PHYS 570
Introduction to Synchrotron Radiation
Fall 2021 Syllabus

Instructor: Carlo Segre segre [at] iit.edu
Pronouns: he, him
166d/172 Pritzker Science Center 312.567.3498
Meetings: Tuesday & Thursday 17:10-18:25, 121 Pritzker Science
Office hours:   by Appointment
URL: http://csrri.iit.edu/~segre/phys570/21F/
Textbooks: Elements of Modern X-Ray Physics, Second Edition, Jen Als-Nielsen and Des McMorrow, (John Wiley & Sons, Ltd. 2011).
X-Ray Data Booklet (Lawrence Berkeley National Laboratory, 2009) - http://xdb.lbl.gov/xdb-new.pdf
Objectives:
  • Understand the means of production of synchrotron x-ray radiation.
  • Understand the function of various components of a synchrotron beamline.
  • Be able to perform calculations in support of a synchrotron experiment.
  • Understand the physics behind a variety of experimental techniques.
  • Be able to make an oral presentation of a synchrotron radiation research topic.
  • Be able to write a General User Proposal in the format used by the Advanced Photon Source
Material:
  • X-ray and their interaction with matter
  • Sources of x-rays
  • Refraction and reflection from interfaces
  • Kinematical Diffraction
  • Diffraction by perfect crystals
  • Photoelectric absorption
  • Resonant scattering
  • Small angle scattering
  • Other topics as appropriate
Grading: Grading for this course will be based on homework assignments (33%), student presentations (33%) and project (33%).
Project: You will be required to write a General User Proposal to the Advanced Photon Source. This tutorial describes the process of submitting a proposal. The topic of your proposal should be different than the topic of your presentation and must be approved beforehand by the instructor.
Presentation: The final examination will consist of a 20 minute presentation (15 minutes of talk plus 5 minutes for questions). Your presentation will be based on a journal article and must be approved in advance by the instructor. The topic must be different than that of your General User Proposal project.
Academic Honesty Policy: IIT has a Code of Conduct which is available at https://www.iit.edu/student-affairs/student-handbook/fine-print/code-academic-honesty. All students in this course are expected to follow this code. The first violation will result in a grade of "zero" for that assignment (exam or quiz). Subsequent violations will result in a failing grade in the course.
Accomodations: Your success is my #1 priority, please feel free to talk with me about any needs you might have. Depending on the situation, I may require you to obtain a letter of accommodation from the Center for Disability Resources in IIT Tower, Room 3F3-1, 312-567-5744 or disabilities@iit.edu.
Title IX Compliance: Illinois Tech is committed to fostering a safe, productive learning environment. Title IX and our school policy prohibits discrimination on the basis of sex as well as all forms of sexual misconduct or harassment. If you have experienced such an incident, please consult the HEA Compliance web site for resources available to you. As an employee of Illinois Tech, I am always concerned about each and every student's well-being, but please note that I am required to report any such incidents reported to me to Illinois Tech's Title IX coordinator and therefore cannot guarantee confidentiality.
