All IPs > Processor > Microcontroller
Microcontrollers form the backbone of many modern electronic devices, offering precise control and processing capabilities that power everything from consumer electronics to industrial machines. In the world of semiconductor IPs, microcontrollers provide the essential building blocks that allow developers to design complex functionalities tailored to specific applications. This category is vital for those looking to integrate processing and control functionalities directly into their embedded systems, providing efficiencies in both performance and energy use.
Microcontrollers available as semiconductor IPs are used in a broad spectrum of applications, from automotive and aerospace to smart home devices and IoT gadgets. By selecting a microcontroller IP, developers can customize core functions such as CPU architecture, memory management, input/output controls, and specialized peripherals to meet the specific needs of their projects. These IPs are designed to streamline the development process, reduce time-to-market, and offer flexibility in the design and scalability of end products.
One of the key advantages of utilizing microcontroller semiconductor IPs is the ability to incorporate proprietary or emerging technologies seamlessly into existing systems. This not only helps in keeping the product line up-to-date with the latest technology trends but also ensures that the devices remain competitive in the rapidly evolving electronics marketplace. Moreover, integrating microcontroller IPs can lead to cost savings by minimizing the need for additional chips and lowering power consumption through optimized architectures and process technologies.
As you explore the Processor > Microcontroller category in our Silicon Hub, you'll discover a wealth of options that cater to various industry needs, ranging from low-power designs suitable for portable devices to high-performance solutions required for complex computing tasks. Whether you are designing a simple control unit or a sophisticated embedded application, microcontroller semiconductor IPs provide the versatility and functionality necessary to drive innovation.
The NMP-750 is designed as a cutting-edge performance accelerator for edge computing, tailored to address challenges in sectors like automotive, telecommunications, and smart factories. This product offers ample support for mobility, autonomous control, and process automation, setting a benchmark in high-performance computing for varied applications. With a processing power of up to 16 TOPS and 16 MB of local memory, it supports RISC-V/Arm Cortex-R or A 32-bit CPUs for substantial computational tasks. Its architecture supports a rich set of applications, including multi-camera stream processing and energy management, enabled through its AXI4 128-bit interfaces that manage extensive data traffic efficiently. This accelerator is particularly suited for complex scenarios such as spectral efficiency and smart building management, offering unparalleled performance capabilities. Designed for scalability and reliability, the NMP-750 reaches beyond traditional computing barriers, ensuring outstanding performance in real-time applications and next-gen technology deployments.
The NMP-350 is specifically designed to serve as a cost-effective endpoint accelerator with a strong emphasis on low power consumption, making it ideal for various applications in AIoT, automotive, and smart appliances. This product is equipped with a robust architecture to facilitate myriad applications, such as driver authentication, digital mirrors, and predictive maintenance, while ensuring efficient resource management. Capable of delivering up to 1 TOPS, the NMP-350 integrates up to 1 MB of local memory, supporting RISC-V/Arm Cortex-M 32-bit CPU cores. It utilizes a triple AXI4 interface, each with a capacity of 128 bits, to manage host, CPU, and data traffic seamlessly. This architecture supports a host of applications in wearables, Industry 4.0, and health monitoring, adding significant value to futuristic technology solutions. Strategically targeting markets like AIoT/sensors and smart appliances, the NMP-350 positions itself as a favored choice for developing low-cost, power-sensitive device solutions. As industries gravitate toward energy-efficient technologies, products like NMP-350 offer a competitive edge in facilitating smart, green development processes.
The SCR9 Processor Core is a cutting-edge processor designed for entry-level server-class and personal computing applications. Featuring a 12-stage dual-issue out-of-order pipeline, it supports robust RISC-V extensions including vector operations and a high-complexity memory system. This core is well-suited for high-performance computing, offering exceptional power efficiency with multicore coherence and the ability to integrate accelerators, making it suitable for areas like AI, ML, and enterprise computing.
The iniCPU IP core is a sophisticated processor module by Inicore designed to provide robust computational capabilities for system-on-chip developments. It integrates smoothly into a variety of applications, offering a balance of performance and low power consumption. This CPU core is adaptable, allowing for design scalability across multiple applications from consumer electronics to industrial automation. Engineered for efficiency, the iniCPU is structured to handle complex workloads with ease, serving as a pivotal component in integrated system solutions. Its architecture supports extensive interfacing capabilities, which ensures the core can be coupled with various peripherals, enhancing system-wide functionality and performance. Inicore's iniCPU stands out in its versatility, supporting seamless transition from FPGA prototyping to ASIC deployment. This flexibility shortens product development cycles and helps companies bring innovative products to market faster. The IP core’s robust design methodology ensures it meets stringent industry standards for reliability and performance.
