The DS1000M-50 is a highly versatile and precise silicon delay line product from the renowned semiconductor manufacturer Maxim Integrated. This innovative component is designed to provide a fixed delay of 50 nanoseconds to digital signals, making it an essential element in a wide range of timing control applications across various industries.
Key Features
- Fixed Delay: The DS1000M-50 offers a stable and precise delay time of 50ns, ensuring consistent performance for critical timing applications.
- Accuracy: With its precise delay matching between devices, it is ideal for maintaining the integrity of signal timings across multiple components within a system.
- Low Voltage Operation: Designed to operate at 5V ±10%, this delay line is compatible with a wide range of digital systems, providing flexibility in design and integration.
- Temperature Stability: The delay line is characterized for operation over a full industrial temperature range, maintaining its performance across a wide spectrum of environmental conditions.
- Tap Options: It includes multiple taps, providing users with the flexibility to choose different delay intervals within the same package, enhancing design versatility.
- Package: The DS1000M-50 is available in a compact, surface-mountable package, allowing for efficient use of board space and ease of integration into existing designs.
Applications
The DS1000M-50 delay line is ideal for a variety of applications that require precise timing adjustments, including:
- Signal Processing
- Timing Adjustment in Digital Circuits
- Network Synchronization
- Industrial Control Systems
- Communication Equipment
Product Specifications
| Parameter |
Value |
| Delay Time |
50ns |
| Operating Voltage |
5V ±10% |
| Temperature Range |
-40°C to +85°C |
| Package |
Surface-mount |
With its precise timing capabilities, robust performance, and compact form factor, the Maxim Integrated DS1000M-50 silicon delay line is an indispensable component for designers and engineers looking to optimize the timing and synchronization within their digital systems.