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 DDR5 Server DIMM chipset from Rambus delivers unparalleled performance for data center applications, designed to support next-generation DDR5-based servers. Featuring components like Registering Clock Drivers, Power Management ICs, and Serial Presence Detect Hubs, this chipset facilitates data processing speeds of up to 8000 MT/s for RDIMMs and 12800 MT/s for MRDIMMs. These solutions ensure high reliability and efficiency, tailored to meet the demands of modern server environments.
NRAM, also known as Nano-RAM, is a pioneering memory technology developed by Nantero, promising unprecedented speed and efficiency. Unlike the conventional DRAM and NAND Flash, NRAM offers high-speed read and write capabilities akin to DRAM but with the durability and non-volatility of NAND. This makes it ideal for various high-performance applications such as automotive, space systems, and enterprise infrastructure. One of the standout features of NRAM is its ability to drastically reduce energy usage in data centers. By cutting energy costs by a third, it significantly lowers carbon emissions, supporting eco-friendly initiatives. NRAM's simple structure allows for 3D multilayer configurations and offers excellent endurance, meaning it can handle frequent and heavy cycles much better than standard flash memory. Robustness is another critical characteristic of NRAM, which showcases rad-hard properties ideal for mission-critical applications like national security infrastructure. It also resists environmental stresses, maintaining functionality under extreme temperatures, magnetic fields, and radiation. With no need for data refreshing or precharging, NRAM delivers instantaneous data access, further proving its potential to reshape the future of memory technology.
The LPDDR4/4X/5 Secondary/Slave PHY offers targeted solutions for optimized memory interfacing in systems where primary and secondary controllers operate in tandem. This design is critical for addressing the needs of high-performance computing devices that require scalable memory management solutions. With its focus on efficient data handling and reduced latency, the Secondary/Slave PHY ensures seamless operation in complex memory systems. The design incorporates advanced control techniques to maximize memory throughput while adhering to rigorous power management standards. This positions it as a vital component for devices requiring high-speed memory access. Adaptability is a key feature of this PHY, with support for multiple LPDDR standards allowing it to interface with modern memory technologies. Its robust construction provides consistent performance across a range of operating conditions, catering to industries demanding high efficiency and reliability. The Secondary/Slave PHY thus enhances system capabilities, ensuring data integrity and reduced latency for innovative computational applications.
ReRAM Memory by CrossBar is designed to push the boundaries of storage technology, offering a high-performance, low-latency memory solution that is both scalable and energy-efficient. This memory technology boasts a radical structure that allows it to function distinctly from traditional memory. It is built to scale under 10nm and integrate seamlessly in 3D stackable architectures, which is ideal for future-proofing against the rising demands of data processing and storage. What sets ReRAM apart is its capability to deliver up to 1000 times the endurance of conventional memory solutions and greatly enhance read and write speeds. This is achieved by its simple yet robust structure, allowing it to be integrated with existing logic circuits without the need for specialized tools. ReRAM is particularly suitable for applications across various domains such as IoT, AI, data centers, and even newer consumer electronics, making it versatile and widely applicable. ReRAM provides a unique advantage in being directly integrated into modern fabrication processes, simplifying both production and deployment for manufacturers. This flexibility ensures that ReRAM can maintain high levels of performance while meeting the industry's stringent efficiency requirements. Moreover, it offers substantial opportunities to advance secure computing through innovative uses in secure keys and encryption functions.
The AXI4 DMA Controller from Digital Blocks revolutionizes data management in System-on-Chip architectures through high-performance Direct Memory Access capabilities. Supporting a span of 1 to 16 channels, it handles data transfers between memory and peripherals with agility, ideal for both small and large datasets. Designed for high throughput, it includes a multi-channel architecture that can expand from 32 to up to 256 channels, demonstrating exceptional scalability for future data demands. Each channel within the DMA Controller operates independently with dedicated Read and Write Controllers, ensuring minimal overhead during transfers. It facilitates complex data flow configurations including scatter-gather linked-list data controls and comprehensive support for different burst modes within the AXI3 and AXI4 protocols. Its design incorporates advanced features that users can selectively enable to optimize silicon resource usage and cost efficiency. Additionally, it accommodates complex AXI4-Stream to memory-mapped interface transfers, making it versatile for a variety of applications, from high-speed data environments to embedded systems requiring optimized memory access and control.
Specializing in complete subsystems, the YouDDR technology encompasses not only DDR controllers but also embodies the PHY and I/O components, together with uniquely tailored calibration and testing software. This integration facilitates the creation of a full-fledged system that enhances performance and reliability in data transfer operations.
