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This critical analysis offers a comprehensive overview of the efficiency andnoise reduction methodologies applied in switch mode power supplies (SMPSs) andthe emerging trends in the field. The study acknowledges that power suppliesare an essential element in most electronic devices, and the recentdevelopments have placed a greater emphasis on precision, miniaturization, andeffectiveness of these components. The research focuses on SMPSs in comparisonwith other power supply methodologies and investigates the identification andmitigation of internal and external noise in DC Buck converter design throughsimulations. The study explores the latest and established technologiesemployed in improving SMPSs' power supply units and achieving maximumperformance. The paper highlights the use of a Linear Impedance StabilizationNetwork (LISN) topology and filter topologies to stabilize and eliminate noisesin non-ideal scenarios, starting from an ideal buck converter. The researchalso emphasizes the design, analysis, and implementation of energy-efficientswitch mode isolated converters commonly used in everyday life. Therefore, thestudy concludes that the integration of the LISN methodology in SMPSs designcan play a crucial role in achieving maximum performance and efficiency.

Critical analysis on efficiency and noise reduction methodologies of a switch mode power supply using LISN topology