Microsemi Corporation A54SX32-PQ208

A54SX32-PQ208 Overview
There is a 208-BFQFP package that includes this component. 174 I/Os are available for transferring data more efficiently. A fundamental building block consists of 2880 logic elements/cells. The Surface Mount-slot on the development board allows you to attach the FPGA module. A supply voltage of 3V~3.6V 4.75V~5.25V is needed in order for fpga chips to operate. As part of the SX series of FPGAs, it is a type of FPGA. While operating, the operating temperature should be kept within a range of 0°C~70°C TA. As a space-saving measure, this FPGA model is contained within Tray. In order to find related parts, you can use its base part number A54SX32. It has a total of 208 pins that are designed for it. 2880 LABs and CLBs are built into this FPGA. Providing that this FPGA is mounted in Surface Mount, it will be able to perform according to its specifications in a flawless manner. Designers can fully utilize its flexibility with 5V supply voltage. This module is capable of operating at a maximum temperature of 70°C. 0°C should be higher than the operating temperature. There are 48000 gates that make up its basic building block. There are a total of 2880 logic blocks (LABs) that form the basic building blocks of this program. During the process of storing and transferring data, 1080 registers are used. With a frequency of 240MHz, it delivers high efficiency. The maximum supply voltage it supports is 5.25V. With a minimum supply voltage of 4.75V, it is able to function. There is a possibility that this FPGA will be able to reach a speed of 240MHz. There is a device package provided by 208-PQFP (28x28) as its supplier.

A54SX32-PQ208 Features
174 I/Os
208 LABs/CLBs
70°C gates
2880 logic blocks (LABs)
1080 registers
Operating from a frequency of 240MHz


A54SX32-PQ208 Applications
There are a lot of Microsemi Corporation
A54SX32-PQ208 FPGAs applications.


Device controllers
Software-defined radio
Random logic
ASIC prototyping
Medical imaging
Computer hardware emulation
Integrating multiple SPLDs
Voice recognition
Cryptography
Filtering and communication encoding