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DC microgrids conform to distributed control of renewable energy sourceswhich ratifies efficacious instantaneous power sharing and sustenance of energyaccess among different domestic Power Management Units (PMUs) along withmaintaining stability of the grid voltage. In this paper design metrics andperformance evaluation of a scalable DC microgrid are documented where alook-up table of generated power of a source converter complies with thedistribution of efficient power sharing phenomenon among a set of two homePMUs. The source converter is connected with a Photovoltaic panel of 300 W anduses Perturb and Observation (P&O) method for executing Maximum Power PointTracking (MPPT). A boost average DCDC converter topology is used to enhance thevoltage level of the source converter before transmission. The load converterconsists of two parallely connected PMUs each of which is constructed with highswitching frequency based Full Bridge (FB) converter to charge an integratedEnergy Storage System (ESS). In this paper the overall system is modeled andsimulated on MATLAB/Simulink platform with ESSs in the form of Lead Acidbatteries connected to the load side of the FB converter circuits and thesebatteries yield to support marginalized power utilities. The behaviour of thesystem is tested in different solar insolation levels along with severalbattery charging levels of 12 V and 36 V to assess the power efficiency. Ineach testbed the efficiency is found to be more than 93% which affirm thereliability of the framework and a look-up table is generated comprising thegrid and load quantities for effective control of power transmission.

Performance Analysis of a Scalable DC Microgrid Offering Solar Power Based Energy Access and Efficient Control for Domestic Loads