 Physical Properties of Polymers  (Polymer Physics: Statics and
      Dynamics)
 
      Physical Properties of Polymers  (Polymer Physics: Statics and
      Dynamics)  
Gregory Beaucage
              Monday, Wednesday, Friday 10:10-11:05
              661 Baldwin
Zoom link  Meeting ID: 872 3367 9564    Passcode: 1
          OFFICE HOURS 11:15-2 pm Wednesday, & Friday 492 Rhodes or by arrangment
 
 20-MTEN-6034, -5034, 20-CHE-6034, -5034 
Office:
          492 Rhodes Hall
          556-3063
 beaucag@uc.edu
Polymer
            Science Graduate Curriculum at UC
      (Former
          Undergraduate Materials Curriculum) 
Polymer Physical Properties gives students a basic level of knowledge of the terminology and mathematics involved in the physical understanding of polymers. Most of the topics deal with post-1970 concepts involving the static's of polymeric materials. The course is intended for graduate students who need to gain a cursory understanding of modern approaches to polymer physics. The course will use Strobl's text The Physics of Polymer (2007) chapters 1 to 4, 8, 9 and the appendix. Introductory courses in polymers and thermodynamics are necessary for the course. The course requires a basic understanding of calculus and statistical mathematics such as should be covered in a "traditional" undergraduate science or engineering degree.
This course is designed as a required graduate course but
      undergraduates and graduate students outside of Chemical and Materials
      Engineering often take this class. For undergraduates a letter grade boost
      is given (and A is an 80 or higher for undergraduates) and for non-majors
      who take this course as an elective some informal grading concessions are
      usually made on a case-by-case basis.
 
Slides for Class: 
 Gaussian Chain Slides 1.ppt, .pdf; Long-Range
        Interactions Slides 2.ppt, .pdf, Hydrodynamic
        Radius Rg/Rh.ppt, .pdf, Kabir Rh, Perturbations to the
        Chain Slides 3.ppt, .pdf, Polymer
        Dynamics.ppt, .pdf;
      Rouse Model .ppt, .pdf, CR
        Ch. 8a; NewRouse.ppt; NewRouse.pdf;  Rouse 1953 paper; Debye Heat Capacity 1912 U. Zurich slide 38.pptx;page 38.pdf; Debye 1946; Machine Learning.ppt; Machine Learning.pdf; Nanocomposites.ppt; Nanocomposites.pdf; BeaucageACS2022S.ppt; ACS 2022.pdf;  Sukumaran 230403 ; Membranes.ppt; Membranes.pdf
 ( Review ,  Ion Exchange Membranes ,  Supported Liquid Membranes , Resistance Model for Membranes paper,  1983 Science Henis Tripodi ),  Ben Yavitt XPCS Talk, Sanat Kumar Nanoplastics Pollution, pdf of Kumar, 2025 Nature paper Nanoplastics, 2025 Soft Matter Paper on Tire microplastics, 2025 membranes Sanat, Materials Modeling/Simulations.pdf, pptx
Class recordings:
2025 Class Recordings
W250115, F250117, F250122 Audio didn't record, sorry, F250124, M250127, W250129, F250131, M250203, W250205, F250207, M250210, W250212, F250214, M250217, W250219, F250221, M250224, W250226, F250228, M250303, W250305, F250307, M250310, W250312, F250314, F250324, F250326 Missing , F250328, 250331, 250402, 250404, AI Summary 250404, 250407, 250409, 250411 Sanat Kumar, 250411 P&G Soft Matter Symposium, 250414, 250416, 250418, 250421, 250423, 250425
Homework 1, Wang Threaded Ring/Linear Blends, Wang Supplementary, Figure 6d, Figure 6d digitized and fitArrigi, Higgins 2020 Cyclics Study, Circular RNA Review Article April 2024 Nature, Wiki for Hagita's Gaussian Linking Integral, More details than you want on Gaussian Linking Number, molecular machine based on threaded ring polymer
Homework 2, Wang Winey PNC Diffusion, Schweizer A, Schweizer B
Homework 3, Colby, Gomez 2022, Evearers Plot 2008 Reference 12, Reference 29 Pedersen Flexible Cylinder Model, Liquid Crystal, LCPs, Kent State, deGennes soft matter speach, question e plot, PNDI 2OD N2, PmmpP1076k, Question c ChatGPT answer
Homework 4, Kwok Macro 2022, Figure 2B, Figure 2B Dititized,Kwok Macro Supplemental, Park Nature 2022, Strain Alignment Review 2024, Wang MD LAMMPS 2024, Dadmun 2017, Cao 2024, Conjugated polymers 2022, Stanley 2013 SANS Study, Circularly Polarized Light
Homework 5, Li 2025, Li Supplemental,FiberApp Software Paper, Derivation of OSF Page 1072 Dobrynin, Rubinstein 2006, Chinese Chapter on Polyelectrolytes, 2025 Review SoftMatter, Sheffield Thesis on Polyelectrolytes,Wiki Algenic Acid,Egg Box Structure of Ca+2 an alginate (3500 citations),Wiki Monosacharides, Wiki Zeta Potential, Wiki laser doppler velosimetry, wiki electrophoresis, APTES surface treatment for mica, Wang MW determination 2023, Comments
Homework 6, Xu Paper, Xu Supplemental, Fopple von Karman number, Jiang 2020 Overview, Li 2020 graphene oxide, 2021 DPD Review
Homework 7, Chaboche, Ha, Kang, Random Closest Packed, Grosberg P. 167 (add f to end)
Homework 8, Takahashi, Takahashi Suplemental, Living Free Radical Polymerization Wiki, Chain Transfer Agents CTA, 2-Cyano-2-propyl benzodithioate, Ayres RAFT Polymerization 2023, Reference 29, Berry Plot Reference, Roe P. 170 moments for Rg
Homework 9, Waszkiewicz, Waszkiewicz Suplemental, Protein Data Bank, UniProtKB, 2W0O Horse spleen apoferritin
Homework 10, Kamani, Kamani Suplemental, Ref. 72, Kamani KDR Model Paper, Tsapatsaris, Mean Free Path of a Gas Atom, Ernst, 2D NMR and correlation spectroscopy, Aerosil 972 micrograph
Homework 11, Shah, Shah Supplemental, Dereka 2022, Niebuur, Dynamics Slides 53-73, Thermo Slides 33-77, QENS on transport membranes Nature, Supplemental Nature Membranes, PEDOT/PSS, Avrami Equation, crown ether, Gromacs
Homework 12, Cai 2025, Ref 50 Rubenstein, Ref 51 Cai 2022, Kang 2024, Aggrecan, Horkay 2023
Homework 14
Question 1
Sanat Kumar 2025, Ref 10 Sanders, Ref 25 Jhalaria, Ref 32 Midya, Resistance Model, Stick Slip Transport Model,  Review Polymer Membranes, 1983 Gas Separation Membranes, Membrane Technology, Nanoparticle Membrane Technology
Question 2
Degaki, Degaki Suplemental, Reference 22 Weitz, Reference 24, Reference 6 of Reference 24, Macromolecules same authors 2025, wiki Laplace transform
Only whole grades will be given: A = 90.0 to 100; B = 80.0 to 89.9; C = 70.0 to 79.9; D = 60.0 to 69.9 , undergraduates will be give a 10 point boost
Final Exam:  Senior undergraduates are exempt from finals in thier last semester. The final is an individual take home composed of two homework problem sets of five questions each. It is valued at 5 homeworks.
Book by Teraoka
        Brooklyn Polytechnic
        Debye Controversy
      Book by Strobl
      (available at UC only)
 Strobl
 Rubinstein
        and Colby
 Doi 
 Hiemenz
        1984
 Hiemenz
        1997
 Hiemenz
        Colloids 2007 
 Giant
        Molecules Grosberg 
 Tanaka
        Polymer Physics and Gels
 Polyethylene
 Polypropylene
  Vanderbilt
        Rubber Handbook
 Degennes 
        ">Polymers in Solution RH pp. 415 
      Comprehensive Polymer Science V1; V2; V3; V4; V5; V6;
      V7; V8; V9; V10 
 Einstein 1905 Brownian Motion
 Soft
        and Fragile Matter, Cates and Evans
 Flory
        I; Flory
        Biography until Cornell
 Bower
        Polymer Crystals and Engineering Aspects Leeds 2001
 Stein
        and Powers
 Gedde 
 
