The Master's graduate in Chemistry possesses in-depth knowledge of synthesis methodologies and characterization techniques of chemical substances, aimed at understanding structure-property relationships. In relation to specific objectives, the training can be supplemented with study stays at other universities or internships at public or private institutions. Students are offered a wide range of educational activities in various fields of basic or applied chemistry, both in established sectors (fine chemistry, biomolecular, supramolecular) and in emerging areas or those close to promising technological applications (molecular machines, materials for energy, electronics, sensors). Depending on the specific educational path, access to a Ph.D. in Chemical Sciences or doctorates in related disciplines will be possible.
Overview of the program
- ANALITYCAL CHEMISTRY III 6 CFU - 48 hours 1st semester
- LABORATORY OF ANALITICAL CHEMISTRY III 9 CFU - 96 hours 1st semester
- PHYSICAL CHEMISTRY III, LABORATORY COURSE 9 CFU - 96 hours 2nd semester
- LABORATORY OF INORGANIC CHEMISTRY III 9 CFU - 96 hours 2nd semester
- FOOD ANALYSIS AND SAFETY 6 CFU - 56 hours 2nd semester
- ANALITYCAL CHEMISTRY III 6 CFU - 48 hours 1st semester
- ELECTROANALYTICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- CHEMISTRY FOR THE FORENSIC SCIENCES 6 CFU - 48 hours 2nd semester
- EXPERIMENTAL DESIGN TECHNIQUES 6 CFU - 48 hours 2nd semester
- UNIVARIATE AND MULTIVARIATE DATA TREATMENT 6 CFU - 48 hours 1st semester
- ENERGY STORAGE AND CONVERSION 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY OF SOLID STATE DEVICES 6 CFU - 48 hours 1st semester
- METALS AND CERAMICS PHYSICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY III 6 CFU - 48 hours 2nd semester
- NANOCHEMISTRY AND NANOMATERIALS 6 CFU - 48 hours 1st semester
- NEW MATERIALS AND PROCESSES FOR PHOTOVOLTAICS 6 CFU - 48 hours 2nd semester
- SPECTROSCOPIES FOR THE SOLID STATE 6 CFU - 48 hours 1st semester
- SOLID STATE OF SUBSTANCES OF PHARMACEUTICAL INTEREST 6 CFU - 48 hours 2nd semester
- MATERIALS' CHARACTERIZATION TECNIQUES 6 CFU - 48 hours 2nd semester
- MODELING TECHNIQUES IN CHEMISTRY OF MATERIALS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF COORDINATION COMPOUNDS 6 CFU - 48 hours 1st semester
- METAL PROTEIN CHEMISTRY 6 CFU - 48 hours 1st semester
- INORGANIC CHEMISTRY III 6 CFU - 48 hours 2nd semester
- METAL CHEMISTRY 6 CFU - 48 hours 2nd semester
- SUPRAMOLECULAR CHEMISTRY 6 CFU - 48 hours 2nd semester
- INORGANIC MICROSPECTROSCOPY AND BIOIMAGING 6 CFU - 48 hours 2nd semester
- INORGANIC NANOCHEMISTRY 6 CFU - 48 hours 2nd semester
- ADVANCED STEREOSELECTIVE SYNTHESIS 6 CFU - 48 hours 2nd semester
- COMPUTER CHEMISTRY: FROM DRUG DESIGN TO THE SIMULATION OF BIOCHEMICAL SYSTEMS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF HETEROCYCLIC COMPOUNDS 6 CFU - 48 hours 2nd semester
- CHEMISTRY OF ORGANIC AND NATURAL SUBSTANCES 6 CFU - 48 hours 2nd semester
- CHEMISTRY AND TECHNOLOGIES OF POLYMERS 6 CFU - 48 hours 2nd semester
- ORGANIC CHEMISTRY III 6 CFU - 48 hours 1st semester
- SUPERIOR ORGANIC CHEMISTRY 6 CFU - 48 hours 1st semester
- GREEN CHEMISTRY 6 CFU - 48 hours 1st semester
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours 2nd semester
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours 1st semester
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours 1st semester
- FINAL EXAMINATION PREPARATION 24 CFU - 600 hours
- FINAL EXAM 15 CFU - 375 hours
- FURTHER LINGUISTIC KNOWLEDGE 3 CFU - 75 hours
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours
- ADVANCED BIOCATALYSIS 6 CFU - 48 hours
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours
- MATERIALS CHEMISTRY AND TECHNOLOGY 6 CFU - 48 hours
