A3PE600-1PQG208 Overview

There is a 208-BFQFP package that includes this component. Fpga chips is programmed wFpga chipsh 147 I/Os for transferring data in a more coherent manner. Surface Mount-connectors can be used to attach this FPGA module to the development board. Fpga chips operates wFpga chipsh a supply voltage of 1.425V~1.575V. An FPGA belonging to the ProASIC3E series is referred to as an FPGA. When operating the machine, it is important to keep the temperature within 0°C~85°C TJ range. Fpga chips is designed to maximiTraye space efficiency by containing the FPGA model in Tray. This device is equipped with 110592 RAM bits in terms of its RAM si110592e. A3PE600 is the base part number that can be used to identify related parts. A significant amount of RAM is allocated to this FPGA module to ensure that the program can operate normally. In this case, 208 pins are used in the design. In order for this FPGA to work properly in accordance with its specifications, it is necessary that it is mounted in Surface Mount. In the case of 1.5V supply voltage, designers can take full advantage of its flexibility. This module is capable of operating at a maximum temperature of 70°C. 0°C should be higher than the operating temperature. The basic building block of this system consists of 600000 gates. The data is stored and transferred using 13824 registers that are used for this purpose. The maximum supply voltage it supports is 1.575V. Using 1.425V as the minimum supply voltage, fpga semiconductor can operate. There is a possibility that this FPGA will be able to reach a speed of 272MHz. The supplier of the device package is 208-PQFP (28x28).

A3PE600-1PQG208 Features

147 I/Os
Up to 110592 RAM bits
208 LABs/CLBs
70°C gates
13824 registers

A3PE600-1PQG208 Applications

There are a lot of Microsemi Corporation A3PE600-1PQG208 FPGAs applications.

• Wireless Communications
• Radar and Sensors
• Industrial Ethernet
• Digital signal processing
• Medical Electronics
• Data center hardware accelerators
• Video & Image Processing
• Distributed Monetary Systems
• High Performance Computing
• OpenCL