|
TSI 2005
TRIUMF Summer Institute 2005
July 11-22, 2005
TRIUMF, Vancouver, BC, Canada
|
Atom and Ion Traps: Techniques and Applications
The 17th annual TRIUMF Summer Institute (TSI) will be held July
11-22, 2005. This year's TSI is designed to give graduate students
and young researchers an improved understanding of topics surrounding their
research areas of Atom- and Ion-Traps. The Institute will provide
short courses on the theory of Atom- and Ion-Traps, related topics, and
applications in atomic and nuclear physics. Lectures will take place
in the mornings, while afternoons are reserved for problems sessions in
organized small groups, with a strong emphasis on the student-lecture
interaction. Two afternoon workshops on Presentation Skills
and Project Management for Scientists are scheduled.
Participants will be given the opportunity to present their research in a
poster session. University credit can be arranged. Both
experimental and theoretical physics students are urged to attend.
Participation is normally limited to 40 students.
Featured Speakers and Topics
[Click on a speaker's name to go to their home page in a new browser window.]
| J. Behr |
(TRIUMF) |
Atom Traps for Weak Interaction Studies |
|
G. Bollen |
(Michigan State U.) |
Applications of Ion Traps in Nuclear Physics |
| J. Crespo |
(MPI Heidelberg) |
Electron Beam Ion Traps |
|
G. Gwinner |
(U. Manitoba) |
Very Large Ion Traps: Storage Rings |
|
M. Fujiwara |
(TRIUMF) |
Traps for Anti-Hydrogen |
|
B. King |
(McMaster U.) |
Quantum Computing with Ion Traps |
|
H. Metcalf |
(Stony Brook U.) |
Fundamentals of Atom Traps |
|
D. Steck |
(U. Oregon) |
Quantum Chaos and Quantum Transport |
|
M. Weidemüller |
(U. Freiburg) |
Applications of Atom Traps |
|
G. Werth |
(U. Mainz) |
Fundamentals of Ion Traps |
[Click on a speaker's name to go to their lecture outline and material]
Week 1: July 11 - 15
| Time |
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
| 08:00 |
Registration |
|
|
|
|
| 09:00 |
H. Metcalf Atom trap basics |
H. Metcalf Atom trap basics |
H. Metcalf Atom trap basics |
H. Metcalf Atom trap basics |
H. Metcalf Atom trap basics |
| 10:00 |
Coffee |
Coffee |
Coffee |
Coffee |
Coffee |
| 10:30 |
G. Werth Ion trap basics |
G. Werth Ion trap basics |
G. Werth Ion trap basics |
G. Werth Ion trap basics |
G. Werth Ion trap basics |
| 11:30 |
D. Steck Quantum chaos |
D. Steck Quantum chaos |
J. Crespo EBIT physics |
J. Crespo EBIT physics |
J. Crespo EBIT physics |
| 12:30 |
Lunch (pizza) |
Lunch |
Lunch |
Lunch |
Lunch |
| 14:00 |
Group discussion |
Group discussion |
Group discussion |
Group discussion |
Group discussion |
| 14:30 |
Coffee |
Coffee |
Coffee |
Coffee |
Coffee |
| 15:00 |
Tutorial (-16:00) |
Tutorial (-16:00) |
Presentation Skills Workshop (-18:00) |
Tutorial (-16:00) |
Tutorial (-16:00) |
| |
|
17:30 Volleyball & BBQ |
|
16:30 Stanley Park bike tour |
16:30 Poster session |
Top |
Week 1
[Click on a speaker's name to go to their lecture outline and material]
Week 2: July 18 - 22
| Time |
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
| 09:00 |
M. Weidemüller Atom trap appl. |
M. Weidemüller Atom trap appl. |
M. Weidemüller Atom trap appl. |
M. Weidemüller Atom trap appl. |
G. Gwinner Storage rings |
| 10:00 |
Coffee |
Coffee |
Coffee |
Coffee |
Coffee |
| 10:30 |
G. Bollen Ion trap appl. |
G. Bollen Ion trap appl. |
G. Bollen Ion trap appl. |
G. Bollen Ion trap appl. |
G. Bollen Ion trap appl. |
| 11:30 |
B. King Quan. computing |
B. King Quan. computing |
J. Behr SM tests in atom traps |
G. Gwinner Storage rings |
M. Fujiwara Anti-H traps |
| 12:30 |
Lunch |
Lunch |
Lunch |
Lunch |
Lunch |
| 14:00 |
Group discussion |
Group discussion |
Project Management for Scientists Workshop |
Group discussion |
Group discussion |
| 14:30 |
Coffee |
Coffee |
Coffee |
Coffee |
Coffee |
| 15:00 |
Tutorial (-16:00) |
Tutorial (-16:00) |
Project Management for Scientists Workshop (-18:00) |
Tutorial (-16:00) |
Tutorial (-16:00) |
| |
|
16:00 Kayak excursion |
|
18:30 Conference Dinner Vancouver Aquarium |
|
Lecture Outlines
Top
John Behr
TRIUMF
Atom Traps for Weak Interaction Studies
OUTLINE: Laser cooling and trapping techniques are being
used at several labs to study nuclear beta decay. The recoil
products, particularly the low-energy daughter nucleus, freely escape the
trap and can be detected in coincidence. The (otherwise invisible)
neutrino momentum can be deduced, which enables novel experiments.
