Datasheet4U Logo Datasheet4U.com

PO54G373A - OCTAL TRANSPARENT D-TYPE LATCHES

Description

Potato Semiconductor’s PO74G373A is designed for world top performance using submicron CMOS technology to achieve higher than 1.125GHz TTL /CMOS output frequency with less than 1.8ns propagation delay.

This dual Octal transparent D-type latches are designed for 1.65-V to 3.6-V VCC operation.

Features

  • . Patented technology . Operating frequency up to 1.125GHz with 2pf load . Operating frequency up to 700MHz with 5pf load . Operating frequency up to 350MHz with 15pf load . Operating frequency up to 100MHz with 50pf load . VCC Operates from 1.65V to 3.6V . Propagation delay < 1.8ns max with 15pf load . Low input capacitance: 4pf typical . Available in 20pin TSSOP package . Available in 20pin Ceramic Dual Flatpack . Available in 20pin Leadless Ceramic Chip Carrier.

📥 Download Datasheet

Datasheet Details

Part number PO54G373A
Manufacturer Potato Semiconductor Corporation
File Size 535.40 KB
Description OCTAL TRANSPARENT D-TYPE LATCHES
Datasheet download datasheet PO54G373A Datasheet

📁 Similar Datasheet

Part Number Description Manufacturer
PO54G00A GHz Logic Potatosemi
PO54G14A HEX SCHMITT-TRIGGER INVERTERS Potatosemi

Other Datasheets by Potato Semiconductor Corporation

Part Number Description

Full PDF Text Transcription

Click to expand full text
www.DataSheet4U.com OCTAL TRANSPARENT D-TYPE LATCHES WITH 3-STATE OUTPUTS PO54G373A, PO74G373A 10/22/07 54, 74 Series GHz Logic FEATURES: . Patented technology . Operating frequency up to 1.125GHz with 2pf load . Operating frequency up to 700MHz with 5pf load . Operating frequency up to 350MHz with 15pf load . Operating frequency up to 100MHz with 50pf load . VCC Operates from 1.65V to 3.6V . Propagation delay < 1.8ns max with 15pf load . Low input capacitance: 4pf typical . Available in 20pin TSSOP package . Available in 20pin Ceramic Dual Flatpack . Available in 20pin Leadless Ceramic Chip Carrier DESCRIPTION: Potato Semiconductor’s PO74G373A is designed for world top performance using submicron CMOS technology to achieve higher than 1.
Published: |