Techno-Economic Analysis and Optimization for Energy Systems

© 2024 by the authors; CC BY-NC-ND license

pyrolysis; plastic waste; polypropylene; feasibility assessment; circular economy; industrial symbiosis; solar PV; techno-economic analysis; economy of scale; off-grid electrification; solar energy; photovoltaic system; fuel savings; ship emissions; environmental sustainability; energy efficiency; techno-economic evaluation; marine transportation; hydrogen–natural gas blends; economic analysis; levelized cost of electricity; total revenue requirement; low-carbon fuels; decarbonisation; methanol; LNG; environmental-economic analysis; marine engines; hydrogen energy system (HES); renewable energy sources (RES); clusters; bibliometric analysis; environment; hydrogen efficiency; greenhouse gases (GHGs) emissions; household sector; hydrogen case studies; decarbonization; marine fuels; shipping; multicriteria decision making; Promethee; municipal waste treatment; hydrogen production; gasification; carbon capture utilization and storage; thermochemical conversion; plastic pollution; energy systems; energy system components; parallel-connected silicon carbide (SiC) MOSFETs; active current balancing technique; optimization models; renewable energy sources; wind turbine; photovoltaic; electrolyzer; green hydrogen storage; techno-economic analysis; levelized cost of energy; hydrogen vehicles; energy usage; commercial customers; clustering; neural networks; demand model; Polish Power System; electric power system; ship; mathematical model; SimInTech 2020; simulation; simulator; main distribution board; service life; wave energy converter; cost-effective analysis; method of image; linear potential theory; vertical seawall; LNG; COGES; energy system; boil-off gas utilization; dynamic economic dispatch; improved grey wolf optimization algorithm; constraint-handling methods; chaotic initialization; nonlinear convergence factor