Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions

K. Richardson; A. Buff; C. (Charmayne) Smith (Lonergan); L. Sisken; J. David Musgraves; P. Wachtel; T. Mayer; A. Swisher; A. Pogrebnyakov; M. Kang; C. Pantano; D. Werner; A. Kirk; S. Aiken; C. Rivero-Baleine; Charmayne E Lonergan

doi:10.1117/12.2224239

Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions

K. Richardson
, A. Buff
, C. (Charmayne) Smith (Lonergan)
, L. Sisken
, J. David Musgraves
, P. Wachtel
, T. Mayer
, A. Swisher
, A. Pogrebnyakov
, M. Kang
, C. Pantano
, D. Werner
, A. Kirk
, S. Aiken
, C. Rivero-Baleine
, Charmayne E Lonergan

Missouri University of Science and Technology

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

Abstract

Advanced photonic devices require novel optical materials that serve specified optical function but also possess attributes which can be tailored to accommodate specific optical design, manufacturing or component/device integration constraints. Multi-component chalcogenide glass (ChG) materials have been developed which exhibit broad spectral transparency with a range of physical properties that can be tuned to vary with composition, material microstructure and form. Specific tradeoffs that highlight the impact of material morphology and optical properties including transmission, loss and refractive index, are presented. This paper reports property evolution in a representative 20 GeSe2-60 As2Se3-20 PbSe glass material including a demonstration of a 1D GRIN profile through the use of controlled crystallization.

Original language	American English
Journal	Proceedings of SPIE - The International Society for Optical Engineering
Volume	9822
DOIs	https://doi.org/10.1117/12.2224239
State	Published - Jan 1 2016

Keywords

Chalcogenide glass
Crystallization
GRIN
Glass-ceramic
Infrared nanocomposite
Nucleation

Disciplines

Materials Science and Engineering

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https://doi.org/10.1117/12.2224239

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Richardson, K., Buff, A., Smith (Lonergan), C., Sisken, L., Musgraves, J. D., Wachtel, P., Mayer, T., Swisher, A., Pogrebnyakov, A., Kang, M., Pantano, C., Werner, D., Kirk, A., Aiken, S., Rivero-Baleine, C., & Lonergan, C. E. (2016). Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions. Proceedings of SPIE - The International Society for Optical Engineering, 9822. https://doi.org/10.1117/12.2224239

Richardson, K, Buff, A, Smith (Lonergan), C, Sisken, L, Musgraves, JD, Wachtel, P, Mayer, T, Swisher, A, Pogrebnyakov, A, Kang, M, Pantano, C, Werner, D, Kirk, A, Aiken, S, Rivero-Baleine, C & Lonergan, CE 2016, 'Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions', Proceedings of SPIE - The International Society for Optical Engineering, vol. 9822. https://doi.org/10.1117/12.2224239

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title = "Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions",

abstract = " Advanced photonic devices require novel optical materials that serve specified optical function but also possess attributes which can be tailored to accommodate specific optical design, manufacturing or component/device integration constraints. Multi-component chalcogenide glass (ChG) materials have been developed which exhibit broad spectral transparency with a range of physical properties that can be tuned to vary with composition, material microstructure and form. Specific tradeoffs that highlight the impact of material morphology and optical properties including transmission, loss and refractive index, are presented. This paper reports property evolution in a representative 20 GeSe2-60 As2Se3-20 PbSe glass material including a demonstration of a 1D GRIN profile through the use of controlled crystallization.",

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AU - Musgraves, J. David

AU - Wachtel, P.

AU - Mayer, T.

AU - Swisher, A.

AU - Pogrebnyakov, A.

AU - Kang, M.

AU - Pantano, C.

AU - Werner, D.

AU - Kirk, A.

AU - Aiken, S.

AU - Rivero-Baleine, C.

AU - Lonergan, Charmayne E

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AB - Advanced photonic devices require novel optical materials that serve specified optical function but also possess attributes which can be tailored to accommodate specific optical design, manufacturing or component/device integration constraints. Multi-component chalcogenide glass (ChG) materials have been developed which exhibit broad spectral transparency with a range of physical properties that can be tuned to vary with composition, material microstructure and form. Specific tradeoffs that highlight the impact of material morphology and optical properties including transmission, loss and refractive index, are presented. This paper reports property evolution in a representative 20 GeSe2-60 As2Se3-20 PbSe glass material including a demonstration of a 1D GRIN profile through the use of controlled crystallization.

KW - Chalcogenide glass

KW - Crystallization

KW - GRIN

KW - Glass-ceramic

KW - Infrared nanocomposite

KW - Nucleation

UR - https://scholarsmine.mst.edu/matsci_eng_facwork/3238

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JO - Proceedings of SPIE - The International Society for Optical Engineering

JF - Proceedings of SPIE - The International Society for Optical Engineering

ER -

Engineering Novel Infrared Glass Ceramics For Advanced Optical Solutions

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