EFO-MN6004A4

Resonators Overview

The EFO-MN6004A4 is a ceramic resonator from the Panasonic EFO-MN series, designed for through-hole mounting. It operates at a nominal frequency of 6.0000 MHz. The component features a radial box package with two leads and a 5.00mm pitch. Physical dimensions are 8.50mm in length and 4.00mm in width (0.335" L x 0.158" W). It is supplied in bulk packaging and complies with lead-free and RoHS standards.

Resonators Feature Summary

• Utilizes ceramic resonance technology for stable frequency generation
• Through-hole construction facilitates standard PCB assembly processes
• RoHS compliant and lead-free manufacturing ensures environmental safety

Resonators Applications

• Microcontroller clock sources
• Simple oscillator circuits
• Consumer electronics timing applications

Resonators Procurement Notes

Verify the specific datasheet version to confirm electrical tolerances and operating temperature ranges prior to integration. Ensure that the through-hole footprint matches the 5.00mm pitch and 8.50mm x 4.00mm dimensions specified. Confirm compliance requirements against current regional regulations if applicable.

Resonators Selection Notes

Select this component when a cost-effective, moderate-precision clock source is required for simple digital circuits. Consider the 6MHz frequency and ceramic type limitations regarding stability compared to quartz crystals. Evaluate thermal performance requirements against the component's rated operating range.

Resonators Part Context

This part belongs to the EFO-MN series of ceramic resonators manufactured by Panasonic Electronic Components. These components are generally used as low-cost alternatives to quartz crystals in applications where high frequency stability is not critical. The series offers various frequency options and package configurations.

Resonators Replacement Considerations

Direct substitutes must match the 6MHz frequency, ceramic type, and radial 2-lead package geometry. Verify equivalent electrical characteristics such as load capacitance and impedance ratio before substitution.