FPGA Explained: From Basics to Advanced Applications
Field-Programmable Gate Arrays (FPGAs) are reconfigurable semiconductor devices that offer a unique balance between hardware performance and software flexibility. Unlike fixed-function chips, FPGAs can be reprogrammed after manufacturing using configurable logic blocks, look-up tables, and programmable interconnects. They excel in applications requiring parallel processing, low latency, and custom optimization, including telecommunications, AI acceleration, automotive systems, and data centers. While FPGAs present challenges such as steep learning curves and higher initial costs compared to CPUs, their ability to deliver specialized hardware solutions makes them essential for real-time, high-performance applications where both speed and adaptability are critical requirements.
What is an FPGA Board?
This article provides a comprehensive introduction to FPGA development boards, covering their basic concepts, classifications, and applications. FPGAs (Field Programmable Gate Arrays) are reprogrammable integrated circuits that offer parallel processing capabilities and hardware-level customization advantages. The article categorizes FPGA development boards into three tiers: entry-level (such as Basys 3), mid-range (such as Arty A7), and high-end (such as ZCU106), with prices ranging from tens of dollars to thousands of dollars. When selecting a development board, factors to consider include project goals, budget, logic resource requirements, interface types, and software compatibility. FPGAs are widely used in education and training, IoT, AI acceleration, digital signal processing, telecommunications, and aerospace applications. Future trends include better AI support, edge computing integration, popularization of high-level synthesis tools, and cloud-based FPGA services.
ASIC vs FPGA Comparison: Performance, Cost, and Design Differences Explained
This article compares Application-Specific Integrated Circuits (ASICs) and Field-Programmable Gate Arrays (FPGAs), two technologies used for creating custom digital circuits.
Comparison of Xilinx, Intel, and Lattice FPGAs
This article provides a comprehensive comparison of three major FPGA manufacturers - Xilinx (now AMD), Intel, and Lattice Semiconductors - examining their product families and market positioning. Each company offers distinct FPGA solutions targeting different applications, with Xilinx focusing on high-performance platforms, Intel emphasizing data-centric applications through its acquired Altera portfolio, and Lattice specializing in low-power, cost-effective solutions for IoT and edge computing applications.
FPGA Comparison: Xilinx Spartan-7 vs. Intel Cyclone V
Field-Programmable Gate Arrays (FPGAs) are reconfigurable, flexible, parallel processing-capable, optimizable, tailored to needs, and efficient in power usage. Whether cloud computing, AI, or Machine learning, the telecom industry, defense sector, aerospace, automotive industry, or medical industry, FPGAs are widely used to run in these challenging environments.
FPGA vs. GPU: Comparison for High-Performance Computing and AI
A comprehensive guide to choosing the right hardware accelerator for your computing needs
FPGA vs Microcontroller: Detailed Comparison
This article gives you a detailed comparison between FPGA and Microcontroller.
Understanding CPLD: What is It & CPLD VS FPGA
A CPLD, or Complex Programmable Logic Device, is a key component in the realm of digital circuit design.
FPGA vs CPU: Detailed Comparison Between FPGA and CPU
FPGA and CPU are two different processors, each with unique characteristics and advantages.
Introduction to Nexperia Automotive-Grade ICs
Electronics in the automotive industry require accuracy, durability and complete reliability. All systems, including the engine control and modern driver assist, are based on parts that have to endure both high temperature and electrical interference, as well as extended durability of operation.
ASIC vs FPGA Comparison: Performance, Cost, and Design Differences Explained
This article compares Application-Specific Integrated Circuits (ASICs) and Field-Programmable Gate Arrays (FPGAs), two technologies used for creating custom digital circuits.
The Rise of Automotive-Grade SiC/GaN Power Devices in Electric Vehicles
The automotive fast recovery Silicon Carbide (SiC) and Gallium Nitride (GaN) power devices emerge as game-changing technologies.
How to Safely Discharge an AC Capacitor
AC capacitor discharge refers to the process in which a capacitor releases its stored electrical energy in an alternating current (AC) circuit.
Signs of a Bad Camshaft Position Sensor and How to Test it?
A car has a variety of electrical components, one of which is called a camshaft position sensor (CMP). This section will discuss this component, the signs that indicate a problematic camshaft position sensor, and the procedures for doing so.
Symptoms of a Bad Speed Sensor and How to Test It?
Speed sensors are utilized to measure the speed at which devices are spinning. Many vehicles, including automobiles, aerospace vehicles, off-highway and construction equipment, railway vehicles, and military vehicles, require speed sensors.
Current Divider: definition, applications & formula
A current divider is an electrical circuit configuration used to split or divide an input current into multiple branches or paths.
74LS04 Hex Inverter Datasheet(PDF) and Pinout
This article will explain some detailed information about 74LS04 Hex Inverter, including its datasheet, pinout, features and specifications.
C1815 Transistor: Pinout, Features & Specifications
This article gives a comprehensive introduction to the key information of the C1815 transistor
Guide to IC 7408 Logic Gate Chip: Specifications, Applications, and Pinout
The 7408 IC, a crucial component in electronics, features?four logic gates, each with two inputs.