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General Info

SUBJECTSEMESTERCFUSSDLANGUAGE
118929 - COMPUTER TECHNOLOGY

EMANUELE SANTINAMI

First Semester 6INF/01ita

Learning objectives

The use of computers is fundamental in science. Programming, data analysis, and modeling are central aspects of natural and environmental science professionals' work. Students will acquire the necessary skills, abilities, and tools to use the computer to facilitate research efficiently. First, the course will introduce the essential elements of information technology and collaborative tools. After that, programming techniques will be taught to solve problems related to the mathematics component of the course of study.

Objectives

The lecture objectives are to learn basic notions of computer science and collaborative work through telematics platforms and programming to resolve problems related to the topics of the academic degree.

Knowledge and understanding

Upon completing the course, the student will be able to use a computer to solve scientific problems. Notably, he will know how to digitalize his work and will have the ability to organize himself in work groups through telematics platforms. The course's central theme will be the ability to rationalize a problem by formulating an algorithm and its resolution through the design and execution of programs.

Applied knowledge and understanding

At the end of the training, the student must be able to:


• Using Agile Management techniques
• Knowing how to understand and implement an algorithm.
• Graphing an algorithm through a flowchart.
• Formalize and solve an algorithm through programming in R Statistics.
• Plotting analysis through R Statistics.
• Simulating through ordinary differential equations how a phenomenon evolves over time.




Making judgments

At the end of the course, the student will be able to judge which information technology IT tools can best solve specific problems in different scientific contexts.

Communication skills

The student will acquire appropriate vocabulary in the different aspects of computer science and will be able to communicate and teach the acquired knowledge, even to non-competent people.

Learning skills

The student will have acquired tools to autonomously organize good work groups and develop IT strategies for solving problems.

Teacher's Profile

courseProgram

Introduction, computer architecture, numbers in binary and hexadecimal basis.
Python: Editor and console, numeric variables, strings, logical operators, if/else, users' input, lists, for loop, while loop, libraries, array, random number generation, graphic plots, functions, files I/O, Machine Learning fundamentals.
R programming, Linux terminal and HPC programming fundamentals.

examMode

The written exam consists of writing a Python program on paper within two hours.
It is followed by a brief interview to assess the skills and discuss the exam.

books

Lessons slides. Additional material provided at lesson. All the material is being uploaded on Drive and Google Classroom.
Contact the teacher via mail at emanuele.santinami@unitus.it to be added, and specify your institutional mail address.

classRoomMode

In presence lessons and practice exercises. It's possible to complete two midterm tests that count as an exam. There is no compulsory attendance, but class attendance is recommended.

bibliography

Lessons slides. Additional material provided at lesson.

119055 - HYDROLOGY AND GEOMATICS - 12- -

Learning objectives

The course aims to provide the tools and methodologies for analysing the territory at the planning scale. the main training objectives are:
- Knowledge and comprehension skills: during the course, the student will acquire comprehension and problem-solving skills through analysis methodologies that simulate real contexts;
- Applied knowledge and comprehension skills will be developed by the student through teaching integrated with laboratory activities in classrooms equipped with dedicated GIS software;
- Autonomy of judgement in the "problem solving" phase in the risk contexts addressed during the course;
- Communication skills through the drafting of reports and projects to be presented during the examination;
- Ability to learn.

MODULE B - GEOMATICA

FABIO RECANATESI

Second Semester6AGR/10ita

Learning objectives

The course aims to provide the tools and methodologies for analysing the territory at the planning scale. the main training objectives are:
- Knowledge and comprehension skills: during the course, the student will acquire comprehension and problem-solving skills through analysis methodologies that simulate real contexts;
- Applied knowledge and comprehension skills will be developed by the student through teaching integrated with laboratory activities in classrooms equipped with dedicated GIS software;
- Autonomy of judgement in the "problem solving" phase in the risk contexts addressed during the course;
- Communication skills through the drafting of reports and projects to be presented during the examination;
- Ability to learn.

Teacher's Profile

courseProgram

Basic concepts of cartography and major reference systems. Major land use factors: elevation, slope and exposure. The land use map and the Corine Land Cover project. The watershed as a spatial and landscape unit. Geographic Information Systems managed in the Geographic Information System environment and their use in land use analysis. Landscape ecology indices: what they are and how they apply to the landscape scale.

examMode

The evaluation is expressed in thirtieths. The exam is passed if a grade of eighteen thirtieths or higher is achieved.
The evaluation includes:

1. Knowledge and understanding: Students will be assessed on their ability to demonstrate a thorough understanding of fundamental concepts in geomatics and GIS. They will be subjected to theoretical and conceptual questions during the written exam, covering topics such as the benefits of green areas, national and international regulations, planning tools, and landscape design criteria.

2. Ability to apply knowledge and understanding: Students will have the opportunity to demonstrate their ability to apply the theoretical knowledge acquired during the course to practical situations and case studies. This might include solving planning and design problems, selecting plant species for specific green areas, and sustainably managing water resources.

3. Autonomy of judgment: The exam will include questions designed to assess students' ability to critically evaluate options for urban green space design and management. Students will be encouraged to make informed decisions based on ecological, social, and economic criteria, considering the long-term implications of their choices.

4. Communication: Students must demonstrate effective communication skills in presenting their analyses and project proposals. This could include preparing clear and concise written reports, as well as the ability to orally present their projects before an examination committee.

books

- Lecture notes;
- Articles provided by the Lecturer;
- Handouts provided by the Lecturer.

classRoomMode

In-person course attendance is recommended.

bibliography

- Lecture notes;
- Articles provided by the Lecturer;
- Handouts provided by the Lecturer.

118931 - GENETICS

LUCA PROIETTI DE SANTISLUCA PROIETTI DE SANTIS

First Semester 6BIO/18ita

Learning objectives

The course aims to provide students with the fundamental concepts of classical and molecular genetics by examining the models of inheritance of Mendelian characters, the mechanisms of coding, replication and expression of genetic information, genetic variability and some diseases caused by genetic mutations, the genetic composition of groups formed by individual members of the same species (populations) and the ways in which this composition changes over time and space.

Teacher's Profile

courseProgram

Mendel's genetic analysis:
genetic variability;
the law of segregation;
the law of independent assortment;
genes and alleles: the concept of polymorphism.

Extensions of Mendelian analysis:
dominance relationships;
multiple allelia;
pleiotropy;
multifactorial inheritance,
inheritance of quantitative traits ..

Chromosome theory of inheritance:
mitosis and meiosis;
sex-linked inheritance;
meiosis and Mendelism.

Association and recombination:
segregation of genes located on the same chromosome;
crossing over-over;
the chi-squared test
genetic maps;
three-point essay.

The physical basis of heredity, DNA:
identification of the genetic material;
structure; *
replication; *
recombination.

The function of the gene:
genetic dissection through mutations
the hypothesis a gene an enzyme;
complementation;
fine structure of the gene;
the genetic code;
the transcription; *
translation. *

The eukaryotic chromosome
structure and organization of chromatin;
the model with radial lugs;
structure and function of the telomere and centromere;
the organizing regions of the nucleolus (NOR).

Chromosomal mutations:
of structure;
the mobile elements;
of number.

Genetic analysis of bacteria and viruses *:
the bacterial chromosome;
isolation of mutants;
gene transfer in bacteria:
natural and artificial transformation;
conjugation;
genetic maps in bacteria.
transduction

Gene regulation in prokaryotes:
negative and positive regulation;
the lac operon;
the tryptophan operon;
attenuation.

Gene regulation in eukaryotes:
regulation of transcription;
post-transcriptional regulation;
the role of chromatin structure;
epigenetic inheritance;
euchromatin and heterochromatin;
variegated position effect (PEV);
inactivation of the X chromosome in mammals.

Genomic analysis:
the cloning of genes;
hybridization of nucleic acids;
the PCR;
DNA sequencing;
genome sequencing;
DNA polymorphism analysis:
SNP;
Microsatellites.

Population genetics:
gene and genotype frequencies
the Hardy-Weinberg equilibrium;
evolution of populations and species.


* These topics are treated only from the point of view of Genetics, leaving out the biochemical, molecular and microbiological aspects that are treated in other courses.

examMode

The intermediate written exemption and the final final written test take place in the same way.
Exercises are assigned, usually 10, with the same value for the purposes of the vote out of thirty, ie 3 points per exercise. The exercises consist in the practical application of the notions of Genetics and Environmental Mutagenesis explained in class and which allow to understand if the student has acquired the ability to reason according to the paradigms of the hereditary transmission of characters. The exercises assigned do not differ from those carried out in the exercises. Particular emphasis is given to exercises that demonstrate knowledge of the formal aspects of genetics: mendelism, sex-linked inheritance, mapping of genes in eukaryotes and prokaryotes, mutations and mutagenesis, regulation of gene expression in prokaryotes, population genetics.
The final written test focuses on the second part of the course, or on the entire course, depending on whether or not the student has passed the exemption test (grade equal to or greater than 15/30).
The final grade of the written exam results from the average of the ongoing exam (if passed). and the final written test.
If the final mark of the written test is equal to or greater than 18/30, the student can usually decide to confirm it, without taking the oral exam.
If the oral test is necessary, the final grade is the average between the written test and the oral test.
The oral exam focuses on ascertaining the knowledge of the topics that are not easily traceable to the logic of the numerical exercise and, if necessary, on the deepening of the theoretical notions underlying the exercises carried out by the student in the written tests.
The exam calendar and registration for exam sessions are done through the University portal.

books

Griffiths et al., Genetica - Principi di analisi formale, Zanichelli

mode

Lectures in the classroom, presentations (ppt) with graphic illustrations, photographs and videos. Exercises aimed at solving problems that demonstrate the knowledge of the formal aspects of genetics and the ability to apply them, on the type of exercises that will constitute the examination tasks. Laboratory exercise consisting in a blind cross between drosophiles with alternative characters, from the results of which the student must infer the inheritance pattern of the character in question. The lectures are equivalent to 8 credits (64 hours) and the exercises to one credits (8 hours).

classRoomMode

Attendance is not mandatory but recommended

bibliography

Griffiths et al., Genetica - Principi di analisi formale, Zanichelli

Teacher's Profile

courseProgram

Mendel's genetic analysis:
genetic variability;
the law of segregation;
the law of independent assortment;
genes and alleles: the concept of polymorphism.

Extensions of Mendelian analysis:
dominance relationships;
multiple allelia;
pleiotropy;
multifactorial inheritance,
inheritance of quantitative traits ..

Chromosome theory of inheritance:
mitosis and meiosis;
sex-linked inheritance;
meiosis and Mendelism.

Association and recombination:
segregation of genes located on the same chromosome;
crossing over-over;
the chi-squared test
genetic maps;
three-point essay.

The physical basis of heredity, DNA:
identification of the genetic material;
structure; *
replication; *
recombination.

The function of the gene:
genetic dissection through mutations
the hypothesis a gene an enzyme;
complementation;
fine structure of the gene;
the genetic code;
the transcription; *
translation. *

The eukaryotic chromosome
structure and organization of chromatin;
the model with radial lugs;
structure and function of the telomere and centromere;
the organizing regions of the nucleolus (NOR).

Chromosomal mutations:
of structure;
the mobile elements;
of number.

Genetic analysis of bacteria and viruses *:
the bacterial chromosome;
isolation of mutants;
gene transfer in bacteria:
natural and artificial transformation;
conjugation;
genetic maps in bacteria.
transduction

Gene regulation in prokaryotes:
negative and positive regulation;
the lac operon;
the tryptophan operon;
attenuation.

Gene regulation in eukaryotes:
regulation of transcription;
post-transcriptional regulation;
the role of chromatin structure;
epigenetic inheritance;
euchromatin and heterochromatin;
variegated position effect (PEV);
inactivation of the X chromosome in mammals.

Genomic analysis:
the cloning of genes;
hybridization of nucleic acids;
the PCR;
DNA sequencing;
genome sequencing;
DNA polymorphism analysis:
SNP;
Microsatellites.

Population genetics:
gene and genotype frequencies
the Hardy-Weinberg equilibrium;
evolution of populations and species.


* These topics are treated only from the point of view of Genetics, leaving out the biochemical, molecular and microbiological aspects that are treated in other courses.

examMode

The intermediate written exemption and the final final written test take place in the same way.
Exercises are assigned, usually 10, with the same value for the purposes of the vote out of thirty, ie 3 points per exercise. The exercises consist in the practical application of the notions of Genetics and Environmental Mutagenesis explained in class and which allow to understand if the student has acquired the ability to reason according to the paradigms of the hereditary transmission of characters. The exercises assigned do not differ from those carried out in the exercises. Particular emphasis is given to exercises that demonstrate knowledge of the formal aspects of genetics: mendelism, sex-linked inheritance, mapping of genes in eukaryotes and prokaryotes, mutations and mutagenesis, regulation of gene expression in prokaryotes, population genetics.
The final written test focuses on the second part of the course, or on the entire course, depending on whether or not the student has passed the exemption test (grade equal to or greater than 15/30).
The final grade of the written exam results from the average of the ongoing exam (if passed). and the final written test.
If the final mark of the written test is equal to or greater than 18/30, the student can usually decide to confirm it, without taking the oral exam.
If the oral test is necessary, the final grade is the average between the written test and the oral test.
The oral exam focuses on ascertaining the knowledge of the topics that are not easily traceable to the logic of the numerical exercise and, if necessary, on the deepening of the theoretical notions underlying the exercises carried out by the student in the written tests.
The exam calendar and registration for exam sessions are done through the University portal.

books

Griffiths et al., Genetica - Principi di analisi formale, Zanichelli

mode

Lectures in the classroom, presentations (ppt) with graphic illustrations, photographs and videos. Exercises aimed at solving problems that demonstrate the knowledge of the formal aspects of genetics and the ability to apply them, on the type of exercises that will constitute the examination tasks. Laboratory exercise consisting in a blind cross between drosophiles with alternative characters, from the results of which the student must infer the inheritance pattern of the character in question. The lectures are equivalent to 8 credits (64 hours) and the exercises to one credits (8 hours).

classRoomMode

Attendance is not mandatory but recommended

bibliography

Griffiths et al., Genetica - Principi di analisi formale, Zanichelli

119950 - PLANT BIOLOGY AND DIVESRITY - 15- -

Learning objectives

MODULO A
Knowledge of anatomy and physiology of the plant cell in relation to the functions performed by each tissue and organ of the plant. Understanding of the main anatomical-functional differences between Briofite, Pteridofite, Gimnosperme, Angiosperme and their evolutionary meaning. Knowledge of the main morphological modifications of the plant phenotype in response to environmental gradients. Ability to compare the reproductive cycles of Briofite, Pteridofite, Gimnosperme and Angiosperme.
MODULO B
Understand the diversity of plants at the level of the highest taxonomic ranks. Knowing how to correctly use the scientific names of plant taxa. Master a picture of the diversity of Italian tracheophytes. Knowing how to use the identification techniques of vascular plant species. Being able to recognize the most common families of conifers and angiosperms of Italian flora in the field. Get a picture of the flora and vegetation of Italy. Master the basics of biodiversity and environmental distribution of vascular plants and simple applications (elements of floristic monitoring).

