Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: August 2011
Authors: Dzuraidah Abd Wahab, Baba Md Deros, Noor Hidayah Abu, Mohd Nizam Ab Rahman
Detail comparison between SMEs and large organization characteristics has been done by researchers and shown in Table 1.
Table 1: Comparison between SMEs and Large Organization Characteristics Organization Characteristic Large organization SMEs Structure Many layers of management level.
The scale ranged from “strongly disagree” (1) to “strongly agree” (5).
References [1] J.D.
Lixiong, IEEE (2000) 1
Table 1: Comparison between SMEs and Large Organization Characteristics Organization Characteristic Large organization SMEs Structure Many layers of management level.
The scale ranged from “strongly disagree” (1) to “strongly agree” (5).
References [1] J.D.
Lixiong, IEEE (2000) 1
Online since: October 2012
Authors: Jin Hua Xu, Zhe Zhang, Miao Li, Ying Wang
of Steel and CFT Structure of 18-story Building
Steel structure
CFT structure
Story
Dimension [mm]
Mu [kN·m]
As [cm2]
Dimension [mm]
Mu [kN·m]
As [cm2]
17-18
□-300×300×9
224
105
□-250×250×6
223
59
15-16
□-300×300×19
381
214
□-300×300×12
479
138
13-14
□-450×450×25
1138
425
□-400×400×12
889
186
11-12
□-450×450×28
1212
473
□-500×500×12
1431
234
9-10
□-650×650×25
2654
625
□-550×550×12
1750
258
7-8
□-700×700×22
2799
597
□-600×600×12
2100
282
4-6
□-750×750×19
2943
556
□-650×650×12
2483
306
1-3
□-750×750×22
3355
641
□-700×700×12
2898
330
Table4 Beam Members List of Steel and CFT Structure of 18-story Building
Steel structure
CFT structure
Story
Dimension [mm]
Mu [kN·m]
As [cm2]
Dimension [mm]
Mu [kN·m]
As [cm2]
17-18
H-466×199×8
283
83
□-350×150×9
327
87
15-16
H-450×200×9
344
95
□-450×200×6
406
77
13-14
H-390×300×10
457
133
□-450×200×6
406
77
11-12
H-606×201×12
685
150
□-500×200×6
486
83
9-10
H-582×300×12
799
169
□-600×200×6
695
95
1-8
H-700×300×13
1323
232
□-600×200×12
1198
186
17-18
H-450×200×9 344 95 □-350×150×9 327 87 15-16 H-390×300×10 457 133 □-450×150×9 504 105 13-14 H-606×201×12 685 150 □-550×200×6 573 89 11-12 H-582×300×12 799 169 □-550×200×9 810 132 9-10 H-692×300×13 1141 208 □-600×200×9 942 141 1-8 H-890×299×15 1790 267 □-850×250×9 1898 195 Table6 Story Drift Angle of Steel and CFT Structure of 18-story Building under Seismic Load Story CFT S X Y X Y 18 1/260 1/269 1/259 1/264 17 1/252 1/262 1/250 1/257 16 1/248 1/262 1/245 1/255 15 1/245 1/264 1/242 1/257 14 1/249 1/273 1/245 1/263 13 1/253 1/273 1/246 1/260 12 1/261 1/278 1/246 1/260 11 1/270 1/282 1/245 1/264 10 1/280 1/289 1/247 1/271 9 1/290 1/297 1/246 1/269 8 1/294 1/300 1/244 1/266 7 1/289 1/294 1/240 1/259 6 1/284 1/290 1/236 1/254 5 1/281 1/285 1/235 1/250 4 1/282 1/284 1/239 1/249 3 1/282 1/291 1/251 1/255 2 1/323 1/307 1/283 1/270 1 1/426 1/373 1/388 1/329 Table5 Story Drift Angle of Steel and CFT Structure of 9-story Building
under Seismic Load Story CFT S X Y X Y 9 1/292 1/292 1/287 1/293 8 1/276 1/278 1/269 1/277 7 1/276 1/287 1/266 1/280 6 1/275 1/285 1/260 1/276 5 1/284 1/290 1/267 1/281 4 1/292 1/298 1/276 1/292 3 1/313 1/342 1/319 1/333 2 1/340 1/363 1/332 1/348 1 1/462 1/439 1/419 1/456 For serviceability requirements, the structure is designed to have a limited story drift under design loads.
All the story drift angle values of the design building are within 1/200.
Vol. 1(2001), p.33 [2] H.Okamura, K.Ozawa and M.Ouchi: Self-compacting concrete.
