Lecture: Thursdays, 13:00 till 14:00, SR 00-220 in Building No. 2121
Seminar: TBA
Scripts - Physical Chemistry of Polymers 2 (login with your JGU account)
Goal
This lecture aims at establishing a conceptual knowledge on the structure, dynamics, and function of multi-component polymer systems, along with adding a methodological knowledge on their experimental characterization.
Requirements
Successful participation in the basic lecture Physical Chemistry of Polymers 1
09.032.2080 Lecture: Introduction to Macromolecular Chemistry: Physical Chemistry of Polymers 2
Preface to the Winter Term 2022/23
Dear students:
This is one of several online presences for the hybrid lecture "Physical Chemistry of Polymers 2" at JGU Mainz. Another online presence can be found on our e-learning platform Moodle; it will automatically show up there under your content if you are registered for this class.
What does "hybrid lecture" mean? It means that the lecture takes place in equal parts in digital and in real space. In the digital part, you can acquire the basic knowledge all by yourself. For this purpose, short scripts, each covering one of a total of nine lesson units of this lecture (that would normally be featured in a classical 90-min lecture-hall format each), are available to you as working materials in the "Scripts" section of this website and (alternatively), on our university`s e-learning platform Moodle. In addition, nine accompanying digital lectures, in the format of both a video and an audio-podcast each, are available to you for streaming on this website and on Moodle. You can view/listen them at home, supported by the scripts, and thus consume the lecture contents conveniently from your private place. As further accompanying material, the textbook "Physical Chemistry of Polymers" (S. Seiffert, DeGruyter 2020) is recommended, which presents the content in even greater depth and detail. You can lend it from our MIN Bereichsbibliothek (that's the library underneath the chemistry lab-classrooms); they have a decent number of both paper copies and e-Book licenses.
With these materials, you will be able to work through the lecture material completely by yourself; and you should also be able to pass the exam. If you like, however, you are also cordially invited to attend a classroom session, which takes place as announced via JOGUStINe. In this classroom session, we will work together in a lively and interactive format to deepen and anchor the understanding of the lecture material. We will meet once a week and work through one by one of the lecture topic-units, respectively. Participation in this presence format is voluntary, and the exam can be well passed without. It is to be expected, though, that true understanding of the lecture content can profit a lot from participation in this presence part of the class.
Accompanying to the lecture, there is a seminar. We will discuss how, when, and where will will have it in our first lesson unit.
Your teacher,
Prof. Dr. Sebastian Seiffert
Audio- and Videostreams
1. Introduction to Rheology
Video: click here
Audio:
2. Viscoelasticity
Video: click here
Audio:
3. Practice and Theory of Rheology
Video: click here
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4. Superposition Principles
Video: click here
Audio:
5. Mechanical Spectra
Video: click here
Audio:
6. Rubber Elasticity
Video: click here
Audio:
7. Reptation
Video: click here
Audio:
8. Scattering Methods in Polymer Science
Video: click here
Audio:
9. Light Scattering on Polymers
Video: click here
Audio:
10. Schlusswort
Video: click here
Audio:
Topics and Contents
5. Rheology and Mechanics of Polymer Systems
Hooke’s Law, Newton’s Law, Viscoelasticity, Relaxation and Creep, Newtonian vs. Non-Newtonian Flow, Macro- and Microrheology, Mechanical Models, Boltzmann Superposition Principle, Time–Temperature Superposition, Energy vs. Entropy Elasticity, Rubber Elasticity, Reptation in Polymer Melts
6. Scattering Analysis of Polymer Systems
Basics of Scattering, Bragg Diffraction, Scattering Vector, Scattering Regimes, Structure and Form Factor, Rayleigh Ratio, Static Light Scattering, Dynamic Light Scattering, Zimm Plot, Autocorrelation Function
Dates and Lessons
Nov. 03, 2022 Introduction & Fundamentals of Rheology
Nov. 10, 2022 Viscoelasticity
Nov. 17, 2022 Practice and Theory of Rheology
Dec. 01, 2022 Superposition Principles
Dec. 08, 2022 Mechanical Spectra
Dec. 15, 2022 Rubber Elasticity
Jan. 12, 2023 Reptation
Jan. 19, 2023 Scattering Analysis of Polymers (Pt. 1)
Jan. 26, 2023 Scattering Analysis of Polymers (Pt. 2)
09.032.2082 Seminar to Polymer Chemistry II (PC Part)
This lecture, as well as its organic-chemistry counterpart, will be accompanied by a literature seminar. Students are required to present a paper in this seminar in the form of a talk. Dates and topics (=papers) will be discusssed and assigned at the start of this class.