PLANT BIOLOGY

ALFREDO DI FILIPPO

Second Semester6BIO/03ita

Learning objectives

Knowledge of anatomy and physiology of the plant cell in relation to the functions performed by each tissue and organ of the plant. Understanding of the main anatomical-functional differences between Briofite, Pteridofite, Gimnosperme, Angiosperme and their evolutionary meaning. Knowledge of the main morphological modifications of the plant phenotype in response to environmental gradients. Ability to compare the reproductive cycles of Briofite, Pteridofite, Gimnosperme and Angiosperme.

Teacher's Profile

courseProgram

The rise of Life on Earth. Plant evolution. Miller experience. Prokaryotes and eukaryotes. Aerobiosis and anaerobiosis. Autotrophy and heterotrophy. Unicellular and multicellular organisms. Innovation through the affirmation of cellular functions.
Structure and functions of the plant cell and its organelles: Plastids: types of plastids (chloroplasts, chromoplasts, leukoplasts, amyloplasts, etioplasts), structure and relative functions. Origin from proplastids. Chloroplasts: structure (thylacoids, grain, stroma) in relation to the main reactions involved in chlorophyll photosynthesis. Photosynthetic pigments (chlorophyll and carotenoids).
Vacuole. Role of vacuole in cellular metabolism, in water economics and in cellular relaxation processes. Water relations: the water potential and the factors that determine it. Movement of water between cells.
The cell wall, its constituents and structure. Assembly of the primary wall. Movement of water and solutes in relation to the wall. The wall and the growth by distension of the cell. The secondary wall. Wall modifications (suberification, cutinization, lignification, mineralization). Plasmodesmata.

Higher plant anatomy. Growth by division, relaxation and differentiation. Dedifferentiation and cellular totipotency. Tissues: classification and cell types of the various tissues. Meristematic and mature tissues. Main types of tissues and their characteristics.
Structure and functions of the root in Angiosperms and Gymnosperms. The root system. Apex, structure and function of radical meristems. Quiescent center, positive geotropism, statoliths. Primary structure (actinostele). Formation of the secondary structure. Origin of the lateral roots.
Shoot morphology and anatomy in Angiosperms and Gimnosperms. The bud: vegetative and floral buds; terminal and lateral buds; dormant buds. Knots and internodes. The meristems in the bud. Origin of the vascular bundles. Eustele and atactostele. Origin structure and functioning of the cribro-vascular cambium. Secondary structure of the stem. Annual rings. Structure of homoxylous and heteroxylous wood. Ring porous and diffuse porous wood. Heartwood and sapwood. Origin of the structure and functions of the cork cambium. Periderm and Lenticels.
Morphology and anatomy of the leaf of Angiosperms and Gymnosperms. The petiole and the leaf blade. Simple and compound leaves. Homogeneous and heterogeneous mesophyll leaves. Double-sided, equifacial and single-sided leaves; plagiotropic, orthotropic and needle-like leaves. The stomata and the factors that determine the opening and closing mechanism. The hydatodes. Transpiration and chlorophyll photosynthesis in relation to the structure of the leaf. The rise of water in the xylem: the cohesion-tension theory. Phloem loading and photosyntate transport .
Propagation and reproduction systems in plants. Alternation between generations (gametophyte, sporophyte) and reproductive cells (spores and gametes).
Main characteristics and reproduction cycle of non-vascular embryophytes (moss and liver).
Main characteristics and reproduction cycle of some phyla of vascular embryophytes:
phylum Pterophyta (ferns)
phylum Conipherophyta (conifers)
phylum Antophyta (angiosperms)
Ovule and seed. Seed structure in Gymnosperms and Angiosperms. Hypogeal and epigeal germination. Environmental factors favoring seed germination.
Flower structure in plants.
The fruit. From ovary to pericarp. Dried and fleshy fruits, dehiscent and indehiscent. Simple fruits, aggregates, compounds, false fruits. Fruit dispersion mode (anemocora, zoocora, hydrocora, etc.).
Summary of evolutionary theory. Natural and artificial selection, selective pressure, adaptation, fitness, evolution. Genotype and phenotype. Divergent and convergent evolution; coevolution. The concept of species, subspecies, ecotype; the cultivar. Taxa of infraspecific and higher rank. Taxonomy and systematics; the Linnaeus binomial, the systematic categories, notes on the formation of phylogenetic trees.
The ecology. The interactions between plants and their environment. Ecological abiotic factors in relation to plant metabolism: light, temperature, water, essential nutrients.
Morphological adaptations to different environmental contexts: hygromorphism and xeromorphism.

examMode

Microscopic pictures of tissues/organs.
Oral discussion.

books

Suggested Textbooks:
Mauseth. Botanica. Fondamenti di biologia delle piante. Idelson-Gnocchi

Other Textbooks:
Pasqua et al. Botanica generale e diversità vegetale Ed. Piccin.
Raven, Evert, Eichorn. BIOLOGIA DELLE PIANTE VI edizione (No precedenti!) Zanichelli.
Evert, Eichhorn. Biologia delle piante di Raven. Zanichelli.

mode

Identification of microscopic tissues/organs
oral discussion

classRoomMode

Classroom lessons and practicals in the laboratory

bibliography

Speranza, Calzoni. Struttura delle piante per immagini. Zanichelli.
http://www.dipbot.unict.it/frame/botgenit.htm
http://www.atlantebotanica.unito.it/page.asp

118937 - MICROBIOLOGY

MASSIMILIANO FENICEMASSIMILIANO FENICESUSANNA GORRASISUSANNA GORRASI

First Semester 6BIO/19ita

Learning objectives

Formation goals

The course will permit the comprehension of the morphological, phisiological and metabolical charctersistic of microrganisms (mainly procariotes); their role in nature and the interactions with other organisms. Moreover, i twill consent to acquire some basic techniques for the manipulation f microorganisms in Laboratory. The cours will supply a reference framework to comprehend modern aspect related to the microbial world and their potential applications.
The course will supply the basic formation for further specialised studies in microbial ecology, environmental and medical microbiology.

learning results

Knowledge and understanding ability. To get the knowledge regarding the basic principles of the microbial biology, their metabolism, their role in nature, the interaction between microorganisms and other organisms, their potential in biotechnology.
Ability to apply knowledge and understanding. To understand the issues related to the relationships between microorganism and mankind and environment. To acquire the basic knowledge regarding the experimental approach to study the microbial world.
Independent judgement. The ability to construe the results obtained by the various studies in microbiology. The ability to understand the role of the microorganisms in the environment and their influence on the biology of other organisms.

Learning ability. Ability to describe scientific topics related to microbiology both in written and oral forms by a specific scientific/technical language. Ability to use the methods acquired for microorganism recognition and cultivation. This ability will be developed also trough the active involvement of the students in discussions during the lectures and by laboratory experiences.

Teacher's Profile

courseProgram

Theory

1) History of microbiology: discovery of the microbial world; the “Abiogeny” dispute, microorganisms and their environment, impact of microorganisms on man: pathogenic, harmful and useful microorganisms.
2) Cytology: prokaryotic and eukaryotic cells: prokaryotic and eukaryotic cells: general concepts, structure and ultra-structure of bacterial cells, structure and function of cytoplasmic membrane, transports through the cytoplasmic membrane, cell wall, structure and function, the cell wall of Gram + and Gram – bacteria, Archaeal and eukaryotic cell walls, capsules and other envelopes, motility, flagella and chemotaxis, endospore structure and function, mentions of eukaryotic spores.
3) Cell physiology: reminders of chemistry and cell biochemistry (redox reactions, hydrogen and electron transport, high energy compounds), biological energy production, glycolysis and alternative pathways; NAD re-oxidation: fermentations (alcoholic and lactic); aerobic respiration (TCA, electron transport phosphorylation, energy balance in respiration), mentions of anaerobic respiration and biosynthesis.
4) Microbial growth: growth of a single cell and of a microbial population, diauxic growth, effect of environmental parameters on growth (pH, temperature, etc.), methods for the control of microbial growth.
5) Microbial ecology and mention of environmental biotechnology: isolation and identification of microorganisms (recalls), interactions among microbial population and between microorganisms and other organisms; microbial ecosystems; methods for the study of microbial ecology and diversity; biogeochemical cycles (Carbon, Nitrogen, Iron, Sulphur, etc.), role of microorganisms in environmental decontamination, aerobic/anaerobic catabolism of environmental pollutants, treatment of water and wastewater.

examMode

The student evaluation will be done by an oral examination regarding the whole course program

books

Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, D.A. Stahl, D.P. Clark, Pearson, 2012. Vol.1 e 2 (or any other more recent edition)
Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, Casa Editrice Ambrosiana. Vol. 1 e 2A
Biologia dei microrgamismi di G. Dehò e E. Galli, Casa Editrice Ambrosiana, 2018.

The lectures slides (PDF) are available on line. During the course, some scientific publications will be distributed and discussed.

Other recent textbooks of General Microbiology could be used after a preliminary check with the teacher.

mode

The course will consist in oral lectures regarding the published program and supported by Power Point presentations (available on line on Moodle platform). It is possible that few scientific papers will be discussed too

classRoomMode

Attendance to classes is not mandatory, but strobgly suggested.

bibliography

-PESCIAROLI C., CUPINI F., SELBMANN L., BARGHINI P. and FENICE M. 2012. Temperature preferences of bacteria isolated from sea water collected in Kandalaksha Bay, White Sea, Russia. Polar Biol 35: 435-445. *
-SILVI S., BARGHINI P., AQUILANTI A., JURAEZ-JIMENEZ B., and FENICE M. 2013. Physiologic and metabolic characterization of a new marine isolate (BM39) of Pantoea sp. producing high levels of exopolysaccharide. Microb Cell Fac 12:10. DOI: 10.1186/1475-2859-12-10*
-PESCIAROLI C., RODELAS B., JUAREZ-JIMÉNEZ B., BARGHINI P. and FENICE M. 2015. Bacterial community structure of a coastal area in Kandalaksha Bay, White Sea, Russia: possible relation to tidal hydrodynamics. Ann. Microbiol. 65: 443-453.*
-PESCIAROLI C., BARGHINI P., CERFOLLI F., BELLISARIO B., and FENICE M. 2015. Relationship between phylogenetic and nutritional diversity in Arctic (Kandalaksha Bay) seawater planktonic bacteria Ann. Microbiol. 65: 2405-2414.* DOI 10.1007/s13213-015-1083-4*
-TIMPERIO A.M., GORRASI S., ZOLLA L. AND FENICE M. 2017. Evaluation of MALDI-TOF mass spectrometry and MALDI BioTyper in comparison to 16S rDNA sequencing for the identification of bacteria isolated from Arctic sea water. Plos-One. 12, 7. Article number e0181860. DOI: 10.1371/journal.pone.0181860*
-BARGHINI, P., PASQUALETTI, M., GORRASI, S., and FENICE, M. 2018. Bacteria from the “Saline di Tarquinia” marine salterns revealing very atypical growth profiles in relation to salinity and temperature Mediterr. Mar. Sci, 19 (3) 513-525. doi:http://dx.doi.org/10.12681/mms.15514,*
-PASQUALETTI M., BARGHINI P., GIOVANNINI V., AND FENICE M. 2019. High production of chitinolytic activity in halophilic conditions by a new marine strain of Clonostachys rosea. Molecules. 24(10), 1880 10.3390/molecules24101880*
-GORRASI, S., PESCIAROLI, C., BARGHINI, P., PASQUALETTI, M. AND FENICE M. 2019. Structure and diversity of the bacterial community of Kandalaksha Bay (White Sea, Russia), a complex Arctic estuarine system submitted to intense tidal currents. J. Mar. Syst. 196: 77-85.
-PASQUALETTI, M., GIOVANNINI, V., BARGHINI, P., GORRASI, S., AND FENICE M. 2020. Diversity and ecology of culturable marine fungi associated with Posidonia oceanica leaves and their epiphytic algae Dictyota dichotoma and Sphaerococcus coronopifolius. Fungal Ecology 40, Published on line.

Teacher's Profile

courseProgram

Theory

1) History of microbiology: discovery of the microbial world; the “Abiogeny” dispute, microorganisms and their environment, impact of microorganisms on man: pathogenic, harmful and useful microorganisms.
2) Cytology: prokaryotic and eukaryotic cells: prokaryotic and eukaryotic cells: general concepts, structure and ultra-structure of bacterial cells, structure and function of cytoplasmic membrane, transports through the cytoplasmic membrane, cell wall, structure and function, the cell wall of Gram + and Gram – bacteria, Archaeal and eukaryotic cell walls, capsules and other envelopes, motility, flagella and chemotaxis, endospore structure and function, mentions of eukaryotic spores.
3) Cell physiology: reminders of chemistry and cell biochemistry (redox reactions, hydrogen and electron transport, high energy compounds), biological energy production, glycolysis and alternative pathways; NAD re-oxidation: fermentations (alcoholic and lactic); aerobic respiration (TCA, electron transport phosphorylation, energy balance in respiration), mentions of anaerobic respiration and biosynthesis.
4) Microbial growth: growth of a single cell and of a microbial population, diauxic growth, effect of environmental parameters on growth (pH, temperature, etc.), methods for the control of microbial growth.
5) Microbial ecology and mention of environmental biotechnology: isolation and identification of microorganisms (recalls), interactions among microbial population and between microorganisms and other organisms; microbial ecosystems; methods for the study of microbial ecology and diversity; biogeochemical cycles (Carbon, Nitrogen, Iron, Sulphur, etc.), role of microorganisms in environmental decontamination, aerobic/anaerobic catabolism of environmental pollutants, treatment of water and wastewater.

examMode

The student evaluation will be done by an oral examination regarding the whole course program

books

Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, D.A. Stahl, D.P. Clark, Pearson, 2012. Vol.1 e 2 (or any other more recent edition)
Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, Casa Editrice Ambrosiana. Vol. 1 e 2A
Biologia dei microrgamismi di G. Dehò e E. Galli, Casa Editrice Ambrosiana, 2018.

The lectures slides (PDF) are available on line. During the course, some scientific publications will be distributed and discussed.

