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Online since: February 2020
Authors: Anişoara Băbălau
This category can in turn be divided into: real taxes (the taxes imposed on material objects) and personal taxes (which refer to the taxable subject) [1].
Barboussestreet, Alexandru cel Bunstreet,Petuniilor street, Bucovăț street, Ecaterina Teodoroiu street, Șoimului street, 1 Maiboulevard
- South: 1 Maiboulevard, Unirii street, Corneliu Coposustreet, Ana Ipătescustreet, Anul1848street
- Zone B is determined by the territory between the streets: - West: Eastern limit of Izvorul Rece locality, Calea Severinului, CanalHC 200, Canal HC 181/1, boundary within the city to the intersection with De 1, boundarywestern property of S.C.
References [1] Dan DROSU ŞAGUNA, Pătru ROTARU, Financial and budgetary law, Syntheses and tests, All Beck Publishing House, Bucharest, 2003
Barboussestreet, Alexandru cel Bunstreet,Petuniilor street, Bucovăț street, Ecaterina Teodoroiu street, Șoimului street, 1 Maiboulevard
- South: 1 Maiboulevard, Unirii street, Corneliu Coposustreet, Ana Ipătescustreet, Anul1848street
- Zone B is determined by the territory between the streets: - West: Eastern limit of Izvorul Rece locality, Calea Severinului, CanalHC 200, Canal HC 181/1, boundary within the city to the intersection with De 1, boundarywestern property of S.C.
References [1] Dan DROSU ŞAGUNA, Pătru ROTARU, Financial and budgetary law, Syntheses and tests, All Beck Publishing House, Bucharest, 2003
Online since: October 2010
Authors: Yeong Sant Kuo
CONCLUSIONS
1.
REFERENCES [1] E.L.
Kuo, “The Influence of Cooling Rate on the Mechanical Properties and Dendrite Cell Size of High Strength Aluminum Alloy Castings,” AFS Transactions Vol.116, (2008) 479-484 [15] U.D.
Vol.101, (1993), 479-484 [17] K.
Vol.5, 1969(3), 1-8
REFERENCES [1] E.L.
Kuo, “The Influence of Cooling Rate on the Mechanical Properties and Dendrite Cell Size of High Strength Aluminum Alloy Castings,” AFS Transactions Vol.116, (2008) 479-484 [15] U.D.
Vol.101, (1993), 479-484 [17] K.
Vol.5, 1969(3), 1-8
Online since: October 2013
Authors: Ji Hyun Hur, Young Soo Park, Myoung Jae Lee, Seong Ho Cho
Fig. 1 shows schematically a FinFET structure bearing dislocations in it.
FIG. 1.
References [1] J.
A. del Alamo, Nature 479, 317 (2011)
Colinge, Nature 479, 310 (2011)
FIG. 1.
References [1] J.
A. del Alamo, Nature 479, 317 (2011)
Colinge, Nature 479, 310 (2011)
Online since: December 2016
Authors: Wojciech Kubissa, Paweł Las, Roman Jaskulski
Table 1.
Mix proportions (for 1 m3).
Fig. 1.
n=0.0119∙mW+0.0376mCρC+mWρW-2.127∙αH∙mCρC-1-αH∙mCρC
References [1] B.
Mix proportions (for 1 m3).
Fig. 1.
n=0.0119∙mW+0.0376mCρC+mWρW-2.127∙αH∙mCρC-1-αH∙mCρC
References [1] B.
Online since: June 2017
Authors: Jana Chabronova, Marek Bednar, Jan Snopko
(Fig. 1) [1].
Five sensors were embedded in the centre of crown in each measuring profile (see Table 1).
Cracks with maximal width of less than 2.0 mm have been identified mainly in unreinforced blocks in the section of blocks No. 436–479 and sporadically in the further part of tunnel as well.
