
( Brand: Custom Built ), ( Manufacturer Part Number: FEBO-1 ), ( Part Type: Interface Module ), ( Country/region Of Manufacture: United States )
The FE5680A Interface Rubidium Module with Power Regulation from FEBO is a high-performance, compact, and reliable device designed for applications that require precise frequency and time reference. This module features an integrated rubidium oscillator, which provides a frequency stability of less than 1 x 10 -12 at 10 MHz.
The module is equipped with a built-in power regulation circuit, ensuring a stable and reliable power supply to the rubidium oscillator. This feature eliminates the need for an external power regulator, making the module easier to integrate into various systems.
The FE5680A Interface Rubidium Module features a digital output, which can be configured to provide either 10 MHz or 1 PPS (Pulse Per Second) output signals. The digital output can be selected via the module's control interface, which allows for easy configuration using standard digital I/O signals.
The module is housed in a compact and rugged housing, which is designed to withstand harsh environmental conditions. The housing is also equipped with an mounting bracket, which allows for easy installation in various applications.
In summary, the FE5680A Interface Rubidium Module with Power Regulation from FEBO is a high-performance and reliable frequency and time reference solution for applications that require precise frequency and time reference. Its built-in power regulation circuit, digital output, and compact and rugged housing make it an ideal choice for a wide range of applications, including telecommunications, GPS, and scientific research.
Pros of buying a FE5680A Interface Rubidium Module Power Reg 10MHz Sigs FEBO-1:1. High Stability: This module uses a Rubidium atomic clock, which provides an extremely stable frequency source with an Allan deviation of less than 1x10 -13 at 1 second.
2. Low Phase Noise: The FE5680A has a very low phase noise, which is important for applications that require high-quality signal generation or frequency measurement.
3. Excellent Frequency Accuracy: The module's frequency accuracy is better than 0.5 parts per billion (ppb), making it suitable for applications that require high precision.
4. Wide Temperature Range: The module can operate over a wide temperature range, from -40 C to 70 C, making it suitable for use in a variety of environments.
5. Compact Size: The FE5680A is a compact module, making it easy to integrate into a range of applications.
Cons of buying a FE5680A Interface Rubidium Module Power Reg 10MHz Sigs FEBO-1:1. High Cost: The Rubidium atomic clock technology used in this module is expensive, which means the module itself is also quite pricey.
2. Complex Setup: The module requires a specific power supply and cooling system, which can make the setup process more complex than with other types of frequency sources.
3. Limited Frequency Range: While the module's frequency stability is excellent, its frequency range is limited to 10MHz.
Conclusion:The FE5680A Interface Rubidium Module Power Reg 10MHz Sigs FEBO-1 is a high-quality, stable, and accurate frequency source that is suitable for applications that require high precision. However, its high cost and complex setup may make it less suitable for some users. If the benefits of its excellent frequency stability and accuracy outweigh the costs and complexity for your specific application, then this module could be a good choice.
Recommendation:If you require a high-precision frequency source and have the budget and technical expertise to set up and use the module effectively, then the FE5680A Interface Rubidium Module Power Reg 10MHz Sigs FEBO-1 could be a good choice for your application. However, if you require a wider frequency range or have a tighter budget, you may want to consider other options.
A schematic of the interface is included with unit. This is a plug and play user supplies nominal 15-18vdc interface for the fe 5680a rubidium clock module.
Unit provides 4 each 10 mhz output signals at 3.