SkyeChip's DDR5/4 PHY & Memory Controller represents a high-performance, energy-efficient memory interface solution conforming to the latest DDR5 and DDR4 JEDEC standards. Designed for a myriad of modern applications, this memory controller offers seamless support for data transfer rates of up to 6400 MT/s, with its flexible architecture allowing for upgrades to even higher speeds in future deployments. With a DFI 5.0 compliant interface, it ensures smooth communication between the memory controller and the PHY, essential for maintaining optimal operation across data-intensive tasks. The solution supports various SDRAM configurations, including x4, x8, and x16, while offering expansive addressing capabilities—up to 64Gb for DDR5 and 32Gb for DDR4. Its robust design caters to diverse module configurations, such as UDIMM, RDIMM, and LRDIMM, enhancing compatibility with existing and new hardware setups. Add-on features for reliability and debugging are available, providing tools for real-time performance monitoring and error correction. Noteworthy is its inclusion of receiver decision feedback equalization and transmitter feed forward equalization I/Os, which aid in maintaining signal integrity across high-speed connections. This ensures consistent performance even under varying conditions, making it ideal for high-speed data applications where precision and low power consumption are critical. Collectively, these attributes fit well with demands for high-efficiency systems in modern computing environments.
The Ultra-Low Latency 10G Ethernet MAC from Chevin Technology is designed to deliver exceptional speed and efficiency for cutting-edge FPGA applications. Its primary focus is on reducing latency to the bare minimum while maintaining a high data throughput. This Ethernet MAC is universally compatible with Intel and AMD FPGA platforms, offering seamless adaptation to various projects. This solution is especially advantageous for environments where near-instantaneous data transmission is a necessity. Ideal for applications in high-frequency trading, telecommunications, and advanced scientific instrumentation, the Ultra-Low Latency 10G Ethernet MAC ensures that data integrity is preserved even at high speeds. Chevin Technology's meticulous in-house testing and development processes guarantee that this IP core meets stringent quality and performance standards. It offers a scalable, all-hardware architecture that slashes the usual implementation time, allowing more resources to be dedicated to expanding functionality and securing additional data pathways.
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 Zhenyue 510 SSD Controller is a flagship product in T-Head's lineup of storage solutions, designed to deliver exceptional performance for enterprise applications. It integrates seamlessly with solid-state drives (SSDs), enhancing read and write speeds while maintaining data integrity and reliability. This controller serves as a fundamental component for building robust, enterprise-grade storage systems. Engineered to support high-speed data transfers, the Zhenyue 510 employs cutting-edge technology to minimize latency and maximize throughput. This capability ensures swift access to data, optimizing performance for demanding applications such as cloud storage and big data processing. Its architecture is specifically tailored to leverage the advantages of PCIe 5.0 technology, allowing for robust data channeling and minimized bottleneck effects. Beyond speed and efficiency, the Zhenyue 510 integrates advanced error correction methods to maintain data accuracy over high-volume operations. This reliability is crucial for enterprises that require stable and consistent storage solutions. With such features, the Zhenyue 510 is poised to cater to the needs of modern data infrastructure, offering scalability and advanced functionality.
TwinBit Gen-1 is NSCore's pioneering solution in embedded non-volatile memory technology, optimized for seamless integration into CMOS logic processes across nodes ranging from 180nm to 55nm. Known for its robust endurance performance, it supports over 10,000 program/erase cycles, making it highly reliable for repeated usage. This IP is designed without necessitating any additional masks or process steps, which aligns with NSCore’s ethos of simplifying the integration process. TwinBit Gen-1's flexible memory configuration, spanning 64 bits up to 512K bits, ensures its applicability in a wide array of domains. From enabling secure key storage to supporting analog trimming and system switches on ASICs/ASSPs, it offers a broad spectrum of functional capabilities, making it ideally suited for modern IoT devices and embedded systems. With built-in test circuits that facilitate stress-free test environments and automotive-grade reliability, TwinBit Gen-1 presents a formidable option for applications that demand low-voltage and low-power operations. Its alignment with standard IPs and lack of additional process overhead also contribute to its attractive development turnaround time and cost-effectiveness.
The EZiD211, also known as Oxford-2, is a leading-edge demodulator and modulator developed by EASii IC to facilitate advanced satellite communications. It embodies a sophisticated DVB-S2X wideband tuner capable of supporting LEO, MEO, and GEO satellites, integrating proprietary features like Beam Hopping, VLSNR, and Super Frame applications. With EZiD211 at the helm, satellite communications undergo a transformation in efficiency and capacity, addressing both current and future demands for fixed data infrastructures, mobility, IoT, and M2M applications. Its technological forefront facilitates seamless operations in varied European space programs, validated by its full production readiness. EZiD211's design offers a unique capability to manage complex satellite links, enhance performance, and ensure robust and reliable data transmission. EASii IC provides comprehensive support through evaluation boards and samples, allowing smooth integration and testing to meet evolving satellite communication standards.
