Fidus Systems’ Post

Dive into the latest advancements in aerospace technology with FPGAs! Fidus' expertise in avionics and satellite communications truly showcases the transformative impact of FPGAs in this field. 😎

FPGA 📟 is getting into aerospace technology now.. FPGA is now used in many fields including: - Telecommunications 🗼. - Radar systems📡. - Medical Equipment ⚕️. - industrial automation ⚙️. - Automotive 🚗. - Scientific Research 🧪. that shows it's High Performance Computing and parallel processing is even more useful than we thought 🤔

#FPGAs have reshaped the design of #electronic computing systems used in aerospace applications. These components offer unparalleled flexibility, parallel #processing capabilities, and adaptability that cater to the specific demands of space and #aeronautical missions. FPGAs are integrated circuits that can be programmed and reconfigured post-manufacturing, unlike #ASICs designed for specific functions. This characteristic makes #FPGAs ideal for aerospace applications where flexibility and adaptability are critical to meet evolving technological advancements and mission requirements. Types of FPGAs in Aerospace Applications Low-Power FPGAs: Space missions demand energy-efficient systems. Some #FPGAs are tailored to provide high processing power while maintaining minimal power consumption, making them preferred choices for applications where power management is crucial. Radiation-Resistant #FPGAs: In space, cosmic #radiation can cause errors and failures in electronic components. #Radiation-resistant FPGAs are designed to function reliably in these harsh environments, ensuring the #robustness of embedded systems. High-Performance #FPGAs: Advanced #space missions require high processing capabilities to handle massive real-time data volumes. High-performance #FPGAs deliver exceptional computing power to efficiently process these data streams. Secure FPGAs: Data security is critical, especially in sensitive applications like aerospace. Some FPGAs incorporate advanced security features to #protect sensitive information and prevent cyberattacks. FPGAs find applications across various aerospace domains: Flight Control Systems: Managing flight controls, sensors, and real-time responses to changing conditions. #Signal #Processing: Used in communications, navigation, and sensor surveillance. #Payload Management: Utilized in satellites for scientific data processing, imaging, and transmissions. #Safety Systems & #Redundancy: Ensuring #reliability and resilience of critical systems. FPGAs play a central role in the evolution of computing systems used in aerospace, offering a unique blend of processing power, flexibility, and reliability. Their ability to adapt to the specific requirements of space and aeronautical missions makes them key components for the future of space exploration and advanced aerospace technologies. LaRocheNoire Technology

Infineon announced availability of the industry’s first radiation-hardened (rad hard) 1 and 2 Mb parallel interface ferroelectric-RAM (F-RAM) nonvolatile memory devices. These additions to Infineon’s extensive portfolio of memories feature unsurpassed reliability and endurance, with up to 120 years of data retention at 85-degree Celsius, along with random access and full memory write at bus speeds. The 2 Mb density F-RAM with SPI is the first in its family of rad hard non-volatile F-RAMs. The devices have virtually infinite endurance with no wear leveling, with 10 trillion read/write cycles and 120 years data retention at 85°C, at an operating voltage range of 2.0 V to 3.6 V.

Achievements in air traffic control, microelectronics, and lasers are recognized for their lasting benefit to humanity. | Click below to read the full article on Sunalei

Insightful paper outlining the experience of developing a state-of-the-art smart #avionics display, including mixing modern #multicore processors with open architectures and lessons learned from the project: https://ow.ly/khYx30sC3vf #SafetyCritical #WeAreWindRiver

Upgrades to Innodisk DRAM PRO Series to Excel in Aerospace and In-Vehicle Environments

Curious about the latest advancements in beamforming and beam-steering technologies for military applications? 🛰️Check out the article "Robust power for RF/µW hybrid and digital phased arrays" published on the Military Embedded System website! ✨ Discover how these cutting-edge technologies, coupled with the rise of 5G communications and commercial space data communications, are revolutionizing the field. From active electronically scanned array (AESA) systems to phased-array configurations, explore how they're becoming more affordable and accessible than ever before. 👉Read the full article here: https://okt.to/QMGbkC #MilitaryTech #Beamforming #5G #PhasedArrays #ReadNow

Insightful paper outlining the experience of developing a state-of-the-art smart #avionics display, including mixing modern #multicore processors with open architectures and lessons learned from the project: https://ow.ly/Hpxk30sC5T8 #SafetyCritical #WeAreWindRiver

The Crucial Role of Signal Timing with #FPGA in #Space Applications In the realm of #space technology, precision and reliability are paramount. The utilization of Field-Programmable Gate Arrays (FPGAs) stands as a cornerstone in ensuring the success and accuracy of various space missions. The significance of signal timing within #FPGAs is a critical aspect that underpins the functionality and efficiency of these systems in space applications. #Space Application Challenges #Space missions encounter a multitude of challenges, from extreme environmental conditions to vast distances that hinder real-time communication. In this context, #FPGAs serve as pivotal components due to their adaptability, reconfigurability, and ability to process data at high speeds. Timing #Synchronization Signal timing within FPGAs is fundamental as it governs the #synchronization of operations. In space, where data transmission faces substantial latency, the precise #timing of signals becomes even more crucial. FPGA-based systems manage this challenge by synchronizing signals at the nanosecond level, ensuring accurate data #processing and communication. Fault Tolerance and Redundancy Space missions cannot afford system failures. FPGAs offer inherent fault tolerance capabilities, and their ability to implement redundancy further fortifies reliability. Timely signal processing and #synchronization within FPGAs facilitate the swift identification and isolation of errors, allowing for reliable mission continuity. Real-Time Processing FPGAs excel in real-time processing, a vital requirement for space applications. Their capability to execute computations swiftly and efficiently aligns perfectly with the need for rapid data analysis, enabling immediate responses to dynamic environmental changes or mission parameters. Adaptability to Evolving Requirements The dynamic nature of space missions often demands adaptability in systems. #FPGAs, with their reprogrammable nature, allow for modifications in signal timing configurations to accommodate evolving mission objectives or updated protocols without necessitating #hardware changes. In the intricate world of space technology, the importance of signal timing within FPGAs cannot be overstated. Its role in ensuring synchronization, fault tolerance, real-time processing, and adaptability is pivotal to the success of space missions. As advancements continue, the optimization of signal timing in FPGA-based systems remains crucial for the continued exploration and success of endeavors beyond our planet.