Cost and environmental analysis and optimization of a new and green three-level waste heat recovery-based cogeneration cycle: A comparative study. [PDF]
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Investigation and thermodynamic analysis of hydrogen liquefaction cycles: Energy and exergy study. [PDF]
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Reclassifying hospital energy demand toward industry-like requirements for hygienic and resilient indoor environments. [PDF]
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Simulation of 1 MWe hybrid solar power plant by the use of nano-fluid with eccentric backup system. [PDF]
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Solar-assisted tri-generation system with LCPV‑CPC and small-scale gas turbine for year-round clean energy in hot-dry climates. [PDF]
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Optimization of Cryogenic Gas Separation Systems Based on Exergetic Analysis-The Claude-Heylandt Cycle for Oxygen Separation. [PDF]
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Review of organic Rankine cycle (ORC) architectures for waste heat recovery
Renewable and Sustainable Energy Reviews, 2015Abstract The organic Rankine cycle (ORC) is commonly accepted as a viable technology to convert low temperature heat into electricity. Furthermore, ORCs are designed for unmanned operation with little maintenance. Because of these excellent characteristics, several ORC waste heat recovery plants are already in operation.
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Multicomponent Working Fluids For Organic Rankine Cycles (ORCs)
Energy, 1998We have evaluated the merits of organic-fluid mixtures as working media for Rankine power cycles. Non-isothermal phase change both at high and low temperature represents the main advantage with respect to pure fluids. StanMix, a computer code using the Wong and Sandler (WS) mixing rules, integrated into a commercial package, is employed for cycle ...
G ANGELINO, P COLONNADIPALIANO
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Internal Combustion Engine (ICE) bottoming with Organic Rankine Cycles (ORCs)
Energy, 2010Abstract This paper describes a specific thermodynamic analysis in order to efficiently match a vapour cycle to that of a stationary Internal Combustion Engine (ICE). Three different working fluids are considered to represent the main classes of fluids, with reference to the shape of the vapour lines in the T–s diagram: overhanging, nearly ...
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