Good afternoon,
The deadline for Generation Q G2 Fellowship nominations has been extended to Friday, May 5.
Additional materials from nominees (unofficial transcripts, publication list, and CV) will be due Friday, May 12. I will reach out to nominees to request this information.
Thank you,
Samantha Dakoulas (she/her)
Strategic Program Manager
Harvard Quantum Initiative
33 Oxford Street, MD 351
Cambridge, MA 02138
P. (617) 384-7839
From: Harvard Quantum Initiative <HQIDirectors(a)harvard.edu>
Date: Wednesday, April 19, 2023 at 9:20 AM
Subject: Call for HQI Fellowship Nominations: Generation Q G2 Fellowships
Call for Generation Q G2 Fellowship Nominations
Deadline: April 28, 2023
The Harvard Quantum Initiative invites nominations for the Generation Q Graduate Fellowship.
These fellowships are made available through generous support from the AWS Generation Q Fund at the Harvard Quantum Initiative. HQI will award up to 16 one-semester fellowships to G2s conducting quantum science and engineering research in FY24.
Eligibility and Fellowship Details
* Nominees must be rising second-year PhD students (current G1s) pursuing quantum science and engineering and in good standing in Ph.D. programs in QSE, SEAS, Physics, and/or CCB.
* The Fellowship will provide five months of G2 stipend and tuition and fees for one semester. Typical duration of the fellowship would be either August 1-December 31, 2023, or January 1-May 31, 2024
Nomination Instructions
* Students must be nominated by an advisor/principal mentor, and a second faculty member must also provide a recommendation letter. Please send the nominating letter and recommendation letter from a second faculty member to sdakoulas(a)fas.harvard.edu<mailto:sdakoulas@fas.harvard.edu> by Friday, April 28.
* Once the nomination has been received, HQI will contact the student to request their unofficial transcripts, publication list, and CV for review by the selection committee. These materials will be due to sdakoulas(a)fas.harvard.edu<mailto:sdakoulas@fas.harvard.edu> by Friday, May 5.
* Decisions will be announced in late May 2023
Please reply to this message with any questions, or write to HQIDirectors(a)harvard.edu<mailto:HQIDirectors@harvard.edu>
CUA Seminar
Tuesday, April 25
3:30 pm, Pfizer Lecture Hall (Mallinckrodt 023)
*note time and location change*
Prof. Eugene Polzik
Niels Bohr Institute, University of Copenhagen
Macroscopic objects in the quantum regime
Studies of extreme cases within quantum mechanics have always been particularly attractive. How macroscopic can be an object and still demonstrate unique quantum features, such as entanglement? What are the real limits of measurement precision in quantum mechanics? I will review our experiments where macroscopic objects are driven deep into the quantum regime. Generation of an entangled Einstein-Podolsky-Rosen state between distant mechanical and atomic oscillators, the concept of an oscillator with an effective negative mass and progress towards application of those ideas to gravitational wave detection will be reported. Another challenge within quantum physics of macroscopic objects is generation of Fock states corresponding to single quantum excitations of an oscillator. Progress along those lines with Fock states of motion and of a macroscopic atomic ensemble will be presented. Finally, I will briefly review our work towards an atomic quantum simulator.
Refreshments provided at 4:30 pm.
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Please find below an opportunity that might be of interest to graduate students and postdocs in the HQI Community.
********************
Harvard's Office of Technology Development is hosting our annual Bench-to-Business Boot Camp! The Boot Camp is a multi-day workshop for Harvard graduate students and postdocs, designed to teach you the skills to recognize and convey the value of scientific and technological innovations to the world of industry, business, and entrepreneurship.
This year's Boot Camp comprises an in-person workshop (Tuesday, May 2nd, 9:30AM-3:30PM ET in Harvard Square) and a virtual session (Wednesday, May 3rd 9:00AM-12:30PM ET on Zoom).
Apply<https://otd.harvard.edu/events/otds-2023-bench-to-business-boot-camp/> by April 28 to express your interest in attending the Boot Camp. Those accepted to attend will be notified by email.
For more information: otd.harvard.edu/BBBC
Sharon Fletcher
Business Development Associate
[http://www.otd.harvard.edu/images/signatures/Harvard_Shield_with_shadow.png]
Harvard University | Office of Technology Development
1350 Massachusetts Avenue, Smith Campus Center, Suite 727E, Cambridge, MA 02138
617.495.3068 | Fax: 617.495.9568
sharon_fletcher(a)harvard.edu<mailto:sharon_fletcher@harvard.edu> l otd.harvard.edu<https://otd.harvard.edu/>
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Hello folks,
I am happy to invite you to an event sponsored by HQI next week. We will be
having a panel discussion next *Tuesday April 25th, 2023 at 12pm-1:30pm in
Jefferson 453 on the promises made by and to different fields related to
quantum technologies. *Lunch will be provided!
