the effect of a variety of factors on multi-carrier microgrid planning results, including the extents of the capital investment fund and loan in addition to demand response enabling technology cost.
Power electronic converters are indispensable building blocks of microgrids. They are the enabling technology for many applications of microgrids, e.g., renewable energy integration, transportation electrification, energy
Microgrids are an emerging technology that offers many benefits compared with traditional power grids, including increased reliability, reduced energy costs, improved energy security, environmental benefits, and
M. Azimian et al.: Planning and Financing Strategy for Clustered Multi-Carrier Microgrids l Carrier including {t: thermal, e: electri- cal}. m,n Microgrids. pv Photovoltaic system. s Seasons. tss
The optimal configuration mix of distributed energy resources, along with the ideal ratio of potential responsive customers, was determined within the proposed multi-carrier microgrid while minimizing the total planning
At first, the components of each multi-carrier microgrid are designed. The capacity of CCHP components is determined considering different economic factors and the load patterns for the different seasons. Then, a comprehensive model consisting of several microgrids considering multiple energy systems is utilized.
Diverse RE technologies such as photovoltaic (PV) systems, biomass, batteries, wind turbines, and converters are considered for system configuration to obtain this goal. Net present cost (NPC) is this study’s objective function for optimal sizing microgrid configuration.
1. Introduction Electricity distribution networks globally are undergoing a transformation, driven by the emergence of new distributed energy resources (DERs), including microgrids (MGs). The MG is a promising potential for a modernized electric infrastructure , .
Net present cost (NPC) is this study’s objective function for optimal sizing microgrid configuration. For demonstration, we assess the technical, economic factors, and atmospheric emissions of optimal hybrid renewable energy systems for Putrajaya City in Malaysia.
In this regard, microgrids (MGs) can provide a unique opportunity for the effective coordination between these infrastructures to reduce the total operation cost of the network. MG can be defined as an energy hub where multiple energy carriers can be consumed, stored, conditioned, and converted into other required forms of energy .
As such a structure is a critical need for the promotion of the usage of RESs, the holistic and hybrid structure is not developed in recent literature for microgrids with multi-carrier energy and 100% RESs to not only support their active presence in MCENs’ interactions but also to fully utilize the different benefits of the system with 100% RESs.
