David Maiullo setting up a demo
DavidSinewave.jpeg
David Maiullo setting up a demo before lecture
previous arrow
next arrow
PlayPause

Department of Physics and Astronomy

Colloquia will be in person in Room 330 and online from 3:30 – 4:30 pm on Wednesdays. All welcome! 

Tea, Coffee and  Cookies will be served from 3:00 to 3:30 pm in Room 330.

Seminar Zoom Link: https://rutgers.zoom.us/j/95124198614?pwd=dnBzWnhUTmVSRjJZaVR1QnpvazduZz09

Day LocationTitleSpeakerHostRecordings / Slides
January 21 330W / Zoom Applications and limits of parametric driving in superconducting circuits Michael Hatridge, Yale University Srivatsan Chakram Sundar Recording
January 28 No Colloquium
February 4 330W / Zoom On Ising's model of ferromagnetism Peter Armitage, Johns Hopkins University Sean Oh
February 11 No Colloquium
February 18 330W / Zoom UNVEILING THE FIRST BLACK HOLES IN THE UNIVERSE Priya Natarajan, Yale University Andrew Baker Recording
BOYD LECTURE February 25  330W / Zoom The National Spherical Torus Experiment Upgrade – Advancing the Physics of Fusion Energy Stefano Munaretto, PPPL Piers Coleman

Recording

Slides

March 4 No Colloquium
March 11 330W / Zoom The Mathematics of Human Population Growth and CO2 Emissions Victor Yakovenko, University of Maryland Alex Morozov Recording
March 18 No Colloquium
March 25 330W / Zoom Tracking iron (Fe) in biological systems – disease diagnostics, stem cell engineering, and more Jongyoon Han, MIT Sean Oh  Recording
April 1 No Colloquium 
April 8 330W / Zoom From Mergers to Magnetars: Quest for the Origin of the Heaviest Elements Brian Metzger, Columbia University & Flatiron Institute Matt Buckley  
April 15 No Colloquium
April 22 330W / Zoom Many-fermion quantum entanglement in the high temperature superconductors and in black holes Subir Sachdev, Harvard University Emil Yuzbashyan Recording

SPECIAL IRONS LECTURE       

April 28 (8pm)

Sec 111 Magic Angle Graphene: the Twist and Shout of Quantum Materials Pablo Jarillo-Herrero, MIT Piers Coleman
April 29 330W / Zoom LHCb at the frontier of flavor physics: the three movements of the flavor sonata Marina Artuso, Syracuse University Eva Halkiadakis Recording


Please contact our administrative assistant Kesha Jenkins <This email address is being protected from spambots. You need JavaScript enabled to view it.>; with questions regarding speakers schedule and zoom settings. Questions about the colloquium schedule should be addressed to Prof. Piers Coleman -  This email address is being protected from spambots. You need JavaScript enabled to view it.

   Help us improve our colloquia

   Please answer a few questions anonymously about a colloquium you attended in this short survey: https://apps.physics.rutgers.edu/colloquiumform/

For meeting organizers, here are some tips for Hybrid meetings and 330W podium usage.

 

Fall 2025 Colloquium Schedule

Spring 2025 Colloquium Schedule

Fall 2024 Colloquium Schedule

Spring 2024 Colloquium Schedule

Fall 2023 Colloquium Schedule

Spring 2023 Colloquium Schedule

Fall 2022 Colloquium Schedule

Spring 2022 Colloquium Schedule

Fall 2021 Colloquium Schedule

Spring 2021 Colloquium Schedule

Fall 2020 Colloquium Schedule

Spring 2020 Colloquium

Spring 2018 Colloquium

Fall 2017 Colloquium

Spring 2017 Colloquium

Fall 2016 Colloquium

Spring 2016 Colloquium

Fall 2014 Colloquium

 

 

Featured News

Rutgers Condensed Matter Group study published in proceedings of the National Academy of Sciences

(Sept 4, 2026)

A new study from the Rutgers Condensed Matter Theory group that was recently published in PNAS (https://www.pnas.org/doi/10.1073/pnas.2535297123).

In addition to Daniel Kaplan (who recently took up a faculty position at the University of Central Floirda after several years here as a postdoc in the CMT group), the collaboration includes Prof. Premi Chandra, former Rutgers postdoc (currently faculty at UConn) Pavel Volkov and Max Planck-Hamburg director Andrea Cavalleri (experimentalist).

Daniel writes:
This collaboration enabled us to show that Faraday waves, a feature of nonlinear classical systems (like water, sand dunes or complex patterns in biological systems) can actually appear in strongly correlated quantum materials, and moreover, that the pattern formation which underlies this phenomenon can be induced and shaped by light. In effect, we have connected an observation previously only observed in classical fluids to quantum matter. We also demonstrated how it can be tuned for applications in the intricate world of electrons. It is a profound example of an interdisciplinary discovery in physics, bridging high and low energy physics and the classical and quantum realms.