SG-9101CB-C02PGCCC

Programmable Oscillators Overview

The SG-9101CB-C02PGCCC is a programmable crystal oscillator manufactured by EPSON. It operates within a frequency range of 670 kHz to 20 MHz and supports CMOS output mode. The device functions with a supply voltage between 1.62V and 3.63V. It features an enable/disable function and is designed for surface mount applications in a 4-SMD, no lead package. The operational temperature range extends from -40°C to +85°C.

Programmable Oscillators Feature Summary

• Programmable frequency generation capability
• CMOS output signal compatibility
• Integrated enable and disable control function

Programmable Oscillators Applications

• General purpose clock signal generation
• Embedded system timing references
• Digital circuit synchronization

Programmable Oscillators Procurement Notes

Verify the specific frequency configuration required for the application against the programmable range. Confirm that the CMOS output level matches the receiving logic interface. Ensure the supply voltage stays within the specified 1.62V to 3.63V limits during operation. Check environmental conditions against the -40°C to +85°C operating range.

Programmable Oscillators Selection Notes

Select this component when a standard CMOS output oscillator is needed for frequencies up to 20 MHz. Consider the 4-SMD package size for space-constrained designs. Evaluate the need for software programmability versus fixed-frequency alternatives. Verify power consumption requirements against the supply current specifications.

Programmable Oscillators Part Context

This part belongs to the SG-9101 series of programmable oscillators from EPSON. It utilizes a crystal base resonator for stable frequency generation. The series offers various package options and frequency ranges to suit different electronic design requirements.

Programmable Oscillators Replacement Considerations

Direct substitutes include other SG-9101 variants with compatible pinouts and electrical characteristics. Verify frequency stability and output drive strength when considering alternative models.