Chemistry and biochemistry, biology and genetics 4Module Biology and genetics
Academic Year 2026/2027 - Teacher: BARBARA TOMASELLOExpected Learning Outcomes
The course in Biology and Genetics aims to provide a comprehensive and up-to-date knowledge of the fundamental concepts of Biology and Genetics, useful for understanding the organization and functioning of the cell, the mechanisms underlying heredity and the expression of gene information, complementing them also with references to applications so as to complete the view of the overall biological picture.
Dublin Descriptors
a. Knowledge and
understanding
The student will acquire fundamental and up-to-date knowledge of Biology and
Genetics, with particular reference to cell organization and function, cell
division, heredity, and the expression and regulation of genetic information.
The student will understand the main biological mechanisms underlying
physiological and pathological processes.
b. Applying
knowledge and understanding
The student will be able to apply the acquired biological and genetic knowledge
to the understanding of physiological and pathological phenomena, interpreting
simple situations and problems of biomedical and nursing interest. The student
will also be able to recognize the main implications of genetic knowledge in
healthcare practice.
c. Making
judgements
The student will develop the ability to critically evaluate biological and
genetic information, distinguishing scientifically supported concepts from
information that is not adequately evidence-based. The student will be able to
use the acquired knowledge to formulate assessments consistent with the main
scientific evidence, also in relation to healthcare-related issues.
d. Communication
skills
The student will be able to correctly use the scientific language of Biology
and Genetics and communicate biological and genetic concepts and information
clearly and appropriately. The student will also be able to interact
effectively with other healthcare professionals, using terminology appropriate
to the healthcare setting.
e. Learning skills
The student will develop the skills necessary to independently deepen their
knowledge of biological and genetic topics, integrating the acquired knowledge
with that of other subjects within the degree programme. The student will be
able to update their knowledge through the consultation of scientific sources
and use the acquired skills as a foundation for their subsequent academic and
professional development.
Course Structure
Required Prerequisites
Attendance of Lessons
The rights of working students and students with disabilities are protected.
Detailed Course Content
2. Organic macromolecules: proteins;
3. Organic macromolecules: nucleic acids;
4. DNA, chromatin and chromosomes;
5. Structure and function of genes;
6. Transcription in eukaryotes and prokaryotes;
7. Translation in eukaryotes and prokaryotes;
8. DNA duplication in eukaryotes and prokaryotes;
9. Mitosis and Meiosis;
10. Point mutations and Chromosomal aberrations;
11. The Cell Membrane: structure and transport mechanisms;
12. Oncogenes, Oncosuppressors and Cancer;
13. Hints of Mendelian and human genetics.
Textbook Information
1) Biologia e Genetica. G. De Leo, S. Fasano, E. Ginelli. Ed. EdiSES (IV Edizione)
2) Fondamenti di biologia e genetica. Riccardo Pierantoni, Gilda Cobellis, Rosaria Meccariello. Ed.EdiSES
Course Planning
| Subjects | Text References | |
|---|---|---|
| 1 | Biological Macromolecules | Text 1_chapter 1; Text 2-chapter 2 |
| 2 | Eukaryotic and Prokaryotic Cells | Text 1_chapter 2; Text 2-chapter 3 |
| 3 | DNA, chromatin and chromosomes | Text 2 Chapters 1 and 10 |
| 4 | Structure and function of genes | Text 1_chapter 4; Text 2_Chapter 10 |
| 5 | Transcription in eukaryotes and prokaryotes | Text 1_Chapter 4; text 2-chapter 5 |
| 6 | Translation in eukaryotes and prokaryotes | Text 1_ch 4; Text 2_ch 5 |
| 7 | DNA duplication in eukaryotes and prokaryotes | Text 1 Ch. 4; Text 2 Ch. 5 |
| 8 | Mitosis and Meiosis | Text 1 Ch. 7; Text 2 Ch. 6 |
| 9 | Point Mutations and Chromosomal Aberrations | Text 1 Ch. 9; Text 2 Ch. 11 |
| 10 | The Cellular Membrane | Text 1 ch 6; Text 2 ch 3-4 |
| 11 | Oncogenes, Oncosuppressants, and Cancer | Text 1 ch 7; text 2_ ch 6 |
| 12 | Mendelian and human genetics | Text 1 ch 10; Text 2 ch 9 |
Learning Assessment
Learning Assessment Procedures
Oral Examination and/or Written Examination (multiple choice questions).
Assessment criteria
Fail
Severely insufficient knowledge, with significant gaps in fundamental concepts.
Limited ability to understand the main biological and genetic processes, with
unclear or inaccurate presentation.
18–20
Basic and partial knowledge of the main topics. Limited understanding of
biological and genetic processes, with only minimally adequate ability to
describe them and some inaccuracies in presentation.
21–23
Adequate overall knowledge of the fundamental topics. Fair understanding of the
main biological and genetic processes and sufficient ability to describe their
mechanisms and significance.
24–26
Good knowledge and understanding of the topics. Good ability to describe and
interpret the main biological and genetic processes, using scientific
terminology appropriately and establishing a solid foundation for understanding
other subjects.
27–29
Thorough and well-structured knowledge of the course contents. Strong ability
to understand, analyse and describe biological and genetic processes, with good
command of scientific terminology and a solid basic preparation for the
subsequent stages of the degree programme.
30–30 cum laude
Excellent preparation, demonstrating full command of the course contents and
outstanding abilities in understanding, analysing and synthesizing information.
The student demonstrates an in-depth knowledge of biological and genetic
mechanisms and a strong ability to explain and discuss the topics, providing a
particularly solid foundation for learning subsequent subjects. The distinction
cum laude is awarded to students who demonstrate particularly
thorough, independent and critical knowledge.
Examples of frequently asked questions and / or exercises
Gene mutations
The eucoriotic cell
The genetic code
Synthesis and maturation of mRNA
Translation
Cell membranes and transport mechanisms