74LV4020PW,112

74LV4020PW,112

Manufacturer No:

74LV4020PW,112

Manufacturer:

NXP USA Inc.

Description:

IC BINARY COUNTER 14BIT 16TSSOP

Datasheet:

Datasheet

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74LV4020PW,112 Specifications

  • Type
    Parameter
  • Supplier Device Package
    16-TSSOP
  • Package / Case
    16-TSSOP (0.173", 4.40mm Width)
  • Mounting Type
    Surface Mount
  • Operating Temperature
    -40°C ~ 125°C
  • Voltage - Supply
    1 V ~ 5.5 V
  • Trigger Type
    Negative Edge
  • Count Rate
    100 MHz
  • Timing
    -
  • Reset
    Asynchronous
  • Number of Bits per Element
    14
  • Number of Elements
    1
  • Direction
    Up
  • Logic Type
    Binary Counter
  • Packaging
    Tube
  • Product Status
    Obsolete
  • Series
    74LV
The 74LV4020PW,112 is a 14-stage binary counter integrated circuit chip. Some advantages and application scenarios of this chip are:Advantages: 1. High-speed operation: The 74LV4020PW,112 chip operates at high speeds, making it suitable for applications that require fast counting or timing functions. 2. Low power consumption: This chip is designed to consume low power, making it suitable for battery-powered devices or applications where power efficiency is important. 3. Wide supply voltage range: The chip can operate within a wide supply voltage range, typically from 1.65V to 5.5V, allowing it to be used in various voltage environments. 4. Schmitt-trigger inputs: The chip has Schmitt-trigger inputs, which provide hysteresis and improve noise immunity, making it more reliable in noisy environments.Application scenarios: 1. Frequency division: The 74LV4020PW,112 chip can be used to divide an input frequency by a factor of 2^14 (16,384). This makes it suitable for applications that require frequency division, such as clock generation, frequency synthesis, or frequency scaling. 2. Time delay generation: The chip can be used to generate precise time delays by counting clock pulses. This can be useful in applications that require precise timing, such as in digital communication systems, data transmission, or synchronization circuits. 3. Event counting: The chip can be used to count events or pulses, providing a digital representation of the number of occurrences. This can be applied in various scenarios, such as in industrial automation, traffic monitoring, or event logging systems. 4. Frequency measurement: By counting the number of pulses within a specific time period, the chip can be used to measure the frequency of an input signal. This can be useful in applications that require frequency measurement, such as in signal analysis, audio processing, or frequency monitoring systems.It's important to note that the specific application scenarios may vary depending on the overall system requirements and the integration of the chip with other components.