Other recent textbooks of General Microbiology could be used after a preliminary check with the teacher.

mode

The course will consist in oral lectures regarding the published program and supported by Power Point presentations (available on line on Moodle platform). It is possible that few scientific papers will be discussed too

classRoomMode

Attendance to classes is not mandatory, but strobgly suggested.

bibliography

-PESCIAROLI C., CUPINI F., SELBMANN L., BARGHINI P. and FENICE M. 2012. Temperature preferences of bacteria isolated from sea water collected in Kandalaksha Bay, White Sea, Russia. Polar Biol 35: 435-445. *
-SILVI S., BARGHINI P., AQUILANTI A., JURAEZ-JIMENEZ B., and FENICE M. 2013. Physiologic and metabolic characterization of a new marine isolate (BM39) of Pantoea sp. producing high levels of exopolysaccharide. Microb Cell Fac 12:10. DOI: 10.1186/1475-2859-12-10*
-PESCIAROLI C., RODELAS B., JUAREZ-JIMÉNEZ B., BARGHINI P. and FENICE M. 2015. Bacterial community structure of a coastal area in Kandalaksha Bay, White Sea, Russia: possible relation to tidal hydrodynamics. Ann. Microbiol. 65: 443-453.*
-PESCIAROLI C., BARGHINI P., CERFOLLI F., BELLISARIO B., and FENICE M. 2015. Relationship between phylogenetic and nutritional diversity in Arctic (Kandalaksha Bay) seawater planktonic bacteria Ann. Microbiol. 65: 2405-2414.* DOI 10.1007/s13213-015-1083-4*
-TIMPERIO A.M., GORRASI S., ZOLLA L. AND FENICE M. 2017. Evaluation of MALDI-TOF mass spectrometry and MALDI BioTyper in comparison to 16S rDNA sequencing for the identification of bacteria isolated from Arctic sea water. Plos-One. 12, 7. Article number e0181860. DOI: 10.1371/journal.pone.0181860*
-BARGHINI, P., PASQUALETTI, M., GORRASI, S., and FENICE, M. 2018. Bacteria from the “Saline di Tarquinia” marine salterns revealing very atypical growth profiles in relation to salinity and temperature Mediterr. Mar. Sci, 19 (3) 513-525. doi:http://dx.doi.org/10.12681/mms.15514,*
-PASQUALETTI M., BARGHINI P., GIOVANNINI V., AND FENICE M. 2019. High production of chitinolytic activity in halophilic conditions by a new marine strain of Clonostachys rosea. Molecules. 24(10), 1880 10.3390/molecules24101880*
-GORRASI, S., PESCIAROLI, C., BARGHINI, P., PASQUALETTI, M. AND FENICE M. 2019. Structure and diversity of the bacterial community of Kandalaksha Bay (White Sea, Russia), a complex Arctic estuarine system submitted to intense tidal currents. J. Mar. Syst. 196: 77-85.
-PASQUALETTI, M., GIOVANNINI, V., BARGHINI, P., GORRASI, S., AND FENICE M. 2020. Diversity and ecology of culturable marine fungi associated with Posidonia oceanica leaves and their epiphytic algae Dictyota dichotoma and Sphaerococcus coronopifolius. Fungal Ecology 40, Published on line.

Teacher's Profile

courseProgram

1) The laboratory of microbiology: the microscope, mentions of optical physics, preparation of microscope slides, electron microscopy and other microscopy techniques. Micrometry. The pure culture, microbial nutrition and preparation of culture media. Theory and practice of sterilization. Methods for detecting microbial growth.
2) Principles of molecular and bacterial genetics (reminders): DNA structure, restriction enzymes, DNA replication, genetic elements, gene rearrangement, transposons, transcription, structure and function of mRNA and tRNA, translation and protein synthesis, mechanisms of gene expression control, genetic code mutations and mutagens; bacterial recombination (in details), transformation, transduction, plasmids and conjugation.
3) Microbial taxonomy, classification and phylogeny

examMode

The student evaluation will be done by an oral examination regarding the whole course program

books

Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, D.A. Stahl, D.P. Clark, Pearson, 2012. Volumi 1 e 2
Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, Casa Editrice Ambrosiana. Volumi 1 e 2A
Biologia dei microrgamismi di G. Dehò e E. Galli, Casa Editrice Ambrosiana, 2018.

The lectures slides (PDF) are available on line. During the course, some scientific publications will be distributed and discussed.

Other recent textbooks of General Microbiology could be used after a preliminary check with the teacher.

mode

The course will consist in oral lectures regarding the published program and supported by PowerPoint presentations (available on line on Moodle platform).

classRoomMode

Attendance to classes is not mandatory, but it strongly suggested to better understand the topics

bibliography

The suggested text books are sufficient to get the necessary information. The teacher will supply additional literature if necessary.

Teacher's Profile

courseProgram

1) The laboratory of microbiology: the microscope, mentions of optical physics, preparation of microscope slides, electron microscopy and other microscopy techniques. Micrometry. The pure culture, microbial nutrition and preparation of culture media. Theory and practice of sterilization. Methods for detecting microbial growth.
2) Principles of molecular and bacterial genetics (reminders): DNA structure, restriction enzymes, DNA replication, genetic elements, gene rearrangement, transposons, transcription, structure and function of mRNA and tRNA, translation and protein synthesis, mechanisms of gene expression control, genetic code mutations and mutagens; bacterial recombination (in details), transformation, transduction, plasmids and conjugation.
3) Microbial taxonomy, classification and phylogeny

examMode

The student evaluation will be done by an oral examination regarding the whole course program

books

Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, D.A. Stahl, D.P. Clark, Pearson, 2012. Volumi 1 e 2
Brock, Biologia dei Microrganismi di M.T. Madigan e J.M. Martinko, Casa Editrice Ambrosiana. Volumi 1 e 2A
Biologia dei microrgamismi di G. Dehò e E. Galli, Casa Editrice Ambrosiana, 2018.

The lectures slides (PDF) are available on line. During the course, some scientific publications will be distributed and discussed.

Other recent textbooks of General Microbiology could be used after a preliminary check with the teacher.

mode

The course will consist in oral lectures regarding the published program and supported by PowerPoint presentations (available on line on Moodle platform).

classRoomMode

Attendance to classes is not mandatory, but it strongly suggested to better understand the topics

bibliography

The suggested text books are sufficient to get the necessary information. The teacher will supply additional literature if necessary.

119055 - HYDROLOGY AND GEOMATICS - 12- -

Learning objectives

The course aims to provide the tools and methodologies for analysing the territory at the planning scale. the main training objectives are:
- Knowledge and comprehension skills: during the course, the student will acquire comprehension and problem-solving skills through analysis methodologies that simulate real contexts;
- Applied knowledge and comprehension skills will be developed by the student through teaching integrated with laboratory activities in classrooms equipped with dedicated GIS software;
- Autonomy of judgement in the "problem solving" phase in the risk contexts addressed during the course;
- Communication skills through the drafting of reports and projects to be presented during the examination;
- Ability to learn.

MODULE A - HYDROLOGY

SALVATORE GRIMALDI

Second Semester6AGR/08ita

Learning objectives

The course has as a training objective the knowledge of hydrological processes for the understanding and management of problems inherent in the hydrological cycle.
Three primary objectives can be identified:
Know the hydrological phenomena. Specifically, the notions concerning the properties of precipitation and the dynamics of the formation of river floods will be deepened.
Understanding and learning the concept of project flow, central training objective being the basis of most hydraulic designs.
Learn and apply the Rational Formula which represents the training objective of the modeling type with a more practical and less phenomenological implication.
In addition to the three main objectives, the student will also be trained directly on some soft-skills related to the topics of the course, such as basic IT tools (spreadsheets, GIS).

Teacher's Profile

courseProgram

Hydrological Cycle. Meteorology (basic notions): Precipitation genesis. Meteorological Maps (GFS – 850Hp). Quantitative characterization of main hydrological phenomena.
Rainfall measurements and instrumentations. Discharge definition, measurements and instrumentations. Rating curve.
Watershed and flood definition.
Return Period, definition and estimation. Basic notions of statistical methods for return period estimation.
Design peak discharge, Rational formula, concentration time.
Rainfall analysis for applying the rational formula: IDF curves.

examMode

Three oral questions will allow to understand if the student reaches the course aim.
Students will have the opportunity to prepare a report including the results of the exercise lab project to be discussed during the exam.

books

Applied Hydrology, Chow, Maidment, Mays,
McGraw-Hill

In addition to the textbook, papers and materials will be available on GOMP useful for the Lab exercise and the project development.

mode

The course is organized with traditional lectures integrated with alternative methods useful to achieve the expected learning results.
An exercise developed in the classroom with the presence of the lecturer will be useful to ensure “Knowledge and understanding skills “, moreover, a project work to be carried out independently (partially done in the classroom) which can optionally be discussed during the exam, will be coherent to the Dublin descriptors: “Making judgements – Communication skills – Learning skills“

classRoomMode

Attendance in the course is not mandatory, although it is encouraged

bibliography

None

118936 - ECOLOGY

DANIELE CANESTRELLIROBERTA CIMMARUTAROBERTA CIMMARUTA

Second Semester 9BIO/07ita

Learning objectives

The course aims to provide robust basic knowledge on the structure and functioning of environmental systems, with particular emphasis on the mechanisms that determine both the distribution and abundance of organisms as well as their relations with the environment.
Knowledge and Understanding
The students will acquire knowledge on the basic principles of ecology, with particular emphasis on the interdisciplinary nature of this discipline. This objective is reflected in the organization of the program that runs through the hierarchical layers of ecological organization, from the mechanisms underlying biodiversity (evolutionary ecology), passing through the relationships between organisms and species (population ecology) up to the structure and functioning of communities (community ecology).
Applied Knowledge and Understanding
The knowledge acquired will be applied to the ecological mechanisms that allow evaluatint the state and functioning of ecosystems and biodiversity. Comprehension abilities will be applied by encouraging students to deal with complex and multi-scalar disciplines and problems.
Independent Evaluation
The ability to formulate independent evaluations will be exercised thanks to the interdisciplinary and multilevel reasoning required by this discipline and by the analysis of the case studies proposed, that need the merging of complex and heterogeneous data to be understood.
Communication skills
These skills will be developed through the exercise of one's own expression (interventions during the lessons) and in the coordination of group activities, especially during field exercises.
Ability to learn
The many concepts learned and the connections linking them all will stimulate a “learning-by-reasoning” process, essential to fully understand ecological mechanisms.

Teacher's Profile

courseProgram

General Ecology - The historical development of ecology; Ecology and its domain; Current state of ecological research in Italy. Ecology of the interactions between organisms and the physical environment: Conditions; Spatial and temporal variations; Adaptations in response to variations in environmental conditions; Limiting factors; Tolerance ranges; Environmental optima; Biological rhythms - climatic factors.
Evolutionary Ecology - Genetic analysis of populations; Hardy-Weinberg's law; Genetic variability; Evolutionary forces (mutation, selection, gene flow, genetic drift); inbreeding; Wahlund effect; Balanced polymorphisms; Linkage disequilibrium; supergenes; Genetic divergence; Species concept; Reproductive isolation mechanisms; Speciation mechanisms; Hybrid zones and reinforcement; Sibling species; Biodiversity at the genetic level.
Population ecology - Demography and dynamics: population structure and growth; Demographic parameters; Demographic tables; Intrinsic growth rate - numerical regulation of populations; Density dependent and independent factors; Exponential growth; environmental carrying capacity - logistic growth curve. Interspecific interactions: symbiosis; commensalism; inquilinism; antibiosis; parasitism; adaptations to parasitic life; coevolution; predation - adaptations to predation; cryptism; mimicry; intraspecific competition; interspecific competition; ecological niche; Principle of competitive exclusion; character displacement; r and K selection.

examMode

The assessment test is oral and will contain a series of questions aimed at ascertaining the student's theoretical knowledge on the interpretation of the mechanisms that determine the distribution, abundance and relationships with the biotic and abiotic environment of organisms. In addition, some questions will be aimed at solving a practical problem on the type of those faced during the hours of practice.
The methods for attributing the final judgment are based on the number of correct answers, which must be greater than 60% of those proposed.

books

L. Bullini, S. Pignatti, A Virzo De Santo, "Ecologia Generale". UTET
M. L. Cain, W. D. Bowman, S. D. Hacker, “Ecologia”. Piccin Editore.
Krebs "Ecology", Neebo Ed.

mode

The course includes lectures, interactive and supported by Power Point presentations, audiovisuals, with stimulation to deepen specific topics and the choice of potential thesis topics. Propose an understanding of the multidisciplinary, interdisciplinary and integrative nature of the topics covered. Analysis of the ecological processes that regulate the functioning of environmental systems. Case study discussion. Training seminars on specific topics. Critical discussion of scientific articles. Go out into the field.

classRoomMode

Attendance to the course is not compulsory

bibliography

Tamagnini, D., Canestrelli, D., Meloro, C., Raia, P., Maiorano, L., 2021. New Avenues for Old Travellers: Phenotypic Evolutionary Trends Meet Morphodynamics, and Both Enter the Global Change Biology Era. Evolutionary Biology 48: 379-393.
Zampiglia M., Bisconti R., Maiorano L., Aloise G., Siclari A., Pellegrino F., Martino G., Pezzarossa A., Chiocchio A., Martino C., Nascetti G. & D. Canestrelli, 2019. Drilling down hotspots of intraspecific diversity to bring them into on-ground conservation of threatened species. Frontiers in Ecology and Evolution 7: 205.
Bisconti R., Porretta D., Arduino P., Nascetti G. & D. Canestrelli, 2018. Hybridization and rampant mitochondrial introgression among fire salamanders in peninsular Italy. Scientific Reports 8: 13187.
Arntzen J.W., de Vries W., Canestrelli D. & I. Martínez-Solano, 2017. Hybrid zone formation and contrasting outcomes of secondary contact over transects in common toads. Molecular Ecology 26: 5663-5675.
Bisconti R., Canestrelli, D. Tenchini R., Belfiore C., Buffagni A. & G. Nascetti, 2016. Cryptic diversity and multiple origins of the widespread mayfly species group Baetis rhodani (Ephemeroptera: Baetidae) on northwestern Mediterranean islands. Ecology and Evolution 6: 7901-7910.

