ISM95-1251AH-16.000MHZ

Oscillators Overview

The ISM95-1251AH-16.000MHZ is a standard CMOS crystal oscillator manufactured by ILSI, operating at a nominal frequency of 16 MHz. It utilizes a base crystal resonator and features a 4-SMD, No Lead package with an SMD2520 footprint. The device supports a supply voltage of 1.8V and includes an enable/disable control function. It is classified as an active component within the standard oscillator category.

Oscillators Feature Summary

• Integrated CMOS output driver for direct logic interface
• Hardware enable and disable control capability
• Compact surface-mount design suitable for space-constrained layouts

Oscillators Applications

• Digital signal processing clock sources
• Microcontroller system timing references
• Communication module synchronization circuits

Oscillators Procurement Notes

Verify the manufacturer designation carefully, as some listings associate this part number with Abracon or ILSI. Confirm the specific datasheet version to ensure accurate electrical parameters and pinout definitions. Check RoHS compliance status and lead-free specifications against current regulatory requirements before finalizing procurement decisions.

Oscillators Selection Notes

Select this component when a low-voltage 1.8V CMOS oscillator is required for precise timing applications. Ensure the SMD2520 package dimensions align with the PCB footprint constraints. Verify that the enable/disable functionality meets the power management strategy of the target circuit design.

Oscillators Part Context

This oscillator belongs to the ISM95 series, which offers various frequency options including 12 MHz, 20 MHz, and 24 MHz variants. The series provides standardized performance characteristics for embedded systems requiring stable clock signals in compact form factors.

Oscillators Replacement Considerations

Consult official substitution lists for compatible oscillators with identical voltage and package specifications. Cross-reference electrical parameters such as load capacitance and stability before implementing alternative components.