Schedule
Week Date Lecture Notes Reading Assignment Homework Due
1 Aug 24 Lecture #1  
Aug 26 Lecture #2 Chapter 1.1-1.6
2 Aug 31 Lecture #3 Chapter 2.1-2.2
Sep 02 Lecture #4 Chapter 2.3-2.4
3 Sep 07 Lecture #5 Chapter 2.5 HW #1 - Chapter 2: 2,3,5,6,8
Sep 09 Lecture #6 Chapter 2.6
4 Sep 14 Lecture #7 Chapter 3.1-3.3
Sep 16 Lecture #8 Chapter 3.4-3.6
5 Sep 21 Lecture #9 Chapter 3.7-3.8 HW #2
Sep 23 Lecture #10 Chapter 3.9-3.10
6 Sep 28 Lecture #11 Chapter 4.1-4.2  
Sep 30 Lecture #12 Chapter 4.3-4.4  
7 Oct 05 Lecture #13 Chapter 4.5; 5.1 HW #3 - Chapter 3: 1,3,4,6,8
Oct 07 Lecture #14 Chapter 5.2-5.3
8 Oct 12 Lecture #15 Chapter 5.4  
Oct 23 Lecture #16 Chapter 5.5-5.6  
9 Oct 19 Lecture #17 Chapter 6.1-6.2 HW #4: Chapter 4: 2,4,6,7,10
Oct 21 Lecture #18 Chapter 6.3-6.4  
10 Oct 26 Lecture #19 Chapter 6.5; 7.1  
Oct 28 Lecture #20 Chapter 7.2-7.3  
11 Nov 02 Lecture #21 Chapter 7.4 HW #5 - Chapter 5: 1,3,7,9,10
Nov 04 GSAS-II tutorial
12 Nov 09 Lecture #22 Chapter 8.1-8.3  
Nov 11 Lecture #23 Chapter 8.4  
13 Nov 16 Lecture #24 Chapter 8.5-8.7 HW #6 - Chapter 6: 1,6,7,8,9
Nov 18 Lecture #25 Chapter 9.1-9.3  
14 Nov 23 Lecture #26 Chapter 9.4-9.5  
Nov 25 Thanksgiving Break - no class
15 Nov 30   HW #7 - Chapter 7: 2,3,9,10,11
Dec 02    
16 Dec 07 Final Exam! GU Proposal Project Due
Session 1 - 10:00-12:00, 213 Stuart Building
10:00 Nicolette Muldrow - Data-driven approach for synchrotron x-ray
Laue microdiffraction scan analysis
10:40 Yuchen Zhang - Multi-wavelength anomalous diffraction de novo
phasing using a two-colour x-ray free-electron laser with wide
tunability
11:00 Alaina Thompson - Characterization of ion-induced radiation
effects in nuclear materials using synchrotron x-ray techniques
11:20 Jerry Sha - X-ray photonic microsystems for the manipulation of
synchrotron light
11:40 Jared Gaumer - Disorder dynamics in battery nanoparticles during
phase transitions revealed by operando single-particle diffraction
Session 2 - 13:00-15:00, 213 Stuart Building
13:00 Matthew Malaker - Observation of ultrafast solid-density plasma
dynamics using femtosecond x-ray pulses from a free-electron
laser
13:20 Megan Burrill - Characterization of ultrasonic bubble clouds in a
liquid metal by synchrotron x-ray high speed imaging and
statistical analysis
13:40 Michael Walter - Location-dependent cobalt deposition in smartphone
cells upon long-term fast-charging visualized by synchrotron
X-ray fluorescence
14:00 Kade Cheatham - Synchrotron X-ray fluorescence microscopy-
enabled elemental mapping illuminates the ‘battle for nutrients’
between plant and pathogen
14:20 Fazle Dayeen - Nature of Li2O2 Oxidation in a Li-O2 battery
revealed by operando x-ray diffraction
14:40 Xianhao Cheng -
Session 3 - 16:00-18:00, 213 Stuart Building
16:00 Persi Panariti - Real-time growth study of plasma assisted atomic
layer epitaxy of InN films by synchrotron x-ray methods
16:20 Melanie Melo - Development of sample preparation technique to
characterize chemical structure of humin by synchrotron-radiation
based X-ray photoelectron spectroscopy
16:40 Maithilee Shinde - Detecting half-metallic electronic structures
of spintronic material in a magnetic field
17:00 Mohammad Jamalkhani - In-situ X-ray scattering study of isotactic
polypropylene/graphene nanocomposites under shear during
fused deposition modeling 3D printing
Delayed Presentations
Dana Alramahi - Synchrotron-based photon activation therapy
effect on cisplatin pre-treated human glioma stem cells
16:40 Ryan Hebert -