Jenness, Glen Richard (2011) Understanding Intermolecular Forces: DFT-SAPT studies on graphite-like acenes interacting with water. Doctoral Dissertation, University of Pittsburgh.
Abstract
The interaction of water with graphene has been a quintessential example of hydrophobic interactions for many years. However, no reliable experimental or theoretical value exists for the water-graphene interaction energy. In the current document, the water-graphene interaction energy is explored using high-level ab initio methods. In addition, the water-graphene interaction energy is decomposed into its physical components in order to give further physical insight into the water-graphene interaction.Water is found in a variety of environments, ranging from small clusters to the bulk. Because of this, the development of accurate models capable of describing water in a wide range of environments has been an active area of research. In the second part of this document, the nature of the water--water interaction is explored and a new polarizable water model is presented.
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Details |
| Item Type: | University of Pittsburgh ETD |
| ETD Committee: | | ETD Committee Type | Committee Member | Email |
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| Committee Chair | Jordan, Kenneth D. | jordan@pitt.edu | | Committee Member | Pratt, David | pratt@pitt.edu | | Committee Member | Hutchison, Geoffry | geoffh@pitt.edu | | Committee Member | Johnson, J. Karl | karlj@pitt.edu |
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| Title: | Understanding Intermolecular Forces: DFT-SAPT studies on graphite-like acenes interacting with water |
| Status: | Unpublished |
| Abstract: | The interaction of water with graphene has been a quintessential example of hydrophobic interactions for many years. However, no reliable experimental or theoretical value exists for the water-graphene interaction energy. In the current document, the water-graphene interaction energy is explored using high-level ab initio methods. In addition, the water-graphene interaction energy is decomposed into its physical components in order to give further physical insight into the water-graphene interaction.Water is found in a variety of environments, ranging from small clusters to the bulk. Because of this, the development of accurate models capable of describing water in a wide range of environments has been an active area of research. In the second part of this document, the nature of the water--water interaction is explored and a new polarizable water model is presented. |
| Date: | 28 September 2011 |
| Date Type: | Completion |
| Defense Date: | 27 May 2011 |
| Approval Date: | 28 September 2011 |
| Submission Date: | 07 June 2011 |
| Access Restriction: | No restriction; Release the ETD for access worldwide immediately. |
| Patent pending: | No |
| Institution: | University of Pittsburgh |
| Thesis Type: | Doctoral Dissertation |
| Refereed: | Yes |
| Degree: | PhD - Doctor of Philosophy |
| URN: | etd-06072011-162738 |
| Uncontrolled Keywords: | DFT; DFT-SAPT; graphene; Intermolecular interactions; water; wavefunction |
| Schools and Programs: | Dietrich School of Arts and Sciences > Chemistry |
| Date Deposited: | 10 Nov 2011 14:46 |
| Last Modified: | 11 Jan 2012 14:28 |
| Other ID: | http://etd.library.pitt.edu/ETD/available/etd-06072011-162738/, etd-06072011-162738 |
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