Tower Semiconductor's BCD technology is engineered to provide superior power management solutions by integrating Bipolar, CMOS, and DMOS processes on a single chip. This integration facilitates the development of power devices with high voltage withstand capabilities and efficient power handling properties. BCD technology is key in designing power ICs that support a range of applications from DC-DC converters to motor drivers. These integrated circuits benefit from the low on-resistance of DMOS, the digital control capabilities of CMOS, and the high gain of Bipolar components, making them versatile for various high-performance electronic devices. Furthermore, BCD technology's robustness and reliability are matched by its capacity to function at higher voltages and temperatures, which are critical in driving performance in automotive and industrial power applications. Its deployment in next-generation power management solutions underscores the commitment to efficiency and innovation in power electronics.
Chevin Technology's 10G Ethernet MAC and PCS solution is engineered to deliver premium data transfer speeds, ideal for high-performance FPGAs. Its compact all-logic architecture eliminates the need for external CPUs or software, minimizing complexity and enhancing efficiency. This IP achieves excellent link utilization and minimal latency, ensuring seamless integration into FPGA projects with ample room for additional design logic. The architecture supports sustained high throughput rates, making it particularly suited for demanding applications such as data storage and industrial imaging. With its proven performance and reliability, the 10G Ethernet MAC and PCS are trusted across numerous industries, including defense and scientific research. Its power-efficient design contributes to reduced energy consumption, a critical factor in modern FPGA designs. Moreover, this solution offers flexibility through its technology-agnostic approach, capable of functioning across a wide range of FPGA families from leading manufacturers like Intel and AMD. Clients appreciate the secure, high-speed connectivity this IP provides, coupled with Chevin Technology’s commitment to expert support and seamless customization capabilities.
The MVDP2000 series represents MEMS Vision's advanced offering in differential pressure sensing, employing a proprietary capacitive sensing technology. These sensors are digitally calibrated across both pressure and temperature ranges, making them ideal for applications demanding high sensitivity, speed, and efficiency, such as medical, HVAC, and filter monitoring systems. The sensors are characterized by a quick response time of down to 1.0 ms and a substantial measurement range of ±5 kPa to ±10 kPa. They ensure precise readings with a total error band of less than 1.0 %FS and permit integration in a wide array of environmental conditions, from -40°C to 85°C. The compact 7 x 7 mm DFN package ensures easy deployment in constrained spaces. With digital I2C as well as analog output modes, the MVDP2000 sensors are highly adaptable to various system requirements. Despite their advanced capabilities, these sensors maintain a low power profile with a current consumption of just 2.85 µA at one measurement per second, making them suitable for battery-powered applications.
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.
The AST 500 and AST GNSS-RF are multifaceted SOC and RF solutions designed for GNSS applications. They support a wide array of constellations such as GPS, GLONASS, NavIC, and others, in multiple frequency bands, enhancing navigation performance. These ICs integrate features like secure boots and data encryption, facilitating robust security measures crucial for sensitive data. The AST GNSS-RF is equipped with capabilities for L1, L2, L5, and S band reception, catering to high-fidelity signal requirements across various applications. The support for dual-band reception ensures that ionosphere errors are minimized, offering exceptional positioning accuracy.
The AHB-Lite Memory IP is a configurable soft IP solution that provides dependable on-chip memory access for AHB-Lite master devices. By offering parameterization, it allows designers to specify detail-oriented attributes to fit the memory requirements of their system, making it a practical solution for complex design architectures requiring dependable memory management and access.
CrossBar's ReRAM IP Cores for Embedded NVM are engineered to optimize the functionality of microcontrollers and System-on-Chip (SoC) designs. These cores are specially tailored for multi-time programmable (MTP) non-volatile memory applications across a range of devices, from IoT gadgets to industrial and automotive systems. By enhancing memory performance while reducing latency and energy consumption, these cores set a new standard for embedded system efficiency. The IP cores support process nodes starting at 28nm and can scale below 10nm, ensuring compatibility with contemporary semiconductor manufacturing processes. They provide customizable memory sizes from 2M bits to 256M bits, allowing for tailored solutions that meet specific application needs. The cores excel in low-energy code execution, making them ideal for devices that prioritize energy efficiency without compromising on performance. In addition to their utility in consumer electronics and smart devices, these ReRAM IP cores are equipped to enhance security functions, integrating secure keys into semiconductors to bolster data protection. Their scalability and versatility make them an excellent choice for developers seeking to integrate high-performance, non-volatile memory components into their silicon architectures.
The NVMe Streamer from MLE empowers next-generation storage solutions with its cutting-edge data streaming capabilities. NVMe technology, known for robust performance, is utilized here to achieve accelerated data processing and storage for critical applications. The NVMe Streamer provides high-speed connectivity, facilitating seamless data capture and record-keeping in high-bandwidth environments, such as cloud computing and data centers. With support for PCIe 3.0/4.0/5.0 standards, this IP core ensures compatibility with present and future hardware, fostering consistent and reliable performance across deployments. It acts as a pivotal component for computational storage and data movement, backing up extensive data processing with minimal latency and maximum throughput, essential for real-time operations and intensive data tasks. Design flexibility inherent in the NVMe Streamer allows it to be tailored to specific infrastructure needs, offering scalable solutions that can grow with technological advancements. This adaptability is key for organizations seeking to future-proof their storage capabilities in a fast-evolving digital landscape.
