Dear group members,
Dori and I are rearranging furniture at home and will not need this couch-bed anymore.
It cost us originally 500 back in the bay area circa 2005. We used to have it in our living room when I was a postdoc. It is well preserved and has great storage drawers.
It is *free* to the first group member that agrees to come to my house (Cambrigeport) and take it away before next Saturday when we have other furniture come in. It is great as a guest bed!
I will send another picture of it in the next message.
Again, first come, first-serve.
Alan Aspuru-Guzik
Associate Professor
Harvard University
http://aspuru.chem.harvard.edu
Sent from my mobile. Please pardon any typos.
Speaker: Joseph Teran, Associate Professor of Mathematics, UCLA
Location: Maxwell-Dworkin G125, 33 Oxford Street, Cambridge, MA 02138
Time: Informal lunch with speaker, 12:30pm. Talk, 1:00pm.
Title: Scientific Computing for Movie Special Effects and Virtual Surgery
Abstract:
Dr. Joseph Teran will talk about some exciting new applications of scientific computing for solid and fluid mechanics problems including the simulation of virtual materials for movie special effects, video game effects and virtual surgery. These new applications all have an increasing demand for physically realistic dynamics of materials like water, smoke, fire, brittle objects, elastic objects, etc. The computational demands arising in these applications are somewhat different than those traditionally considered by scientific computing researchers and many new algorithms are needed to address them. Dr. Teran will discuss these new scientific computing challenges as well as some recent algorithms developed in his lab to address them. Virtual surgery is a particularly exciting application area. A virtual surgery simulator is like a flight simulator for training surgeons (and would-be surgeons) in modern procedures. Dr. Teran will also discuss procedures related to repair and manipulation of soft-tissues. Other topics discussed will include GPU and manycore algorithms for real-time solution of nonlinear elliptic equations arising in elasticity problems and in incompressible flow, cut-cell methods for higher-order accuracy on structured grids and contact algorithms for thin structures.
Bio:
Joseph Teran is an associate professor of applied mathematics at UCLA. His research focuses on numerical methods for partial differential equations arising in engineering. This includes computational solids, computational fluids, multi-material interactions, fracture dynamics and computational biomechanics. One very exciting example of this research is virtual surgery. These techniques allow a surgeon to practice a given procedure on the computer rather than on a cadaver or patient. Other exciting applications include computer graphics and movie special effects at Walt Disney Animation. Teran was a recipient of a 2011 Presidential Early Career Award for Scientists and Engineers (PECASE) and a 2010 Young Investigator award from the Office of Naval Research. In 2008, Discover Magazine named him one of the 50 “Best Brains in Science.”
For information about the future events at IACS, see http://iacs.seas.harvard.edu/events. The page includes a Google calendar with detauls on all IACS Seminars.
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Dear All,
Christopher Wilmer from Northwestern Univ. (http://chriswilmer.com) will be visiting our group next Monday (full day) and Tuesday (half day). He will be giving a talk in the Division room on Tuesday (Oct 2nd) at 10 am. An abstract of his talk is attached below. Please let me know asap if you are interested in the options below.
1) Lunch - Monday 12pm
2) 1/2-1 hour one-to-one talk on Monday morning or afternoon. Also, please mention your time preferences.
Greetings,
Suleyman
Süleyman Er, PhD
http://aspuru.chem.harvard.edu/suleyman-er/
Hi Quanta
We will meet on Friday September 28 at 11:00 in 6-310. Yoav Lahini is going to tell us about what he is up to.
Best,
Eddie
:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
Edward Farhi
Cecil and Ida Green Professor of Physics
Director
Center for Theoretical Physics
Massachusetts Institute of Technology
6-300
Cambridge MA 02139
617 253 4871
:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
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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
---------- Forwarded message ----------
From: Edwin L. Sibert III <elsibert(a)wiscmail.wisc.edu>
Date: Fri, Sep 28, 2012 at 11:16 AM
Subject: Telluride School on Theoretical Chemistry
To: Ned Sibert <sibert(a)chem.wisc.edu>
Dear All,
I am pleased to announce that this July there will be a Telluride
School of Theoretical Chemistry that is being hosted by TSRC.
Information regarding the school can be found below or at
http://www.telluridescience.org/tstc-2013. I have attached a poster,
that I am hoping you will use to help me publicize this school.
Best Regards,
Ned Sibert
Organizer 2013 TSTC
Call for Applications for the Telluride School on Theoretical Chemistry (TSTC)
Held July 15-20, 2013 in beautiful Telluride, Colorado
TSTC Lecturers:
Electronic Structure Theory - Professor Troy Van Voorhis, MIT
Statistical Mechanics - Professor Phillip Geissler, University of
California, Berkeley
Chemical Dynamics - Professor Edwin Sibert, University of Wisconsin, Madison
2012 Awardee Plenary Lecturer: Anna Krylov, University of Southern
California Professor of Chemistry
2013 Awardee Plenary Lecturer:TBA
TSTC Participant Profile:
Recent or soon-to-be theory Ph.D.s who need to acquire knowledge
outside their graduate and postdoctoral experiences.