Teacher's Profile

courseProgram

General Ecology - The historical development of ecology. Ecology of the interactions between organisms and the physical environment: Conditions; Spatial and temporal variations; Adaptations in response to variations in environmental conditions; Limiting factors; Tolerance ranges; Environmental optima; Biological rhythms - climatic factors; Classification of climates; Phytogeographic zonation; Hints of paleoclimatology; Biomes.
Evolutionary Ecology - Genetic analysis of populations; Hardy-Weinberg's law; Genetic variability; Evolutionary forces (mutation, selection, gene flow, genetic drift); inbreeding; Wahlund effect; Balanced polymorphisms; Linkage disequilibrium; supergenes; Genetic divergence; Species concept; Reproductive isolation mechanisms; Speciation mechanisms; Hybrid zones and reinforcement; Sibling species; Biodiversity at the genetic level.
Population ecology - Demography and dynamics: population structure and growth; Demographic parameters; Demographic tables; Intrinsic growth rate - numerical regulation of populations; Density dependent and independent factors; Exponential growth; environmental carrying capacity - logistic growth curve. Interspecific interactions: symbiosis; commensalism; inquilinism; antibiosis; parasitism; adaptations to parasitic life; coevolution; predation - adaptations to predation; cryptism; mimicry; intraspecific competition; interspecific competition; ecological niche; Principle of competitive exclusion; character displacement; r and K selection.
Community and Ecosystem Ecology – What is community and its diversity, diversity indices, natural successions. Principles of Biogeography and islands biogeography. Ecosystems: structure, primary and secondary productivity, flux of energy through the ecosystem, trophic webs.

examMode

The oral exam will be carried out according to the "Regolamento didattico di Ateneo" and will concern general principles as well as case studies.
The intermediate test will comprise both open questions and multiple-choice questions

books

M. L. Cain, W. D. Bowman, S. D. Hacker, “Ecologia”. Piccin Editore.

mode

Lectures, field exercises (sampling, mark and recapture, field transects), classroom exercises (application of Hardy-Weinberger Principle; application of diversity indices).

classRoomMode

Attending exercises is not mandatory but strongly encouraged as well as classroom exercises. Field exercises will be in presence, with material provided to students unattending.

bibliography

Michael Begon, Colin R. Townsend. Ecology: From Individuals to Ecosystems. 5a edizione. Wiley-Blackwell

Teacher's Profile

courseProgram

General Ecology - The historical development of ecology. Ecology of the interactions between organisms and the physical environment: Conditions; Spatial and temporal variations; Adaptations in response to variations in environmental conditions; Limiting factors; Tolerance ranges; Environmental optima; Biological rhythms - climatic factors; Classification of climates; Phytogeographic zonation; Hints of paleoclimatology; Biomes.
Evolutionary Ecology - Genetic analysis of populations; Hardy-Weinberg's law; Genetic variability; Evolutionary forces (mutation, selection, gene flow, genetic drift); inbreeding; Wahlund effect; Balanced polymorphisms; Linkage disequilibrium; supergenes; Genetic divergence; Species concept; Reproductive isolation mechanisms; Speciation mechanisms; Hybrid zones and reinforcement; Sibling species; Biodiversity at the genetic level.
Population ecology - Demography and dynamics: population structure and growth; Demographic parameters; Demographic tables; Intrinsic growth rate - numerical regulation of populations; Density dependent and independent factors; Exponential growth; environmental carrying capacity - logistic growth curve. Interspecific interactions: symbiosis; commensalism; inquilinism; antibiosis; parasitism; adaptations to parasitic life; coevolution; predation - adaptations to predation; cryptism; mimicry; intraspecific competition; interspecific competition; ecological niche; Principle of competitive exclusion; character displacement; r and K selection.
Community and Ecosystem Ecology – What is community and its diversity, diversity indices, natural successions. Principles of Biogeography and islands biogeography. Ecosystems: structure, primary and secondary productivity, flux of energy through the ecosystem, trophic webs.

examMode

The oral exam will be carried out according to the "Regolamento didattico di Ateneo" and will concern general principles as well as case studies.
The intermediate test will comprise both open questions and multiple-choice questions

books

M. L. Cain, W. D. Bowman, S. D. Hacker, “Ecologia”. Piccin Editore.

mode

Lectures, field exercises (sampling, mark and recapture, field transects), classroom exercises (application of Hardy-Weinberger Principle; application of diversity indices).

classRoomMode

Attending exercises is not mandatory but strongly encouraged as well as classroom exercises. Field exercises will be in presence, with material provided to students unattending.

bibliography

Michael Begon, Colin R. Townsend. Ecology: From Individuals to Ecosystems. 5a edizione. Wiley-Blackwell

119950 - PLANT BIOLOGY AND DIVESRITY - 15- -

Learning objectives

MODULO A
Knowledge of anatomy and physiology of the plant cell in relation to the functions performed by each tissue and organ of the plant. Understanding of the main anatomical-functional differences between Briofite, Pteridofite, Gimnosperme, Angiosperme and their evolutionary meaning. Knowledge of the main morphological modifications of the plant phenotype in response to environmental gradients. Ability to compare the reproductive cycles of Briofite, Pteridofite, Gimnosperme and Angiosperme.
MODULO B
Understand the diversity of plants at the level of the highest taxonomic ranks. Knowing how to correctly use the scientific names of plant taxa. Master a picture of the diversity of Italian tracheophytes. Knowing how to use the identification techniques of vascular plant species. Being able to recognize the most common families of conifers and angiosperms of Italian flora in the field. Get a picture of the flora and vegetation of Italy. Master the basics of biodiversity and environmental distribution of vascular plants and simple applications (elements of floristic monitoring).

FLORISTICS AND GEOBOTANY

GOFFREDO FILIBECK

Second Semester9BIO/03ita

Learning objectives

Understand the diversity of plants at the level of the highest taxonomic ranks. Knowing how to correctly use the scientific names of plant taxa. Master a picture of the diversity of Italian tracheophytes. Knowing how to use the identification techniques of vascular plant species. Being able to recognize the most common families of conifers and angiosperms of Italian flora in the field. Get a picture of the flora and vegetation of Italy. Master the basics of biodiversity and environmental distribution of vascular plants and simple applications (elements of floristic monitoring).

Teacher's Profile

courseProgram

Plant taxonomy principles. International code of plant nomenclature. Plant phylogeny. The phyla of the kingdom Plantae. Elements of non-vascular plant systematic. How to identify a plant specimen. Taxonomy, phylogeny, ecology and identification of the following families: Pinaceae, Cupressaceae, Orchidaceae, “Liliaceae” s.l., Juncaceae, Cyperaceae, Poaceae, Ranunculaceae, Fabaceae, Rosaceae, Fagaceae, Betulaceae, Brassicaceae, Lamiaceae, Asteraceae, Apiaceae. The Italian flora. Flora vs. vegetation. Species ranges. Habitat factors. Plant successions. Life-forms. Alien species.Floristic monitoring.The vegetation of Italy.

examMode

Oral examination and presentation of a personal herbarium including the plant families studied during the course.

books

- Pasqua-Abbate-Forni "Botanica Generale e Diversità Vegetale", 4a edizione, PICCIN
- Y. Fragnière et al. – “Connaissances botaniques de base en un coup d’oeil” – Ulmer
- further information will be given during the classroom lectures

mode

Classroom lectures (48 h), field excursions (8h), laboratory practice (8h)

classRoomMode

Participation to field trips and lab practice is essential

bibliography

J.D. Mauseth – “Botanica” – IV Edizione Italiana – Idelson Gnocchi
R. Gerdol et al. - “La vegetazione delle montagne italiane” – CAI
G. Filibeck et al. – “Guida al Paesaggio Vegetale del Parco Naz. d’Abruzzo” – Ediz. del Parco
P. Marchi et al. – “Famiglie di Piante Vascolari Italiane: 1-140” – Università La Sapienza

119009 - DENDROECOLOGY

GIANLUCA PIOVESAN

Second Semester 6AGR/05ita

Learning objectives

The aim of the course is to provide the knowledge necessary for the identification, biology, and ecology of Italian tree species. Particular attention will be paid to the ontogenetic cycle of trees and the state and dynamics of forest populations with insights related to the naturalness of ecosystems (old forests, managed forests, degraded forests), the dynamics of forest vegetation, and the impact of climate change. At the end of the course, the student must have acquired the ability to apply the criteria of taxonomic identification of trees of forest interest and be able to understand the environmental needs and the bio-ecological role of each species in the dynamism of forest populations. During the course, students will be stimulated to develop independent judgment, communication skills, and the ability to learn.

Teacher's Profile

courseProgram

General part
Bases of nomenclature and evolution. Concept of species. Diagnostic characters for the identification of forest taxa: the habitus, the posture, the bark, the leaf apparatus, the reproductive apparatus. Variability of diagnostic characters. Hybridization in forest trees. Classifications based on morphology and on a molecular basis. Growth and development of trees. Phenological cycles. Predetermined and indeterminate growth. Reproductive cycles in temperate forests. The longevity of forest trees.
Bioclimatology and forest ecoregions. Biodiversity in forest ecosystems. Succession processes and structuring dynamics of forest stands. Principles and practice of dendroecology. Environmental gradients and climate changes. Old-growth forests and natural levels. Monumental trees and their role in the landscape and nature conservation.
Special part
Dendrology: monographic treatment of species of forest interest in Europe: taxonomy, habitus, chorology, habitat, cenology, xylology and traditional uses.
Taxus baccata, Cedrus spp., Larix decidua, Picea abies, Abies alba, Mediterranean firs, Pinus halepensis, P. pinea, P. pinaster, P. nigra, P. heldreichii, P. silvestris, P. mugo, P. uncinata P cembra, Cupressus sempervirens, Juniperus spp., Fagus sylvatica, Castanea sativa, Quercus ilex, Q. coccifera, Q. suber, Q. cerris, Q. macrolepis, Q. trojana, Q. frainetto, Q. pubescens, Q. petraea , Q. robur, Carpinus betulus, C. orientalis, Ostrya carpinifolia, Corylus avellana, Betula pendula, B. pubescens, Alnus cordata, A. glutinosa, A. incana, A. viridis, Populus alba, P. canescens, P. tremula , P. nigra, Salix caprea, S. alba, S. eleagnos, Ulmus minor, U. glabra, Celtis australis, Juglans regia, Tilia cordata, T. platyphyllos, Acer pseudoplatanus, A. platanoides, A. lobelii, A. opalus , A. campestre, A. monspessulanum, Fraxinus ornus, F. excelsior, F. angustifolia, Laburnum anagyroides, Cercis siliquastrum, Ceratonia siliqua, Sorbus torminalis, S. domestica, S. aria, S. aucuparia, Prunus aviu m, Pyrus pyraster and Malus sylvestris.
THE MEDITERRANEAN macchia: distribution, physiognomy, and composition in the main ecological areas (thermo-Mediterranean and meso-Mediterranean region), evolutionary and recessive dynamics

examMode

The level of learning achieved and the relative ability to communicate it are monitored through questions and discussions during lectures and field and laboratory exercises. In particular, the exercises constitute a fundamental moment of involvement of the students who are called to draw up a technical-scientific report based in part on group work and, therefore, on subsequent in-depth studies conducted during the study and personal application phase. This report also contributes to the assessment of the skills acquired in the area of ​​communication.
In the oral test for the attribution of the final grade the acquired level of knowledge, skills and competence will be evaluated with particular reference to the critical understanding of principles and theories of tree biology and ecology. In particular, the acquisition by the student of the ability to apply in concrete cases - derived for example from dendroecological activities and collections of herbarium samples in the field - the concepts and methods acquired for the taxonomic identification of tree species and dendroecological monitoring through reasoning will be verified. Analysis and synthesis will be evaluated in relation to the knowledge acquired on the biology and ecology of trees. The exam includes the evaluation of a herbarium of at least 20 tree species that must be prepared by each student. The student must have correctly identified at least 18 species. The student who has not drawn up the herbarium is given 5 samples of taxa belonging to the species of the program; in this case, the student must have correctly identified at least 4 samples.
The oral exam includes at least three-course topics, one of which will be chosen by the student.

books

In-depth teaching material for the lessons available on the Moodle platform.
Gellini R. Grossoni P. - Forest botany, Cedam
Trees in Lazio. CD provided by the teacher.
Websites (Acta plantarum).

mode

The course consists of lectures, field exercises, and laboratory activities. In particular, the field exercises constitute a fundamental moment of involvement of the students who are called to active participation during the excursions and, therefore, to draw up an herbarium based in part on group work and in-depth studies conducted during the study phase and personal application. The course also includes dendroecological laboratory activities carried out on wood samples collected in the forest stands during excursions.

classRoomMode

Though recommended, attendance to lessons is optional

bibliography

Scientific articles available on the Moodle platform

SUBJECTSEMESTERCFUSSDLANGUAGE
119008 - ENVIRONMENTAL MONITORING LABORATORY - 12- -

Learning objectives

The course introduces and deepens the concepts and main experimental approaches on the chemical aspects of environmental monitoring through the knowledge and practice of the main instrumental methods for the qualitative and quantitative chemical analysis of organic and inorganic substances present in the environment. Knowledge will focus in particular on chemical monitoring of water and soil.

A) Educational objectives: To build a theoretical and applicative competence on the chemical aspects of environmental monitoring.
B) Expected learning results:
1) Knowledge and understanding: the knowledge will concern in particular the chemical monitoring of superficial water and soil;
2) Knowledge and comprehension skills applied: part of the course will be dedicated to carrying out practical exercises from an applicative applicative point of view, simulating real situations;
3) Autonomy of judgment: knowledge and practical application will allow autonomy of judgment and planning skills;
4) Communication skills: knowledge and application practice will also be useful in the development of communication skills through the reading and interpretation of the instrumental data obtained;
5) Ability to learn: the ability to learn will be evaluated through exercises concerning theory and interpretation of instrumental data.

MODULE A - CHEMICAL MONITORING

ELIANA CAPECCHI

6CHIM/06ita

Learning objectives

The course introduces and deepens the concepts and main experimental approaches on the chemical aspects of environmental monitoring through the knowledge and practice of the main instrumental methods for the qualitative and quantitative chemical analysis of organic and inorganic substances present in the environment. Knowledge will focus in particular on chemical monitoring of water and soil.

A) Educational objectives: To build a theoretical and applicative competence on the chemical aspects of environmental monitoring.
B) Expected learning results:
1) Knowledge and understanding: the knowledge will concern in particular the chemical monitoring of superficial water and soil;
2) Knowledge and comprehension skills applied: part of the course will be dedicated to carrying out practical exercises from an applicative applicative point of view, simulating real situations;
3) Autonomy of judgment: knowledge and practical application will allow autonomy of judgment and planning skills;
4) Communication skills: knowledge and application practice will also be useful in the development of communication skills through the reading and interpretation of the instrumental data obtained;
5) Ability to learn: the ability to learn will be evaluated through exercises concerning theory and interpretation of instrumental data.

Teacher's Profile

courseProgram

Data quality: Main validation parameters of an analytical method: limits of detection and quantification, sensitivity, robustness, recovery, and use of certified materials; concept of analytical uncertainty with reference to legal limits and the interpretation of experimental data; expression of analytical results; systematic and random contributions to uncertainty. (DM 260/2010, Annex 1, Pages 29-30)

Primary environmental applications of atomic and molecular spectroscopy: flame and graphite furnace atomic absorption; plasma spectroscopy, ICP-MS.
Sampling and sample preparation: representativeness of sampling in relation to the sampling technique used; sample preservation; sample compatibility with instrumental techniques; sample pre-treatment: liquid-liquid and liquid-solid extractions; sample purification.

Principles of Organic Analytical Chemistry: Separation of mixtures: crystallization, solvent extraction: supercritical fluid extractions, distillation, chromatography. Chromatography: theoretical considerations, partition coefficient, resolution, the concept of theoretical plate. Types of chromatography: adsorption, partition, ion exchange, exclusion. Chromatographic methods: TLC, Gas Chromatography, HPLC. Spectroscopy: the electromagnetic spectrum, interaction between radiation and matter, the effect of chemical structure on absorption, Lambert-Beer's law. UV-Vis, IR spectroscopy. Calibration methods: external calibration, use of internal standards, method of additions.

Environmental Chemistry:
• Water: alkalinity and acidity, oxidation-reduction reactions, complexation, and chelation.
Organic and inorganic pollutants:
• Organic: hydrocarbons; polymers; Polycyclic Aromatic Hydrocarbons (PAHs), dioxins.
• Inorganic: N-NH4, N-NO3, total phosphorus, and dissolved oxygen (LIMeco descriptor). (DM 260/2010, Annex 1, Pages 62-64)

Laboratory exercises: liquid-liquid extraction, analysis of N-NH4 and N-NO3 spectrophotometrically, analysis of organic pollutants using GC-MS (Analytical Methods for Water-APAT, IRSA).




examMode

The test will consist of an oral evaluation of the knowledge acquired

books

Chimica Ambientale, Casa Editrice: Zanichelli; Autore: C. Baird.

Identificazione spettrometrica di composti organici; Editore: Zanichelli; Autore: R. M. Silverstein

classRoomMode

Attendance at lessons is not mandatory. However, considering that teaching will be organized to ensure the centrality of the student's active role, participation in lessons is strongly recommended

bibliography

Chimica Ambientale, Casa Editrice: Zanichelli; Autore: C. Baird.

