PATHOLOGY IMMUNOLOGY AND MOLECULAR BIOLOGY TECNIQUES Single channel
Chair (Coordinator) and Rapporteur: ISOTTA CHIMENTI
Module 1: GENERAL PATHOLOGY AND IMMUNOLOGY
- Activity type
- Discipline Mediche
- SSD
- MED/46
- Year
- 3rd year
- Semester
- 1st semester
- CFU
- 6
- Hours distribution
- 32 classroom hours, 40 laboratory hours
- Lecturers
- VITTORIO PICCHIO
ISOTTA CHIMENTI
Francesca PAGANO
Module 2: ADVANCED MOLECULAR BIOLOGY TECNIQUES
- Activity type
- Discipline Mediche
- SSD
- MED/04
- Year
- 3rd year
- Semester
- 1st semester
- CFU
- 6
- Hours distribution
- 48 classroom hours
- Lecturers
- DONATELLA PONTI
PAOLO ROSA
Learning outcomes
Students will learn the general principles and fundamental mechanisms of pathology and pathophysiology, with a particular focus on immunology. The module will also address advanced molecular biology techniques—covering diagnostics, basic research, and, above all, their integration with advanced cellular models. Additionally, the module will foster familiarity with scientific publishing and the critical reading of manuscripts from high-impact journals.
Prerequisites
Essential: Cell biology and molecular biology
Important: Biochemistry
Useful: Chemistry and physics
Programme
MODULE 1 – PATHOLOGY AND IMMUNOLOGY
General Pathology
Concepts of etiology and pathogenesis: causes of disease and biological mechanisms underlying disease development; chemical, physical, and biological pathogenic agents.
Cellular adaptations and cell death: hyperplasia, hypoplasia, hypertrophy, atrophy, metaplasia, dysplasia, and autophagy; necrosis and apoptosis.
Inflammation: acute and chronic inflammation; vascular and cellular events, microcirculation, exudate formation, chemotaxis, diapedesis, and phagocytosis; inflammatory mediators, cytokines, complement, and innate immune receptors; systemic effects of inflammation, fever, hyperthermia, and septic shock; chronic inflammation, role of macrophages, granulomas, fibrosis, and tissue repair.
Tumors: tumor initiation and progression; classification of benign and malignant tumors, grading and staging; cancer epidemiology, risk factors, and hereditary cancer syndromes; characteristics of malignant cells, uncontrolled proliferation, evasion of apoptosis, and metabolic reprogramming; tumor heterogeneity and cancer stem cells; invasion, angiogenesis, and metastasis; oncogenes, tumor suppressor genes, non-coding RNAs, and oxidative stress; chemical and viral carcinogenesis and cell cycle dysregulation.
Genetic diseases: chromosomal abnormalities, Mendelian inheritance, complex genetic disorders, and genotype-phenotype correlations.
Immunology
Structure and function of the immune system: primary and secondary lymphoid organs; major immune cell populations; coordination of local and systemic immune responses.
Innate immunity: physical and chemical barriers; complement system; acute-phase proteins; phagocytes; natural killer (NK) cells and innate lymphoid cells; pattern recognition receptors.
Humoral immunity: B-cell activation and differentiation and antibody production; immunoglobulin classes (IgM, IgG, IgA, IgE, and IgD); BCR signaling; T-dependent and T-independent responses; class switching and affinity maturation; antibody functions: neutralization, opsonization, and complement activation.
Cell-mediated immunity: helper T cells (Th1, Th2, Th17, and Treg), cytotoxic T cells, and memory T cells; antigen presentation through MHC class I and II molecules; antigen processing through proteasomes, phagolysosomes, and autophagy; T-cell activation and co-stimulation; cytokine production and major signaling pathways.
MODULE 2 – ADVANCED MOLECULAR BIOLOGY TECHNIQUES
Discovery and profiling techniques: introduction to omics technologies; principles and chemistry of sequencing and Next Generation Sequencing (NGS); human genomics and its applications; transcriptomics and analysis of coding and non-coding RNAs; single-cell sequencing; spatial omics; liquid biopsy and circulating DNA analysis; protein analysis techniques, proteomics, and arrays; circulating biomarkers.
Principles of bioinformatics analysis: Principal Component Analysis (PCA), heatmaps, and clustering; data representation and visualization using Venn and Sankey diagrams; Gene Ontology enrichment; network analysis and pathway analysis.
Gene interference and editing techniques: biology of non-coding RNAs and their biotechnological applications; gene expression vectors; genome editing technologies.
Laboratory activities: RNA extraction and quantification; reverse transcription; real-time PCR preparation and data analysis; antibody array protocol and data analysis; principles and application of a Next Generation Sequencing protocol in molecular diagnostics.