By detailed passportization, it has been found out that: - Longitudinal cracks are sporadically located among blocks No. 1 – 248, specifically in 42 blocks (concreting of secondary lining has been provided by subject No. 1) - The most notable scope of longitudinal cracks is located among blocks No. 249 – 479, in principle in all blocks besides reinforced ones and emergency niches blocks (concreting of secondary lining has been provided by subject No. 2) - Location of cracks as well as width of cracks is recorded in detail within drawings attachment No.: A011-175-103 – Blocks schema
References [1] N.
Five sensors were embedded in the centre of crown in each measuring profile (see Table 1).
Cracks with maximal width of less than 2.0 mm have been identified mainly in unreinforced blocks in the section of blocks No. 436–479 and sporadically in the further part of tunnel as well.
By detailed passportization, it has been found out that: - Longitudinal cracks are sporadically located among blocks No. 1 – 248, specifically in 42 blocks (concreting of secondary lining has been provided by subject No. 1) - The most notable scope of longitudinal cracks is located among blocks No. 249 – 479, in principle in all blocks besides reinforced ones and emergency niches blocks (concreting of secondary lining has been provided by subject No. 2) - Location of cracks as well as width of cracks is recorded in detail within drawings attachment No.: A011-175-103 – Blocks schema
References [1] N.
Online since: April 2008
Authors: Chang Qi Chen, Zhong Kui Zhao, Pu Qing Zhang, Chang Long Li, Xue Jiu Wang, Qing Zhou Sun
Effect of Zinc Content on the Ageing Behavior
of Al-Zn-Mg-Cu-Li Alloys
ZHAO Zhongkui1,a
, SUN Qingzhou1,b
, ZHANG Puqing
1,c,
Li Changlong1,d , WANG Xuejiu2,e
and CHEN Changqi
3,f
1
Materials Science and Engineering School, Shandong Jianzhu University, Jinan 250101, P.
In this paper, Al-5.6Zn-2.8Mg-1.6Cu-0.24Cr-1.1Li, Al-8.0Zn-2.4Mg-2.4Cu-1.1Li-0.18Zr and Al-11.8Zn-2.9Mg-2.8Cu-1.1Li-0.24Zr (in wt%) alloys were artificially aged at 80,100,120,140 and 160°C for different time, respectively.
Experimental The alloys with various compositions of Al-5.6Zn-2.8Mg-1.6Cu-0.24Cr-1.1Li (alloy A), Al-8.0Zn-2.4Mg-2.4Cu-1.1Li-0.18Zr (alloy B) and Al-11.8Zn-2.9Mg-2.8Cu-1.1Li-0.24Zr (alloy C) (in wt.%) were melted in a vacuum furnace and then were cast in a water cooled mould under argon.
References [1] Zs.
Forum Vol. 475-479 (2005), p 325 [7] Z.K.
In this paper, Al-5.6Zn-2.8Mg-1.6Cu-0.24Cr-1.1Li, Al-8.0Zn-2.4Mg-2.4Cu-1.1Li-0.18Zr and Al-11.8Zn-2.9Mg-2.8Cu-1.1Li-0.24Zr (in wt%) alloys were artificially aged at 80,100,120,140 and 160°C for different time, respectively.
Experimental The alloys with various compositions of Al-5.6Zn-2.8Mg-1.6Cu-0.24Cr-1.1Li (alloy A), Al-8.0Zn-2.4Mg-2.4Cu-1.1Li-0.18Zr (alloy B) and Al-11.8Zn-2.9Mg-2.8Cu-1.1Li-0.24Zr (alloy C) (in wt.%) were melted in a vacuum furnace and then were cast in a water cooled mould under argon.
References [1] Zs.
Forum Vol. 475-479 (2005), p 325 [7] Z.K.
Online since: October 2013
Authors: Potjanart Suwanruji, Thitinun Karpkird, Narumol Ittarat, Jantip Setthayanond
Their structures are shown in Figure 1.
