All IPs > Memory & Logic Library > Standard cell
The "Standard Cell" category within our Memory & Logic Library is foundational for designing efficient and scalable integrated circuits. Standard cells form the basic building blocks of digital logic circuits, enabling designers to create complex and customized chip designs with ease and precision. These cells include a variety of digital components like logic gates, multiplexers, flip-flops, and other functional elements that are crucial for building sophisticated semiconductor devices.
One of the primary uses of standard cell semiconductor IPs is in the development of application-specific integrated circuits (ASICs). By utilizing a library of pre-defined, verified cells, designers can optimize the performance, power consumption, and silicon area of chips, leading to more cost-effective and energy-efficient solutions. This approach not only accelerates the design process but also enhances the reliability and scalability of the final product.
Additionally, standard cell libraries are integral to the process of digital design automation (DDA). These libraries allow for the automation of various aspects of chip design, including layout generation and optimization. The consistent use of standardized cells ensures that designs can be easily adapted or modified to meet specific project requirements without re-inventing the wheel for each component.
Within the category of standard cell semiconductor IPs, you'll find a diverse range of products tailored to different performance and density needs. Whether you're working on high-speed processor cores or low-power consumer electronics, our collection offers the flexibility to cater to various design constraints and objectives. By integrating these standard cells into your design flow, you can achieve superior functionality while maintaining efficiency and reliability in your semiconductor products.
The A25 processor model is a versatile CPU suitable for a variety of embedded applications. With its 5-stage pipeline and 32/64-bit architecture, it delivers high performance even with a low gate count, which translates to efficiency in power-sensitive environments. The A25 is equipped with Andes Custom Extensions that enable tailored instruction sets for specific application accelerations. Supporting robust high-frequency operations, this model shines in its ability to manage data prefetching and cache coherence in multicore setups, making it adept at handling complex processing tasks within constrained spaces.
Dolphin Technology provides an extensive range of standard cell libraries that are critical for any SoC design project. These libraries include over 5,000 fully customizable cells, each precisely crafted to optimize speed, power, density, and routability. The standard cells are verified in silicon and designed for use across various process technologies, making them an ideal choice for a wide range of applications. The standard cell libraries support various process nodes such as 6-track, 7-track, and up to 14-track configurations, suitable for everything from high-performance to ultra-high density applications. Dolphin Technology’s standard cell IP offerings include Multi-VT (SVT, HVT, LVT) and multi-channel options, enabling flexibility in design to accommodate the specific needs of semiconductor projects. These cell libraries are tailored to support high-performance computing, provide efficiency in wafer yield, and ensure optimal SoC pricing. This high degree of customization, coupled with a focus on power and density, offers excellent options for semiconductor professionals aiming to create high-performance designs efficiently and cost-effectively.
NRAM Technology by Nantero represents a significant leap forward in memory technology, utilizing carbon nanotubes to create non-volatile memory that outperforms traditional solutions. This technology is designed to combine the speed and durability of DRAM with the non-volatility of flash, providing a much-needed enhancement in performance and efficiency. One of the core strengths of NRAM is its ability to function in extreme conditions, maintaining data integrity without the need for constant power. Its low power requirements make it an ideal choice for a variety of applications, ranging from consumer electronics to high-performance computing infrastructures. Furthermore, NRAM's inherent scalability ensures that it can be seamlessly integrated into existing manufacturing processes with minimal disruption, offering a path forward for industries looking to enhance their memory capabilities without prohibitive costs. Its versatility and robustness continue to make it a highly attractive alternative to current memory technologies.
The AndeShape Platforms are designed to streamline system development by providing a diverse suite of IP solutions for SoC architecture. These platforms encompass a variety of product categories, including the AE210P for microcontroller applications, AE300 and AE350 AXI fabric packages for scalable SoCs, and AE250 AHB platform IP. These solutions facilitate efficient system integration with Andes processors. Furthermore, AndeShape offers a sophisticated range of development platforms and debugging tools, such as ADP-XC7K160/410, which reinforce the system design and verification processes, providing a comprehensive environment for the innovative realization of IoT and other embedded applications.
xcore.ai is a versatile platform specifically crafted for the intelligent IoT market. It hosts a unique architecture with multi-threading and multi-core capabilities, ensuring low latency and high deterministic performance in embedded AI applications. Each xcore.ai chip contains 16 logical cores organized in two multi-threaded processor 'tiles' equipped with 512kB of SRAM and a vector unit for enhanced computation, enabling both integer and floating-point operations. The design accommodates extensive communication infrastructure within and across xcore.ai systems, providing scalability for complex deployments. Integrated with embedded PHYs for MIPI, USB, and LPDDR, xcore.ai is capable of handling a diverse range of application-specific interfaces. Leveraging its flexibility in software-defined I/O, xcore.ai offers robust support for AI, DSP, and control processing tasks, making it an ideal choice for enhancing IoT device functionalities. With its support for FreeRTOS, C/C++ development environment, and capability for deterministic processing, xcore.ai guarantees precision in performance. This allows developers to partition xcore.ai threads optimally for handling I/O, control, DSP, and AI/ML tasks, aligning perfectly with the specific demands of various applications. Additionally, the platform's power optimization through scalable tile clock frequency adjustment ensures cost-effective and energy-efficient IoT solutions.
