Substantially reducing or eliminating CO2 emissions from the electricity sector while simultaneously electrifying substantial portions of the heat and transportation sectors are important components of leastcost pathways that limit the global mean surface temperature increase to 2 o C or less . Geothermal power plants may be valuable in this effort because they emit little to no CO2 and can provide dispatchable electricity . While much prior work investigating geothermal power generation focuses on naturally faulted and fractured rock (i.e., hydrothermal resources) or hot dry rock that are artificially stimulated (i.e., Enhanced Geothermal System (EGS) resources), it is also possible to generate electricity with naturally porous and permeable sedimentary basin resources . Prior work in this area estimated electricity generation from sedimentary basin geothermal power plants by coupling numerical reservoir simulators with power cycle models . In contrast, little to no work has utilized analytical solutions for reservoir performance in conjunction with power cycle models to estimate power generation.