The MC10EP01DR2G from ON Semiconductor is a high-performance ECL (Emitter Coupled Logic) differential line receiver designed to meet the demanding requirements of high-speed data transmission systems. This product is a testament to ON Semiconductor's commitment to providing advanced technology solutions for industrial, computing, automotive, and consumer applications.
Key Features
- High-Speed Performance: The MC10EP01DR2G boasts a significant propagation delay, making it ideal for applications requiring fast switching and data processing.
- Differential Design: Its differential inputs provide improved noise immunity and allow for the reception of low-level differential signals, which is crucial for maintaining signal integrity in noisy environments.
- Power Supply: This device operates with a standard ECL power supply voltage of -4.2V, which is typical for ECL integrated circuits.
- Temperature Range: It is designed to function over an extended industrial temperature range, ensuring reliability and performance under varying environmental conditions.
- Output Features: The open-emitter output structure allows for wired OR outputs, which provides flexibility in complex logic schemes.
- Packaging: The MC10EP01DR2G is available in a compact SOIC-8 package, which is suitable for space-constrained applications.
Applications
The MC10EP01DR2G is versatile and can be used in a variety of applications. It is particularly well-suited for high-speed data transmission and processing tasks found in:
- Telecommunications equipment
- Servers and high-performance computing
- Test and measurement systems
- Automotive infotainment and driver assistance systems
Product Specifications
| Attribute |
Value |
| Part Number |
MC10EP01DR2G |
| Manufacturer |
ON Semiconductor |
| Package Type |
SOIC-8 |
| Operating Temperature |
-40°C to +85°C |
| Supply Voltage |
-4.2V |
Overall, the MC10EP01DR2G from ON Semiconductor is an exceptional choice for designers looking for a robust, high-speed logic solution that can operate in challenging conditions while maintaining signal fidelity.