The Secure OTP (One-Time Programmable) solution by PUFsecurity elevates standard OTP technology by integrating anti-fuse memory and robust encryption techniques, ensuring the high-level protection of sensitive data. This sophisticated approach allows for secure data storage and management, even under duress from advanced attack methodologies. Secure OTP transforms how critical data like encryption keys and configuration states are stored, enabling devices to maintain data integrity during storage and transit. By encapsulating both physical macro implementations and digital RTL designs with intuitive control, Secure OTP allows seamless integration into a host of applications while safeguarding against unauthorized data extraction. The integration of diverse interface protocols makes Secure OTP adaptable to a wide range of industrial requirements. It stands as a robust defensive measure in the face of modern threats, offering reliability in an era where secure data storage solutions are more important than ever.
The YouDDR solution offered by Brite Semiconductor is a comprehensive sub-system that includes a DDR controller, PHY, and I/O. This solution is meticulously crafted to support various DDR technologies like LPDDR2, DDR3, LPDDR3, DDR4, and LPDDR4/4x, with data transfer rates ranging from 667Mbps to 4266Mbps. YouDDR is equipped with advanced dynamic self-calibration logic (DSCL) and dynamic adaptive bit calibration (DABC) technologies. These advancements allow for automatic adjustment to variations such as process, voltage, and temperature (PVT) changes, ensuring robust performance across different conditions. The system also supports training sequences for both read and write operations, ensuring optimized signal integrity and data accuracy. Brite's YouDDR technology guarantees high speed and low power consumption, making it ideal for applications requiring fast memory access and energy efficiency. Its design is highly flexible, supporting multiple configuration options to meet diverse application needs, including different interface types like AXI and AHB. These features make it particularly well-suited for use in high-performance computing systems, consumer electronics, and network systems where quick data retrieval is paramount. The YouDDR IP provides significant advantages over competing products due to its small area and power-efficient design. It also incorporates a comprehensive set of verification tools and support for seamless integration into larger system designs. This makes it a valuable asset for designers seeking a reliable and efficient memory subsystem with proven performance in varied industry applications.
The xT CDx is a sophisticated tumor profiling solution designed to advance precision oncology care for solid malignancies. This assay uses next-generation sequencing to assess alterations in 648 genes, identifying single nucleotide variants, multi-nucleotide variants, and insertions/deletions. It also evaluates microsatellite instability status and serves as a companion diagnostic to explore potential treatment avenues according to specific therapeutic product labeling. Uniquely, xT CDx offers mutation profiling through samplings from both formalin-fixed paraffin-embedded tumor tissues and matched normal samples such as blood or saliva, enhancing diagnostic clarity and treatment direction for patients with solid tumors. The comprehensive report generated includes valuable insights that can inform the personalized treatment path for cancer patients.
CodaCache provides a comprehensive solution for enhancing SoC performance through advanced caching techniques, optimizing data access, and improving power efficiency. This last-level cache complements NoC applications by minimizing memory latency and power consumption. Its configurable design offers flexible memory organization, supporting diverse caching requirements and real-time processing. CodaCache is designed to seamlessly integrate with existing SoC infrastructures, accelerating development timelines and enhancing data reusability. It aids in reducing layout congestion and timing closure issues, resulting in better resource management and performance optimization across a range of electronic design applications.
CodaCache provides a comprehensive solution for enhancing SoC performance through advanced caching techniques, optimizing data access, and improving power efficiency. This last-level cache complements NoC applications by minimizing memory latency and power consumption. Its configurable design offers flexible memory organization, supporting diverse caching requirements and real-time processing. CodaCache is designed to seamlessly integrate with existing SoC infrastructures, accelerating development timelines and enhancing data reusability. It aids in reducing layout congestion and timing closure issues, resulting in better resource management and performance optimization across a range of electronic design applications.
Designed with adaptability in mind, the FPGA-Modul Artix 7A100T-2C leverages the ARTIX-7 FPGA series from AMD to provide a powerful platform for a variety of applications. Its compact size does not compromise on performance or flexibility, making it suitable for both consumer and industrial applications, ranging from data processing to control systems. The module is equipped with essential components such as SDRAM and Flash memory, facilitating rapid data access and reliable storage options. The FPGA itself provides ample logic cells and DSP slices, allowing it to handle complex computing tasks effectively. These features enable developers to design and implement intricate logic and processing tasks directly on the module. With a rich set of I/O options, the Artix 7A100T-2C is capable of interfacing with numerous peripherals, offering a high degree of integration into existing systems. Its architecture is optimized for low power consumption while maintaining high speed and efficiency, making it suitable for battery-operated or power-sensitive applications.
