Biomedical Laboratory techniques - Roma Azienda Ospedaliera Sant’Andrea

Educational objectives

Macromolecular Competence: Studying the chemical structure and biological functions of proteins, nucleic acids, lipids, and carbohydrates.Structural Organization: Recognizing eukaryotic and prokaryotic cell architecture and identifying the role of individual organelles.Genetic Information Flow: Mastering the molecular mechanisms behind DNA replication, RNA transcription, and protein translation.Cellular Bioenergetics: Understanding metabolic pathways for energy production, including glycolysis, the Krebs cycle, and cellular respiration.Cell Cycle & Death: Analyzing the phases of mitosis, meiosis, and the genetic checkpoints regulating apoptosis (programmed cell death).Intercellular Communication: Deepening the understanding of chemical signaling pathways and transmembrane receptor functions.

Educational objectives

Macromolecular Competence: Studying the chemical structure and biological functions of proteins, nucleic acids, lipids, and carbohydrates.Structural Organization: Recognizing eukaryotic and prokaryotic cell architecture and identifying the role of individual organelles.Genetic Information Flow: Mastering the molecular mechanisms behind DNA replication, RNA transcription, and protein translation.Cellular Bioenergetics: Understanding metabolic pathways for energy production, including glycolysis, the Krebs cycle, and cellular respiration.Cell Cycle & Death: Analyzing the phases of mitosis, meiosis, and the genetic checkpoints regulating apoptosis (programmed cell death).Intercellular Communication: Deepening the understanding of chemical signaling pathways and transmembrane receptor functions.

Educational objectives

Macromolecular Competence: Studying the chemical structure and biological functions of proteins, nucleic acids, lipids, and carbohydrates.Structural Organization: Recognizing eukaryotic and prokaryotic cell architecture and identifying the role of individual organelles.Genetic Information Flow: Mastering the molecular mechanisms behind DNA replication, RNA transcription, and protein translation.Cellular Bioenergetics: Understanding metabolic pathways for energy production, including glycolysis, the Krebs cycle, and cellular respiration.Cell Cycle & Death: Analyzing the phases of mitosis, meiosis, and the genetic checkpoints regulating apoptosis (programmed cell death).Intercellular Communication: Deepening the understanding of chemical signaling pathways and transmembrane receptor functions.

Educational objectives

Tissue Organization (Histology): Recognizing the morphological characteristics, classification, and localization of primary human tissues (epithelial, connective, muscular, and nervous), while mastering cellular architecture at a microscopic level.Anatomical Architecture (Human Anatomy): Learning basic anatomical terminology and the structural organization of major organs and systems (with particular focus on the cardiovascular, respiratory, digestive, urinary, nervous, and musculoskeletal systems).Homeostatic Mechanisms (Physiology): Understanding how biological systems operate and how the human body maintains a constant internal environment (e.g., blood pressure regulation, gas exchange, renal filtration, and fluid balance).

Educational objectives

Tissue Organization (Histology): Recognizing the morphological characteristics, classification, and localization of primary human tissues (epithelial, connective, muscular, and nervous), while mastering cellular architecture at a microscopic level.Anatomical Architecture (Human Anatomy): Learning basic anatomical terminology and the structural organization of major organs and systems (with particular focus on the cardiovascular, respiratory, digestive, urinary, nervous, and musculoskeletal systems).Homeostatic Mechanisms (Physiology): Understanding how biological systems operate and how the human body maintains a constant internal environment (e.g., blood pressure regulation, gas exchange, renal filtration, and fluid balance).

Educational objectives

Tissue Organization (Histology): Recognizing the morphological characteristics, classification, and localization of primary human tissues (epithelial, connective, muscular, and nervous), while mastering cellular architecture at a microscopic level.Anatomical Architecture (Human Anatomy): Learning basic anatomical terminology and the structural organization of major organs and systems (with particular focus on the cardiovascular, respiratory, digestive, urinary, nervous, and musculoskeletal systems).Homeostatic Mechanisms (Physiology): Understanding how biological systems operate and how the human body maintains a constant internal environment (e.g., blood pressure regulation, gas exchange, renal filtration, and fluid balance).

Educational objectives

Tissue Organization (Histology): Recognizing the morphological characteristics, classification, and localization of primary human tissues (epithelial, connective, muscular, and nervous), while mastering cellular architecture at a microscopic level.Anatomical Architecture (Human Anatomy): Learning basic anatomical terminology and the structural organization of major organs and systems (with particular focus on the cardiovascular, respiratory, digestive, urinary, nervous, and musculoskeletal systems).Homeostatic Mechanisms (Physiology): Understanding how biological systems operate and how the human body maintains a constant internal environment (e.g., blood pressure regulation, gas exchange, renal filtration, and fluid balance).