Identificazione spettrometrica di composti organici; Editore: Zanichelli; Autore: R. M. Silverstein

MODULE B - BIOLOGICAL MONITORING

ADRIANA BELLATI

6BIO/05ita

Learning objectives

Understanding the meaning of the use of biological indicators for environmental monitoring. Acquisition of general skills for the use of the biological methodologies provided for by the laws in force on environmental monitoring, in particular that of aquatic systems, through the integral application of a biological index.

A) Educational objectives: to develop design and execution skills for biological monitoring according to the principles and methods contained in current European and Italian legislation.
B) Expected learning results:
1) Knowledge and understanding: The acquired knowledge will concern the general principles on which biological monitoring activities are based, the methodological processes for the implementation of monitoring campaigns, and the determination of biological indices of environmental quality.
2) Knowledge and comprehension skills applied: The application of knowledge will be focused on a methodological study of the indexes currently used to assess the ecological status of environmental matrices, considering in particular soil and inner watercourses, through practical activities in the field and in the laboratory.
3) Autonomy of judgment: The ability to formulate independent assessments can be exercised in the interpretation phase of the results, coordinating the heterogeneous data to arrive at motivated judgments.
4) Communication skills: These skills will be developed through the exercise of one's own expression (interventions during the lessons) and in the coordination of group activities.
5) Ability to learn: The methodological study can allow the extension of the concepts and practices to the monitoring application to other environmental matrices.

Teacher's Profile

courseProgram

Changes in environmental quality, pollution and environmental monitoring (quality of air, soil, water);
Biological monitoring of air: atmosphere and impacts; bioindicators of air quality; IBL index.
Biological monitoring of soil: soil matrix and impacts; bioindicators of soil quality; QBS index.
In-depth activity: sampling techniques and recognition of pedofauna; determination of the QBS-ar index.
Biological monitoring of costal waters: general aspects and impacts; bioindicators and ecological indices; legal aspects (WFD amd MSD).
Biological monitoring of inland water bodies: general characteristics of inland waters: classification and impacts; biological indices (of diversity, the saprobic system and the biotic indices -BMWP, ASPT, IBE).
The river: self-purifying capacity, metabolic efficiency, river continuum concept, ecological and hydroclimatic factors;
The European Water Framework Directive (2000/60 / EC): typing, different types of monitoring, reference conditions;
The elements of biological quality (EQB): Macroinvertebrates, Macrophytes, Diatoms and Pisces;
In-depth activity: definition of the ecological status of a river course through macrobenthos and the elements of chemical-physical and hydromorphological quality in support; determination of the STAR_ICMi index.
The most recent methodologies for the isolation and the analysis of diagnostic DNA markers for the resolution of the biological diversity for environmental monitoring: sampling techniques, including complex environmental matrices, collection and biological conservation tools.

examMode

Oral exam on principles and general concepts. Practical test of recognition of benthic macroinvertebrates. Application of an ecological index (STAR_ICMi, QBS-ar).

books

Water Framework Directive (2000/60/CE)
IRSA manuals
ISPRA manuals
Atlases and identification cards
The textbooks will be provided by the teacher, who will indicate the links for the retrieval

mode

Lectures (blended modality), field exercises (sampling and separation of organisms), laboratory exercises (taxonomic identification), classroom exercises (application of monitoring indices).

classRoomMode

Attending lessons is not mandatory. Attending exercises (in the field, laboratory, and classroom) is not mandatory but strongly encouraged.

bibliography

See Texts

118938 - IDROGEOLOGY

CHIARA SBARBATI

First Semester 6GEO/05ita

Learning objectives

Objectives

The objectives of the course are the comprehension of the main hydrogeological processes for the management and protection of groundwater resources. Students will be introduced to the understanding of how water gets into the ground (recharge), how it flows in the subsurface (through aquifers), how groundwater interacts with the surrounding soil and rock (the geology) and how flows out in different ways (different kinds of springs). For the understanding of these processes the hydrogeological features, interaction between surface water and groundwater and chemical-physical parameters will be analysed in the framework of protection and sustainable management of water resources.

1) Knowledge and understanding
At the end of the training activity the student will acquire knowledge about the main hydrogeological features of rocks and soils, about the mechanisms governing groundwater flow circulation and distributions and about water quality. The student will be also able to classify different types of aquifer and spring categories, and he/she will be able to analyse the relationship between groundwater and other water bodies (rivers, lakes, sea, etc.). The student will be able to understand the principle of sustainable exploitation and vulnerability of groundwater also in the framework of current legislation.

2) Applied knowledge and understanding
At the end of training activity, the student must demonstrate to be able to: read and analyze a hydrogeological map; critically analyse hydrodynamic aquifer parameters, carry out a piezometric map also defining the main features, classify waters basing on their chemical-physical characteristics, the student must be able to evaluate vulnerability and degree of exploitation of groundwater resources.

3) Making judgments
The student through the topics discussed during the course and during cartographic, numerical, and practical exercises will be able to make an individual judgment about groundwater flow circulation, groundwater quality and and degree of exploitation, dealing with different settings and environments concerning many aspects about the hydrogeology of an area.

4)Communication skills
The student will acquire an appropriate technical language both during theoretical lessons and tutorial activities, necessary to interact with specialists involved in analyses, management and planning of activities in hydrogeological and environmental fields. The communication skills will be verified during class discussions and the oral examination.

5) Learning skills
The student must demonstrate to be able to analyse hydrogeological features of a territory even if the settings are different from those considered during classes. The student mut also be able to define the key hydrogeological features of an environment useful to protect, monitor and correct manage groundwater resources.









Teacher's Profile

courseProgram

Introduction: The concept of Hydrogeology, the importance of groundwater as fundamental resource for human and for the environment.
Groundwater in the subsoil and Aquifer properties: study of groundwater distribution and movement in the unsaturated and saturated zone; definition of the main hydrogeological properties (porosity, hydraulic conductivity, transmissivity, specific yield) and how they can influence groundwater circulation; the Darcy Law and estimation of flow rate; Aquifer classification.
Aquifer recharge and interaction with different water bodies: the concept of continuous circulation of water in the Earth-atmosphere system (hydrological cycle), hydrological water balance and definition of recharge, infiltration, evapotranspiration and runoff; construction and interpretation of piezometric maps, definition of groundwater flow direction, hydraulic gradient and relationship between surface and groundwater; spring classification; study of the relationship between fresh and seawater in coastal environments (Ghyben- Herzberg Law); groundwater chemistry, elements of water-rocks interaction, geochemical classification of groundwater (Chebotarev, Schoeller and Piper Diagrams); definition of groundwater origin through groundwater isotopes.
Groundwater and anthropogenic activities: different ways for groundwater exploitation and purpose (drinking water exploitation, irrigation, thermal use, dewatering, etc); the utility of pumping tests to gain different aquifer properties; aquifer contamination occurrence, definition of the main classes of pollutants, basic elements of contaminant transport in groundwater; the concept of aquifer vulnerability and brief description of implemented methods to assess the vulnerability, groundwater resource protection principle in accordance with the regulation.

examMode

The oral exam will be carried out according to the "Regolamento didattico di Ateneo". For the evaluation process and for the grade assignment will be considered: the level of knowledge of the topics of the course programme, analyical skills, sinthesys and interdisciplinary linking skills, critical thinking, making judments and communication skills.

books

Pietro Celico (2003) – Elementi di Idrogeologia – Liguori Editore
Massimo Civita (2005) – Idrogeologia applicata ed ambientale

Slides and additional material provided by the teacher during the course.

mode

For the course are scheduled: 5 CFU (40 hours) of lectures and 1 CFU (8 hours) of practical training (cartographic, numerical and in the field).

classRoomMode

The attendance is not mandatory but is highly recommended.

bibliography

See suggested books.

Additional scientific papers useful for the deepening of course's topics.

118942 - INTERNSHIP

First Semester 2ita
- - ELECTIVE COURSE

First Semester 12ita
OPTIONAL GROUP - -- -
ENVIRONMENTAL IMPACT OF AGRO-ZOOTECHNICAL SYSTEMS

GIAMPIERO GROSSI

6AGR/19ita

Learning objectives

The following course aims to achieve 5 main objectives, which are listed below:

1. To provide the necessary knowledge to understand the complexity of agro-livestock systems and their relationship with the main animal species raised for the production of food for human consumption.
2. To analyze the environmental impacts generated by livestock activities and represent the main aspects associated with these impacts.
3. To deepen the main categories of environmental impact associated with the livestock sector.
4. To provide knowledge about the interventions that can be implemented to reduce the environmental impact generated by the production of animal-origin foods.
5. To illustrate the systems used to evaluate the environmental impact of livestock systems.

In summary, through this course, students will acquire skills to understand the complexity of agro-livestock systems, analyze the environmental impacts generated by livestock activities, identify the main categories of environmental impact associated with the livestock sector, and learn about the interventions that can be implemented to reduce environmental impact. Additionally, information will be provided on the systems used to evaluate the environmental impact of livestock systems.

Teacher's Profile

courseProgram

I. To provide the necessary knowledge to understand the complexity of agro-livestock systems and their relationship with the main animal species raised for the production of food for human consumption.

1. Animal production and the planet's biocapacity
2. Dairy cattle farming
3. Beef cattle farming
4. Pig farming
5. Poultry farming
6. Animal welfare

II. To analyze the environmental impacts generated by livestock activities and represent the main aspects associated with these impacts.

7. Rumen metabolism and methane emissions
8. Release of macro and micronutrients into the environment

III. To deepen the main categories of environmental impact associated with the livestock sector.

9. Greenhouse gases
10. Eutrophication
11. Acidification
12. Water consumption

IV. To provide knowledge about the interventions that can be implemented to reduce the environmental impact generated by the production of animal-origin foods.

13. Techniques for mitigating impacts

V. To illustrate the systems used to evaluate the environmental impact of livestock systems.

14. Life Cycle Assessment (LCA)
15. LCA software
16. Environmental certifications

examMode

The exam will consist of one question for each of the 5 objectives included in the course syllabus. In addition, a project assessment will be conducted during the course, in which an LCA software will be used to evaluate the environmental impact of an agri-food product.

books

1. Animal Production. Anna Sandrucci, Erminio Trevisi (2022).
2. Animal Farming and Environmental Sustainability. Principles (Vol. 1) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)
3. Animal Farming and Environmental Sustainability. Technologies (Vol. 2) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)

mode

In addition to classroom lessons, there are practical exercises based on the use of dedicated computer systems for evaluating environmental impact and technical visits to external facilities that allow for the verification in the field of relevant training aspects.

classRoomMode

Optional

bibliography

1. Animal Production. Anna Sandrucci, Erminio Trevisi (2022).
2. Animal Farming and Environmental Sustainability. Principles (Vol. 1) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)
3. Animal Farming and Environmental Sustainability. Technologies (Vol. 2) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)

SENSORS AND ELECTROMAGNETIC RISK

GIUSEPPE CALABRO'

6ING-IND/31ita

Learning objectives


The main objectives of the course are the introduction of the fundamental concepts of measurements and electromagnetic compatibility, the functioning of the main measuring instruments, the study of conducted, radiated and electromagnetic coupling emission / immunity phenomena, the analysis of commonly used models to estimate the levels of interference and disturbance, the introduction to the regulations, the instruments and measurement methods for checking the electromagnetic compatibility of electronic devices in pre-compliance and in compliance with the technical regulations of the sector.
Referring to the Dublin descriptors, the learning outcomes learned can be declined as follows:
Knowledge and understanding.
Know the definitions of static metrological characteristics, know the definitions of the units of measurement, understand the meaning of probability distribution linked to the measurement, know the classic models that describe the radiated and conducted disturbances that lead to the definition of the problems of electromagnetic compatibility.
Knowledge and understanding applied.
Have an understanding of the correct scientific approach in the field of measurements. Understanding the significance of the results through applied statistics. Understanding the concepts with a more technical and applicative aspect will be through both practical and traditional exercises (exercises).

Teacher's Profile

courseProgram

Fundamentals of circuit theory and electronics: principal components of electronic circuits and analysis od steady-state circuits.
Fundamentals of industrial automation: microcontrollers and PLC applied to design.
Fundamentals of Arduino: programming an Arduino controller for design applications.

examMode

The complete exam consists of a project evaluation and an oral exam.
The project consists of the realisation of an automated prototype for design applications. It is aimed at assessing: (i) the level of knowledge of the theoretical contents of the course (Dublin descriptor n°1), (ii) the level of competence in presenting technical argumentation skills (Dublin descriptor n° 2) in technical relations, and (iii) autonomy of judgment (Dublin descriptor n° 3) in proposing the most appropriate approach to design the greenhouse.
The oral exam is also aimed at assessing: (i) the level of knowledge of the theoretical contents of the course (Dublin descriptor n° 1), (ii) the level of competence in presenting technical argumentation skills (Dublin descriptor n° 2), (iii) autonomy of judgment (Dublin descriptor n° 3) in proposing the most appropriate approach to argue the request.
The oral test also aims to verify students' ability to express the answers to the questions proposed by the Commission with language properties, to support a dialectical relationship during discussion and to demonstrate logical-deductive and summary abilities in the exposition (Dublin descriptor n° 4).

books

Lecture notes
Giulio Fabricatore, Elettrotecnica e applicazioni, Liguori Editori, 1994
Arduino starter kit

mode

The course includes 48 hours of lectures and laboratory activities.

classRoomMode

Attendance at face-to-face lessons is considered desirable: the course takes place almost entirely in the laboratory.

bibliography

Lecture notes
Giulio Fabricatore, Elettrotecnica e applicazioni, Liguori Editori, 1994
Arduino starter kit

CLIMATOLOGY

SIMONE BONAMANO

6GEO/12ita

Learning objectives

The aim of the course is to provide knowledge about the earth's climate on a global and regional scale in order to understand the climatic patterns and for a correct understanding of the dynamics and evolution of natural systems. At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Knowledge and understanding
At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Applying knowledge and understanding
Through lectures, practical activities in the field and laboratory activities in the computing room, students will acquire ability for collecting, processing and analysing (through statistical methods) meteorological and oceanographic data to extract climatological information. Students will have to acquire adequate skills in instrumental techniques, analysis and interpretation of the main meteo-oceanographic parameters, in order to analyse the Global Change scenario using a multidisciplinary approach.

Making judgements
At the end of the training, students must be able to evaluate and face the causes and effects of Climate Change with adequate skills, competences and critical sense by using meteo-oceanographic data (coming from in-situ measures, remote sensing imageries, numerical models) at global and regional scale.

Communication skills
Students must be able to master the arguments provided during the course with an appropriate scientific language.

Learning skills
Students must be able to apply the knowledge acquired, during the lectures and field/laboratory activities, to the study of Global Change and to autonomously study the main aspects of climatology.

