The Bioinformatics in Health Sciences course aims at presenting and providing practical training in the application of computational methodologies to the organization, analyses and comprehension of data generated in biological and health sciences research. By the end of the course the students will be able to identify situations where Bioinformatics is useful in the resolution of a specific problem and skilfully chose and implement the appropriate computational technique.
Acquire and update skills and knowledge in the various current domains in Health Law and understand the problems posed to society and the legislature in matters of Bioethics.
Genetics and molecular biology are fields of biology dedicated to understanding the molecular basis of heredity and gene expression. Researchers in these fields study how genetic information is transferred from one generation to the next and how genes regulate the development, growth, and function of cells and organisms. Recent developments in sequencing technologies and computational biology, and genome editing have revolutionized research in genetics and molecular biology, enabling the rapid analysis of vast amounts of data and uncovering critical genes and pathways involved in health and disease. These breakthroughs have significantly deepened our understanding of the mechanisms driving human diseases and are poised to transform medical care through personalized, host-oriented diagnostic and therapeutic strategies.
Participants in this course will explore the complexities of genomic organization, regulation of gene expression, and genetic manipulation, along with their effects on cellular functions. By mastering these concepts and techniques, participants will develop a solid foundation in genetics and molecular biology, equipping them with knowledge on the evolving fields of genetics and molecular biology and their transformative applications.
In recent years, significant advancements in neuroscience tools have provided researchers with a new in-depth perspective on brain function. Novel anatomical, optical, genetic, electrophysiological, and imaging approaches have opened new possibilities for investigating neuronal circuits.
This hands-on course offers advanced training on various tools used for the analysis of neuronal circuits, including neuronal tracing strategies, fiber photometry, calcium/sensor imaging with miniaturized microscopes, in vivo electrophysiology, and opto- and chemo-genetics. The course places a strong emphasis on how to design and develop a correct experiment using these tools, and on the appropriate controls, and on the limitations of these methodologies. This approach ensures that participants comprehend the strengths and limitations of each technique and can design, implement, and interpret experiments correctly. By the end of the course, students will have gained the basic skills and knowledge necessary to undertake innovative research projects in neuroscience.