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

Physics Applied to Medicine (2 ECTS): Understanding the physical principles (fluid mechanics, thermodynamics, optics, and electromagnetism) governing the operation of analytical equipment and laboratory measurement systems. Prevention and Biosafety (Hygiene and Occupational Medicine – 2 ECTS total): Mastering the regulatory framework for workplace safety (Legislative Decree 81/08). Identifying risk factors in healthcare settings and learning best practices to prevent cross-contamination or occupational accidents (needlestick injuries, cuts, exposure to xenobiotics). Quality Control and Laboratory Practice (2 ECTS): Introducing the fundamentals of Good Laboratory Practice (GLP) and the workflows for archiving, labeling, and initially processing biological samples. Computer Literacy (2 ECTS): Gaining proficiency in spreadsheets, database management, and information processing systems to effectively interact with Laboratory Information Systems (LIS) software. Radiation Protection and Imaging (Diagnostic Imaging – 1 ECTS): Understanding the physical principles and biosafety protocols associated with the use of ionizing and non-ionizing radiation, radioactive tracers, and diagnostic imaging techniques.

Educational objectives

General Etiology and Pathogenesis: Study the physical, chemical, and biological causes of cellular injury, understanding the distinctions between adaptation (hypertrophy, atrophy, metaplasia), cell death (necrosis and apoptosis), and intracellular accumulation. Inflammatory Processes (Inflammation): Master the mechanisms of acute inflammation (vascular inflammation) and chronic inflammation (tissue inflammation), the signaling molecules mediating inflammation, and the processes of tissue repair and regeneration. General Oncology: Understand the molecular basis of carcinogenesis, the morphological and biological distinctions between benign and malignant tumors, and the stages of the metastatic process. Basic Systemic Pathophysiology: Analyze major general pathophysiological conditions, such as the mechanisms of fever (pyrogens), shock, atherosclerosis, and hemodynamic alterations. Microbiology and Host-Parasite Interaction: Study the structure, replication, and pathogenicity of key microorganisms (bacteria and viruses), focusing on transmission routes and mechanisms of toxicity.

Educational objectives

General Etiology and Pathogenesis: Study the physical, chemical, and biological causes of cellular injury, understanding the distinctions between adaptation (hypertrophy, atrophy, metaplasia), cell death (necrosis and apoptosis), and intracellular accumulation. Inflammatory Processes (Inflammation): Master the mechanisms of acute inflammation (vascular inflammation) and chronic inflammation (tissue inflammation), the signaling molecules mediating inflammation, and the processes of tissue repair and regeneration. General Oncology: Understand the molecular basis of carcinogenesis, the morphological and biological distinctions between benign and malignant tumors, and the stages of the metastatic process. Basic Systemic Pathophysiology: Analyze major general pathophysiological conditions, such as the mechanisms of fever (pyrogens), shock, atherosclerosis, and hemodynamic alterations. Microbiology and Host-Parasite Interaction: Study the structure, replication, and pathogenicity of key microorganisms (bacteria and viruses), focusing on transmission routes and mechanisms of toxicity.

Educational objectives

General Etiology and Pathogenesis: Study the physical, chemical, and biological causes of cellular injury, understanding the distinctions between adaptation (hypertrophy, atrophy, metaplasia), cell death (necrosis and apoptosis), and intracellular accumulation. Inflammatory Processes (Inflammation): Master the mechanisms of acute inflammation (vascular inflammation) and chronic inflammation (tissue inflammation), the signaling molecules mediating inflammation, and the processes of tissue repair and regeneration. General Oncology: Understand the molecular basis of carcinogenesis, the morphological and biological distinctions between benign and malignant tumors, and the stages of the metastatic process. Basic Systemic Pathophysiology: Analyze major general pathophysiological conditions, such as the mechanisms of fever (pyrogens), shock, atherosclerosis, and hemodynamic alterations. Microbiology and Host-Parasite Interaction: Study the structure, replication, and pathogenicity of key microorganisms (bacteria and viruses), focusing on transmission routes and mechanisms of toxicity.

Educational objectives

General Etiology and Pathogenesis: Study the physical, chemical, and biological causes of cellular injury, understanding the distinctions between adaptation (hypertrophy, atrophy, metaplasia), cell death (necrosis and apoptosis), and intracellular accumulation. Inflammatory Processes (Inflammation): Master the mechanisms of acute inflammation (vascular inflammation) and chronic inflammation (tissue inflammation), the signaling molecules mediating inflammation, and the processes of tissue repair and regeneration. General Oncology: Understand the molecular basis of carcinogenesis, the morphological and biological distinctions between benign and malignant tumors, and the stages of the metastatic process. Basic Systemic Pathophysiology: Analyze major general pathophysiological conditions, such as the mechanisms of fever (pyrogens), shock, atherosclerosis, and hemodynamic alterations. Microbiology and Host-Parasite Interaction: Study the structure, replication, and pathogenicity of key microorganisms (bacteria and viruses), focusing on transmission routes and mechanisms of toxicity.