The theme of this discussion is the bringing together of experts from
different quantum technologies and map out the historical events leading up
to several fields becoming part of quantum. We are going to explore how
these fields are making quantum promises, and how these promises hang
together. We look forward to having you all over! After the panel
discussion we will have a Q&A.
We will be joined by a stellar set of panelist of HQI professors!
[image: Advertisement.png]
Best,
--
Rodrigo Araiza Bravo
*Ph.D. Candidate | Yelin Group*
*M.S. Physics, Harvard University '21*
*B.S. Physics and Mathematics, UIUC '18*
Call for Generation Q G2 Fellowship Nominations
Deadline: April 28, 2023
The Harvard Quantum Initiative invites nominations for the Generation Q Graduate Fellowship.
These fellowships are made available through generous support from the AWS Generation Q Fund at the Harvard Quantum Initiative. HQI will award up to 16 one-semester fellowships to G2s conducting quantum science and engineering research in FY24.
Eligibility and Fellowship Details
* Nominees must be rising second-year PhD students (current G1s) pursuing quantum science and engineering and in good standing in Ph.D. programs in QSE, SEAS, Physics, and/or CCB.
* The Fellowship will provide five months of G2 stipend and tuition and fees for one semester. Typical duration of the fellowship would be either August 1-December 31, 2023, or January 1-May 31, 2024
Nomination Instructions
* Students must be nominated by an advisor/principal mentor, and a second faculty member must also provide a recommendation letter. Please send the nominating letter and recommendation letter from a second faculty member to sdakoulas(a)fas.harvard.edu<mailto:sdakoulas@fas.harvard.edu> by Friday, April 28.
* Once the nomination has been received, HQI will contact the student to request their unofficial transcripts, publication list, and CV for review by the selection committee. These materials will be due to sdakoulas(a)fas.harvard.edu<mailto:sdakoulas@fas.harvard.edu> by Friday, May 5.
* Decisions will be announced in late May 2023
Please reply to this message with any questions, or write to HQIDirectors(a)harvard.edu<mailto:HQIDirectors@harvard.edu>
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Please see below for a series of talks that may be of interest to the HQI community.
________________________________
From: Davis, Jolanta M. <jmdavis(a)fas.harvard.edu>
Sent: Friday, March 31, 2023 12:26 PM
To: physics-faculty(a)lists.fas.harvard.edu <physics-faculty(a)lists.fas.harvard.edu>; physics-staff(a)lists.fas.harvard.edu <physics-staff(a)lists.fas.harvard.edu>; Graduate Email Listserve(physics-grads(a)lists.fas.harvard.edu) <physics-grads(a)lists.fas.harvard.edu>; physics-researchers(a)lists.fas.harvard.edu <physics-researchers(a)lists.fas.harvard.edu>; physics-preceptors(a)lists.fas.harvard.edu <physics-preceptors(a)lists.fas.harvard.edu>; sps-list(a)lists.fas.harvard.edu <sps-list(a)lists.fas.harvard.edu>; physics-othergrads(a)lists.fas.harvard.edu <physics-othergrads(a)lists.fas.harvard.edu>
Subject: SAVE THE DATES - Steven Chu, April 24, Colloquium | April 25, Lee Historical Lecture in Physics
Steven Chu
William R. Kenan Jr. Professor
Professor of Molecular and Cellular Physiology
and of Energy Science and Engineering
Stanford University
1997 Nobel Prize in Physics
[cid:image001.jpg@01D96BB0.25AFBAB0]
Harvard Physics Colloquium
"Entropy, molecular motors, and non-thermal equilibrium statistical physics"
Monday, April 24, 2023, 4:30pm
(Colloquium Tea served in Jefferson 450 @ 3:30 PM – Please bring your own mug if you have one.)
Jefferson 250, 17 Oxford Street, Cambridge, MA
and zoom (see the link below)
The transport of molecular cargos in neuronal cells is analyzed in the context of new developments in entropy and statistical physics. Our development of very bright optical probes enabled the long-term single tracking of molecular cargos in live neurons. The number of active dynein motors transporting a cargo is found to switch stochastically from one to five dynein motors during the long-range transport in neurons. Our probes allowed the observation of individual molecular steps where the time between single steps is controlled by two temperature-dependent rate constants. This finding suggests that two ATP molecules are hydrolyzed sequentially during each dynein step.
