Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张等温线比较法用于评价乳化剂的乳化能是可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K等温线的数据进行了膨胀法分,了压和密。以此为基础,获得了各条定容线的密。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折点正好是单分子层吸附与多分子层吸附的分界点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张比较法评价乳化剂的乳化能是可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K的数据进行了膨胀法分析,建立了压和密度关系。以此为基础,获得了各条定容的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在SDM-A处理苯的吸附时，出现折形的吸附，折的转折点正好是单分子层吸附与多分子层吸附的分界点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张等温线比较法用于评价乳化剂的乳化能是可的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K等温线的数据膨胀法分析,建立压和密度关系。以此为基,各条定容线的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折点正好是单分子层吸附与多分子层吸附的分界点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张等温法用于评价乳化剂的乳化能是可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K等温的数据进行了膨胀法分析,建立了压和密度关系。以此为基础,获得了各条定容的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现形的吸附等温，的转点正好是单分子层吸附与多分子层吸附的分界点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂（）张等温线比较法用于评价乳化剂的乳化能可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临410K等温线的数据进行了膨胀法分析,建立了压和密度关系。以此为基础,获得了各条定容线的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折点正分子层吸附与多分子层吸附的分点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（）面张等温线比较法用于评价乳化剂的乳化能是可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临410K等温线的数据进行了膨胀法析,建立了压和密度关系。以此为基础,获得了各条定容线的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折正好是单子层吸附与多子层吸附的。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂（）张等温线比较法用于评价乳化剂的乳化能可行的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临410K等温线的数据进行了膨胀法分析,建立了压和密度关系。以此为基础,获得了各条定容线的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折点正分子层吸附与多分子层吸附的分点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张等温线比较法用于评价乳化剂乳化能是可行。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K等温线进行膨胀法分析,建立压和密度关系。以此为基础,获得定容线密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯吸附时，出现折线形吸附等温线，折线转折点正好是单分子层吸附与多分子层吸附分界点。

Conclusions It is feasible to estimate emulsifiability to the method of isothermal curve of the surface(interfacial) tension .

结论 乳化剂表（界）面张等温线比较法用于评价乳化剂的乳化能是可的。

The density of each isochore was based on the pressure-density relationship at 410 K,which was obtained from the Burnett analysis.

首先对超临界410K等温线的数膨胀法分析,建立压和密度关系。以此为基础,各条定容线的密度。

But for benzene, when treated with SDM-A there was a turning point in its adsorption isotherm, which corresponding to the dividing point between monomolecular and multimolecular layer adsorption.

在用SDM-A处理苯的吸附时，出现折线形的吸附等温线，折线的转折点正好是单分子层吸附与多分子层吸附的分界点。