COVID-19 information for PI Residents and Visitors

<&
Conference Date: 
Wednesday, June 24, 2009 (All day) to Wednesday, July 1, 2009 (All day)

 

This school will be the seventh of an ongoing series of annual summer schools in theoretical physics held in Canada. The 2009 school is organized by the Perimeter Institute, in conjunction with the Asia-Pacific Institute for Theoretical Physics, and the Centre for Quantum SpaceTime.  Past sponsors have also included the Pacific Institute for Theoretical Physics and the Pacific Institute for the Mathematical Sciences.  The 1st2nd4th and 6th editions of this summer school were held at the University of British Columbia. The 3rd and5th editions were held at Perimeter Institute. 

 

This year's edition will focus on early universe cosmology, dark matter and gravitational wave physics. The school will include a series of lectures on these central topics, as well as guest lectures on key open problems in the field.

 

 

Accepted Students: 

Julian Adamek

Nishant Argawal

Kyu Jung Bae

Dennis Bessada

Laura Book

Alicia Bueno

Yi-Zen Chu

Mathieu Cliche

Emeline Cluzel

Francis-Yan Cyr-Racine

Alex Dahlen

Rebecca Danos

Willima Donnelly

Solomon Endlich

Jorge Escobedo

Marzieh Farhang

Anastasia Fialkov

Jose Fonseca

Michele Fontanini

Archisman Ghosh

Vera Gluscevic

Yu-Xiang Gu

Jun-Qi Guo

Raquel H. Ribeiro

Joachim Harnois-Deraps

Ben Heidenreich

Johanna Karouby

Adam Kelleher

Doyoun Kim

Kyung Kiu Kim

Naresh Kumar

Wonwoo Lee

Jason Li

Damien Martin

Daniel Meerburg

Joel Meyers

Godfrey Miller

Atsushi Naruko

Eimear O'Callaghan

Jae-Hyuk Oh

Alexander Patrushev

Riccardo Penco

Courtney Peterson

Sayeh Rajabi

Changsub Shin

Seodong Shin

Ajay Singh

Holly Trowland

Eli Visb 

Dan  Wohns

Jiajun Xu

Gang Xu

Wei Xue

 

Neta Bahcall, Princeton University

Weighing the Universe

How do we weigh the Universe? Where is the Dark Matter?  I will discuss these questions and show that several independent methods, including the observed present-day abundance of rich clusters , the evolution of cluster abundance with redshift, the baryon-fraction in clusters, the observed Mass-to-Light function from galaxies to superclusters, and other large-scale structure observations, all reveal a universe with a low mass density parameter of ~20% of the critical density. The data suggest that the mass in the Universe, including the dark-matter, approximately follows light on large scales and that most of the mass resides in huge dark halos around galaxies. I will review the combined observational evidence for dark-matter and for dark-energy in the universe and their cosmological implications.


Avi Loeb, Harvard University

The Past and Future of the Astrophysical Universe

The initial conditions of our Universe can be summarized on a single sheet of paper. Yet the Universe is full of complex structures today, such as stars, galaxies and groups of galaxies. I will describe how complexity emerged in the form of the first stars out of the simple initial state of the Universe at early cosmic times.

The future of the Universe is even more surprising.  Over the past decade it was realized that the cosmic expansion has been accelerating.  If this accelerated expansion will continue into the future, then within a hundred billion years there will be no galaxies left for us to observe within the cosmic horizon except one: the merger product between our own Milky Way galaxy and its nearest neighbor, the Andromeda galaxy.

 

Funding provided in part by: 

Perimeter Institute

Asia Pacific Center for Theoretical Physics

Center for Quantum SpaceTime