The measured fluctuations can be described by a steady-state non-thermal equilibrium temperature, Teff as high as 6× Tcell = 6×310 K, and inversely proportional to the number of motors. Using the Fluctuation Theorem (proven in 1993) is consistent an “uncertainty principle” limit, ΔQ ⋅ ϵ2 ≥ 2kBTeff, where ΔQ = Teff ΔS is the minimum heat entropy needed to achieve an outcome with a given statistical precision. This theorem sets a lower limit to the heat energy needed to achieve a given precision in any physical operation. In the context of intercellular molecular transport, a smaller variance in the displacement of the vesicle demands a greater expenditure of energy.
# # #
2023 Lee Historical Lecture in Physics
"A random walk into laser cooling, optical trapping and beyond"
Tuesday, April 25, 2023, 5:00pm
Jefferson 250, 17 Oxford Street, Cambridge, MA
and zoom (see the link below)
A personal perspective of how laser cooling and optical trapping of atoms and biomolecules was developed. Emphasis will be given on how an elementary understanding of the physics at an undergraduate physics level led to success in initial successes. Once the basic tools of optical molasses and optical trapping were developed, more random walks into polymer physics and biology will be described.
# # #
Steven Chu is Professor of Physics, Molecular and Cellular Physiology, and Energy Science and Engineering at Stanford University.
He received the 1997 Nobel Prize in Physics for laser cooling and trapping of atoms. Other contributions include the first optical tweezers manipulation of biomolecules, precision atom interferometry based on optical pulses of light, and single molecule FRET of biomolecules tethered to surfaces.
He is now developing and applying new methods in molecular biology and medical imaging, materials science, and batteries.
Previously he was U.S. Secretary of Energy, where he began ARPA-E, the Energy Innovation Hubs, and was tasked by President Obama to help BP stop the Macondo Oil spill. Previously, he was director of Lawrence Berkeley National Laboratory and Professor of Physics and Applied Physics at Stanford, and help initiate Bio-X, that linked the physical and biological sciences with engineering and medicine. Before Stanford, he was a department head at Bell Laboratories. He was past president of the American Association for the Advancement of Science, a Senior Advisor to the Directors of the NIH and the NNSA. He received an A.B. degree in mathematics and a B.S. degree in physics from the University of Rochester, a Ph.D. in physics from the University of California, Berkeley, has 35 honorary degrees, and is a member of the U.S. National Academy of Sciences and 8 foreign academies.
# # #
David M. Lee Historical Lectures in Physics are sponsored by the Marvin and Annette Lee Fund
# # #
Please click the link below to join the webinar:
https://harvard.zoom.us/j/92297706336?pwd=eHhqZUswNGliQXpOeVpoZFFsNHBFUT09
Passcode: 694953
Or One tap mobile :
US: +13017158592,,92297706336#,,,,*694953# or +13052241968,,92297706336#,,,,*694953#
Or Telephone:
Dial(for higher quality, dial a number based on your current location):
US: +1 301 715 8592 or +1 305 224 1968 or +1 309 205 3325 or +1 312 626 6799 or +1 646 931 3860 or +1 929 436 2866 or +1 253 205 0468 or +1 253 215 8782 or +1 346 248 7799 or +1 360 209 5623 or +1 386 347 5053 or +1 507 473 4847 or +1 564 217 2000 or +1 669 444 9171 or +1 669 900 6833 or +1 689 278 1000 or +1 719 359 4580
Webinar ID: 922 9770 6336
Passcode: 694953
International numbers available: https://harvard.zoom.us/u/adgkwO9yy
Or an H.323/SIP room system:
H.323:
162.255.37.11 (US West)
162.255.36.11 (US East)
115.114.131.7 (India Mumbai)
115.114.115.7 (India Hyderabad)
213.19.144.110 (Amsterdam Netherlands)
213.244.140.110 (Germany)
103.122.166.55 (Australia Sydney)
103.122.167.55 (Australia Melbourne)
149.137.40.110 (Singapore)
64.211.144.160 (Brazil)
69.174.57.160 (Canada Toronto)
65.39.152.160 (Canada Vancouver)
207.226.132.110 (Japan Tokyo)
149.137.24.110 (Japan Osaka)
Meeting ID: 922 9770 6336
Passcode: 694953
SIP: 92297706336(a)zoomcrc.com
Passcode: 694953
# # #
With any questions, please contact
Jolanta M. Davis, Administrator to the Chair of the Department of Physics, Prof. Efthimios Kaxiras
(pronounced Yo-lan-ta<https://forvo.com/word/jolanta/>)
Harvard University | Department of Physics | 17 Oxford St., Jefferson 352 | Cambridge, MA 02138
Tel.: 617-495-2866 | Fax: 617-495-0416 | https://www.physics.harvard.edu/
In the office: Mondays, Tuesdays
Working remotely: Wednesdays, Thursdays, Fridays
Member of HUCTW<https://huctw.org/send-email-harvard-leaders> (Harvard Union of Clerical and Technical Workers)
LinkedIn Profile<https://www.linkedin.com/in/jolantadavis/>
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HQI Special Seminar – Uma Girish (Princeton)
Monday, April 10, 2023
4:00 – 4:45 PM
Pierce 209
Title: Space-Bounded Quantum Computation & Quantum versus Classical Separations
The study of space-bounded quantum computation is important, as quantum computers in the near future are likely to have limited memory. We present space-efficient methods for eliminating intermediate measurements in quantum algorithms and establish fascinating connections of this problem to matrix powering and derandomization.
