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MC10E171FN

MC10E171FN

Product Overview

  • Category: Integrated Circuit (IC)
  • Use: Logic Gate
  • Characteristics: High-speed, ECL (Emitter-Coupled Logic) technology
  • Package: 28-pin PLCC (Plastic Leaded Chip Carrier)
  • Essence: High-performance logic gate for digital signal processing
  • Packaging/Quantity: Available in reels of 250 units

Specifications

  • Supply Voltage: -5.2V to -4.5V
  • Operating Temperature Range: -40°C to +85°C
  • Input Voltage Range: -2.0V to -0.8V
  • Output Voltage Range: -2.0V to -0.8V
  • Propagation Delay: 1.5 ns (typical)
  • Maximum Clock Frequency: 500 MHz

Detailed Pin Configuration

The MC10E171FN has a total of 28 pins, which are assigned specific functions as follows:

  1. VEE – Negative power supply
  2. Q0 – Output of the first flip-flop
  3. Q1 – Output of the second flip-flop
  4. Q2 – Output of the third flip-flop
  5. Q3 – Output of the fourth flip-flop
  6. Q4 – Output of the fifth flip-flop
  7. Q5 – Output of the sixth flip-flop
  8. Q6 – Output of the seventh flip-flop
  9. Q7 – Output of the eighth flip-flop
  10. GND – Ground
  11. D0 – Data input for the first flip-flop
  12. D1 – Data input for the second flip-flop
  13. D2 – Data input for the third flip-flop
  14. D3 – Data input for the fourth flip-flop
  15. D4 – Data input for the fifth flip-flop
  16. D5 – Data input for the sixth flip-flop
  17. D6 – Data input for the seventh flip-flop
  18. D7 – Data input for the eighth flip-flop
  19. CLK – Clock input
  20. VCC – Positive power supply
  21. QN0 – Complementary output of the first flip-flop
  22. QN1 – Complementary output of the second flip-flop
  23. QN2 – Complementary output of the third flip-flop
  24. QN3 – Complementary output of the fourth flip-flop
  25. QN4 – Complementary output of the fifth flip-flop
  26. QN5 – Complementary output of the sixth flip-flop
  27. QN6 – Complementary output of the seventh flip-flop
  28. QN7 – Complementary output of the eighth flip-flop

Functional Features

  • High-speed operation: The MC10E171FN is designed to operate at high clock frequencies, making it suitable for applications requiring fast signal processing.
  • ECL technology: The use of Emitter-Coupled Logic ensures low propagation delay and high noise immunity, resulting in reliable and accurate logic operations.
  • Multiple flip-flops: The IC incorporates eight flip-flops, allowing for the storage and manipulation of multiple bits of data simultaneously.
  • Complementary outputs: In addition to the regular outputs, complementary outputs are provided, enabling differential signaling and facilitating noise rejection.

Advantages and Disadvantages

Advantages: - High-speed operation enables efficient digital signal processing. - ECL technology provides excellent noise immunity. - Multiple flip-flops allow for parallel data processing. - Complementary outputs enhance noise rejection.

Disadvantages: - Requires a negative power supply, which may add complexity to the system design. - Limited availability of alternative models from other manufacturers.

Working Principles

The MC10E171FN operates based on Emitter-Coupled Logic, where the logic gates are implemented using bipolar transistors. The inputs and outputs of the IC are differential, allowing for high-speed operation and noise rejection. The flip-flops within the IC store and manipulate data based on the clock input, enabling synchronous digital signal processing.

Detailed Application Field Plans

The MC10E171FN finds applications in various fields that require high-speed digital signal processing, such as: - Telecommunications: Used in high-speed data transmission systems, optical networks, and wireless communication equipment. - Data Centers: Employed in high-performance computing systems, network switches, and routers. - Test and Measurement: Utilized in high-speed test equipment, oscilloscopes, and logic analyzers. - Aerospace and Defense: Integrated into radar systems, avionics, and military communication devices.

Alternative Models

While the MC10E171FN is a highly capable logic gate, alternative models from other manufacturers can provide similar functionality. Some notable alternatives include: - SN74FCT16244T: Manufactured by Texas Instruments

Seznam 10 běžných otázek a odpovědí souvisejících s aplikací MC10E171FN v technických řešeních

Sure! Here are 10 common questions and answers related to the application of MC10E171FN in technical solutions:

  1. Q: What is MC10E171FN? A: MC10E171FN is a high-speed ECL (Emitter-Coupled Logic) differential receiver designed for use in digital data transmission systems.

  2. Q: What is the operating voltage range of MC10E171FN? A: The operating voltage range of MC10E171FN is typically between -4.2V and -5.7V.

  3. Q: What is the maximum data rate supported by MC10E171FN? A: MC10E171FN can support data rates up to 1.5 Gbps (gigabits per second).

  4. Q: Can MC10E171FN be used in both single-ended and differential applications? A: No, MC10E171FN is specifically designed for differential applications and cannot be used in single-ended configurations.

  5. Q: What is the input sensitivity of MC10E171FN? A: The input sensitivity of MC10E171FN is typically 100 mV (millivolts) differential.

  6. Q: Does MC10E171FN have built-in termination resistors? A: No, MC10E171FN does not have built-in termination resistors. External termination resistors are required for proper operation.

  7. Q: Can MC10E171FN be used in low-power applications? A: No, MC10E171FN is not optimized for low-power applications. It is primarily intended for high-speed and high-performance designs.

  8. Q: What is the output swing of MC10E171FN? A: The output swing of MC10E171FN is typically 800 mV (millivolts) differential.

  9. Q: Is MC10E171FN compatible with other ECL logic families? A: Yes, MC10E171FN is compatible with other ECL logic families such as the 10K and 100K series.

  10. Q: What are some typical applications of MC10E171FN? A: MC10E171FN is commonly used in high-speed data communication systems, clock distribution networks, and digital signal processing applications.

Please note that these answers are general and may vary depending on specific design requirements and datasheet specifications.