Books
Molecular Biology – Zlatanova, van Holde – 2018
Genetics and Genomics in Medicine – Strachan, Goodship, Chinnery
Molecular Biotechnology – Brown – 2nd edition, 2017
Basic Immunology, Shiv Pillai, Abul K. Abbas, Andrew H. Lichtman, Elsevier
Robbins, Basic Pathology, Kumar Abbas Aster, Elsevier Saunders
Bibliography
Scientific articles and material provided by the professor
Lessons mode
Lectures: traditional classes featuring slide presentations by the instructor.
Seminars: lectures will be supplemented by relevant seminars within the university network, should any arise during the course.
Laboratory experience: exposure to and interaction with research laboratories and key diagnostic techniques, including hands-on laboratory practice.
Group work: potential group workshops featuring dynamic discussions throughout the course.
Frequency
Not mandatory but highly recommended
Exam mode
A written exam in multiple-choice quiz format is required for all modules.
For the molecular biology module, an oral exam component is also included, but only after the written exam has been passed.
Example exam questions
1 - Describe the main mechanisms of acute and chronic inflammation, highlighting the role of immune cells and mediators and the possible pathological consequences.
2 - Describe the principles of Next Generation Sequencing (NGS) and discuss its main applications in genomics, transcriptomics, and molecular diagnostics.
3 - Describe the principles of genome editing technologies, with particular reference to the CRISPR/Cas9 system, and discuss their main applications in biomedical research and disease investigation.
4 - What are circulating biomarkers and liquid biopsy? Describe the main molecules that can be analyzed, the techniques used for their identification, and their possible applications in disease diagnosis and monitoring.
Arguments
- Concepts of etiology and pathogenesis: causes of disease and biological mechanisms underlying disease
development; chemical, physical, and biological pathogenic agents. - Cellular adaptations and cell death: hyperplasia, hypoplasia, hypertrophy, atrophy, metaplasia,
dysplasia, and autophagy; necrosis and apoptosis. - Structure and function of the immune
system: primary and secondary lymphoid organs;
major immune cell populations; coordination of local and systemic immune
responses.
Innate immunity: physical and chemical barriers; complement system; acute-phase
proteins; phagocytes; natural killer (NK) cells and innate lymphoid cells;
pattern recognition receptors. - Inflammation: acute and chronic inflammation; vascular and
cellular events, microcirculation, exudate formation, chemotaxis, diapedesis,
and phagocytosis; inflammatory mediators, cytokines, complement, and innate
immune receptors; - systemic effects of inflammation, fever,
hyperthermia, and septic shock; chronic inflammation, role of macrophages,
granulomas, fibrosis, and tissue repair. - introduction
to omics technologies; principles and chemistry of sequencing and Next
Generation Sequencing (NGS); human genomics and its applications; - Humoral immunity: B-cell activation and differentiation and antibody production;
immunoglobulin classes (IgM, IgG, IgA, IgE, and IgD); BCR signaling;
T-dependent and T-independent responses; class switching and affinity
maturation; antibody functions: neutralization, opsonization, and complement
activation. - Cell-mediated immunity: helper T cells (Th1, Th2, Th17, and Treg), cytotoxic T cells, and
memory T cells; antigen presentation through MHC class I and II molecules;
antigen processing through proteasomes, phagolysosomes, and autophagy; T-cell
activation and co-stimulation; cytokine production and major signaling
pathways. - Tumors: tumor initiation and progression;
classification of benign and malignant tumors, grading and staging; cancer
epidemiology, risk factors, and hereditary cancer syndromes; characteristics of
malignant cells, uncontrolled proliferation, evasion of apoptosis, and
metabolic reprogramming; - tumor heterogeneity and cancer stem
cells; invasion, angiogenesis, and metastasis; oncogenes, tumor suppressor
genes, non-coding RNAs, and oxidative stress; chemical and viral carcinogenesis
and cell cycle dysregulation. - transcriptomics and analysis of coding
and non-coding RNAs; single-cell sequencing; spatial omics; circulating biomarkers. - liquid biopsy and circulating DNA analysis; protein analysis techniques, proteomics, and arrays;
- Genetic diseases: chromosomal abnormalities, Mendelian inheritance, complex genetic
disorders, and genotype-phenotype correlations. - Principles of bioinformatics analysis: Principal Component Analysis (PCA), heatmaps, and clustering; data
representation and visualization using Venn and Sankey diagrams; Gene Ontology
enrichment; network analysis and pathway analysis. - Gene interference and editing
techniques: biology of non-coding RNAs and their
biotechnological applications; gene expression vectors; genome editing
technologies. - Laboratory
activities:
RNA extraction and quantification; reverse transcription; - Laboratory activities: antibody array protocol and data analysis
- Laboratory activities: real-time
PCR preparation and data analysis; - Laboratory activities: principles and application of a Next
Generation Sequencing protocol in molecular diagnostics.
Sustainability goals
- Academic year2026/2027
- Degree program to which the course belongsMolecular Biology, Medicinal Chemistry and Computer Science for Pharmaceutical Applications
- Mandatory presenceNo
- Languageeng
- CFU12 CFU, distributed among 2 integrated didactic modules
- Total duration120 hours