PUFsecurity's Flash Protection Series extends the security capabilities of their Hardware Root of Trust across an entire SoC, safeguarding a variety of flash memory resources. This series ensures that embedded and external flash memories, like NAND and NOR, are protected from attacks that jeopardize data integrity and privacy. Utilizing the security mechanisms embedded within their Hardware Root of Trust and Crypto Coprocessor, the Flash Protection Series provides a seamless security barrier for system architectures that rely heavily on flash storage for functionality. This security extends beyond the physical hardware to include software assets, ensuring complete system integrity against increasingly sophisticated threats. By applying PUF-based fingerprints across flash components, the Flash Protection Series establishes an expanded secure perimeter within devices. This approach not only protects firmware and sensitive software embedded in chips but also extends the formidable defense mechanisms of PUFcc across the SoC, demonstrating unparalleled security assurance for high-risk applications.
Standard Cell Libraries from Silvaco include robust solutions for custom and semi-custom design processes. These libraries are integral to delivering efficient power management and optimized performance in various semiconductor applications. Leveraging advanced technology nodes, they provide comprehensive support for low power design, making them an excellent choice for projects demanding efficient energy consumption and reliable functionality. They integrate seamlessly with Silvaco's design tools, facilitating a streamlined design and analysis process for high-performance circuits.
The General Purpose Accelerator (Aptos) from Ascenium stands out as a redefining force in the realm of CPU technology. It seeks to overcome the limitations of traditional CPUs by providing a solution that tackles both performance inefficiencies and high energy demands. Leveraging compiler-driven architecture, this accelerator introduces a novel approach by simplifying CPU operations, making it exceptionally suited for handling generic code. Notably, it offers compatibility with the LLVM compiler, ensuring a wide range of applications can be adapted seamlessly without rewrites. The Aptos excels in performance by embracing a highly parallel yet simplified CPU framework that significantly boosts efficiency, reportedly achieving up to four times the performance of cutting-edge CPUs. Such advancements cater not only to performance-oriented tasks but also substantially mitigate energy consumption, providing a dual benefit of cost efficiency and reduced environmental impact. This makes Aptos a valuable asset for data centers seeking to optimize their energy footprint while enhancing computational capabilities. Additionally, the Aptos architecture supports efficient code execution by resolving tasks predominantly at compile-time, allowing the processor to handle workloads more effectively. This allows standard high-level language software to run with improved efficiency across diverse computing environments, aligning with an overarching goal of greener computing. By maximizing operational efficiency and reducing carbon emissions, Aptos propels Ascenium into a leading position in the sustainable and high-performance computing sector.
I-fuse® technology leads the way in non-volatile memory with a non-explosive programming method that avoids thermal disruptions commonly associated with other memory systems. It reduces the footprint by a factor of ten compared to eFuse and can be implemented without extra masks or process steps across multiple foundries. With low programming voltage capabilities (1.1V/1.8V) and high data security features, it provides reliability tested up to 300°C, making it suitable for harsh environmental conditions, especially in automotive applications.
SystemBIST is an advanced product offering from Intellitech that provides a plug-and-play solution for flexible FPGA configuration and embedded JTAG testing. It stands out with its proprietary architecture that allows for efficient, codeless configuration of field-programmable gate arrays (FPGAs) as well as built-in system testing capabilities. SystemBIST is designed to be vendor-neutral, supporting any FPGA or CPLD compliant with the IEEE 1532 or IEEE 1149.1 standards. This design enables robust anti-tamper measures and enhances system reliability by embedding JTAG test patterns directly into PCBs.
Monolithic Microsystems from Imec are revolutionizing how electronic integration is perceived by offering a platform that seamlessly combines microelectronics and microsystems. These systems are engineered to provide high functionality while maintaining a compact footprint, making them ideal for applications in areas like sensing, actuation, and control across a variety of sectors including industrial automation, medical devices, and consumer electronics. The Monolithic Microsystems platform enables the integration of various subsystems onto a single semiconductor chip, thereby reducing the size, power consumption, and cost of complex electronic devices. This not only streamlines device architecture but also enhances reliability and performance by mitigating the interconnect challenges associated with multi-chip assemblies. Imec’s comprehensive resources and expertise in semiconductor manufacturing are harnessed to deliver solutions that meet the rigorous demands of cutting-edge applications. From design to production, the Monolithic Microsystems offer a leap in capability for next-generation devices, facilitating innovations that require robust, integrated microsystem technologies.
The Ncore Cache Coherent Interconnect is designed to address the challenges of multicore ASICs by ensuring efficient inter-core communication and synchronization within SoCs. It provides a high-bandwidth interconnect fabric, supporting multiple protocols and a range of processor designs, including Arm and RISC-V architectures. This coherent interconnect leverages system scalability and integration ease, meeting the rigorous demands of safety-critical environments like those in automotive applications. Ncore is engineered to reduce complexity and optimize power usage while maintaining high-performance standards, ultimately enhancing reliability in complex multi-core system designs.
