, extending operational time without sacrificing performance. Its compact footprint allows for seamless integration into a variety of electronic frameworks, supporting a range of consumer and professional applications.
The SMS OC-3/12 Transceiver Core from Soft Mixed Signal Corporation is specially crafted for telecommunication applications, supporting SONET standards including OC-3 and OC-12. With an innovative architecture, this core integrates numerous functionalities such as clock synthesis and recovery within a compact, sub-micron CMOS process. It is engineered to conform to stringent jitter specifications as outlined by ANSI, Bellcore, and ITU, ensuring exceptional signal fidelity and stability. This transceiver harnesses proprietary signal processing technology to manage jitter effectively, offering robust performance even in challenging environments. Capable of handling multiple data rates, it supports essential telecommunication functions like jitter tolerance, transfer, and generation, making it versatile for deployment in various network systems. Furthermore, its design facilitates seamless integration into larger systems, offering significant scalability. Tailored for multi-port applications, this core's design enables easy migration to new applications while preserving performance standards. Its robust PLLs, featuring built-in loop filters, provide superb immunity to noise, a crucial factor for maintaining system integrity during data transmission. The OC-3/12 Transceiver Core is a testament to Soft Mixed Signal's commitment to innovative, high-performance telecommunication solutions.
Everspin's radiation-resistant MRAM is designed for environments with higher radiation levels such as space applications. This MRAM variant employs advanced magnetic tunnel junctions (MTJs) to provide data resilience against cosmic interference, ensuring reliable performance in space conditions. Everspin stands out by holding extensive test data demonstrating zero hard errors at high-radiation thresholds. These MRAMs are well-suited for aerospace applications where data integrity and retention are critical under adverse conditions.
The nxFeed Market Data System is a high-performance FPGA-enabled feed handler that significantly improves the development and deployment of market data applications. By processing data feeds directly on FPGA hardware, nxFeed reduces latency and server load, providing reliable and swift access to critical market data. Built to complement trading applications or support in-house ticker plant development, nxFeed efficiently handles data arbitration, decoding, normalization, and order book creation with ease. This streamlined FPGA-based solution ensures minimal latency and enables developers to focus on core business logic rather than data processing bottlenecks. The system offers a versatile deployment model, adaptable via PCIe integration or through Ethernet distribution, catering to various infrastructural needs. With an easy API and swift integration capabilities, nxFeed offers a highly agile solution for firms focusing on high-frequency trading and other latency-sensitive applications.
Intellitech's Fast Access Controller (FAC) is a high-speed, pre-engineered solution tailored for enhancing design-for-test processes, particularly in environments requiring extensive flash programming through FPGA interconnections. The FAC leverages the JTAG standard to offer swift and efficient programming capabilities directly via the 1149.1 bus, reducing overall system programming time and supporting seamless integration with existing computing infrastructure. This controller is engineered for applications demanding quick microcontroller, DSP, or CPU programming in both research and commercial landscapes, facilitating improved design quality and reducing deployment cycles.
Xenergic's High-Speed Turbo Memory IP represents a significant evolution in high-speed data processing. This memory architecture leverages predictable access patterns to achieve tremendous reductions in power usage and chip area. By exploiting these predictable patterns, such as those found in AI and graphic processing applications, it manages to operate at double the speed of the fastest current SRAMs available. This solution reduces dynamic power consumption by 80%, diminishes leakage by up to 60%, and minimizes area by 60%, all while maintaining cutting-edge performance capabilities. Its design supports high throughput for applications scalable to large buffer and cache systems, making it perfect for ML, AI, and advanced image processing tasks.
YouDDR offers an extensive technology suite that includes DDR controllers, PHY, and I/O complemented by specially developed tuning and test software. This subsystem solution enables efficient memory management and data retrieval, making it essential for applications requiring high data throughput and reliability. Emphasizing compatibility and performance, YouDDR supports an array of memory interfaces and operational scenarios, enhancing overall system efficiency. Through robust customization options, YouDDR adapts seamlessly to varied engineering requirements. Whether it's handling the intricacies of consumer electronics or the rigors of industrial applications, this technology provides a scalable and dependable platform for device integration. The inclusion of testing software aids in simplifying the debugging process, ultimately improving device performance and reliability. The engineering behind YouDDR has been crafted to optimize power consumption while maintaining performance standards. This balance ensures extended device operation without sacrificing speed or responsiveness, making it a vital component in modern electronic designs.
The Scan Ring Linker (SRL) by Intellitech is an essential IP module developed to reduce complexities and costs associated with multi-scan ring 1149.1 (JTAG) infrastructure in PCBs. The SRL effectively consolidates multiple scan paths into a single, high-speed test bus, streamlining operations by allowing independent testing and configuration through a unified JTAG interface. This enables more efficient diagnostics and test management across various devices on secondary scan chains, inviting notably lowered implementation costs and enhanced application reliability for engineers seeking robust PCB testing solutions.
