DSC612RL2A-0137T

Overview

The DSC612RL2A-0137T is a two-output low power MEMS clock generator manufactured by Microchip Technology. It provides LVCMOS clock outputs at frequencies of 26.973MHz and 27MHz. The device operates within a supply voltage range of 1.71V to 3.63V and features high frequency stability of ±25ppm. It is housed in an ultra-small 2.5mm x 2.0mm 6L LGA package, designed for space-constrained applications requiring precise timing signals.

Feature Summary

• Dual LVCMOS clock outputs providing distinct frequencies
• Ultra-small 6L LGA package footprint
• High frequency stability specification
• Low power MEMS technology base

Applications

• IoT & Edge Computing systems
• Data Center infrastructure
• AI & ML hardware acceleration modules
• Networking & Connectivity equipment

Procurement Notes

Verify the specific suffix 'T' indicates tape and reel packaging configuration when sourcing. Confirm the active product status with authorized distributors. Ensure the 1.71V to 3.63V supply voltage aligns with target system requirements. Validate the 6L LGA package dimensions against PCB layout constraints prior to procurement.

Selection Notes

Select this component for designs requiring dual independent clock outputs from a single compact package. The MEMS base offers robustness against shock and vibration compared to traditional quartz. Consider the ±25ppm stability for applications needing moderate precision without complex calibration. The low voltage operation supports modern portable and energy-efficient architectures.

Part Context

This oscillator belongs to Microchip's ClockWorks family, specifically the DSC612 series of pin-configurable oscillators. These devices utilize MEMS resonator technology to replace discrete crystal assemblies. The series targets industrial, automotive, and consumer markets demanding reliable timing solutions in minimal form factors.

Replacement Considerations

Public confirmed substitute part numbers are not available in the provided documentation. Verify compatibility with existing design-in components before considering alternatives.