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Online since: December 2012
Authors: Jiang Fan, Qing Zhang, Jing Yang, Ji Xing Yuan
Comparison of angle of displacement X Direc-tion Floor 1 5 10 15 20 25 31 35 Y Direc-tion Floor 1 5 10 15 20 25 31 35 SATWE 1/4192 1/1491 1/1097 1/923 1/842 1/805 1/779 1/790 SATWE 1/4899 1/1700 1/1241 1/1013 1/935 1/894 1/868 1/ 882 ETABS 1/6133 1/1934 1/1294 1/1057 1/923 1/842 1/805 1/808 ETABS 1/6485 1/2169 1/1456 1/1164 1/1014 1/933 1/893 1/896 Error (%) 31.65 22.91 15.22 12.68 8.78 4.39 3.23 2.23 Error(%) 24.46 21.62 14.77 12.97 7.79 4.18 2.80 1.56 We could find that the larger part of displacement angle appeared in 25th~35th floor, and the result was much closed within those section, error was less than 5%.
Online since: April 2014
Authors: Wei Ding, Ding Cong Wang, De Zhi Zhao, Ming Ke
Rev. 106(2006)896-910
Online since: January 2015
Authors: Hai Ying Wang, Zhi Gang Song, Liang Xu
Chinese Science Bulletin, 2002(12):896-901
Online since: January 2015
Authors: Wei Liu, Yun Fei Zhao, Xu Liu
AIAA paper, 1996, 896 1996.
Online since: June 2011
Authors: P. Yuan, Ju Jen Liu, Ben Yuan Lin
The density, thermal conductivity, and specific heat capacity of the milling machine worktable, the steel backing plate, and the aluminum plate in the simulation are selected to be 6640, 7870, 2700 kg m-3, 15.2, 51.9, 167 W m-1 ºC -1, as well as 506, 486, 896 J kg -1 ºC -1, respectively.
Online since: May 2015
Authors: Madalin Petru Sbanca, Gheorghe Leonte Mogan
Cheng, Conceptual design of robotics filament winding complexes, Mechatronics Vol. 6, No. 8, pp. 881-896 (1996) [9] C.
Online since: November 2020
Authors: Haruo Kobayashi, Anna Kuwana, Yujie Zhao, Yuan Yang Du, Yuki Ozawa, Yuto Sasaki, Takayuki Nakatani, Kazumi Hatayama, Keno Sato, Takashi Ishida, Toshiyuki Okamoto, Tamotsu Ichikawa
Next, large non-linearity is likely to occur near 256 and 768, and then near 128, 384, 640 and 896 [6].
Online since: May 2020
Authors: Yuliia B. Egorova, Lyudmila V. Davydenko, I.M. Mamonov
Mechanical properties * of VT6 bars as a function of structure type Structure type and parameters Number and percentage of specimens UTS, MPa El, % RA, % KCU, MJ/m2 HRC НВ (dimp) mm 1 2 3 4 5 6 7 8 I (globular) 103 (30%) 929 to 1,076 1,013 10 to 21 17 24 to 48 37 0.31 to 0.92 0.49 30 to 36 34 3.35 to 3.6 3.42 II (transient) 85 (25%) 816 to 1,100 975 7 to 20 15 9 to 48 35 0.34 to 1.31 0.56 28 to 37 33 3.3 to 3.7 3.45 III (mixed) 97 (28%) 788 to 1,109 970 10 to 21 16 20 to 59 39 0.33 to 1.24 0.58 27 to 38 32 2.85 to 3.75 3.49 IV («basket-like») 14 (4%) 897 to 1,053 991 6 to 20 14 14 to 50 28 0.47 to 0.78 0.67 30 to 36 34 3.35 to 3.6 3.4 V (lamellar) 45 (13%) 818 to 1,050 896 8 to 19 14 13 to 47 30 0.49 to 1.14 0.8 26 to 40 32 3.15 to 3.8 3.52 I-V 344 (100%) 788 to 1,109 976 6.0 to 21.0 15.6 9 to 59.0 36.0 0.31 to 1.31 0.57 26 to 40 33 2.85 to 3.8 3.46 Variation of properties - 321 15 50 1.0 14 0.95 Proportion of variations, % attributable
Online since: September 2025
Authors: Peter Michael Gammon, Erfan Bashar, Arne Benjamin Renz, Yifan Jiang, Jiankang Bu
Electron Devices, vol.64, pp. 888-896, 2017
Online since: July 2017
Authors: Kássia Graciele dos Santos, Marcos A.S. Barrozo, Ricardo Correa Santana, L.V. Ferreira
Sieve diameter [mm] Retained mass [g] Δxi Xi as dpi [mm] +2.00 63.54 0.1039 0,896 0.0532 2.00 - 2.00 + 1.70 182.96 0.2991 0,597 0.1531 1.85 - 1.70 + 1.40 196.46 0.3212 0,276 0.1645 1.55 - 1.40 + 1.18 164.84 0.2695 0,006 0.1380 1.29 - 1.18 3.80 0.0062 0,000 0.0032 1.18 Total 611.6 1.0000 - 0.5120 - Experimental Apparatus.