Abstract
Ever-increasing demand for efficient optoelectronic devices with a small-footprinted on-chip light emitting diode has driven their expansion in self-emissive displays, from micro-electronic displays to large video walls. InGaN nanowires, with features like high electron mobility, tunable emission wavelengths, durability under high current densities, compact size, self-emission, long lifespan, low-power consumption, fast response, and impressive brightness, are emerging as the choice of micro-light emitting diodes (μLEDs). However, challenges persist in achieving high crystal quality and lattice-matching heterostructures due to composition tuning and bandgap issues on substrates with differing crystal structures and high lattice mismatches. Consequently, research is increasingly focused on scalable InGaN nanowire μLEDs representing a transformative advancement in display technology, particularly for next-generation applications such as virtual/augmented reality and high-speed optical interconnects. This study presents recent progress and critical challenges in the development of InGaN nanowire μLEDs, highlighting their performance and potential as the next-generation displays in consumer electronics.
| Original language | English |
|---|---|
| Article number | nwae306 |
| Journal | National Science Review |
| Volume | 12 |
| Issue number | 1 |
| DOIs | |
| State | Published - 2025.01.1 |
Keywords
- AR/VR/MR
- GaN
- display
- micro LED
- multi-quantum well
- nanowire
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Findings in the Area of Display Technology Reported from Jeonbuk National University (Scalable Ingan Nanowire M-leds: Paving the Way for Next-generation Display Technology)
25.01.24
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