Direct e-beam writing of colors on (AgI)x(AgPO3)1-x glass

Kyle E. Jacobs; Placid M. Ferreira

doi:10.1116/1.4950750

Direct e-beam writing of colors on (AgI)_x(AgPO₃)_1-x glass

Research output: Contribution to journal › Article › peer-review

Abstract

Direct writing of color patterns is investigated in (AgI)_x(AgPO₃)_1-x ionically conductive glasses through the use of an electron beam. A range of glasses from x = 0-0.5 are explored to represent varying levels of ionic conductivity and the gamut of colors possible depending on substrate composition. For AgIAgPO₃, writing capabilities are found to include a linear, tunable optical density of patterns in transmission, as well as diffraction limited color resolution in reflection. Writing at multiple currents, beam energies, and raster techniques are performed to explore the sensitivity to variations of process parameters. With advanced multiple beam voltage patterning techniques, the authors demonstrate the capability to both generate new colors as well as erase patterns previously created with this process.

Original language	English (US)
Article number	041605
Journal	Journal of Vacuum Science and Technology B: Nanotechnology and Microelectronics
Volume	34
Issue number	4
DOIs	https://doi.org/10.1116/1.4950750
State	Published - Jul 1 2016

ASJC Scopus subject areas

Electronic, Optical and Magnetic Materials
Instrumentation
Process Chemistry and Technology
Surfaces, Coatings and Films
Electrical and Electronic Engineering
Materials Chemistry

Online availability

10.1116/1.4950750

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Cite this

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title = "Direct e-beam writing of colors on (AgI)x(AgPO3)1-x glass",

abstract = "Direct writing of color patterns is investigated in (AgI)x(AgPO3)1-x ionically conductive glasses through the use of an electron beam. A range of glasses from x = 0-0.5 are explored to represent varying levels of ionic conductivity and the gamut of colors possible depending on substrate composition. For AgIAgPO3, writing capabilities are found to include a linear, tunable optical density of patterns in transmission, as well as diffraction limited color resolution in reflection. Writing at multiple currents, beam energies, and raster techniques are performed to explore the sensitivity to variations of process parameters. With advanced multiple beam voltage patterning techniques, the authors demonstrate the capability to both generate new colors as well as erase patterns previously created with this process.",

author = "Jacobs, {Kyle E.} and Ferreira, {Placid M.}",

note = "Funding Information: This work was supported by NSF through Grant No. 1200780 and carried out in part in the Frederick Seitz Materials Research Laboratory Central Research Facilities and Micro-Nano Mechanical Systems Laboratory at the University of Illinois. The authors would also like to acknowledge Bruno Azeredo, Shama Barna, and Glennys Mensing for their consultation in this work. Publisher Copyright: {\textcopyright} 2016 American Vacuum Society.",

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N1 - Funding Information: This work was supported by NSF through Grant No. 1200780 and carried out in part in the Frederick Seitz Materials Research Laboratory Central Research Facilities and Micro-Nano Mechanical Systems Laboratory at the University of Illinois. The authors would also like to acknowledge Bruno Azeredo, Shama Barna, and Glennys Mensing for their consultation in this work. Publisher Copyright: © 2016 American Vacuum Society.

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N2 - Direct writing of color patterns is investigated in (AgI)x(AgPO3)1-x ionically conductive glasses through the use of an electron beam. A range of glasses from x = 0-0.5 are explored to represent varying levels of ionic conductivity and the gamut of colors possible depending on substrate composition. For AgIAgPO3, writing capabilities are found to include a linear, tunable optical density of patterns in transmission, as well as diffraction limited color resolution in reflection. Writing at multiple currents, beam energies, and raster techniques are performed to explore the sensitivity to variations of process parameters. With advanced multiple beam voltage patterning techniques, the authors demonstrate the capability to both generate new colors as well as erase patterns previously created with this process.

AB - Direct writing of color patterns is investigated in (AgI)x(AgPO3)1-x ionically conductive glasses through the use of an electron beam. A range of glasses from x = 0-0.5 are explored to represent varying levels of ionic conductivity and the gamut of colors possible depending on substrate composition. For AgIAgPO3, writing capabilities are found to include a linear, tunable optical density of patterns in transmission, as well as diffraction limited color resolution in reflection. Writing at multiple currents, beam energies, and raster techniques are performed to explore the sensitivity to variations of process parameters. With advanced multiple beam voltage patterning techniques, the authors demonstrate the capability to both generate new colors as well as erase patterns previously created with this process.

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