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Online since: October 2011
Authors: Jian Lin Zhu, Mei Sheng He, Yao Feng Chen, Rong Zheng, Wei Ming Chen
Venturini had certified that the max voltage transfer ratio of matrix converter is only 0.866 in linear modulation band in theory[1].
These two new topological circuits with similar characteristics: 1.
IEEE Trans. on Power Electronics, Vol. 4, No. 1, January 1989, 4(1): 101-112
[2] J.Holtz,and U.Boelkens, IEEE Transon Industrial electronics, 1989,36(4): 475-479
Proceedings of the IEEE International Symposium on Industrial Electronics, ISIE '96. 1996, 1:466-469
These two new topological circuits with similar characteristics: 1.
IEEE Trans. on Power Electronics, Vol. 4, No. 1, January 1989, 4(1): 101-112
[2] J.Holtz,and U.Boelkens, IEEE Transon Industrial electronics, 1989,36(4): 475-479
Proceedings of the IEEE International Symposium on Industrial Electronics, ISIE '96. 1996, 1:466-469
Online since: May 2020
Authors: Edwin A. Umoh, Ogechukwu N. Iloanusi
Lemma 1 [55,56].
Table 1.
Chaos. (2013) 1-7
Wang, Generalized finite time synchronization between coupled chaotic systems of different orders with unknown parameters, Nonlinear Dyn. 74 (2013) 479-485
(CISIA 2015), Atlantis Press, 2015, pp. 479-482
Table 1.
Chaos. (2013) 1-7
Wang, Generalized finite time synchronization between coupled chaotic systems of different orders with unknown parameters, Nonlinear Dyn. 74 (2013) 479-485
(CISIA 2015), Atlantis Press, 2015, pp. 479-482
Online since: April 2011
Authors: R. Rangel, L. Chávez Chávez, M. Meléndrez, P. Batolo-Pérez, Manuel García-Méndez, Eduardo G. Pérez-Tijerina
Ce(1-x)MXO2, {M=Ru, In} Solid Solutions as Novel Gas Sensors for CO Detection
R.
This can be done mainly by three mechanisms, referred to as compensation vacancy (Eq. 1), dopant interstitial compensation (Eq. 2) or interstitial compensation (Eq. 3), according to the following scheme: xMO1.5 + (1-x) CeO2 ↔ xM'Ce + 0.5xVδ + (1-x)CeCe + (2-0.5x)O0, (1) xMO1.5 + (1-x) CeO2 ↔ 0.25xMi*** + 0.75xM'Ce + (1-x)CeCe + (2-0.5x)O0, (2) xMO1.5 + (1-x) CeO2 ↔ xM'Ce + 0.25xCei**** + (1-1.25)CeCe + (2-0.5x)O0, (3) where: O0 and CeCe oxygen and cerium in their respective net sites, Vδ oxygen vacancy, Cei**** cerium ion at interstitial position, (*) effective positive charge, (') effective negative charge.
Figure 1.
References [1] B.
Reddy, J Alloys Comp 479 (2009) 589-593
This can be done mainly by three mechanisms, referred to as compensation vacancy (Eq. 1), dopant interstitial compensation (Eq. 2) or interstitial compensation (Eq. 3), according to the following scheme: xMO1.5 + (1-x) CeO2 ↔ xM'Ce + 0.5xVδ + (1-x)CeCe + (2-0.5x)O0, (1) xMO1.5 + (1-x) CeO2 ↔ 0.25xMi*** + 0.75xM'Ce + (1-x)CeCe + (2-0.5x)O0, (2) xMO1.5 + (1-x) CeO2 ↔ xM'Ce + 0.25xCei**** + (1-1.25)CeCe + (2-0.5x)O0, (3) where: O0 and CeCe oxygen and cerium in their respective net sites, Vδ oxygen vacancy, Cei**** cerium ion at interstitial position, (*) effective positive charge, (') effective negative charge.
Figure 1.
References [1] B.
Reddy, J Alloys Comp 479 (2009) 589-593
Online since: March 2007
Authors: Mitsuo Niinomi
This new
process is schematically shown in Fig.1.
Fig.1 New process for making Ni (and Mn) free stainless steel.
References [1] R.
Forum Vol. 475-479 (2005), p. 2317
[13] Mitsuo Niinomi, Toshikazu Akahori, Tsutomu Takeuchi, and Shigeki Katsura: Materials Science Forum, Vols. 475-479 (2005), p. 2303
Fig.1 New process for making Ni (and Mn) free stainless steel.