Teacher's Profile

courseProgram

The course starts by illustrating the climatological structure of the ocean and the atmosphere, vertical and horizontal, and discussing the radiative balance of the Earth and it ends with fundamental equations for atmospheric and oceanic motion and their useful approximations. Practical activities in the field and laboratory activities in the computing room are done at the end of the lectures.
The topics addressed in the classroom lessons are:
- Introduction to Physical Climatology
- Vertical structure of the atmosphere and ocean
- Solar radiation, radiative balance and greenhouse effect
- Climatological structure of the atmospheric and oceanic circulation
- Basic equation for the atmosphere and oceans
The topics addressed in the field and in the computing room are:
- Instruments and sensor for meteorological and oceanographic studies
- Analysis and processing of meteorological and oceanographic data

examMode

The exam will take place in oral form. The students can resolve an exercises concerning the use of climate and/or oceanographic data or they can discuss a paper (dealing with a climatological topic) they have selected on an international peer reviewed journal. The teacher will evaluate how much the used methodologies have been assimilated by the student and how much the student is able to critically approach the investigated problem. Finally the teacher makes a couple of questions about the other part of the program.

books

M. Giuliacci, A. Giuliacci, P. Corazzon, Manuale di meteorologia, 2010
Peixoto, J P and Oort, A H, Physics of Climate, 1992
Slides of the lectures will be made available by the teacher

mode

Classroom lectures on the theoretical aspects of the course; exercises in the computer room for the analysis and processing of meteo-oceanographic data; practical activities in the field to learn about the operating principles of the main instruments / sensors used in meteorology and oceanography

classRoomMode

Regular attendance at lectures and in particular at exercises is recommended

bibliography

Andrè Hufty, La Climatologia, Newton Compton
Marshall J and R.A. Plumb, Atmosphere, Ocean and Climate Dynamics, an introductory text, 2008, Academic Press

119010 - GEOPEDOLOGY

SIMONE PRIORISIMONE PRIORI

Second Semester 6AGR/14ita

Learning objectives

The main objective of the teaching is to provide the knowledge necessary to interpret the genesis, the evolution of a soil, and its link with the landscape, with particular reference to paleoenvironmental interpretations and the Quaternary geology. The bases will be provided to understand the processes of formation of a soil and the link with environmental (climate, geology, morphology) and anthropic factors (use and management of the soil). The student will learn the basics to understand the spatial distribution of soils and their temporal evolution within the landscape, through practical examples of interpretation of soil maps and reading of the pedo-landscape.

Teacher's Profile

courseProgram

Physico-chemical, biological and hydrological characteristics of soils.
Pedogenetic factors (climate, lithology, morphology, time, and biota, including humans).
The main forms of the landscape (karst, glacial, river, slope, structural) that guide the distribution and evolution of soils
Pedogenetic processes that drive the development of soil horizons.
Soil profile and genetic horizons.
International classification of soils and distribution of soils in the world.
The soil survey and the interpretation of a profile.
Soils as an archive of the past: paleopedology
Recognize and study paleosols and relict soils, witnesses of different environmental conditions of the past and important indicators of climate change.

examMode

Interview on the topics covered during the course

books

- Pedologia applicata. Simone Priori, ed.Youcanprint, ISBN 9791222781334.
- Lecture notes by the teacher

mode

Lectures and exercises in the field and in the laboratory

classRoomMode

Presence recommended, especially during exercises

bibliography

- FAO-IUSS (2015). World Reference Base for Soil Resources, World Soil Resources, n.106.
- Soil Science Division Staff. 2017. Soil survey manual. C. Ditzler, K. Scheffe, and H.C. Monger (eds.). USDA Handbook 18. Government Printing Office, Washington, D.C.
- Tabor, N. J., & Myers, T. S. (2015). Paleosols as indicators of paleoenvironment and paleoclimate. Annual Review of Earth and Planetary Sciences, 43, 333-361.

Teacher's Profile

courseProgram

Physico-chemical, biological and hydrological characteristics of soils.
Pedogenetic factors (climate, lithology, morphology, time, and biota, including humans).
The main forms of the landscape (karst, glacial, river, slope, structural) that guide the distribution and evolution of soils
Pedogenetic processes that drive the development of soil horizons.
Soil profile and genetic horizons.
International classification of soils and distribution of soils in the world.
The soil survey and the interpretation of a profile.
Soils as an archive of the past: paleopedology
Recognize and study paleosols and relict soils, witnesses of different environmental conditions of the past and important indicators of climate change.

examMode

Interview on the topics covered during the course

books

- Pedologia applicata. Simone Priori, ed.Youcanprint, ISBN 9791222781334.
- Lecture notes by the teacher

mode

Lectures and exercises in the field and in the laboratory

classRoomMode

Presence recommended, especially during exercises

bibliography

- FAO-IUSS (2015). World Reference Base for Soil Resources, World Soil Resources, n.106.
- Soil Science Division Staff. 2017. Soil survey manual. C. Ditzler, K. Scheffe, and H.C. Monger (eds.). USDA Handbook 18. Government Printing Office, Washington, D.C.
- Tabor, N. J., & Myers, T. S. (2015). Paleosols as indicators of paleoenvironment and paleoclimate. Annual Review of Earth and Planetary Sciences, 43, 333-361.

OPTIONAL GROUP - -- -
ENERGIES AND ENVIRONMENTAL PROTECTION

MAURIZIO CARLINI

6ING-IND/09ita

Learning objectives

The fundamental objective of the course is to provide the
student the technical and practical knowledge and skills for designing and developing solutions
plant engineering aimed at the production of energy that can be used for both civil and industrial purposes, also in
relation to the renewable energy sector. The expected learning outcomes are the knowledge of
theoretical and practical notions associated with the energy cycle, with the types of fossil fuels compared a
those from renewable sources with obvious references to the dynamics of environmental pollution, biomass, ai
biochemical processes of energy production (biochemical processes, especially anaerobic digestion with
upgrading of biogas and thermochemical processes, in particular the gasification process), to energy
geothermal with low enthalpy systems, solar energy (both thermal and photovoltaic), bioliquids
and biofuels, wind energy and hydroelectricity. They will also be addressed during the course
the practical tools typically needed in the implementation/identification of strategies for
integrated systems for the production of energy in the industrial sector (e.g. for industrial districts
sustainable).
Among the expected learning outcomes there are therefore the knowledge and the development of a critical sense in terms
ability to identify parameters associated with the operation of equipment and systems
mentioned above in order to optimize their functioning both in the dimensioning phase and in the activity phase
(if possible) in relation to the requests of the end user, thus developing a critical sense from the point of
technical point of view, as well as understanding the meaning of the technical terminology used in the sector
of energy plant engineering from renewable sources, in relation to technologies and processes. At the end of
Course the student will have practical and theoretical notions relating to the main types of systems for the
exploitation of renewable energy sources by strengthening the skills already developed in the degree course
three-year course and having the ability to solve problems relating to new or demanding topics
multidisciplinary approaches, however deriving from the sector under study.At the end of the course, the student will be able to communicate his conclusions clearly and unambiguously to specialist and non-specialist interlocutors operating in the renewable plant engineering sector. Furthermore, among the expected results there is the student's having developed a learning ability that allows him to explore the issues addressed independently, adapting to the needs he will encounter in the workplace.

Teacher's Profile

courseProgram

48 hours Course, divided into the following topics:
Classification of fuels (2h).
Energy sources and RES (2h).
Environmental pollution (2h).
Energy balance (2h).
Biomasses (2h).
Anaerobic digestion and related exercise (4h).
Biofuels (2h).
Thermochemical processes and related exercise (4h).
Solar energy: solar thermal and PV plants and related exercise (4h).
Geothermal energy and related exercise (4h).
Wind energy and related exercise (4h).
Hydraulic energy and related exercise (4h).
Compound Parabolic Concentrators: applications and R&D activities (3h).
COMSOL Multiphysics case study (numerical simulation for engineering) (3h).
Theory and exercise final overview (6h).

examMode

The final mark is assigned by written test (n.2 RES plant sizing exercise and n.1 theory question to be answered). The minimum mark required to pass the exam is fixed to 18/30.

books

Slides and lecture notes.

mode

The course is based on both practical (exercises and plants sizing procedures) and theory lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard. During the course there will be exercises carried out on the blackboard for the sizing of the equipment and plant components as referenced in lecture notes. In terms of practical application, 3 hours are referred to multiphysics simulation by software of the processes and equipments as discussed by the exercises and lecture notes.

classRoomMode


The course will take place in person or remotely on an online platform, following the emergency and anti-COVID measures.

bibliography

Slides and lecture notes.

Teacher's Profile

courseProgram

48 hours Course, divided into the following topics:
Classification of fuels (2h).
Energy sources and RES (2h).
Environmental pollution (2h).
Energy balance (2h).
Biomasses (2h).
Anaerobic digestion and related exercise (4h).
Biofuels (2h).
Thermochemical processes and related exercise (4h).
Solar energy: solar thermal and PV plants and related exercise (4h).
Geothermal energy and related exercise (4h).
Wind energy and related exercise (4h).
Hydraulic energy and related exercise (4h).
Compound Parabolic Concentrators: applications and R&D activities (3h).
COMSOL Multiphysics case study (numerical simulation for engineering) (3h).
Theory and exercise final overview (6h).

examMode

The final mark is assigned by written test (n.2 RES plant sizing exercise and n.1 theory question to be answered). The minimum mark required to pass the exam is fixed to 18/30.

books

Slides and lecture notes.

mode

The course is based on both practical (exercises and plants sizing procedures) and theory lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard. During the course there will be exercises carried out on the blackboard for the sizing of the equipment and plant components as referenced in lecture notes. In terms of practical application, 3 hours are referred to multiphysics simulation by software of the processes and equipments as discussed by the exercises and lecture notes.

classRoomMode


The course will take place in person or remotely on an online platform, following the emergency and anti-COVID measures.

bibliography

Slides and lecture notes.

HYDROLOGICAL RISK

ANDREA PETROSELLI

6AGR/08ita

Learning objectives

The course has as a training objective the knowledge of the processes and methods for understanding and managing hydrological risk.
Three main objectives can be identified:
Understanding and learning the notions and the concept of risk in its general definition and contextualized to the case of hydrological risks.
Understand and learn the methodologies for the study of hydrological processes in preparation for the management of hydrological risks.
Understand and learn the main modeling tools useful for defining hazard and hydraulic risk mappings.
In addition to the three main objectives, the student will also be trained directly on some soft-skills related to the topics of the course, such as basic IT tools (spreadsheets, GIS) and more advanced hydrological models.
Referring to the Dublin descriptors, the learning outcomes learned can be declined as follows:
Knowledge and understanding.
The student will be stimulated to the knowledge of hydrological processes (precipitations and flow rates) with diversified approaches both classical theoretical and direct understanding and analysis (real-time monitoring of phenomena, illustrative videos, research on the net).
Knowledge and understanding applied.
The concepts with a more technical and applicative aspect (hydraulic risk mapping) will be consolidated through both traditional (exercises) and design (application of models) practical exercises.
Autonomy of judgment and communication skills
It will be stimulated through the development of a project for the estimation of hydraulic hazard maps in which the student will be able to evaluate the role of the parameters of the model applied.

Teacher's Profile

courseProgram

Elements of hydraulics preparatory to the understanding of one-dimensional and two-dimensional propagation models. Hydraulic propagation models. Exercise of hydraulic propagation models. Concept of Risk, Damage and Hydraulic Hazard. Residual risk concept. Hazard and risk mapping: PAI - hydrogeological planning plans. Technical visit to the Civil Protection Functional Center - Headquarters. Seminar at the Central Apennine District Authority on: PAI - Authority role - Use and constraints imposed by the flood mapping. Continuous models - COSMO4SUB. Semi-distributed models.

examMode

The assessment test is oral and will contain a series of questions aimed at assessing the student's theoretical knowledge on the topics presented in class.
In particular, three questions are submitted that span the entire program, each of which is evaluated with a score from 0 to 10. The final grade corresponds to the sum of the three individual votes. The degree of knowledge of the contents, of the capability for analysis, of synthesis and of interdisciplinary links, of the capability for critical sense and clarity of exposition is taken into account for the purposes of the assignment of the vote.

books

material furnished by the teacher

mode

The course is divided into 48 hours of frontal lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard.

classRoomMode

Attendance to lessons is optional. The teaching material provided to students is sufficient for the student to prepare for the exam independently.

bibliography

material furnished by the teacher

118943 - FINAL TEST

Second Semester 4ita

Learning objectives

The following course aims to achieve 5 main objectives, which are listed below:

1. To provide the necessary knowledge to understand the complexity of agro-livestock systems and their relationship with the main animal species raised for the production of food for human consumption.
2. To analyze the environmental impacts generated by livestock activities and represent the main aspects associated with these impacts.
3. To deepen the main categories of environmental impact associated with the livestock sector.
4. To provide knowledge about the interventions that can be implemented to reduce the environmental impact generated by the production of animal-origin foods.
5. To illustrate the systems used to evaluate the environmental impact of livestock systems.

In summary, through this course, students will acquire skills to understand the complexity of agro-livestock systems, analyze the environmental impacts generated by livestock activities, identify the main categories of environmental impact associated with the livestock sector, and learn about the interventions that can be implemented to reduce environmental impact. Additionally, information will be provided on the systems used to evaluate the environmental impact of livestock systems.

Teacher's Profile

courseProgram

I. To provide the necessary knowledge to understand the complexity of agro-livestock systems and their relationship with the main animal species raised for the production of food for human consumption.

1. Animal production and the planet's biocapacity
2. Dairy cattle farming
3. Beef cattle farming
4. Pig farming
5. Poultry farming
6. Animal welfare

II. To analyze the environmental impacts generated by livestock activities and represent the main aspects associated with these impacts.

7. Rumen metabolism and methane emissions
8. Release of macro and micronutrients into the environment

III. To deepen the main categories of environmental impact associated with the livestock sector.

9. Greenhouse gases
10. Eutrophication
11. Acidification
12. Water consumption

IV. To provide knowledge about the interventions that can be implemented to reduce the environmental impact generated by the production of animal-origin foods.

13. Techniques for mitigating impacts

V. To illustrate the systems used to evaluate the environmental impact of livestock systems.

14. Life Cycle Assessment (LCA)
15. LCA software
16. Environmental certifications

examMode

The exam will consist of one question for each of the 5 objectives included in the course syllabus. In addition, a project assessment will be conducted during the course, in which an LCA software will be used to evaluate the environmental impact of an agri-food product.

books

1. Animal Production. Anna Sandrucci, Erminio Trevisi (2022).
2. Animal Farming and Environmental Sustainability. Principles (Vol. 1) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)
3. Animal Farming and Environmental Sustainability. Technologies (Vol. 2) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)

mode

In addition to classroom lessons, there are practical exercises based on the use of dedicated computer systems for evaluating environmental impact and technical visits to external facilities that allow for the verification in the field of relevant training aspects.

classRoomMode

Optional

bibliography

1. Animal Production. Anna Sandrucci, Erminio Trevisi (2022).
2. Animal Farming and Environmental Sustainability. Principles (Vol. 1) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)
3. Animal Farming and Environmental Sustainability. Technologies (Vol. 2) Bruno Stefanon, Marcello Mele, Giuseppe Pulina (2018)

Learning objectives


The main objectives of the course are the introduction of the fundamental concepts of measurements and electromagnetic compatibility, the functioning of the main measuring instruments, the study of conducted, radiated and electromagnetic coupling emission / immunity phenomena, the analysis of commonly used models to estimate the levels of interference and disturbance, the introduction to the regulations, the instruments and measurement methods for checking the electromagnetic compatibility of electronic devices in pre-compliance and in compliance with the technical regulations of the sector.
Referring to the Dublin descriptors, the learning outcomes learned can be declined as follows:
Knowledge and understanding.
Know the definitions of static metrological characteristics, know the definitions of the units of measurement, understand the meaning of probability distribution linked to the measurement, know the classic models that describe the radiated and conducted disturbances that lead to the definition of the problems of electromagnetic compatibility.
Knowledge and understanding applied.
Have an understanding of the correct scientific approach in the field of measurements. Understanding the significance of the results through applied statistics. Understanding the concepts with a more technical and applicative aspect will be through both practical and traditional exercises (exercises).

