|Steve Martin's Home Page|
Stephen P. Martin
Distinguished Research Professor
Distinguished Teaching Professor
Northern Illinois University
DeKalb, IL 60115
NIU Office: 214 La Tourette (formerly Faraday West)
Fermilab Office: Wilson 3rd floor
Today's anagram of Stephen Patrick Martin is: Mistaken pitch, partner
Fall 2017 class: Physics 470/570 Electricity and Magnetism II
from the inSPIRE database.
"A Supersymmetry Primer" is
my introduction to supersymmetry.
Some pedagogical summer school lectures I've given: slides for the ICTP 2013 Summer School on Particle Physics and notes for my TASI 2011 lectures on two-component fermions and supersymmetry.
TSIL (Two-loop Self-energy Integral Library) and 3VIL (3-loop Vacuum Integral Library) are computer program libraries that Dave Robertson and I wrote and maintain. They perform the numerical computation of Feynman integrals for, respectively, 2-loop self-energy and 3-loop vacuum diagrams, with arbitrary masses. TSIL is based on the papers hep-ph/0307101 and hep-ph/0501132, while 3VIL is based on hep-ph/1610.07720.
SMH is a computer program library that computes the mass of the Standard Model Higgs boson at complete 2-loop order with leading 3-loop corrections. It also minimizes the Standard Model effective potential in the same approximation. It was also written with Dave Robertson, as an application of TSIL, and is based on the paper 1407.4336.
Another application of TSIL is the 2-loop SUSYQCD contributions to the gluino and squark pole masses, recently implemented in SOFTSUSY 3.7.0 by Ben Allanach, Dave Robertson, Roberto Ruiz de Austri, and me. For a description of this, see the manual: 1601.06657.
Here is the web page (including errata, and a version with the -+++ metric) for the review paper 0812.1594, "Two-component spinor techniques and Feynman rules for quantum field theory and supersymmetry", by Herbi K. Dreiner, Howard E. Haber, and me. The current v5 is very close to the one published in Physics Reports.
Other classes I have previously taught at NIU:
Physics 370 Electricity and Magnetism I (Spring 2017)
Physics 485/585 Methods of Mathematical Physics II (Spring 2003)
Physics 661 Quantum Mechanics II (Spring 2009)
Physics 686 Phenomenology of Particle Physics (Fall 2016)
Physics 751 General Relativity (Spring 2015)
Physics 786 Gauge Theories and Supersymmetry (Spring 2004)