Fig. 1 Illustration of ORC operation with ( a ) pure working fluids and ( b ) zeotropic mixtures as working fluids, highlighting the reduction in exergy losses More about this image found in Illustration of ORC operation with ( a ) pure working fluids and ...

Fig. 2 Temperature–entropy (T–s) diagram (left) and schematic (right) of the basic transcritical ORC ( TC − OR C B ) More about this image found in Temperature–entropy (T–s) diagram (left) and schematic (right) of the basic...

Fig. 3 Comparison of maximum power generated by R32-CO 2 mixtures obtained in this study with the literature [ 25 ] More about this image found in Comparison of maximum power generated by R32-CO 2 mixtures obtained in thi...

Fig. 4 Techno-economic analysis implementation of this study More about this image found in Techno-economic analysis implementation of this study

Fig. 5 Influence of CO 2 fraction on the critical pressure (left) and critical temperature (right) of the zeotropic mixtures More about this image found in Influence of CO 2 fraction on the critical pressure (left) and critical te...

Fig. 6 Influence of CO 2 fraction on the temperature glide phenomenon for different zeotropic mixtures More about this image found in Influence of CO 2 fraction on the temperature glide phenomenon for differe...

Fig. 7 Comparison of the maximum net power ( W ˙ n e t , m a x ) generated in a transcritical-ORC as a function of CO 2 fraction in the zeotropic mixtures at different heat source temperatures ( T H S ) More about this image found in Comparison of the maximum net power ( W ˙ n e t , m a x ...

Fig. 8 Comparison of the maximum net power ( W ˙ n e t , m a x ) generated normalized by the heat transfer coefficient signifying the compactness of the heat exchangers in a transcritical-ORC as a function of CO 2 fraction at different heat source temperatures ( T H S ... More about this image found in Comparison of the maximum net power ( W ˙ n e t , m a x ...

Fig. 9 Comparison of thermal efficiencies of zeotropic mixtures in a TC-ORC as a function of CO 2 fraction at different heat source temperatures ( T H S ) More about this image found in Comparison of thermal efficiencies of zeotropic mixtures in a TC-ORC as a f...

Fig. 10 Comparison of exergy efficiencies of zeotropic mixtures in a TC-ORC as a function of CO 2 fraction at different heat source temperatures ( T H S ) More about this image found in Comparison of exergy efficiencies of zeotropic mixtures in a TC-ORC as a fu...

Fig. 11 Comparison of components-wise exergy destruction in a TC-ORC for DME-CO 2 and R32-CO 2 zeotropic mixtures at different CO 2 fractions and heat source temperatures More about this image found in Comparison of components-wise exergy destruction in a TC-ORC for DME-CO 2 ...

Fig. 12 Comparison of exergoeconomics of the zeotropic mixtures in a TC-ORC at different CO 2 fractions and heat source temperatures under scenario (1) —maximizing the power output More about this image found in Comparison of exergoeconomics of the zeotropic mixtures in a TC-ORC at diff...

Fig. 1 Illustration of tire deformation and corresponding imprint of contact surface geometry More about this image found in Illustration of tire deformation and corresponding imprint of contact surfa...

Fig. 2 Perimeter C around tire as shown by dark solid line More about this image found in Perimeter C around tire as shown by dark solid line

Fig. 3 Power law representation of soil strength index, Γ More about this image found in Power law representation of soil strength index, Γ

Fig. 4 Transformation of (tanh 2 ( a ) = 1−sech 2 ( a )) to 1− s 2 to show dependence of κ on s More about this image found in Transformation of (tanh 2 ( a ) = 1−sech 2 ( a )) to 1− s 2 to show depen...

Fig. 5 Parameter estimation method process chart More about this image found in Parameter estimation method process chart

Fig. 6 Driven tire More about this image found in Driven tire