Atomic techniques can also polarize the nuclei, and some of their
subtleties (well-known to AMO physicists but perhaps not to others) will be
explored and quantified.
Lecture Material:
Lecture 1: PDF
(2.4 MB) 43 pages
Top
Georg Bollen
NSCL, Michigan State University, USA
Application of Ion Traps in Nuclear Physics and Elsewhere
OUTLINE: Ion traps have become important tools not only
for precision experiments on stable isotopes and charged particles but also
in nuclear physics. Precision mass measurements are used for
fundamental symmetries tests and for a better determination of fundamental
constants. Ion traps are employed for the measurement of nuclear
binding energies, providing data for nuclear synthesis modelling, nuclear
structure studies and for the test of fundamental interactions.
Trapping and related techniques have gained significant importance for the
manipulation and improvement of rare isotope beams and projects are
starting that use ion traps for precision decay studies. This lecture
series will discuss various applications along these lines.
- Topic 1:
- Introduction
- Where are ion traps used in nuclear physics and why are they of benefit
- The wide field of Penning trap mass spectrometry
- Review of the toolbox and relevant techniques
- Topic 2:
- Ion Beam Manipulation with Ion Traps (mostly for rare isotope beams)
- Penning trap beam cooler and buncher systems + isobar separation
(ISOLTRAP, REXTRAP)
- RFQ cooler and buncher systems (LEBIT, JYFLTRAP, ISOLTRAP, etc.)
- EBIT for charge state boosting
- Topic 3:
- Mass Measurements
- Mass measurements on rare isotopes (ISOLTRAP, LEBIT, TITAN,
SHIPTRAP, etc.)
- Mass surface, nuclear astrophysics
- Test of fundamental interactions and symmetries
- Topic 4:
- Ultra-high precision mass measurements (MIT, Smiletrap, p/p-bar, HITRAP)
- Fundamental constants (alpha, kilogram)
- QED and CPT tests
- Topic 5:
- Other Applications
- In-trap decay studies
- Search for scalar and tensor currents (WITCH, LPC Caen)
- Topic 6:
- Analytical chemistry, molecular and cluster physics, etc. (FTICR)
- CID on metal clusters
- Large protein ID, MS-MS
Lecture Material:
Lecture 1: PDF
(2.3 MB) 32 pages -
Topic 1
Lecture 2: PDF
(5.5 MB) 32 pages -
Topic 2 Part 1
Lecture 3: PDF
(5.7 MB) 33 pages -
Topic 2 Part 2, Penning Traps; Topic 3 Part 1, Mass measurements of
rare isotopes
Lecture 4: PDF
(6.7 MB) 40 pages -
Topic 3 Part 2
Lecture 5: PDF
(2.5 MB) 42 pages -
Topics 5, 4, 6
Top
Jose Crespo
MPI Heidelberg, Germany
Electron Beam Ion Traps
Lecture Material:
Lecture 1: PPT
(15.8 MB) 48 pages
Lecture 2: PPT
(5.9 MB) 50 pages
Lecture 3: PPT
(6.2 MB) 15 pages
Top
Gerald Gwinner
University of Manitoba, Canada
Heavy-Ion Storage Rings
OUTLINE: High-quality ion beams predestine
electron-cooler equipped storage rings for precision spectroscopy of atomic
and molecular ions. In the last 15 years, a wide variety of fundamental
and applied measurements have been pioneered at these machines, and a new
generation of smaller, cryogenic rings will open up new exciting
opportunities.
Topics will include:
- Storage ring principles, electron cooling
- Tests of relativistic time dilation
- Bound-state beta decay
- QED tests in heavy, hydrogen-like ions
- Electron-ion recombination, application to astrophysics
- Molecular physics
- Laser cooling, beam crystallization
- New developments:
- Ultra-cold electrons
- Cryogenic electrostatic rings
Lecture Material:
Lectures 1+2: PDF
(11.7 MB) 69 pages -
Topic 1
Top
Antimatter Traps
OUTLINE: A long-term goal of antihydrogen research is
precision tests of CPT and other symmetries between matter and antimatter,
via precise comparisons of their properties. Any violations of these
fundamental symmetries would have profound implications for our
understanding of nature. Cold atoms of antihydrogen were produced in
2002 by the ATHENA experiment and subsequently by the ATRAP experiment,
both located at CERN's Antiproton Decelerator facility, establishing an
important milestone towards the ultimate goal of precision symmetry
tests. A new experiment, ALPHA, is being developed with the aim of
stably trapping neutral antihydrogen. In this lecture, I will give an
overview of cold antihydrogen research, with an emphasis on the challenges
imposed by working with antimatter species.
