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Theoretical study on ground-state proton/H-atom exchange in formic acid clusters through different H-bonded bridges

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Abstract

The ground-state triple proton/H-atom transfer (GSTPT/GSTHAT) reactions in HCOOH complexed cyclically with H2O, CH3OH, NH3 and mixed solvents H2O-NH3/CH3OH-NH3 were studied by quantum mechanical methods in heptane. The GSTPT/GSTHAT in HCOOH-(H2O)2, HCOOH-(CH3OH)2, HCOOH-(NH3)2, HCOOH-H2O-NH3, HCOOH-NH3-H2O, HCOOH-CH3OH-NH3 and HCOOH-NH3-CH3 OH systems all occurred in an asynchronous but concerted protolysis mechanism. The formation pattern of the H-bonded chain was important to reduce the proton/H-atom transfer barrier. For the HCOOH-S1-S2 (S1, S2: H2O, CH3OH, NH3) complex, the GSTPT/GSTHAT barrier height of the HCOOH-S1-S2 complex, in which the H-bonded chain was formed with different solvent molecules, was lower than that of HCOOH-S1-S2 complex, in which the H-bonded chain was composed of same solvent molecules. H-bonded chain consisting of mixed solvent molecules can accumulate their proton-accepting abilities and then speed up proton/H-atom transfer. When the less-basic H2O or CH3OH is connected to O-H group of HCOOH directly and the PT/HAT process is started by accepting a proton/H-atom from HCOOH, the PT/HAT reaction would be pulled by the more basic NH3 along the H-bonded chain from the front. On the contrary, when the more-basic NH3 is bonded to O-H group of HCOOH directly, the less-basic H2O or CH3OH hardly pulled PT/HAT process from the front. A good correlation between the proton-accepting ability (basicity) of the H-bonded chain and the GSTPT/GSTHAT barrier height was obtained.

The proton-accepting ability of the hydrogen bonded wire can be denoted as a×β1+b×β2+c×|β12| (a+b+c=1, a=0.15, b=0.35, c=0.5), in which β’s are proton-accepting ability (basicity) of solvents. The larger the proton-accepting ability (basicity) of the H-bonded chain, lower is the barrier height and faster is the proton transfer.

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Acknowledgements

This work was supported by the National Nature Science Foundation of China (No. 011101009), the Nature Science Foundation of Jiangsu province (No. 164101920) and the Scientific Research Foundation for the Returned Overseas Chinese Scholars, and State Education Ministry (011101011). The author thanks Professor Kim Yongho, working in Department of Applied Chemistry, Kyung Hee University, for providing computing resources.

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Correspondence to HUA FANG.

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Supplementary Information (SI)

Bond distances of reactant, product and TS, barrier heights, imaginary frequencies, rate constants without tunneling effect and Mulliken partial charges obtained at the CAM-B3LYP/6-311 + G(d,p)/SMD level are listed in three tables. The correlation of the H-bond distance with PT/HAT and correlation of the barrier height with the basicity of the H-bonded chain obtained at the CAM-B3LYP/6-311 + G(d,p)/SMD level are shown in two figures. Supplementary Information is available at www.ias.ac.in/chemsci.

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FANG, H. Theoretical study on ground-state proton/H-atom exchange in formic acid clusters through different H-bonded bridges. J Chem Sci 128, 1497–1506 (2016). https://doi.org/10.1007/s12039-016-1144-7

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  • DOI: https://doi.org/10.1007/s12039-016-1144-7

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