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Online since: November 2012
Authors: Jeng Haur Horng, Chin Chung Wei, Jen Fin Lin
Miyaguchi et al.[6] analyzed friction torque of single-nut and double-nut ball-screw by the use of theoretical method and experiment.
Wei et.al. [7-9] established a transmission analytical model in disscussing variation of contact geometry and kinetical motion in a preloaded high rotational speed ball-screw.
The type of thermal radiation optical measurement is “Thermo-EL“.
Wei et.al. [7-9] established a transmission analytical model in disscussing variation of contact geometry and kinetical motion in a preloaded high rotational speed ball-screw.
The type of thermal radiation optical measurement is “Thermo-EL“.
Online since: June 2008
Authors: J.S. Marte, M.F.X. Gigliotti, Vener Valitov, Shamil Kh. Mukhtarov, P.R. Subramanian, Nadya Dudova
Alloy 718 is a widely used Ni-base superalloy that is strengthened by γ''
(bct, Ni3Nb) precipitates. 718Plus is a new Ni-base superalloy recently introduced by ATI Allvac.
718Plus is strengthened primarily by γ' (fcc, Ni3(Al,Ti)) precipitates, but also contains some γ''
precipitates.
Composition of the alloys that were studied (Wt. %) Alloy Cr Al Ti Fe Nb Mo Co W C Ni 718 18.3 0.56 1.05 18.1 5.1 2.86 0.12 - 0.05 Balance Allvac 718Plus 18.32 1.4 0.84 9.45 6.29 2.87 9.82 1.29 0.02 Balance Samples from Alloy 718 and Allvac 718Plus with dimensions ∅6 mm х 9 mm and ∅8 mm х 12 mm were machined from hot-worked rods of 256 and 200 mm in diameter, respectively.
Mechanical properties of alloys 718 and Allvac 718Plus after SPD at room temperature Alloy Grain size, [µm] Ultimate Strength, [MPa] Yield Strength, [MPa] El, [%] RA, [%] 718 0.5 1699 (long.) 1438 5.4 6.4 [9] 718 0.1 1799 1696 1.7 6.1 Allvac 718Plus 0.25 2067 1826 1.3 4.7 Summary 1.
Composition of the alloys that were studied (Wt. %) Alloy Cr Al Ti Fe Nb Mo Co W C Ni 718 18.3 0.56 1.05 18.1 5.1 2.86 0.12 - 0.05 Balance Allvac 718Plus 18.32 1.4 0.84 9.45 6.29 2.87 9.82 1.29 0.02 Balance Samples from Alloy 718 and Allvac 718Plus with dimensions ∅6 mm х 9 mm and ∅8 mm х 12 mm were machined from hot-worked rods of 256 and 200 mm in diameter, respectively.
Mechanical properties of alloys 718 and Allvac 718Plus after SPD at room temperature Alloy Grain size, [µm] Ultimate Strength, [MPa] Yield Strength, [MPa] El, [%] RA, [%] 718 0.5 1699 (long.) 1438 5.4 6.4 [9] 718 0.1 1799 1696 1.7 6.1 Allvac 718Plus 0.25 2067 1826 1.3 4.7 Summary 1.
Online since: July 2025
Authors: Elaine Yee Lee Yeu, Ping Ping Chung, Ethan Ju Yan Yeo, Kusau Brandonberg Salang
Zhang, et al. [5] reported that the incorporation of 50 wt.% of MCC as a reinforcement agent in polylactic acid (PLA) improved the flexural strength, flexural modulus and impact strength compared to the neat biopolymer.
Indarti, et al. [24] stated that although MCC is a material with many desirable properties, utilizing it is challenging because hydrogen bonding between its intermolecular chains may result in agglomeration when MCC particles are close to one another.
El-Denglawey, M.
Indarti, et al. [24] stated that although MCC is a material with many desirable properties, utilizing it is challenging because hydrogen bonding between its intermolecular chains may result in agglomeration when MCC particles are close to one another.
El-Denglawey, M.
Online since: October 2007
Authors: Christof Sommitsch, Siegfried Kleber, Bao Hui Tian, Mirza Candic, Manfred Wießner
Experimental procedure
A 304L-type austenitic stainless steel, (Böhler A607: 0.03 % C, 0.75 % Si, 2.00 % Mn, 18.80 % Cr,
9.00 % Ni and balance Fe) as well as the nickel-based alloy 80a (Böhler L306: 0.06 % C, 19.50 %
Cr, 2.40 % Ti, 1.60 % Al and balance Ni), all in wt%, with an initial grain size of about 20 µm for
the alloy 304L and 30 µm for 80a superalloy were provided by Böhler Edelstahl GmbH,
Kapfenberg, Austria.
El-Dasher, A.D.
Beaudoin et al, TMS, (2003), p. 3 [9] H.