H-450×200×9 344 95 □-350×150×9 327 87 15-16 H-390×300×10 457 133 □-450×150×9 504 105 13-14 H-606×201×12 685 150 □-550×200×6 573 89 11-12 H-582×300×12 799 169 □-550×200×9 810 132 9-10 H-692×300×13 1141 208 □-600×200×9 942 141 1-8 H-890×299×15 1790 267 □-850×250×9 1898 195 Table6 Story Drift Angle of Steel and CFT Structure of 18-story Building under Seismic Load Story CFT S X Y X Y 18 1/260 1/269 1/259 1/264 17 1/252 1/262 1/250 1/257 16 1/248 1/262 1/245 1/255 15 1/245 1/264 1/242 1/257 14 1/249 1/273 1/245 1/263 13 1/253 1/273 1/246 1/260 12 1/261 1/278 1/246 1/260 11 1/270 1/282 1/245 1/264 10 1/280 1/289 1/247 1/271 9 1/290 1/297 1/246 1/269 8 1/294 1/300 1/244 1/266 7 1/289 1/294 1/240 1/259 6 1/284 1/290 1/236 1/254 5 1/281 1/285 1/235 1/250 4 1/282 1/284 1/239 1/249 3 1/282 1/291 1/251 1/255 2 1/323 1/307 1/283 1/270 1 1/426 1/373 1/388 1/329 Table5 Story Drift Angle of Steel and CFT Structure of 9-story Building
under Seismic Load Story CFT S X Y X Y 9 1/292 1/292 1/287 1/293 8 1/276 1/278 1/269 1/277 7 1/276 1/287 1/266 1/280 6 1/275 1/285 1/260 1/276 5 1/284 1/290 1/267 1/281 4 1/292 1/298 1/276 1/292 3 1/313 1/342 1/319 1/333 2 1/340 1/363 1/332 1/348 1 1/462 1/439 1/419 1/456 For serviceability requirements, the structure is designed to have a limited story drift under design loads.
All the story drift angle values of the design building are within 1/200.
Vol. 1(2001), p.33 [2] H.Okamura, K.Ozawa and M.Ouchi: Self-compacting concrete.
Online since: July 2017
Authors: K.K. Prasad, Anil S. Jadhav, Md Ashfaq Hussain, Gangadhar Biradar
An ideal sequence is x0(k) (k=1, 2, 3......, n)] for the responses.
No Ra(Xi(k)) MRR(Xi(k)) Smaller the Better Larger the Better Ideal Sequence 1 1 1 0.926 0 2 1 0.7392 3 0.891 1 4 0.522 0.0473 5 0.423 0.826 6 0.633 0.536 7 0 0.323 8 0.755 0.0655 9 0.952 0.653 Table 5 Evaluation of ∆oifor each of the responses Exp.
References [1] Sanjit Moshat, Saurav Datta.
No.2. 2010, PP.1-12 [2] S.
Chattopadhay ”Estimation Of Tool Wear During CNC Milling Using Neural Network Based Sensor Fusion’ Mechanical System And Signal Processing 21-2007 p(466-479)
No Ra(Xi(k)) MRR(Xi(k)) Smaller the Better Larger the Better Ideal Sequence 1 1 1 0.926 0 2 1 0.7392 3 0.891 1 4 0.522 0.0473 5 0.423 0.826 6 0.633 0.536 7 0 0.323 8 0.755 0.0655 9 0.952 0.653 Table 5 Evaluation of ∆oifor each of the responses Exp.
References [1] Sanjit Moshat, Saurav Datta.
No.2. 2010, PP.1-12 [2] S.
Chattopadhay ”Estimation Of Tool Wear During CNC Milling Using Neural Network Based Sensor Fusion’ Mechanical System And Signal Processing 21-2007 p(466-479)
Online since: May 2020
Authors: Lin Kai He, Mei Jun Liu, Qing Nan Meng, You Hong Sun
The compositions are shown in Table 1.
Results Fig. 1(a) showed ZrB2-SiC ceramic electron microscopy without Cf and Fig. 1(b) exhibited ZrB2-SiC ceramic electron microscopy with 6 vol% Cf.
As it shown in Fig. 2, 18 peaks were detected for ZSC samples, where in the peaks located at 25.2°, 32.60°, 41.66°, 51.75°, 58.18°, 62.51°, 64.40°, 68.30°, 74.07°, 81.58°, 90.65° and 95.92°, were assigned to ZrB2 (0 0 1), (1 0 0), (1 0 1), (0 0 3), (1 1 0), (1 0 2), (1 1 1), (2 0 0), (2 0 1), (1 1 2) , (2 0 2) and (2 1 0) (PDF#34-0423) and the peaks located at 34.18°, 35.73°, 38.23°,60.81° and 71.97° were contributed to SiC (1 0 1), (1 0 2), (1 0 3), (1 1 0)and (1 1 6) (PDF#29-1131).
