Master's Degree Courses


The course provides the student with advanced knowledge of biomaterials that associate their chemical and physical functions to biomedical functions. Biomolecular techniques and those for micro and nano characterization of biomaterials as scanning electron microscopy (sem), transmission electron microscopy (tem), focused ion beam (fib) coupled with sem for micro and nano manufacturig, energy dispersive spectroscopy (eds), residual stress analysis, atomic force microscopy (afm), scanningtunnelling microscopy (stm), scanning capacitance microscopy (scm) will be presented and proposed to test the advanced interactions of biomaterials with biological tissues.

To acquire in-depth skills on a selection of relevant topics in the field of practice and research in bioengineering. To be able to design and conduct experimental and methodological activities in the areas of application and research in the biomedical sector.

To learn the foundations of bioelectromagnetics finalized to the analysis of the electromagnetic interactions among the biological systems and the electromagnetic field. To model absorption and scattering phenomena in living systems in order to protect the natural environment against the elecromagnetic pollution.

The course aims to provide students with the tools necessary to approach the study of elementary chemical processes and materials covered in this course, as well from a theoretical as from a practical point of view.

The course aims to provide students with the tools necessary to approach the study of elementary chemical processes and materials covered in this course, as well from a theoretical as from a practical point of view.

Knowing how to identify the biomechanical model of the human body and be able to determine the most appropriate geometric and inertial parameters. Know the conceptual and mathematical tools useful for representing human motion in virtual reality and to describe joint kinematics. Being able to estimate the joint moments and forces acting on the hard and soft passive tissues transmitted by the muscles during movement. Being able to describe a motor act using the language of the mechanical work and energy. Know basic mechanical properties of soft and hard biological tissues. Understanding the biomechanics of human joints and spine. Know the biomechanics of physical activities of daily living such as walking, climb and descent of stairs, getting up and sitting etc.. Know the basic biomechanical principles to describe and evaluate sports paradigmatic gestures (jumping, throwing, hitting). Being familiar with the tools that allow the measurement of human movement and external forces. Be familiar with the laboratory.

The aim is the acquisition of the competencies for the processing and the classification of the biomedical signals. The students will be trained to understand the connections among the different techniques of signal processing. Special attention will be devoted to the extension of the signal processing competencies to the biomedical field.

The Course provides the fundamentals of biophotonics, and biophotonic systems, devices and instruments. Their design, fabrication and applications are considered, evidencing the cutting-edge between biology and photonics. The course content covers: lasers and their applications in medicine, laser tweezer, fiber optical sensors, tissue optics for bio-medical diagnostics, photo-acoustic imaging, confocal and multiphoton microscopy, optical tomography, nanoscopy for cell imaging, molecular imaging based on optical methods, optical coherence tomography and coherence domain optical methods in biomedicine.

First Module: Let the student know the essentials elements of the structure and function of cells and tissues, and of the main organs and body systems.

Second module: let the student know the fundamentals of Biochemistry.

The present subject deals with methods for safety and performance quality evaluation of devices for therapy and diagnosis. Moreover, the organization and management of a clinical engineering service will be examined in the perspective of the maintenance of biomedical devices, within the italian health system.

The aim is the development o f the specific competencies for the study of the biological systems from the bioengineering point of view. The presented approach deals with the chain biological system-model-measurement and is devoted to specific applications such as the diagnosis, the therapy, the rehabilitation, the ergonomics and the sport medicine. The aim is the acquisition of the competencies for the use of the biomedical instrumentation contained in a human movement laboratory. The students will be exposed to the main hardware and software tools needed to i) design measurement chains, ii) define the population under exam, iii) extract the information from the recorded data.

The aim is the development o f the specific competencies for the study of the biological systems from the bioengineering point of view. The presented approach deals with the chain biological system-model-measurement and is devoted to specific applications such as the diagnosis, the therapy, the rehabilitation, the ergonomics and the sport medicine. The aim is the acquisition of the competencies for the use of the biomedical instrumentation contained in a human movement laboratory. The students will be exposed to the main hardware and software tools needed to i) design measurement chains, ii) define the population under exam, iii) extract the information from the recorded data.

The course aims at: 1) presenting a comprehensive framework of the technologies commonly used in healtcare, with specific reference to imaging systems, used for diagnostic purposes and for treatment, and 2) giving the fundamentals for the management of data for the diagnosis and for the assessment of treatments.

To gain specific knowledge in theories, methods and technologies for understanding and analysing the functionality of the human nervous system. In particular, the course gives practical examples of applications in the field of assistive technologies in disability, like brain computer interfaces and neuroprosthetics.

To acquire fundamental knowledges on digital operations to analyze discrete signals in biomedical environments. To link different operating blocks in one complex system for analysis and processing. To provide an overview of some typical application of biomedical signals for processing and transmission, by a short description of main operating concepts.

   Signal Processing for Biomedical Engineering Offical Website

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