Visual Overview
Technical Details
Comprehensive specifications and technical information
XHTF1003-H Rubidium Frequency Standard
Overview
The XHTF1003-H Rubidium Frequency Standard delivers exceptional frequency stability and precision timing solutions. With its advanced features and robust specifications, it’s ideal for applications requiring high accuracy and reliability. For detailed information, please contact us.
Features
- Filter array I/O connection port
- Compatible with LPRO Rb atomic clock
- RS-232C serial port communication
- High stability and precision performance
- Comprehensive monitoring capabilities
Main Specifications
Core Specifications
| Specification | Typical | High performance | |
|---|---|---|---|
| Phase Noise (SSB) | @1Hz | <-75dBc/Hz | <-80dBc/Hz |
| @10Hz | <-89dBc/Hz | <-95dBc/Hz | |
| @100Hz | <-128dBc/Hz | <-135dBc/Hz | |
| @1KHz | <-140dBc/Hz | <-145dBc/Hz | |
| @10KHz | <-147dBc/Hz | <-150dBc/Hz | |
| @100KHz | <-147dBc/Hz | <-162dBc/Hz |
Pin Connection Details
| Pin Number | Function | Pin Number | Function |
|---|---|---|---|
| 1 | 10MHz RF output | 6 | Lock status |
| 2 | RF ground | 7 | External electric level adjustment |
| 3 | Rb light indication | 8 | GND |
| 4 | Shell ground | 9 | TXD |
| 5 | RXD | 10 | +24V |
Frequently Asked Questions
Common questions about XHTF1003-H Rubidium Frequency Standard
Considering the need for extreme accuracy, what synchronization protocols are best suited for distributing time from the XHTF1003-H Rubidium Frequency Standard to other spacecraft systems that requir?
For distributing the XHTF1003-H's precise timing, protocols like IEEE 1588 Precision Time Protocol (PTP) and Network Time Protocol (NTP) are suitable, but require careful consideration in the space environment. PTP offers higher accuracy and is often preferred for its hardware timestamping capabilities, minimizing latency variations. However, radiation-hardened implementations are crucial. NTP, while less precise, is widely adopted and robust. The choice depends on the specific accuracy requirements of the dependent systems and the mitigation of network-induced delays.
What applications require this atomic clock?
This atomic clock is essential for satellite navigation systems, deep space communications, scientific research, precision timing networks, and synchronization of distributed systems. It provides ultra-stable frequency references for critical space and ground applications.
How does this compare to other atomic clocks?
Our atomic clocks offer superior frequency stability, lower power consumption, compact size, and enhanced radiation tolerance compared to conventional designs. They maintain exceptional accuracy over extended mission durations in harsh space environments.
What is the expected operational lifetime?
The atomic clock is designed for 15+ years of continuous operation in space. It features redundant systems, radiation-hardened components, and proven reliability with extensive flight heritage on navigation satellites and deep space missions.
How is the clock synchronized and monitored?
The system includes comprehensive telemetry interfaces for real-time performance monitoring, remote diagnostics, and synchronization with ground stations. It supports standard timing protocols and provides detailed health status reporting.