Latest Lattice FPGA offers advanced crypto-agility #embeddededge #embedded
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FPGA designs can be game-changing. So having configurable design examples ready to use, means you can focus on what really matters: your groundbreaking ideas ⚡ And as you know, here at Altera, we’re all about #AcceleratingInnovators 📈 so we’ve released Quartus® Prime Software v24.1, which supports our newest mid-range AI-infused Agilex™ 5 FPGAs E-Series, so you can do exactly that! Read the blog to find out more about all the capabilities this latest release can unlock for you and your next #FPGAinnovation! https://intel.ly/44jQm1b #WeAreAltera
Unleash the Power of Agilex™ 5 FPGAs E-Series with Quartus Prime Pro Edition Software v24.1!
community.intel.com
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Real-time Trace and Profiling with ARM Coresight ARM Coresight technology revolutionizes embedded systems and microcontroller development by offering real-time trace and profiling capabilities. ARM Coresight primary purpose is to streamline debugging and profiling processes in embedded systems, making them efficient and effective. Coresight encompasses features like hardware-based trace and performance monitoring units (PMUs), which provide deep insights into system operations without significant performance overhead. Real-time Trace Real-time trace, a pivotal component of ARM Coresight, allows developers to capture and analyze a program's execution flow as it happens. This feature is valuable for debugging intricate real-time systems and identifying performance bottlenecks in embedded applications. Key Components of Real-time Trace: 1. Trace Sources: ARM processors feature multiple trace sources, such as instruction trace and data trace. These sources capture execution history, register values, and memory access information, giving developers a complete picture of the system's behavior. 2. Trace Sinks: Trace data is routed to off-chip components like trace probes or analyzers. These sinks collect and store trace data for analysis, ensuring minimal impact on system performance. 3. Timestamps: Real-time trace includes timestamps, recording when events occur during program execution. This temporal data is crucial for understanding timing relationships between various parts of the system. Profiling with Coresight Beyond real-time trace, ARM Coresight offers performance monitoring capabilities to profile applications and identify performance bottlenecks. This is vital for optimizing system performance and resource utilization. Key Components of Profiling with Coresight: 1. Performance Monitoring Units (PMUs): ARM processors are equipped with PMUs tracking performance metrics like cache hits/misses, instruction/data access patterns, and core utilization. These metrics help developers identify areas for optimization. 2. Event Counters: PMUs include event counters programmable to monitor specific events or conditions. For instance, you can set up a counter to track cache misses, identifying cache-related performance issues. 3. Sampling Profilers: Coresight supports sampling profilers capturing periodic snapshots of the program's state. Analyzing these snapshots helps identify frequently executed code paths and resource-intensive functions. In conclusion, ARM Coresight is a powerful toolset empowering developers to optimize, debug efficiently, and profile embedded systems. Providing real-time trace and profiling capabilities, Coresight plays a crucial role in ensuring the efficiency and reliability of ARM-based microcontroller applications. ARM #Coresight #EmbeddedSystems #RealTimeTrace #PerformanceProfiling #Debugging #Microcontrollers
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Hi folks, Wavelet Lab's xMASS SDR redefines the possibilities of software-defined radio with its cutting-edge modular MIMO architecture. This innovative transceiver paves the way for groundbreaking advancements in 4G/5G technology. ● Modularity: Features slots for up to four SDR boards, offering eight transmit and receive channels. ● High Performance: Achieves up to 60 MSPS across eight channels and 100 MSPS across four, perfect for demanding applications. ● Advanced Chipset: Utilizes the dual-transceiver LMS7002, enhancing functionality over the previous LMS6002D. ● Compact and Powerful: Maintains a super-compact M.2 2230 form factor, powered by an AMD Artix XC7A35T FPGA. ● Versatile Use Cases: Supports multiple applications simultaneously, from 4G networking to professional mobile radio and spectrum monitoring. ● Open Development: Backed by software from Wavelet Lab on GitHub and compatibility with LimeSuite, thanks to a partnership with Lime Microsystems. Read more: https://cstu.io/abd3d2 #SDRRadio #FPGA #Embedded #Communication #4G5GTechnology #EngineeringRecruitment #EmbeddedRecruiter #RunTimeRecruitment
