This course introduces the principles and applications of agrochemistry and renewable resources. Topics include the role of chemicals in agriculture, plant nutrition, and the conversion of bio-based materials into useful products such as biofuels and biopolymers. Emphasizing sustainability and green chemistry, the course combines lectures, lab sessions and case studies to provide a solid foundation in the chemistry of agriculture and renewable resources. Students will gain the knowledge needed to support sustainable agricultural practices and the development of eco-friendly materials.​

         Learning objectives​

               – Learn the fundamental concepts of the different biomass components, and their properties and deepen knowledge about their green chemical conversion into drop-in chemicals and biofuels.

               – Explore the roles and impacts of chemical substances in agriculture, including fertilizers, pesticides, and soil conditioners.

     This course offers a comprehensive exploration of polymer science, emphasizing the critical links between molecular structures, polymerization mechanisms, and the resulting material properties. Students will gain a deep understanding of the synthesis, transformation, and characterization of polymers while addressing the pressing sustainability challenges associated with their use. This course covers traditional and emerging polymerization techniques, advanced physicochemical characterization tools, and the development of eco-friendly polymers, such as bio-based, biodegradable, and recyclable materials. Special emphasis is placed on strategies for optimizing polymer performance within a circular economy framework. Through case studies and real-world applications, students will explore how polymers contribute to fields like composites, coatings, and binders. Hands-on laboratory sessions reinforce theoretical knowledge by providing practical experience in synthesizing and characterizing sustainable polymer materials. ​

​          Learning objectives ​

               – Gain a thorough understanding of the basic principles of polymer science, including the types, structures, and properties of polymers.​

               – Develop hands-on experience in synthesizing and characterizing polymers through laboratory sessions, enhancing practical skills and real-world application knowledge, focusing on eco-friendly materials and renewable energy applications. ​

     This course provides an in-depth exploration of X-ray Photoelectron Spectroscopy (XPS) and Quartz Crystal Microbalance (QCM), two essential analytical techniques in surface science and material characterization. Students will learn how XPS reveals chemical composition, electronic structure, and oxidation states on a material’s topmost 1-10 nm through the photoelectric effect. By interpreting XPS spectra, they’ll develop critical skills in identifying and quantifying elements on sample surfaces. The course also covers QCM, a technique that detects subtle mass changes on quartz crystal surfaces by measuring frequency shifts induced by piezoelectric vibrations. With applications across thin film deposition, adsorption, and surface reactions, this course prepares students for roles in materials science, biology, and environmental monitoring.​

          Learning Objectives​

               – Explain the principles of XPS and QCM and describe their primary components and functions.​

               – Analyze and interpret data from XPS spectra and QCM frequency shifts to extract valuable insights into the chemical and structural properties of materials.

     This course provides an introduction to Life Cycle Assessment (LCA), a strategic tool for evaluating the environmental impacts of products and processes from cradle to grave. Topics include the principles and description of the LCA methodology, data collection and analysis, and interpreting results for sustainability decision-making. Students will engage in practical exercises and case studies to apply LCA in real-world scenarios, gaining skills to assess and improve the environmental performance of products and systems. By the end of the course, students will be equipped to understand the basic knowledge of LCA, by learning how to deal with the different methodology’s phases in order to contribute to sustainable development initiatives​

          Learning objectives​

               Get a deep knowledge of LCA and Circular Economy from the definition of relevant indicators, collection, modeling and processing of the related data until the decision making.

     This course provides a comprehensive exploration of agrochemistry and the chemistry of renewable resources. It delves into the fundamental principles of soil chemistry, plant nutrition, and pesticide science, examining the intricate relationship between chemical processes and agricultural practices. The course also explores the application of advanced technologies, such as nanotechnology and biotechnology, to develop sustainable solutions for agriculture. ​

The course combines lectures, lab sessions and case studies to provide a solid foundation in the chemistry of agriculture and renewable resources. Students will gain the knowledge needed to support sustainable agricultural practices and the development of eco-friendly materials​

          Learning objectives​

               – Gain a comprehensive understanding of agrochemical principles, sustainable materials, and green chemistry practices. ​

               – Develop critical thinking skills to analyze complex agricultural issues and propose innovative solutions. ​

               – Be equipped with practical knowledge to apply chemical principles to real-world agricultural problems.