7C-4.000MCB-T

Oscillators Overview

The TXC Corporation 7C-4.000MCB-T is a standard CMOS crystal oscillator operating at a frequency of 4 MHz. It functions with a supply voltage of 2.5 V and features an enable/disable control function. The device utilizes a 4-SMD, no-lead surface mount package with dimensions of 5.00 mm in length and 3.20 mm in width. It is designed for industrial temperature ranges and offers high stability suitable for precision timing applications.

Oscillators Feature Summary

• Integrated enable/disable functionality for power management
• CMOS output format compatible with digital logic circuits
• Compact surface-mount design for automated assembly

Oscillators Applications

• Embedded system clock generation
• Industrial control unit timing
• Communication interface synchronization

Oscillators Procurement Notes

Verify the specific voltage requirement of 2.5 V against your circuit design, as this differs from other variants in the series. Confirm the enable/disable pin configuration matches your schematic. Ensure the 4-SMD footprint aligns with your PCB layout constraints. Check RoHS compliance status if required by your manufacturing standards.

Oscillators Selection Notes

Select this component when a 4 MHz CMOS clock signal is required with active control capabilities. The 2.5 V supply voltage makes it suitable for low-power digital systems. Consider the 4-SMD package size for space-constrained designs. Compare with the 7C-4.000MBA-T if a 3.3 V supply is necessary instead.

Oscillators Part Context

This part belongs to the 7C series of standard oscillators from TXC Corporation. It shares the same physical footprint and frequency as the 7C-4.000MBA-T but operates at a different supply voltage level. The series is characterized by compact SMD packaging and CMOS outputs for general-purpose timing needs.

Oscillators Replacement Considerations

The 7C-4.000MBA-T is listed as a similar alternative, though it operates at 3.3 V rather than 2.5 V. Verify voltage compatibility before substitution. No other direct substitutes are confirmed in public documentation.