Tower Semiconductor's Bipolar-CMOS-DMOS (BCD) technology is a groundbreaking solution for power management applications, optimized for high performance and efficiency. This technology stands out with its ability to handle a wide voltage range up to 700V, supporting both low and high-power applications. With a strong focus on scalability, Tower Semiconductor integrates low Rdson LDMOS and diverse isolation schemes for enhanced digital capabilities. The BCD technology is pivotal for automotive, industrial, and consumer applications, well-suited for use in DC-DC converters, motor drivers, and voltage regulators. Its versatility across power ranges and circuit integrations reflects Tower Semiconductor's unyielding dedication to flexible and customizable design solutions. Substantial investments in R&D further the technology's development path, ensuring it meets evolving industrial demands with reliable, cost-effective solutions. Manufactured on 8'' and 12'' wafers across worldwide facilities, Tower Semiconductor's BCD technology offers unmatched operational flexibility and steady production capabilities. The combination of high power density and rapid design deployment garners swift time-to-market for consumer, automotive, and communication products. As a result, it firmly anchors Tower Semiconductor's reputation as a leader in power management innovation.
Xenergic's High-Speed Low-Power SRAM IP is designed to deliver maximum power efficiency without compromising on performance. This solution sees significant reductions in dynamic power usage and leakage, while maintaining high speeds and a competitive area. It is specifically optimized for applications such as IoT, sensors, and wearables, where conserving power is critical due to limited power budgets. The SRAM architecture supports better power optimization through both dynamic and static adjustments, positioning it as an ideal choice for always-on applications. By leveraging its low power nature, it enables efficient computation at the edge, particularly valuable in the burgeoning IoT landscape, ensuring reduced latency and improved device performance.
Crossbar's embedded ReRAM IP cores are designed to push the boundaries of non-volatile memory within microcontrollers (MCU) and system-on-chip (SoC) environments. These IP cores offer high-performance memory solutions that enhance the capabilities of IoT devices, wearables, and various consumer electronics. Available at process nodes starting from 28nm down to below 10nm, the embedded ReRAM solutions focus on achieving cost-effective yet highly reliable data storage and execution speeds. These IP cores not only match but exceed traditional flash memory capabilities with superior endurance and energy efficiency. Designed to meet diverse application requirements, these cores come in a range of densities, from low-memory footprints suitable for small-scale IoT devices to larger capacities needed for complex SoC designs. The technology is adaptable as both standalone memory solutions and as part of an integrated SoC design, ensuring that designers can achieve seamless integration in a wide array of products. The versatile nature of these IP cores makes them ideal for environments that require multi-time programmability alongside secure operations, especially where confidential data and secure keys need reliable protection. Not just limited to enhancing performance metrics, Crossbar's solutions allow for custom memory packaging, facilitating a seamless transition from design to deployment while maintaining rigorous operational standards across all devices.
Crossbar's high-density ReRAM IP cores redefine data storage with their scalable, non-volatile memory technology tailored for environments demanding extensive storage capabilities. Suitable for applications such as data centers, mobile computing, and cutting-edge AI systems, these IP cores provide a unique blend of superior density, low power consumption, and rapid access speeds, ensuring swift data processing and retrieval. The technology behind these cores scales efficiently below 10nm, facilitating the integration of multiple terabytes of storage within a single chip. Crossbar leverages its patented 3D stacking technology to arrange ReRAM cells in expansive cross-point arrays, maximizing utilization of silicon real estate while minimizing power loss and latency. These IP cores surpass traditional storage solutions, offering a new class of memory that caters to the needs of read-intensive tasks, which are pivotal in modern data-driven applications. By exceeding standard NV-DIMM performance metrics, Crossbar's ReRAM gives enterprises the ability to manage larger, more complex data workloads with improved efficiency and reliability. Whether used as a standalone solution or integrated into an overarching SoC architecture, the flexibility and high performance of Crossbar's ReRAM secure its place as a foundational component in the future of digital storage solutions.
TwinBit Gen-2 advances the TwinBit series, supporting process nodes from 40nm to 22nm. It inherits the maskless integration features from Gen-1, facilitating cost-effective and low-power designs. This latest variant employs a novel 'Pch Schottky Non-Volatile Memory Cell' resulting in ultra-low-power operations. Its design is engineered for efficient hot-carrier injection, providing a robust solution for small-scale and energy-sensitive applications requiring non-volatile storage.
The G13 and G13X IP cores are engineered to accomplish 512-bit correction blocks, which are commonly used in NAND devices with 2KB and 4KB page sizes. As SLC NAND transitions toward smaller geometries, this IP extends existing controller capabilities to meet more demanding ECC requirements. Not only available in standard configurations, Cyclic Design can tailor this IP to perfectly align with the specific needs of any controller hardware, addressing latency, bandwidth, and area prerequisites.
TwinBit Gen-1 is a versatile, embedded non-volatile memory solution that seamlessly integrates with CMOS logic processes from 180nm to 55nm nodes. With a focus on endurance, it offers over 10,000 write/erase cycles. Not requiring additional masks or process steps, TwinBit Gen-1 is ideal for sophisticated applications like analog trimming and secure key storage. It provides memory sizes from 64 bits to 512K bits, catering to a broad range of applications including those needing field-rewritable firmware or security codes.