Teacher's Profile

courseProgram

Fundamentals of circuit theory and electronics: principal components of electronic circuits and analysis od steady-state circuits.
Fundamentals of industrial automation: microcontrollers and PLC applied to design.
Fundamentals of Arduino: programming an Arduino controller for design applications.

examMode

The complete exam consists of a project evaluation and an oral exam.
The project consists of the realisation of an automated prototype for design applications. It is aimed at assessing: (i) the level of knowledge of the theoretical contents of the course (Dublin descriptor n°1), (ii) the level of competence in presenting technical argumentation skills (Dublin descriptor n° 2) in technical relations, and (iii) autonomy of judgment (Dublin descriptor n° 3) in proposing the most appropriate approach to design the greenhouse.
The oral exam is also aimed at assessing: (i) the level of knowledge of the theoretical contents of the course (Dublin descriptor n° 1), (ii) the level of competence in presenting technical argumentation skills (Dublin descriptor n° 2), (iii) autonomy of judgment (Dublin descriptor n° 3) in proposing the most appropriate approach to argue the request.
The oral test also aims to verify students' ability to express the answers to the questions proposed by the Commission with language properties, to support a dialectical relationship during discussion and to demonstrate logical-deductive and summary abilities in the exposition (Dublin descriptor n° 4).

books

Lecture notes
Giulio Fabricatore, Elettrotecnica e applicazioni, Liguori Editori, 1994
Arduino starter kit

mode

The course includes 48 hours of lectures and laboratory activities.

classRoomMode

Attendance at face-to-face lessons is considered desirable: the course takes place almost entirely in the laboratory.

bibliography

Lecture notes
Giulio Fabricatore, Elettrotecnica e applicazioni, Liguori Editori, 1994
Arduino starter kit

Learning objectives

The aim of the course is to provide knowledge about the earth's climate on a global and regional scale in order to understand the climatic patterns and for a correct understanding of the dynamics and evolution of natural systems. At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Knowledge and understanding
At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Applying knowledge and understanding
Through lectures, practical activities in the field and laboratory activities in the computing room, students will acquire ability for collecting, processing and analysing (through statistical methods) meteorological and oceanographic data to extract climatological information. Students will have to acquire adequate skills in instrumental techniques, analysis and interpretation of the main meteo-oceanographic parameters, in order to analyse the Global Change scenario using a multidisciplinary approach.

Making judgements
At the end of the training, students must be able to evaluate and face the causes and effects of Climate Change with adequate skills, competences and critical sense by using meteo-oceanographic data (coming from in-situ measures, remote sensing imageries, numerical models) at global and regional scale.

Communication skills
Students must be able to master the arguments provided during the course with an appropriate scientific language.

Learning skills
Students must be able to apply the knowledge acquired, during the lectures and field/laboratory activities, to the study of Global Change and to autonomously study the main aspects of climatology.

Teacher's Profile

courseProgram

The course starts by illustrating the climatological structure of the ocean and the atmosphere, vertical and horizontal, and discussing the radiative balance of the Earth and it ends with fundamental equations for atmospheric and oceanic motion and their useful approximations. Practical activities in the field and laboratory activities in the computing room are done at the end of the lectures.
The topics addressed in the classroom lessons are:
- Introduction to Physical Climatology
- Vertical structure of the atmosphere and ocean
- Solar radiation, radiative balance and greenhouse effect
- Climatological structure of the atmospheric and oceanic circulation
- Basic equation for the atmosphere and oceans
The topics addressed in the field and in the computing room are:
- Instruments and sensor for meteorological and oceanographic studies
- Analysis and processing of meteorological and oceanographic data

examMode

The exam will take place in oral form. The students can resolve an exercises concerning the use of climate and/or oceanographic data or they can discuss a paper (dealing with a climatological topic) they have selected on an international peer reviewed journal. The teacher will evaluate how much the used methodologies have been assimilated by the student and how much the student is able to critically approach the investigated problem. Finally the teacher makes a couple of questions about the other part of the program.

books

M. Giuliacci, A. Giuliacci, P. Corazzon, Manuale di meteorologia, 2010
Peixoto, J P and Oort, A H, Physics of Climate, 1992
Slides of the lectures will be made available by the teacher

mode

Classroom lectures on the theoretical aspects of the course; exercises in the computer room for the analysis and processing of meteo-oceanographic data; practical activities in the field to learn about the operating principles of the main instruments / sensors used in meteorology and oceanography

classRoomMode

Regular attendance at lectures and in particular at exercises is recommended

bibliography

Andrè Hufty, La Climatologia, Newton Compton
Marshall J and R.A. Plumb, Atmosphere, Ocean and Climate Dynamics, an introductory text, 2008, Academic Press

Learning objectives

The fundamental objective of the course is to provide the
student the technical and practical knowledge and skills for designing and developing solutions
plant engineering aimed at the production of energy that can be used for both civil and industrial purposes, also in
relation to the renewable energy sector. The expected learning outcomes are the knowledge of
theoretical and practical notions associated with the energy cycle, with the types of fossil fuels compared a
those from renewable sources with obvious references to the dynamics of environmental pollution, biomass, ai
biochemical processes of energy production (biochemical processes, especially anaerobic digestion with
upgrading of biogas and thermochemical processes, in particular the gasification process), to energy
geothermal with low enthalpy systems, solar energy (both thermal and photovoltaic), bioliquids
and biofuels, wind energy and hydroelectricity. They will also be addressed during the course
the practical tools typically needed in the implementation/identification of strategies for
integrated systems for the production of energy in the industrial sector (e.g. for industrial districts
sustainable).
Among the expected learning outcomes there are therefore the knowledge and the development of a critical sense in terms
ability to identify parameters associated with the operation of equipment and systems
mentioned above in order to optimize their functioning both in the dimensioning phase and in the activity phase
(if possible) in relation to the requests of the end user, thus developing a critical sense from the point of
technical point of view, as well as understanding the meaning of the technical terminology used in the sector
of energy plant engineering from renewable sources, in relation to technologies and processes. At the end of
Course the student will have practical and theoretical notions relating to the main types of systems for the
exploitation of renewable energy sources by strengthening the skills already developed in the degree course
three-year course and having the ability to solve problems relating to new or demanding topics
multidisciplinary approaches, however deriving from the sector under study.At the end of the course, the student will be able to communicate his conclusions clearly and unambiguously to specialist and non-specialist interlocutors operating in the renewable plant engineering sector. Furthermore, among the expected results there is the student's having developed a learning ability that allows him to explore the issues addressed independently, adapting to the needs he will encounter in the workplace.

Teacher's Profile

courseProgram

48 hours Course, divided into the following topics:
Classification of fuels (2h).
Energy sources and RES (2h).
Environmental pollution (2h).
Energy balance (2h).
Biomasses (2h).
Anaerobic digestion and related exercise (4h).
Biofuels (2h).
Thermochemical processes and related exercise (4h).
Solar energy: solar thermal and PV plants and related exercise (4h).
Geothermal energy and related exercise (4h).
Wind energy and related exercise (4h).
Hydraulic energy and related exercise (4h).
Compound Parabolic Concentrators: applications and R&D activities (3h).
COMSOL Multiphysics case study (numerical simulation for engineering) (3h).
Theory and exercise final overview (6h).

examMode

The final mark is assigned by written test (n.2 RES plant sizing exercise and n.1 theory question to be answered). The minimum mark required to pass the exam is fixed to 18/30.

books

Slides and lecture notes.

mode

The course is based on both practical (exercises and plants sizing procedures) and theory lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard. During the course there will be exercises carried out on the blackboard for the sizing of the equipment and plant components as referenced in lecture notes. In terms of practical application, 3 hours are referred to multiphysics simulation by software of the processes and equipments as discussed by the exercises and lecture notes.

classRoomMode


The course will take place in person or remotely on an online platform, following the emergency and anti-COVID measures.

bibliography

Slides and lecture notes.

Teacher's Profile

courseProgram

48 hours Course, divided into the following topics:
Classification of fuels (2h).
Energy sources and RES (2h).
Environmental pollution (2h).
Energy balance (2h).
Biomasses (2h).
Anaerobic digestion and related exercise (4h).
Biofuels (2h).
Thermochemical processes and related exercise (4h).
Solar energy: solar thermal and PV plants and related exercise (4h).
Geothermal energy and related exercise (4h).
Wind energy and related exercise (4h).
Hydraulic energy and related exercise (4h).
Compound Parabolic Concentrators: applications and R&D activities (3h).
COMSOL Multiphysics case study (numerical simulation for engineering) (3h).
Theory and exercise final overview (6h).

examMode

The final mark is assigned by written test (n.2 RES plant sizing exercise and n.1 theory question to be answered). The minimum mark required to pass the exam is fixed to 18/30.

books

Slides and lecture notes.

mode

The course is based on both practical (exercises and plants sizing procedures) and theory lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard. During the course there will be exercises carried out on the blackboard for the sizing of the equipment and plant components as referenced in lecture notes. In terms of practical application, 3 hours are referred to multiphysics simulation by software of the processes and equipments as discussed by the exercises and lecture notes.

classRoomMode


The course will take place in person or remotely on an online platform, following the emergency and anti-COVID measures.

bibliography

Slides and lecture notes.

Learning objectives

The course has as a training objective the knowledge of the processes and methods for understanding and managing hydrological risk.
Three main objectives can be identified:
Understanding and learning the notions and the concept of risk in its general definition and contextualized to the case of hydrological risks.
Understand and learn the methodologies for the study of hydrological processes in preparation for the management of hydrological risks.
Understand and learn the main modeling tools useful for defining hazard and hydraulic risk mappings.
In addition to the three main objectives, the student will also be trained directly on some soft-skills related to the topics of the course, such as basic IT tools (spreadsheets, GIS) and more advanced hydrological models.
Referring to the Dublin descriptors, the learning outcomes learned can be declined as follows:
Knowledge and understanding.
The student will be stimulated to the knowledge of hydrological processes (precipitations and flow rates) with diversified approaches both classical theoretical and direct understanding and analysis (real-time monitoring of phenomena, illustrative videos, research on the net).
Knowledge and understanding applied.
The concepts with a more technical and applicative aspect (hydraulic risk mapping) will be consolidated through both traditional (exercises) and design (application of models) practical exercises.
Autonomy of judgment and communication skills
It will be stimulated through the development of a project for the estimation of hydraulic hazard maps in which the student will be able to evaluate the role of the parameters of the model applied.

Teacher's Profile

courseProgram

Elements of hydraulics preparatory to the understanding of one-dimensional and two-dimensional propagation models. Hydraulic propagation models. Exercise of hydraulic propagation models. Concept of Risk, Damage and Hydraulic Hazard. Residual risk concept. Hazard and risk mapping: PAI - hydrogeological planning plans. Technical visit to the Civil Protection Functional Center - Headquarters. Seminar at the Central Apennine District Authority on: PAI - Authority role - Use and constraints imposed by the flood mapping. Continuous models - COSMO4SUB. Semi-distributed models.

examMode

The assessment test is oral and will contain a series of questions aimed at assessing the student's theoretical knowledge on the topics presented in class.
In particular, three questions are submitted that span the entire program, each of which is evaluated with a score from 0 to 10. The final grade corresponds to the sum of the three individual votes. The degree of knowledge of the contents, of the capability for analysis, of synthesis and of interdisciplinary links, of the capability for critical sense and clarity of exposition is taken into account for the purposes of the assignment of the vote.

books

material furnished by the teacher

mode

The course is divided into 48 hours of frontal lessons. Theoretical notions are illustrated to students during lectures, through audio-visual aids and the blackboard.

classRoomMode

Attendance to lessons is optional. The teaching material provided to students is sufficient for the student to prepare for the exam independently.

bibliography

material furnished by the teacher

Learning objectives

The aim of the course is to provide knowledge about the earth's climate on a global and regional scale in order to understand the climatic patterns and for a correct understanding of the dynamics and evolution of natural systems. At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Knowledge and understanding
At the end of the course students will have acquired the knowledge of the climate system thus supporting the understanding of dynamics and evolution of natural phenomena. Students will enrich their knowledge with a critical sense and responsibility, comparing themselves with different sources. They will develop learning skills such as to be able to carry out, autonomously, in-depth analysis of both standard and innovative methodologies for analysing climate phenomena.

Applying knowledge and understanding
Through lectures, practical activities in the field and laboratory activities in the computing room, students will acquire ability for collecting, processing and analysing (through statistical methods) meteorological and oceanographic data to extract climatological information. Students will have to acquire adequate skills in instrumental techniques, analysis and interpretation of the main meteo-oceanographic parameters, in order to analyse the Global Change scenario using a multidisciplinary approach.

Making judgements
At the end of the training, students must be able to evaluate and face the causes and effects of Climate Change with adequate skills, competences and critical sense by using meteo-oceanographic data (coming from in-situ measures, remote sensing imageries, numerical models) at global and regional scale.

Communication skills
Students must be able to master the arguments provided during the course with an appropriate scientific language.

Learning skills
Students must be able to apply the knowledge acquired, during the lectures and field/laboratory activities, to the study of Global Change and to autonomously study the main aspects of climatology.

Teacher's Profile

courseProgram

The course starts by illustrating the climatological structure of the ocean and the atmosphere, vertical and horizontal, and discussing the radiative balance of the Earth and it ends with fundamental equations for atmospheric and oceanic motion and their useful approximations. Practical activities in the field and laboratory activities in the computing room are done at the end of the lectures.
The topics addressed in the classroom lessons are:
- Introduction to Physical Climatology
- Vertical structure of the atmosphere and ocean
- Solar radiation, radiative balance and greenhouse effect
- Climatological structure of the atmospheric and oceanic circulation
- Basic equation for the atmosphere and oceans
The topics addressed in the field and in the computing room are:
- Instruments and sensor for meteorological and oceanographic studies
- Analysis and processing of meteorological and oceanographic data

examMode

The exam will take place in oral form. The students can resolve an exercises concerning the use of climate and/or oceanographic data or they can discuss a paper (dealing with a climatological topic) they have selected on an international peer reviewed journal. The teacher will evaluate how much the used methodologies have been assimilated by the student and how much the student is able to critically approach the investigated problem. Finally the teacher makes a couple of questions about the other part of the program.

books

M. Giuliacci, A. Giuliacci, P. Corazzon, Manuale di meteorologia, 2010
Peixoto, J P and Oort, A H, Physics of Climate, 1992
Slides of the lectures will be made available by the teacher

mode

Classroom lectures on the theoretical aspects of the course; exercises in the computer room for the analysis and processing of meteo-oceanographic data; practical activities in the field to learn about the operating principles of the main instruments / sensors used in meteorology and oceanography

classRoomMode

Regular attendance at lectures and in particular at exercises is recommended

bibliography

Andrè Hufty, La Climatologia, Newton Compton
Marshall J and R.A. Plumb, Atmosphere, Ocean and Climate Dynamics, an introductory text, 2008, Academic Press

Learning objectives

(A) Educational Objectives: The aim of the course is to deepen the understanding of the most important evolutionary theories, the mechanisms of evolutionary change, and the significance of both historical and contemporary evolutionary processes in generating and shaping the structure of biological diversity at all levels of organization. Additionally, knowledge will be provided on the applications of evolutionary biology principles and methods to fields such as natural resource exploitation and management, nature conservation, climate change biology, invasion biology, medicine, and agriculture.

