Instructor: Richard J.
Jacob, Ph.D.
Professor
Emeritus of Physics
Barrett
Emeritus Fellow
Arizona
State University
(602)
677-5789 (cell & text)
Times: T, Θ 3:00 – 4:15 PM, Sage 142
Consultation: T, Θ 1:30 – 2:45 PM, Sage 145
Or by
appointment
This is a course in Particle
Cosmology – the hybrid field formed from Elementary Particle Physics,
Astrophysics and Cosmology. It is taught at the upper-division general studies
level, intended for honors students majoring in anything. The math and science
prerequisites are no more than those required for admission to the university
in full standing.
The course can be viewed as a study
in Nobel Prizes. Fully 40% of the Nobel Prizes in Physics since 1945 have been
awarded in relevant fields, most of them of seminal importance. Thus, part of
the class activities will involve the reading of a select number of Nobel Prize
Lectures, at least those that were accessible in understanding to the King of
Sweden. Each student will prepare a 20 minute presentation on a given Nobel
Prize Lecture taken from the list linked below. Each student will also write a
1500 word paper based on their presentation (exact details also below.)
Class periods will be spent in
presentations, discussions and a bit of lecture by the instructor. The
following tentative sequence of topics will evolve and harden as the term
approaches.
· Elementary building blocks of matter: electron, proton and neutron
· Light! The photon in all its guises
· Some relevancies from Special Relativity
·
Effervescent
cousins: muons and mesons
· Antimatter and other matter
· Neutrinos: nature’s ghosts
· Albert had a little lambda
· The universe expands and Einstein capitulates
· Pre Sputnik cosmology - the dulcet years
· “Three quarks for Muster Mark”
· Father Lemaitre’s Big Bang
· Hubble goes up and sees out
· Standard candles and supernovae
· The universe expands as Nobel Prizes proliferate
· We all glow
· The universe glows
· Baby pictures of the universe
· The first 300,000 years
· Structure
· The three pillars of the Big Bang model.
· The Dark Side
· United we stand – but where is the Higgs?
· Reproducing the Big Bang – the LHC
· Producing and detecting the Higgs
· It’s a point! It’s a plane! It’s Supersymmetry!
· Are there strings attached?
· Brains on branes.
· Up to our eyeballs in universes.
· What next?
Required texts: The following four fairly short
books are required reading. We will read them almost simultaneously; click here for a
reading guide. The books listed are not ordered at the University Book
Store since the selection occurred later than the order deadline. Students
should obtain them through their own favorite book source. Paperback or
e-reader are adequate.
·
The Particle at the End of the Universe,
Sean
Carroll. Carroll is a well-regarded general relativity and cosmology
researcher, currently at Cal Tech, who
also blogs on
science.
·
The 4% Universe,
Richard
Panek. This is not only a good presentation of
the physics behind the Standard Model of Cosmology, but an engrossing story of
competition in science and the race to the 2011 Nobel Prize. While not a
working scientist, Panek is an award winning
scientific journalist.
·
Warped Passages,
Lisa
Randall. Randall is probably the most famous currently active female
theoretical physicist. Her work involves alternative ideas to string theory.
She is at Harvard and on many TV shows.
Required Nobel Lectures: Each
student will select a Nobel Prize lecture from the approved list – first come,
first served – as his or her presentation and term paper topic. Lectures are
available at the links provided.
All lectures selected by class members become required reading for everyone in
the class.
Presentation and Term Paper: Your
presentation and term paper will be on the area covered in the Nobel Prize
lecture(s) you have chosen. Presentations and papers should not simply be
reviews of the chosen lecture(s), but should examine or expand upon an
important theme or topic found therein. (I will enlarge upon this in class.)
You need not be technical beyond your own level of preparation or background.
Presentations should be 20 minutes in length, not counting time for questions.
They will be scheduled at a fitting time in relationship to the topical list
above. You may use PowerPoint or other graphic illustrations to support your
oral presentation. The term paper should be at least 1,500 but no more than
2,000 words, not counting references and citations. It should be appropriately
footnoted and written in acceptable academic style. Note that while Wikipedia
and other unauthoritative sources are useful for starting a paper chase, only
authoritative sources are acceptable for citation. First drafts of term papers
are due at 11:59 PM, April 18. First drafts will be reviewed by two classmates.
Final drafts of term papers will be due at 11:59 PM on the last day of classes
(May 2.) They should be submitted as electronic editable files (MS Word
preferred) attached to an email addressed to rjjacob@asu.edu.
Examination: There
will be one examination: the final. It will be essay in format with both
required and elective questions. Bring a sufficient supply of Blue Books or
writing paper. No laptops, pads, etc.
Grade: The
final grade will be based upon attendance and participation (25%), individual
Nobel Prize presentation (25%), term paper (25%) and final examination (25%).
Grade will be reduced by 1/3 letter for each unexcused absence. Requests for
excused absences, with justification, should be emailed to the instructor
before 5:00 PM of the class day in question. Attendance is important. This is
not a robocourse. Grade levels are tentatively set as
follows: (Grade level requirements will not be increased but may be reduced at
the discretion of the instructor.) A+: >90%; A: >80%; A-: >75%; B+:
>70%; B: >65%; B-: >60%; C: >50%; D: >40%. There will be no C+,
C-, D+ or D- grades. The final grade will be calculated before any deductions
due to unexcused absences.
Non required
Suggested Readings:
·
Introduction to Cosmology, Barbara Ryden. For the
student with a college level math and physics background, this provides a good
technical survey of cosmology as a branch of physics.
·
Exploring Black Holes,
Edwin
Taylor and John Wheeler. A really fun introduction to General Relativity
for anyone who’s had a calculus course.
·
Black Holes and Time Warps,
Kip
S. Thorne. A very readable account of General Relativity. Lots of “What
would happen if you….?”
·
Particle Physics: A VeryShort
Introduction, Frank Close. In a
nutshell. Almost a handbook for non-physicists. Close is a long time researcher
and important contributor to particle physics. Not required, but recommended
for anyone new to particle physics.
Miscellaneous: