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SN74AHC14PW

SN74AHC14PW

Product Overview

Category

SN74AHC14PW belongs to the category of integrated circuits (ICs).

Use

This product is commonly used as a hex inverter Schmitt-trigger, which means it can be used to convert input signals into inverted output signals with hysteresis.

Characteristics

  • Hex inverter Schmitt-trigger
  • Wide operating voltage range: 2 V to 5.5 V
  • High-speed operation: 4 ns propagation delay at 3.3 V
  • Low power consumption: 1 µA maximum ICC
  • Schmitt-trigger inputs allow for slow input transition and noise immunity
  • Available in TSSOP package

Package

SN74AHC14PW is packaged in a TSSOP (Thin Shrink Small Outline Package), which provides a compact and space-saving form factor.

Essence

The essence of SN74AHC14PW lies in its ability to perform hex inverting functions with Schmitt-trigger inputs, making it suitable for applications requiring noise immunity and slow input transitions.

Packaging/Quantity

SN74AHC14PW is typically available in reels containing a quantity of 2500 units per reel.

Specifications

  • Supply Voltage Range: 2 V to 5.5 V
  • Input Voltage Range: 0 V to VCC
  • Output Voltage Range: 0 V to VCC
  • Operating Temperature Range: -40°C to +85°C
  • Propagation Delay: 4 ns (typical) at 3.3 V
  • Maximum Quiescent Current: 1 µA

Detailed Pin Configuration

SN74AHC14PW consists of 14 pins arranged as follows:

____ Y1 |1 14| VCC A1 |2 13| A6 B1 |3 12| Y6 A2 |4 11| B6 B2 |5 10| A3 Y2 |6 9| B3 GND |7 8| Y3 ----

Functional Features

  • Hex inverting functions: The SN74AHC14PW provides six independent hex inverters, allowing for versatile signal inversion applications.
  • Schmitt-trigger inputs: The Schmitt-trigger inputs enable the IC to tolerate slow input transitions and provide noise immunity, making it suitable for noisy environments.
  • Wide operating voltage range: With a voltage range of 2 V to 5.5 V, this IC can be used in various low-power applications.

Advantages and Disadvantages

Advantages

  • High-speed operation: The SN74AHC14PW offers fast propagation delay, making it suitable for time-critical applications.
  • Low power consumption: With a maximum quiescent current of 1 µA, this IC helps conserve power in battery-operated devices.
  • Noise immunity: The Schmitt-trigger inputs enhance the IC's ability to reject noise and provide reliable signal processing.

Disadvantages

  • Limited functionality: While the SN74AHC14PW is efficient at hex inverting functions, it may not be suitable for applications requiring more complex logic operations.
  • Temperature limitations: The operating temperature range of -40°C to +85°C may restrict its use in extreme temperature environments.

Working Principles

The SN74AHC14PW operates based on the principles of hex inverting and Schmitt-trigger inputs. When an input signal is applied, the hex inverter converts it into an inverted output signal. The Schmitt-trigger inputs ensure that the output transitions occur at different voltage levels for rising and falling input signals, providing noise immunity and tolerance for slow input transitions.

Detailed Application Field Plans

The SN74AHC14PW finds applications in various fields, including:

  1. Digital signal processing: It can be used to invert and process digital signals in microcontrollers, FPGA-based systems, and communication devices.
  2. Sensor interfaces: The IC's noise immunity makes it suitable for interfacing with sensors that may produce noisy signals, such as temperature sensors, proximity sensors, and motion sensors.
  3. Oscillator circuits: The Schmitt-trigger inputs enable the IC to generate stable oscillations, making it useful in oscillator circuits for clock generation and timing applications.
  4. Logic level conversion: SN74AHC14PW can be employed to convert logic levels between different voltage domains, ensuring compatibility between different integrated circuits.

Detailed and Complete Alternative Models

Some alternative models that offer similar functionality to SN74AHC14PW include:

  1. CD40106B: Hex Schmitt-trigger inverter IC with a wider operating voltage range of 3 V to 18 V.
  2. MC74VHC1G14: Single Schmitt-trigger inverter IC with a lower operating voltage range of 2 V

Noem 10 veelgestelde vragen en antwoorden met betrekking tot de toepassing van SN74AHC14PW in technische oplossingen

Sure! Here are 10 common questions and answers related to the application of SN74AHC14PW in technical solutions:

  1. Q: What is SN74AHC14PW? A: SN74AHC14PW is a hex inverter with Schmitt-trigger inputs, which means it can convert low-level signals to high-level signals and vice versa.

  2. Q: What is the operating voltage range for SN74AHC14PW? A: The operating voltage range for SN74AHC14PW is typically between 2V and 5.5V.

  3. Q: Can SN74AHC14PW be used in both digital and analog circuits? A: No, SN74AHC14PW is primarily designed for digital circuits and is not recommended for use in analog applications.

  4. Q: How many inverters are there in SN74AHC14PW? A: SN74AHC14PW consists of six independent inverters, making it suitable for various logic gate applications.

  5. Q: What is the maximum output current that SN74AHC14PW can handle? A: SN74AHC14PW can handle a maximum output current of 8mA per channel.

  6. Q: Can SN74AHC14PW tolerate overvoltage on its inputs? A: Yes, SN74AHC14PW has Schmitt-trigger inputs that provide hysteresis, allowing it to tolerate overvoltage on its inputs without causing false triggering.

  7. Q: Is SN74AHC14PW compatible with other logic families? A: SN74AHC14PW is compatible with a wide range of logic families, including TTL, CMOS, and LVTTL.

  8. Q: What is the typical propagation delay of SN74AHC14PW? A: The typical propagation delay of SN74AHC14PW is around 6 ns.

  9. Q: Can SN74AHC14PW be used in high-speed applications? A: Yes, SN74AHC14PW is suitable for high-speed applications due to its fast switching speed and low propagation delay.

  10. Q: What are some common applications of SN74AHC14PW? A: SN74AHC14PW can be used in various applications such as signal conditioning, level shifting, waveform shaping, oscillator circuits, and more.

Please note that these answers are general and may vary depending on specific use cases and requirements.