The Scan Ring Linker (SRL) is a complete IP module that can seamlessly integrate into complex designs to simplify the development of 1149.1 (JTAG) test infrastructure. This module efficiently links numerous scan rings (secondary paths) into a consolidated high-speed test bus, thereby facilitating independent testing and configuration through a single JTAG interface. It enhances design flexibility and reduces costs while catering to designs that entail elaborate scan chains by negating the need for separate test setups per scan ring.
The BCD Technology platform enables the development of robust power management solutions. It combines the strengths of Bipolar, CMOS, and DMOS processes, allowing for efficient power handling and high voltage endurance. This technology is pivotal in creating compact, integrated solutions for power conversion and control, especially beneficial in automotive and industrial applications. BCD Technology provides a versatile foundation for designing power components that require high density and efficient thermal management. This results in components that are not only more reliable but also more energy-efficient. Utilizing this technology, designers can achieve superior performance in miniaturized form factors, meeting the stringent demands of today’s electronic applications. Through its advanced integration capabilities, BCD technology expands the possibilities for innovative power management systems. Suitable for a wide range of voltage and power conditions, it supports the creation of multifaceted designs that are both cost-effective and resource-efficient, addressing the evolving needs of global electronics markets.
The Fast Access Controller (FAC) is a specialized solution developed by Intellitech, targeting efficient external flash programming in production environments. It is engineered to hasten on-board Flash memory programming, especially when configured with FPGAs, by utilizing a minimal bitstream through the 1149.1 bus. This IP is purpose-built for microcontroller, DSP, and CPU designers, aligning with the demands for enhanced design-for-test features and stronger programming performances in manufacturing processes.
The iCan PicoPop® System on Module (SOM) by Oxytronic is an ultra-compact computing solution designed for high-performance and space-constrained environments within the aerospace industry. Utilizing the Xilinx Zynq UltraScale+ MPSoC, this module delivers significant processing power ideal for complex signal processing and other demanding tasks. This module's design caters to embedded system applications, offering robust capabilities in avionics where size, weight, and power efficiency are critical considerations. It provides core functionalities that support advanced video processing, making it a pivotal component for those requiring cutting-edge technological support in minimal form factors. Oxytronic ensures that the iCan PicoPop® maintains compatibility with a wide range of peripherals, facilitating easy integration into existing systems. Its architectural innovation signifies Oxytronic's understanding of aviation challenges, providing solutions that are both technically superior and practically beneficial for modern aerospace applications.
Spectral CustomIP offers a diverse set of silicon-proven, specialized memory architectures tailored for various integrated circuit applications. This comprehensive lineup includes options like Binary and Ternary CAMs, multi-ported memories, low voltage SRAMs, caches, and eFlash, showcasing Spectral's versatility in memory architecture design. Each CustomIP solution leverages foundry or custom bit cells to ensure robust counting while delivering high-density and low-power operations. These Speciality IPs focus on achieving speedy performance with minimal power use, aligning with the stringent demands of contemporary chip designs. Additionally, these are available in source code format, empowering users to further adapt the technology to their specific technological needs and capabilities. The range supports a multitude of features such as separate power rails, advanced compiler options, multiple aspect ratios, and comprehensive SOC integration views, making it applicable for a wide array of consumer electronics ranging from mobile devices to hearing aids. With rights-to-modify packages available, Spectral CustomIP allows for a breadth of customization to meet exacting specifications and market demands.
CrossBar's ReRAM Memory is a pioneering memory solution that significantly enhances data storage capabilities for modern applications. Employing a minimalist three-layer structure, ReRAM Memory utilizes a silicon-based switching medium between two electrodes to facilitate resistive switching. This setup results in a highly stable memory cell that operates across varied temperatures and conditions. ReRAM Memory's ability to scale vertically in 3D allows it to deliver extensive terabyte-level storage on a single chip, alongside providing incredible endurance and rapid read/write capabilities. The technology's compatibility with standard CMOS processes facilitates easy integration into existing manufacturing setups, making it highly versatile for a wide range of applications, from IoT devices to data centers, and more. Notably, ReRAM Memory's unique design addresses some critical challenges facing conventional memory technologies. By reducing energy consumption to a mere 1/20th of traditional memory solutions, it delivers unmatched performance, sustaining up to 1000 times more write cycles and operating reliably with significant endurance and retention capabilities. Furthermore, its potential to be combined directly with logic circuits in a foundry augments the memory performance significantly while optimizing space and power requirements. Applications of ReRAM Memory spread across various domains such as artificial intelligence, mobile computing, and secure computing. Its benefits are clearly outlined in its secure features, where the memory is deployed for developing advanced applications involving secure cryptographic keys and tamper-resistant solutions. This makes ReRAM Memory an ideal choice for scenarios demanding high security and reliability, paving the way for future innovations in the semiconductor industry. CrossBar's ReRAM Memory showcases a perfect blend of cutting-edge design and practical implementation potential, enabling the semiconductor field to explore new possibilities in data processing and storage technologies. As digital landscapes continue to evolve, CrossBar's ReRAM offers lifecycle improvements and operational efficiencies that align with the industry's growing needs for high-density, reliable, and energy-efficient memory technologies.
