The 74HC164D,653 belongs to the category of integrated circuits (ICs), specifically a shift register.
This IC is commonly used for serial-in, parallel-out (SIPO) data shifting applications.
The 74HC164D,653 is available in a SOIC (Small Outline Integrated Circuit) package. It is typically sold in reels or tubes containing a specific quantity, such as 2500 units per reel.
The 74HC164D,653 has a total of 14 pins. The pin configuration is as follows:
The 74HC164D,653 is designed to shift data in a serial-in, parallel-out manner. It has an 8-bit shift register that can be controlled by the clock input. The serial data input (DS) allows for the sequential input of data, which is then shifted into the register on each clock pulse. The parallel data outputs (QH to QH7) provide the stored data in parallel format.
The 74HC164D,653 operates based on the principle of sequential data shifting. When a clock pulse is received at the clock input (CP), the data present at the serial data input (DS) is shifted into the shift register. This process continues for each clock pulse, allowing the data to propagate through the register. The stored data can then be accessed from the parallel data outputs (QH to QH7).
The 74HC164D,653 finds application in various fields where serial-to-parallel data conversion is required. Some potential application areas include: - Digital communication systems - Data storage devices - Industrial automation - LED matrix displays - Control systems
There are several alternative models available that offer similar functionality to the 74HC164D,653. Some popular alternatives include: - SN74HC164N - CD74HC164E - MC74HC164AN
These alternative models may have slight variations in specifications and pin configurations, but they serve the same purpose of serial-in, parallel-out data shifting.
In conclusion, the 74HC164D,653 is a versatile integrated circuit used for serial-to-parallel data shifting applications. Its high-speed operation, low power consumption, and wide operating voltage range make it suitable for various electronic systems. With its compact SOIC package and balanced propagation delays, it offers convenience and reliability. However, the limited number of shift register stages and potential need for additional components should be considered for specific applications.
Sure! Here are 10 common questions and answers related to the application of 74HC164D,653 in technical solutions:
Q: What is the 74HC164D,653? A: The 74HC164D,653 is a 8-bit serial-in/parallel-out shift register IC (integrated circuit) that can be used for various digital logic applications.
Q: What is the maximum clock frequency supported by the 74HC164D,653? A: The 74HC164D,653 can support clock frequencies up to 25 MHz.
Q: How many output pins does the 74HC164D,653 have? A: The 74HC164D,653 has 8 output pins, each corresponding to one bit of the shift register.
Q: Can I cascade multiple 74HC164D,653 ICs together? A: Yes, you can cascade multiple 74HC164D,653 ICs together to increase the number of output bits.
Q: What is the power supply voltage range for the 74HC164D,653? A: The 74HC164D,653 operates with a power supply voltage range of 2V to 6V.
Q: How do I control the data input to the 74HC164D,653? A: The data input is controlled by the clock signal. Each rising edge of the clock input shifts the data into the shift register.
Q: Can I use the 74HC164D,653 for driving LEDs? A: Yes, the 74HC164D,653 can be used to drive LEDs by connecting the output pins to the LED cathodes and using appropriate current-limiting resistors.
Q: What is the typical output current capability of the 74HC164D,653? A: The typical output current capability of the 74HC164D,653 is around 4 mA.
Q: Can I use the 74HC164D,653 in a battery-powered application? A: Yes, the 74HC164D,653 can be used in battery-powered applications as it operates with a low power supply voltage and has low power consumption.
Q: Are there any specific precautions to take when using the 74HC164D,653? A: It is important to ensure that the power supply voltage does not exceed the specified range, and to avoid exceeding the maximum ratings for input voltage and current. Additionally, proper decoupling capacitors should be used to stabilize the power supply.