The eSi-3200 is a compact 32-bit processor core created for low-power and high-efficiency scenarios. Designed for seamless integration into ASICs and FPGAs, it operates optimally in embedded control applications. The architecture supports up to 32 general purpose registers and a broad instruction set aimed at minimizing power and resource usage. This processor features a continuous instruction pipeline and optional floating point unit, making it capable of handling complex arithmetic and signal processing tasks with ease. Its design, void of a cache system, allows deterministic timing crucial for real-time control applications. The processor's capabilities are accentuated by robust debugging tools and AMBA-compliant connectivity, which facilitate straightforward system integration. This makes the eSi-3200 an ideal choice for engineers looking to design responsive and energy-efficient control systems.
The eSi-1600 is a 16-bit central processing unit designed for cost-effective and low-power operation, making it ideal for integration into ASICs and FPGAs. It is engineered to deliver performance comparable to more advanced processors, with costs rivaling those of simpler CPUs. This processor is well-suited for control applications requiring under 64kB of memory in mixed-signal processes. With a RISC architecture comprising 16 or 32 general-purpose registers, the eSi-1600 supports optimal instruction density and execution efficiency. Its capabilities are leveraged through features like user-defined instructions and sophisticated interrupt handling, enhancing performance for various applications. The processor's efficient pipeline architecture allows for high-frequency operation, even in older process nodes, while minimizing power consumption. Comprehensive hardware debugging facilities, including JTAG support and an optional memory protection unit, accompany the eSi-1600. This makes it a flexible and efficient solution for applications needing robust control processing, serving as a bridge between 8-bit efficiency and higher performance 32-bit systems.
Engineered for high-performance tasks, the eSi-3250 is a 32-bit processor core tailor-made for systems demanding significant computational power coupled with slow memory interfacing. It is particularly well-suited for integration where caching plays a pivotal role due to the involved use of high-latency memories, such as external flash. The core is equipped with configurable instruction and data caches and features a wide range of interrupts, accommodating user and supervisor modes efficiently. It supports the integration of a memory management unit for enhanced memory protection and virtual memory implementation. Delivering superior performance with a structured architectural design, the eSi-3250 is adept at managing both power and performance needs. It is widely applicable to areas needing enhanced processing capabilities within tightly controlled memory access environments.
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.
The NMP-550 stands out as a performance-focused accelerator catered towards applications necessitating high efficiency, especially in demanding fields such as automotive, drones, and AR/VR. This technology caters to various application needs, including driver monitoring, image/video analytics, and heightened security measures through its powerful architecture and processing capability. Boasting a significant computation potential of up to 6 TOPS, the NMP-550 includes up to 6 MB of local memory. Featuring RISC-V/Arm Cortex-M or A 32-bit CPUs, the product ensures robust processing for advanced applications. The triple AXI4 interface provides a seamless 128-bit data exchange across hosts, CPUs, and data channels, magnifying flexibility for technology integrators. Ideal for medical devices, this product also expands its utility into security and surveillance, supporting crucial processes like super-resolution and fleet management. Its comprehensive design and efficiency make it an optimal choice for applications demanding elevated performance within constrained resources.
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.
The Low Power RISC-V CPU IP from SkyeChip is crafted to deliver efficient computation with minimal power consumption. Featuring the RISC-V RV32 instruction set, it supports a range of functions with full standard compliance for instruction sets and partial support where necessary. Designed exclusively for machine mode, it incorporates multiple vectorized interrupts and includes comprehensive debugging capabilities. This CPU IP is well-suited for integration into embedded systems where power efficiency and processing capability are crucial.