- PHARMACOLOGY 6 CFU - 48 hours
- PHYSICAL METHODS IN INORGANIC CHEMISTRY 6 CFU - 48 hours
- PHYSICAL METHODS FOR CHEMISTRY OF RENEWAL 6 CFU - 48 hours
- BIOCHEMICAL METHODS 6 CFU - 48 hours
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours
- SPECTROSCOPIC AND INTERPRETETIONAL TECHNOLOGIES 6 CFU - 48 hours
- NEW PERSPECTIVES IN ENERGY FOR A SUSTAINABLE GROWTH 1 CFU - 8 hours
- PHYSICAL CHEMISTRY III 6 CFU - 48 hours 2nd semester
- LABORATORY OF ANALITICAL CHEMISTRY III 9 CFU - 96 hours 1st semester
- PHYSICAL CHEMISTRY III, LABORATORY COURSE 9 CFU - 96 hours 2nd semester
- ENERGY STORAGE AND CONVERSION 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY OF SOLID STATE DEVICES 6 CFU - 48 hours 1st semester
- METALS AND CERAMICS PHYSICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY III 6 CFU - 48 hours 2nd semester
- NANOCHEMISTRY AND NANOMATERIALS 6 CFU - 48 hours 1st semester
- NEW MATERIALS AND PROCESSES FOR PHOTOVOLTAICS 6 CFU - 48 hours 2nd semester
- SPECTROSCOPIES FOR THE SOLID STATE 6 CFU - 48 hours 1st semester
- SOLID STATE OF SUBSTANCES OF PHARMACEUTICAL INTEREST 6 CFU - 48 hours 2nd semester
- MATERIALS' CHARACTERIZATION TECNIQUES 6 CFU - 48 hours 2nd semester
- MODELING TECHNIQUES IN CHEMISTRY OF MATERIALS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF COORDINATION COMPOUNDS 6 CFU - 48 hours 1st semester
- METAL PROTEIN CHEMISTRY 6 CFU - 48 hours 1st semester
- INORGANIC CHEMISTRY III 6 CFU - 48 hours 2nd semester
- METAL CHEMISTRY 6 CFU - 48 hours 2nd semester
- SUPRAMOLECULAR CHEMISTRY 6 CFU - 48 hours 2nd semester
- INORGANIC MICROSPECTROSCOPY AND BIOIMAGING 6 CFU - 48 hours 2nd semester
- INORGANIC NANOCHEMISTRY 6 CFU - 48 hours 2nd semester
- ADVANCED STEREOSELECTIVE SYNTHESIS 6 CFU - 48 hours 2nd semester
- COMPUTER CHEMISTRY: FROM DRUG DESIGN TO THE SIMULATION OF BIOCHEMICAL SYSTEMS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF HETEROCYCLIC COMPOUNDS 6 CFU - 48 hours 2nd semester
- CHEMISTRY OF ORGANIC AND NATURAL SUBSTANCES 6 CFU - 48 hours 2nd semester
- CHEMISTRY AND TECHNOLOGIES OF POLYMERS 6 CFU - 48 hours 2nd semester
- ORGANIC CHEMISTRY III 6 CFU - 48 hours 1st semester
- SUPERIOR ORGANIC CHEMISTRY 6 CFU - 48 hours 1st semester
- GREEN CHEMISTRY 6 CFU - 48 hours 1st semester
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours 2nd semester
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours 1st semester
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours 1st semester
- FINAL EXAMINATION PREPARATION 24 CFU - 600 hours
- FINAL EXAM 15 CFU - 375 hours
- FURTHER LINGUISTIC KNOWLEDGE 3 CFU - 75 hours
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours
- ADVANCED BIOCATALYSIS 6 CFU - 48 hours
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours
- MATERIALS CHEMISTRY AND TECHNOLOGY 6 CFU - 48 hours
- PHARMACOLOGY 6 CFU - 48 hours
- PHYSICAL METHODS IN INORGANIC CHEMISTRY 6 CFU - 48 hours
- PHYSICAL METHODS FOR CHEMISTRY OF RENEWAL 6 CFU - 48 hours
- BIOCHEMICAL METHODS 6 CFU - 48 hours
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours
- SPECTROSCOPIC AND INTERPRETETIONAL TECHNOLOGIES 6 CFU - 48 hours
- NEW PERSPECTIVES IN ENERGY FOR A SUSTAINABLE GROWTH 1 CFU - 8 hours
- ORGANIC CHEMISTRY III 6 CFU - 48 hours 1st semester
- LABORATORY OF ORGANIC CHEMISTRY III 9 CFU - 96 hours 1st semester
- PHYSICAL CHEMISTRY III, LABORATORY COURSE 9 CFU - 96 hours 2nd semester
- LABORATORY OF INORGANIC CHEMISTRY III 9 CFU - 96 hours 2nd semester
- ADVANCED STEREOSELECTIVE SYNTHESIS 6 CFU - 48 hours 2nd semester
- COMPUTER CHEMISTRY: FROM DRUG DESIGN TO THE SIMULATION OF BIOCHEMICAL SYSTEMS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF HETEROCYCLIC COMPOUNDS 6 CFU - 48 hours 2nd semester
