Dear group,
Professor Emily Weiss from Northwestern University will be visiting
our department tomorrow (Thursday). She will be giving a seminar at
4:15 PM in Pfizer Lecture Hall entitled "Molecules to Detect and
Perturb the Confinement of Charge Carriers in Quantum Dots."
A description of her group's research areas may be found here:
http://sites.weinberg.northwestern.edu/weiss-lab/
Her talk should be particularly interesting for people in the group
who work on excitonics, spectroscopy, and related areas.
After this seminar, we will be taking her out to Legal Sea Foods for
dinner. Please let me know ASAP if you would like to come; ideally
we'd like to get a group of around seven people. This is an excellent
opportunity for informal conversation about many topics which are of
direct interest to group members.
Thank you! :-)
Jacob
Dear all,
I have all indications that Dori is on labor. I henceforth cancel my meetings today and tomorrow. Hopefully all goes well and I send pictures of the new desk-less 'mini group member' soon.
I have a meeting with Emily Weiss that I will convert into a group meeting. Jacob: can you have interested parties meet with her at my time slot ? It is 1115-1200
Thanks!
Alan--
Alan Aspuru-Guzik
Associate Professor of Chemistry and Chemical Biology
Harvard University
http://aspuru.chem.harvard.edu
TODAY
_______________
CENTER FOR EXCITONICS SEMINAR SERIES
Structuring materials on multiple length scales for energy applications
Andreas Stein, Department of Chemistry, University of Minnesota
THURSDAY, OCT 25, 2012
3:00 PM - 4:00 PM
RLE HAUS ROOM: 36-428
Abstract
Nanoporous and nanostructured materials are becoming increasingly important for advanced applications, including energy storage and conversion materials. Templating methods based on hard templates (colloidal crystal templating, nanocasting) and soft templates (surfactant systems) provide access to nanostructured porous materials in which both the internal pore architecture and the material's morphology can be controlled at a range of length scales from the subnanometer to the millimeter scale. Significant benefits of materials with structural features of nanometer and submicrometer dimensions have been demonstrated, at least at the proof-of-concept stage. Some applications profit from short diffusion paths in hierarchical nanostructures. Other applications take advantage of the relatively high surface areas of nanoporous solids and improved reactivity. Yet others benefit from the precise spacing of active materials in a periodic porous host. Using examples of porous materials for excitonics, lithium ion batteries, solar thermal energy conversion, and gas separation, this presentation will highlight methods of controlling pore architecture and materials morphology at various length scales. In particular, factors that influence structural assembly and interactions between multiple components (multiple templates, host-guest interactions) will be emphasized, as these determine the distribution and spacing of components in the porous solids, factors that control optical, electronic, and reactive properties of the materials.o
Bio
Professor Andreas Stein obtained his B.Sc. degree in chemistry at the University of Calgary in 1986 and carried out his graduate work with Professor Geoff Ozin at the University of Toronto, specializing in the synthesis and characterization of zeolite materials. After earning his Ph.D. degree in 1991, he joined the Advanced Inorganic Materials group at the corporate research labs of Bayer A.G. in Germany as an NSERC postdoctoral fellow, followed by postdoctoral research with Professor Tom Mallouk at both the University of Texas, Austin, and at Penn State University. In 1994 he joined the faculty at the University of Minnesota, where he is now a Distinguished McKnight University Professor of Chemistry. Professor Stein's research interests are in the field of solid state chemistry, in particular porous materials and nanocomposites targeting a wide range of applications, including membranes, solar thermal energy conversion, bioactive glasses, lithium ion batteries, ion-selective sensors, catalyst materials, polymer-clay nanocomposites, photonic crystal materials, and pigments. His program has pioneered research on the compositional and structural control of templated mesoporous and macroporous sieves, nanoparticle shaping, open-framework structures, and polymer/inorganic nanocomposites. He is the recipient of several awards, including a Merck Professorship in Chemistry, a 3M Faculty Grant, a Dupont Young Professor Grant, an NSF CAREER Award, a McKnight Land-Grant Professorship, and a David & Lucile Packard Fellowship. In 2011, he was listed among the top 100 materials scientists for impact during the decade 2000-2010 by Thomson Reuters. He is on the editorial advisory boards for Advanced Functional Materials and Particle and has been on the board for Chemistry of Materials.
Hi everyone,
There is a MURI meeting on ultracold molecules starting today at 2 pm until
Friday afternoon at MIT (Building 10, Compton Gallery).
Many of the leading experts in this field will be present.
Here is the agenda for the meeting in case you are interested in attending
any of the talks. We can go together if you want.