The NPU, part of the ENLIGHT series by OPENEDGES Technology, is designed as a deep learning accelerator focusing on inferencing computations with superior efficiency and compute density. Developed for high-performance edge computing, this neural processing unit supports a range of operations pertinent to deep neural networks, including convolution and pooling, providing state-of-the-art capability in both power and performance. The NPU's architecture is based on mixed-precision computation using 4-/8-bit quantization which significantly reduces DRAM traffic, thereby optimizing bandwidth utilization and power consumption. Its design incorporates an advanced vector engine optimized for modern deep neural network architectures, enriching its ability to modernize and scale with evolving AI workloads. Accompanying the hardware capabilities, the NPU offers a comprehensive software toolkit featuring network conversion, quantization, and simulation tools. This suite is built for compatibility with mainstream AI frameworks and ensures seamless integration and efficiency in real-world applications ranging from automotive systems to surveillance.
The SiFive Essential family embodies a customizable range of processor cores, designed to fulfill various market-specific requirements. From small microcontroller units (MCUs) to more complex 64-bit processors capable of running operating systems, the Essential series provides flexibility in design and functionality. These processors support a diverse set of applications including IoT devices, real-time controls, and control plane processing. They offer scalable performance through sophisticated pipeline architectures, catering to both embedded and rich-OS environments. The Essential series offers advanced configurations which can be tailored to optimize for power and area footprint, making it suitable for devices where space and energy are limited. This aligns well with the needs of edge devices and other applications where efficiency and performance must meet in a balanced manner.
The eSi-1650 enhances low-power processing applications with integrated instruction caching capabilities. This 16-bit processor core is tailored to deliver high performance in mature process nodes where external memory technologies set clock speed limits. Utilizing OTP or Flash for program memory, the instruction cache minimizes power usage and reduces the need for large RAM shadows. Its architecture allows for an efficient system by supporting user-defined instructions and maintaining high code density, made possible through intermixed 16 and 32-bit instructions. The compact 5-stage pipelined core is designed to manage power consumption effectively, offering significant advantages over traditional larger bit-width processors. Hardware debugging and multiprocessor support are paired with configurable interfaces and peripherals to provide a comprehensive embedded system solution. The eSi-1650 is particularly adept in environments where reducing power consumption and increasing efficiency are crucial, serving applications from control systems to advanced computing tasks.
The Cortus ULYSS range of automotive microcontrollers is engineered to meet the demands of sophisticated automotive applications, extending from body control to ADAS and infotainment systems. Utilizing a RISC-V architecture, these microcontrollers provide high performance and efficiency suitable for automotive tasks. Each variant within the ULYSS family caters to specific automotive functions, with capabilities ranging from basic energy management to complex networking and ADAS processing. For instance, the ULYSS1 caters to body control applications with a single-core CPU, while the ULYSS3 provides robust networking capabilities with a quad-core, lockstep MPU operating up to 1.5 GHz. The ULYSS line is structured to offer scalability and flexibility, allowing automotive manufacturers to integrate these solutions seamlessly into various components of a vehicle's electronic system. This focus on adaptability helps Cortus provide both a cost-effective and high-performance solution for its automotive partners.
The eSi-3264 processor core provides advanced DSP functionality within a 32/64-bit architecture, enhanced by Single Instruction, Multiple Data (SIMD) operations. This high-performance CPU is crafted to excel in tasks demanding significant digital signal processing power, such as audio processing or motion control applications. It incorporates advanced SIMD DSP extensions and floating point support, optimizing the core for parallel data processing. The architecture supplies options for extensive custom configurations including instruction and data caches to tailor performance to the specific demands of high-speed and low-power operations. The eSi-3264's hardware debug capabilities combined with its versatile pipeline make it an ideal match for high-precision computing environments where performance and efficiency are crucial. Its ability to handle complex arithmetic operations efficiently with minimal silicon area further cements its position as a leading solution in DSP-focused applications.