Educational objectives

General Etiology and Pathogenesis: Study the physical, chemical, and biological causes of cellular injury, understanding the distinctions between adaptation (hypertrophy, atrophy, metaplasia), cell death (necrosis and apoptosis), and intracellular accumulation. Inflammatory Processes (Inflammation): Master the mechanisms of acute inflammation (vascular inflammation) and chronic inflammation (tissue inflammation), the signaling molecules mediating inflammation, and the processes of tissue repair and regeneration. General Oncology: Understand the molecular basis of carcinogenesis, the morphological and biological distinctions between benign and malignant tumors, and the stages of the metastatic process. Basic Systemic Pathophysiology: Analyze major general pathophysiological conditions, such as the mechanisms of fever (pyrogens), shock, atherosclerosis, and hemodynamic alterations. Microbiology and Host-Parasite Interaction: Study the structure, replication, and pathogenicity of key microorganisms (bacteria and viruses), focusing on transmission routes and mechanisms of toxicity.

Educational objectives

Biomarker Evaluation: Understanding the clinical significance and metabolic pathways of major analytes in biological fluids (e.g., cardiac enzymes, renal and hepatic function markers, glucose, and lipid profiles).Mechanisms of Inheritance: Mastering the laws of Mendelian and non-Mendelian genetic transmission in humans, identifying inheritance patterns of single-gene and complex disorders.Molecular Genetics & Mutations: Recognizing the molecular bases of gene, chromosomal, and genomic mutations, and how they alter cellular and protein functions.Biochemical Pathophysiology: Correlating systemic metabolic alterations with their corresponding clinical manifestations (e.g., diabetes mellitus, dyslipidemias, and acid-base imbalances).

Educational objectives

Biomarker Evaluation: Understanding the clinical significance and metabolic pathways of major analytes in biological fluids (e.g., cardiac enzymes, renal and hepatic function markers, glucose, and lipid profiles).Mechanisms of Inheritance: Mastering the laws of Mendelian and non-Mendelian genetic transmission in humans, identifying inheritance patterns of single-gene and complex disorders.Molecular Genetics & Mutations: Recognizing the molecular bases of gene, chromosomal, and genomic mutations, and how they alter cellular and protein functions.Biochemical Pathophysiology: Correlating systemic metabolic alterations with their corresponding clinical manifestations (e.g., diabetes mellitus, dyslipidemias, and acid-base imbalances).

Educational objectives

Biomarker Evaluation: Understanding the clinical significance and metabolic pathways of major analytes in biological fluids (e.g., cardiac enzymes, renal and hepatic function markers, glucose, and lipid profiles).Mechanisms of Inheritance: Mastering the laws of Mendelian and non-Mendelian genetic transmission in humans, identifying inheritance patterns of single-gene and complex disorders.Molecular Genetics & Mutations: Recognizing the molecular bases of gene, chromosomal, and genomic mutations, and how they alter cellular and protein functions.Biochemical Pathophysiology: Correlating systemic metabolic alterations with their corresponding clinical manifestations (e.g., diabetes mellitus, dyslipidemias, and acid-base imbalances).

Educational objectives

Biomarker Evaluation: Understanding the clinical significance and metabolic pathways of major analytes in biological fluids (e.g., cardiac enzymes, renal and hepatic function markers, glucose, and lipid profiles).Mechanisms of Inheritance: Mastering the laws of Mendelian and non-Mendelian genetic transmission in humans, identifying inheritance patterns of single-gene and complex disorders.Molecular Genetics & Mutations: Recognizing the molecular bases of gene, chromosomal, and genomic mutations, and how they alter cellular and protein functions.Biochemical Pathophysiology: Correlating systemic metabolic alterations with their corresponding clinical manifestations (e.g., diabetes mellitus, dyslipidemias, and acid-base imbalances).

Educational objectives

Biomarker Evaluation: Understanding the clinical significance and metabolic pathways of major analytes in biological fluids (e.g., cardiac enzymes, renal and hepatic function markers, glucose, and lipid profiles).Mechanisms of Inheritance: Mastering the laws of Mendelian and non-Mendelian genetic transmission in humans, identifying inheritance patterns of single-gene and complex disorders.Molecular Genetics & Mutations: Recognizing the molecular bases of gene, chromosomal, and genomic mutations, and how they alter cellular and protein functions.Biochemical Pathophysiology: Correlating systemic metabolic alterations with their corresponding clinical manifestations (e.g., diabetes mellitus, dyslipidemias, and acid-base imbalances).

Educational objectives

Orientation in Professional Settings: Understanding the logistical organization, hierarchical structure, and various departments that make up a hospital clinical analysis laboratory. Application of Safety Standards (GLP): Putting into practice the theoretical concepts learned during the course on safety systems. Students must be able to use PPE (lab coats, gloves, face shields), recognize biohazard and chemical hazard signage, and apply procedures for the disposal of hazardous medical waste. Mastery of the Pre-Analytical Phase: Learning the crucial importance of biological sample intake, including verifying correct patient identification (barcodes), the suitability of containers or test tubes (choice of anticoagulant), and criteria for sample acceptance or rejection (e.g., detecting hemolysis). Use of Basic Instrumentation: Learning the correct use, routine maintenance, and cleaning of glassware and routine equipment, such as automatic pipettes (micropipettes), centrifuges, water baths, and optical microscopes.

