With the ability to shift computing resources as needed, Microchip Technology Inc.’s new 64-bit, RISC-V processors bring needed flexibility to embedded edge devices. https://bit.ly/3zLpQSO
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DFI Revolutionizes AI in IPCs with MTH968: Intel's Latest AI Processor Inside! DFI, a pioneer in embedded motherboards, introduces MTH968, an Embedded System Module with the groundbreaking Intel® Core™ Ultra processor. This marks a milestone as the first AI IPC, integrating an NPU for advanced AI edge computing. Key Advancements: - Meteor Lake processor for integrated CPU, GPU, and NPU. - Enhanced performance with 30-50% reduced power consumption. - Improved GPU performance by up to 114%. Fanless, wide-temperature design for robust performance (-40°C to 85°C). DDR5 and NVMe SSD support for high-efficiency computing. Applications & Impact: DFI's MTH968 is set to redefine AI in the industrial sector, finding applications in AIoT fields like industrial automation, smart transportation, and smart agriculture. #dfi #aiipc #intelprocessor #aiedge #embeddedtechnology #electronics #innovationinai #electroniccomponents #industrialautomation #DFI #aiprocessor #intelai #edgecomputing #techrevolution #techinnovation #techinnovation2024
DFI Unveils Embedded System Module Equipped with Intel’s Latest AI Processor to Enter the AI IPC Market
electronics-journal.com
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Fun Facts from the Top500 and Green500 from SC23: 1. AMD's Frontier holds the performance title at 1.194 EFlop/s, which is more than twice the performance of Intel Corporation’s Aurora (585.34 PFlop/s), while consuming a comparably miserly 22.70 MW of energy compared to Intel Aurora’s 24.69 megawatts (MW) of energy (yes, that's less power for the full Frontier supercomputer than half of the Aurora system). 2. AMD powers 140 of the TOP500 supercomputers in the world. That is up from 101 in November 2022 (39% YoY increase). 3. AMD powers 8 of the top 10 Green500, a ranking of supercomputers, from the TOP500 list of supercomputers, in terms of energy efficiency. 𝗡𝗼𝘁 𝗲𝘃𝗲𝗿𝘆 𝗱𝗮𝘁𝗮 𝗰𝗲𝗻𝘁𝗲𝗿 𝗻𝗲𝗲𝗱𝘀 𝗮 𝘀𝘂𝗽𝗲𝗿𝗰𝗼𝗺𝗽𝘂𝘁𝗲𝗿. 𝗕𝘂𝘁, 𝗵𝗮𝘃𝗶𝗻𝗴 𝘁𝗵𝗲 𝗯𝗲𝘀𝘁 𝗽𝗲𝗿𝗳𝗼𝗿𝗺𝗮𝗻𝘁 𝗮𝗻𝗱 𝗺𝗼𝘀𝘁 𝗲𝗻𝗲𝗿𝗴𝘆 𝗲𝗳𝗳𝗶𝗰𝗶𝗲𝗻𝘁 𝗖𝗣𝗨𝘀 𝗶𝗻 𝘆𝗼𝘂𝗿 𝗱𝗮𝘁𝗮 𝗰𝗲𝗻𝘁𝗲𝗿 𝗺𝗮𝗸𝗲𝘀 𝗶𝘁 𝗳𝗲𝗲𝗹 𝗹𝗶𝗸𝗲 𝘆𝗼𝘂 𝗱𝗼. #AMD #EPYC #togetherweadvance_performance #togetherweadvance_efficiency #togetherweadvance_upandtotheright 🚀🚀🚀 https://bit.ly/47eEXAc
Frontier remains No. 1 in the TOP500 but Aurora with Intel’s Sapphire Rapids chips enters with a half-scale system at No. 2
top500.org
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💡 Alongside the innovative hybrid architecture P&E cores of the Intel Alder Lake Processor, we now have access to enhanced speeds and more energy-efficient operation through DDR5 SDRAM technologies. These advancements empower computers to tackle resource-intensive tasks like AI-driven applications and video processing. This blog will investigate industrial DDR5 memory compatibility with the Intel Alder Lake and Raptor Lake Processors. 👉 Read the full blog here: https://lnkd.in/gNjBMspw #ddr5 #ddr4 #doubledatarate #ram #memory #edgecomputing
