Title of Your Paper (Times Roman 14pt. Bold)
Author1, Author2, and Author3 (TR 12 pt. plain)
1. Introduction (TR 12 pt. bold)
Lay out brief but to-the-point introduction. It could
describe motivation, goal, and or plan of this paper [1].
The length of the paper should not exceed 5 pages of
single space double column format in plain TR 10 pt.
font. No space should be left between the title of the
section and the first line and no indentation in the first
paragraph of each section. Your report in PDF will be
submitted electronically by e-mail to your instructor at
yoonslee@phys.ufl.edu no later than April 11, 2011
(Monday). Your presentation time will be announced
in early April.
2. Title of section



0
1-
2+
It is
m * / m  1  F1s / 3
+
2-
1+
0
2.1. Title of subsection (TR 11 pt. bold)
Equations could be numbered if necessary.
recommended to use MS Equation editor.
orbital and spin space in 3He-B, i.e. spontaneously
broken relative spin-orbit symmetry [4].
B
00-
B
Figure 1. Each figure should be numbered and the
caption is in plain TR 10 pt.
that determines the heat capacity.
4. Summary or Conclusions
2.2. Bose-Einstein condensation
This report is brilliantly written and the authors have
spent tremendous amount effort. Therefore, all the
authors of this paper deserve A+ in this course.
Figures or pictures should be inserted in text near
where the relevant discussion occurs. Each figure
should have a figure caption. Figures or pictures could
be in color or in grayscale. The same applies to tables.
References should appear in appropriate places in text
as [ref. number]. The reference number should match
with the number in the Reference section at the end of
the manuscript.
One of the most interesting features of these order
parameters is that combinations of various components
may oscillate about their equilibrium positions with a
frequency of the order of the gap frequency. This
coherent oscillation of order parameters is called an
order parameter collective mode (OPCM) [15]. The
detailed spectra of OPCM’s reflect the symmetry of the
phase and provide a fingerprint of the phase. Here, we
will focus our discussion on the OPCM’s in 3He-B.
3. Superfluid 3He
Liquid 3He is an unfathomable source of new
phenomena. Rich physics in this system evolves from
the combination of the Fermi liquid properties and the
exotic broken symmetry in the superfluid states. The
acoustic Faraday effect is an excellent experimental
manifestation of these combined properties. As
mentioned above, the acoustic Faraday effect provides
the first clear evidence of propagating transverse sound
in liquid 3He and the existence of the coupling between
Acknowledgements
We would like to thank all my heroes who made me
who I am.
References
[1] See the format of references below.
[2] K. Mendelssohn, The Quest for Absolute Zero,
Taylor & Francis, London, 1977.
[3] F. Pobell, Matter and Methods at Low
Temperatures, Springer-Verlag, Berlin, 1992.
[4] D.D. Osheroff, R.C. Richardson, and D.M. Lee,
Phys. Rev. Lett. 29, 920 (1972).
[5] J. Wilks, The Properties of Liquid and Solid
Helium, Clarendon Press, Oxford, 1967.
[6] A.J. Leggett, Rev. Mod. Phys. 47, 331 (1975); J.C.
Wheatley, Rev. Mod. Phys. 47, 415 (1975).