xMASS SDR: Modular MIMO Transceiver for 4G/5G Applications
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** Synergistic Verification of Hardware Peripherals through Virtual Prototype Aided Cross-Level Methodology Leveraging Coverage-Guided Fuzzing and Co-Simulation #riscv https://lnkd.in/gQkbCeCK
Synergistic Verification of Hardware Peripherals through Virtual Prototype Aided Cross-Level Methodology Leveraging Coverage-Guided Fuzzing and Co-Simulation
mdpi.com
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📌Continuation of last post : Q/A's related to the SPI (Serial Peripheral Interface) protocol: Q6: Does SPI require pull-up resistors like I2C? A6: Unlike I2C, SPI does not require pull-up resistors as it is a synchronous protocol with separate clock and data lines. However, other hardware considerations, such as termination resistors, may be necessary depending on the specific system design. Q7: What is the role of clock polarity and phase in SPI? A7: Clock polarity (CPOL) and phase (CPHA) determine the clock's idle state and data capture timing, respectively. Different devices may have different clocking configurations, so it's essential to ensure the master and slave are set up with compatible clock modes. Q8: Can SPI support multiple slave devices on a single bus? A8: Yes, SPI can support multiple slave devices on a single bus. Each slave device is assigned a separate SS/CS line, and the master can select a specific slave by activating its corresponding SS/CS line. Q9: Does SPI provide error-checking mechanisms like parity bits in UART? A9: Unlike UART, SPI does not include built-in error-checking mechanisms like parity bits. If error-checking is required, it must be implemented at a higher layer of the communication protocol or through custom error-handling in the application. Q10: What are some common applications of SPI? A10: SPI is commonly used in various applications, including communication with sensors, memory devices, display modules, data converters, and other peripheral devices in embedded systems, microcontrollers, and communication modules. Its high-speed, full-duplex nature makes it suitable for scenarios requiring efficient and reliable data transfer. Thank You!! #spi #communicationprotocols #vlsi #systemverilog #verilog #soc #hardwaredesign #embeddedsystems #digitaldesign
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LAST CHANCE TO REGISTER! https://lnkd.in/eX83hXwh This is an exclusive, non-technical workshop just for managers of FPGA / SoC projects and programs. #fpga #amd #embedded #systemonchip #embeddedsystems #aerospaceanddefense #hardwareengineering #hardwaredesign #pcbdesign #adaptivecomputing
Adaptive Computing for Managers Workshop: Techniques for Managing FPGA, SOC and SOM Projects
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Power-supply sequencing is always essential in high-performance processing devices like DSP, CPU, FPGA, in order to achieve reliable operation, enhance efficiency and overall system health. Figure 1 is a schematic diagram of a power-supply sequencing. The high-performance processing device in the diagram has four power-supply inputs named VCC1, VCC2, VCC3, VCC4 respectively, which are used to power different modules in the device. Four DC/DC LDO modules monitored and controlled by a voltage supervisor are used to provide the power-supplies for the four power inputs. Read full article in below link https://lnkd.in/g3BMP5Uv #voltage #power #supply #dcdc #dsp #cpu #fpga #system #health #ram #processor #test #picoscope #labview #adc #sdk Pico Technology Pico Technology (India) Hari ram Sanket Bandyopadhyay, FMVA®,CLSSBB Vishnu Surendran Manoj Kumar MOHIT SINGH Vinuraj Babu Arun kumar Arunprasath K Himanshu Patel Himanshu Sharma Himanshu Rai Himanshu D. Bhute Aditya Jain Aditya Singh Arun Krishna R Sanjeev Sharma SANJEEV KAUSHIK Tejesh kumar Singh Manjeet Beniwal Rajeev Thakur, P.E. Amit Jain Amit Singh Amit Saroch Chetan Sharma Pankaj Gupta Arun Singh Arun Kumar PM SHIVA PALAPALA Pinaki Rudra Karak Paresh Patel Paresh Panchal Vansh Prajapati Shreya Shah B Vasu Dev Beeresh H Shubham Mishra Subham Kumar Prusty ANUGRAH YADAV
How to Test Power-supplySequencing with PicoScopes
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Hardware in the loop targets are devices designed for running real-time simulations. To achieve small time steps they use a combination of powerful processors and big #FPGA. The Speedgoat Performance real-time target features a #Xeon #microprocessor with a FPGA module connected over #PCIe. In this article I show you how to use this interface to share data in real time between the FPGA and the microprocessor. Check it out! https://lnkd.in/dkMRcf5N
Communication FPGA-uP in Speedgoat Performance.
controlpaths.com
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