The topics will include:
- Physics motivations
- Trapped non-neutral plasmas
- Antiproton and positron traps
- Antihydrogen detectors and antimatter imaging
- Antihydrogen formation
- Trapping neutral antihydrogen with project ALPHA
- Towards precision symmetry tests
Lecture Material:
Lecture 1: PDF
(5.8 MB) 76 pages
Top
Brian King
McMaster University, Canada
Quantum Computing with Ion Traps
OUTLINE: Over the past decade, our ability to measure and
control the states of trapped ions has reached the quantum regime. At the
same time, researchers have realized that such an ability could allow us to
solve certain difficult computational problems exponentially faster than we
could using a computer based upon the laws of classical physics. I am
referring, of course, to the new and expanding field of quantum
information. Trapped atomic ions, in fact, seem to allow a "computer
architecture" that is scalable to an arbitrarily large number of quantum
bits and computational steps.
We will discuss the basic "building blocks" used to implement ion-trap
quantum information processing and some of the possible applications.
The topics will include:
- Physical requirements for quantum computing
- Decoherence
- Error correction
- Ion traps for quantum computing
- Internal degrees of freedom - "memory" qubits
- External degrees of freedom - the "quantum data bus"
- State preparation
- Readout
- Single-ion logic gates
- Multi-ion logic gates
- Applications and implementations
- Prospects
Lecture Material:
Lecture 1: PDF
(0.8 MB) 20 pages
Lecture 2: PDF
(1.7 MB) 26 pages
Lectures 1+2: PPT
(3.9 MB) 47 pages
Top
Fundamentals of Atom Traps
Lecture Material:
Lecture 1: PPT
(2.9 MB) 36 pages
Lecture 2: PPT
(3.7 MB) 36 pages
Lecture 3: PPT
(3.3 MB) 35 pages
Lecture 4: PPT
(1.2 MB) 31 pages
Lecture 5: PPT
(1.5 MB) 61 pages
Lecture X: PPT
(2.4 MB) 46 pages
Top
Daniel Steck
OCO, University of Oregon, USA
Quantum Control and Quantum Chaos in Atom Optics
OUTLINE: Ultracold atoms can now be manipulated to a high
degree of precision with electromagnetic fields, particularly optical
potentials made from laser light, allowing for clean, well isolated, and
flexible realizations of textbook quantum systems. Atom optics is
thus uniquely well suited to tests and explorations of fundamental
phenomena in simple quantum systems. These lectures will review
methods for manipulating atoms as well as the future paradigm of "closed
loop" or active feedback control of quantum systems. Further, these
lectures will discuss applications of control methods to fundamental
studies of quantum nonlinear dynamics, including a review of atom-optics
studies of quantum phenomena in classically chaotic systems as well as the
future directions of this field.
- Topic 1:
- Quantum Control
- Passive control methods in atom optics
- The role of dissipation and information in control
- Quantum feedback control
- Topic 2:
- Quantum Chaos
- Introduction to classical chaos
- Quantum phenomena in atom optics:
- Localization
- Tunneling
- Accelerator modes
- The quantum-classical transition
Lecture Material:
Topic 1: PDF
(5.6 MB) 37 pages
Topic 2: PDF
(3.7 MB) 45 pages
Top
Matthias Weidemüller
Albert-Ludwigs-Universität Freiburg, Germany
Applications of Atom Traps
OUTLINE: Traps have become the major tool for confining
and manipulating atoms and molecules. The particles can be trapped
independent of their internal state in a purely conservative potential by
either magnetic or optical forces, and the motion can be controlled to a
very high degree. In my lecture, I will introduce applications of
atom traps in modern AMO Physics covering a variety of fields including
quantum gases (Bose condensates and Fermi-degenerate gases), ultracold
molecules, Rydberg gases, single-atom manipulation, quantum information
processing, and applications of cold atoms as targets.