What Is DDR5? The Latest Industrial DRAM Module Generation
candtsolution.com
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Ampere a leading technology company, has recently unveiled a groundbreaking 3nm variant of its data centre AI chip. This new chip boasts an impressive 256 cores and represents a significant leap forward in AI processing capabilities. In collaboration with Qualcomm, Ampere is also working on advancing AI inference technology, utilizing the Qualcomm Cloud AI 100 inference solutions alongside Ampere CPUs. The latest Ampere 3nm 256 core variant is designed to utilize the same air-cooled thermal solutions as the existing 192 core AmpereOne CPU. Despite this, it promises to deliver over 40% more performance than any other CPU currently available on the market, all without the need for complex platform designs. Ampere's highly anticipated 192-core 12-channel memory platform is still on track for release later this year. #electricalengineering #electronics #embedded #embeddedsystems #electrical #computerchips Follow us on LinkedIn to get daily news: HardwareBee - Electronic News and Vendor Directory
Ampere and Qualcomm Collaborate on 3nm 256-Core AI Chip
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In this Fierce Electronics article, Cabe Atwell explains how #RISCV offers flexibility and customizability, along with higher computation densities compared to other architectures like Arm. Learn more below.
RISC-V vs. ARM processors: A quick comparison
fierceelectronics.com
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On a Mission Building Next Gen Digital Infrastructure | AI Data Centers | AI Compute | GPU Cloud | AI Cloud Infrastructure Engineering Leader | Hyperscalers| Cloud,AI/HPC Infra Solutions | Sustainability | 9K Linkedin
Portwell Inc. has expanded its COM Express module product line with release of the PCOM-B65A, a module that utilizes the new generation Intel Core Ultra processor and is based on the COM Express Basic size form factor (125-by-95mm), continuing the popular legacy of rich I/O interface solutions. To meet growing computing demands for optimized performance per watt, richer I/O interfaces, and increased memory/storage capacity, there is an increasing need for embedded computing to provide faster, more efficient processing capabilities while meeting stringent and evolving reliability requirements. In today’s era, as advocated by Portwell, scalability and upgradeability remain fundamental key considerations in computing technology innovation and solution design. The well-recognized Computer-on-Module (COM) modular computing concept and the latest COM Express prove this. The Module Base Specification Revision 3.1 expands the usability of COM Express, supporting high-speed interfaces such as PCIe Gen 4 and USB4. This upgrade aims to extend the highly scalable modular embedded computing design approach, offering a new computer module solution that combines next-generation CPU technology with high-speed input/output interfaces for greater upgradeability and configuration flexibility.
