Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites

Owing to the high market values of natural sunstones in Oregon, a kind of artificially diffused red feldspar exhibited at the Tucson Exhibition at the beginning of this century, whose color origin is the same as that of natural sunstone (copper nanoparticles). However, the details of the artificial...
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Autor*in:	Qingchao Zhou [verfasserIn] Chengsi Wang [verfasserIn] Andy-Hsitien Shen [verfasserIn]

Format:	E-Artikel
Sprache:	Englisch

Erschienen:	2022

Schlagwörter:	labradorite faceted copper diffusion recoloring

Übergeordnetes Werk:	In: Minerals - MDPI AG, 2012, 12(2022), 8, p 920
Übergeordnetes Werk:	volume:12 ; year:2022 ; number:8, p 920

Links:	Link aufrufen Link aufrufen Link aufrufen Journal toc

DOI / URN:	10.3390/min12080920

Katalog-ID:	DOAJ030335426

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language	English
source	In Minerals 12(2022), 8, p 920 volume:12 year:2022 number:8, p 920
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topic_facet	labradorite faceted copper diffusion recoloring Mineralogy
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authorswithroles_txt_mv	Qingchao Zhou @@aut@@ Chengsi Wang @@aut@@ Andy-Hsitien Shen @@aut@@
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callnumber-first	Q - Science
author	Qingchao Zhou
spellingShingle	Qingchao Zhou misc QE351-399.2 misc labradorite misc faceted misc copper diffusion misc recoloring misc Mineralogy Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites
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topic_title	QE351-399.2 Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites labradorite faceted copper diffusion recoloring
topic	misc QE351-399.2 misc labradorite misc faceted misc copper diffusion misc recoloring misc Mineralogy
topic_unstemmed	misc QE351-399.2 misc labradorite misc faceted misc copper diffusion misc recoloring misc Mineralogy
topic_browse	misc QE351-399.2 misc labradorite misc faceted misc copper diffusion misc recoloring misc Mineralogy
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title	Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites
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title_full	Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites
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title_sort	application of high-temperature copper diffusion in surface recoloring of faceted labradorites
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title_auth	Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites
abstract	Owing to the high market values of natural sunstones in Oregon, a kind of artificially diffused red feldspar exhibited at the Tucson Exhibition at the beginning of this century, whose color origin is the same as that of natural sunstone (copper nanoparticles). However, the details of the artificial diffusion process are less disclosed, there is no systematic method to obtain such gemstones. In this paper, we developed the high-temperature copper diffusion process for the surface recoloring of faceted labradorites, which are partly buried in the diffusant. By optimizing the experimental parameters of high-temperature copper diffusion, we successfully recolored the faceted labradorites to red and light red. The gemological and spectroscopic characteristics of the recolored faceted labradorite were further characterized. The red and light-red faceted labradorites exhibited the unique surface plasmon resonance absorption peaks of copper nanoparticles near 580 nm, which is the origin of red color. The typical inclusions formed in the faceted labradorite is in the shape of “fire cloud”. The interface of red and light-red faceted labradorite that is in contact with the diffusant is less contaminated, we believe that the contamination could be further reduced or eliminated by optimizing the high-temperature copper diffusion process. The way that the sample is in contact with the diffusant partly is versatile and promising in the surface treatment of materials that have already been processed.
abstractGer	Owing to the high market values of natural sunstones in Oregon, a kind of artificially diffused red feldspar exhibited at the Tucson Exhibition at the beginning of this century, whose color origin is the same as that of natural sunstone (copper nanoparticles). However, the details of the artificial diffusion process are less disclosed, there is no systematic method to obtain such gemstones. In this paper, we developed the high-temperature copper diffusion process for the surface recoloring of faceted labradorites, which are partly buried in the diffusant. By optimizing the experimental parameters of high-temperature copper diffusion, we successfully recolored the faceted labradorites to red and light red. The gemological and spectroscopic characteristics of the recolored faceted labradorite were further characterized. The red and light-red faceted labradorites exhibited the unique surface plasmon resonance absorption peaks of copper nanoparticles near 580 nm, which is the origin of red color. The typical inclusions formed in the faceted labradorite is in the shape of “fire cloud”. The interface of red and light-red faceted labradorite that is in contact with the diffusant is less contaminated, we believe that the contamination could be further reduced or eliminated by optimizing the high-temperature copper diffusion process. The way that the sample is in contact with the diffusant partly is versatile and promising in the surface treatment of materials that have already been processed.
abstract_unstemmed	Owing to the high market values of natural sunstones in Oregon, a kind of artificially diffused red feldspar exhibited at the Tucson Exhibition at the beginning of this century, whose color origin is the same as that of natural sunstone (copper nanoparticles). However, the details of the artificial diffusion process are less disclosed, there is no systematic method to obtain such gemstones. In this paper, we developed the high-temperature copper diffusion process for the surface recoloring of faceted labradorites, which are partly buried in the diffusant. By optimizing the experimental parameters of high-temperature copper diffusion, we successfully recolored the faceted labradorites to red and light red. The gemological and spectroscopic characteristics of the recolored faceted labradorite were further characterized. The red and light-red faceted labradorites exhibited the unique surface plasmon resonance absorption peaks of copper nanoparticles near 580 nm, which is the origin of red color. The typical inclusions formed in the faceted labradorite is in the shape of “fire cloud”. The interface of red and light-red faceted labradorite that is in contact with the diffusant is less contaminated, we believe that the contamination could be further reduced or eliminated by optimizing the high-temperature copper diffusion process. The way that the sample is in contact with the diffusant partly is versatile and promising in the surface treatment of materials that have already been processed.
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title_short	Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites
url	https://doi.org/10.3390/min12080920 https://doaj.org/article/03c4263e16274741afeff4894522af26 https://www.mdpi.com/2075-163X/12/8/920 https://doaj.org/toc/2075-163X
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up_date	2024-07-03T14:23:01.334Z
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Application of High-Temperature Copper Diffusion in Surface Recoloring of Faceted Labradorites

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