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Clinical Pathology Overview: Understanding the biochemical, hematological, and immunological alterations that reflect a pathological state, and learning to interpret numerical report data in relation to reference values. Toxicology and Drug Monitoring: Learning analytical mechanisms for the identification, quantification, and screening of substances of abuse (drugs, alcohol) and drugs with a narrow therapeutic index (Therapeutic Drug Monitoring - TDM). Laboratory Automation: Studying the physical, chemical, and biological principles underlying large automated analyzers (wet and dry chemistry systems, advanced immunometry). Pre-analytical Phase and Sample Integrity: Recognizing critical pre-analysis factors, such as collection procedures, the selection of the appropriate anticoagulant (EDTA, Heparin, Citrate), and the identification of unsuitable samples (e.g., lipemic or icteric serum).

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Mastering Amplification and Sequencing Techniques: Thoroughly understand the theoretical principles and variants of PCR (Polymerase Chain Reaction) and RT-PCR (for RNA), as well as gene sequencing platforms (ranging from the Sanger method to Next-Generation Sequencing – NGS). Overview of Clinical Molecular Diagnostics: Identify genetic and molecular biomarkers for the early diagnosis, prognosis, and monitoring of oncological, infectious, and hereditary genetic diseases. Learning Medical and Experimental Statistics: Acquire the ability to collect, store, and summarize laboratory data using descriptive and inferential statistics (significance tests, t-tests, ANOVA, Chi-square tests, ROC curves). Setting Up and Managing Work Areas: Understand the logistical organization of a molecular biology laboratory, with a particular focus on the strict spatial separation of areas (Pre-PCR and Post-PCR) to eliminate the risk of amplicon contamination.

Educational objectives

Understand the general principles of organ and tissue pathology, focusing on disease-induced morphological changes (e.g., inflammation, degenerative processes, and neoplasms); master every stage of the tissue processing workflow: from fixation (selecting appropriate timing and reagents, such as buffered formalin) to dehydration, paraffin embedding, microtome sectioning, and routine staining (Hematoxylin-Eosin); learn advanced tissue-based applications, such as immunohistochemistry (IHC) using monoclonal/polyclonal antibodies and immunofluorescence for identifying oncological biomarkers; and understand the principles and methods of sample preparation for electron microscopy, which is essential for the detailed study of subcellular structures.

Educational objectives

Understand the general principles of organ and tissue pathology, focusing on disease-induced morphological changes (e.g., inflammation, degenerative processes, and neoplasms); master every stage of the tissue processing workflow: from fixation (selecting appropriate timing and reagents, such as buffered formalin) to dehydration, paraffin embedding, microtome sectioning, and routine staining (Hematoxylin-Eosin); learn advanced tissue-based applications, such as immunohistochemistry (IHC) using monoclonal/polyclonal antibodies and immunofluorescence for identifying oncological biomarkers; and understand the principles and methods of sample preparation for electron microscopy, which is essential for the detailed study of subcellular structures.

Educational objectives

Understand the general principles of organ and tissue pathology, focusing on disease-induced morphological changes (e.g., inflammation, degenerative processes, and neoplasms); master every stage of the tissue processing workflow: from fixation (selecting appropriate timing and reagents, such as buffered formalin) to dehydration, paraffin embedding, microtome sectioning, and routine staining (Hematoxylin-Eosin); learn advanced tissue-based applications, such as immunohistochemistry (IHC) using monoclonal/polyclonal antibodies and immunofluorescence for identifying oncological biomarkers; and understand the principles and methods of sample preparation for electron microscopy, which is essential for the detailed study of subcellular structures.

Educational objectives

Understand the general principles of organ and tissue pathology, focusing on disease-induced morphological changes (e.g., inflammation, degenerative processes, and neoplasms); master every stage of the tissue processing workflow: from fixation (selecting appropriate timing and reagents, such as buffered formalin) to dehydration, paraffin embedding, microtome sectioning, and routine staining (Hematoxylin-Eosin); learn advanced tissue-based applications, such as immunohistochemistry (IHC) using monoclonal/polyclonal antibodies and immunofluorescence for identifying oncological biomarkers; and understand the principles and methods of sample preparation for electron microscopy, which is essential for the detailed study of subcellular structures.

Educational objectives

Understand the general principles of organ and tissue pathology, focusing on disease-induced morphological changes (e.g., inflammation, degenerative processes, and neoplasms); master every stage of the tissue processing workflow: from fixation (selecting appropriate timing and reagents, such as buffered formalin) to dehydration, paraffin embedding, microtome sectioning, and routine staining (Hematoxylin-Eosin); learn advanced tissue-based applications, such as immunohistochemistry (IHC) using monoclonal/polyclonal antibodies and immunofluorescence for identifying oncological biomarkers; and understand the principles and methods of sample preparation for electron microscopy, which is essential for the detailed study of subcellular structures.

