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The coupling between translational motion and rotational motion in liquids is one of the long-standing concerns in condensed matter physics. The relaxation times of α relaxation and probe ion conductivities in a series of small molecular liquids, 15 types of single and binary small molecular liquids with different molecular shapes and functional groups when the number of carbon atoms is in a range from 3 to 14, are simultaneously obtained by dielectric spectroscopy method in this work. The results indicate that the coupling between translation and rotation is not directly related to the functional group of liquid molecules, nor very sensitive to the shape nor the size of molecules or ion size. However, the microstructure of liquid is a key factor affecting the coupling between translation and rotation. In other words, when the microstructure of the liquid is unchanged, the dependence of relaxation time on temperature is consistent with the dependence of conductivity reciprocal on temperature, whether in single small molecular liquids or in binary small molecular liquids, which provides a method for measuring relaxation time. The research results also show that the temperature dependence of the conductivity of the impurity ions carried by the liquid itself is consistent with the one of quantitatively doped ions, providing the ideas for investigating the ion conductivity behavior in organic small molecular liquids with low electrolyte solubilities. The experimental results of monohydroxy alcohol are consistent with the viewpoint that α relaxation rather than Debye relaxation corresponds to the system structure relaxation.
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Keywords:
- coupling between translation and rotation /
- relaxation time /
- probe ion conductivity /
- small molecular liquid
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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Google Scholar
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图 1 掺入0.5‰氯化钠的1, 3-丙二醇的$ \varepsilon '' $
Figure 1. $ \varepsilon '' $ of 1, 3-propanediol doped with 0.5‰ NaCl.
图 2 掺入0.5‰氯化钠的1,3-丙二醇的$ \omega \varepsilon '' $和$ \sigma $
Figure 2. $ \omega \varepsilon '' $ and $ \sigma $ of 1,3-propanediol doped with 0.5‰ NaCl.
图 3 1, 3-丙二醇原始样品的$ \omega \varepsilon '' $和$ \sigma $
Figure 3. $ \omega \varepsilon '' $ and $ \sigma $ of crude 1, 3-propanediol.
图 4 掺入0.5‰氯化钠的1,3-丙二醇及其原始样品的$ {\tau }_{{\mathrm{r}}} $和$ \sigma $
Figure 4. $ {\tau }_{{\mathrm{r}}} $ and $ \sigma $ of 1,3-propanediol doped with 0.5‰ NaCl and its crude sample.
图 5 掺入0.1‰氯化镁的三丙二醇和掺入0.1‰氯化钠的一缩二丙二醇及其原始样品的$ {\tau }_{{\mathrm{r}}} $和$ \sigma $
Figure 5. $ {\tau }_{{\mathrm{r}}} $ and $ \sigma $ of tripropylene glycol doped with 0.1‰ MgCl2 and dipropylene glycol with 0.1‰ NaCl as well as their crude samples.
图 7 邻苯二甲酸二乙酯和邻苯二甲酸二丙酯原始样品的$ {\tau }_{{\mathrm{r}}} $和$ \sigma $
Figure 7. $ {\tau }_{{\mathrm{r}}} $ and $ \sigma $ of crude diethyl phthalate and dipropyl phthalate.
图 8 掺入0.3‰氯化钠的70%1,2-丙二醇和30%1, 3-丙二醇混合液体与掺入0.3‰氯化镁的70%1,3-丁二醇和30%丙三醇混合液体及其原始样品的$ {\tau }_{{\mathrm{r}}} $和$ \sigma $
Figure 8. $ {\tau }_{{\mathrm{r}}} $ and $ \sigma $ of mixed liquid of 70% 1,2-propanediol and 30% 1,3-propanediol doped with 0.3‰ NaCl and mixed liquid of 70% 1,3-butanediol and 30% glycerol doped with 0.3‰ MgCl2 as well as their crude samples.
图 9 2-乙基–1-丁醇的$ \varepsilon '' $
Figure 9. $ \varepsilon '' $ of 2-ethyl-1-butanol.
