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020			_a9789390012428
040			_aCSL _cCSL
041			_2eng _aeng
084			_aC21:(D) R1 Carpa _qCSL
100			_aBerry, Helan _eauthor. _9810789
245			_aApplied nanotechnology for quantum mechanics
260			_aNew Delhi: _bAmiga Press, _c2021.
300			_aviii, 235p. _b: col. ill. _c; 24 cm
500			_aIncludes Bibliography and index
520			_aMechanics is the branch of physics dealing with the effects of forces on the motions of bodies. In what is known as the classical picture, the world is composed of distinct elements, each possessing a definite position and velocity. As we get better at controlling materials and fabricating devices on the atomic scale, we'll need more "quantum engineers" to tackle the inherent challenges of technologies that exploit quantum effects. Although many modern devices rely on quantum mechanics in one way or another-for example, on population inversion in lasers or electron tunneling in transistors-most of those quantum effects can be described semi classically and are accessible to engineers who have taken the standard courses on solid-state devices. The Boltzmann distribution often causes confusion. People who are used to the principle of equal a priori probabilities, which says that all microstates are equally probable, are understandably surprised when they come across the Boltzmann distribution which says that high energy microstates are markedly less probable then low energy states.
650			_aQuantum Mechanics _v Nanotechnology _xBoltzmann Distributions _yBlack Body Radiation _9810790
650			_aSchrodinger Wave Equation and Mechanics _9810791
942			_2CC _n0 _cTEXL _hC21:(D) R1 Carpa
999			_c1431058 _d1431058