We present a generic methodology for organic Rankine cycle optimization, where the working fluid is included as an optimization parameter, in order to maximize the net power output of the cycle. The method is applied on two optimization cases with hot fluid inlet temperatures at 120°C and 90°C. Pure fluids and mixtures are compared to see how mixed working fluids affect performance and important design parameters. The results indicate that mixed working fluids can increase the net power output of the cycle, while reducing the pressure levels. The maximum net power output is obtained by fluids with a critical temperature close to half of the hot fluid inlet temperature. For some mixtures we find the maximum net power when the temperature gli...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The world’s energy demand is still growing, partly due to the rising population, partly to increasin...
We present a generic methodology for organic Rankine cycle optimization, where the working fluid is ...
The organic Rankine cycle is a suitable technology for utilizing low grade heat for electricity prod...
For zeotropic mixtures, the temperature varies during phase change, which is opposed to the isotherm...
The selection of the cycle configuration, working fluid and operating parameters is crucial for the ...
In this paper we present a novel organic Rankine cycle layout, named the organic split-cycle, design...
Organic Rankine Cycles transform low-temperature heat from sustainable sources into electrical power...
In this paper we present a novel organic Rankine cycle layout, named the organic split-cycle, design...
The present work is focused on the thermodynamic optimization of Organic Rankine Cycles (ORCs) for p...
For zeotropic mixtures, the temperature varies during phase change, which is opposed to the isotherm...
The subject of selecting working fluid and process operating conditions for the waste heat binary po...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The world’s energy demand is still growing, partly due to the rising population, partly to increasin...
We present a generic methodology for organic Rankine cycle optimization, where the working fluid is ...
The organic Rankine cycle is a suitable technology for utilizing low grade heat for electricity prod...
For zeotropic mixtures, the temperature varies during phase change, which is opposed to the isotherm...
The selection of the cycle configuration, working fluid and operating parameters is crucial for the ...
In this paper we present a novel organic Rankine cycle layout, named the organic split-cycle, design...
Organic Rankine Cycles transform low-temperature heat from sustainable sources into electrical power...
In this paper we present a novel organic Rankine cycle layout, named the organic split-cycle, design...
The present work is focused on the thermodynamic optimization of Organic Rankine Cycles (ORCs) for p...
For zeotropic mixtures, the temperature varies during phase change, which is opposed to the isotherm...
The subject of selecting working fluid and process operating conditions for the waste heat binary po...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The optimization of an organic Rankine cycle is a challenging task that cannot be tackled without th...
The world’s energy demand is still growing, partly due to the rising population, partly to increasin...