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2013 Short Form Catalog
Instruments by Lab Topics
Instrument Overviews
diode laser spectroscopy
earth's field nmr
earth's field nmr gradient/field coil system
fabry-perot cavity
faraday rotation
fourier methods
hall effect
magnetic force
magnetic torque
modern interferometry
muon physics
noise fundamentals
optical pumping
power/audio amplifier
pulse counter/interval timer - new
pulsed/cw nmr
pulsed nmr
quantum analogs
signal processor /lock-in amplifier
torsional oscillator
two slit interference, one photon at a time
ultrasonics - New
individual parts
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Muon Physics
Newsletter 1 – Muons on Parade Newsletter 2 – More About Muons
Conceptual Introduction – Muon Physics Muon Physics Brochure
| Introduction |
Lab Topics :
High Energy Physics
Partical/Nuclear Physics
Modern Physics |
"Catching" Cosmic Rays
- Measure Muon Lifetime
- Demonstrate Relativistic Time Dilation
- Measure Local Muon Flux
- Measure Sea Level Muon Charge Ratio
- Convenient Source of Genuinely Random Numbers
- Create Simulated "Muons" and Measure their Lifetime
- Study Processing of Photomultiplier Signal
The muon is one of Nature’s fundamental particles. Its discovery in
1937 by Carl Anderson marked a radical departure in physicists' understanding
of the building blocks of matter. Although it was first assigned a place
in theory of nuclear forces which was incorrect, it is now understood
to be an important member of the lepton family of particles. TeachSpin,
in collaboration with Thomas Coan and Jingbo Ye of Southern Methodist
University, has made the first commercial teaching instrument for students
to determine some of its physical characteristics.
The muon is produced copiously in Earth’s atmosphere by interactions
between cosmic rays and atmospheric air molecules, and its flux at sea
level is sufficient for student investigations. The muon’s lifetime
can be measured with our apparatus using experimental techniques common
to nuclear and particle physics. The stopping rate of muons, as a function
of depth in the atmosphere, can be used as a demonstration of the time
dilation effect of special relativity. Since the decay times of individual
radioactive particles are randomly distributed, they are a convenient
source of genuinely random numbers. These can be used to demonstrate common
probability distributions.
With this new TeachSpin Apparatus You Can:
• Measure Muon Lifetime
• Measure Local Muon flux
• Measure Sea-level Muon Charge Ratio
• Demonstrate Relativistic Time Dilation
• Convenient Source of Genuinely Random Numbers
• Raw Data Accessible for Student Analysis
Detailed technical information and a copy of the user's manual for Muon Physics can be found at www.matphys.com. The website is maintained by Professors Thomas Coan and Jingbo Ye of Southern Methodist University, with whom TeachSpin collaborated in developing this exciting apparatus.
introduction | the
instrument | experiments | specifications|
accessories | prices
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