- CHEMISTRY OF ORGANIC AND NATURAL SUBSTANCES 6 CFU - 48 hours 2nd semester
- CHEMISTRY AND TECHNOLOGIES OF POLYMERS 6 CFU - 48 hours 2nd semester
- ORGANIC CHEMISTRY III 6 CFU - 48 hours 1st semester
- SUPERIOR ORGANIC CHEMISTRY 6 CFU - 48 hours 1st semester
- GREEN CHEMISTRY 6 CFU - 48 hours 1st semester
- FOOD ANALYSIS AND SAFETY 6 CFU - 56 hours 2nd semester
- ANALITYCAL CHEMISTRY III 6 CFU - 48 hours 1st semester
- ELECTROANALYTICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- CHEMISTRY FOR THE FORENSIC SCIENCES 6 CFU - 48 hours 2nd semester
- EXPERIMENTAL DESIGN TECHNIQUES 6 CFU - 48 hours 2nd semester
- UNIVARIATE AND MULTIVARIATE DATA TREATMENT 6 CFU - 48 hours 1st semester
- ENERGY STORAGE AND CONVERSION 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY OF SOLID STATE DEVICES 6 CFU - 48 hours 1st semester
- METALS AND CERAMICS PHYSICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY III 6 CFU - 48 hours 2nd semester
- NANOCHEMISTRY AND NANOMATERIALS 6 CFU - 48 hours 1st semester
- NEW MATERIALS AND PROCESSES FOR PHOTOVOLTAICS 6 CFU - 48 hours 2nd semester
- SPECTROSCOPIES FOR THE SOLID STATE 6 CFU - 48 hours 1st semester
- SOLID STATE OF SUBSTANCES OF PHARMACEUTICAL INTEREST 6 CFU - 48 hours 2nd semester
- MATERIALS' CHARACTERIZATION TECNIQUES 6 CFU - 48 hours 2nd semester
- MODELING TECHNIQUES IN CHEMISTRY OF MATERIALS 6 CFU - 48 hours 1st semester
- CHEMISTRY OF COORDINATION COMPOUNDS 6 CFU - 48 hours 1st semester
- METAL PROTEIN CHEMISTRY 6 CFU - 48 hours 1st semester
- INORGANIC CHEMISTRY III 6 CFU - 48 hours 2nd semester
- METAL CHEMISTRY 6 CFU - 48 hours 2nd semester
- SUPRAMOLECULAR CHEMISTRY 6 CFU - 48 hours 2nd semester
- INORGANIC MICROSPECTROSCOPY AND BIOIMAGING 6 CFU - 48 hours 2nd semester
- INORGANIC NANOCHEMISTRY 6 CFU - 48 hours 2nd semester
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours 2nd semester
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours 1st semester
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours 1st semester
- FINAL EXAMINATION PREPARATION 24 CFU - 600 hours
- FINAL EXAM 15 CFU - 375 hours
- FURTHER LINGUISTIC KNOWLEDGE 3 CFU - 75 hours
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours
- ADVANCED BIOCATALYSIS 6 CFU - 48 hours
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours
- MATERIALS CHEMISTRY AND TECHNOLOGY 6 CFU - 48 hours
- PHARMACOLOGY 6 CFU - 48 hours
- PHYSICAL METHODS IN INORGANIC CHEMISTRY 6 CFU - 48 hours
- PHYSICAL METHODS FOR CHEMISTRY OF RENEWAL 6 CFU - 48 hours
- BIOCHEMICAL METHODS 6 CFU - 48 hours
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours
- SPECTROSCOPIC AND INTERPRETETIONAL TECHNOLOGIES 6 CFU - 48 hours
- NEW PERSPECTIVES IN ENERGY FOR A SUSTAINABLE GROWTH 1 CFU - 8 hours
- INORGANIC CHEMISTRY III 6 CFU - 48 hours 2nd semester
- LABORATORY OF INORGANIC CHEMISTRY III 9 CFU - 96 hours 2nd semester
- LABORATORY OF ORGANIC CHEMISTRY III 9 CFU - 96 hours 1st semester
- CHEMISTRY OF COORDINATION COMPOUNDS 6 CFU - 48 hours 1st semester
- METAL PROTEIN CHEMISTRY 6 CFU - 48 hours 1st semester
- INORGANIC CHEMISTRY III 6 CFU - 48 hours 2nd semester
- METAL CHEMISTRY 6 CFU - 48 hours 2nd semester
- SUPRAMOLECULAR CHEMISTRY 6 CFU - 48 hours 2nd semester
- INORGANIC MICROSPECTROSCOPY AND BIOIMAGING 6 CFU - 48 hours 2nd semester
- INORGANIC NANOCHEMISTRY 6 CFU - 48 hours 2nd semester
- ENERGY STORAGE AND CONVERSION 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY OF SOLID STATE DEVICES 6 CFU - 48 hours 1st semester
- METALS AND CERAMICS PHYSICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- PHYSICAL CHEMISTRY III 6 CFU - 48 hours 2nd semester
- NANOCHEMISTRY AND NANOMATERIALS 6 CFU - 48 hours 1st semester
- NEW MATERIALS AND PROCESSES FOR PHOTOVOLTAICS 6 CFU - 48 hours 2nd semester