R1 = H, Cl, CN R2 = H, CH3 R3 = C2H5, C2H4OH Figure 1.Structures of monoazo disperse dyes.
Table 1.
Regardless of solvents used, the tendency of the dye photostability was group 1> group3> group2.
References [1] O.
R1 = H, Cl, CN R2 = H, CH3 R3 = C2H5, C2H4OH Figure 1.Structures of monoazo disperse dyes.
Table 1.
Regardless of solvents used, the tendency of the dye photostability was group 1> group3> group2.
References [1] O.
Online since: June 2017
Authors: Ji Hun Park
Table 1.
References [1] Z.
Mater. 479-480 (2013) 897-900
Mater. 479-480 (2013) 170-173
Intell. 44(1-2) (1990) 41-87
References [1] Z.
Mater. 479-480 (2013) 897-900
Mater. 479-480 (2013) 170-173
Intell. 44(1-2) (1990) 41-87
Online since: March 2015
Authors: Ying Liu, Jing Wei Cheng, Xiu Chen Zhao, Xue Chao Zhang, Bing Zheng, Ping Chen
Journal of alloys and compounds 486.1 (2009): 474-479.
] reported that the Ni addition had a positive effect on the growth of (Cu, Ni)6Sn5 layer but negative effect on the growth of Cu3Sn layer around the interface between Sn–3.8Ag–0.7Cu–xNi solder and Cu substrate during isothermal aging condition and that the IMC grains are refined with the Ni addition increasing.
Powder metallurgy route was used to synthesize the solders with compositions of Sn-1.0Ag, Sn-1.0Ag-0.2Ni (wt.%).
Thereafter solders Sn-1.0Ag, Sn-1.0Ag-0.2Ni (wt.%) were merely referred to as SA and SA-Ni respectively.
Fig. 4 Typical cross-section micrographs of BSEM of the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h Fig. 5 The thickness of (a) total IMC and (b) Cu3Sn in the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h Typical cross-section micrographs of BSEM of the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h are shown in Fig. 4, and the thickness of IMCs was counted in Fig. 5.
Boer, Physica B 100 (1980) 1–28. ].
Powder metallurgy route was used to synthesize the solders with compositions of Sn-1.0Ag, Sn-1.0Ag-0.2Ni (wt.%).
Thereafter solders Sn-1.0Ag, Sn-1.0Ag-0.2Ni (wt.%) were merely referred to as SA and SA-Ni respectively.
Fig. 4 Typical cross-section micrographs of BSEM of the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h Fig. 5 The thickness of (a) total IMC and (b) Cu3Sn in the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h Typical cross-section micrographs of BSEM of the diffusion couples Sn-1.0Ag, Sn-1.0Ag-0.025Ni, Sn-1.0Ag-0.05Ni, Sn-1.0Ag-0.1Ni, Sn-1.0Ag-0.2Ni and Cu isothermal aged at 423K (150◦C) for 360h are shown in Fig. 4, and the thickness of IMCs was counted in Fig. 5.
Boer, Physica B 100 (1980) 1–28. ].
Online since: December 2010
Authors: Xi Bao Li, Xiao Hua Yu, Hong Xing Gu, Shi Xi Ouyang, Gang Qin Shao, Bo Lin Wu, Jian Wang
Three main polymorphs have been identified as α (monoclinic), β (orthorhombic) and γ (tetragonal) phases, which were stable over various temperature ranges [1-2].
After drying the mixture was heated in a platinum boat at 800 - 1450°C for 1 hour and then furnace cooling.
The heating rate was maintained at 10 °C·min-1 from room temperature to 800 °C.
References [1] G.
Vol. 479 (2009), p. 107
After drying the mixture was heated in a platinum boat at 800 - 1450°C for 1 hour and then furnace cooling.
The heating rate was maintained at 10 °C·min-1 from room temperature to 800 °C.
References [1] G.
Vol. 479 (2009), p. 107