Nov. 15, 2022
"Shear thickening in colloidal dispersions"
Norman J. Wagner and John F. Brady
Physics Today 2009, October Issue, 27–32.
"Is the Universal Law [=The Flory–Fox Viscosity Law] Valid for Branched Polymers?"
Albena Lederer, Walther Burchard, Anna Khalyavina, Peter Lindner, and Ralf Schweins
Angew. Chem. Int. Ed. 2013, 52, 4659–4663.
Nov. 22, 2022
"Microrheology"
M.L. Gardel, M.T. Valentine, and D.A. Weitz
in: Kenneth S. Breuer (Ed.), Microscale Diagnostic Techniques, Springer (2005).
"Fourier-Transform Rheology"
Manfred Wilhelm
Macromol. Mater. Eng. 2002, 287, 83–105.
Nov. 29, 2022
"Helix versus coil polypeptide macromers: gel networks with decoupled stiffness and permeability"
Abigail M. Oelker, Shannon M. Morey, Linda G. Griffith, and Paula T. Hammond
Soft Matter 2012, 8, 10887–10895.
"Colloidal Analogues of Charged and Uncharged Polymer Chains with Tunable Stiffness"
Hanumantha Rao Vutukuri, Ahmet Faik Demirçrs, Bo Peng, Peter D. J. van Oostrum, Arnout Imhof, and Alfons van Blaaderen
Angew. Chem. Int. Ed. 2012, 51, 11249–11253.
Dec. 06, 2022
"Overlap concentration of macromolecules in solution"
Q. Ying and B. Chu
Macromolecules 1987, 20, 362–366.
"Influence of Cross-Linking on Probe Dynamics in Semidilute Polystyrene Systems"
Markus Susoff and Wilhelm Oppermann
Macromolecules 2010,43, 9100–9107.
Dec. 13, 2022
"Small-Molecule Dynamics and Mechanisms Underlying the Macroscopic Mechanical Properties of Coordinatively Cross-Linked Polymer Networks"
Wayne C. Yount, David M. Loveless, and Stephen L. Craig
J. Am. Chem. Soc. 2005,127, 14488–14496.
"Negative Energy Elasticity in a Rubberlike Gel."
Yuki Yoshikawa, Naoyuki Sakumichi, Ung-il Chung, and Takamasa Sakai
Phys. Rev. X 2021, 11, 011045.
Dec. 20, 2022
"Phase Transitions of Gels"
Yong Li and Toyaoichi Tanaka
Annu. Rev. Mater. Sci. 1992, 22, 243–277.
"Self-Oscillating Polymer and Gels as Novel Biomimetic Materials"
Ryo Yoshida
Bull. Chem. Soc. Jpn. 2008, 81, 676–688.
Jan. 10, 2023
"Size-Dependent Depression of the Glass Transition Temperature in Polymer Films"
Joe L. Keddie, Richard A. L. Jones, and Rachel A. Cory,
Europhys Lett. 1994, 27, 59.
["Vitrimers"] "Silica-Like Malleable Materials from Permanent Organic Networks"
Damien Montarnal, Mathieu Capelot, François Tournilhac, and Ludwik Leibler
Science 2011, 334, 965–968.
Jan. 17, 2023
Method Review: Static and Dynamic Light Scattering
Method Review: Small-Angle X-Ray and Neutron Scattering
Jan. 24, 2023
Method Review: Fluorescence Correlation Spectroscopy
Method Review: Forced Rayleigh Scattering