Matthew Siebert

Dr. Matthew Siebert

orcid

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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17 November 2011 in Chemical Reviews
Verified
Journal Article
Closed access
MLMichael W. Lodewyk
Michael W. Lodewyk
Matthew SiebertMatthew Siebert
Matthew Siebert
DTDean Tantillo
Dean Tantillo

9 April 2013 in The Journal of Physical Chemistry A
Verified
Journal Article
Closed access
JXJing Xie
Jing Xie
RSRui Sun
Rui Sun
Matthew SiebertMatthew Siebert
Matthew Siebert
RORico Otto
Rico Otto
RWRoland Wester
Roland Wester
WHWilliam L. Hase
William L. Hase

5 August 2010 in Journal of the American Chemical Society
Verified
Journal Article
Closed access
Matthew SiebertMatthew Siebert
Matthew Siebert
JOJoshua M. Osbourn
Joshua M. Osbourn
KBKay M. Brummond
Kay M. Brummond
DTDean Tantillo
Dean Tantillo

6 May 2011 in Journal of the American Chemical Society
Verified
Journal Article
Closed access
Matthew SiebertMatthew Siebert
Matthew Siebert
JZJiaxu Zhang
Jiaxu Zhang
SASrirangam V. Addepalli
Srirangam V. Addepalli
DTDean Tantillo
Dean Tantillo
WHWilliam L. Hase
William L. Hase

7 September 2012 in Journal of Chemical Education
Verified
Journal Article
Closed access
HWHenry B. Wedler
Henry B. Wedler
SCSarah R. Cohen
Sarah R. Cohen
RDRebecca L. Davis
Rebecca L. Davis
JHJason G. Harrison
Jason G. Harrison
Matthew SiebertMatthew Siebert
Matthew Siebert
DTDean Tantillo
Dean Tantillo

13 August 2012 in Faraday Discussions
Verified
Journal Article
Closed access
PDF file
ROR. Otto
R. Otto
JXJing Xie
Jing Xie
JBJ. Brox
J. Brox
STS. Trippel
S. Trippel
MSM. Stei
M. Stei
RWR. Wester
R. Wester
We present a study of the different product channels in the reactions of OH− and OH−(H2O) with methyl iodide over a range of collision energies. Direct dynamics classical trajectory simulations are employed to obtain an atomistic comparison with the experimental results. For the experiments we have combined a crossed beam ion imaging setup with a multipole rf ion trap. The trap allows us to prepare the molecular and cluster ions with a controlled internal temperature and thus provides well-defined initial conditions for reaction experiments at low collision energy. Changing the internal temperature of the cluster ions was found to have a profound effect on their reactivity.