SEMIFIVE's SoC platform provides a rapid and cost-effective path to developing purpose-built custom silicon solutions. By leveraging silicon-proven IPs and optimized design methodologies, this platform aims to lower costs, reduce risks, and accelerate time-to-market. The platform is distinguished by its domain-specific architecture, which supports a pre-configured and verified IP pool, allowing for a swift hardware/software bring-up. This platform empowers companies to turn their ideas into silicon efficiently, minimizing development costs and engineering risks. The SoC platform's benefits include significant cost savings with up to 50% lower non-recurring engineering (NRE) costs compared to the industry average. It also ensures a rapid turnaround time, up to 50% faster than typical timelines, due to its pre-verified design components and reuse capabilities. The platform's pre-established IP pools, which are selected, configured, implemented, and verified, simplify the engagement model, promising a comprehensive suite of services from architecture to manufacturing. Technical highlights of the SoC platform include configurations for AI inference with a SiFive quad-core U74 RISC-V CPU, LPDDR4x memory interfaces, and PCIe Gen4 connectivity, optimized for applications like big data analytics and vision processing. The SoC platform also supports AIoT and HPC applications, featuring scalable configurations for various performance demands and integration flexibility for customer-specific IPs.
RIFTEK's Absolute Linear Position Sensors employ innovative absolute measurement techniques to accurately measure dimensions and displacements over ranges of 3 to 55 mm, with a resolution of 0.1 µm. These sensors are meticulously designed for a spectrum of applications, ensuring precise measurement of displacements, run-outs, and surface profiles. Their ability to deliver high-resolution measurements makes them indispensable tools in environments demanding meticulous accuracy, such as precision engineering and quality assurance.
Designed to replace traditional laser fuses, I-fuse® Replaser provides comprehensive benefits in terms of programming and operational reliability. Its operation is characterized by low power requirements for both programming and reading, coupled with rapid response time, ensuring it meets rigorous industry standards like the AEC-Q100 Grade 0. It functions well in environments spanning -40°C to 150°C, further broadening its applicability in tough conditions. With attributes like low program/read voltage and soft programming features for pre-testing, it enables flexible integration into designs requiring efficient space use.
The Standard Cell Library from M31 Technology Corporation provides a versatile range of cell solutions, including high-density, high-speed, and low-leakage cells, to support diverse application requirements. Each library is designed to optimize performance, power, and area, offering a comprehensive set of customization options tailored to specific design needs. This IP supports process nodes ranging from 12nm to 180nm, making it suitable for various applications from IoT to AI and automotive designs. The library also includes specialized kits for low power optimization and high performance, enabling efficient engineering changes with minimal impact on hardware. With silicon-proven solutions, M31's Standard Cell Library ensures robust and reliable performance across wide-ranging semiconductor environments. Customers benefit from tailored design approaches that help achieve specific performance metrics effectively.
The I-fuse® S3 further innovates on the core I-fuse platform with an architecture that allows for significant scaling and compacting capabilities. It shines when the memory density required is below 4Kbits, offering a top-notch solution for minimal size applications. Engineered to be compatible with several foundries without needing additional processing steps, it maintains its low programming voltage and silicon-proven reliability, achieving AEC-Q100 Grade 0. Its ability to adapt to various foundries and process nodes ensures a broad applicability, from consumer electronics to automotive systems.
The Capital E/E Systems Development Solutions by Siemens Digital Industries Software is a comprehensive suite designed for the intricate demands of electrical and electronic systems in modern devices. The solution spans system and software architectures, network communications, and embedded software development, providing a robust platform for creating detailed E/E integrations. It's particularly valuable in complex applications such as automotive, aerospace, and other sectors where reliable electronic systems are critical. With Capital, users can develop advanced electrical systems that enhance communication networks while embedding sophisticated software capabilities within hardware architectures. This tool aids in optimizing both the development and lifecycle management of electrical systems, leading to superior performance and reduced time-to-market. The platform focuses on offering intuitive design environments that facilitate seamless integration across various engineering domains. Features like automated processes, simulation, and validation support ensure that designs comply with relevant industry standards while also allowing engineers to innovate swiftly. Capital's role in streamlining processes and enhancing product reliability makes it a favored choice for industries aiming to boost efficiency and reduce operational costs. It's engineered to enable collaboration and connectivity at scales that align with the increasing demands of today's complex systems.