Educational objectives

Classification of Cytological Specimens: Distinguishing between different sample types, including exfoliative cytology (such as the Pap smear), body fluid cytology (pleural, peritoneal, urine, CSF), and fine-needle aspiration cytology (FNAC).Fixation and Preservation Protocols: Mastering the chemical properties of different fixatives (e.g., ethanol, spray fixatives) and selecting optimal protocols to prevent cell autolysis while preserving nuclear and cytoplasmic details.Staining Methodology: Learning the precise execution of specific cytological staining techniques, primarily the Papanicolaou stain (the gold standard for cervical screening), May-Grünwald-Giemsa (MGG) for air-dried smears, and Hematoxylin-Eosin (H&E).Ultrastructural Pathology Integration: Understanding how advanced digital morphometry and electron microscopy are applied to complement specialized cytological diagnoses.

Educational objectives

Classification of Cytological Specimens: Distinguishing between different sample types, including exfoliative cytology (such as the Pap smear), body fluid cytology (pleural, peritoneal, urine, CSF), and fine-needle aspiration cytology (FNAC).Fixation and Preservation Protocols: Mastering the chemical properties of different fixatives (e.g., ethanol, spray fixatives) and selecting optimal protocols to prevent cell autolysis while preserving nuclear and cytoplasmic details.Staining Methodology: Learning the precise execution of specific cytological staining techniques, primarily the Papanicolaou stain (the gold standard for cervical screening), May-Grünwald-Giemsa (MGG) for air-dried smears, and Hematoxylin-Eosin (H&E).Ultrastructural Pathology Integration: Understanding how advanced digital morphometry and electron microscopy are applied to complement specialized cytological diagnoses.

Educational objectives

Classification of Cytological Specimens: Distinguishing between different sample types, including exfoliative cytology (such as the Pap smear), body fluid cytology (pleural, peritoneal, urine, CSF), and fine-needle aspiration cytology (FNAC).Fixation and Preservation Protocols: Mastering the chemical properties of different fixatives (e.g., ethanol, spray fixatives) and selecting optimal protocols to prevent cell autolysis while preserving nuclear and cytoplasmic details.Staining Methodology: Learning the precise execution of specific cytological staining techniques, primarily the Papanicolaou stain (the gold standard for cervical screening), May-Grünwald-Giemsa (MGG) for air-dried smears, and Hematoxylin-Eosin (H&E).Ultrastructural Pathology Integration: Understanding how advanced digital morphometry and electron microscopy are applied to complement specialized cytological diagnoses.

Educational objectives

Classification of Cytological Specimens: Distinguishing between different sample types, including exfoliative cytology (such as the Pap smear), body fluid cytology (pleural, peritoneal, urine, CSF), and fine-needle aspiration cytology (FNAC).Fixation and Preservation Protocols: Mastering the chemical properties of different fixatives (e.g., ethanol, spray fixatives) and selecting optimal protocols to prevent cell autolysis while preserving nuclear and cytoplasmic details.Staining Methodology: Learning the precise execution of specific cytological staining techniques, primarily the Papanicolaou stain (the gold standard for cervical screening), May-Grünwald-Giemsa (MGG) for air-dried smears, and Hematoxylin-Eosin (H&E).Ultrastructural Pathology Integration: Understanding how advanced digital morphometry and electron microscopy are applied to complement specialized cytological diagnoses.

Educational objectives

Classification of Cytological Specimens: Distinguishing between different sample types, including exfoliative cytology (such as the Pap smear), body fluid cytology (pleural, peritoneal, urine, CSF), and fine-needle aspiration cytology (FNAC).Fixation and Preservation Protocols: Mastering the chemical properties of different fixatives (e.g., ethanol, spray fixatives) and selecting optimal protocols to prevent cell autolysis while preserving nuclear and cytoplasmic details.Staining Methodology: Learning the precise execution of specific cytological staining techniques, primarily the Papanicolaou stain (the gold standard for cervical screening), May-Grünwald-Giemsa (MGG) for air-dried smears, and Hematoxylin-Eosin (H&E).Ultrastructural Pathology Integration: Understanding how advanced digital morphometry and electron microscopy are applied to complement specialized cytological diagnoses.

Educational objectives

Emergency Lab Organization: Understanding the specialized logistics, workflows, and triage systems of a STAT (emergency) laboratory compared to routine testing facilities.Critical Biomarker Evaluation: Mastering the clinical significance, kinetic profiles, and diagnostic value of life-saving parameters (e.g., high-sensitivity Troponin for acute myocardial infarction, D-Dimer for pulmonary embolism, and Procalcitonin for sepsis).Pathophysiology of Shock and Imbalances: Comprehending the biological mechanisms driving critical medical emergencies, including septic and hemorrhagic shock, acute renal failure, and severe acid-base imbalances.Surgical and Medical Emergencies: Aligning laboratory testing priorities with the clinical needs of polytrauma patients or those presenting with acute abdomen syndrome.

Educational objectives

Emergency Lab Organization: Understanding the specialized logistics, workflows, and triage systems of a STAT (emergency) laboratory compared to routine testing facilities.Critical Biomarker Evaluation: Mastering the clinical significance, kinetic profiles, and diagnostic value of life-saving parameters (e.g., high-sensitivity Troponin for acute myocardial infarction, D-Dimer for pulmonary embolism, and Procalcitonin for sepsis).Pathophysiology of Shock and Imbalances: Comprehending the biological mechanisms driving critical medical emergencies, including septic and hemorrhagic shock, acute renal failure, and severe acid-base imbalances.Surgical and Medical Emergencies: Aligning laboratory testing priorities with the clinical needs of polytrauma patients or those presenting with acute abdomen syndrome.