Recent or soon-to-be experimental Ph.D.s in chemistry or related
fields who use theory in their research.
Faculty at primarily undergraduate institutions (PUI) who want to
incorporate theory into their classes.
Expenses for Accepted Participants:
Will be partially reimbursed on-site during the week of TSTC.
You must be present in Telluride during the week of the TSTC to
receive the reimbursement. TSTC offsets the costs of the registration
fee, minimal housing costs, and payment for modest meals.
Participants are expected to obtain support for their travel costs.
Successful applicants will be informed of the exact reimbursement
schedule in the acceptance letter.
The TSTC Application Process
The application window opens on October 15, 2012 and closes December 31, 2012.
We will inform you by email whether you have been admitted or not, no
later than January 31.
If you are accepted, you will need to go to our website at
www.telluridescience.org/registration
<http://www.telluridescience.org/registration> to register and pay
the registration fee and lodging cost.
Registration for accepted applicants must be completed by February 28, 2013.
Registration fees and lodging fees will not be refunded or reimbursed
if you cancel your participation after March 31, 2013.
For more information, go to http://www.telluridescience.org/tstc and
http://www.telluridescience.org/tstc-2013
Or contact:
Nana Naisbitt
Executive Director, Telluride Science Research Center
970-708-0004 cell
nana(a)telluridescience.org
Speaker: David Cox
Location: Maxwell Dworkin G125, 33 Oxford Street, Cambridge, MA 02138
Time: Informal lunch with speaker, 12:30pm. Talk, 1:00pm
Title: Leveraging High-Performance Parallel Computing for Biologically Inspired Object and Face Recognition
Abstract:
The visual cortex of the human brain is unrivaled by artificial systems in its ability to recognize faces and objects in highly variable and cluttered real-world environments. Biologically inspired computer vision systems seek to capture key aspects of the computational architecture of the brain. Such approaches have proven successful across a range of standard object- and face-recognition tasks. However, since the number of parameters in a vision model is typically large, and the computational cost of evaluating one particular parameter set is high, when a model fails we are left uncertain whether it is because we are missing a fundamental idea, or because the correct "parts" have not been tuned correctly, assembled at sufficient scale, or provided with enough training. In this talk, I'll present a high-throughput search approach for exploring a broad range of biologically inspired vision models. I'll discuss parallel programming techniques that enable this approach, including machine-learning-guided metaprogramming techniques that bring the ideas of high-throughput search down to the level of implementation-level code optimization.
Bio:
David Cox is an assistant professor in the Department of Molecular and Cellular Biology and the Center for Brain Science at Harvard. He completed his PhD in the Department of Brain and Cognitive Sciences at MIT with a specialization in computational neuroscience. Prior to joining MCB/CBS, he was a Junior Fellow at the Rowland Institute at Harvard, a multidisciplinary institute focused on high-risk, high-reward scientific research at the boundaries of traditional fields. His laboratory seeks to understand the computational underpinnings of high-level visual processing through both reverse and forward engineering. The group employs a wide range of experimental techniques to probe natural systems, while at the same time actively developing practical computer vision systems based on what is learned about the brain.
For information about future IACS events, see http://iacs.seas.harvard.edu/events.
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Hi everyone,
I'll be giving group meeting today
*when*: 2-3pm
*where*: cabot division room
*what*: On the alternatives for a spectral density from QM/MM calculations*
** abstract
***
*The bath two-time correlation function plays a central role in describing
*
* the dynamics of systems when using Open Quantum System approaches.
*
*In this talk, I will explain how one can extract this quantity / the
spectral
*
*density by using a QM/MM approach. I will then overview various
semi-classical
*
*corrections which aim at recuperating the quantum bath correlation
function
*
*from the classical one. In the QM/MM approach one typically introduces an
*
*energy gap correlation function: I will show models which can account for
this
*
*quantity and how these lead to some of the previously introduced
semi-classical
*
*corrections. All considerations will be applied to the photosynthetic
*
*Fenna-Matthews-Olson complex.*
**
--
Stéphanie Valleau
PhD student in Chemical Physics
Harvard University CCB,
12 Oxford St. Mailbox 312,
Cambridge, MA, USA
HQOC/ITAMP Joint Quantum Sciences Seminar
Wednesday, October 3rd, 4:00 PM, J250
Guest Presenter: Prof. Charles S. Adams, Durham University
Talk title: Photon-photon interactions using cooperative non-linear
optics.
Abstract: Ever since the invention of the laser, the field of non--
linear optics has been at the forefront of progress in optical
information and communication technologies. However, one area where
non--linear optics has been constrained by fundamental physics is the
control of photons at the single quanta level. We address this issue
using an alternative type of optical non--linearity that is mediated
not directly by the interaction between light and matter, but
indirectly by the interaction between light--induced excitations,
i.e., dipole-dipole interactions. For example, the giant dipoles
associated with highly excited Rydberg states can induce a cooperative
response of say 1000 neighbouring atoms, thereby greatly amplifying
the effect of each photon. In this talk I will present some
interesting consequences of this cooperative response including light
induced phase transitions and optical bistability.