- Topic 1:
- The trap zoo, or: How to choose the right trap (including cooling
schemes)
- Topic 2:
- Bose condensation and Fermi degeneracy
- Topic 3:
- Molecules, Rydberg gases and other exotic species
- Topic 4:
- Single-atom manipulation and applications for quantum information
processing
- Topic 5:
- Trapped atoms as targets for electron, atom, ion, and photon beams
Lecture Material:
Lecture 1: PDF
(9.0 MB) 46 pages
Lecture 2: PDF
(9.6 MB) 58 pages
Lecture 3: PDF
(8.1 MB) 48 pages
Lecture 4: PDF
(6.1 MB) 45 pages
Top
Günter Werth
Johannes Gutenberg-Universität Mainz, Germany
Principles and Applications of Ion Traps
- Topic 1:
- Principles of Paul and Penning traps
- Equations of motions for single particles
- Criteria for stability
- Spatial distribution of trapped ion clouds
- Influence of space charge and trap imperfections on the ion motion
- Influence of collisions
- Different trap geometries
- Linear traps
- Cylindrical traps
- Topic 2:
- Trap loading methods
- Destructive and non-destructive ion detection techniques
- Creation of multiply charged ions
- Topic 3:
- Ion cooling
- Buffer gas cooling
- Resistive cooling
- Laser cooling
- Sympathetic cooling
- Principles
- Cooling rates
- Cooling limits
- Topic 4:
- Nuclear and electronic g-factor measurements in traps
- Optical-microwave double resonance technique
- Continuous Stern-Gerlach effect for free electrons and hydrogen-like ions
- Topic 5:
- Precision spectroscopy in traps
- Hyperfine structures
- Atomic clocks in the microwave and optical domain
- Present status of precision and stability of ion trap clocks
Lecture Material:
Topic 1: PPT
(2.2 MB) 22 pages -
Paul trap basics
Topic 1: PPT
(0.9 MB) 10 pages -
Penning traps
Topic 1: PPT
(1.1 MB) 13 pages -
Real traps
Topic 2: PPT
(0.6 MB) 18 pages
Topic 3: PPT
(1.7 MB) 25 pages
Topic 4: PPT
(1.6 MB) 25 pages -
Electron g-factor
Topic 4: PPT
(0.5 MB) 18 pages -
Atomic g-factors
Topic 5: PPT
(0.9 MB) 77 pages
Topic 6: PPT
(2.5 MB) 31 pages -
Plasma and crystallisation
Registration
The TRIUMF Summer Institute 2005 is free for registered participants.
The registration form
[
PDF (18 KB) ,
gzipped PostScript (27 KB) ,
PostScript (51 KB)
]
should be downloaded, completed and faxed to Elly Driessen at TRIUMF.
Please note that the number of participants will be limited to 40.
Unfortunately, we are unable to provide financial support to cover travel
or subsistence expenses.
Accommodation
A limited number of rooms have been set aside for TRIUMF Summer Institute
2005 participants at
The Gage Towers
on the UBC campus. The room rate is CDN$37 per night, plus 15%
tax. This rate will only be available if the accommodation request is
received before June 10, 2005. (Note that July is high tourist season
in Vancouver. At that time it is very difficult to find
accommodations in this price range anywhere in the city.)
Please make your own reservation using this
Web form.
The Gage Towers is located at:
5959 Student Union Boulevard, Vancouver, BC V6T 1K2, Canada
Tel: 604-822-1000
Fax: 604-822-1001
Further information:
- How to get to
The Gage Towers
from Vancouver International Airport, downtown Vancouver and Seattle;
public transit; check-in and check-out information; and facilities
available at The Gage Towers.
- Campus dining locations.
- A campus map showing the
location of The Gage Towers. Please note that TRIUMF is located
a further 1 km south of Gate 10 on Wesbrook Mall.
- A complete campus map showing the
South Campus
on page 2 and the exact location of TRIUMF.
Please note that it is a 3 km walk from The Gage Towers to TRIUMF as
shown on either the
road map with directions
or the
aerial view. Try zooming out in either view to get a better
appreciation of the location of TRIUMF relative to downtown Vancouver and
the rest of the Lower Mainland.
Travel Arrangements
Participants need to ensure that they have the proper travel documents and
visas to enter Canada. Click
here
for full details regarding visas, customs, tax refunds and travel.
Vancouver can be reached by air (Vancouver International Airport -
YVR
), rail, bus, car, or boat. There is bus and taxi service for
transportation between the airport, downtown, and the UBC campus. See
this link
for details.
Some current exchange rates are (as of January 2005):
CDN$1 = US$0.81 ;
CDN$1 = Euro 0.63 ;
CDN$1 = £0.43
Organizing Committee
For information regarding registration, accommodation and TSI logistics,
please contact:
Elly Driessen,
TSI 2005,
TRIUMF, 4004 Wesbrook Mall, Vancouver, BC V6T 2A3, Canada
E-mail:
tsi05@triumf.ca
Phone: 1-604-222-7352
FAX: 1-604-222-1074
Previous / Future Institutes:
2006
2004
2003
2002
2001
2000
1998
1997
Last modified: Mon Feb 13 16:42:54 PST 2006
by Martin Comyn
|
Visitors since 20-JAN-2005
|