Understanding the relative advantages of quantum over classical computation is a fascinating problem. While quantum algorithms are widely believed to outperform classical ones, there are very few settings in which this has been proved without assumptions. Query and communication complexity are striking examples of such settings. We study the advantages of quantum over classical in these settings and show improved quantum versus classical separations.
If you would like to meet with Uma Girish during her visit on April 10-11, please contact cploucha(a)fas.harvard.edu<mailto:cploucha@fas.harvard.edu>
Hi everyone,
The Harvard Quantum Information Group Meeting will have a special guest this Thursday, April 13th at 4:30 pm in Jefferson 250.
David Gosset, from the University of Waterloo and Perimeter Institute, will be speaking. Please see the title and abstract below.
Title: How to simulate quantum measurement without computing marginals
Abstract: In this work we provide new techniques for a fundamental and ubiquitous task: simulating measurement of a quantum state in the standard basis. Our algorithms reduce the sampling task to computing poly(n) amplitudes of n-qubit states; unlike previously known techniques they do not require computation of marginal probabilities. First we consider the case where the state of interest is the output state of an m-gate quantum circuit U. We propose an exact sampling algorithm which involves computing O(m) amplitudes of n-qubit states generated by subcircuits of U spanned by the first t=1,2,…,m gates. We show that our algorithm can significantly accelerate quantum circuit simulations based on tensor network contraction methods or low-rank stabilizer decompositions. Second, we consider the case in which ψ is the unique ground state of a local Hamiltonian with a spectral gap that is lower bounded by an inverse polynomial function of n. We prove convergence guarantees for a simple Metropolis-Hastings Markov Chain as well as a more involved continuous-time Markov chain that is related to the so-called fixed node Hamiltonian approach from the quantum Monte Carlo community. This talk is based on joint works arXiv:2112.08499 and arXiv:2207.07044 with Sergey Bravyi, Giuseppe Carleo, and Yinchen Liu.
Hope to see you all there.