Journal of Alloys and Compounds, 2009. 479(1-2): 299-302
Journal of Alloys and Compounds, 2009. 472(1-2): 395-399
Results Fig. 1(a) showed ZrB2-SiC ceramic electron microscopy without Cf and Fig. 1(b) exhibited ZrB2-SiC ceramic electron microscopy with 6 vol% Cf.
As it shown in Fig. 2, 18 peaks were detected for ZSC samples, where in the peaks located at 25.2°, 32.60°, 41.66°, 51.75°, 58.18°, 62.51°, 64.40°, 68.30°, 74.07°, 81.58°, 90.65° and 95.92°, were assigned to ZrB2 (0 0 1), (1 0 0), (1 0 1), (0 0 3), (1 1 0), (1 0 2), (1 1 1), (2 0 0), (2 0 1), (1 1 2) , (2 0 2) and (2 1 0) (PDF#34-0423) and the peaks located at 34.18°, 35.73°, 38.23°,60.81° and 71.97° were contributed to SiC (1 0 1), (1 0 2), (1 0 3), (1 1 0)and (1 1 6) (PDF#29-1131).
Journal of Alloys and Compounds, 2009. 479(1-2): 299-302
Journal of Alloys and Compounds, 2009. 472(1-2): 395-399
Online since: February 2018
Authors: Bei Gang Li, Li Wei Sun
Fig. 1 Effect of time on the adsorption amount.
Fig. 4 The relationship of lnKL and 1/T.
The bands observed at 2924cm-1 and 2359cm-1 nearby suggest the stretching vibrations of C-H group and stretching vibrations of P-H and Si-H.
The bands 669cm-1 and 562cm-1 nearby are belonged to the Si-O bending vibration and Al-O stretching vibration.
References [1] Saakshy, K.
Fig. 4 The relationship of lnKL and 1/T.
The bands observed at 2924cm-1 and 2359cm-1 nearby suggest the stretching vibrations of C-H group and stretching vibrations of P-H and Si-H.
The bands 669cm-1 and 562cm-1 nearby are belonged to the Si-O bending vibration and Al-O stretching vibration.
References [1] Saakshy, K.
Online since: April 2013
Authors: Lech Czarnecki, Hulusi Özkul, Ru Wang
Confucius, 551-479 BC
Abstract.
We would like to follow the idea which has been already presented [1] in Istanbul during the 7th ASPIC.
Five drivers have been here selected (Table 1).
Table 2 Defining research area (number of papers: ICPIC 2013/ASPIC 2013) Material objects % RESEARCH GOALS – ICPIC/ASPIC Material microstructure Use of by-product Particular performance/particular phenomena/ application Modification/ control performance Construction design Repairing/ Adhesion Test methods Life time/ durability Recycling Nanotech Hydration curing ICPIC ASPIC C-PC PMC 48 36 2/1 8/4 13/3 1/1 9/9 1/0 PCC 27 20 2/2 3/2 5/11 3/11 0/8 4/2 0/1 1/1 1/1 1/0 PC 15 11 0/1 2/3 7/7 0/7 2/2 0/1 1/4 0/3 PIC 1 1 1 0/1 0/5 0/1 x Others 9 7 1/3 5/12 0/16 0/8 0/3 0/2 0/1 0/1 Figure 1 Cumulative number of publications (1) and citations (2) on building materials vs.
References [1] L.
We would like to follow the idea which has been already presented [1] in Istanbul during the 7th ASPIC.
Five drivers have been here selected (Table 1).
Table 2 Defining research area (number of papers: ICPIC 2013/ASPIC 2013) Material objects % RESEARCH GOALS – ICPIC/ASPIC Material microstructure Use of by-product Particular performance/particular phenomena/ application Modification/ control performance Construction design Repairing/ Adhesion Test methods Life time/ durability Recycling Nanotech Hydration curing ICPIC ASPIC C-PC PMC 48 36 2/1 8/4 13/3 1/1 9/9 1/0 PCC 27 20 2/2 3/2 5/11 3/11 0/8 4/2 0/1 1/1 1/1 1/0 PC 15 11 0/1 2/3 7/7 0/7 2/2 0/1 1/4 0/3 PIC 1 1 1 0/1 0/5 0/1 x Others 9 7 1/3 5/12 0/16 0/8 0/3 0/2 0/1 0/1 Figure 1 Cumulative number of publications (1) and citations (2) on building materials vs.
References [1] L.
