EASV2110BA0

LED Indication - Discrete Overview

The EASV2110BA0 is a discrete red light-emitting diode manufactured by Everlight Electronics Co Ltd. It features a clear lens and operates at a forward voltage of 2.05V with a test current of 20mA. The component emits light at a primary wavelength of 638nm and a peak wavelength of 650nm. It utilizes a 2-SMD, no-lead package with right-angle mounting. The device has a viewing angle of 130 degrees and provides an intensity of 50mcd. Dimensions are 2.10mm in length, 1.00mm in width, and a maximum height of 0.70mm.

LED Indication - Discrete Feature Summary

• Right-angle surface mount configuration for compact board layouts
• Clear lens design for standard indicator applications
• RoHS compliant construction

LED Indication - Discrete Applications

• General purpose status indication
• Panel indicator lights
• Electronic equipment signaling

LED Indication - Discrete Procurement Notes

Verify the specific ordering suffix to ensure correct binning and lens type compatibility. Confirm that the right-angle package orientation matches the PCB footprint requirements. Check for updated environmental compliance documentation if required for specific regional regulations.

LED Indication - Discrete Selection Notes

Select this component when a low-profile, right-angle LED is required for space-constrained designs. Ensure the 638nm wavelength meets visibility requirements. Verify that the 2.05V forward voltage aligns with the driving circuit capabilities.

LED Indication - Discrete Part Context

This part belongs to the EASV series of surface-mount LEDs from Everlight. It is designed for high-density mounting on printed circuit boards. The series offers various color options and package orientations to support diverse electronic product designs.

LED Indication - Discrete Replacement Considerations

Check for direct substitutes within the same manufacturer's portfolio that share identical pinout and dimensional specifications. Verify electrical parameters such as forward voltage and luminous intensity to ensure functional equivalence.