642-650An effort is made to search a suitable equation of state (EOS) model for the nanomaterials. Six EOS models based on different physical origins viz. Brich-Murnaghan model, Murnaghan model, Kumar model, Vinet model, Freund and Ignalls model and Tallon model are used to study the compression behaviour of thirty one nanomaterials. The results are compared with the available experimental data. It is concluded that the Murnaghan model performs well for the materials considered in the present paper for the pressure ranges considered in the experimental studies of these materials. It is also discussed that the Murnaghan model may be obtained using different concepts
A theoretical formulation is derived to study the temperature dependence equation of state of nanoma...
The pressure-volume-temperature equations of state have been constructed by combining experimental d...
International audienceThe pressure–volume–temperature equations of state have been constructed by co...
AbstractA simple equation of state (EOS) model is proposed to predict the high pressure compression ...
AbstractThe high-pressure compression behaviour of the nanomaterials 3C-SiC, Zr0.1Ti0.9O2, CuO, AlN,...
A basic thermodynamical study of various nanomaterials has been done. Different Equation of states [...
A simple equation of state (EoS) has been derived and used to study the volume expansion of some nan...
The present study explains the behaviour of nanomaterials such as AlN, CdSe, Ge, WC, and Ni- and Fe-...
378-381An empirical high pressure equation of state is obtained by modifying the Shanker formulation...
A simple theory is proposed to predict the effect of pressure for study of volume expansion of nanom...
94-97In the present paper, the modified Shanker formulation by Kumar and Kumar, Indian J Pure & App...
The historical and theoretical background for the different mathematical forms commonly used to repr...
The isothermal EOS provides a powerful tool for theoretical prediction of different thermo elastic p...
The present paper reports a simple theoretical study of the pressure dependence of compressibility o...
A simple theoretical model is developed to study the high pressure behavior of solids and is applied...
A theoretical formulation is derived to study the temperature dependence equation of state of nanoma...
The pressure-volume-temperature equations of state have been constructed by combining experimental d...
International audienceThe pressure–volume–temperature equations of state have been constructed by co...
AbstractA simple equation of state (EOS) model is proposed to predict the high pressure compression ...
AbstractThe high-pressure compression behaviour of the nanomaterials 3C-SiC, Zr0.1Ti0.9O2, CuO, AlN,...
A basic thermodynamical study of various nanomaterials has been done. Different Equation of states [...
A simple equation of state (EoS) has been derived and used to study the volume expansion of some nan...
The present study explains the behaviour of nanomaterials such as AlN, CdSe, Ge, WC, and Ni- and Fe-...
378-381An empirical high pressure equation of state is obtained by modifying the Shanker formulation...
A simple theory is proposed to predict the effect of pressure for study of volume expansion of nanom...
94-97In the present paper, the modified Shanker formulation by Kumar and Kumar, Indian J Pure & App...
The historical and theoretical background for the different mathematical forms commonly used to repr...
The isothermal EOS provides a powerful tool for theoretical prediction of different thermo elastic p...
The present paper reports a simple theoretical study of the pressure dependence of compressibility o...
A simple theoretical model is developed to study the high pressure behavior of solids and is applied...
A theoretical formulation is derived to study the temperature dependence equation of state of nanoma...
The pressure-volume-temperature equations of state have been constructed by combining experimental d...
International audienceThe pressure–volume–temperature equations of state have been constructed by co...