Christopher J. Satterley
University of Nottingham
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Featured researches published by Christopher J. Satterley.
Physical Chemistry Chemical Physics | 2007
James P. Armstrong; Christopher Hurst; Robert G. Jones; Peter Licence; Kevin R. J. Lovelock; Christopher J. Satterley; Ignacio J. Villar-Garcia
Eight common imidazolium based ionic liquids have been successfully evaporated in ultra-high vacuum, their vapours analysed by line of sight mass spectrometry and their heats (enthalpy) of vapourisation determined. They were found to evaporate as ion pairs, with heats of vapourisation which depend primarily on the coulombic interactions within the liquid phase and the gas phase ion pair. An electrostatic model is presented relating the heats of vapourisation to the molar volumes of the ionic liquids.
Nature Communications | 2010
Alex Saywell; Graziano Magnano; Christopher J. Satterley; Luís M. A. Perdigão; Andrew J. Britton; Nassiba Taleb; Maria del Carmen Gimenez-Lopez; Neil R. Champness; James N. O'Shea; Peter H. Beton
The spontaneous ordering of molecules into two-dimensional self-assembled arrays is commonly stabilized by directional intermolecular interactions that may be promoted by the addition of specific chemical side groups to a molecule. In this paper, we show that self-assembly may also be driven by anisotropic interactions that arise from the three-dimensional shape of a complex molecule. We study the molecule Mn(12)O(12)(O(2)CCH(3))(16)(H(2)O)(4) (Mn(12)(acetate)(16)), which is transferred from solution onto a Au(111) substrate held in ultrahigh vacuum using electrospray deposition (UHV-ESD). The deposited Mn(12)(acetate)(16) molecules form filamentary aggregates because of the anisotropic nature of the molecule-molecule and molecule-substrate interactions, as confirmed by molecular dynamics calculations. The fragile Mn(12)O(12) core of the Mn(12)(acetate)(16) molecule is compatible with the UHV-ESD process, which we demonstrate using near-edge X-ray adsorption fine-structure spectroscopy. UHV-ESD of Mn(12)(acetate)(16) onto a surface that has been prepatterned with a hydrogen-bonded supramolecular network provides additional control of lateral organization.
Nanotechnology | 2007
Christopher J. Satterley; Luís M. A. Perdigão; Alex Saywell; Graziano Magnano; Anna Rienzo; Louise C. Mayor; V.R. Dhanak; Peter H. Beton; James N. O’Shea
Electrospray deposition of fullerenes on gold has been successfully observed by in situ room temperature scanning tunneling microscopy and photoemission spectroscopy. Step-edge decoration and hexagonal close-packed islands with a periodicity of 1 nm are observed at low and multilayer coverages respectively, in agreement with thermal evaporation studies. Photoemission spectroscopy shows that fullerenes are being deposited in high purity and are coupling to the gold surface as for thermal evaporation. These results open a new route for the deposition of thermally labile molecules under ultra-high vacuum conditions for a range of high resolution surface science techniques.
Journal of Chemical Physics | 2010
Anna Rienzo; Louise C. Mayor; Graziano Magnano; Christopher J. Satterley; Evren Ataman; Joachim Schnadt; Karina Schulte; James N. O'Shea
Zinc-protoporphyrin, adsorbed on the rutile TiO(2)(110) surface, has been studied using photoemission spectroscopy and near-edge absorption fine structure spectroscopy to deduce the nature of the molecule-surface bonding and the chemical environment of the central metal atom. To overcome the difficulties associated with sublimation of the porphyrin molecules, samples were prepared in situ using ultrahigh vacuum electrospray deposition, a technique which facilitates the deposition of nonvolatile and fragile molecules. Monolayers of Zn protoporphyrin are found to bond to the surface via the oxygen atoms of the deprotonated carboxyl groups. The molecules initially lie largely parallel to the surface, reorienting to an upright geometry as the coverage is increased up to a monolayer. For those molecules directly chemisorbed to the surface, the interaction is sufficiently strong to pull the central metal atom out of the molecule.
Physical Review Letters | 2006
Miao Yu; Nicolas Bovet; Christopher J. Satterley; S. Bengió; Kevin R. J. Lovelock; P. K. Milligan; Robert G. Jones; D.P. Woodruff; V. Dhanak
Journal of Chemical Physics | 2008
Louise C. Mayor; J. Ben Taylor; Graziano Magnano; Anna Rienzo; Christopher J. Satterley; James N. O'Shea; Joachim Schnadt
Journal of Physical Chemistry C | 2008
Alex Saywell; Graziano Magnano; Christopher J. Satterley; Luís M. A. Perdigão; Neil R. Champness; Peter H. Beton; James N. O’Shea
Journal of Physical Chemistry C | 2007
Miao Yu; H. Ascolani; G. Zampieri; D.P. Woodruff; Christopher J. Satterley; Robert G. Jones; V.R. Dhanak
Journal of Physical Chemistry B | 2006
Miao Yu; D.P. Woodruff; Nicolas Bovet; Christopher J. Satterley; Kevin R. J. Lovelock; Robert G. Jones; V. Dhanak
Journal of Chemical Physics | 2009
Louise C. Mayor; Alex Saywell; Graziano Magnano; Christopher J. Satterley; Joachim Schnadt; James N. O'Shea