The Aeonic Integrated Droop Response System addresses droop issues in complex integrated circuits by combining mitigation and detection mechanisms in a seamlessly integrated package. This system supports fine-grained DVFS capability and rapid adaptation, providing significant power savings for SoCs. It offers comprehensive observability tools crucial for modern silicon health management, including multi-threshold detection and rapid response features within just a few clock cycles. This integration promotes energy efficiency by reducing voltage margins and supports various process technologies through a process portable design.
This IP block is essential for efficient data/clock recovery and deserializing in XFI and SONET/SDH protocols, supporting data rates from 8.5 to 11.3Gb/s. With ultra-low power consumption and 65nm CMOS technology from IBM, DSER12G ensures robust operation with versatile design options, incorporating a financial N divider, equalizer, and loss of signal (LOS) and lock (LOL) indicators for enhanced deployability.
ISPido represents a fully configurable RTL Image Signal Processing Pipeline, adhering to the AMBA AXI4 standards and tailored through the AXI4-LITE protocol for seamless integration with systems such as RISC-V. This advanced pipeline supports a variety of image processing functions like defective pixel correction, color filter interpolation using the Malvar-Cutler algorithm, and auto-white balance, among others. Designed to handle resolutions up to 7680x7680, ISPido provides compatibility for both 4K and 8K video systems, with support for 8, 10, or 12-bit depth inputs. Each module within this pipeline can be fine-tuned to fit specific requirements, making it a versatile choice for adapting to various imaging needs. The architecture's compatibility with flexible standards ensures robust performance and adaptability in diverse applications, from consumer electronics to professional-grade imaging solutions. Through its compact design, ISPido optimizes area and energy efficiency, providing high-quality image processing while keeping hardware demands low. This makes it suitable for battery-operated devices where power efficiency is crucial, without sacrificing the processing power needed for high-resolution outputs.
The SERDES12G module integrates serialization and deserialization functionalities within fiber optic transceivers operating at data rates between 8.5 and 11.3Gb/s. Utilizing CML logic for enhanced noise immunity, it features line rate output data retiming, making it indispensable in high-speed networking applications where precise data modulation is crucial.
EverOn represents sureCore's commitment to providing low power solutions with its Single Port Ultra Low Voltage (ULV) SRAM, silicon-proven on the 40ULP BULK CMOS process. This IP achieves up to 80% savings in dynamic power consumption and an impressive 75% reduction in static power, suitable for modern applications needing broad voltage operation. EverOn distinguishes itself with a wide operating range from 0.6V to 1.21V, offering adaptability for Internet of Things (IoT) applications and wearable technology demanding extreme power optimization. It offers a remarkable 20MHz cycle time at its minimal operating voltage of 0.6V, successfully scaling to over 300MHz at 1.21V, thus balancing power efficiency and performance. Supporting synchronous single port SRAM designs with extensive memory capacity ranging from 8Kbytes to 576Kbytes, EverOn incorporates sureCore’s "SMART-Assist" technology. It ensures robust operation right down to retention voltages, while its advanced architectural features, like bank subdivision with enhanced sleep modes, deliver flexibility that is critical for optimizing battery life in various operational contexts.
CodaCache is Arteris' solution for addressing memory latency issues in SoC designs through an optimized last-level cache configuration. This sophisticated shared cache greatly improves the data flow within the system, leading to enhanced overall SoC performance and power efficiency. By reducing reliance on main memory for frequently accessed data, it minimizes delays and energy consumption, making it ideal for modern computing workloads. Configurable to meet diverse performance and efficiency needs, CodaCache allows fine-tuning that unlocks its full potential in various scenarios. This includes seamless integration through AXI support, which facilitates efficient component communication, expediting developments and modularity in SoC architectures. With a focus on ensuring high performance through reduced latencies and lower power requirements, CodaCache is essential for applications seeking to strike a balance between speed and energy efficiency. The cache’s design emphasizes quicker access to stored data, which is pivotal for industries striving to develop faster processing capabilities without increasing power consumption and development time.
Spectral CustomIP caters to bespoke memory architecture needs, offering a wide array of specially designed memory structures like Binary and Ternary CAMs, and multi-ported memories. These solutions integrate optimized circuitry for high speed and low power, ideal for complex IC applications. Spectral CustomIP is based on standard CMOS technology and is suitable for SOI or embedded Flash processes, making it versatile for various applications. Each module uses SpectralTrak technology for proactive monitoring of operational conditions, ensuring robust performance across different environments. The products support extensive configurability options like multi-bank and multi-port architectures, allowing for a tailored fit in specific applications. CustomIP addresses specialized requirements in networking, graphics applications, and mobile devices, providing unique power-down and test mode features. Offering a comprehensive set of tools for custom development, these solutions can be extensively modified and optimized by customers, delivering added value in terms of flexibility and control.