        Polymer Colloids (Pickering Emulsions) 2020
 Related Book pdf
 Polymer
        Solutions Textbook 2002 BPI
 Hill
        Statistical Thermodynamics 1960
 Guggenheim
        Mixtures
 Theory
        of Simple Liquids with Applications to Soft Matter Hansen & McDonald
        2013
 Theory
        of Simple Liquids 2006 
 Friedricksen
        Simulation Text book
 Landau
        and Binder Monte Carlo Methods
 Particle
        Methods for Multiscale Physics
 Simulation
        Methods for Polymers
 Frenkel
        and Smit Materials Simulations
 Computational
        Methods in Physics (Extensive Webpage)
 Block
        Copolymers Hamley
 Atkins
        Physical Chemistry
 Dimarzio
        Book Chapter on Biopolymers 
 The
        Structure and Rheology of Complex Fluids, R. Larson
 Viscoelastic
        Properties of Polymers, J. D. Ferry
 Mechanical
        Properties of Solid Polymers, I. M. Ward
 Dynamics
        of Polymer Liquids (Vol. 1) Bird, Armstrong, Hassager
 Dynamics
        of Polymer Liquids (Vol. 2) Bird, Armstrong, Hassager
 The
        Physics of Rubber Elasticity, Treloar
 Mesoscopic
        Theory of Polymer Dynamics, Pokrovskii
 Lipatov
        Physical Chemistry of Polymers
 Lipatov
        Polymer/Fillers
 Dynamic
        Light Scattering
 Colloidal
        Rheology
 Carbon
        Black
 Brinker
        and Scherrer Sol gel science
 Smoke
        Dust and Haze Friedlander 
 Membranes
        and Surfaces
 Polymer
        Processing
 Macosko Rheology
 Paul
        Russo Lab
 Jamieson
        and Simha
 Fried
 Tadmor Gogos
 Winter and Chambon
Mewis and Wagner
Percolation Theory Intro
 Polymer Microscopy
      Membrane Technology 
      Bee Quasielastic Neutron Scattering 
      Polymer Processing Collais Baird
    Dealy, Read, Larson