Bibliografia
90
Bibliografia
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combustion burner; Combustion and Flame 151; 2007.
[3]: S.Kumar, P.J.Paul, H.S.Makunda; Studies on a new high intensity low-emission
burner; Proc. Combus. Institute 29; 2002.
[4]: F.C.Christo, B.B.Dally; Modeling turbulent reacting jets issuing into a hot and diluted
coflow; Combustion and Flame 142; 2005.
[5]: A. Milani, J.Wünning; What are the stability limits of flameless oxidation?; IFRF online combustion handbook, combustion file No 173; 2002.
[6]: A.Parente, C.Galletti, L.Tognotti; Effect of the model and kinetic mechanism on the
MILD combustion in an industrial burner fed with hydrogen enriched fuels; Inter. Journal of
Hydrogen Energy 33; 2008.
[7]: M.Oberlack, R.Arlitt, N.Peters; On stochastic Damköhler number variations in a
homogeneous flow reactor; Combustion Theory Modell 495-509; 2000.
[8]: N.Peters; Principles and potential of HiCOT combustion; Proceedings of the Forum on High Temperature Air Combustion Technology; 2001.
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[12]: B.B.Dally, E.Reismeir, N.Peters; Effect of fuel mixture on moderate and intense low
oxygen (MILD) combustion; Combustion and Flame 137; 2004.
[13]: J.A.Wünning, J.G.Wünning; Flameless oxidation to reduce thermal NOx formation;
Pr. Energy Comb. Sc, 23; 1997.
[14]: P.R.Medwell, P.A.M.Kalt, B.B.Dally; Imaging of diluted turbulent ethylene flames
stabilized on a Jet in Hot Coflow (JHC) burner; Combustion and Flame 152; 2008.
[15]: C.Galletti, A.Parente, M.Derudi, R.Rota, L.Tognotti; Numerical and experimental
analysis of NO emissions from a lab-scale burner fed with hydrogen-enriched fuels and operating in MILD combustion; Inter. Journal of Hydrogen Energy 34; 2009.
[16]: P.R.Medwell, P.A.M.Kalt, B.B.Dally; Simultaneous imaging of OH, formaldehyde,
and temperature of turbulent nonpremixed jet flames in a heated and diluted coflow;
Bibliografia
91
[17]: M.Derudi, A.Villani, R.Rota; MILD combustion of industrial hydrogen-containing
byproducts; Ind. Eng. Chem. Res. 46; 2007.
[18]: P.Sabia, M.de Joannon, S.Fierro, A.Tregrossi, A.Cavaliere; Hydrogen-enriched
methane MILD combustion in a well stirred reactor; Exp. Therm. Fluid Sci. 31; 2007.
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solid fuels in high temperature preheated air; Proc. Combus. Institute 30; 2005.
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[27]: A.Parente, J.C.Sutherland, B.B.Dally, L.Tognotti, P:J:Smith; Investigation of the
MILD combustion regime via Principal Component Analysis; Proceedins of the Combustion
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[31]: G.J.Rørtveit, J.E.Hustad, S.C.Li, F.A.Williams; Effects of diluents on NOx formation
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[32]: H.Guo, G.J.Smallwood, F.Liu, Y.Ju, Ö.L.Gülder; The effect of hydrogen addiction on
flammability limit and NOx formation in ultra-lean counterflow CH4/air premixed flames;
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[33]: S.Gauthier, A.Nicolle, D.Ballis; Investigation of flame structure and nitrogen oxides
formation in lean porous premixed combustion of natural gas/hydrogen blends; Inter. Journal
of Hydrogen Energy 33;2008.
[34]: A.Parente, C.Galletti, L.Tognotti; A simplified approach for predicting NO formation
in MILD combustion of CH4-H2 mixtures; Proceedings of the Combustion Institute; 2010.
[35]: G.G.Szegö, B.B.Dally, G.J.Nathan; Scaling of NOx emissions from a laboratory scale
MILD combustion furnace; Combustion and Flame 154; 2008.
[36]: A.Frassoldati, P.Sharma, A.Cuoci, T.Faravelli, E.Ranzi; Kinetic and fluid dynamics
modeling of methane/hydrogen jet flames in diluted coflow; Applied Thermal Engineering 30;
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[37]: M.Ihme, Y.C.See; LES flamelet modeling of a three-stream MILD combustor: analysis
of flame sensitivity to scalar inflow conditions; Proceedings of the Combustion Institute;
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[38]: A.P.Morse; Axisymmetric turbulent shear flows with and without swirl; PhD thesis, England London University; 1997.
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[41]: H.P.Mallampalli, T.H.Fletcher, J.Y.Chen; Evalution of CH4/NOx reduced mechanism
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[49]: A.Parente; Experimental and Numerical Investigation of Advanced Systems for
