Amit Kumar

Dr. Amit Kumar

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Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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17 August 2014 in Journal of the Brazilian Society of Mechanical Sciences and Engineering
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Journal Article
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Mangey RamMangey Ram
Mangey Ram
AKAmit Kumar
Amit Kumar

27 November 2010 in Soft Computing
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Journal Article
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AKAmit Kumar
Amit Kumar
PSPushpinder Singh
Pushpinder Singh
PKParmpreet Kaur
Parmpreet Kaur
AKAmarpreet Kaur
Amarpreet Kaur

1 January 2014 in Journal of Intelligent & Fuzzy Systems: Applications in Engineering and Technology
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Journal Article
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AKAmit Kumar
Amit Kumar
JBJagdeep Brar
Jagdeep Brar
In this paper, a new method is proposed to find the fuzzy optimal solution of fully fuzzy linear programming (FFLP) problems with mixed constraints. By using the proposed method the fuzzy optimal solution of FFLP problems with mixed constraints occurring in real life situations can be easily obtained. To illustrate the proposed method a numerical example is solved. The proposed method can be easily applied to find the fuzzy optimal solution of FFLP problems occurring in real life situations.

29 September 2024 in Mathematics
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Journal Article
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AKAmit Kumar
Amit Kumar
SJSujata Jadhav
Sujata Jadhav
OAOmar Mutab Alsalami
Omar Mutab Alsalami
A remarkably high growth has been observed in the uses of wireless sensor networks (WSNs), due to their momentous potential in various applications, namely the health sector, smart agriculture, safety systems, environmental monitoring, military operations, and many more. It is quite important that a WSN must have high reliability along with the least MTTF. This paper introduces a continuous-time Markov process, which is a special case of stochastic process, based on modeling of a wireless sensor network for analyzing the various reliability indices of the same. The modeling has been conducted by considering the different components, including the sensing unit, transceiver, microcontroller, power supply, standby power supply unit, and their failures/repairs, which may occur during their functioning. The study uncovered different important assessment parameters like reliability, components-wise reliability, MTTF, and sensitivity analysis. The critical components of a WSN are identified by incorporating the concept of sensitivity analysis. The outcomes emphasize that the proposed model will be ideal for understanding different reliability indices of WSNs and guiding researchers and potential users in developing a more robust wireless sensor network system.