References [1] R.
Forum Vol. 475-479 (2005), p. 2317
[13] Mitsuo Niinomi, Toshikazu Akahori, Tsutomu Takeuchi, and Shigeki Katsura: Materials Science Forum, Vols. 475-479 (2005), p. 2303
Online since: May 2012
Authors: Qiong Wan, Qian Feng, Dang Cong Peng, Shi Ping Jing
The calculation was the equation (1)
It was because that the anoxic zone 2 and aerobic 1 took place in turn, and the experiment was operated under the volume ratio of anaerobic/anoxic/aerobic of 1/0.5/3.6 and 1/1.7/2.4 alternatively.
Reference [1] G.
Water Sci Technol, 1996, 34 (1) : 119 - 128
Water Sci Technol, 2001, 43(1): 155-164
It was because that the anoxic zone 2 and aerobic 1 took place in turn, and the experiment was operated under the volume ratio of anaerobic/anoxic/aerobic of 1/0.5/3.6 and 1/1.7/2.4 alternatively.
Reference [1] G.
Water Sci Technol, 1996, 34 (1) : 119 - 128
Water Sci Technol, 2001, 43(1): 155-164
Online since: May 2021
Authors: Mohd Mustafa Awang Kechik, Soo Kien Chen, Abdul Halim Shaari, Lik Nguong Lau, Wui Ting Chong, Amirah Natasha Ishak, Kean Pah Lim
Intrinsic and extrinsic CMR have been recognised as the origin of MR in manganite [1].
There are three stages of weight loss in NSMO precursor powder as illustrated in Fig. 1.
Fig. 1.
Table 1.
References [1] K.
There are three stages of weight loss in NSMO precursor powder as illustrated in Fig. 1.
Fig. 1.
Table 1.
References [1] K.
Online since: September 2012
Authors: Zeundjua Tjiparuro, Shadreck Mumbiana Situmbeko
description
material
1
1800
01
Long Front Memb
90x90x5 MS
1
844x180
02
Tracker Frame
100x10 MS Sheet
main frame sub-assembly
Scale
1:5
Projection
3rd Angle
FMDU & K.
Components of DLMS: The DLMS consists of ten classes, as shown in Table 1.
Technology Number Allocation: The technology number is allocated as per the following procedure: 1.
In this case, these numbers appear in the bill of materials (BOM) as Part No., (see Figure 1).
Picturing Machines 1400-1700, Cambridge, MIT Press, 2004, pp. 1-10
Components of DLMS: The DLMS consists of ten classes, as shown in Table 1.
Technology Number Allocation: The technology number is allocated as per the following procedure: 1.
In this case, these numbers appear in the bill of materials (BOM) as Part No., (see Figure 1).
Picturing Machines 1400-1700, Cambridge, MIT Press, 2004, pp. 1-10
Online since: February 2012
Authors: C. Karunakaran, P. Magesan, P. Gomathisankar
[1].
The near band gap emission (NBE) occurs at 411-412 nm and the blue or deep level emission (DLE) is at 479-481 nm.
Templating agent D [nm] NBE [nm] DLE [nm] RΩ [kΩ] RCT [kΩ] σ [µS m-1] C [pF] T-80 9 411 479 0.86 64 157 542 PVP-PEG 17 412 481 1.11 67 178 435 Photoelectrical properties.
Comparative dye-degradation profiles [0.020 g-catalyst loading, 7.8 mL s-1 airflow rate, 9.3 mg L-1 dissolved O2, 365 nm, 25.4 μEinstein L-1 s-1, 5.5 pH, 25 mL dye solution].
References [1] X.
The near band gap emission (NBE) occurs at 411-412 nm and the blue or deep level emission (DLE) is at 479-481 nm.
Templating agent D [nm] NBE [nm] DLE [nm] RΩ [kΩ] RCT [kΩ] σ [µS m-1] C [pF] T-80 9 411 479 0.86 64 157 542 PVP-PEG 17 412 481 1.11 67 178 435 Photoelectrical properties.
Comparative dye-degradation profiles [0.020 g-catalyst loading, 7.8 mL s-1 airflow rate, 9.3 mg L-1 dissolved O2, 365 nm, 25.4 μEinstein L-1 s-1, 5.5 pH, 25 mL dye solution].
References [1] X.
