264-10SYGT/S530-E2

LED Indication - Discrete Overview

The 264-10SYGT/S530-E2 is a yellow-green single-color LED from Everlight Electronics, designed for through-hole radial mounting. It features a 3.0mm round lens with a dome style and green tinted appearance. The component operates at a typical forward voltage of 2V with a test current of 20mA. Key optical specifications include a peak wavelength of 573nm and a viewing angle of 40 degrees. The maximum height is 4.80mm, making it suitable for compact panel indicators.

LED Indication - Discrete Feature Summary

• Radial through-hole package with 3.0mm round dome lens
• Yellow-green emission with 40-degree viewing angle
• Standard 2V forward voltage operation

LED Indication - Discrete Applications

• Panel status indicators
• Equipment power signals
• Control board visual feedback

LED Indication - Discrete Procurement Notes

Verify the exact suffix against official Everlight documentation to confirm lens transparency and color consistency. Ensure the radial lead configuration matches the target PCB footprint. Cross-reference the datasheet revision date to validate electrical tolerances before finalizing procurement orders.

LED Indication - Discrete Selection Notes

Select this component when a standard 3.0mm radial LED is required for yellow-green indication. Confirm that the 40-degree viewing angle meets visibility requirements. Verify that the 2V forward voltage aligns with the driving circuit capabilities and current limiting resistor calculations.

LED Indication - Discrete Part Context

This part belongs to the discrete LED indication family from Everlight. It utilizes standard T-1 (3mm) form factor dimensions common in industrial electronics. The product line focuses on reliable through-hole solutions for general-purpose signaling applications.

LED Indication - Discrete Replacement Considerations

Direct substitutes may include other 3.0mm radial yellow-green LEDs from Everlight or competitors with matching 2V forward voltage and 40-degree beam width. Verify mechanical height constraints and spectral peak alignment.