Avant Technology's DRAM memory modules provide vital solutions for various industries, such as gaming, point-of-sale systems, and medical devices. These modules meet the JEDEC standards for reliability and performance, ensuring robust functionality for demanding applications. The industrial embedded series offers numerous options tailored to specific needs, including low voltage and high capacitance variants, which deliver both enhanced energy efficiency and decreased power consumption. The DRAM modules are available in different form factors like UDIMM, SODIMM, ECC DIMM, and Mini DIMM to cater to diverse application requirements. They support various interfaces, prominently DDR3, DDR4, and DDR5, offering scalable performance to match the advancing requirements of modern systems. Avant Technology ensures that these memory solutions can operate effectively across industrial, commercial, and consumer-grade environments, making them versatile for a wide range of devices. This memory technology enhances the speed and efficiency of devices, allowing for quicker data access and improved system responsiveness, vital for applications that demand high bandwidth and low latency. With these DRAM modules, Avant Technology supports innovations across sectors, helping their clients maintain cutting-edge operations in rapidly evolving technological landscapes.
The IPM-NVMe Device IP core by IP-Maker excels as a data transfer manager, seamlessly integrating with PCIe SSD controllers to offload the host CPU. This IP adheres to NVM Express standards, thus ensuring effortless compliance and high-speed data processing across diverse environments. Its architecture features automatic command processing, offering up to 65536 I/O queues with advanced queue arbitration support enhancing efficiency. Ideally suited for both FPGA and ASIC setups, the IPM-NVMe Device core allows for optimal performance in enterprise and consumer SSD products.
Tower Semiconductor offers Non-Volatile Memory (NVM) solutions that cater to robust data storage needs in modern electronics requiring reliable data retention. These technologies are integral in maintaining data integrity without the necessity for continuous power, proving essential in a variety of embedded systems and devices. The NVM solutions emphasize endurance and data retention, engineered to address the intricate demands of sectors such as automotive, industrial control, and consumer electronics. This technology facilitates the development of memory components capable of sustaining high write and erase cycles, contributing to the durability of electronic products. The integration of NVM solutions into numerous applications signifies Tower Semiconductor's ability to meet specific technological requirements, offering scalable solutions that are both efficient and effective in their application. Their design flexibility ensures adaptability to diverse process nodes, ensuring broad compatibility across multiple platforms.
The SmartMem Subsystem is designed to enhance memory functionality through a synthesisable and configurable architecture. This memory subsystem significantly boosts power efficiencies and improves both performance and endurance. Not limited to just Numem's own products, it can easily interface with other high-performance MRAMs, RRAM, and Flash technologies, offering versatility across different hardware needs. Built with Numem's thorough memory expertise and innovative patents, the SmartMem Subsystem delivers MRAM performance that rivals SRAM, characterized by much lower standby power. Its intelligent power management system controls MRAM’s non-volatile nature for ultra-efficient operation, making it robust against endurance challenges while seamlessly integrating into varied systems, whether in edge devices or expansive data centers. The subsystem supports software-defined scalability, which negates the necessity for new hardware designs. This makes it an excellent choice for future-proofing memory solutions in AI workloads, ensuring agility and adaptability across rapid advancements in AI applications.
nxFeed is a high-performance market data processing solution that simplifies application development by handling data feeds directly on FPGA hardware, providing them to applications via a streamlined API. Designed for extreme speed and efficiency, nxFeed reduces the load on application servers compared to software-based solutions, significantly minimizing latency. This solution is ideal for electronic trading applications and normalized data processing systems. Its flexibility allows it to handle raw data from highly volatile exchange feeds seamlessly, making it an indispensable tool for market data developers. The nxFeed's Plug-n-play, FPGA-based NIC design ensures that data feeds are reliably normalized and distributed, alleviating the processing burden on existing applications. With a focus on transparent performance, nxFeed enhances server productivity and network efficiency, supporting both PCIe and UDP multicast for versatile deployment options. The system is primed for integration into both local systems and extended network infrastructures, making it a pivotal component for deploying end-to-end FPGA-based trading strategies.
TwinBit Gen-2 represents the next evolution in NSCore's non-volatile memory offering, supporting process nodes from 40nm to 22nm and beyond. Maintaining the foundational benefits of its predecessor, TwinBit Gen-2 further elevates its efficiency with the inclusion of the Pch Schottky Non-Volatile Memory Cell, which facilitates ultra-low-power operations without additional masks or process steps. The Gen-2 variant is engineered with an increased focus on minimizing power consumption while ensuring strong functional performance. It is adept at handling a wide range of program/erase dynamics through controlled hot carrier injection, offering refined operational flexibility for diverse applications. This memory technology serves applications requiring robust data management in tightly constrained power scenarios. Like its predecessor, TwinBit Gen-2 excels in environments demanding longevity and durability, boasting comprehensive integration flexibility into existing systems. Its ability to harmonize cutting-edge non-volatile memory design with the demands of smaller process nodes makes it highly beneficial for forward-looking applications.