Menta's eFPGA IP cores offer a groundbreaking approach by integrating programmable logic seamlessly into ASICs and SoCs. These cores provide the adaptability and efficiency required to deliver high-performance and cost-effective solutions across diverse applications. Menta's eFPGA technology optimizes resource allocation by allowing post-fabrication customization, which is essential for evolving specifications and diverse use cases. The cores are crafted using standard-cell design, ensuring broad compatibility with various foundry nodes and technology platforms. Having achieved silicon-proven status across multiple technology nodes, Menta’s eFPGA cores merge effortlessly with existing designs, offering unmatched flexibility without incurring additional production costs. This flexibility extends to an array of applications, including defense, automotive, IoT, and telecom sectors, leveraging the power of integrated FPGA logic to meet the rigorous demands of each field. Notably, Menta endorses power-saving solutions that cut power usage between 10% and 50% as opposed to traditional methods, a vital advantage for devices constrained by power.
Menta's Adaptive Digital Signal Processor combines the prowess of adaptability with efficient processing capabilities specifically designed for stringent signal processing tasks. Incorporating reconfigurable DSP blocks within the FPGA fabric leads to tailored solutions, perfectly aligned with the demands of intricate applications in telecommunications and automotive sectors. These processors bolster performance, offering real-time computational abilities and elevated processing speed, suiting operations that require precise, adaptable, and dynamic calculations. With a strong emphasis on flexibility, the processor scales efficiently, addressing varying computational load, which is crucial for different market segments. Menta ensures that these processors meet rigorous industry standards, providing robust solutions with simplified integration into diverse system architectures.
Fundamental IP is a substantial offering from Key ASIC, encapsulating a variety of fundamental digital library elements. This includes standard cell libraries, general-purpose I/O libraries, and compilers for SRAM, register files, and ROM. These IPs are crafted to meet essential needs across multiple technology nodes, facilitating the design of highly efficient semiconductor products. Additionally, the inclusion of various LVCMOS I/O choices enhances flexibility, catering to different voltage levels at 1.2V, 1.8V, and 2.5V. Beyond basic functionality, Fundamental IP also includes specialized libraries for high-voltage (HV) I/Os, PLLs, and DLLs capable of handling frequencies up to 500MHz. These IPs provide a robust backbone for further customization and performance tuning, thereby supporting an array of electronic applications dedicated to achieving higher operational efficiency. By integrating their comprehensive suite of Fundamental IP, Key ASIC enables customers to focus on advanced features without compromising on foundational circuit stability. This product has proven essential for clients seeking quick turnaround times and reliable performance in their semiconductor endeavors.
GDP-XL is the semiconductor industry's leading design and IP management system, offering unparalleled performance and reliability. It is particularly designed for facilitating single and multi-site collaborations in a global design setting. With its capabilities, companies can effectively manage large-scale projects by ensuring rigorous database control and meticulous tracking. The system’s core strength lies in its ability to deliver a tenfold to hundredfold increase in speed, along with rapid customization options and robust security measures equivalent to those found in the banking sector. GDP-XL has become an integral tool for many companies, helping them maintain a high level of control over databases crucial for their RFIC design successes, from satellites to terrestrial applications. With GDP-XL, companies can ensure that their teams operate with maximum productivity by adopting a solution that supports the intricate and dynamic needs of modern semiconductor design environments. Its flexibility and scalability make it a top choice for businesses striving to remain competitive in increasingly complex engineering landscapes.
VisualSim Technology IP blocks form a comprehensive library that aids rapid construction of models for a systemic exploration of semiconductor applications. These IP blocks, over 150 in number, encapsulate detailed behavior attributes, timing, cycle accuracy, and power models necessary to accurately simulate system internals. This library caters to a vast array of engineering needs by providing blocks ranging from processor models like ARM and Power8 to complex interfacing buses like AMBA and PCIe. They offer a detailed depiction of system-level interactions that aid in evaluating potential bottlenecks and performance trade-offs. Each IP block is meticulously crafted based on standard specifications or vendor datasheets, ensuring authenticity and high fidelity in simulations. These models not only define functionality but also encapsulate logical flows, buffers, and error recovery mechanisms. By providing visibility into the internals (with some blocks being open-source), these blocks enable users to modify and adapt systems as needed to meet specific design requirements. This adaptability makes them an indispensable resource for thorough system validation and optimization. The IP blocks are crafted to align with existing and emerging technology standards, ensuring compatibility and support for a range of both current and legacy architectures. They also embed versatile parameter sets that allow users to explore every possible configuration and system behavior, from basic buffer size to intricate signal timing and arbitration schemes. The polymorphic nature of these blocks allows for easy integration with other system components, ensuring efficient and effective connectivity through standardized interfaces.
The ATEK552 is a high-powered GaN-based power amplifier capable of delivering 6 watts of output power within the frequency range of 3 to 17 GHz. This amplifier is tailored for high-efficiency power applications where robustness and reliability are crucial. It offers a gain of 21 dB and operates with a supply voltage of 28 volts, consuming 510 mA of current. Such specifications make it an excellent choice for demanding environments where high power and reliability are needed. Its die package facilitates versatile application in designs that prioritize performance and space efficiency.
