LABORATORY AND MOLECULAR DIAGNOSTICS - MOLECULAR IMAGING Single channel
Chair (Coordinator) and Rapporteur: MARCO LUCARELLI
Module 1:
- Activity type
- Medicina di laboratorio e diagnostica
- SSD
- BIO/12
- Year
- N/D
- Semester
- N/D
- CFU
- 2
- Hours distribution
- 16 classroom hours
- Lecturers
- MARCO LUCARELLI
Module 2:
- Activity type
- Discipline biotecnologiche comuni, Attività formative affini o integrative
- SSD
- MED/04, MED/04
- Year
- N/D
- Semester
- N/D
- CFU
- 2
- Hours distribution
- 16 classroom hours
- Lecturers
- GIUSEPPE GIANNINI
Module 3:
- Activity type
- Medicina di laboratorio e diagnostica
- SSD
- MED/08
- Year
- N/D
- Semester
- N/D
- CFU
- 4
- Hours distribution
- 32 classroom hours
- Lecturers
- MARA RIMINUCCI
ALESSANDRO CORSI
GIAN LUCA RAMPIONI VINCIGUERRA
Module 4:
- Activity type
- Discipline medico-chirurgiche e riproduzione umana
- SSD
- MED/36
- Year
- N/D
- Semester
- N/D
- CFU
- 1
- Hours distribution
- 8 classroom hours
- Lecturers
- ALBERTO SIGNORE
Objectives
Laboratory and molecular diagnostics
Providing the foundation of knowledge of the general principles and techniques most commonly used in molecular diagnosis of human diseases.
Learning the principles and purposes of laboratory and molecular diagnostics in biotechnology applied to medical diagnostics. Understanding of the potential and limitations of the biomolecular approach, both qualitative and quantitative. Understanding of the purpose, potential, and limitations of high-throughput automated approaches. Practical application to specific genetic diseases.
Molecular diagnostics and imaging
Acquisition of the methodologies to choose the best and safest molecular diagnostic techniques for tissue application for the purpose of personalized cancer treatments.
The field of interest of “Pathology”
Distinction between “clinical” and “pathological diagnosis”
Awareness of the techniques commonly used for a histological diagnosis
Learning of basic notions on radioisotopes, radiopharmaceuticals and instrumentation for in vivo molecular imaging with radiolabelled or fluorescent probes.
Learning outcomes
Learning of principles and aims of laboratory, molecular and imaging diagnostics in the biotechnologies applied to medical diagnostics. Learning of the critical vision of the main application fields: infectious, genetic, neoplastic and inflammatory diseases, farmacogenomics.
Prerequisites
In order to understand properly the teaching content and to achieve the expected learning objectives, at the beginning of the didactic activity the student must possess the basic knowledge acquired during the frequency of previous courses in the field of cellular and molecular biology, biochemistry, embryology, anatomy, histology, general pathology and pathological anatomy.
Programme
Module:
General subjects.
Fundamentals of molecular medical diagnostics. The methodologies for studying structural and functional gene variations. Main instruments used in molecular medical diagnostics.
Specific subjects.
Potential and limits of the qualitative, quantitative and automated high throughput laboratory approach. Fundamentals of molecular medical diagnostics. Search and interpretation of DNA sequence variations. Use of molecular information for diagnostic, prognostic and therapeutic purposes. Concept of detection rate and mutational search of I, II, III and IV level. Nomenclature, classification and functional characterization of mutations. The epigenetic modifications of DNA. Structural, dynamic and functional aspects related to DNA methylation. DNA sequence variation search methodologies: ARMS, allelic discrimination, direct and reverse hybridization, PCR / OLA / SCS, minisequencing (SNaPshot). Automated DNA sequencing by cycle sequencing (Sanger method), pyrosequencing and next generation sequencing (NGS) approaches. Analysis of gene dosage: methodologies for investigating large deletions and duplications by MLPA. Automation in molecular and cellular diagnostics: liquid handlers, genetic analyzers, haematological analyzers and related software. Methods of DNA methylation analysis: HpaII / PCR, MS-MLPA, bisulfite / cloning / sequencing, RRBS, RLGS. Applications to molecular diagnosis of: pre-mRNA splicing diseases, cystic fibrosis, thalassemia, hemoglobinopathies, familial hypercholesterolemia, diseases of abnormal DNA methylation. Practical design and critical evaluation of molecular diagnostic tests.
Module:
Brief overview of genetic pathology. Review of the most relevant methodological achievements in molecular biology/molecular genetics.
Methods to detect structural and numerical chromosomal aberrations.
Methods to detect DNA rearrangements.
Methods to detect point mutations.
Set-up of pathology-related mutational screenings.
Evolution of Sequencing technologies.
Application of mutational screening approaches to different medical issues, with a particular focus on molecular oncology.
High throughput molecular methods in molecular oncology.
Module:
Molecular pathology and molecular diagnosis: general principles and techniques. Molecular analysis of formalin-fixed, paraffin embedded tissues. Papilloma Virus infection and human diseases: cellular and molecular mechanisms, natural history, pathology and molecular diagnosis. Role of molecular diagnosis in soft tissue sarcomas. Molecular analysis in the diagnosis and prognosis of tumors of the haematopoietic and lymhoid tissues. Molecular analysis in the diagnosis and study of genetic skeletal disease, in particular Fibrous dysplasia of bone.