The MVWS4000 series combines humidity, pressure, and temperature sensing in a singular compact module, making it ideal for weather monitoring and other multi-sensor applications. These digital sensors are crafted with Silicon Carbide technology, offering reliability with minimal power demand, which is essential for battery-powered applications and original equipment manufacturers (OEM). Each sensor in the series delivers rapid and accurate environmental measurements, with humidity accuracy at ±1.5%, pressure accuracy to within ±1.0 hPa, and temperature precision of ±0.3°C. Their long-term stability and low current consumption underpin their lasting performance in critical systems. Operating within an extensive range—0 to 100 %RH, 300 to 1100 hPa, and -40°C to 85°C—they suit various environmental conditions and applications. Available in different accuracy specifications, these sensors ensure flexibility to meet distinct requirements and budgets. The small footprint (2.5 x 2.5 x 0.91 mm) allows them to be implemented in space-sensitive applications effectively, while the digital I2C and SPI output options provide easy integration with existing systems.
The NuRAM Low Power Memory represents a state-of-the-art memory solution utilizing advanced MRAM technology. Engineered to provide rapid access times and extremely low leakage power, NuRAM is significantly more efficient in terms of cell area compared to traditional SRAM, being up to 2.5 times smaller. This makes it an ideal replacement for on-chip SRAM or embedded Flash, particularly in power-sensitive environments like AI or edge applications. The emphasis on optimizing power consumption makes NuRAM an attractive choice for enhancing the performance of xPU or ASIC designs. As modern applications demand higher efficiency, NuRAM stands out by offering crucial improvements in power management without sacrificing speed or stability. The technology offers a compelling choice for those seeking to upgrade their current systems with memory solutions that extend battery life and deliver impressive performance. NuRAM is particularly beneficial in environments where minimizing power usage is critical while maintaining high-speed operations. This makes it a preferred choice for applications ranging from wearables to high-performance computing at the edge.
Featuring G15, this IP is optimized for 2KB correction blocks, suitable for NAND devices with larger page sizes, such as 8KB. The design is aligned with methods seen in the G14X, but it extends its reach with longer codewords for comprehensive coverage of high-density NAND. The design supports a wide array of block sizes and configurational setups, making it highly adaptable to varying design needs. Additional error correction capabilities can be integrated based on client requirements, reinforcing its bespoke delivery.
Specially designed for robust data serialization of 8.5 to 11.3Gb/s signals, the SER12G incorporates state-of-the-art CML logic for high noise immunity and low power functionality. Used in fiber optic transceivers, this IP block facilitates efficient signal transmission with output data retiming features, guaranteeing high performance in data-intensive environments like SONET/SDH.
The G13/G13X series is tailored for 512B correction blocks, particularly used in NAND setups with 2KB to 4KB page sizes. While both variants are crafted to manage the demands of SLC NAND transitions to finer geometries, the G13X allows for correction of a higher number of errors. Designed to fit seamlessly into existing controller architectures, it enables extensions of current hardware and software capabilities without extensive new investments. It offers area optimization through parameter adjustments and supports a range of channel configurations for broad applicability.
RAAAM's GCRAM technology is a pioneering on-chip memory solution that transforms semiconductor design by substantially reducing silicon area and minimizing power consumption. Offering up to a 50% reduction in silicon area compared to traditional SRAM, GCRAM is an efficient and scalable alternative that aligns with the demands of modern high-performance computing environments. Its design, compatible with standard CMOS processes, eliminates the need for costly additional fabrication steps, making it a cost-effective solution for semiconductor developers. In the context of rapidly advancing fields such as artificial intelligence and machine learning, augmented reality, virtual reality, and 5G networking, GCRAM provides a crucial edge. It addresses the limitations of traditional SRAMs that struggle with scalability at advanced process nodes, offering improved efficiency and reduced costs. Furthermore, GCRAM supports a wide array of applications that demand enhanced memory capacity, serving as a strategic tool for developers seeking to exceed current memory constraints without incurring significant cost increases. This technology effectively carries forward Moore's Law within the on-chip memory space, cementing RAAAM’s role as a frontrunner in semiconductor innovation.
