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Research Interests:
Characterization
of aerosols by mass spectrometry;
Development
of aerosol-based MALDI of biomolecules in an ion trap;
mass
spectrometry of bacteria, chemical weapons agents, explosives;
isotope
mass spectral analysis of single airborne particles;
analysis
of the formation of elemental carbon by hydrocarbon pyrolysis, formation
of carbon nanotubes and carbon composites;
digital
ion trap development; development of miniature ion trap mass spectrometers;
development
of methods and instrumentation to extend the working range of mass spectrometry
to the gigadalton range.
Professional Societies:
American
Chemical Society,
American
Society for Mass Spectrometry
American
Association for Aerosol Research
East
Tennessee Mass Spectrometry Discussion Group
American
Flame Research Committee
U. S. Patents:
- Peter T. A. Reilly, "Synthesis of
Condensed Phases Containing Polycyclic Aromatic Hydrocarbons, Fullerenes
and Nanotubes" Filed Sept. 17, 1999. Issued Oct. 19, 2004, Patent
number: 6806397
- Peter T. A. Reilly, "Ultra High
Mass Range Mass Spectrometer Systems", Filed Sept. 30, 2004, Issued
Dec. 6, 2005, Patent number: 6972408
- Peter T. A. Reilly, "Precursor Soot
Synthesis of Fullerenes and Nanotubes Without Formation of Carbonaceous
Soot" Filed March 25, 2002. Issued March 20, 2007, Patent number
7192567
- Peter T.A. Reilly, "Sensitive Glow
Discharge Ion Source for Aerosol and Gas Analysis", Patent Application
Number 11/172,330, Filing date June 30, 2005, Published Feb. 1, 2007
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Selected Publications
- Koizumi, H., W.B. Whitten, and P.T.A.
Reilly, "Trapping of Intact, Singly-Charged, Bovine Serum Albumin
Ions Injected from the Atmosphere with a 10-cm Diameter, Frequency-Adjusted,
Linear Quadrupole Ion Trap", J. Amer. Soc. Mass Spectro.,
2008. In Press.
- Wasel, W., et al., "Experimental
characterization of the role of hydrogen in CVD synthesis of MWCNTs",
Carbon, 45, 833-838 (2007).
- Harris, W.A., P.T.A. Reilly, and W.B.
Whitten, "Detection of chemical warfare-related species on complex
aerosol particles deposited on surfaces using an ion trap-based aerosol
mass spectrometer", Anal. Chem., 79, 2354-2358 (2007).
- Reilly, P.T.A. and W.B. Whitten, "The
role of free radical condensates in the production of carbon nanotubes
during the hydrocarbon CVD process", Carbon, 44, 1653-1660
(2006).
- Pau, S., et al., "Microfabricated
quadrupole ion trap for mass spectrometer applications", Phys.
Rev. Lett., 96, (2006).
- Harris, W.A., P.T.A. Reilly, and W.B.
Whitten, "Aerosol MALDI of peptides and proteins in an ion trap
mass spectrometer: Trapping, resolution and signal-to-noise", Internat.
J. Mass Spectrom., 258, 113-119 (2006).
- Harris, W.A., P.T.A. Reilly, and W.B.
Whitten, "MALDI of individual biomolecule-containing airborne particles
in an ion trap mass spectrometer", Anal. Chem., 77,
4042-4050 (2005).
- Harris, W.A., et al., "Transportable
real-time single-particle ion trap mass spectrometer", Rev.
Sci. Instrum., 76, (2005).
- Whitten, W.B., P.T.A. Reilly, and J.M.
Ramsey, "High-pressure ion trap mass spectrometry", Rapid
Commun. Mass Spectrom., 18, 1749-1752 (2004).
- Rodgers, R.P., et al., "Real-time
observation of metastable polymeric species formed from precursor soot,"
Chem. Phys. Lett., 397, 324-328 (2004).
- Moxom, J., et al., "Sample pressure
effects in a micro ion trap mass spectrometer", Rapid Comm.
Mass Spectrom., 18, 721-723 (2004).
- Rodgers, R.P., et al., "Soot-free
synthesis of C-60", Carbon, 41, 687-692 (2003).
- Moxom, J., et al., "Analysis of volatile
organic compounds in air with a micro ion trap mass analyzer",
Anal.. Chem., 75, 3739-3743 (2003).
- Moxom, J., et al., "Double resonance
ejection in a micro ion trap mass spectrometer", Rapid Commun.
Mass Spectrom., 16, 755-760 (2002).
- Rodgers, R.P., et al., "Direct determination
of soil surface bound polycyclic aromatic hydrocarbons in petroleum-contaminated
soils by real time aerosol mass spectrometry", Anal. Chem.,
72, 5040-5046 (2000).
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