Fundamentals of Polymer Chemistry and Laboratory
Module Module 2

Academic Year 2023/2024 - Teacher: ANGELO NICOSIA

Expected Learning Outcomes

This course aims to describe the development and practical aspects of polymer syntheses. Chain and step-growth polymerizations will be approached, in both homogeneous and heterogeneous phases. 

Details of the expected learning outcomes:

-Knowledge and understanding: knowledge of the main chemical and phenomenological aspects related to the synthesis of polymers and  the structure-property correlations;

-Ability to apply knowledge and understanding: being able to develop chemical synthesis processes in relation to the type of polymers to be obtained and their application. Acquiring the knowledge useful for the application of different instrumental/analytical techniques to investigate the polymer properties;

-Making judgements: allow the objective evaluation of the chemical-physical properties of the polymers correlated to the methods of preparation and to their fields of application;

-Communication skills: develop and/or improve the ability to expose even complex scientific concepts by implementing the technical terminologies suitable for polymeric materials;

Learning skills: Apply techniques and theoretical models for solving problems of macromolecular chemistry.

Course Structure

Experimental activities in the laboratory (6 CFU). Before the laboratory experiences,  brief theoretical introductions are carried out in preparation for the subsequent experiences. 

These theoretical introductions allow to verify the preparation of the students and to inspect more deeply specific topics, preparatory to the laboratory activities, so as to better finalize the learning and improve the students' awareness in carrying out the laboratory experiences. 


Required Prerequisites

Knowledge of Organic, Inorganic and Analytical Chemistry.

Attendance of Lessons

Attendance is mandatory.

Detailed Course Content

Purification and stabilization of solvents, monomers and catalysts commonly used in polymer syntheses. 

Radical and ionic chain polymerization, through monophase and multiphase processes.

Step-growth polymerization, through bulk and solution approaches. Syntheses of block and statistical copolymers. Approach to ionic cross-linking of polymers. 

Characterization of the obtained polymers: solubility, viscosity, molecular mass distribution, thermal and spectroscopic properties.

Textbook Information

Lecture notes.

Course Planning

 SubjectsText References
1Evolution of the concept of Macromolecule
2Nomenclature and Constitutional Analysis of Polymers
3Structure-poperty correlation of the major types of Polymers
4Analysis of configuration: vinyl polymers, diene polymers, microtacticity and NMR analysis
5Chain-growth polymerizations: radical, anionic, cationic, coordination polymerization, with Ziegler-Natta catalysts, metal oxides and metallocenes.
6Ring Opening polymerizations
7Step-growth polymerizations: linear and multifunctional 
8Copolymerization
9Processes for polymer production and examples of industrial productions: bulk, solution and mixed phases polymerizations (emulsion, suspension, interfacial, dispersion) 
10Approahces to the most common polymer materials: polyolefins, polyvinyl, polydienes, polyesters, polyamides, polyethers, polyurethanes, polyimides, resins. 

Learning Assessment

Learning Assessment Procedures

Evaluation of the laboratory reports and oral exam. The lab reports must be provided within the maximum term of two weeks before the exam. 

Examples of frequently asked questions and / or exercises

-At the beginning, will be asked for comments related to any mistake evidenced in the laboratory reports.

-The candidate should describe the preliminary operations, the instruments, and the procedures needed to perform the required polymer synthesis.

-The candidate should describe the theoretical approach and the maths operations used in the calculation of the mean molecular masses using the experimental data obtained from GPC analysis. 

-The candidate should describe the viscosimetric approach to the calculation of the mean molecular mass of polymers.