SystemBIST is a sophisticated, plug-and-play configuration module designed to streamline FPGA configuration and embedded JTAG testing within PCBs. Built on patented architectures, it simplifies the creation of high-quality, self-testable products that can be reconfigured in the field. This vendor-independent device supports extensive compatibility, enabling the configuration of any IEEE 1532 or IEEE 1149.1 compliant FPGA and CPLD in-system. SystemBIST notably improves the efficiency of embedded test processes by repurposing manufacturing JTAG/IEEE 1149.1 based test patterns into the PCB design, providing significant savings on production costs. The SystemBIST architecture not only re-uses existing test scripts but also compresses them into onboard FLASH memory, allowing for fast and reliable PCB testing anywhere. This capability is crucial for modern electronics, where flexibility and security, such as mitigating risks from trojan bitstreams and cloning, are vital considerations. Intellitech's device incorporates AES encryption for secure configurations, ensuring product integrity and protecting against unauthorized cloning. SystemBIST's failsafe update feature allows field updates without erasing the entire FLASH, safeguarding original FPGA designs. With its robust testing and configuration capabilities, SystemBIST paves the way for efficient debugging and maintenance, offering a unified methodology for in-system configuration and test across the entire product lifecycle. It serves as both a debugging tool and an updater, adding value by facilitating anytime and anywhere PCB testing.
DXCorr's SRAM solution is a high-performance, low-power Static Random-Access Memory tailored for demanding applications. Built with precision, the SRAM from DXCorr ensures exceptional speed while maintaining energy efficiency, making it an ideal choice for cutting-edge systems. The design caters to contemporary needs of bandwidth and storage, providing a robust framework that supports a wide range of digital processors. The SRAM solutions are crafted to address both high-density and high-speed requirements, ensuring adaptability across various technological challenges. What sets DXCorr's SRAM apart is its ability to perform in processes as small as 2nm, delivering industry-leading power efficiency and reliability. The meticulous structure supports standalone as well as embedded applications that require extreme data throughput and minimal latency, thus catering to a diverse spectrum of client needs. Coupled with DXCorr's extensive portfolio of cross-functional IPs, the SRAM emerges as a flagship product that exemplifies both innovation and performance. It offers flexibility in design, making it suitable for integration into a variety of platforms, from telecommunication systems to consumer electronics, proving its versatility and adaptability. Crafted under high-quality standards, it assures customers of peak performance and long-term reliability as a data storage solution.
Terefilm Photopolymer is a cutting-edge material designed for efficient and accurate microcomponent assembly, crucial for advanced manufacturing processes. This photopolymer is engineered to address the specific challenges posed by the increasing demand for miniaturization and precision in modern electronic device fabrication. With exceptional ability to handle micro-assembly of components as small as a few microns, it plays a vital role in reducing production time and enhancing the quality of the final products.\n\nThe photopolymer is specifically developed to support mass transfer processes that involve simultaneous pick-up and precise placement of thousands of components. It is particularly beneficial in constructing MicroLED displays and complex System in Package (SiP) assemblies, where it ensures components are securely positioned with high accuracy. This technology essentially redefines the standards for sub-micron placement, catering to the needs of cutting-edge device manufacturing.\n\nEmploying Terefilm Photopolymer, manufacturers can achieve significant improvements in production efficiency and reliability. Its unique material properties offer distinct advantages over traditional methods, minimizing material wastage and ensuring consistent performance even in the face of the most demanding manufacturing environments. The versatility of this photopolymer makes it suitable for various applications, including automotive displays, AR/VR devices, and other high-tech gadgets requiring precise assembly.
The Absolute Linear Position Sensors developed by Riftek Europe are precision instruments designed to measure and check displacements, dimensions, and surface profiles. Utilizing absolute linear encoder technology, these sensors promise an innovative approach to absolute measurement over ranges of 3 mm to 55 mm with a resolution of 0.1 um. These sensors address the demand for accurate measurement within manufacturing environments, ensuring that the run-outs and deformations are controlled to enhance product quality. They are built for reliability, delivering robust performance in challenging industrial conditions where precision is a crucial aspect of equipment and product assembly. Engineered to provide real-time feedback, these sensors aid in automating quality checks and maintaining operational efficiencies. They offer manufacturers the ability to optimize processes and reduce errors, further promoting productivity and reducing material wastage due to inaccurate measurement during production.
Designed to address the evolving power needs of integrated circuits, Xenergic's High-Speed Low-Power SRAM emerges as a leading solution for energy-conscious applications. By optimizing both dynamic power and leakage, this SRAM offers a 70% to 90% reduction in power usage, making it ideal for sensors, wearables, and other low-power devices. Its architecture allows for high efficiency in edge computing applications, minimizing latency while bringing computation closer to the data source.\n\nWith critical features like reduced leakage and dynamic power consumption, this SRAM ensures that your SoC stays competitive in terms of power efficiency. By enabling the SoC to serve multiple features without significant energy drain, it becomes a perfect match for always-on mobile and IoT applications, enhancing user convenience and experience. The SRAM integrates seamlessly into existing designs, aided by comprehensive memory interface views and support for a range of standard optional memory features.
