Ultrahigh-resolution quantum dot patterning for advanced optoelectronic devicesopen access
- Authors
- Nam, Tae Won; Choi, Min-Jae; Jung, Yeon Sik
- Issue Date
- Mar-2023
- Publisher
- Royal Society of Chemistry
- Keywords
- Colloids; Nanocrystals; Optoelectronic Devices; Quantum Optics; 'dry' [; Bulk Counterpart; Feature Shape; Feature Sizes; Optoelectronics Devices; Optoelectronics Property; Recent Progress; Size And Shape; Target Application; Ultrahigh Resolution; Semiconductor Quantum Dots; Quantum Dot; Article; Capillary Force Self Assembly; Colloid; Direct Optical Lithography; Direct Patterning; Epitaxy; Inkjet Printing; Microtechnology; Photolithography; Quantum Optics; Selective Wetting; Serial Writing; Soft Lithography; Three Dimensional Printing; Transfer Printing; Ultrahigh Resolution Quantum Dot Pattern
- Citation
- Chemical Communications, v.59, no.19, pp 2697 - 2710
- Pages
- 14
- Indexed
- SCIE
SCOPUS
- Journal Title
- Chemical Communications
- Volume
- 59
- Number
- 19
- Start Page
- 2697
- End Page
- 2710
- URI
- https://scholarworks.dongguk.edu/handle/sw.dongguk/21308
- DOI
- 10.1039/d2cc05874j
- ISSN
- 1359-7345
1364-548X
- Abstract
- Quantum dots have attracted significant scientific interest owing to their optoelectronic properties, which are distinct from their bulk counterparts. In order to fully utilize quantum dots for next generation devices with advanced functionalities, it is important to fabricate quantum dot colloids into dry patterns with desired feature sizes and shapes with respect to target applications. In this review, recent progress in ultrahigh-resolution quantum dot patterning technologies will be discussed, with emphasis on the characteristic advantages as well as the limitations of diverse technologies. This will provide guidelines for selecting suitable tools to handle quantum dot colloids throughout the fabrication of quantum dot based solid-state devices. Additionally, epitaxially fabricated single-particle level quantum dot arrays are discussed. These are extreme in terms of pattern resolution, and expand the potential application of quantum dots to quantum information processing.
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Collections - College of Engineering > Department of Chemical and Biochemical Engineering > 1. Journal Articles

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