Portwell Expands COM Express Module Portfolio - EE Times Asia
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DRAM Market Report Includes Dynamics, Products, and Application 2024 – 2033 https://lnkd.in/dyvtPchr DRAM Market Overview: The DRAM (Dynamic Random Access Memory) market is a crucial segment of the semiconductor industry, playing a fundamental role in storing and retrieving data in electronic devices such as computers, smartphones, servers, and automotive systems. DRAM chips provide volatile memory storage, enabling fast access to data for processing by the device's central processing unit (CPU). This comprehensive overview delves deep into the historical developments, current trends, product portfolio, production mode & process, restraints, and data triangulation methods relevant to the DRAM market. Historical Developments: The development of DRAM technology can be traced back to the early days of computing when volatile memory solutions were required to store program instructions and data for processing. The first commercially available DRAM chip, the Intel 1103, was introduced in 1970, marking a significant milestone in the history of semiconductor memory. The Intel 1103 offered 1 kilobit (1Kb) of storage capacity and revolutionized the computer industry by providing a cost-effective alternative to existing memory technologies such as magnetic core memory. Throughout the 1970s and 1980s, DRAM technology continued to advance rapidly, with manufacturers increasing chip densities, improving performance, and reducing production costs. The introduction of higher-density DRAM chips, such as 64Kb and 256Kb devices, enabled the development of more powerful and affordable computers, fueling the growth of the personal computing market. In the 1990s, the proliferation of multimedia applications and the emergence of the internet drove demand for higher-performance DRAM solutions. Manufacturers responded by introducing faster DRAM architectures, such as synchronous DRAM (SDRAM) and double data rate (DDR) SDRAM, which offered increased bandwidth and improved data transfer rates. The early 2000s saw the introduction of DDR2, DDR3, and DDR4 DRAM technologies, each offering successive improvements in performance, power efficiency, and data capacity. These advancements enabled the development of high-performance computing systems, gaming consoles, and mobile devices with increasingly demanding memory requirements. In recent years, the DRAM market has faced challenges related to technological scaling, manufacturing complexity, and market consolidation. Despite these challenges, ongoing innovations in DRAM architecture, materials science, and process technology continue to drive advancements in memory performance, capacity, and reliability, ensuring the continued relevance and growth of the DRAM market in the digital age. Trends: Several key trends are shaping the evolution of the DRAM market and influencing product development, market dynamics, and consumer demand: Increasing Demand for Memory
DRAM Market Report Includes Dynamics, Products, and Application 2024 – 2033
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Unraveling the Wonders of Microprocessors: The Brains Behind Modern Computing Introduction: Microprocessors, often hailed as the unsung heroes of the digital age, play a pivotal role in powering the devices that have become indispensable in our daily lives. This article delves into the intricacies of microprocessors, exploring their evolution, architecture, and the profound impact they've had on computing. Evolution of Microprocessors: The journey of microprocessors began in the early 1970s when Intel released the groundbreaking 4004, a 4-bit processor with a clock speed of 740 kHz. Since then, the semiconductor industry has witnessed a remarkable evolution, with subsequent generations of microprocessors becoming smaller, faster, and more powerful. Architecture: At its core, a microprocessor is a central processing unit (CPU) that executes instructions stored in memory. The architecture of a microprocessor encompasses components like the arithmetic logic unit (ALU), control unit, registers, and cache. The Von Neumann architecture, which separates data and instructions, has been a foundational concept guiding microprocessor design. Key Components: 1. **Arithmetic Logic Unit (ALU):** The ALU performs arithmetic and logic operations, manipulating data according to the instructions provided. 2. **Control Unit:** Responsible for coordinating and managing the execution of instructions, the control unit ensures the proper flow of data within the microprocessor. 3. **Registers:** Small, fast storage locations within the microprocessor, registers temporarily hold data and instructions for processing. 4. **Cache Memory:** To enhance speed, modern microprocessors incorporate cache memory, a small, high-speed type of volatile computer memory that provides high-speed data access. Advancements in Microprocessor Technology: Advancements in semiconductor technology, such as Moore's Law, have led to the development of microprocessors with increasingly smaller transistor sizes, allowing for higher transistor density and improved performance. Multi-core processors have also become prevalent, enabling parallel processing and improved multitasking capabilities. Applications: Microprocessors are omnipresent in our daily lives, powering a myriad of devices ranging from smartphones and laptops to cars and household appliances. They form the backbone of modern computing systems, enabling the execution of complex tasks with remarkable speed and efficiency. Challenges and Future Trends: As microprocessors continue to evolve, challenges such as heat dissipation and power consumption become increasingly significant. Future trends may involve innovations like quantum processors, neuromorphic computing, and continued efforts to improve energy efficiency. Conclusion: In the realm of technology, microprocessors stand as the silent architects of our digital landscape. #snsinstitutions #designthinking #snsdesignthinkers #snsmct
