Solid solubility limit of cerium in CaS: Ce3+ phosphor

1986 ◽  
Vol 5 (3) ◽  
pp. 359-360 ◽  
Author(s):  
G. C. Kim ◽  
H. L. Park ◽  
S. I. Yun ◽  
B. G. Moon
Keyword(s):  
Solid Solubility ◽  
Solubility Limit ◽  
Solid Solubility Limit

Positron annihilation study on the solid solubility limit of neodymium in pure iron

1985 ◽  
Vol 19 (1) ◽  
pp. 79-82 ◽  
Author(s):  
He You ◽  
Chang Xiang-rong ◽  
Tian Zhong-zhuo ◽  
Hsiao Chi-mei ◽  
Wang Ming-hua ◽  
...  
Keyword(s):  
Positron Annihilation ◽  
Solid Solubility ◽  
Pure Iron ◽  
Solubility Limit ◽  
Solid Solubility Limit ◽  
Positron Annihilation Study

Structures and microwave dielectric properties of Ba6−3x(Nd,Biy)8+2xTi18O54 (x = 2/3) solid solution

2001 ◽  
Vol 16 (6) ◽  
pp. 1734-1738 ◽  
Author(s):  
Yong Jun Wu ◽  
Xiang Ming Chen
Keyword(s):  
Solid Solution ◽  
Dielectric Properties ◽  
Resonant Frequency ◽  
Temperature Coefficient ◽  
Solid Solubility ◽  
Microwave Dielectric Properties ◽  
Solubility Limit ◽  
Solid Solubility Limit ◽  
Continuous Increase ◽  
Microwave Dielectric

The effects of Bi substitution for Nd in Ba6−3xNd8+2xTi18O54 (x = 2/3) solid solution upon the microstructures and microwave dielectric properties were investigated. The solid solubility limit of Bi in Ba6−3xNd8+2xTi18O54 (x = 2/3) solid solution was about 15 mol%, the same as that for x = 0.5, and densification of the present solid solutions could be performed well at lower temperatures. However, the variation tendency of microwave dielectric properties with composition in the present ceramics quite differed from that for x = 0.5: (1) The temperature coefficient of resonant frequency in the present ceramics showed a continuous variation from positive to negative and did not indicate extreme value at the solid solubility limit. (2) Near-zero temperature coefficient of resonant frequency combined with high-ε and high-Qf values could be obtained in the present ceramics, while that for x = 0.5 had a lower limit of +15 ppm/°C. (3) The dielectric constant also showed a continuous increase for the present compositions, while that in x = 0.5 had an extreme at solid solubility limit. Ceramics with composition of Ba6−3x(Nd0.85,Bi0.15)8+2xTi18O54 (x = 2/3) showed excellent dielectric properties of ε = 99.1, Qf = 5290 GHz, and τf = −5.5 ppm/°C.

Effects of Mechanical Alloying on Solid Solubility

2016 ◽  
Vol 15 ◽  
pp. 17-24 ◽  
Author(s):  
Anshuman Patra ◽  
Swapan Kumar Karak ◽  
Snehanshu Pal
Keyword(s):  
Mechanical Alloying ◽  
Solid Solubility ◽  
Room Temperature ◽  
Milling Time ◽  
Solubility Limit ◽  
Atomic Diffusion ◽  
Solid Solubility Limit ◽  
Solubility Improvement ◽  
Particle Refinement ◽  
Non Equilibrium

Mechanical alloying (MA) is a potential processing method for various equilibrium and non-equilibrium alloy phases such as supersaturated solid solution, metastable crystalline, amorphous, quasi-crystalline phases, nanostructures. Compared to conventional high temperature material processing such as melting and casting, improvement of solid solubility limit results from mechanical alloying at room temperature. The solid solubility increases with increase in milling time due to enhanced stress assisted atomic diffusion during particle refinement and reaches a saturation level at higher milling time. The extension of solid solubility is attributed to thermodynamic, dynamic or kinetic factors such as high dislocation density due to severe plastic deformation during particle refinement and enhanced diffusivity during MA. The review aims to discuss the insight of MA than other non-equilibrium processing in terms of achieving higher solubility, reasoning and mechanism of solubility improvement during MA of different alloy systems.

