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020			_a9781439861929
020			_a1439861927 (hardback)
039		9	_a201808081016 _bhoant _c201504270317 _dVLOAD _c201502081557 _dVLOAD _c201501270934 _dyenh _y201412171132 _zthupt
040			_aVNU
041	1		_aeng
044			_aUS
050			_aQC320 _b.N36 2013
082	1		_a620.1/15 _bNAN 2013 _223
090			_a620.1 _bNAN 2013
245	0	0	_aNanoparticle heat transfer and fluid flow / _cedited by W.J. Minkowycz, E.M. Sparrow, Minnesota, J.P. Abraham
260			_aBoca Raton : _bCRC Press/Taylor & Francis Group, _c[2013]
300			_axiii, 328 pages : _billustrations ; _c24 cm
490			_aSeries in computational and physical processes in mechanics and thermal sciences
490			_aAdvances in numerical heat transfer ; _v volume 4
504			_aIncludes bibliographical references and index.
520			_a"Preface The day of nanoparticles and nanofluids has arrived, and the applications of these media are legion. Here, attention is focused on such disparate applications as biomedical, energy conversion, material properties, and fluid flow and heat transfer. The common denominator of the articles which set forth these applications here is numerical quantification, modeling, simulation, and presentation. The first chapter of this volume conveys a broad overview of nanofluid applications, while the second chapter continues the general thermofluids theme and then narrows the focus to biomedical applications. Chapters 3 and 4 deepen the biomedical emphasis. Equally reflective of current technological and societal themes is energy conversion from dispersed forms to more concentrated and utilizable forms, and these issues are treated in Chapters 5 and 6. Basic to the numerical modeling and simulation of any thermofluid process are material properties. Nanofluid properties have been shown to be less predictable and less repeatable than are those of other media that participate in fluid flow and heat transfer. Property issues for nanofluids are set forth in Chapters 6 and 7. The last three chapters each focus on a specific topic in nanofluid flow and heat transfer. Chapter 8 deals with filtration. Microchannel heat transfer has been identified as the preferred means for the thermal management of electronic equipment, and the role of nanofluids as a coolant is discussed in Chapter 9. Natural convection is conventionally regarded as a low heat-transfer coefficient form of convective heat transfer. Potential enhancement of natural convection due to nanoparticles is the focus of Chapter 10"-- _c Provided by publisher.
650		0	_aHeat _x Transmission.
650		0	_aHeat exchangers _x Thermodynamics.
650		0	_aNanoparticles _x Fluid dynamics.
650		0	_aSCIENCE / Mechanics / Dynamics / Thermodynamics
650		0	_aTECHNOLOGY & ENGINEERING / Mechanical
650		0	_aTECHNOLOGY & ENGINEERING / Nanotechnology & MEMS.
650		0	_aBộ trao đổi nhiệt
650		0	_aCông nghệ Nanô
650		0	_aHạt nanô
650		0	_aKhoa học vật liệu
650		0	_aMechatronics Engineering Technology
650		0	_aMaterials
700	1		_aMinkowycz, W. J., _eeditor of compilation
700	1		_aSparrow, E. M. _q(Ephraim M.), _eeditor of compilation
700	1		_aAbraham, J. P. _q(John P.),
900			_aTrue
925			_aG
926			_a0
942			_c1
999			_c360660 _d360660