XG-1000CA 100.0000M-CB

Oscillators Overview

The XG-1000CA 100.0000M-CB is a Surface Acoustic Wave (SAW) oscillator manufactured by Epson Timing. It operates at a nominal frequency of 100.0000 MHz with a frequency stability of ±50 ppm. The device utilizes CMOS output logic and functions at a supply voltage of 3.3V. It features an enable/disable control function via the tri-state output. The component is housed in a compact 4-SMD, No Lead package designed for surface mount applications.

Oscillators Feature Summary

• Utilizes Surface Acoustic Wave (SAW) technology for stable frequency generation
• Includes tri-state output capability for system power management
• Designed for low-voltage operation with standard CMOS interface compatibility

Oscillators Applications

• Industrial equipment requiring precise timing references
• Internet of Things (IoT) devices needing robust frequency control
• Communication systems utilizing 100 MHz clock signals

Oscillators Procurement Notes

Verify the specific ordering suffix to ensure correct voltage and tolerance specifications. Confirm that the 4-SMD footprint matches the target PCB design. Check datasheet limits for operating temperature range and load capacitance requirements before integration.

Oscillators Selection Notes

Select this model when a 100 MHz SAW oscillator is required with ±50 ppm stability. Ensure the application supports 3.3V logic levels and requires an enable pin for power control. Compare size constraints against alternative packages if space is limited.

Oscillators Part Context

This part belongs to the XG-1000 series of SAW oscillators from Epson Timing. The series offers various frequencies and voltage options within a small form factor. The CA suffix typically denotes specific voltage and tolerance configurations within the product line.

Oscillators Replacement Considerations

Direct substitutes include other Epson SAW oscillators with identical 100 MHz frequency and 4-SMD packaging. Verify electrical parameters such as supply voltage and output logic before cross-referencing with competitor models.