scholarly journals High Quality Ti-Implanted Si Layers Above Solid Solubility Limit

2009 ◽  
Author(s):  
J. Olea ◽  
D. Pastor ◽  
M. Toledano-Luque ◽  
E. San-Andres ◽  
I. Martil ◽  
...  
Keyword(s):  
Solid Solubility ◽  
Solubility Limit ◽  
High Quality ◽  
Solid Solubility Limit

scholarly journals Microscopy and the Solid Solubility Limit in K1-xMnxTaO3 Ceramics

2012 ◽  
Vol 18 (S5) ◽  
pp. 89-90 ◽  
Author(s):  
Alexander Tkach ◽  
Paula M. Vilarinho ◽  
Abílio Almeida
Keyword(s):  
Solid Solubility ◽  
Magnetic Anomalies ◽  
Solubility Limit ◽  
Multiferroic Materials ◽  
Solid Solubility Limit ◽  
A Site ◽  
Perovskite Lattice

Multiferroic materials, combining at least two of three properties: ferromagnetism, ferroelectricity and ferroelasticity in the same phase, have been widely studied nowadays and have tremendous potential for multifunctional applications, although magnetoelectric multiferroics are difficult to obtain. Recently, dielectric and magnetic anomalies were found to be coupled in the incipient ferroelectrics SrTiO3 and KTaO3 doped with Mn on A-site of ABO3 perovskite lattice.

Revelation of solid solubility limit Fe/Ni = 1/12 in corrosion resistant Cu-Ni alloys and relevant cluster model

2010 ◽  
Vol 25 (2) ◽  
pp. 328-336 ◽  
Author(s):  
Jie Zhang ◽  
Qing Wang ◽  
Yingmin Wang ◽  
Chunyan Li ◽  
Lishi Wen ◽  
...  
Keyword(s):  
Solid Solubility ◽  
Solubility Limit ◽  
Corrosion Performance ◽  
Corrosion Properties ◽  
Solid Solubility Limit ◽  
Corrosion Resistant ◽  
Ni Alloys ◽  
Alloy Series ◽  
Fe Content ◽  
Ni Alloy

Minor Fe additions are necessary to enhance the corrosion resistance of commercial Cu-Ni alloys. The present paper aims at optimizing the Fe content in three alloy series Cu90(Ni,Fe)10, Cu80(Ni,Fe)20, and Cu70(Ni,Fe)30 (at.%) from the viewpoint of their corrosion performance in a 3.5% NaCl solution. An Fe/Ni = 1/12 solid solubility limit line was revealed in the Cu-Ni-Fe phase diagram. Three Fe/Ni = 1/12 alloys, Cu90Ni9.23Fe0.77 (at.%) = Cu-8.6Ni-0.7Fe (wt.%), Cu80Ni18.46Fe1.54 = Cu-17.3Ni-1.4Fe, and Cu70Ni27.7Fe2.3 = Cu-26.2Ni-2.1Fe, show the best corrosion performances in their respective alloy series. The Fe/Ni = 1/12 solubility limit is explained by assuming isolated Fe-centered FeNi12 cuboctahedral clusters embedded in a Cu matrix. The three Fe/Ni = 1/12 alloys can be respectively described by cluster formulas [Fe1Ni12]Cu117, [Fe1Ni12]Cu52, and [Fe1Ni12]Cu30.3. The Fe/Ni = 1/12 rule may serve an important guideline in the industrial Cu-Ni alloy selection because above this limit, easy precipitation would negate the corrosion properties of the Cu-Ni-based alloys.

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