The master's degree programme sets out to produce the professional figure of Industrial Chemist with the theoretical and practical expertise required to work in multi-disciplinary work areas engaged in:- research,- development,- production,- quality and safety control,- application and commercialisation of materials or products for industry, agriculture, services or the consumer market.The master's graduates will be able to tackle problems dealing with the definition, design, development and industrial implementation of:- chemical, microbiological or enzymatic processes,- energy-production…
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The master's degree programme sets out to produce the professional figure of Industrial Chemist with the theoretical and practical expertise required to work in multi-disciplinary work areas engaged in:- research,- development,- production,- quality and safety control,- application and commercialisation of materials or products for industry, agriculture, services or the consumer market.The master's graduates will be able to tackle problems dealing with the definition, design, development and industrial implementation of:- chemical, microbiological or enzymatic processes,- energy-production processes harnessing chemical transformations with special attention to issues of environmental compatibility, safety, energy and raw material savings. The specialist curriculum will ensure that graduates have in-depth knowledge of a homogeneous range of subjects consistent with the degree programme goals. In particular, they will be offered theoretical and experimental courses on:Learning area: Basic chemistry - methodologies for the preparation of organic, metallo-organic and inorganic, polyfunctional products or materials; use of innovative reagents and versatile intermediates for the industrial and laboratory production of even enantiomerically pure compounds; methodologies for the preparation and chemical-physical and reactivity characterisation of homogeneous and heterogeneous catalytic systems and enzymatic catalysts; criteria for the choice of optimal catalysts; - methodologies to determine the structure and properties of natural and synthetic products, both organic, inorganic and organometallic. Learning area: Chemical Investigation Methodologies - principles governing the structure-activity or structure-property relationships of products and materials; their chemical, physical, spectroscopic and mechanical characterisation, including their behaviour in service as a function of the conditions of use; - methodologies for molecular modelling, computer simulation, design and creation of new products or materials, including liquid crystals, molecular crystals, polymers, biologically active products and biocompatible materials; - spectroscopic methodologies for the analysis of molecular species in the gas phase, also in connection with atmospheric issues; - application of the main techniques for the qualitative-quantitative determination of natural and synthetic products, also in complex matrices within the framework of the requirements of the scientific and production world and of national and international Good Manufacturing Practice and Laboratory regulations. Learning area: Industrial/Plant - chemistry and technology of the main classes of products, including those with biological activity, or materials, including innovative functional materials, polymeric materials and nanomaterials; techniques for their design, preparation and characterisation; criteria for the selection and use of materials or products for industry, agriculture, service and consumer use; - aspects relating to the transfer of chemical and biochemical processes from the laboratory testing stage through to commercialisation, including scale-up methods, reconfiguration of industrial processes, safety issues, environmental impact assessments, production quality control, economic aspects and assessment of the profitability of processes; - thermodynamic and transport properties of fluids, transport phenomena (heat and matter exchangebetween phases, elements of fluid mechanics); thermodynamic, kinetic and catalytic aspects related to the development of chemical processes and their conduction and optimisation; To achieve the goals mentioned above, it is deemed essential for students to spend a prolonged and uninterrupted period of experimental and practical training in the Department laboratories or in those of selected industries and institutes subject to a mutual agreement.
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