Xilinx Inc. XC4013XL-2HT144I

XC4013XL-2HT144I Overview
Fpga chips is supplied in the 144-LQFP Exposed Pad package. This kind of FPGA is composed of FIELD PROGRAMMABLE GATE ARRAY. Fpga chips is programmed wFpga chipsh 113 I/Os for transferring data in a more coherent manner. There are 1368 logic elements/cells to form a fundamental building block. Fpga chips is powered from a supply voltage of 3.3V. This FPGA part belongs to the family of Field Programmable Gate Arrays. This FPGA module can be attached to the development board with a Surface Mount. Fpga chips operates wFpga chipsh a supply voltage of 3V~3.6V. It is a type of FPGA belonging to the XC4000E/X seies. The operating temperature should be kept at -40°C~100°C TJ when operating. There are 192 outputs incorporated in this device. This FPGA model is contained in Tray for space saving. Fpga chips is designed wFpga chipsh 144 terminations. The RAM bits that this device offer is 18432. Its base part number XC4013XL can be used to find related parts. The RAM si2.3kBe of this FPGA module reaches 2.3kB to ensure normal operation of the program. Fpga electronics is designed wfpga electronics h 144 pins. This FPGA is built as an array of 576 LABs/CLBs. As long as this FPGA is mounted in Surface Mount, it could work fantastically according to its specifications. When operating with the supply voltage of 3.3V, designers can fully make use of its flexibility. Its basic building block contains 13000 gates. Fpga semiconductor is equipped wfpga semiconductorh 144 pin count. Typically, fpga semiconductor uses a crystal oscillating at 179MHz . There are 1536 registers used to store and transfer data. 576 CLBs are basic modules used for its architecture. Fpga semiconductor incorporates 576 logic cells used for the building block. 10000 equivalent gates are used for the design implement in the FPGA.

XC4013XL-2HT144I Features
113 I/Os
Up to 18432 RAM bits
144 LABs/CLBs
1536 registers


XC4013XL-2HT144I Applications
There are a lot of Xilinx Inc.
XC4013XL-2HT144I FPGAs applications.


Digital signal processing
Bioinformatics
Device controllers
Software-defined radio
Random logic
ASIC prototyping
Medical imaging
Computer hardware emulation
Integrating multiple SPLDs
Voice recognition