000			02133nam a2200277 a 4500
001			vtls000086723
003			KUKTEM
005			20251125102833.0
008			150520t2014 nyua f b 001 0 eng d
020			_a1606504762
020			_a9781606504765
039		9	_a201505201200 _bariffin _y201505201159 _zariffin
040			_aUMP
090			_aTA455.G65 S53 2014
100	1		_aSharma, Kal R.
245	1	0	_aGraphene nanomaterials / _cKal R. Sharma
260			_aNew York : _bMomentum Press, _c[2014]
300			_axiv, 199 p. : _bill. ; _c23 cm.
504			_aIncludes bibliographical references and index
505	0		_aPreface -- 1. Discovery and prospects -- 2. Characterization -- 3. Applications -- 4. Stability -- 5. Fabrication methods -- 6. Properties -- About the author -- Notes -- References -- Index
520	3		_aGraphene Nanomaterials is expected to fill a void in knowledge among practitioners generated by the discovery of graphene as a distinct allotrope of carbon (2010 Nobel Prize in Physics) with the potential to affect further increases in speed of microprocessors beyond 30 petahertz. It has other interesting performance properties. Identified in 2004, currently the number of patents in graphene is 7,351 and the number is rising rapidly. This book provides information on the synthesis, characterization, application development, scale-up, stability analysis using a pencil and paper, and structure-property relations. With less than 24,000 atoms/25 nm, the nanosheet form is metastable. Thirty-nine different nanostructuring methods were reviewed in an earlier book including epitaxy, lithography, deposition, exfoliation, etc. With the thickness of only a few atomic layers, graphene has superior field emitter properties, is 100 times stronger than steel, flexible as rubber, tougher than diamond, and is 13 times more conductive than copper. Electron mobility in graphene has been found to be 200,000 cm2V-1s-1
650		0	_aGraphene
650		0	_aNanostructured materials
999			_aVIRTUA40 _c80049 _d80055
999			_aVTLSSORT0080*0400*0200*0201*0900*1000*2450*2600*3000*5040*5050*5200*6500*6501*9992
942	0	0	_02