salol - PMC

Lívia Budai, Marianna Budai, Zsófia Edit Fülöpné Pápay, Petra Szalkai, Noémi Anna Niczinger, Shosho Kijima, Kenji Sugibayashi, István Antal, Nikolett Kállai-Szabó

Nanomaterials (Basel) 2023 Aug; 13(16): 2340. Published online 2023 Aug 15. doi: 10.3390/nano13162340

PMCID:: PMC10459094

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Select item 940719917.

Temperature Dependence of Structural Relaxation in Glass-Forming Liquids and Polymers

Vladimir N. Novikov, Alexei P. Sokolov

Entropy (Basel) 2022 Aug; 24(8): 1101. Published online 2022 Aug 10. doi: 10.3390/e24081101

PMCID:: PMC9407199

Article PDF–12M

Select item 240790018.

Salol in Typhoid Fever

E. Mansel Sympson

Br Med J. 1897 Nov 6; 2(1923): 1373.

PMCID:: PMC2407900

Summary Page Browse PDF–296K

Select item 606164119.

Salol

Alfred Eichler

Am J Dent Sci. 1891 Jul; 25(3): 118–124.

PMCID:: PMC6061641

Summary Page Browse PDF–2.8M

Select item 412358920.

Cosmetic Contact Sensitivity in Patients with Melasma: Results of a Pilot Study

Neel Prabha, Vikram K. Mahajan, Karaninder S. Mehta, Pushpinder S. Chauhan, Mrinal Gupta

Dermatol Res Pract. 2014; 2014: 316219. Published online 2014 Jul 14. doi: 10.1155/2014/316219

PMCID:: PMC4123589

Article PDF–1.6M

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Figure 4The temperature dependence of B1(T) for salol in different states.

Bulk salol and salol confined in Carbon pore (39 ± 1 Å) (a), Carbon pore (56 ± 1 Å) (b), Silica pore (40 ± 1 Å) (c) and Silica pore (60 ± 1 Å) (d). The linear fitting lines are extrapolated consistently to get the mode-coupling crossover temperature, T_c.

The logarithmic relaxation process and the critical temperature of liquids in nano-confined states

Sci Rep. 2016;6:33374.
Figure 2Self-intermediate scattering function of salol in different states at different measured temperatures with a Q value of 1.0 Å−1.

Salol confined in Carbon pore (39 ± 1 Å) (a), Carbon pore (56 ± 1 Å) (b), Silica pore (40 ± 1 Å) (c) and Silica pore (60 ± 1 Å) (d). Inset: the self-intermediate scattering function of bulk salol. The solid lines are fits with equation (3).

The logarithmic relaxation process and the critical temperature of liquids in nano-confined states

Sci Rep. 2016;6:33374.
Figure 3Fitting parameter H1(Q, T) of salol in different states as a function of Q at different temperatures.

Salol confined in Carbon pore (39 ± 1 Å) (a), Carbon pore (56 ± 1 Å) (b), Silica pore (40 ± 1 Å) (c) and Silica pore (60 ± 1 Å) (d).

The logarithmic relaxation process and the critical temperature of liquids in nano-confined states

Sci Rep. 2016;6:33374.
Figure 1The vibrational density-of-states for bulk salol and salol confined in Carbon pores (39 ± 1 Å) and Silica pores (40 ± 1 Å) at 100 K.

The logarithmic relaxation process and the critical temperature of liquids in nano-confined states

Sci Rep. 2016;6:33374.