SN74LVT244BPWRG4 Octal Buffer/Driver by Texas Instruments

The SN74LVT244BPWRG4 is a high-performance, octal buffer and line driver designed to meet the requirements of high-speed data transfer and signal integrity. Manufactured by Texas Instruments, this integrated circuit is part of their LVT family, offering a compelling mix of low-voltage operation and tolerance to higher voltages, making it suitable for interfacing with 5V systems while operating at a 3.3V power supply.

This device features eight non-inverting buffers and line drivers with 3-state outputs (DIP switches) that can be employed to isolate bus lines during power down or to increase the load drive over that of a single gate. The SN74LVT244BPWRG4 is optimized for use in bidirectional bus-driving applications with very little power consumption, which is critical in modern electronic systems.

Key specifications of the SN74LVT244BPWRG4 include:

• Logic Type: Octal Buffer/Line Driver, Non-Inverting
• Number of Channels: 8
• Output Type: 3-State
• Supply Voltage (V_CC): 2.7V to 3.6V
• Input Voltage (V_I): Up to 5.5V
• Operating Temperature: -40°C to +85°C
• Package: TSSOP (Thin Shrink Small Outline Package) - 20 pins
• RoHS Compliant

The SN74LVT244BPWRG4's advanced BiCMOS technology minimizes standby power dissipation without sacrificing speed. The device is ideal for driving bus lines or buffering memory address registers due to its high-current outputs, which can interface with the 5V system environment.

Applications for the SN74LVT244BPWRG4 are diverse and include:

• Memory drivers
• Buffer drivers
• Input/Output port drivers
• Data transmission and reception in servers and telecom equipment

With its industry-standard TSSOP packaging, the SN74LVT244BPWRG4 is easy to integrate into various circuit designs, offering enhanced system reliability through its robust construction and Texas Instruments' commitment to quality. Whether used in commercial, industrial, or even stringent automotive environments, this octal buffer/driver provides the performance and flexibility needed for complex digital systems.