http://muri2012meeting.sites.yale.edu/agenda
Best,
Felipe
PLEASE POST AND FORWARD TO YOUR GROUPS
_______________
CENTER FOR EXCITONICS SEMINAR SERIES
Structuring materials on multiple length scales for energy applications
Andreas Stein, Department of Chemistry, University of Minnesota
THURSDAY, OCT 25, 2012
3:00 PM - 4:00 PM
RLE HAUS ROOM: 36-428
Abstract
Nanoporous and nanostructured materials are becoming increasingly important for advanced applications, including energy storage and conversion materials. Templating methods based on hard templates (colloidal crystal templating, nanocasting) and soft templates (surfactant systems) provide access to nanostructured porous materials in which both the internal pore architecture and the material's morphology can be controlled at a range of length scales from the subnanometer to the millimeter scale. Significant benefits of materials with structural features of nanometer and submicrometer dimensions have been demonstrated, at least at the proof-of-concept stage. Some applications profit from short diffusion paths in hierarchical nanostructures. Other applications take advantage of the relatively high surface areas of nanoporous solids and improved reactivity. Yet others benefit from the precise spacing of active materials in a periodic porous host. Using examples of porous materials for excitonics, lithium ion batteries, solar thermal energy conversion, and gas separation, this presentation will highlight methods of controlling pore architecture and materials morphology at various length scales. In particular, factors that influence structural assembly and interactions between multiple components (multiple templates, host-guest interactions) will be emphasized, as these determine the distribution and spacing of components in the porous solids, factors that control optical, electronic, and reactive properties of the materials.o
Bio
Professor Andreas Stein obtained his B.Sc. degree in chemistry at the University of Calgary in 1986 and carried out his graduate work with Professor Geoff Ozin at the University of Toronto, specializing in the synthesis and characterization of zeolite materials. After earning his Ph.D. degree in 1991, he joined the Advanced Inorganic Materials group at the corporate research labs of Bayer A.G. in Germany as an NSERC postdoctoral fellow, followed by postdoctoral research with Professor Tom Mallouk at both the University of Texas, Austin, and at Penn State University. In 1994 he joined the faculty at the University of Minnesota, where he is now a Distinguished McKnight University Professor of Chemistry. Professor Stein's research interests are in the field of solid state chemistry, in particular porous materials and nanocomposites targeting a wide range of applications, including membranes, solar thermal energy conversion, bioactive glasses, lithium ion batteries, ion-selective sensors, catalyst materials, polymer-clay nanocomposites, photonic crystal materials, and pigments. His program has pioneered research on the compositional and structural control of templated mesoporous and macroporous sieves, nanoparticle shaping, open-framework structures, and polymer/inorganic nanocomposites. He is the recipient of several awards, including a Merck Professorship in Chemistry, a 3M Faculty Grant, a Dupont Young Professor Grant, an NSF CAREER Award, a McKnight Land-Grant Professorship, and a David & Lucile Packard Fellowship. In 2011, he was listed among the top 100 materials scientists for impact during the decade 2000-2010 by Thomson Reuters. He is on the editorial advisory boards for Advanced Functional Materials and Particle and has been on the board for Chemistry of Materials.
Hi Group,
We have a bunch of 2TB harddrives from our original Jabba-setup as spares.
So, if you are interested in adding a 2TB drive to your lab desktop, please
let me know.
Cheers
Johannes
-----------------------------------------------
Dr. Johannes Hachmann
Postdoctoral Fellow
Aspuru-Guzik Research Group
Harvard University
Department of Chemistry and Chemical Biology
12 Oxford St, Rm M104A
Cambridge, MA 02138
USA
eMail: jh(a)chemistry.harvard.edu
-----------------------------------------------
Dear Friends,
On Thursday, October 25, there will be an ITAMP topical discussion.
NOTE UNUSUAL PLACE!
M-240 (2d floor) @ Concord ave. 160
Time: 12:00-1:30
As always pizza will be served.
The building is in front of the CfA on the Concord ave:
http://goo.gl/HE4hJ
Speaker: Josh Baraban (MIT)
Title: Spectroscopic Characterization of Transition States
Abstract:
Conventional wisdom has always held that transition states
are impossible to observe and characterize experimentally. With the
exceptions of ultrafast spectroscopy and ab initio electronic
structure calculations, direct information about these critical points
on potential energy surfaces has therefore been very limited. We have
recently demonstrated for the first time that it is possible to
characterize a transition state by high resolution spectroscopic
methods, using the cis-trans isomerization in the well-known A state
of acetylene as a prototypical system. New spectroscopic patterns
related to the properties of transition states will be discussed, in
addition to the experimental and theoretical techniques employed to
decipher the complex spectra and dynamics of isomerizing molecules.
Looking forward to seeing you there,
Misha Lemeshko
--
Dr. Mikhail Lemeshko
Institute for Theoretical Atomic, Molecular, and Optical Physics (ITAMP)
Harvard-Smithsonian Center for Astrophysics MS-14
60 Garden St.
Cambridge, MA 02138
U.S.A.
mlemeshko(a)cfa.harvard.edu
http://sites.google.com/site/mishalemeshko/
Tel. +1 (617) 496-7610
Fax +1 (617) 496-7668
Dear all,
See below. I hope all the faculty applicants already sent their files
here :)
> *From:* Daniel Lidar <lidar(a)usc.edu>
> *Date:* October 22, 2012 11:25 AM
> *To:* Alan Aspuru-Guzik <alan(a)aspuru.com>
> *Subject:* position at USC
> Hi Alan,
>
> I'd appreciate it if you could circulate this position we're advertising:
> https://michele.usc.edu/facultypositions/index.php?position=8
>
> Thanks,
> Daniel
Dear group members,
Kenzo fell ill with a contagious illness, of which I also fell ill. To not
spread it around to the group members, I am going to work from home
tomorrow. I probably will be fine by Tuesday. I will keep you posted.
I will make the Wolfram phone call from home. Cynthia: Can you open my
office for the team to use as well? If not, I hope you can huddle, e.g. in
the Div. Room to make the call. Sorry.
Alan
Alán Aspuru-Guzik | Associate Professor
Harvard University | Department of Chemistry and Chemical Biology
12 Oxford Street, Room M113 | Cambridge, MA 02138
(617)-384-8188 | http://aspuru.chem.harvard.edu | http://about.me/aspuru