The Fast Access Controller (FAC) by Intellitech is a pre-engineered IP solution that responds swiftly to the demands for enhanced design-for-test features and improved programming performance of external FLASH memory in production environments. Especially beneficial for processor and ASIC/SoC designers, FAC provides the fastest method for programming on-board FLASH, leveraging a small bitstream that transmits data over the 1149.1 bus. This innovation significantly reduces in-system FLASH programming times, catering to the high speeds required in modern digital environments. FAC is particularly synergistic when used in conjunction with FPGA, facilitating streamlined operations that bypass the need for traditional, time-consuming programming methods. This setup reduces overall design complexity and improves operational efficiency by eliminating the need for additional components such as configuration PROMs and voltage translators. FAC's capability to manage multiple scan chains also contributes to simplified designs, minimizing redundant engineering efforts. By integrating FAC into a design, developers can create scalable, testable products without extensive rework for each product generation. It supports both fast configuration and embedded test processes, enhancing the flexibility of products across their lifecycle. FAC's compatibility with the Eclipse Test Development Environment ensures seamless integration and validation of configuration data, ensuring superior performance in both prototype and production phases.
The MGNSS IP Core is a versatile baseband integration solution designed for GNSS and application SoCs. It supports a full range of GNSS signals, accommodating both legacy and future constellations, making it suitable for automotive, smartphones, precision, and IoT applications. This IP core is engineered to offer dual-frequency GNSS capabilities by processing two RF channels, enhancing the device's resilience against interference. Energy-efficient by design, it includes configurations for low-power applications and is compliant with AMBA AHB standards, ensuring seamless integration with CPU systems across different platforms. Its design supports pulse-per-second (PPS) and real-time kinematics (RTK) for precise positioning, which is essential for high-precision applications.
The Stream Buffer Controller is engineered to serve as a versatile bridge between streaming data and memory-mapped DMA operations. Its design focuses on enabling efficient data handling and transfer in high-performance computing environments where data throughput, latency, and reliability are critical to the system's success. By offering a direct pathway for data transactions, it minimizes bottlenecks and optimizes the overall data flow. This controller is particularly suited for applications involving high-speed data processing and transmission, where managing data efficiency is a top priority. It supports a broad set of data protocols and standards, ensuring that integration with diverse systems is straightforward and trouble-free. Compatibility with memory-mapped architectures allows for flexible system design and enhances interoperability. The Stream Buffer Controller's architecture is designed to be easily configurable, allowing developers to adjust parameters in response to specific project demands. This adaptability ensures that systems utilizing the controller can achieve optimal performance, even as requirements evolve. Overall, it provides an effective solution for managing data-intensive applications with minimal overhead, facilitating smoother and more efficient operations.
The Crest Factor Reduction (CFR) Technology developed by Systems4Silicon serves to enhance RF power amplifier efficiency by curbing the transmit signal envelope. This technology operates agnostically to communication standards, allowing it to be deployed across various systems with ease. FlexCFR is dynamically reprogrammable, making it highly adaptable to both single and multi-standard operations. By managing the Peak to Average Power Ratio (PAPR), it facilitates more efficient amplifier operation, thus reducing overall amplifier costs by enabling the use of more cost-effective power transistors. FlexCFR's design ensures that it is vendor-independent, offering compatibility with any FPGA or ASIC platform, and includes flexible licensing terms to fit different business models. The technology minimizes its resource footprint, maintaining system efficiency without compromising performance. Its deterministic behavior allows for reliable off-line system modeling, which is advantageous for predicting and optimizing system performance. This CFR solution is compatible with other technologies like digital predistortion (DPD) and envelope tracking, making it a comprehensive solution for power amplifier efficiency enhancement. Supported by advanced tools and knowledgeable radio systems engineers, it ensures smooth integration and robust operation in a wide range of deployment scenarios.
NeoEE is a memory IP offering extensive programmability, with the capability of being reprogrammed over 100,000 times. It provides a highly reliable and robust solution for applications that require frequent updates or configurations, such as in the fields of automotive electronics, consumer gadgets, and industrial control systems. This IP is engineered to deliver high endurance without sacrificing performance, a crucial element for embedded systems that are expected to operate in various demanding environments. NeoEE's design focuses on ensuring data integrity and long-term retention, even with repeated writes, making it a preferred choice for critical software storage and configuration tasks. With its compatibility with various semiconductor technologies, NeoEE facilitates seamless integration into different design architectures. Its ability to perform consistently across diverse environments makes it suitable for an array of functionalities, from IoT devices to automotive control systems, expanding the horizons of electronics capabilities.
An advanced derivative of the TimeServo System Timer, TimeServoPTP combines precise timing capabilities with full compliance to IEEE-1588v2/PTP standards. This IP core effectively manages synchronization, enabling both 1-step and 2-step processes in alignment with external network time grandmasters. TimeServoPTP enhances FPGA application performance by providing accurate, coherent timing necessary for time-sensitive data synchronization. It integrates a Gardner Type-2 DPLL and supports a wide range of operations without needing host intervention post-initialization. Its efficient design enhances interaction between FPGA and networked systems through the seamless management of PTP communication, utilizing both Ethernet L2 PTP/1588 EtherType frames. This functionality enables optimized power and latency performance, critical in time-sensitive FPGA applications across industries.
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