Student Presenter - Emanuele Dalla Torre, ITAMP/Lukin Lab Post Doc
"Dissipative Preparation of Spin Squeezed Atomic Ensembles in a Steady
State"
--
Joan Hamilton
Faculty Assistant to Profs. Lukin and Greiner
HQOC Administrative Coordinator
Harvard University
Department of Physics
17 Oxford Street
Cambridge, Ma 02138
Phone 617-496-2544
HUCTW Local Representative for the Department of Physics
The key profile area „Quantum Matter and Materials“ at the University
of Cologne - supported by the university’s master plan and the
federally funded excellence initiative - is seeking applications for
the following positions:
Full Professorship (W3/tenured)
for Theoretical Physics, condensed matter theory
(Institute for Theoretical Physics)
Full Professorship (W3/tenured)
for Theoretical Physics, statistical physics of complex systems
(Institute for Theoretical Physics)
Assistant Professorship (W1/tenure track)
for Experimental Physics solid state physics (II. Physics Institute)
Assistant Professorship (W1/tenure track)
for Physical Chemistry (Chemistry department)
All positions shall be filled as soon as possible. The successful candidates
will have an outstanding research record in the field of theoretical
condensed matter physics, statistical physics, experimental solid state
physics or physical chemistry, respectively, that reasonably complements
and expands the ongoing research activities at the University of Cologne.
Possible research areas of the full professorship (W3/tenured) in theoretical
physics (condensed matter theory) include quantum many-body systems,
topological matter or their mathematical description. The successful
candidate is expected to actively participate in teaching the full theoretical
physics curriculum.
Possible research areas of the full professorship (W3/tenured) in theoretical
physics (statistical physics of complex systems) include statistical physics
of non-equilibrium processes or complex networks. Research foci may
include fundamental principles as well as interdisciplinary applications. The
successful candidate is expected to actively participate in teaching the full
theoretical physics curriculum.
The successful candidate for the assistant professorship (W1/tenure track)
in experimental physics is expected to be an outstanding expert in solid
state physics. Possible research areas include strongly correlated electron
systems, topological matter or non-equilibrium dynamics. Teaching
responsibilities include active participation in the experimental
physics curriculum.
Possible research areas of the assistant professorship (W1/tenure track)
in physical chemistry should include a modern approach to light-matter
interactions, such as nano-optics, plasmonics, non-linear optics of soft
matter, sensor technology or related fields. The successful candidate
is expected to actively participate in teaching the physical chemistry
curriculum.
During the funding period of the excellence initiative the teaching
load is reduced. The University of Cologne is an equal opportunity
employer and encourages
applications from women and people with disabilities.
Applicants should send a CV, proof of qualification, lists of publications
and teaching experience, a concise statement of research interests and
reprints of five selected publications to the
Dean of the Mathematical Natural Science Faculty of the University of Cologne,
Albertus-Magnus-Platz, 50923 Cologne, Germany, E-Mail:
mnf-berufungen(a)uni-koeln.de.
Closing date for applications is 26/10/2012.
TODAY
Center for Excitonics Seminar Series
Thursday, September 27, 2012
RLE Conference Room - 36-428
3:00 - 4:00pm
SOLUTION-PROCESSED SOLAR CELLS USING COLLOIDAL QUANTUM DOTS
TED SARGENT - University of Toronto, Canada
Abstract:
Solution-processed photovoltaics offer a cost-effective path to harvesting the abundant resource that is solar energy. The organic and polymer semiconductors at the heart of these devices generally absorb visible light; however, half of the Sun's power reaching the Earth's surface lies in the infrared.
Solution-processed solar cells that harvest wavelengths beyond 1 μm were first reported in 2005, and were based on the application of quantum-size-effect-tuned infrared-bandgap colloidal quantum dots. Since then, we have reported externally-certified solar power conversion efficiencies exceeding 7%. Recent advances of interest include all-quantum-tuned tandem solar cells; and the emergence of all-inorganic colloidal quantum dot materials that use halide anions, instead of conventional organic ligands, for passivation.
I will summarize advances in the materials chemistry, fabrication, physical understanding, and performance-oriented engineering of colloidal quantum dot solar cells and light sensors.
Bio
Ted Sargent received the B.Sc.Eng. (Engineering Physics) from Queen's University in 1995 and the Ph.D. in Electrical and Computer Engineering (Photonics) from the University of Toronto in 1998. He holds the rank of Professor in the Edward S. Rogers Sr. Department of Electrical and Computer Engineering at the University of Toronto, where he holds the Canada Research Chair in Nanotechnology. His book The Dance of Molecules: How Nanotechnology is Changing Our Lives (Penguin) was published in Canada and the United States in 2005 and has been translated into French, Spanish, Italian, Korean, and Arabic. He is founder and CTO of InVisage Technologies, Inc<http://www.invisageinc.com/Default.aspx>. He is a Fellow of the AAAS "...for distinguished contributions to the development of solar cells and light sensors based on solution-processed semiconductors." He is a Fellow of the IEEE "... for contributions to colloidal quantum dot optoelectronic devices."