RaiderChip's GenAI v1 is a pioneering hardware-based generative AI accelerator, designed to perform local inference at the Edge. This technology integrates optimally with on-premises servers and embedded devices, offering substantial benefits in privacy, performance, and energy efficiency over traditional hybrid AI solutions. The design of the GenAI v1 NPU streamlines the process of executing large language models by embedding them directly onto the hardware, eliminating the need for external components like CPUs or internet connections. With its ability to support complex models such as the Llama 3.2 with 4-bit quantization on LPDDR4 memory, the GenAI v1 achieves unprecedented efficiency in AI token processing, coupled with energy savings and reduced latency. What sets GenAI v1 apart is its scalability and cost-effectiveness, significantly outperforming competitive solutions such as Intel Gaudi 2, Nvidia's cloud GPUs, and Google's cloud TPUs in terms of memory efficiency. This solution maximizes the number of tokens generated per unit of memory bandwidth, thus addressing one of the primary limitations in generative AI workflow. Furthermore, the adept memory usage of GenAI v1 reduces the dependency on costly memory types like HBM, opening the door to more affordable alternatives without diminishing processing capabilities. With a target-agnostic approach, RaiderChip ensures the GenAI v1 can be adapted to various FPGAs and ASICs, offering configuration flexibility that allows users to balance performance with hardware costs. Its compatibility with a wide range of transformers-based models, including proprietary modifications, ensures GenAI v1's robust placement across sectors requiring high-speed processing, like finance, medical diagnostics, and autonomous systems. RaiderChip's innovation with GenAI v1 focuses on supporting both vanilla and quantized AI models, ensuring high computation speeds necessary for real-time applications without compromising accuracy. This capability underpins their strategic vision of enabling versatile and sustainable AI solutions across industries. By prioritizing integration ease and operational independence, RaiderChip provides a tangible edge in applying generative AI effectively and widely.
Optimized for high-performance tasks, the SCR7 Application Core is a 64-bit RISC-V processor with robust Linux capability. Tailored for powerful data-intensive applications, this core features a 12-stage out-of-order pipeline and supports vector operations, making it ideal for AI, ML, and high-performance computing applications. It integrates seamlessly with multicore environments, offering comprehensive memory management and high-level interrupt systems, facilitated by standard interfaces for broad compatibility.
The SCR6 Microcontroller Core offers a high degree of computational power and is designed for RTOS-based embedded applications that demand efficiency and precision. With a rich feature set including vector operations and superscalar execution, it supports diverse market needs such as industrial automation, sensor fusion, and automotive technology. Its robust design supports up to 8 cores per cluster, providing extensive memory coherency and external accelerators integration to optimize processing capabilities.
The Spiking Neural Processor T1 by Innatera is a revolutionary microcontroller designed to handle sensory processing with extreme efficiency. This processor is specifically crafted to operate at ultra-low power levels, below 1 milliwatt, yet it delivers exceptional performance in pattern recognition tasks right at the sensor edge. Utilizing a neuromorphic architecture, it processes sensor data in real time to identify patterns such as audio signals or movements, significantly outperforming traditional processing methods in both speed and power consumption. Engineered to function in always-on operation modes, this microcontroller is critical for applications where maintaining continuous operation is essential. Its design offloads processing tasks from the main application processor, allowing for dedicated computation of sensor data. This includes conditioning, filtering, and classification tasks, ensuring they are carried out efficiently within the strictest power limits. With its ability to be integrated with various sensors, the Spiking Neural Processor T1 empowers devices to achieve advanced functionalities such as presence detection, touch-free interfaces, and active monitoring in wearable devices. This product supports a comprehensive range of applications through its innovative approach to sensor data handling, leveraging the unique capabilities of spiking neural networks to drive cognitive processing in less power-intensive environments.
Designed with an 8051 instruction set architecture, the Y51 operates on a 2-clock machine cycle. This design optimizes processing efficiency and supports a wide range of applications that require precise computing performance combined with low power consumption.
The Yitian 710 processor is a flagship Arm server chip developed by T-Head. It utilizes advanced architecture to deliver exceptional performance and bandwidth, supporting the latest Armv9 instruction set. Constructed with a 2.5D packaging, the processor integrates two dies, boasting a staggering 60 billion transistors. Designed for high-efficiency computing, it includes 128 high-performance Armv9 CPU cores. Each core encompasses a 64KB level one instruction cache, a 64KB level one data cache, and a shared 1MB level two cache. This architecture supports extensive on-chip memory including a 128MB system cache, ensuring rapid data access and processing.