Educational objectives

Emergency Lab Organization: Understanding the specialized logistics, workflows, and triage systems of a STAT (emergency) laboratory compared to routine testing facilities.Critical Biomarker Evaluation: Mastering the clinical significance, kinetic profiles, and diagnostic value of life-saving parameters (e.g., high-sensitivity Troponin for acute myocardial infarction, D-Dimer for pulmonary embolism, and Procalcitonin for sepsis).Pathophysiology of Shock and Imbalances: Comprehending the biological mechanisms driving critical medical emergencies, including septic and hemorrhagic shock, acute renal failure, and severe acid-base imbalances.Surgical and Medical Emergencies: Aligning laboratory testing priorities with the clinical needs of polytrauma patients or those presenting with acute abdomen syndrome.

Educational objectives

Emergency Lab Organization: Understanding the specialized logistics, workflows, and triage systems of a STAT (emergency) laboratory compared to routine testing facilities.Critical Biomarker Evaluation: Mastering the clinical significance, kinetic profiles, and diagnostic value of life-saving parameters (e.g., high-sensitivity Troponin for acute myocardial infarction, D-Dimer for pulmonary embolism, and Procalcitonin for sepsis).Pathophysiology of Shock and Imbalances: Comprehending the biological mechanisms driving critical medical emergencies, including septic and hemorrhagic shock, acute renal failure, and severe acid-base imbalances.Surgical and Medical Emergencies: Aligning laboratory testing priorities with the clinical needs of polytrauma patients or those presenting with acute abdomen syndrome.

Educational objectives

Emergency Lab Organization: Understanding the specialized logistics, workflows, and triage systems of a STAT (emergency) laboratory compared to routine testing facilities.Critical Biomarker Evaluation: Mastering the clinical significance, kinetic profiles, and diagnostic value of life-saving parameters (e.g., high-sensitivity Troponin for acute myocardial infarction, D-Dimer for pulmonary embolism, and Procalcitonin for sepsis).Pathophysiology of Shock and Imbalances: Comprehending the biological mechanisms driving critical medical emergencies, including septic and hemorrhagic shock, acute renal failure, and severe acid-base imbalances.Surgical and Medical Emergencies: Aligning laboratory testing priorities with the clinical needs of polytrauma patients or those presenting with acute abdomen syndrome.

Educational objectives

Placement in Core Laboratories: Gaining hands-on experience with analytical methods—previously studied in theory during second-year modules—by rotating primarily through the Clinical Biochemistry, Clinical Pathology, Hematology & Coagulation, and Microbiology/Virology departments. Automated Instrumentation Management: Learning to load, calibrate, and monitor large robotic analyzers under the supervision of a technical mentor, including interpreting key error messages (troubleshooting). Quality Control Execution: Applying internal quality control (IQC) sera on a daily basis and learning to compile and validate control charts to determine the reliability of an analytical run. Consolidation of Specialized Manual Skills: Performing precision manual procedures requiring high technical proficiency, such as preparing and staining peripheral blood smears, inoculating biological samples onto selective culture media, and setting up immunometric assays (ELISA

Educational objectives

Bacteriological Diagnostics: Learn the criteria for the collection, transport, and storage of clinical samples (blood cultures, urine, swabs) and master techniques for the isolation and biochemical/morphological identification of bacteria. Virological Diagnostics (MED/07): Understand direct and indirect methods for diagnosing viral infections by studying culture systems, antigen tests, and the detection of cytopathic effects. Microbiology Laboratory (MED/46): Gain technical proficiency in using state-of-the-art automated equipment for routine microbiological analysis and performing drug susceptibility tests. Clinical Parasitology (VET/06): Recognize the biological characteristics and life cycles of major human and animal parasites, while learning microscopic and culture-based techniques for identifying protozoa and helminths in biological samples.

Educational objectives

Bacteriological Diagnostics: Learn the criteria for the collection, transport, and storage of clinical samples (blood cultures, urine, swabs) and master techniques for the isolation and biochemical/morphological identification of bacteria. Virological Diagnostics (MED/07): Understand direct and indirect methods for diagnosing viral infections by studying culture systems, antigen tests, and the detection of cytopathic effects. Microbiology Laboratory (MED/46): Gain technical proficiency in using state-of-the-art automated equipment for routine microbiological analysis and performing drug susceptibility tests. Clinical Parasitology (VET/06): Recognize the biological characteristics and life cycles of major human and animal parasites, while learning microscopic and culture-based techniques for identifying protozoa and helminths in biological samples.

