GNSS LOCKED REFERENCES
Six Channel 10MHz Disciplined Oscillator in PC104 Form Factor with 1PPS and NMEA-NR4600-O/G
Output Signals
NMEA, PPS
Key Features & Specifications
Six Channel 10MHz Disciplined Oscillator with Rubidium and OCXO in PC104 Form Factor with 1PPS, GLONASS, and GPS Lock
- Six independent 13 dBm 10MHz sine outputs with high precision
- Rubidium and OCXO stability for accurate timekeeping
- Phase noise of -90 dBc/Hz at 1 Hz offset and -152 dBc/Hz at 1 kHz
- Supports GNSS GPS lock and 1PPS output for synchronization
- Multi-GNSS receiver with support for GLONASS, QZSS, SBAS
- RS232 port for easy channel status monitoring and control
- Auto-calibration compensates for long-term crystal drift, ensuring continuous performance
- Operates across a wide voltage range from -60 VDC to +60 VDC
- Ideal for embedded systems with a compact PC104 form factor
- High-sensitivity receiver for reliable GPS signal acquisition
- Active antenna support for improved reception in challenging environments
The Six Channel 10MHz Disciplined Oscillator is a robust and reliable solution for applications that require precise frequency reference and synchronization. With Rubidium and OCXO technologies, this oscillator offers exceptional stability, making it ideal for NTP time server systems, GPS synchronization, and high-accuracy embedded systems. It supports GLONASS, QZSS, and SBAS, providing a versatile and future-proof solution for your timekeeping needs. With a compact PC104 form factor and voltage flexibility, this oscillator is ready for use in demanding environments where stability and performance are critical.
Frequently Asked Questions
- How does Rubidium and OCXO contribute to the oscillator's performance?
The Rubidium and OCXO technologies provide superior frequency stability, reducing phase noise and ensuring long-term accuracy, even in challenging conditions. - What is the benefit of multi-GNSS support?
The inclusion of GLONASS, QZSS, and SBAS allows the oscillator to maintain reliable synchronization and GPS lock across multiple satellite constellations, improving accuracy and robustness.
