Title :
Nonequilibrium 1/f noise and problems of submicron technology of high reliability microcircuits
Author :
Balim, Gennadij M. ; Smakhtin, Serge S.
Abstract :
A proposition is put forward that nonequilibrium fluctuations of reactive energy (electric and magnetic) in crystal areas are causing deterioration of the reliability of elements due to the decrease in their sizes. We assume that those fluctuations and the known 1/f noise are same. The lowest frequency of 1/f fluctuations of energy is defined by the microcircuit operating duration. Inevitably the moment will come when the intensity of this fluctuation will exceed a critical (destructive) level in crystal structures. This fact explains the known interrelation of nonequilibrium fluctuations and the reliability of electronic devices. The proof is based on analysis of steady-state electric processes by methods of both statistical physics and nonequilibrium thermodynamics. We show that nonequilibrium fluctuations lowers the reliability of microcircuits as the degree of miniaturization grows.
Keywords :
1/f noise; critical fluctuations; failure analysis; integrated circuit modelling; integrated circuit noise; integrated circuit reliability; nanoelectronics; nonequilibrium thermodynamics; space charge; statistical analysis; 1/f energy fluctuation frequency; IC size decrease; IC sub-μm technology reliability problems; critical energy; critical fluctuation intensity level; crystal areas deterioration; crystal structures; destructive fluctuations; electric energy; electronic device reliability; element reliability deterioration; energy flow statistics; magnetic energy; mean-time-between-failures; microcircuit miniaturization degree; microcircuit operating duration; nonequilibrium 1/f noise effects; nonequilibrium thermodynamics; power balance; reactive energy nonequilibrium fluctuations; space charge; statistical physics; steady state electric process analysis; Circuit testing; Equations; Fluctuations; Frequency; Magnetic noise; Parasitic capacitance; Physics; Reactive power; Thermodynamics; Voltage;
Conference_Titel :
Circuits and Systems for Communications, 2002. Proceedings. ICCSC '02. 1st IEEE International Conference on
Print_ISBN :
5-7422-0260-1
DOI :
10.1109/OCCSC.2002.1029126