Educational objectives

Bacteriological Diagnostics: Learn the criteria for the collection, transport, and storage of clinical samples (blood cultures, urine, swabs) and master techniques for the isolation and biochemical/morphological identification of bacteria. Virological Diagnostics (MED/07): Understand direct and indirect methods for diagnosing viral infections by studying culture systems, antigen tests, and the detection of cytopathic effects. Microbiology Laboratory (MED/46): Gain technical proficiency in using state-of-the-art automated equipment for routine microbiological analysis and performing drug susceptibility tests. Clinical Parasitology (VET/06): Recognize the biological characteristics and life cycles of major human and animal parasites, while learning microscopic and culture-based techniques for identifying protozoa and helminths in biological samples.

Educational objectives

Bacteriological Diagnostics: Learn the criteria for the collection, transport, and storage of clinical samples (blood cultures, urine, swabs) and master techniques for the isolation and biochemical/morphological identification of bacteria. Virological Diagnostics (MED/07): Understand direct and indirect methods for diagnosing viral infections by studying culture systems, antigen tests, and the detection of cytopathic effects. Microbiology Laboratory (MED/46): Gain technical proficiency in using state-of-the-art automated equipment for routine microbiological analysis and performing drug susceptibility tests. Clinical Parasitology (VET/06): Recognize the biological characteristics and life cycles of major human and animal parasites, while learning microscopic and culture-based techniques for identifying protozoa and helminths in biological samples.

Educational objectives

Pathophysiology of Blood and Bone Marrow: Study cell differentiation lineages (erythropoiesis, leukopoiesis, thrombopoiesis) and understand the pathological profiles of anemias, acute and chronic leukemias, and myeloproliferative disorders. Red Blood Cell Immunohematology: Master the genetics, structure, and clinical significance of blood group systems (primarily the ABO and Rh systems, including variants), which are essential for transfusion safety. Pathophysiology of Hemostasis: Examine in depth the biochemical mechanisms of coagulation (intrinsic, extrinsic, and common pathways), fibrinolysis, and platelet function, which are useful for diagnosing hemorrhagic or thrombophilic conditions.

Educational objectives

Pathophysiology of Blood and Bone Marrow: Study cell differentiation lineages (erythropoiesis, leukopoiesis, thrombopoiesis) and understand the pathological profiles of anemias, acute and chronic leukemias, and myeloproliferative disorders. Red Blood Cell Immunohematology: Master the genetics, structure, and clinical significance of blood group systems (primarily the ABO and Rh systems, including variants), which are essential for transfusion safety. Pathophysiology of Hemostasis: Examine in depth the biochemical mechanisms of coagulation (intrinsic, extrinsic, and common pathways), fibrinolysis, and platelet function, which are useful for diagnosing hemorrhagic or thrombophilic conditions.

Educational objectives

Pathophysiology of Blood and Bone Marrow: Study cell differentiation lineages (erythropoiesis, leukopoiesis, thrombopoiesis) and understand the pathological profiles of anemias, acute and chronic leukemias, and myeloproliferative disorders. Red Blood Cell Immunohematology: Master the genetics, structure, and clinical significance of blood group systems (primarily the ABO and Rh systems, including variants), which are essential for transfusion safety. Pathophysiology of Hemostasis: Examine in depth the biochemical mechanisms of coagulation (intrinsic, extrinsic, and common pathways), fibrinolysis, and platelet function, which are useful for diagnosing hemorrhagic or thrombophilic conditions.

Educational objectives

Pathophysiology of Blood and Bone Marrow: Study cell differentiation lineages (erythropoiesis, leukopoiesis, thrombopoiesis) and understand the pathological profiles of anemias, acute and chronic leukemias, and myeloproliferative disorders. Red Blood Cell Immunohematology: Master the genetics, structure, and clinical significance of blood group systems (primarily the ABO and Rh systems, including variants), which are essential for transfusion safety. Pathophysiology of Hemostasis: Examine in depth the biochemical mechanisms of coagulation (intrinsic, extrinsic, and common pathways), fibrinolysis, and platelet function, which are useful for diagnosing hemorrhagic or thrombophilic conditions.

Educational objectives

Comprensione delle Patologie Genetiche: Studiare le basi molecolari, i meccanismi di insorgenza e le modalità di trasmissione (autosomica, legata ai cromosomi sessuali o mitocondriale) delle malattie genetiche umane, sia monogeniche (es. fibrosi cistica) sia cromosomiche (es. sindromi da aneuploidia).Inquadramento della Genetica Oncologica: Comprendere le alterazioni genetiche somatiche e germinali alla base dello sviluppo dei tumori e l'importanza dell'identificazione di mutazioni per le terapie mirate.Consulenza e Screening: Apprendere il significato clinico dei test genetici diagnostici, presintomatici, di screening neonatale e di screening prenatale (sia invasivi che non invasivi).

Educational objectives

Comprensione delle Patologie Genetiche: Studiare le basi molecolari, i meccanismi di insorgenza e le modalità di trasmissione (autosomica, legata ai cromosomi sessuali o mitocondriale) delle malattie genetiche umane, sia monogeniche (es. fibrosi cistica) sia cromosomiche (es. sindromi da aneuploidia).Inquadramento della Genetica Oncologica: Comprendere le alterazioni genetiche somatiche e germinali alla base dello sviluppo dei tumori e l'importanza dell'identificazione di mutazioni per le terapie mirate.Consulenza e Screening: Apprendere il significato clinico dei test genetici diagnostici, presintomatici, di screening neonatale e di screening prenatale (sia invasivi che non invasivi).