The GenAI v1-Q from RaiderChip brings forth a specialized focus on quantized AI operations, reducing memory requirements significantly while maintaining impressive precision and speed. This innovative accelerator is engineered to execute large language models in real-time, utilizing advanced quantization techniques such as Q4_K and Q5_K, thereby enhancing AI inference efficiency especially in memory-constrained environments. By offering a 276% boost in processing speed alongside a 75% reduction in memory footprint, GenAI v1-Q empowers developers to integrate advanced AI capabilities into smaller, less powerful devices without sacrificing operational quality. This makes it particularly advantageous for applications demanding swift response times and low latency, including real-time translation, autonomous navigation, and responsive customer interactions. The GenAI v1-Q diverges from conventional AI solutions by functioning independently, free from external network or cloud auxiliaries. Its design harmonizes superior computational performance with scalability, allowing seamless adaptation across variegated hardware platforms including FPGAs and ASIC implementations. This flexibility is crucial for tailoring performance parameters like model scale, inference velocity, and power consumption to meet exacting user specifications effectively. RaiderChip's GenAI v1-Q addresses crucial AI industry needs with its ability to manage multiple transformer-based models and confidential data securely on-premises. This opens doors for its application in sensitive areas such as defense, healthcare, and financial services, where confidentiality and rapid processing are paramount. With GenAI v1-Q, RaiderChip underscores its commitment to advancing AI solutions that are both environmentally sustainable and economically viable.
A compact and efficient microprocessor, the Y180 is a clone of the Zilog Z180 CPU, exhibiting approximately 8K gates. Developed with a focus on minimalism and effectiveness, the Y180 operates with unparalleled precision in constrained environments.
The C100 represents an advanced integration of wireless microcontroller capabilities for Internet of Things (IoT) applications. Built around a powerful 32-bit RISC-V CPU operating at speeds up to 1.5GHz, this chip delivers high-efficiency processing and data handling. Embedded with RAM and ROM, the C100 is designed to maintain high performance while minimizing power usage. Complementing its processing power, the C100 integrates extensively with wireless functionalities including Wi-Fi, and supports a multitude of transmission interfaces. Additionally, it includes an Analog-to-Digital Converter (ADC), Low Dropout Regulator (LDO), and a temperature sensor, allowing it to cater to diverse application needs swiftly and efficiently. Its design seeks to offer seamless application development that is broad in range yet simple and fast, making it a perfect choice for developers focused on creating robust IoT solutions. The C100's strength lies not just in its integrated components but also in its ability to adapt to secure, high-performance environments, making it useful for smart home systems, healthcare devices, and more.
The RV32EC_P2 Processor Core by IQonIC Works is a streamlined 2-stage pipeline RISC-V processor designed for low-power embedded applications running trusted firmware. This processor core supports ASIC and FPGA design flows and implements the RISC-V RV32E instruction set, complemented by optional standard extensions like integer multiplication and division. The core allows for specific instruction set extensions, such as for Digital Signal Processing (DSP) operations, enhancing its adaptability to various applications. Key features include a simple machine-mode architecture with direct physical memory access and the support for up to 20 extended interrupts. It has a clock-efficient 2-stage pipeline, optimized for speed with most instructions completing in a single cycle. For low-power operation, the design includes provisions for clock gating during idle states, making it ideal for energy-sensitive use cases. The processor interfaces with AHB-Lite or APB for extended memory and memory-mapped I/O. This core is highly configurable, adaptable for various embedded scenarios with support for RISC-V Privileged Architecture, and offers comprehensive memory interfaces to fit different design needs. IQonIC Works provides extensive tooling and support, including a compatible GNU tool chain and Eclipse development environment, ensuring developers can leverage this processor's full potential.
The SCR1 Microcontroller Core is a silicon-proven, entry-level 32-bit RISC-V core designed for general-purpose embedded and control systems applications. It supports RISC-V standards, offering an integrated in-order 4-stage pipeline and features like TCM and IPIC units for efficient interrupt processing. Supporting industry-standard interfaces such as AXI4 and AHB-Lite, it's open-sourced under the SHL license, enhancing its commercial and educational utility with ready-to-use development tools.
The Y180S is an enhanced variant of the Y180, incorporating additional safety mechanisms to ensure secure operation. With a gate count of roughly 10K, it delivers robust computing power in applications requiring heightened reliability and error handling.
The Fast 8-bit 8051 with On-Chip Debug M8051EW is a sophisticated microcontroller core that enhances the M8051W design with integrated on-chip debug features. This core supports hardware debugging through a JTAG debug port, facilitating external debugging environments. The M8051EW delivers the same fast performance as the M8051W, executing machine cycles in just two clock cycles, but also offers support for hardware breakpoints, instruction traceback, and full read/write access to registers and memories. These features make it ideal for applications where debugging capabilities are essential.