- SPECTROSCOPIES FOR THE SOLID STATE 6 CFU - 48 hours 1st semester
- SOLID STATE OF SUBSTANCES OF PHARMACEUTICAL INTEREST 6 CFU - 48 hours 2nd semester
- MATERIALS' CHARACTERIZATION TECNIQUES 6 CFU - 48 hours 2nd semester
- MODELING TECHNIQUES IN CHEMISTRY OF MATERIALS 6 CFU - 48 hours 1st semester
- FOOD ANALYSIS AND SAFETY 6 CFU - 56 hours 2nd semester
- ANALITYCAL CHEMISTRY III 6 CFU - 48 hours 1st semester
- ELECTROANALYTICAL CHEMISTRY 6 CFU - 48 hours 1st semester
- CHEMISTRY FOR THE FORENSIC SCIENCES 6 CFU - 48 hours 2nd semester
- EXPERIMENTAL DESIGN TECHNIQUES 6 CFU - 48 hours 2nd semester
- UNIVARIATE AND MULTIVARIATE DATA TREATMENT 6 CFU - 48 hours 1st semester
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours 2nd semester
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours 1st semester
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours 1st semester
- FINAL EXAMINATION PREPARATION 24 CFU - 600 hours
- FINAL EXAM 15 CFU - 375 hours
- FURTHER LINGUISTIC KNOWLEDGE 3 CFU - 75 hours
- ADVANCED TOPICS IN CARBON-BASED MATERIALS 6 CFU - 48 hours
- ADVANCED BIOCATALYSIS 6 CFU - 48 hours
- CIRCULAR CHEMISTRY AND ECODESIGN WITH LABORATORY 6 CFU - 56 hours
- MATERIALS CHEMISTRY AND TECHNOLOGY 6 CFU - 48 hours
- PHARMACOLOGY 6 CFU - 48 hours
- PHYSICAL METHODS IN INORGANIC CHEMISTRY 6 CFU - 48 hours
- PHYSICAL METHODS FOR CHEMISTRY OF RENEWAL 6 CFU - 48 hours
- BIOCHEMICAL METHODS 6 CFU - 48 hours
- SOLID PHASE SYNTHESIS OF MACRO AND BIOMOLECULES 6 CFU - 48 hours
- SPECTROSCOPIC AND INTERPRETETIONAL TECHNOLOGIES 6 CFU - 48 hours
- NEW PERSPECTIVES IN ENERGY FOR A SUSTAINABLE GROWTH 1 CFU - 8 hours
Educational goals
Graduates of the Master’s programme must have in-depth knowledge and background in the various areas of chemistry and a high-level of scientific and practical preparation in the various fields of basic and/or applied chemistry which the student chooses; these fields range from the traditional and still cutting edge sectors, such as fine, biomolecular, supramolecular chemistry, to the emerging or close-to-full-development sectors in terms of industrial applications, such as molecular equipment and devices, new materials (for the energy, electronic, optical and sensor areas), etc. that favor the acquisition of vast knowledge of chemical methodology and advanced, unconventional techniques and chemiometric, commodities and regulatory area knowledge. Through a curriculum that provides a balance between theory and experimentation and is flexible regarding the students’ educational needs, the graduate will achieve the following objectives:- mastery of the scientific research method;- good knowledge of supporting mathematical and computer tools;- the ability to fluently use written and spoken English, with reference in particular to the specific disciplinary lexis;- the ability to work independently and to quickly enter the working world in a scientific and organizational capacity.Master’s graduates in chemistry will be qualified to work in promoting and developing scientific and technological innovation and in managing and designing technologies, and to work as qualified professionals in chemistry-related areas. Based on the student’s particular curriculum, there is the possibility for further studies in chemistry at the research doctorate level and in related areas such as biochemistry, biotechnology, pharmacy, materials, etc. To this end the Master’s in Chemistry entails:1) reinforcing and further in-depth treatment of the theoretical foundation in chemistry undertaken in the three-year degree; the acquisition of techniques useful for understanding molecular phenomena; gaining specialist competencies in specific chemistry sectors;2) a high degree