(B) Expected Learning Outcomes:

1) Knowledge and understanding: Understand how evolutionary processes operate and interact over time and space, influencing biodiversity and species adaptation.
2) Applied knowledge and understanding: (a) Apply evolutionary analysis methods and tools to interpret biological data, such as phylogenetic analyses and population genetics studies; (b) develop the ability to design and conduct experiments to test evolutionary hypotheses, analyzing and interpreting the results obtained.
3) Autonomy of judgment: The knowledge and practical application will enable critical evaluation of different evolutionary theories and the scientific evidence supporting them.
4) Communication skills: The knowledge and practical application will also provide the means to clearly and effectively communicate evolutionary biology concepts and experimental results to both specialist and non-specialist audiences, using appropriate communication tools, including scientific articles, oral presentations, and posters.
5) Learning skills: Learning ability will be assessed through exercises and presentations of scientific work, demonstrating the level of understanding of the topics covered and the ability to adapt and integrate new knowledge and emerging techniques in the field of evolutionary biology.

Teacher's Profile

courseProgram

Program

1) Introduction
- What is evolution?
- History of evolutionary thought.
- Evidence of evolution: from DNA to phenotype.

2) Phylogenesis and the History of Life
- Interpretation of phylogenetic trees.
- Phylogenetic inference.
- Dating using the molecular clock.
- Biogeography and phylogeography.
- Concepts in the macroevolution of traits: adaptation, homology, and evolvability.
- Using phylogeny to study phenotypic evolution: comparative methods.
- Taxonomy in a phylogenetic context.
- The fossil record.
- The origin of life.

3) Natural Selection and Adaptation
- Natural selection, adaptation, and fitness.
- Units and levels of selection; selection on populations; parental selection and inclusive fitness; selection and quantitative traits; response to selection: natural and experimental populations.
- Limits and constraints of evolution.
- Evolution of biological systems.
- Phenotypic plasticity and norm of reaction.
- Form and function.
- Biochemical and physiological adaptation.
- Ecological niche.
- Adaptation to biotic factors.

4) Evolutionary Processes
- Mutation.
- Genetic drift.
- Geographic variation.
- Population structure.
- Recombination and sex.
- Genetic load.
- Inbreeding.
- Selfish genetic elements and genetic conflict.

5) Speciation and Microevolution
- Species and speciation; Patterns of speciation; Geography, Range Evolution, and Speciation.
- Speciation and natural selection.
- Gene flow, hybridization, and speciation.
- Coevolution and speciation.
- Genetics of speciation.
- Speciation and genome evolution.
- Adaptive radiation.
- Causes and consequences of extinction.
- Evolutionary innovations.
- Evolution of communities.

6) Human evolution
- Evolutionary history of primates.
- Demography and evolution of Homo sapiens.

examMode

The oral exam will be carried out according to the University's guidelines ("Regolamento didattico di Ateneo").

books

1) Evolution. Futuyma DJ and Kirkpatrick M, Oxford University Press Inc, 2017
2) Evolution: Making Sense of Life. Zimmer C, W.H. Freeman & Co Ltd, 2015

mode

The lectures will be provided in-person and will not be recorded. However, the teaching material will be provided through the course website ("moodle" portal).

classRoomMode

Attendance is not mandatory, but participation in the classes is highly recommended.

bibliography

1) Evolution. Futuyma DJ and Kirkpatrick M, Oxford University Press Inc, 2017
2) Evolution: Making Sense of Life. Zimmer C, W.H. Freeman & Co Ltd, 2015
3) Evolution. Ridley M. Blackwell Publishing, 2003
4) The Princeton Guide to Evolution. Losos B.J. et al. Princeton University Press, 2017

Learning objectives

The aim of the course is to provide the student with the knowledge necessary to understand the impact of global changes on the functioning of ecosystems and to design restoration projects. The student will acquire the ability to recognize the level of naturalness of ecosystems (eg old-growth forests, managed forests, degraded forests), to monitor the impact of climate change or other degradation factors such as alien species. During the course, students will be stimulated to develop independent judgment, communication skills, and the ability to learn.
At the end of the course, the student will have acquired knowledge of the main factors responsible for Global Change. He will also have developed skills and competencies in assessing the level of naturalness of terrestrial ecosystems and their functionality in the face of climate change. Finally, he will be able to understand the role of rewilding in the ecological transition by developing skills and competencies in measuring the contribution of these territories in mitigating climate change and combating the loss of biodiversity.
During the course, students will be stimulated to develop independent judgment through exercises on real cases of rewilding and communication skills with specific reference to the issues of global changes with the aim of developing skills in planning interventions to conserve and restore biodiversity. As far as judgment is concerned, students will learn to formulate scientific hypotheses to contribute to effective solutions to environmental crises. During the course, the student will be guided in the research and analysis of the most recent scientific literature on the subject also with the aim of stimulating the development of learning ability.

Teacher's Profile

courseProgram

Impact of global change on the ecosystem with a special focus on forest communities
International environmental policy: convention on biological diversity, Agenda 2030 - the sustainable development goals -, Unesco (world heritage e MAB reserves), WHO’s one health framework, UNFCCC and the Paris agreement, the European green new deal: from farm to fork, EU Biodiversity strategy for 2030, Eu Forest Strategy
Conservation planning and actions for ecological transition: sustainable use of natural resources, restoration ecology, area-based conservation, rewilding,

examMode

The level of learning achieved and the relative ability to communicate it are monitored through questions and discussions during the lectures and the practical activities in the field and in the laboratory. In particular, the exercises are a fundamental moment of involvement of the students who are called to draw up a report partly on group work and, therefore, on subsequent insights conducted during the phase of the study and personal application.
In the oral test for the assignment of the final grade, the acquired level of knowledge, skills, and competence will be evaluated with particular reference to the critical understanding of the impact of global changes on ecosystems and of the possible solutions to mitigate the impact of climate change, conserve biodiversity and ecosystem services. In particular, the student's acquisition of the ability to apply in concrete cases - derived for example from exercises and the GIS laboratory - the concepts and methods acquired to monitor the impact of global change on ecosystems and propose effective solutions for the transition will be verified ecological.
The oral exam involves a discussion of the report, with in-depth analysis of at least three course topics, one of which can be chosen by the student

books

The didactic material consisting of slides and scientific articles will be available on the Moodle platform

mode

Classroom lessons, laboratory activities, field trips

classRoomMode

Though recommended, attendance to lessons is optional

bibliography

Perino, A., Pereira, H. M., Navarro, L. M., Fernández, N., Bullock, J. M., Ceaușu, S., ... & Wheeler, H. C. (2019). Rewilding complex ecosystems. Science, 364(6438), eaav5570.
Pettorelli, N., Durant, S. M., & Du Toit, J. T. (Eds.). (2019). Rewilding. Cambridge University Press.

Learning objectives

Objectives
The course aims to provide basic knowledge about the main geographical distribution patterns of organisms, from the global to the landscape scale, as well as the main historical processes involved in the formation and spatio-temporal evolution of these patterns. Emphasis will also be given to the application aspects of the discipline, in particular in the areas of biodiversity management and conservation in both continental and island contexts, environmental assessment, sustainable use of resources, landscape planning and public health.

Knowledge and understanding
At the end of the training, the student will acquire knowledge on animal and plant species distribution. The student will be able to analyze the pattern of species distribution, linking them to the main biogeographic and evolutionary processes involved. The student will know the distribution of the main endemic taxa at global scale.

Applied knowledge and understanding
At the end of the training, the student will be able to: analyze the classification of the biogeographical regions and the most important endemisms of these regions; recognize the main processes that determine the distribution of species; formulate sound and evidence based scientific questions.

Making judgments
At the end of the training, the student will be able to make a judgement on the evolutionary and biogeographic processes determining plant and animal species distribution.

Communication skills
The student will acquire an appropriate language in the different aspects of Biogeography and will be able to communicate the acquired knowledge.

Learning skills
The student will be able to autonomously develop a reasoning that leads to identify distribution patterns and to analyze the main processes involved.

Teacher's Profile

courseProgram

Biogeography, definitions and background; history of biogeography; zoogeography and phytogeography.
The distribution of species: concept of range and concept of species; geographical and ecological limits of species range; evolution of the species range through time; representation of the species range; distribution patterns and chorotypes; endemism and biodiversity hotspots.
Processes determining species distribution: dispersal and migration, speciation and vicariance, extinction, evolutionary radiation; biogeographical barriers and corridors.
Effect of climate change on species distribution: Pleistocene glacial cycles; glacial refuges; pre-Pleistocene climate changes; geological and climatic changes, continental drift.
Methods for studying biogeography: from fossils to genes; phylogeography.
The biogeographical regions: Palearctic, Nearctic, Neotropical, Afrotropical, Oriental, Australian, Antarctic; sub-regions, the western Palearctic and the Mediterranean region; transition zones, the Panama isthmus and the Wallacea.
Island biogeography: colonization, the species-area-distance relationships; insular equilibrium and turnover; the MacArthur-Wilson model; main features of insular species.
Introduction to Marine Biogeography.
Biogeography of the Italian fauna and flora: history, patterns, areas of biogeographical interest, refuges and hotspots, secondary contact zones.
Applied biogeography and conservation: the impact of human activities and climate change on species distribution; biological invasions; new frontiers of biogeography.

examMode

The oral exam will be carried out according to the "Regolamento didattico di Ateneo".

books

Lomolino, M. V., Riddle, B. R., & Whittaker, R. J. (2017). Biogeography. Sinauer.

mode

The course provides front-page lectures, interactive and supported by Power Point presentations and audio-visual material, discussion of case studies, critical discussion of scientific articles.

classRoomMode

Attendance to the course is not mandatory, but strongly recommended.

bibliography

Further material provided during the course.

Learning objectives

AIMS
The course aims to provide students with an advanced knowledge that would allow them to identify and understand the problems and methods typical of biodiversity conservation. Dealing with an applied discipline, the course will train students able to surf between the different levels of organization of biodiversity to identify the problems that underlie its loss and to identify the most effective solutions.

- Knowledge and Understanding
The students will acquire knowledge of the management strategies to face the various problems that impact biodiversity. This objective is reflected in the organization of the program which runs through the hierarchical scale of biodiversity organization, from the genetic level, to population and species up to the ecosystem and global levels.

- Applied Knowledge and Understanding
The knowledge acquired will be applied to the ecological mechanisms that allow evaluating the state and functioning of ecosystems and biodiversity. Comprehension abilities will be applied by encouraging students to deal with complex and multi-scalar disciplines and problems.

- Independent Evaluation
The ability to formulate independent evaluations will be exercised thanks to the interdisciplinary and multilevel reasoning required by this discipline and by the analysis of the case studies proposed, that need the merging of complex and heterogeneous data to be understood.

- Communication skills
These skills will be developed through the exercise of one's own expression (interventions during the lessons) and in the coordination of group activities, especially during field exercises.

- Ability to learn
The many concepts learned and the connections linking them all will stimulate a “learning-by-reasoning” process, essential to fully understand the ecological mechanisms involved in impacts identification and mitigation.

Teacher's Profile

courseProgram

• Introduction to Biodiversity
Biodiversity levels (genetics, species, ecosystems)
Causes of biodiversity loss
Biodiversity indices
• Conservation concepts
Principles of biodiversity conservation
Distribution of the biodiversity
Evil quartet and its role in the extinction process
• Genetic Diversity and Conservation
Evolutionary forces that create genetic variability
Parthenogenesis: the exception to the rule
Causes of loss of genetic variability
Problems of the small populations (extinction vortex)
Strategies for conserving genetic diversity
• Phenotypic Variability and Biodiversity Conservation
Phenotypic variability in population survival
Animal Personality and Biodiversity Conservation
• Human-induced impacts on Biodiversity
Global pollutants and their effects on biodiversity
Mitigation and adaptation strategies
• Case studies on the effects of anthropogenic pollutants on biodiversity
Terrestrial and aquatic ecosystems
• IUCN, biodiversity conservation and educational approaches
IUCN's role in biodiversity conservation: the Red Lists of Threatened Species
Biodiversity at school
• Conservation of Threatened Species and Habitat Management
Conservation approaches for threatened species
Reintroduction and transplantation programmes
Management of captive populations
Ecological networks and biotic corridors
Monitoring and evaluation of the effectiveness of conservation measures
Local communities and public awareness
• Conservation of Marine Biodiversity
Examples of successful and failed conservation projects
Case studies
Analysis of modern successes and challenges

examMode

Oral exam: principles and general concepts.

books

R.B. Primack, L. Boitani “Biologia della conservazione” Ed. Zanichelli

classRoomMode

Optional: attending both class lectures and exercises is not mandatory, but strongly recommended. Field exercises will be in presence only, with online material provided to students who won't join the field exercises.

bibliography

R.B. Primack, L. Boitani “Biologia della conservazione” Ed. Zanichelli

CHOICE GROUPSYEAR/SEMESTERCFUSSDLANGUAGE
OPTIONAL GROUP -18 - -
118946 - ENVIRONMENTAL IMPACT OF AGRO-ZOOTECHNICAL SYSTEMS

GIAMPIERO GROSSI

Third Year / First Semester 6AGR/19ita
118948 - SENSORS AND ELECTROMAGNETIC RISK

GIUSEPPE CALABRO'

Third Year / First Semester 6ING-IND/31ita
119718 - CLIMATOLOGY

SIMONE BONAMANO

Third Year / First Semester 6GEO/12ita
118944 - ENERGIES AND ENVIRONMENTAL PROTECTION

MAURIZIO CARLINI

Third Year / Second Semester 6ING-IND/09ita
118947 - HYDROLOGICAL RISK

ANDREA PETROSELLI

Third Year / Second Semester 6AGR/08ita
OPTIONAL GROUP -18 - -
119718 - CLIMATOLOGY

SIMONE BONAMANO

Third Year / First Semester 6GEO/12ita
118949 - BIOLOGICAL EVOLUTION

PAOLO FRANCHINI

Third Year / First Semester 6BIO/07ita
118950 - CLIMATE CHANGE AND REWILDING

GIANLUCA PIOVESAN

Third Year / Second Semester 6AGR/05ita
118951 -BIOGEOGRAPHY

ANDREA CHIOCCHIO

Third Year / Second Semester 6BIO/05ita
17516 - CONSERVAZIONE DELLE BIODIVERSITA'

GIOVANNI POLVERINO

Third Year / Second Semester 6BIO/07ita