The RFCell Framework is a Python-based development tool designed to expedite the creation of advanced RF and mmWave parameterized cells. Tailored for compatibility with CMOS, GaAs, and GaN technologies, this framework simplifies the design process with its user-friendly coding interface. By enabling designers to rapidly define complex structures, it significantly shortens the development cycle from months to weeks. It is ideal for professionals seeking to integrate simulation and modeling tasks seamlessly, enhancing the prototyping of RF components in cutting-edge design environments.
The Blazar Bandwidth Accelerator Engine is an advanced solution designed to elevate in-memory computing capabilities by integrating high-capacity and low-latency memory directly onto FPGA frameworks. This product replaces multiple components traditionally used in high-performance applications, thanks to its innovative architecture that supports in-memory compute functions alongside high-speed data transfer rates. This integration significantly reduces latency and optimizes bandwidth to handle high-volume data applications smoothly.\n\nThis engine stands out for its provision of up to 32 optional RISC cores, enabling advanced compute functionalities directly in-memory. It facilitates dual port memory support with memory options of 576Mb or 1Gb, catering to applications requiring massive processing power and quick access times. With bandwidth capabilities reaching 640 Gbps and the ability to perform up to 5 billion reads per second, it is designed to meet the challenging demands of modern data environments.\n\nBlazar's applications span from SmartNIC and SmartSwitch technologies to 5G UPF and BNG offloading, providing robust solutions for aggregating serial links and managing intensive data streams efficiently. Its capacity to handle high computational processes within the memory without external data transfers optimizes systems for real-time processing and analytics, paving the way for new performance benchmarks in digital communication and networking sectors.
The Cryptographic Core offers a comprehensive suite of classical cryptographic solutions. This product leverages well-established algorithms like AES for symmetric encryption and ECC for asymmetric encryption. Its design caters to both high and low-end applications, ensuring compatibility across various devices. This core is crucial for maintaining confidentiality and integrity in systems where traditional cryptography still reigns supreme. With the increasing vulnerability posed by advancing technology, including potential quantum threats, this Cryptographic Core provides secure encryption and decryption processes. Utilizing advanced algorithms such as RSA and variants of elliptic curve cryptography (ECC), it supports the secure exchange of information. Despite looming quantum computing challenges, many elements of classical cryptography remain effective and secure. The Cryptographic Core stands as a reliable option while industries transition towards more robust quantum-safe systems. It offers flexibility and adaptability, accommodating specific security needs through customization and configuration for various performance levels.
Aragio Solutions has designed a comprehensive range of general-purpose I/O circuits aimed at meeting the rigorous demands of integrated circuit (IC) designs. These circuits feature robust ESD and latch-up tolerance, ensuring reliability under various operating conditions. Designers benefit from an array of power pads and configuration options for isolated power domains, which can be adapted for specific IC design requirements. Particularly notable is the inclusion of programmable GPIO, which provides fault-tolerant inputs. The architecture supports multiple power supply sequencing requirements, ensuring a smooth and regulated flow of power during operation. Additional features like distributed power-on-control enable effective system powering, while maintaining the structural integrity and function of the design. Aragio has made sure that their GPIO solutions are compatible with different technological environments, demonstrated by their silicon-proven implementations across various process nodes like 28nm and 40nm, available at foundries such as GLOBALFOUNDRIES and TSMC. This adaptability and proven efficacy make them indispensable for modern electronic systems where versatility and reliability are crucial.
Dolphin Semiconductor's Foundation IPs are crafted to enhance the efficiency and cost-effectiveness of System-on-Chip (SoC) designs through robust offerings of embedded memories and standard-cell libraries. Specially designed for energy-efficient applications, these components help optimize space and power usage while ensuring the cutting-edge performance of modern electronic devices. Incorporated within Dolphin's Foundation IP portfolio are standard cells that allow chip designers to achieve up to 30% density gains at the cell level, compared to conventional libraries. Further, these components are engineered to support always-on applications with exceptionally low leakage rates. The Foundation IP suite optimizes SoC designs by delivering dramatically reduced leakage and area consumption, avoiding the additional cost and complexity of using a regulator. The memory compilers within Foundation IPs offer ultra-low power and high-density memory solutions, including SRAM and via-programmable ROMs. These are formulated to deliver up to 50% energy savings, providing flexibility with multi-power modes and adaptable to varied instances. With optimization for TSMC processes, Dolphin's Foundation IPs provide an essential backbone for creating innovative, efficient, and sustainable SoC products.
Brite's YouIO delivers a comprehensive high-speed I/O solution, encompassing a range of interfaces like DDR, ONFI, and LVDS standards, for varied applications. Each profile is crafted to optimize performance across its specified duty cycles, capitalizing on Brite's competitive I/O features such as the on-die termination (ODT) and impedance calibration functions. Support for DDR standards from DDR2 through to DDR4, and LPDDR2 to LPDDR4x, YouIO achieves transfer rates from 200Mbps up to 4266Mbps. The ONFI I/O is compatible with ONFI versions 4.1 to 3.2, ensuring sustained operation in NAND flash applications with advanced impedance and termination features. LVDS I/O provides differential signaling suitable for chip-to-chip communication, supporting data rates up to 2Gbps and allowing for low voltage operations at 2.5V or 1.8V. Such versatility makes YouIO a fitting contender for applications spanning telecommunications, data centers, and advanced computing systems.
