000			01635nam a2200133Ia 4500
008			220620s9999||||xx |||||||||||||| ||und||
020			_a9783040000000
245		0	_aHeat Transfer in Energy Conversion Systems
546			_aEnglish[eng]
650			_aThermosyphon||start-up characteristics||hydrophilic and hydrophobic||contact angle||numerical modeling||heat transfer||artificial ground freezing||underground station||metro in Napoli||GEO heating||microwave heating||microfluidics||silicon||chip integration||industrial waste heat recovery||thermoelectric generator||hexagonal heat exchanger||temperature distribution||output performance||combustor||turbulent Prandtl approaches||Navier–Stokes simulation||thermal analysis||axial permanent magnet coupling (APMC)||eddy current||finite element method (FEM)||lumped-parameter thermal network (LPTN)||energy efficiency||induction heating||resistance heating||turnouts||railway||safety of rail traffic||stock-rail||switch-rail||nanofluid||entropy generation||viscous dissipation||magnetic heating||high temperature proton exchange membrane fuel cell||thermal management||organic rankine cycle||plate heat exchanger||waste heat recovery||cooling system||thermodynamic modeling||shielded metal arc welding||welding spatter||electrode||electrical power||welding time||drying||energy analysis||exergy analysis||multiphase model||multispecies model||thermodynamics||Baltic Sea Region||district heating||DH network||smart asset management||smart grid
700			_aMauro, Alessandro||Massarotti, Nicola||Vanoli, Laura
856			_uhttps://mdpi.com/books/pdfview/book/4078
942			_cEB
999			_c22469 _d22469