6P40089NTGI

Overview

The 6P40089NTGI is a clock generator manufactured by Renesas Electronics Corporation. It features one output with a maximum frequency of 6.16791 MHz and a maximum input frequency of 26 MHz. The device operates at 1.8 V with a working supply current of 2.5 mA. It supports a duty cycle up to 55% and functions within a temperature range of -40°C to +85°C. Packaged in a Reel for SMD/SMT installation, it belongs to the Clock & Timer ICs subcategory.

Feature Summary

• Generates precise clock signals with single-output capability
• Operates on low voltage power supply for energy efficiency
• Designed for surface-mount technology integration

Applications

• General timing circuitry requiring stable clock generation
• Embedded systems utilizing low-voltage logic families
• Industrial control modules operating within standard commercial temperature ranges

Procurement Notes

Verify component authenticity through official Renesas channels or authorized distributors. Confirm RoHS compliance status prior to integration. Ensure storage conditions maintain moisture sensitivity levels according to manufacturer guidelines. Validate package integrity upon receipt to prevent soldering defects during assembly processes.

Selection Notes

Select this component when a single-output clock signal near 6.168 MHz is required. Consider the 1.8 V supply constraint and 2.5 mA current draw against system power budgets. Evaluate thermal performance within the specified -40°C to +85°C operational window for environmental suitability.

Part Context

This part belongs to the 6P40368 series of clock generators from Renesas Electronics. It serves as a specialized timing solution within the broader portfolio of clock and timer integrated circuits. The designation indicates specific packaging and configuration variants within the family structure.

Replacement Considerations

Consult official Renesas documentation for direct pin-compatible substitutes. Verify electrical parameter alignment including frequency limits and supply voltage requirements before implementing alternative components.