Online since: February 2022
Authors: Nikolai V. Ababkov, M.V. Pimonov, E.E. Levashova
(a)
(b)
Figure 1.
Table 1.
Conclusions 1.
[14] Smirnov A N, Muraviev V V, Ababkov N V 2016 Destruction and diagnostics of metals (Moscow: Innovatsionnoe mashinostroenie, Kemerovo: Siberian publishing group) p 479
Part 1.
Table 1.
Conclusions 1.
[14] Smirnov A N, Muraviev V V, Ababkov N V 2016 Destruction and diagnostics of metals (Moscow: Innovatsionnoe mashinostroenie, Kemerovo: Siberian publishing group) p 479
Part 1.
Online since: March 2018
Authors: Michael Eisterer, Tatiana Prikhna, Viktor Moshchil, Vladimir Sverdun, Vladimir Sokolovsky, Artem Kozyrev, Vitaliy Romaka, Semyon Ponomaryov, Tetiana Serbenyuk, Athanasios G. Mamalis, Myroslav Karpets
Results and Discussion
Figure 1 presents the evolution of the structure of MgB2 materials synthesized at 800 oC and 1050oC without additions (Fig. 1(a)) and with additions of 10 wt% Ti (Figs. 1(b-d)).
Fig. 1(d) shows the diffusion area in a Ti grain located in the material synthesized at 1050 oC.
References [1] T.
Tomsic, Physica C: Supercondactivity, 479(2012), 111 [2] T.
Shaternik, IEEE Tramsactions on Applied Superconductivity, 27(2017), 1 [5] T.
Fig. 1(d) shows the diffusion area in a Ti grain located in the material synthesized at 1050 oC.
References [1] T.
Tomsic, Physica C: Supercondactivity, 479(2012), 111 [2] T.
Shaternik, IEEE Tramsactions on Applied Superconductivity, 27(2017), 1 [5] T.
Online since: February 2022
Authors: Yuriy Velyaev, V.M. Gavrish, Dmitry Maiorov, Kirill Yakovlev
Figure 1.
Table 1.
Structural and surface properties of HAO samples Parameter Sample number 1 2 3 1.
Dependences (1/[Q(PS/P-1)]) on relative nitrogen pressure P/PS of HAO samples Table 2.
References [1] A.B.
Table 1.
Structural and surface properties of HAO samples Parameter Sample number 1 2 3 1.
Dependences (1/[Q(PS/P-1)]) on relative nitrogen pressure P/PS of HAO samples Table 2.
References [1] A.B.
Online since: January 2012
Authors: J. Rapalska, Henryk Dyja, Bartosz Koczurkiewicz
The experiments were made for range Cr=0,1÷150°C/s of cooling rate.
Its chemical composition presented in Table 1.
Table 1.
Fig.1.
Table 6.The temperatures of phase transformation determined after analisys of dilatograms and Vicker’s hardness of steel cooled from temperature 940ºC Cooling rates Cr[ºC/s] Characteristic temperatures [ºC] Hardness HV 150 Fs=715,Ff=Bs=650,Bf=490,Ms=411,Mf=290 321 100 Fs=712,Ff=Bs=660,Bf=485,Ms=410,Mf=286 317 80 Fs=720,Ff=Bs=670,Bf=505,Ms=410,Mf=330 257 50 Fs=733,Ff=Bs=680,Bf=479,Ms=418,Mf=348 230 30 Fs=715,Ff=Bs=650,Bf=432 188 10 Fs=800,Ff=Ps=755,Pf=Bs=672,Bf=550 156 1 Fs=800,Ff=Ps=745,Pf=625 151 0,1 Fs=796,Ff=Ps=750,Pf=664 140 .
Its chemical composition presented in Table 1.
Table 1.
Fig.1.
Table 6.The temperatures of phase transformation determined after analisys of dilatograms and Vicker’s hardness of steel cooled from temperature 940ºC Cooling rates Cr[ºC/s] Characteristic temperatures [ºC] Hardness HV 150 Fs=715,Ff=Bs=650,Bf=490,Ms=411,Mf=290 321 100 Fs=712,Ff=Bs=660,Bf=485,Ms=410,Mf=286 317 80 Fs=720,Ff=Bs=670,Bf=505,Ms=410,Mf=330 257 50 Fs=733,Ff=Bs=680,Bf=479,Ms=418,Mf=348 230 30 Fs=715,Ff=Bs=650,Bf=432 188 10 Fs=800,Ff=Ps=755,Pf=Bs=672,Bf=550 156 1 Fs=800,Ff=Ps=745,Pf=625 151 0,1 Fs=796,Ff=Ps=750,Pf=664 140 .