Composite Structures with Emissive Quantum Dots for Light Enhancement
Abstract
Since their inception, quantum dots have proven to be advantageous for light management applications due to their high brightness and well‐controlled absorption, scattering, and emission properties. As quantum dots become commercially available at large scale, the need for robust, stable, and flexible optical components continues to drive the development of robust and flexible quantum dot composite materials. In this review, after a thorough introduction to quantum dots, discussion delves into methods for fabricating quantum dot loaded composite optical elements such as thin films, microfabricated patterns, and microstructures. The importance of surface chemistry and ligand engineering, host matrixes, wet processing, and unique patterning methodologies is presented by considering photostability, aggregation, and phase separation of quantum dots in corresponding composites. With regard to prospective optical applications of quantum dot materials, emphasis is placed on light emitting and guiding composite materials for lasing applications, specifically whispering gallery mode‐based photonic microsystems. These developments will enable novel flexible, portable, and miniaturized optoelectronic devices such as light‐emitting diodes, flexible pixelated displays, solar cells, large‐area microwaveguides, omnidirectional micromirrors, optical metasurfaces, and directional microlasers.
Document Details
- Document Type
- Pub Defense Publication
- Publication Date
- Nov 06, 2018
- Source ID
- 10.1002/adom.201801072
Entities
People
- Chun Hao Lin
- Marcus J Smith
- Shengtao Yu
- Vladimir V. Tsukruk
Organizations
- Air Force Office of Scientific Research
- Air Force Research Laboratory
- Georgia Tech
- National Science Foundation