000			03845cam a22004214a 4500
001			16715968
003			Nust- CAS-E
005			20180118181354.0
008			110331s2012 flua b 001 0 eng
010			_a 2011007915
016	7		_a015790262 _2Uk
020			_a9781439839195
020			_a1439839190
020			_a9781439839218
020			_a1439839212 (set)
035			_a(OCoLC)ocn495781202
040			_aDLC _cDLC _dYDX _dBTCTA _dYDXCP _dCDX _dUKMGB _dCIT _dDLC
042			_apcc
050	0	0	_aTK2933.P76 _bP46 2012
082	0	0	_a621.3124290287 _222
084			_aSCI013060 _aSCI024000 _aTEC010000 _2bisacsh
245	0	0	_aPEM fuel cell diagnostic tools / _cedited by Haijiang Wang, Xiao-Zi Yuan, Hui Li.
260			_aBoca Raton, FL : _bCRC Press/Taylor & Francis, _cc2012.
300			_axix, 558 p. : _bill. ; _c27 cm.
490	0		_aPEM fuel cell durability handbook
504			_aIncludes bibliographical references and index.
505	0		_aProton exchange membrane fuel cell testing -- Polarization curve -- Electrochemical impedance spectroscopy -- Cyclic voltammetry -- Linear sweep voltammetry -- Current interruption -- Cathode discharge -- Water transfer factor measurement -- Current mapping -- Transparent cell -- Magnetic resonance imaging -- Neutron imaging -- X-ray diffraction -- Scanning electron microscopy -- Transmission electron microscopy infrared imaging -- Fourier transform infrared spectroscopy -- X-ray photoelectron spectroscopy -- Atomic force microscopy -- Binary gas diffusion -- Gas permeability of proton-exchange membranes -- Species detection -- Rotating disk electrode/rotating ring-disk electrode -- Porosimetry and characterization of the capillary properties of gas diffusion media.
520			_a"Volume 2 reviews various tools developed in PEM fuel cell research, for diagnosing the PEM fuel cells and stacks, including in situ and ex situ diagnostic tools, electrochemical techniques and physical/chemical methods, by outlining the principle, experimental implementation, data processing, and the application of each technique. Also, this volume attempts to incorporate the most recent technical advances in PEM fuel cell diagnosis. It discusses capabilities and weaknesses of these techniques"--
520			_a"Compared to other electrochemical power devices such as the battery, the PEM fuel cell is much more complicated. Its complexity derives from the following aspects: 1) Most of the components are composite materials. 2) Porous materials must be used for gas and water transport. 3) Nanomaterials have to be used to achieve high electrochemical activity. 4) Complicated processes take place within the fuel cell in addition to the electrochemical reactions, such as the transport of electrons, protons, reactant gases, product water and vapor, and heat. 5) The electrode reaction occurs at a multi-phase boundary and transport may occur across multiple boundaries. 6) Multi-phase flow happens in flow field channels and porous media. 7) The scale at which researchers have to look ranges from nanometers to meters. 8) Three-dimensional architecture is vitally important to performance and durability, due to the large size of PEM fuel cell stacks. 9) Local performance can seriously affect the system's performance and durability. 10) There are complicated operating conditions, such as load, temperature, pressure, gas flow, and humidification"--
650		0	_aProton exchange membrane fuel cells _xTesting.
650		0	_aProton exchange membrane fuel cells _xTesting _xEquipment and supplies.
700	1		_aWang, Haijiang Henry.
700	1		_aYuan, Xiao-Zi.
700	1		_aLi, Hui, _d1964-
906			_a7 _bcbc _corignew _d1 _eecip _f20 _gy-gencatlg
942			_2ddc _cBK
999			_c355230 _d355230