El-Dasher, A.D.
Beaudoin et al, TMS, (2003), p. 3 [9] H.
Online since: December 2013
Authors: Xiao Xu, Qiang Yang, Chao Yang Wang
Al-Degs, M.A.M.
Tutunji: Water Res., 2001,35(15):3724-3728 [3] S.Mauchauffée E,Meux:Chemosphere , 2007, 69(5):763–768 [4] A.G.El Samrani, B.S.Lartiges,F.Villiéras:Water Res, 2008, 42(4-5):951–960 [5] V.K.Verma, S.Tewari, J.P.N.Rai:Bioresour Technol, 2008, 99(6):1932–1938 [6] M.Mohsen-Nia, P.Montazeri, H.Modarress:Desalination, 2006, 1(43):276–281 [7] Saber E, Mansour, Ibrahim H, Hasieb and Hussein A, Khalaf:Journal of Applied Sciences, 2012, 12(8):787-792 [8] S.Rengaraj, Seung-Hyeon Moon:Water Research, 2002, 36(7):1783-1793 [9] S.Dahiya, R.M.Tripathi, A.G.Hegde: J.Hazard.
Proceedings, American Chemical Society, Division of Fuel Chemistry, Vol, 41,New Orleans,1996 [15] M.Ahmaruzzaman:Progress in Energy and Combustion Science, 2010,36(3): 327-363 [6] Sen AK, De AK:Water Research, 1987,21(8):885-888 [7] T.Mathialagan, T.Viraraghavan: Journal of hazardous materials, 2002,94(3):291-303 [8] M.Otero, F.Rozada, L.F.Calvo, et. al:Biochemical Engineering Journal, 2003,15(1):59-68 [19] Sevgi Kocaoba:Desalination, 2007,214(1-3):1-10 [20] McKay G, Blair HS, Garden JR:Journal of Applied Polymer Science, 1982, 27(8): 3042-3057 [21] Fanor Mondragon;Fabio Rincon; Ligia Sierra.
Tutunji: Water Res., 2001,35(15):3724-3728 [3] S.Mauchauffée E,Meux:Chemosphere , 2007, 69(5):763–768 [4] A.G.El Samrani, B.S.Lartiges,F.Villiéras:Water Res, 2008, 42(4-5):951–960 [5] V.K.Verma, S.Tewari, J.P.N.Rai:Bioresour Technol, 2008, 99(6):1932–1938 [6] M.Mohsen-Nia, P.Montazeri, H.Modarress:Desalination, 2006, 1(43):276–281 [7] Saber E, Mansour, Ibrahim H, Hasieb and Hussein A, Khalaf:Journal of Applied Sciences, 2012, 12(8):787-792 [8] S.Rengaraj, Seung-Hyeon Moon:Water Research, 2002, 36(7):1783-1793 [9] S.Dahiya, R.M.Tripathi, A.G.Hegde: J.Hazard.
Proceedings, American Chemical Society, Division of Fuel Chemistry, Vol, 41,New Orleans,1996 [15] M.Ahmaruzzaman:Progress in Energy and Combustion Science, 2010,36(3): 327-363 [6] Sen AK, De AK:Water Research, 1987,21(8):885-888 [7] T.Mathialagan, T.Viraraghavan: Journal of hazardous materials, 2002,94(3):291-303 [8] M.Otero, F.Rozada, L.F.Calvo, et. al:Biochemical Engineering Journal, 2003,15(1):59-68 [19] Sevgi Kocaoba:Desalination, 2007,214(1-3):1-10 [20] McKay G, Blair HS, Garden JR:Journal of Applied Polymer Science, 1982, 27(8): 3042-3057 [21] Fanor Mondragon;Fabio Rincon; Ligia Sierra.
Online since: July 2014
Authors: S. Raghuraman, K. Thiruppathi, T. Bharathy
The composition of work piece material is Si 0.70%, Fe 0.28%, Cu 0.21%, Mn 0.12%, Mg 0.99%, Cr 0.6%, Zn 0.088%, Ti 0.047% and remaining Al 97.35% .
K, Noor M.M., Zuki N.M, Rahman M.M, Rejab M.R.M, Daud R.K, Abou-El-Hossein.
R: Multi response optimization of machining parameters of drilling Al/SiC metal matrix composite using grey relational analysis in the Taguchi method, International Journal of Advanced Manufacturing Technology, Vol.37, pp.250–255, 2008.
K, Noor M.M., Zuki N.M, Rahman M.M, Rejab M.R.M, Daud R.K, Abou-El-Hossein.
R: Multi response optimization of machining parameters of drilling Al/SiC metal matrix composite using grey relational analysis in the Taguchi method, International Journal of Advanced Manufacturing Technology, Vol.37, pp.250–255, 2008.