... nanofluid with a high heat convective performance forheat exchange can help reduce the volume of the heatexchanger In addition, using nanofluid with higher heat transfer performance instead of ... sinks, plate heat exchangers, double-tube heat exchangers, or heated enclosures, and seldom used in air-cooled heat exchangers Since the ultimate goal of radiators is to discharge heat into the ... temperature controller (TTM-J4, TOHO, Japan) with SSR (SSR -40 DA, Manax, Taiwan) and heater (300 W), the nanofluid was pumped to an air-cooled heatexchangerfor circulation The heat exchange capacity...
... Floor, New York, NY 10013 Phone 1-800-SPRINGER, fax 201- 348 -45 05, e-mail ordersny@springer-sbm.com, or visit http://www.springeronline.com For information on translations, please e-mail info@apress.com, ... of ED books may be purchased in bulk for academic, corporate, or promotional use eBook versions and licenses are also available for most titles For more information, reference our Special Bulk ... Referencing Controls on Forms 68 Adding References 70 Testing 75 Summary 75 ■Chapter 4: D ynamic WinForms 77 Instantiating Forms ...
... mode (Run 2) was changed from 230 to 341 mg/L on day 22 to increase the NH4-N loading rate Iron in the form of FeSO47H2O and phosphorus in the form of KH2PO4 were added to the influent as a trace ... the formation of aerobic granular sludge - 255 - 0.10 100 80 60 40 20 0 + NH4+-N removal efficiency [%] 0.20 NH4 -N removal rate [kg-N/m3/day] HRT [day] + NH4 -N removal rate [kg-N/m3/day] NH4+-N ... 58(2), 44 5 45 0 Li A J and Li X Y (2009) Selective sludge discharge as the determining factor in SBR aerobic granulation: Numerical modelling and experimental verification, Water Res., 43 ( 14) , 3387-3396...
... 273. 94 283.79 293.63 298.65 289.25 286.60 M1 / M7 M2 / M8 M3 / M9 M4 / M10 M5 / M11 M6 / M12 59 .49 55.05 49 . 54 46. 74 24. 68 39 .40 Received q' [W·m-1] Results for the U-pipe model (Mu) Both total heat ... Issue 3, 2010, pp.399 -41 0 40 3 Table Boundary conditions for simulations M1-M12 for U-pipe model (Mu) and received heatflow per metre of borehole using total heat transfer flow (THT) Boundary conditions: ... the model for the different boundary conditions, heat flows Total heat transfer (THT) Conductive heat transfer (CHT) req [m] cTpw 0. 04 0.0355 req [m] cq"pw 0. 04 0.0283 Figure shows a flow chart...
... 0.003889 0.003723 0.2 0.186269 0.18 144 1 0.180830 0.180797 0.5 0 .46 549 6 0 .46 1281 0 .46 0627 0 .45 7991 2.0 2.15 840 0 2. 145 131 2.12 049 7 2.0 248 07 5.0 9.873 545 9.3 549 39 9.287622 9.280233 Conclusion From ... -6 .46 04 21.806 -6 .46 48 4.4 Rate of heat transfer The rate of heat transfer at the wall i.e the heat flux in terms of Nusselt number Nu for different values of α and Kp are entered in Table The heat ... u11 ′ ′ ′ θ11 (44 ) The corresponding boundary conditions are u11 = 0, θ 11 = at y = 0, u11=0, θ 11 = as y→ ∞ (45 ) (43 ) Solving equations (43 ) and (44 ) under boundary condition (45 ) and using equations...
... Licensee=/5 943 408001, 03/29/20 04 21:23 :49 MST Questions or comments about this message: please call the Document Policy Group at 303-397-2295 I M 48 448 93 ù L b bb4 M - 3- 269 -4 Amend O IEC:1995 FOREWORD ... Licensee=/5 943 408001, 03/29/20 04 21:23 :49 MST Questions or comments about this message: please call the Document Policy Group at 303-397-2295 ~~ ~ Y ~~~ / - IEC 269 PT *4 b W 48 448 91 00238 24 W Publication ... articles, paragraphes et tableaux I E C 2b4 P T * 269 -4 O I E C 1986 86 48 448 73 O0238 34 -9- LOW-VOLTAGE FUSES Part 4: Supplementary requirements for fuse-links for the protection of semiconductor devices...
... Regenerators, 4. 1.3 4. 1 .4 4.1.5 4. 1.6 4. 1.7 4. 1.8 Shells, C Ruiz Tube Plates, C Ruiz Tubes, C Ruiz Expansion Joints, C Ruiz 4. 2 SHELL-AND-TUBE HEAT EXCHANGERS: ELEMENTS OF CONSTRUCTION 4. 2.1 4. 2.2 Introduction, ... no-phase-change heatexchanger performance Pressure drop and pumping power J The choice of formulation r MD4 L A 1983 Hemisphere Publishing Corporation 1.2 .4- l 1.2 .4- l 1.2 .4- I 1.2 .4- l 1.2 .4- 2 1.2 .4- 2 1.2 .4- 3 ... Introduction, C Ruiz Methods of Analysis, C Ruiz M Morris 4. 4.2 4. 4.3 4.4 .4 4.5 MATERIALS OF CONSTRUCTION AND CORROSION 4. 5.1 4. 5.2 4. 5.3 Introduction, J F Lancaster Materials of Construction,...
... 625–6 34 (2005) 15 G Song, Y Li, Cross- layer optimization for OFDM wireless networks-Part I: theoretical framework IEEE Trans Wirel Commun 4, 6 14 6 24 (2005) 16 X Qiu, K Chawla, On the performance ... of 144 kbps For best-effort users, there are no rate requirements However, we assume a threshold rate of 512 kbps for the minimum user satisfaction Furthermore, we set U0 = and Umax = 10 for ... allocation for OFDM systems IEEE Trans Wirel Commun 8, 288–296 (2009) 14 G Song, Y Li, Cross- layer optimization for OFDM wireless networks-Part II: algorithm development IEEE Trans Wirel Commun 4, 625–634...
... 18 Total packets received 2800 240 0 2000 1600 1200 800 15 12 40 0 35 40 45 50 20 25 30 Time (s) 35 40 45 50 PSc basic STD 310 Gain over DCF 802.11 (%) 255 200 145 90 35 −20 Packets RCVD 6.1.1 ... 1500 m Random DSSS, IEEE 802.11a 24. 05 homo/hetero-geneous variable = 0.5– ., 5, 20 0.281838 W 0.0072 14 W 250 100 meters 45 % of PtMAX 30% of PtMAX 10 CBR/UDP 2 048 100–8192 15–1023 25–50, 50 (default) ... DCF specifies that a node needs to sense the medium before transmitting If the medium is idle, the node waits for a random deferral time before transmitting This back-off time is a random value...