偏光顕微鏡写真をFigure 2, 既知金錯体BPI8-Clとペンチル

偏光顕微鏡写真をFigure 2, 既知金錯体BPI8-Clとペンチルイソシアニドをもつビフェニル骨格の金錯体S-CBI5との相転移温度の比較をTable1に示す。また， S-CNI4のDSC曲線をFigure 3，熱力学的パラメータをTable 2, DSC測定より決定した相転移温度をTable3にそれぞれ示す。さらに，今回得られた相転移挙動の液晶温度範囲に着目し，昇温過程における液晶発現温度範囲の比較をFigure 4に示す。

ผลลัพธ์ (อังกฤษ) 1:

Gold complexes S-CBI5 biphenyl skeleton with a polarizing microscope photos known gold complexes BPI8-Cl and pencilisocyanid, Figure 2 and the phase transition temperature comparisons shown in table 1. In addition, DSC curves of S-CNI4 Figure 3, thermodynamic parameters determined from Table 2, DSC phase transition temperature shown in Table3. In addition, phase was focusing on the transition of liquid crystal temperature, shown in Figure 4 compares the liquid temperature range during heating.

ผลลัพธ์ (อังกฤษ) 2:

A polarizing microscope photograph Figure 2, we show a comparison of the phase transition temperature of the gold complex S-CBI5 of biphenyl skeleton with a known gold complex BPI8-Cl and pentyl isocyanide to Table1. Also, respectively the DSC curve of S-CNI4 Figure 3, the phase transition temperature determined from the thermodynamic parameters Table 2, DSC measurement in Table3. Furthermore, paying attention to the liquid crystal temperature range of the phase transition behavior of the obtained time, it is shown in Figure 4 a comparison of the liquid crystal expressed temperature range in the heating process.

ผลลัพธ์ (อังกฤษ) 3:

The polarizing micrograph Figure, 2 compares the phase transition temperature of biphenyl framework with BPI known complex and ペンチルイソシアニド 8 Cl gold complexes. S CBI 5 shown in Table 1. In addition to ， DSC curve of S CNI Figure 3 and 4 ， thermodynamic parameters Table 2, DSC determined by measuring the phase transition temperature in Table 3, respectively. In addition ， in temperature range of liquid crystal phase transition behavior in the temperature of liquid crystal ， expression range in the process shown in Figure 4.