|

Crystal structure of
(Mor-DalPhos)AuCl
|
Mark Stradiotto, Ph.D.
Professor
Canada
Foundation for Innovation Researcher
Dalhousie
Killam Research Prize Winner
Dalhousie
Innovation Award Winner
Harry
Shirreff Prize for Research Winner
Synlett
Promising Young Professor Journal Awardee
Named to
advisory board of “Organometallics”
(2010-2013)
Faculty
of Science Killam Professor (2011-2016)
Links:
Recent Group News
Publications
Patents, Funding,
and Infrastructure
Current and Past Group
Info. for Prospective Students
Dalhousie Chemistry
site last updated on 25-October-2011
|
|

To view this
Webinar given by Prof. Stradiotto, please click here
(scroll to the
bottom, choose media format and select “Launch Presentation”).
Selected Recent Publications (click on reference for PDF):
Broadly useful
catalyst for Buchwald-Hartwig Amination:
Ammonia
arylation:
Hydrazine
arylation:
Alkyne
hydroamination with dialkylamines:
Alkene
cyclohydroamination:
Acetone
arylation:
Tandem
ammonia/hydrazine arylation/hydroamination:
**Click here for selected
coverage of our work, including in Chemical and Engineering News**
Research Interests
Research
efforts in the Stradiotto group are directed toward developing new classes of
ancillary ligands/transition metal complexes that exhibit interesting and
unusual reactivity patterns, with the goal of incorporating such reactivity
into synthetically useful catalytic substrate transformations. Our current
research program is focused on the development of:
1. Highly
effective ancillary ligands for use in challenging Buchwald-Hartwig aminations
and related cross-coupling reactions. Our
work in this area was featured in Chemical
and Engineering News; please click here for the articles.
2. New
late metal catalyst complexes for the hydroamination of unsaturated
substrates.
3.
Zwitterionic relatives of more traditional cationic late metal complexes, in
anticipation that these may prove useful in a range of catalytic
transformations.
Central
themes that link these various programs include: the establishment of
innovative ligation strategies for use in constructing suitably reactive
transition metal complexes; the evaluation of structure-activity
relationships including mechanistic studies to guide the development of
increasingly reactive complexes; and the development of new and synthetically
useful substrate transformations.
Visit
our publications section for a
recent account of the projects ongoing in the group.
|