The RV32IC_P5 is a 5-stage pipeline RISC-V processor core suited for medium-scale embedded applications requiring higher performance and cache capabilities. This core enhances system capability by providing features including 16-bit compressed instructions and options for standard extensions, such as support for machine-mode protected application execution. It comprises a robust architecture with machine, and user-mode functionalities, supporting up to 20 extended interrupts and optional user-mode extensions for handling exceptions. This design is aimed at enhancing multitasking and system performance, with an optional predictive branching system to reduce latency. With tight integration capabilities, it connects strategically to AHB-Lite interfaces and advanced memory mapped systems, offering support for virtual prototyping and extensive toolchain development environments, suitable for applications demanding rigorous performance enhancements within an embedded context.
The SCR3 Microcontroller Core is a power-efficient 32/64-bit RISC-V processor ideal for small-area embedded applications demanding high performance. Equipped with a 5-stage in-order pipeline and a robust interrupt processing system, the SCR3 supports advanced memory coherency and multicore configurations, enabling complex real-time operations. The core's design includes configurable memory protection and sophisticated interfaces such as AXI and AHB, ensuring versatility and adaptability in various industrial environments.
The SCR4 Microcontroller Core delivers high performance with a focus on low power and large-area efficiency. It brings floating-point computing capabilities to the 32/64-bit domain via a robust RISC-V platform. This core's architecture integrates a strategic 5-stage pipeline and advanced interrupt handling, making it suitable for mobile and smart sensor applications. With flexibility in multicore configurations and exceptional compatibility owing to industry-standard interfaces, SCR4 is well-equipped for real-time operations.
With 161K gates and a 128-pin configuration, the Rabbit 4000 marks a significant leap in capability for the Rabbit microprocessor line. This design is especially suited for applications that demand higher processing power and more complex peripheral interfaces. Its architecture is tailored to fit various production needs, ranging from compact gadgets to expansive industrial machinery, providing a versatile computing solution.
ASIC North offers a comprehensive suite of ARM Cortex-M® microcontrollers and processors, tailored for seamless integration into a variety of industry-specific systems. These ASICs are designed to deliver top-notch performance and efficiency, suitable for applications ranging from IoT to complex industrial systems. With a focus on providing reliable and scalable solutions, these ASICs cater to evolving technological needs while maintaining a high standard of quality and technical precision.<br><br>The ARM M-Class ASICs provide clients with the flexibility to adapt quickly to changing market demands. Leveraging years of expertise in semiconductor design, ASIC North ensures that these processors are optimized for a wide range of tasks, from enhancing communication protocols to facilitating advanced data processing functions. Continuous development and testing further ensure that these ASICs fulfill rigorous industry standards and client specifications.<br><br>By integrating these ARM M-Class ASICs, businesses gain access to next-generation capabilities that enhance overall operational efficiency. Whether deployed in robust industrial applications or cutting-edge consumer electronics, these ASICs are built to support dynamic performance needs, offering both reliability and adaptability across various sectors.
IMEC's Neuropixels Probe heralds a new era in neural recording, offering unprecedented resolution and sensitivity for neuroscientific explorations. This advanced probe facilitates the mapping of intricate neural networks, providing neuroscientists with a powerful tool to study brain function with extraordinary precision. Each probe is equipped with a dense array of recording sites, capable of capturing electrical activities from a large number of neurons simultaneously, thus unveiling the complexities of neural dynamics previously beyond reach. The Neuropixels Probe integrates cutting-edge technology with streamlined design, optimizing both data quality and user experience. Its architecture supports long-duration recordings with minimal interference, which is crucial for gaining a comprehensive understanding of neural patterns over time. This capability is vital for research areas like cognitive function, neurodegenerative diseases, and behavioral studies, where tracking changes in neural networks provides valuable insights into processes underlying health and disease. By harnessing state-of-the-art fabrication techniques, IMEC ensures that each probe delivers reliability and performance, meeting the diverse requirements of global research institutions. These probes are pivotal for breakthroughs in developing brain-computer interfaces and in advancing our understanding of neurological conditions, setting the stage for new therapies and treatments. Through the Neuropixels Probe, IMEC confirms its position as a leader in advancing technologies that open new vistas for neuroscientific research.
