Laser direct writing of phosphor screens for high-definition displays

Fitzgerald, James W.; Piqué, Alberto; Chrisey, Douglas B.; Rack, Philip D.; Zeleznik, M.; Auyeung, R. C. Y.; Lakeou, S.

doi:10.1063/1.126040

Cited by 68 publications

(30 citation statements)

References 17 publications

(8 reference statements)

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“…However, postprinting processes such as high-temperature annealing are often required for the removal of any residual organic binder. Among the materials printed using this approach, one may find carbon-based polymer composites for chemical sensors and biosensors applications (32), diamond nanopowders (33), ferroelectric (34) and ferrite micropowders (35), and phosphor powders (36).…”

Section: Evolution and Limitations Of Direct Laser Printingmentioning

confidence: 99%

Direct Laser Printing for Organic Electronics

Makrygianni

Papazoglou

Zergioti

2015

Wiley Encyclopedia of Electrical and Electronics Engineering

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This article reviews the latest developments as well as the background and the evolution of direct laser printing of various materials for organic electronics applications. Current technological trends require the precise deposition of highly resolved features, which preserve their structural and electronic properties upon transfer, while increasing the number of components that can be integrated in a single device. Direct laser printing techniques meet these requirements and examples of selected applications, including chemical sensors and biosensors, organic thin‐film transistors, organic light‐emitting diodes, and power generating devices, are presented highlighting the potential incorporation of lasers into the direct printing of entire devices and components. In particular, the successful laser printing of polymers, metals, semiconducting inks, and viable biological materials such as DNA, proteins, and enzymes with high spatial resolution offers unique advantages compared to traditional inkjet and thin‐film techniques. Moreover, the mechanisms of liquid‐ and solid‐phase laser printing are investigated through time‐resolved studies, while postprinting processes such as laser sintering, a process used for the formation of conductive features on laser‐printed metallic nanoparticle patterns, are also discussed in this article.

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Section: Evolution and Limitations Of Direct Laser Printingmentioning

confidence: 99%

Direct Laser Printing for Organic Electronics

Makrygianni

Papazoglou

Zergioti

2015

Wiley Encyclopedia of Electrical and Electronics Engineering

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“…Additionally, the same laser was used to perform laser-induced annealing or trimming of the deposited layers. [42] In stereolithography, a laser is scanned across a UV-curable polymer solution. Complex-shaped 3D parts can be manufactured if the hardened part is lowered, exposing fresh solution into which the next layer is written.…”

Section: Laser-based Direct Writingmentioning

confidence: 99%

Powder‐Based Ceramic Meso‐ and Microscale Fabrication Processes

Heule¹,

Vuillemin

Gauckler

2003

Advanced Materials

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Processing techniques are reviewed that allow the introduction of ceramic components made from powders into microelectromechanical systems (MEMS). Ceramics have several advantages over other materials also in microsystems, e.g., heat resistance, hardness, corrosion resistivity, or functional properties. The range of available materials in microfabrication technology is being increased beyond those deposited by thin‐film technology. Top–down approaches like mechanical and laser‐based direct writing processes, ink‐jet printing, microextrusion, and lithography‐based methods are presented. They are complemented by some more fundamental work in the field of bottom–up synthesis of micro‐ and nanoscaled ceramic materials.

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“…method which was suggested some years ago~Veiko et al., 1970!. This method is now commonly used for direct "writing" in microelectronic components, data storage devices, displays, etc.~Szörényi & Tóth, 1989;Fitz-Gerald et al, 2000;Lu & Ren, 2001;Piqué et al, 2003!. Physical ideas of LIFT method have recently appeared to be advantageous also in laser cleaning of surfaces~Luk'yanchuk, 2002!, up-to-date and perspective technologies.…”

Section: Introductionmentioning

confidence: 97%

Laser–induced film deposition by LIFT: Physical mechanisms and applications

et al. 2006

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Peculiarities of the technique of the laser-induced film transfer~LIFT! are investigated. Possible mechanisms of tearing-off and transference of the films from the donor substrate~target! to the acceptor one are investigated. The main fields of LIFT applications are considered. One of the most interesting directions of LIFT applications-decontamination of radioactive surfaces-is investigated in detail. The main peculiarities and regimes of the processing are defined.

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Laser direct writing of phosphor screens for high-definition displays

Abstract: Interactions of excited activators in rare earth and transition metal doped phosphors and their role in low energy cathodoluminescence J. Appl. Phys. 91, 153 (2002);

Cited by 68 publications

References 17 publications

Direct Laser Printing for Organic Electronics

Direct Laser Printing for Organic Electronics

Powder‐Based Ceramic Meso‐ and Microscale Fabrication Processes

Laser–induced film deposition by LIFT: Physical mechanisms and applications

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