dr devis di tommaso
Research
Themes
- 19
- Materials
Contacts
- Dr
- Devis
- Di Tommaso
- Dr Devis Di Tommaso
- Tel: +44 (0)20 7679 7465
- Ex: 30315
- d.tommaso@ucl.ac.uk
- https://iris.ucl.ac.uk/iris/extResource/image/01/DDITO14
- 2007-01-29
Address
- 4382
- 205
- Department of Chemistry
- 20 Gordon Street
- London
- WC1H 0AJ
Appointment
- RESRSF
- 2012-01-01
- 1
- RS Industrial Fellow
- ME
- Dept of Chemistry
- MPS
- Faculty of Maths & Physical Sciences
Joined UCL
- 2007-01-29
Research Summary
RESEARCH INTERESTSGeneral research field
Computer modelling of materials using quantum chemistry (density functional theory and ab initio methods), first principles and classical molecular dynamics, and interatomic potential methods.
Current research topics
Computer simulation of nucleation and crystal growth of organic and inorganic materials from solution; Reactivity of metals in solution; Development of ab initio parameterised force fields for phosphate based materials and simulation of phosphate bioglasses.
Recent and previous research topics
Development of ab initio parameterised force fields for calcium oxalate based materials; Theoretical catalysis: iron and ruthenium homogeneous catalysts for the hydrogenation of ketones.
Molecular photoionization: circular dichroism of photoelectron angular distribution from chiral molecules; branching ratios deviations from statistical behaviour in core photoionization; development of methodologies to characterise and locate shape resonances in molecular photoionization.
Research Activities
- 2195
- Molecular modelling and computational chemistry
1 - 10 of 24 Publications
Polarizable force field development and molecular dynamics study of phosphate-based glasses
Journal article
Ref Type: Journal article
Calcite surface structure and reactivity: molecular dynamics simulations and macroscopic surface modelling of the calcite-water interface
Journal article
Ref Type: Journal article
Following the Creation of Active Gold Nanocatalysts from Phosphine-Stabilized Molecular Clusters
Journal article
Ref Type: Journal article
The effects of ligand variation on enantioselective hydrogenation catalysed by RuH2(diphosphine)(diamine) complexes
Journal article
Ref Type: Journal article
Density functional theory and interatomic potential study of structural, mechanical and surface properties of calcium oxalate materials
Journal article
Ref Type: Journal article
A density functional theory study of structural, mechanical and electronic properties of crystalline phosphorus pentoxide
Journal article
Ref Type: Journal article
Correlating Enantioselectivity with Activation Energies in the Asymmetric Hydrogenation of Acetophenone Catalysed by Noyori-Type Complexes
Journal article
Ref Type: Journal article
trans-Fe-II(H)(2)(diphosphine)(diamine) complexes as alternative catalysts for the asymmetric hydrogenation of ketones? A DFT study
Journal article
Ref Type: Journal article
Publisher: ROYAL SOC CHEMISTRY
Structure and dynamics of the hydrated magnesium ion and of the solvated magnesium carbonates: insights from first principles simulations
Journal article
Ref Type: Journal article
Publisher: ROYAL SOC CHEMISTRY
Ref Type: Journal article
Publisher: AMER CHEMICAL SOC
Academic Background
-
Award YearQualificationInstitution
-
2006PhDUniversita degli Studi di Trieste
-
2002LAUUniversita degli Studi di Trieste
Biography
PROFESSIONAL EXPERIENCE
2012-present: Royal Society Industry Fellow, Department of Chemistry, UCL
2010-2011: Postdoc, Department of Chemistry, UCL.
2007-2010: Marie-Curie Researcher, Department of Chemistry, UCL.
2006-2007: Postdoctoral, The Royal Institution of Great Britain.
2002: Research Assistant, University of Trieste (Italy).
EDUCATION
2006:
PhD, Theoretical Chemistry, University of Trieste. Thesis: “Application
and development of the linear combination of atomic orbital B-spline
density functional theory method for the molecular electronic
continuum”. Supervisor: Prof. P. Decleva.
2002: Laurea Magistrale, Chemistry, full marks and honours. University of Trieste.
Additional Information
- CMR
- Crystal nucleation
- Molecular dynamics
- Molecular simulations
- Quantum chemistry
- Theoretical catalysis
Collaborators
- PCOVE58
- prof peter coveney