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[1] Shirai K, Watanabe K, Momida H 2022 J. Phys. : Condens. Matter 34 375902
Google Scholar
[2] Ouyang L F, Shen J, Huang Y, Sun Y H, Bai H Y, Wang W H 2023 J. Appl. Phys. 133 85105
Google Scholar
[3] Böhmer R, Gainaru C, Richert R 2014 Phys. Rep. 545 125
Google Scholar
[4] Shen J, Zhang H P, Chen Z Q, Ouyang L F, Wang F R, Lu Z, Li M Z, Sun Y H, Bai H Y, Wang W H 2023 Acta Mater. 244 118554
Google Scholar
[5] Singh A, Singh Y 2023 Phys. Rev. E 107 14119
Google Scholar
[6] Volbers J C, Lauterböck L, Hofmann N, Glasmacher B 2016 Curr. Dir. Biomed. Eng. 2 315
Google Scholar
[7] Zhu X C, Miller-Ezzy P, Gluis M, Zhao Y Y, Qin J G, Tang Y H, Liu Y B, Li X X 2023 Aquaculture 574 739650
Google Scholar
[8] Novikov V N 2016 Chem. Phys. Lett. 659 133
Google Scholar
[9] Dyre J C 2006 Rev. Mod. Phys. 78 953
Google Scholar
[10] Kremer F 2002 J. Non-Cryst. Solids 305 1
Google Scholar
[11] Iacob C, Sangoro J R, Serghei A, Naumov S, Korth Y, Kärger J, Friedrich C, Kremer F 2008 J. Chem. Phys. 129 234511
Google Scholar
[12] Wang J, Cai Z Q, Kang H, Huo B K, Zhang Y H, Gao Y Q, Li Z J, Feng S D, Wang L M 2024 Mater. Design 238 112665
Google Scholar
[13] Duan Y J, Nabahat M, Tong Y, Ortiz-Membrado L, Jiménez-Piqué E, Zhao K, Wang Y J, Yang Y, Wada T, Kato H, Pelletier J M, Qiao J C, Pineda E 2024 Phys. Rev. Lett. 132 56101
Google Scholar
[14] Chen Y X, Feng S D, Lu X Q, Pan S P, Xia C Q, Wang L M 2023 J. Chem. Phys. 158 134511
Google Scholar
[15] Duan Y J, Zhang L T, Qiao J C, Wang Y J, Yang Y, Wada T, Kato H, Pelletier J M, Pineda E, Crespo D 2022 Phys. Rev. Lett. 129 175501
Google Scholar
[16] Zhao X Y, Wang L N, Yin H M, Zhou H W, Huang Y N 2019 Chin. Phys. B 28 86601
Google Scholar
[17] Nernst W 1888 Z. Phys. Chem. 2 613
Google Scholar
[18] Einstein A 1905 Ann. Phys. (Berlin) 17 549
Google Scholar
[19] Claisse F, Koenig H P 1956 Acta Metallurgica 4 650
Google Scholar
[20] Masuhr A, Waniuk T A, Busch R, Johnson W L 1999 Phys. Rev. Lett. 82 2290
Google Scholar
[21] Wang L M and Sun M D 2010 J. Yanshan Univ. 34 471 [王利民, 孙明道 2010 燕山大学学报 34 471]
Google Scholar
Wang L M and Sun M D 2010 J. Yanshan Univ. 34 471
Google Scholar
[22] Tarjus G, Kivelson D 1995 J. Chem. Phys. 103 3071
Google Scholar
[23] Khrapak S A 2022 J. Mol. Liq. 354 118840
Google Scholar
[24] Griffin P J, Sangoro J R, Wang Y, Holt A P, Novikov V N, Sokolov A P, Wojnarowska Z, Paluch M, Kremer F 2013 Soft Matter 9 10373
Google Scholar
[25] Swiergiel J, Bouteiller L, Jadzyn J 2014 Soft Matter 10 8457
Google Scholar
[26] Kawasaki T, Kim K 2019 Sci. Rep. 9 8118
Google Scholar
[27] Power G, Vij J K, Johari G P 2007 J. Phys. Chem. B 111 11201
Google Scholar
[28] Xiao H, Zhang L, Yi J, Li S, Zhao B G, Zhai Q J, Gao Y L 2022 Intermetallics 143 107494
Google Scholar
[29] Charbonneau P, Jin Y, Parisi G, Zamponi F 2014 Proc. National Academy Sci. 111 15025
Google Scholar
[30] Starzonek S, Rzoska S J, Drozd-Rzoska A, Pawlus S, Biała E, Martinez-Garcia J C, Kistersky L 2015 Soft Matter 11 5554
Google Scholar
[31] Zhao X Y, Wang L N, He Y F, Zhou H, Huang Y N 2020 Chem. Phys. 528 110473
Google Scholar
[32] Ishai P B, Talary M S, Caduff A, Levy E, Feldman Y 2013 Meas. Sci. Technol. 24 102001
Google Scholar
[33] Lunkenheimer P, Schneider U, Brand R, Loidl A 2000 Contemp. Phys. 41 15
Google Scholar
[34] Huth H, Wang L M, Schick C, Richert R 2007 J. Chem. Phys. 126 104503
Google Scholar
[35] Jakobsen B, Maggi C, Christensen T, Dyre J C 2008 J. Chem. Phys. 129 184502
Google Scholar
[36] Gainaru C, Meier R, Schildmann S, Lederle C, Hiller W, Rössler E A, Böhmer R 2010 Phys. Rev. Lett. 105 258303
Google Scholar
[37] Gainaru C, Kastner S, Mayr F, Lunkenheimer P, Schildmann S, Weber H J, Hiller W, Loidl A, Böhmer R 2011 Phys. Rev. Lett. 107 118304
Google Scholar
[38] Bauer S, Burlafinger K, Gainaru C, Lunkenheimer P, Hiller W, Loidl A, Böhmer R 2013 J. Chem. Phys. 138 94505
Google Scholar
[39] Lu G, Wang L N, Zhao X Y, He Y, Huang Y N 2021 Int. J. Mod. Phys. B 35 2150014
Google Scholar
[40] Wang L N, Zhao X Y, Huang Y N 2019 Chin. Phys. Lett. 36 97701
Google Scholar
[41] Ediger M D, Angell C A, Nagel S R 1996 J. Phys. Chem. 100 13200
Google Scholar
[42] Zhang H, Zhong C, Douglas J F, Wang X D, Cao Q P, Zhang D X, Jiang J Z 2015 J. Chem. Phys. 142 164506
Google Scholar
[43] Moynihan C T, Macedo P B, Montrose C J, Gupta P K 1976 Ann. Ny. Acad. Sci. 279 15
Google Scholar
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