The PB8051 Microcontroller Core, tailored for Xilinx FPGAs, exemplifies Roman-Jones's commitment to providing sophisticated microcontroller solutions. This core is an 8031-compatible implementation from the revered 8051 Microcontroller Family, designed to operate smoothly within the Xilinx ISE flow. It includes vital features such as two timers and a serial port, ensuring comprehensive functionality akin to the traditional 8031 hardware. Remarkably, the PB8051 core allows users to execute standard 8051 object code, making it perfect for applications relying on legacy software. Its compact design, utilizing approximately 300 slices, ensures efficient use of FPGA resources. The core is supported across numerous Xilinx FPGAs, from Spartan II onwards, making it a versatile choice for engineers looking to optimize their digital designs without extensive reprogramming. The PB8051 also includes powerful features for customization, offering configurations accessible through VHDL and Verilog, complete with simulation netlists and reference designs. This flexibility allows engineers to tailor the microcontroller to specific project requirements seamlessly. Furthermore, the core is available through a SignOnce IP license, which facilitates unlimited usage, thus adding a layer of practical value for developing diverse embedded solutions.
The Rabbit 2000 is a compact, synthesizable microprocessor design featuring approximately 19K gates and 100 pins. It is part of the Rabbit series, which has been engineered for flexible implementation in various contexts, from field-programmable gate arrays to full custom applications. Initially devised as a foundational product, the Rabbit 2000 delivers performance optimized for a wide range of uses while maintaining a small footprint, making it suitable for diverse electronic applications.
The SFA 100 Edge IoT Data Processing solution offers streamlined data handling for IoT applications at the edge. It is optimized to efficiently process data collected from various IoT devices, ensuring quick and effective data transfer and analysis locally. This solution supports intelligent data processing near the source, which is critical for reducing latency and bandwidth usage in IoT networks.
The DQ80251 is an ultra-high-performance microcontroller core designed for embedded systems. It supports 16-bit and 32-bit operations and utilizes a Quad-Pipeline architecture to enhance processing capabilities. With a versatile instruction set compatible with both 8051 and 80251 standards, this core ensures broad applicability in various systems. Notably, it achieves impressive performance metrics, allowing it to manage extensive code bases while maintaining efficient processing speeds. Through its optimized framework, it facilitates streamlined integration with a range of peripheral devices and offers significant improvements in data throughput.
iCEVision is a powerful evaluation platform for the iCE40 UltraPlus FPGA, providing designers with the tools needed to rapid prototype and confirm connectivity features. The platform is compatible with most camera interfaces like ArduCam CSI and PMOD, allowing seamless integration into various imaging solutions. The board's exposed I/Os make it easy to implement and test user-defined functions, facilitating swift development from concept to production. It is equipped with a programmable SPI Flash and SRAM, supporting flexible programming using Lattice's Diamond Programmer and iCEcube2 software. With its small footprint and robust capabilities, iCEVision is ideal for developers looking to design customized projects. It's a go-to solution for rapid prototyping, ensuring efficient and effective deployment of visual processing applications in diverse arenas.
The Rabbit 6000 stands as the most robust in the series, accommodating approximately 760K gates and equipped with 292 pins. This exemplary microprocessor excels in complex applications requiring extensive functionality and processing speed. By integrating state-of-the-art analog IP components, the Rabbit 6000 achieves enhanced performance efficiencies, setting a high standard for semiconductor solutions in advanced technology sectors.
The Rabbit 3000 microprocessor builds upon its predecessor with an increased gate count of approximately 31K and an expanded pin configuration of 128 pins. This enhanced architecture offers increased computational capabilities while maintaining efficient power consumption. It is designed to function effectively within FPGA and custom ASIC environments, ensuring flexibility and scalability for varying project requirements.
The Y8002 is a synthesizable model, mirroring the specifications of a Zilog microprocessor with a gate count of approximately 15K. It is engineered to deliver dependable performance across various applications, providing a versatile solution for electronic designs.
The P8700 Series represents a cutting-edge family of high-performance processors designed for next-generation computing applications. Built on a RISC-V architecture, these processors leverage advanced multi-threading capabilities to deliver superior scalability and efficiency. This architectural design enables simultaneous processing of complex data tasks, thereby enhancing overall system performance. The P8700 Series includes a four-wide, out-of-order execution pipeline with a 16-stage design that ensures high processing speed and precision. It supports 1- or 2-way SMT, allowing multiple threads to be processed concurrently, maximizing resource utilization and throughput. Additionally, it features a customizable instruction set with MIPS' unique enhancements, which improve data handling and memory operations. Notably, the P8700 Series supports coherence manager for seamless interaction among up to eight different coherent initiators. These can be either MIPS RISC-V processors or third-party accelerators, optimizing performance in heterogeneous environments. With options for system interfaces like ACE or AXI with a substantial 256-bit system bus, the P8700 Series offers robust platforms suitable for applications requiring high computational density and efficiency. These processors are also designed to meet the rigorous requirements of automotive applications, ensuring both high performance and safety compliance.