Online since: June 2014
Authors: Feng Guo Du, Ge Qu, Bao Feng Li, Hai Ming Zhao, Guang Ren Sun, Rui Jian Wang
Other components include bicyclo[3.1.0]hex-3- en-2-one, 5-(1-methylethyl)- (2.3%), 2-cyclohexen-1-ol,1-methyl-4-(1-methylethyl)-,(1R,4S) (0.9%), bicycle[3.1.1]heptan-3-ol,6,6-dimethyl-2-methylene-,(1S,3R,5S)-(trans-pinoca, 3.7%), 2,6-dimethyl- 2,6-Octadiene (3.9%), 3-thujene (0.3%), palmitic acid (0.2%), stearic acid (0.2%), etc.
(Table 1).
Table 1.
Remaining time (min) Area (%) Compound 1 7.5 0.252 3-Thujene 2 7.7 1.009 (1S)-(-)-alpha-Pinene 3 7.9 1.135 Camphene 4 8.4 1.589 Sabenene 5 8.5 1.387 beta-Pinene 6 9.4 16.494 Benzene,1,2,3,4-tetramethyl- 7 9.5 0.605 Cyclohexene,1-methyl-4-(1-methylethenyl)-, (4R)- 8 10.1 0.202 g-Terpinene 9 10.2 2.648 Cyclohexanol, 1-methyl-4-(1-methylethenyl)-, cis- 10 10.3 0.151 4-Methylphenol 11 10.6 0.101 1-methyl-4-(1-methylethenyl)-Benzene 12 10.9 2.320 Bicyclo[3.1.0]hex-3-en-2-one, 5-(1-methylethyl)- 13 11.2 0.933 2-Cyclohexen-1-ol,1-methyl-4-(1-methylethyl)-, (1R,4S) 14 11.6 3.707 Bicyclo[3.1.1]heptan-3-ol,6,6-dimethyl-2-methylene-, (1S,3R,5S)- 15 12.1 2.976 L(-)-Borneol 16 12.3 4.338 Terpinen-4-ol 17 12.5 4.439 (−)-Myrtenal 18 13.9 0.555 4-(1-methylethyl)-1-Cyclohexene-1-carboxaldehyde 19 14.0 0.504 6-Octen-1-ol,3,7-dimethyl-,1-formate 20 14.3 20.151 L-bornyl acetate 21 15.1 0.378 7-Ethenyl-1,2,3,4,4a,4b,5,6,7,9,10,10a-dodecahydro- 6-hydroxy-1,4a,7-trimethyl-1-phenanthrenecarboxyl 22 15.3 3.884
Lambert: Can J Physiol Pharmacol. vol. 87 (2009), p, 479-492
(Table 1).
Table 1.
Remaining time (min) Area (%) Compound 1 7.5 0.252 3-Thujene 2 7.7 1.009 (1S)-(-)-alpha-Pinene 3 7.9 1.135 Camphene 4 8.4 1.589 Sabenene 5 8.5 1.387 beta-Pinene 6 9.4 16.494 Benzene,1,2,3,4-tetramethyl- 7 9.5 0.605 Cyclohexene,1-methyl-4-(1-methylethenyl)-, (4R)- 8 10.1 0.202 g-Terpinene 9 10.2 2.648 Cyclohexanol, 1-methyl-4-(1-methylethenyl)-, cis- 10 10.3 0.151 4-Methylphenol 11 10.6 0.101 1-methyl-4-(1-methylethenyl)-Benzene 12 10.9 2.320 Bicyclo[3.1.0]hex-3-en-2-one, 5-(1-methylethyl)- 13 11.2 0.933 2-Cyclohexen-1-ol,1-methyl-4-(1-methylethyl)-, (1R,4S) 14 11.6 3.707 Bicyclo[3.1.1]heptan-3-ol,6,6-dimethyl-2-methylene-, (1S,3R,5S)- 15 12.1 2.976 L(-)-Borneol 16 12.3 4.338 Terpinen-4-ol 17 12.5 4.439 (−)-Myrtenal 18 13.9 0.555 4-(1-methylethyl)-1-Cyclohexene-1-carboxaldehyde 19 14.0 0.504 6-Octen-1-ol,3,7-dimethyl-,1-formate 20 14.3 20.151 L-bornyl acetate 21 15.1 0.378 7-Ethenyl-1,2,3,4,4a,4b,5,6,7,9,10,10a-dodecahydro- 6-hydroxy-1,4a,7-trimethyl-1-phenanthrenecarboxyl 22 15.3 3.884
Lambert: Can J Physiol Pharmacol. vol. 87 (2009), p, 479-492