Educational objectives

Comprensione delle Patologie Genetiche: Studiare le basi molecolari, i meccanismi di insorgenza e le modalità di trasmissione (autosomica, legata ai cromosomi sessuali o mitocondriale) delle malattie genetiche umane, sia monogeniche (es. fibrosi cistica) sia cromosomiche (es. sindromi da aneuploidia).Inquadramento della Genetica Oncologica: Comprendere le alterazioni genetiche somatiche e germinali alla base dello sviluppo dei tumori e l'importanza dell'identificazione di mutazioni per le terapie mirate.Consulenza e Screening: Apprendere il significato clinico dei test genetici diagnostici, presintomatici, di screening neonatale e di screening prenatale (sia invasivi che non invasivi).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Corporate Organization and Management: Understanding the architecture of the Italian healthcare system, funding models, resource management (human and financial), and efficiency and effectiveness criteria applied to diagnostic analysis laboratories. Healthcare Law and Ethics: Learning the regulatory framework governing the Biomedical Laboratory Technician profession, specifically defining professional autonomy, the scope of criminal and civil liability, and regulations regarding professional confidentiality and patient privacy (GDPR). Bioethics and Professional Ethics: Analyzing ethical dilemmas associated with biomedical sciences (e.g., genetic data management, informed consent, clinical trials) and internalizing the profession's code of ethics. Human Sciences and Relational Psychology: Developing communication and interpersonal skills to work effectively within multidisciplinary teams (interacting with physicians, biologists, and nurses) and to manage work-related stress (burnout).

Educational objectives

Development of Manual Skills and Instrumentation Use: Translating scientific principles into precise technical actions, while learning to operate and calibrate basic laboratory equipment (automatic pipettes, centrifuges, microscopes, analytical balances, laminar flow hoods). Risk Management and Safety (GLP): Internalizing and strictly applying Good Laboratory Practice (GLP) standards, the correct use of Personal Protective Equipment (PPE), and procedures for handling biological, chemical, and radioactive waste. Workflow Understanding: Learning the organization of key laboratory stages, with a focus on the importance of the pre-analytical phase (sample reception, acceptance and rejection criteria, barcode labeling) to eliminate clinical risk. Quality Control and Traceability: Understanding the dynamics of Internal Quality Control (IQC) and External Quality Assessment (EQA), ensuring complete data traceability from the moment of sample collection through to technical validation.

Educational objectives

lective activities allow you to customize your academic path by focusing on specialized topics not thoroughly covered in the mandatory curriculum. The core objectives include:Skill Expansion: Diving deeper into cutting-edge diagnostic methodologies or niche laboratory sectors.Multidisciplinary Integration: Attending specific seminars focused on complex pathologies, advanced data interpretation, or applied bioethics.Professional Orientation: Aligning your final year of study with the specific laboratory fields where you plan to launch your career.

Educational objectives

Scientific Text Comprehension (Reading): Develop the ability to read, understand, and critically analyze international scientific literature, laboratory equipment manuals, and global health guidelines. Acquisition of Specialized Vocabulary (Medical/Scientific English): Learn technical terminology specific to the biomedical sector (e.g., names of cellular compartments, biochemical processes, pathologies, laboratory glassware, reagents, and diagnostic acronyms such as PCR, NGS, and ELISA). Oral Comprehension of Scientific Content (Listening/Speaking): Be able to follow scientific seminars, conferences, and video tutorials—conducted in English—regarding the use of new automated analytical platforms.

Educational objectives

Purpose: It provides mandatory lecture cycles on core professional topics such as workplace safety regulations, updated healthcare guidelines, and complex clinical case discussions.Organization: The scheduling and topics are fixed and managed directly by your Degree Course Council for the entire academic year.

Educational objectives

Rotation in Advanced Laboratories: Gain experience with state-of-the-art methodologies by rotating through the following sectors: Anatomic Pathology and Cytopathology, Medical Genetics and Cytogenetics, Advanced Molecular Biology, and Transfusion Centers (SIMT). Full Operational Autonomy: Demonstrate the ability to independently manage the entire analytical process (from sample check-in to technical data validation) and apply internal and external quality controls (VEQ) to authorize the release of results to the information system. Integration with Scientific Research: Develop the ability to collect, process, and critically interpret experimental data. This objective is often linked to data collection for one's experimental thesis.

Educational objectives

Objective: To demonstrate the ability to apply operational protocols safely. Content: May consist of a discussion of a clinical-analytical case, the interpretation of traces or laboratory graphs (e.g., quality control charts, electrophoretic traces), or a detailed description of a technical procedure (e.g., steps for tissue embedding, setting up a PCR, reading a blood smear). Outcome: Passing the practical test is a mandatory requirement for proceeding to the thesis defense.