Histological and molecular diagnosis of major malignant epithelial neoplasms: pancreatic ductal adenocarcinoma, non–small cell lung carcinoma, colorectal carcinoma, and breast carcinoma. Analysis of preneoplastic lesions, molecular pathogenesis, and the role of the tumor microenvironment. Study of histological markers of prognosis and therapeutic response. Insights into translational research, from bench to bedside.
Module:
Nuclear medicine instrumentation: key differences between nuclear medicine and radiology, collimators, linear scanners, gamma cameras, and PET.
Radiopharmaceuticals and radioisotopes: the concept of radiopharmaceuticals and notions of radiochemistry and radiopharmacology. Synthesis of the main iodinated and technetium radiopharmaceuticals. In vitro quality control of receptor imaging in oncology: examples of the preparation and use of radiopharmaceuticals for nuclear medicine diagnostics and therapy; production and use of FDG.
Receptor imaging in infectious diseases: examples of the synthesis of peptide and antibody radiopharmaceuticals for the study of various phases and histopathological aspects related to infectious processes; labeled antibiotics and the labeling of blood cell types.
Receptor imaging in endocrinology: functional imaging, with reference to the use of radiopharmaceuticals for the study of in vivo physiology and pathophysiology; commonly used radiopharmaceuticals for the study of endocrine function.
Other clinical applications of nuclear medicine, particularly in neurology, cardiology, and nephrology. Introduction to radioguided surgery.
Books
Module:
Molecular Diagnostic
W. B. Coleman, G. J. Tsongalis
Humana Press
Human Molecular Genetics
Strachan T, Read . P.
Garland Science
Specific scientific articles suggested by the teacher.
Module:
Molecular Diagnostic
W. B. Coleman, G. J. Tsongalis
Humana Press
Human Molecular Genetics
Strachan T, Read . P.
Garland Science
Module:
Bruns DE, Burtis CA, Ashwood ER. Fundamentals of Molecular Diagnostics. Sanders Elsevier.
Coleman WB, Tsongalis WB. Molecular Pathology. Academic Press.
Module:
Lecture notes and handouts provided by the teacher.
Bibliography
Module:
Scientific articles related to topics included in the program will be recommended as a study tool for integrative purposes to frontal lessons and adopted texts.
Module:
Specific scientific articles might be suggested by the teacher.
Module:
Scientific articles related to topics included in the program will be recommended for integrative purposes to frontal lessons and adopted texts.
Module:
Encyclopedia of Nuclear Medicine (Elsevier publisher; Signore A. Editor) volume 1 and 2
Lessons mode
The teaching is based essentially on frontal lessons characterized by a strong interactive component between the teacher and the students. Other teaching methods may include working groups or individual activities focused on the analysis of methods and results of publications in international scientific journals. There are practical sessions and exercises.
Frequency
Mandatory attendance. The attendance is checked by the teacher by using updated lists provided by the Academic Office that will be signed by the students. The certificate of attendance of the teaching course is required for the student to be admitted to the final test.
Exam mode
The assessment consists of an oral exam with questions related to the course program and takes into account: a) knowledge of the topics related to the questions; b) adequacy of the answer to each question based on the expected skills at the end of the course; c) the logic of the answers; d) use of an appropriate language.
Example exam questions
Laboratory diagnosis of Cystic Fibrosis.
Laboratory diagnosis of thalassemias.
Sanger DNA sequencing.
Next generation sequencing.
The MLPA.
Arguments
Module:
- Mutational search
- Sequencing (I generation)
- Sequencing (next generation)
- Characterization of sequence variants
- Haemochromocytometric exam
- Thalassemias and haemoglobinopathies
- Cystic Fiborsis
- Chromatin and DNA methylation
Module:
- Genetic diseases and mutations
- Methods for the identification of numerical and structural chromosomal aberrations
- Mutational screening approaches
- PCR, quantitative PCR and its applications in diagnostics
- Multiple Ligation Probe Amplification and other innovative methodologies applied to diagnostics in oncology
- Predictive and prognostic molecular diagnostics in oncology
- Tecniche di Next Generation Sequencing applicate alla diagnostica oncologica
Module:
- Molecular pathology and molecular diagnosis: general principles and techniques - 3 hours
- Molecular analysis of formalin-fixed, paraffin-embedded tissues - 2 hours
- Papilloma Virus infection and human pathology: cellular and molecular mechanisms, natural history, pathology and molecular diagnosis - 3 hours
- Role of molecular diagnosis in soft tissue sarcomas - 2 hours
- Molecular analysis in the diagnosis and prognosis of tumors of the hematopoietic system - 3 hours
- Molecular analysis in the diagnosis and study of genetic skeletal diseases, in particular Fibrous dysplasia of bone - 3 hours
- Histological and molecular aspects aimed at the diagnosis, prognosis and therapy of pancreatic ductal carcinoma. Translational research implications - 4 hours
- Histological and molecular aspects aimed at the diagnosis, prognosis and
therapy of non-small cell lung carcinoma. Translational research
implications - 4 hours - Histological and molecular aspects aimed at the diagnosis, prognosis and
therapy of colorectal carcinoma. Translational research
implications - 4 hours - Histological and molecular aspects aimed at the diagnosis, prognosis and
therapy of breast carcinoma. Translational research
implications - 4 hours
Module:
- Lessons in the second semester
Sustainability goals
- Academic year2026/2027
- Degree program to which the course belongsMedical Biotechnology
- Mandatory presenceNo
- Languageita
- CFU9 CFU, distributed among 4 integrated didactic modules
- Total duration72 hours