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Black box model-based self healing solution for stuck-at-faults in combinational circuits
Author(s) -
S. Meyyappan,
V. Alamelumangai
Publication year - 2017
Publication title -
international review of applied sciences and engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.165
H-Index - 5
eISSN - 2063-4269
pISSN - 2062-0810
DOI - 10.1556/1848.2017.8.2.3
Subject(s) - triple modular redundancy , redundancy (engineering) , combinational logic , field programmable gate array , fault tolerance , digital electronics , computer science , modular design , embedded system , self healing , overhead (engineering) , evolvable hardware , electronic circuit , reliability engineering , engineering , computer engineering , logic gate , algorithm , electrical engineering , medicine , alternative medicine , pathology , operating system
The paper unveils a black box model-based self healing strategy to suppress the ill effects of stuck-at-faults occurring in combinational circuits. The primary theory endeavours to attach a sense of reliability in the performance of digital systems and makes them insensitive to the negative impact of faults present in the system. The proposed methodology employs a dynamic fault tolerant approach to protect digital systems from the incursion of stuck-at-faults and enables the system to come up with fault free outputs. The simulation results affirm the authenticity of the proposed strategy to cancel out the influence of faults and facilitate the system to heal itself. The work utilizes the attributes of an FPGA to demonstrate the practical viability of the proposed approach. The performance analysis endorses the definite dominance of the proposed healing scheme over the traditional Triple Modular Redundancy [TMR] in terms of fault coverage and area overhead.

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