ON Semiconductor MC100EL58DR2: A High-Performance 5V ECL Dual Differential Data and Clock D Flip-Flop
The MC100EL58DR2 from ON Semiconductor is a versatile and high-speed integrated circuit designed to operate as a dual differential D-type flip-flop. This device is particularly suitable for applications requiring fast data or clock edge processing, such as high-speed computing, telecommunication, and advanced digital systems.
Key Features:
- High-Speed Performance: The MC100EL58DR2 is designed to support the ECLinPS (Enhanced Current Logic in PicoSeconds) family's high-speed standards, making it ideal for critical timing applications.
- Dual Differential Inputs: It features two pairs of differential D and Clock inputs, providing flexibility and reliability in signal processing.
- 5V Power Supply: The device operates on a 5V power supply, making it compatible with various digital systems without the need for additional voltage regulation.
- ASSET™ Technology: ON Semiconductor's Advanced Schottky TTL ECL technology ensures reduced propagation delay and high noise immunity.
- Temperature Range: The MC100EL58DR2 is designed to perform reliably over an industrial temperature range of -40°C to +85°C.
Applications:
- High-speed digital data processing
- Telecommunication and networking equipment
- Frequency synthesis and clock distribution
- Signal gating and generation
- Pulse shaping and waveform generation
The MC100EL58DR2 is available in a small-outline 8-pin SOIC package, providing a compact solution for printed circuit boards where space is at a premium. Its ECL logic levels ensure low power dissipation and minimal propagation delay, critical for high-frequency operations.
ON Semiconductor's commitment to quality and performance is evident in the MC100EL58DR2, making it a reliable choice for designers looking to incorporate high-speed flip-flop functionality into their systems. Whether you are developing cutting-edge technology or updating existing platforms, the MC100EL58DR2 offers a blend of speed, power efficiency, and robustness that can meet the demands of your advanced digital applications.