Designed as an efficient entry-level Linux-capable processor, the SCR5 Application Core provides robust features with a strong emphasis on heterogenous multicore environments. Supporting modern RISC-V extensions including Atomic, Floating Point, and Compressed instructions, it houses a 9-stage pipeline and a floating-point computing unit. This core is tailor-made for applications like IoT and wearable devices, offering seamless real-time and Linux OS execution through its advanced memory and interrupt management systems.
The eFPGA IP Cores v5 from Menta are high-density embedded programmable logic IPs tailored for integration into SoCs and ASICs. These cores are crafted to cater to a diverse array of markets, making them highly adaptable for varying application needs. Uniquely, they allow designers to precisely define the necessary resources, such as logic blocks, DSPs, and RAMs, and the specific interconnects needed for their projects. This adaptability ensures the IPs meet the distinct requirements of different sectors efficiently. Menta's eFPGA IP is designed to provide flexible deployment options, available as both Soft RTL and Hard GDSII IP, which enriches the designers' choice for implementing on-chip FPGA functionalities. This versatility contributes to reducing overall production costs by integrating FPGA capabilities directly into chips, conserving board space and maintaining field-upgradable features. With a core focus on enhancing performance, Menta ensures the IP eliminates common bottlenecks such as board space and I/O latency by facilitating on-chip accelerators. Additionally, the solution ensures substantial reductions in power consumption, using as little as 10-50% of the power compared to typical FPGAs. Its process-portability further stands out, allowing for rapid transitions across various process geometries and foundry nodes, from 350nm to advanced nodes like 5nm, fostering timely adaptions to evolving standards and conditions in semiconductor design. The comprehensive adaptability and robustness of Menta's eFPGA IP make it an ideal choice for addressing contemporary and future demands in embedded programmable logic.
The Processor and Microcontroller Cores offered by So-Logic include a diverse range of popular microprocessor and microcontroller components, designed to meet the needs of modern electronic applications. These cores provide the essential computational capabilities required across various industries and are engineered for optimal performance in embedded systems. So-Logic's portfolio includes cores for widely used microprocessors and microcontrollers, ensuring that developers have the tools they need to build efficient and reliable computing systems. These cores simplify the development process, offering compatibility with a range of development environments and tools. With complete verification and a full suite of supportive resources, the cores facilitate straightforward integration into FPGA platforms. They also come with detailed design notes, comprehensive datasheets, and sample applications that aid in the ease of system development and deployment. Extensive technical support ensures that developers can navigate any challenges that arise during their project implementation, making these Processor and Microcontroller Cores a valuable asset in the creation of advanced electronic systems.
Expanding the Rabbit microprocessor series' capabilities, the Rabbit 5000 is crafted with 540K gates and a dense 289-pin configuration. This design is intended for high-performance applications, offering superior processing power tailored to demanding industrial and consumer electronic environments. Emphasizing flexibility, the Rabbit 5000 can be adapted to various technology platforms, including ASICs and custom implementations.
The Classic 8052 M8052 is engineered to replicate the operational characteristics of the iconic Intel 87C51 and 87C52 devices. By maintaining clock cycle accuracy, this microcontroller simplifies the migration of existing applications to a newer design. The M8052 utilizes a 12-clock per machine cycle architecture, which aligns with the timing of industry-standard devices, ensuring smooth integration and reliable performance. Typical instructions complete within 12 or 24 clock cycles, except for more complex multiply and divide operations, which require 48 cycles. This design is particularly valued where legacy software depends on precise timing relationships.
The Fast 8-bit 8051 M8051W is an advanced microcontroller core known for its exceptional speed and energy efficiency. Designed to perform each machine cycle in two clock cycles, it achieves a performance level that is six times faster than traditional M8051 and M8052 cores, while maintaining binary and memory cycle compatibility with Intel MCS-51 devices. The M8051W incorporates advanced features such as additional data pointers, enhanced interrupt support, multiple clock domains for power optimization, and synchronous memory support, enabling it to meet the needs of high-performance applications.