Sincerely,
Jordan Cotler
-------- Forwarded Message --------
Subject:
[ee-faculty] [EE-Seminar] EE Seminar: Today! Oskar Painter (Caltech), "Engineering of Superconducting Circuits for Quantum Simulation"
Date:
Fri, 7 Apr 2023 08:00:00 -0400
From:
Brenn, Jess <jbrenn(a)g.harvard.edu><mailto:jbrenn@g.harvard.edu>
Reply-To:
jbrenn(a)g.harvard.edu<mailto:jbrenn@g.harvard.edu>
To:
EECS ee-seminars <ee-seminars(a)eecs.harvard.edu><mailto:ee-seminars@eecs.harvard.edu>
CC:
SEAS ee-faculty <ee-faculty(a)seas.harvard.edu><mailto:ee-faculty@seas.harvard.edu>, SEAS EE-Gradstudents <ee-gradstudents(a)seas.harvard.edu><mailto:ee-gradstudents@seas.harvard.edu>, seas-ee-researchers <seas-ee-researchers(a)g.harvard.edu><mailto:seas-ee-researchers@g.harvard.edu>
Harvard John A. Paulson School of
Engineering and Applied Sciences
ELECTRICAL ENGINEERING SEMINAR
Friday, April 7 at 1pm | SEC 1.402
"Engineering of Superconducting Circuits for Quantum Simulation"
Oskar Painter, Professor of Applied Physics and Physics, Caltech
Abstract: While the majority of engineerable many-body systems, or quantum simulators, consist of particles on a lattice with local interactions, quantum systems featuring long-range interactions are particularly challenging to model and interesting to study due to the rapid spatio-temporal growth of quantum entanglement and correlations. In my talk I will present a scalable quantum simulator architecture based on a linear array of superconducting qubits locally connected to an extensible photonic-bandgap metamaterial. The metamaterial acts both as a quantum bus mediating qubit-qubit interactions, and as a readout channel for multiplexed qubit-state measurement. As an initial demonstration, we realize a 10-qubit simulator of the one-dimensional Bose-Hubbard model with in situ tunability of both the hopping range and the on-site interaction. I will present how we characterize the Hamiltonian of the system using a measurement-efficient protocol based on quantum many-body chaos, and use a similar technique to study the many-body quench dynamics of the system, revealing through global bit-string statistics the predicted crossover from integrability to ergodicity as the hopping range increases. I will also discuss how the metamaterial quantum bus architecture can be extended to two-dimensional lattice systems and used to generate a wide range of qubit interactions, expanding the accessible Hamiltonians for analog quantum simulation and increasing the flexibility in implementing quantum circuits for gate-based computations.
Bio: Oskar Painter received his Bachelor of Applied Science degree in Electrical Engineering from the University of British Columbia in 1994, his Master of Science degree from the California Institute of Technology in 1995, and his Ph.D. in Electrical Engineering from the California Institute of Technology in 2001. He joined the faculty at the California Institute of Technology in 2002, where he is now the John G. Braun Professor of Applied Physics and Professor of Physics. Prof. Painter's current research interests are in studying the quantum properties of mechanical systems, the development of hybrid superconducting quantum circuits for quantum information processing applications and quantum computing. He is currently on-leave from Caltech, leading the Amazon Web Services quantum computing hardware team.
Speaker's Research Interests: Prof. Painter's current research interests are in studying the quantum properties of mechanical systems, the development of hybrid superconducting quantum circuits for quantum information processing applications and quantum computing.
--
Jessica Brenn | Administrative Coordinator for Academic Operations
Applied Math, Computer Science, Electrical Engineering
Harvard John A. Paulson School of Engineering and Applied Sciences
33 Oxford Street, MD 253
Cambridge, MA 02138
Phone: 617-496-7358
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Please see below for an event that might be relevant for the HQI community.
Begin forwarded message:
From: "Lane, Michelle" <mlane(a)seas.harvard.edu>
Subject: HARVARD FOUNDERS PANEL: Building Quantum Computers + Brain/Machine Interfaces
Date: April 3, 2023 at 12:08:56 PM EDT
To: "Ploucha, Clare" <cploucha(a)fas.harvard.edu>, "Sule, Nishant V." <nsule(a)fas.harvard.edu>
Hi Clare and Nishant,
Could you please share this upcoming event announcement with HQI students and directors/faculty? The conversation is targeted at students, postdocs, researchers, faculty and staff. It wiill be moderated by Paul Hayre, Executive Director of the Harvard Grid.
[image001.png]<https://industryinsightstheengine.splashthat.com/>
INDUSTRY INSIGHTS + LAB-TO-LAUNCH LOUNGE:<https://industryinsightstheengine.splashthat.com/> Are you an innovator or aspiring entrepreneur interested in hearing from Harvard alums that are building startups with the support of the Engine, a Cambridge-based venture firm that invests in tough tech? Join us on Tuesday, April 11 for a panel discussion and networking event with The Engine founders from Harvard affiliated startups. The event will feature the startup stories of Atlantic Quantum and Axoft with insights on what the founders have learned along the way. Founders Tim Menke (Cofounder & COO, Atlantic Quantum) and Tianyang Ye (Cofounder & CTO, Axoft) will discuss how their startups, funded by The Engine, are building quantum computers and brain/machine interfaces.
Lecture: 3:30-4:30 PM | SEC Lower Level 2, Room LL2.221
Networking: 4:30-5:00 PM | SEC Lower Level 2 Atrium
Food and drinks will be provided!
RSVP: https://industryinsightstheengine.splashthat.com<https://industryinsightstheengine.splashthat.com/>
Michelle E. Lane | Administrator, Industry Partnerships
Harvard John A. Paulson School of Engineering and Applied Sciences