Wendy Taylor

Professor of Physics, Department of Physics and Astronomy York University

  • Toronto ON

I search for exotic particles with the ATLAS experiment at the CERN Large Hadron Collider.

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Biography

As a child, I was always intrigued by the question of "how things worked". In high school, I discovered a passion for physics, computer programming and electronics. As an undergraduate UBC physics student, I spent several co-op terms at TRIUMF, Canada's national particle and nuclear physics laboratory. I was doing research for a rare kaon decay experiment located at Brookhaven National Laboratory (USA) and became fascinated by particle physics. Kaons are short-lived composite particles with s quarks that have matter and antimatter versions that behave differently. They can thus yield important information about how all the antimatter in the universe was consumed shortly after the Big Bang.

My PhD thesis at the University Toronto comprised a study of composite b-quark particle formation using the CDF experiment at Fermilab (USA). Like kaons, particles with b quarks have curious matter-antimatter differences. As a postdoc employed by SUNY Stony Brook (USA) working on the D0 experiment at Fermilab, I helped build and commission custom-designed electronics to identify b-quark particles in real time.

In 2004, I returned to Canada to hold a Canada Research Chair in Experimental Particle Physics at York University (Toronto). As such, I led the D0 team that first observed evidence of the particle-antiparticle transformations of Bs mesons (composite particles with b and s quarks). Then I joined the ATLAS experiment at the LHC, the world's highest energy particle accelerator. My current research focuses on the search for the magnetic monopole, a hypothetical particle with only a north or south magnetic pole.

Throughout my career, I have been engaged in science outreach to the public and to government agencies. I am a dedicated advocate for women in physics and for equity for all within science, academia and society as a whole.

Areas of Expertise

Particle Physics
Physics
Antimatter
Magnetic monopoles
Stable massive particles

Accomplishments

Canada Research Chair

Tier II CRC in Experimental Particle Physics, York University, 2004-2014

Early Researcher Award

Ontario Ministry of Research and Innovation, 2008-2011

Education

University of Toronto

Ph.D.

Physics

1999

University of Toronto

M.Sc.

Physics

1993

University of British Columbia

B.Sc. (Hons.)

Physics

1991

Affiliations

  • ATLAS Collaboration, Member
  • TRIUMF Board of Management, Member
  • Canadian Association of Physicists, Member
  • Canadian Institute of Particle Physics, Member
  • American Physical Society, Member

Languages

  • English

Media Appearances

No new particle here, folks

CBC Radio's Quirks and Quarks  radio

2016-09-17

In the summer of 2016, rumours about the discovery of a new particle were squashed when the LHC announced that the signal disappeared after collection of more higher energy data.

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The hunt for the truest north

Symmetry Magazine  online

2016-09-14

Interviewed about the search for the Magnetic Monopole with the ATLAS detector

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New subatomic particles predicted by Canadians found at CERN

CBCNews.ca  online

2014-11-19

CERN Discovery of two new b-quark baryons

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Event Appearances

Antimatter: From the Subatomic to the Cosmological Scales

Royal Astronomical Society of Canada  Mississauga

2016-05-27

Panel Discussion member

York Science Forum: Dark Matter and the Dinosaurs  Toronto Reference Library

2015-12-11

Antimatter Isn't Just Science Fiction!

The Science of Science Fiction Series  Agincourt Public Library, Toronto

2015-10-22

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Research Grants

Upgrades to the ATLAS Detector at the LHC

NSERC Research Tools and Instruments Grant

2017-05-06

2017

The ATLAS Experiment at the CERN LHC

NSERC Discovery Grant

2006-2017

Low-noise, Radiation-tolerant Readout Electronics for the Upgraded ATLAS Inner Tracking Detector

Ontario Ministry of Research and Innovation Early Researcher Award

2008-2010

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Articles

Searches for magnetic monopoles and stable particles with high electric charges in 8 TeV pp collisions with the ATLAS detector

Phys. Rev. D 93, 052009

2016-03-18

A search for highly ionizing particles produced in proton-proton collisions at 8 TeV center-of-mass energy is performed by the ATLAS Collaboration at the CERN Large Hadron Collider. The data set used corresponds to an integrated luminosity of 7.0  fb−1. A customized trigger significantly increases the sensitivity, permitting a search for such particles with charges and energies beyond what was previously accessible. No events were found in the signal region, leading to production cross section upper limits in the mass range 200–2500 GeV for magnetic monopoles with magnetic charge in the range 0.5gD

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Measurement of the CP-violating phase ϕs and the B0s meson decay width difference in B0s→ J/ψϕ decays in ATLAS

JHEP 08 (2016) 147

2016-08-24

A measurement of the Bs0 decay parameters in the Bs0 → J/ψϕ channel using an integrated luminosity of 14.3 fb−1 collected by the ATLAS detector from 8 TeV pp collisions at the LHC is presented. The measured parameters include the CP -violating phase ϕs, the decay width Γs and the width difference between the mass eigenstates ΔΓs. The values measured for the physical parameters are statistically combined with those from 4.9 fb−1 of 7 TeV data, leading to the following:
ϕs=−0.090±0.078(stat.)±0.041(syst.)rad
ΔΓs=0.085±0.011(stat.)±0.007(syst.)ps−1
Γs=0.675±0.003(stat.)±0.003(syst.)ps−1.
In the analysis the parameter ΔΓs is constrained to be positive. Results for ϕs and ΔΓs are also presented as 68% and 95% likelihood contours in the ϕs-ΔΓs plane. Also measured in this decay channel are the transversity amplitudes and corresponding strong phases. All measurements are in agreement with the Standard Model predictions.

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Non-collider searches for stable massive particles

Physics Reports 582 (2015) 1-52

2015-06-26

The theoretical motivation for exotic stable massive particles (SMPs) and the results of SMP searches at non-collider facilities are reviewed. SMPs are defined such that they would be sufficiently long-lived so as to still exist in the cosmos either as Big Bang relics or secondary collision products, and sufficiently massive such that they are typically beyond the reach of any conceivable accelerator-based experiment. The discovery of SMPs would address a number of important questions in modern physics, such as the origin and composition of dark matter and the unification of the fundamental forces. This review outlines the scenarios predicting SMPs and the techniques used at non-collider experiments to look for SMPs in cosmic rays and bound in matter. The limits so far obtained on the fluxes and matter densities of SMPs which possess various detection-relevant properties such as electric and magnetic charge are given.

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