74AHCT126PW-Q100,1

The 74AHCT126PW-Q100 is a Hex Buffer chip from NXP Semiconductors which belongs to the Logic IC family. It is a Buffer, that is, a device for driving and receiving data signals. Buffers are designed to facilitate the quick transmission and reception of digital signals.

This particular chip is part of the 74AHCT series, which is characterized by its high speed performance. It is made with a 0.25-micron CMOS logic process, which ensures a low power consumption while achieving fast switching speeds. It provides two kinds of output--TTL/CMOS and Schmitt Trigger--allowing it to function in either digital or analog environments.

This chip is suitable for a variety of applications, including display drives, memory data transfers, and general logic interfacing. It is also useful in applications where low-power consumption and low-voltage use is important.

The 74AHCT126PW-Q100 consists of six independent hex buffer gates, each of which combines the features of both a 3-state buffer, output enable (ren), and level shifter. It has an active low input and an active high enable, or REN, input. When this REN input is enabled, the output will be set to the value of the corresponding input.

The Schmitt Trigger input also helps with noise reduction and voltage sensitivity. When enabled, it converts any single-input inaccurate pulses into a clean, precise output. The fast-switching performance of the 74AHCT126PQ-Q100 works extremely fast, allowing it to perform data transfers and other tasks more quickly.

This efficient logic device is housed in a wide-body Quad- Flat-No-Lead (QFN) package, which has a very small footprint and is ideal for applications where board space is a premium. It is considered an excellent choice for driving and buffering data signals in a myriad of applications.

The 74AHCT126PW-Q100 is an excellent choice for Logic IC applications that require faster switching and lower power consumption. It is extremely reliable, easy to use, and capable of operating in a variety of digital, analog, and mixed-signal environments.