The Key-Value-Store Accelerator (KVS) significantly advances data center storage capabilities through FPGA-based acceleration. By integrating high-performance computing systems, this accelerator optimizes data flow architectures, facilitating hyperconvergence and object storage within networked environments. It features the ability to support high processing throughput, balancing low-latency access with expansive storage capacities via interfaces connecting to DDR3/DDR4 DRAM, NVMe SSDs, or SATA/SAS disks. Built with a foundation on the Xilinx Zynq UltraScale+ MPSoC, the KVS Accelerator promises seamless compatibility and scalability. Its architecture harnesses a combination of line-rate TCP/IP and Memcached processing within the programmable logic, producing extensive server power reductions via heterogeneous computing frameworks. This approach promises efficient processing capabilities at line speeds of 10, 25, 40, and even 100 GigE. This technology suits a range of applications, including accelerating Memcached servers for online transactional processing, object storage for hyper-converged nodes, and hybrid SSD/HDD setups. Its modular design in HDL and C/C++ ensures easy integration into existing frameworks, offering tailored configurations for diverse storage requirements across various markets.
The logiMEM is an optimized DDR3 SDRAM memory controller, specifically designed to be flexible and parametric, supporting a wide array of industry-standard Double Data Rate 3 (DDR3) SDRAM technologies. It is featured on AMD Series 7 FPGAs and SoCs, offering robust performance for memory management in various embedded applications.<br><br>Its size optimization and flexibility allow it to be tailored to specific memory management needs, making it ideal for systems where efficient and reliable data storage and retrieval are crucial. The logiMEM controller's compatibility with existing memory standards ensures seamless integration into diverse applications.<br><br>As a pivotal component in memory management, it aids designers in achieving superior data handling capabilities, ensuring that memory operations are conducted with maximum efficiency and reliability. The logiMEM controller represents a key asset in the development of complex, memory-intensive systems.
The logiMEM_arb offers efficient memory control and arbitration, specially designed for AMD Spartan 6 FPGA memory interfaces, supporting multiple IP ports for diverse memory access needs and promoting superior data management in complex systems.
The Racyics® ABX Platform is a comprehensive framework designed for enabling ultra-low voltage (ULV) operations in semiconductor designs. Using Adaptive Body Biasing (ABB) technology, this platform ensures reliable performance even at significantly reduced power levels, allowing operation down to 0.4V. This voltage adaptability enhances the overall power efficiency and operational predictability across varied conditions such as process, voltage, and temperature fluctuations. Applicable to both high-performance and ultra-low power applications, the Racyics® ABX Platform provides a conducive environment for both post-silicon adaptation and advanced node scaling. It is specifically advantageous for automotive applications, offering up to 76% leakage power improvement while maintaining performance in challenging thermal environments. For ultra-low voltage operations, it can boost performance significantly, demonstrating up to a 10.3X increase compared to no-bias conditions. This platform stands out with its silicon-proven results, a testament to its practicality and reliability. Included within the platform are features such as SRAM IPs, ABB generators, and standard cell libraries that further fortify its capacity to deliver enhanced performance, power, and area (PPA) outcomes.
The xcore-200 series from XMOS offers a high-performance, flexible platform serving a variety of IoT applications. These processors enable fast computing and low latency, tailored for embedded systems requiring specific interfaces. Xcore-200 chips thrive where conventional microcontrollers fall short, offering timing determinism and hardware adaptability at an affordable price. This series supports a range of applications, facilitated by different product lines, with options like USB interfaces, gigabit ethernet, and flash memory variations. It's noted for its multicore architecture, escalating from 8 to 32 cores, each capable of handling computational tasks, DSP operations, and control functions independently or cooperatively for enhanced task execution. The incorporation of on-chip memory, scalable multicore compute capabilities, and secure boot options with AES support enhances its adaptability to rigorous IoT environments. Xcore-200 also benefits from XMOS's xTIMEcomposer tools and library support, extending its usability and application range, making it a premium choice for developers who want to leverage advanced processing standards without inflated costs.
The D2200 PCIe SSD by Swissbit is engineered for enterprise and data center environments, delivering remarkable speed and reliability in solid-state storage. By harnessing advanced NAND technology and utilizing a PCIe interface, it achieves swift data processing capabilities crucial for modern computational demands. This SSD is specifically designed to handle the extensive I/O operations of data-intensive tasks such as database management and AI-driven data analysis. Built with durability in mind, the D2200 supports a high degree of reliability, ensuring data integrity and reduced latency in critical applications. Its sophisticated power management and thermal management capabilities enhance its appeal as a highly efficient and robust storage solution.
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