of competency in carrying out experiments from the lab courses in the programme and, above all, a high number of credits from the final evaluation, which consists of a thesis based on an experiment, during which the student will acquire the capacity for independent work;3) the programme is structured so as to prepare the student in a number of topic areas and at the same time bring him into contact with the cutting edge topics in chemical research in line with the objectives for this class of degree.Though representing the natural continuation of a three-year degree of the L27 class, the Master’s in chemistry can also be effectively undertaken by graduates from related areas who intend to continue their studies in chemistry.The curriculum will provide advanced studies in a wide range of chemical sectors, allowing the student to improve his capacity and aspirations. Nevertheless, the chance to tailor each student’s curriculum to meet his interests will entail well-established areas in chemistry, as can be seen in the general regulatory framework. The teaching method will be mainly conventional, with lessons in theory and supplementary lessons, along with an appropriate number of chemical lab activities using the most modern scientific instruments. Student evaluation will involve the traditional written and/or oral exams. Given the advanced nature of the courses and the students preparation (in comparison to the three-year degree programme), seminars may be adopted to assess the students' level of learning, a method which is particularly suited to stimulating the their capacity for synthesis and independent work.
Career opportunities
One of the most important objectives of the Master’s programme is to provide the student with the additional preparation necessary to work in fields of applied chemistry as well as in various areas of pure and applied chemical research, in particular: public or private research laboratories dealing with basic and applied chemistry; scale-up and development laboratories with firms in the chemical, pharmaceutical, cosmetics, veterinary, agro-alimentary and materials sectors; production facilities at the same firms; public and private laboratories undertaking chemical, environmental and certification analyses; “customer satisfaction” regarding chemical instruments; “high throughput analysis” in labs undertaking, for example, research in combinatorial chemistry research; free-lance and consulting activities.The Master’s degree completes the preparation begun in the three-year programme in terms of the possibility of entering a profession oriented toward scientific and technological research at universities and public or private research institutes, with the possibility as well to enter the teaching field.
Admission requirements
To be admitted to the master's degree program, students must hold a bachelor's degree (including those obtained under the regulations preceding the D.M. 509/1999 and subsequent amendments and integrations) or a three-year university diploma, or another foreign qualification recognized as suitable by the competent authorities of the University. Additionally, admission requires meeting curricular requirements and having adequate initial preparation. The curricular requirements consist of the bachelor's degree obtained in specific classes as indicated in the Didactic Regulations of the master's degree program, as well as the competencies and knowledge acquired by the student in their previous educational path, expressed as a number of credits related to specific scientific-disciplinary areas outlined in the same Didactic Regulations. The latter also defines the procedures for verifying the adequacy of the student's initial preparation.