A novel route to fibers with volatile crystalline semiconductor cores part 2: Selenides and phosphides

Zaengle, Thomasina; Martinez, Enrique; Hawkins, Thomas W.; McMillen, Colin; Ballato, John

doi:10.1016/j.optmat.2023.114388

Cited by 4 publications

(2 citation statements)

References 71 publications

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“…In Figure 15c, an intensity line scan along the fiber demonstrates the distinction between molten silicon and solid silicon based on their differing emissivities, with molten silicon exhibiting a clear dip in emissivity at the phase transition. Similarly, in [193], the flux-assisted molten core method was employed for laser postprocessing on a ZnSe core infused with Cu8GeSe6. The extension of the molten core technique, introduced in [194], allowed the creation of glass-clad, crystalline gallium arsenide (GaAs) core fibers, a remarkable accomplishment given GaAs's challenges, with laser annealing to separate the Sn and GaAs phases.…”

Section: Laser-processed Smart Materials In Photonics and Optoelectro...mentioning

confidence: 99%

“…Similarly, in [193], the flux-assisted molten core method was employed for laser post-processing on a ZnSe core infused with Cu8GeSe6. The extension of the molten core technique, introduced in [194], allowed the creation of glass-clad, crystalline gallium arsenide (GaAs) core fibers, a remarkable accomplishment given GaAs's challenges, with laser annealing to separate the Sn and GaAs phases.…”

Section: Laser-processed Smart Materials In Photonics and Optoelectro...mentioning

confidence: 99%

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Fabrication of Smart Materials Using Laser Processing: Analysis and Prospects

Murzin,

Stiglbrunner

2023

Applied Sciences

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Laser processing is a versatile tool that enhances smart materials for diverse industries, allowing precise changes in material properties and customization of surface characteristics. It drives the development of smart materials with adaptive properties through laser modification, utilizing photothermal reactions and functional additives for meticulous control. These laser-processed smart materials form the foundation of 4D printing that enables dynamic shape changes depending on external influences, with significant potential in the aerospace, robotics, health care, electronics, and automotive sectors, thus fostering innovation. Laser processing also advances photonics and optoelectronics, facilitating precise control over optical properties and promoting responsive device development for various applications. The application of computer-generated diffractive optical elements (DOEs) enhances laser precision, allowing for predetermined temperature distribution and showcasing substantial promise in enhancing smart material properties. This comprehensive overview explores the applications of laser technology and nanotechnology involving DOEs, underscoring their transformative potential in the realms of photonics and optoelectronics. The growing potential for further research and practical applications in this field suggests promising prospects in the near future.

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Section: Laser-processed Smart Materials In Photonics and Optoelectro...mentioning

confidence: 99%

Section: Laser-processed Smart Materials In Photonics and Optoelectro...mentioning

confidence: 99%

Fabrication of Smart Materials Using Laser Processing: Analysis and Prospects

Murzin,

Stiglbrunner

2023

Applied Sciences

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Semiconductor core fibres: a scalable platform for nonlinear photonics

Huang,

Ballato,

Peacock

2024

npj Nanophoton.

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Semiconductor core, glass cladding fibres that can be produced with scalable dimensions and unique waveguide designs are offering new opportunities for nonlinear photonics. This paper reviews developments in the fabrication and post-processing of such semiconductor core fibres and their enabling of low loss and high efficiency nonlinear components across wavelengths spanning the near- to mid-infrared. Through adaption and expansion of the production processes, routes to new core materials are being opened that could extend the application space, whilst all-fibre integration methods will result in more robust and practical semiconductor systems. Through continued improvement in the core materials, fibre designs and transmission losses, semiconductor fibres are poised to bring unique functionality to both the fibre and semiconductor research fields and their practical application into a myriad of optoelectronic devices.

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Silicon Core Fibers for Nonlinear Photonics: Applications and Emerging Trends

Huang,

Wu,

Ren

et al. 2024

J. Lightwave Technol.

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Over the past two decades silicon core fibers (SCF) have emerged as a promising platform for use in nonlinear photonic applications. By harnessing the unique optical properties of the crystalline silicon core directly within the fiber geometry, it is possible to imagine compact and low power nonlinear systems that are immediately compatible with existing fiber infrastructures. This paper reviews the recent advances in the development and application of SCFs for nonlinear optical processing and source generation. Particular focus will be placed on novel device designs that benefit from the fiber geometry and post-processing procedures that facilitate integration with existing components.

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A novel route to fibers with volatile crystalline semiconductor cores part 2: Selenides and phosphides

Cited by 4 publications

References 71 publications

Fabrication of Smart Materials Using Laser Processing: Analysis and Prospects

Fabrication of Smart Materials Using Laser Processing: Analysis and Prospects

Semiconductor core fibres: a scalable platform for nonlinear photonics

Silicon Core Fibers for Nonlinear Photonics: Applications and Emerging Trends

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