Stable 10MHz Sine Wave Output: This reference board provides a highly stable 10MHz sine wave output, ideal compatible with precision frequency references in test, measurement, calibration, and RF applications. Temperature-Stable Crystal Design: Utilizing a temperature-controlled crystal oscillator structure, it effectively reduces frequency drift caused by ambient temperature variations, ensuring long-term frequency stability and reliability. High-Frequency Reference Module: As a dedicated frequency reference module, it is suitable compatible with laboratory instruments, spectrum analyzers, frequency counters, communication equipment, software-defined radios (SDRs), and other devices requiring a high-precision 10MHz reference clock. SMA Interface Sine Wave Output: Employing a standard SMA interface, it allows compatible with convenient and secure connection to coaxial cables, test equipment, and RF front-ends, providing a clean, low-noise sine wave signal. Low Noise, High Stability: Optimized circuit design minimizes phase noise and jitter in the 10MHz signal, providing a stable, low-distortion sine wave output suitable compatible with precision measurement and synchronization applications. Features: Wide Range of Applications: Suitable compatible with hobbyists, RF engineers, laboratories, and production lines. It can be used as a reference source compatible with GPSDO systems, communication baseband devices, audio-grade clocks, and timing systems. Easy to integrate and use: Its compact PCB layout and clear input/output configuration make it easy to integrate into existing systems or test platcompatible withms. A stable 10 MHz sine wave reference signal can be obtained simply by providing a rated DC power supply and connecting via an SMA interface. Color: Green Material: PCB Package Contents: 1 * Sine wave output board Only the above package content, other products are not included. Note: Light reflection and different displays may cause the color of the item in the picture a little different from the real thing. The measurement allowed error is