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THE EARLY HISTORY OF THE MICROCONTROLLER: IT CAME FROM TEXAS Although for most generations alive today the era of microcontrollers (MCU) feels like it starts somewhere with the Intel 8051 and AVR MCUs, the history of these self-contained computing marvels that are now found just about anywhere begins long before those were even conceptualized. In a recent article titled Tiny Computers From Texas, [Babbage] goes through this early history of what would ultimately become such an integral part of daily life. An MCU is defined as a small, self-contained computer, which requires few to no external components to function. This contrasted with the more traditional MPUs, or microprocessor units, where a computer was assembled out of one or more MPUs, I/O chips, memory SRAM and so on. It’s perhaps little surprise that the drive towards MCUs was the result of primarily the calculator market, where competing firms were trying to upstage each other with higher levels of integration into as few chips as possible, while driving down costs and power usage. Ultimately, the Texas Instruments TMS 1000 was the first true MCU that got produced in large volumes after its release in 1974. Moving beyond calculators, the TMS 1000 found its way into toys, including the Speak & Spell – which uses another Ti chip (TMS 5100) for the voice synthesis – so that today any toy can be interactive in exciting and often noisy ways. Nice article from Hackaday #Microcontrollers #TechnologyHistory #Hackaday #interesting #technology #technews #semiconductors #wireless #hardware Infineon Technologies Texas Instruments Atmel Corporation Microchip Technology Inc. NXP Semiconductors Renesas Electronics Nuvoton Technology Corporation STMicroelectronics Silicon Labs
The Early History Of The Microcontroller: It Came From Texas
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How the TI TMS9900 lost the most significant race in computing history… The Texas Instruments TMS9900 microprocessor was used in the world’s first IBM 16-bit home computer in 1978, but you’ve probably never heard of it. Its development came from a need for a general-purpose microprocessor and an industry standard for minicomputers, defense systems, and consumer products. As growing sectors of TI's business, TI would have to leapfrog the current 8-bit state of the art – Intel’s 8080 – and be first to market with a 16-bit architecture. However, development of the TMS9900 wouldn’t be ready until 1975 or ’76. The plan started by copying the Intel 8080A to get something into the market, then develop a TI-original 8-bit microprocessor architecture (TMS5500), and move to the 16-bit TMS9900. The TMS9900 was ready in 1976, but faced several big problems, including no compatible 16-bit peripheral chips, rendering it useless for system designs. Other problems included the 9900 architecture having only 16 bits of logical address space, the same as the 8-bit microprocessors. TI got around this by putting an 8-bit port on the TMS9900, so peripheral chips designed for 8-bit microprocessors would work with it. But it negated the performance, and only real advantage of the 16-bit architecture. Intel was developing its own 16-bit microprocessor, the 8086, introduced in 1978, and addressed the lack of compatible 16-bit peripheral chips in the same way as TI, called the Intel 8088. Like the TI 9980, the Intel 8088 was also a dog, with lower performance than the 8086, although it had 20 bits of logical address space instead of 16. Others joined the race including Motorola with the 68000, which had 32-bit architecture, and 24 bits of logical address space, and Zilog, with its 16-bit Z8000. But, TI’s 16-bit microprocessor strategy wasn’t working, as well as an unsuccessful attempt to make a compatible 16-bit microcontroller (TMS9940). At the time, IBM was developing its PC to bring to market as quickly as possible, and was to use third parties for anything, including a 16-bit microprocessor. The Motorola 68K was the hands-down winner, but it wasn't quite ready, whereas Intel’s 8088, despite being imperfect, was. IBM’s component qualification process required a supplier to offer up thousands of “production released” samples so IBM could perform life tests, and with only two fully qualified 16-bit microprocessors to choose from, Intel’s chip was less imperfect than TI’s. TI’s TMS9900 was eventually fitted into the TI-99/4 home computer after missing out on the IBM PC, but only 2.8 million units were sold (at a loss), forcing TI to pull out of the market in 1984. The Intel 8086 architecture evolved and overcame its shortcomings, and Motorola, with its superior #technology, lost the most important design contest of the last 50 years… Daily #electronics from Asia insights – connect with me, Case, and never miss a post by ringing my 🔔. #innovation
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