Bioelectromagnetic Interaction I Single channel
Chair (Coordinator) and Rapporteur: MICAELA LIBERTI
Lecturers
Objectives
KNOWLEDGE AND UNDERSTANDING.
Knowledge of the methodological instruments and of the fundamental topics related to bioelectromagnetism in order to process and transfer information (interaction of EM fields with molecular structure, in particular aqueous solutions and cells, EM techniques oriented to evaluate fields induced in exposed tissues, physiological reactions of biological systems to EM stimulation, rationale and basic concepts of exposure safety standards), issues that also represent the ground for subsequent more specialized courses in the same scientific sector.
CAPABILITY TO APPLY KNOWLEDGE AND UNDERSTANDING.
Ability in the processing of the bioelectromagnetic modelling in an application-oriented viewpoint, in order to predict the main phenomena related to the use of the electromagnetic fields on human being, organs, tissues, and cellular structures.
MAKING AUTONOMOUS JUDGEMENTS.
Valid potential of critical analysis on the fundamental applicative issues related to the use of the electromagnetic fields in presence of human subject.
COMMUNICATE SKILLS.
Acquisition of adequate awareness for the dissemination of the technical knowledge reached in the sector of the bioelectromagnetism.
LEARNING SKILLS.
Gradual achievement and extension of a knowledge level useful for the education of a professional figure in the field of human safety respect to the human exposure to EM fields in complex environment.
Learning outcomes
Upon passing the exam, students will have an overview of the interaction between biological systems particularly humans and low and high frequency electromagnetic fields.
They will be able to assess exposure situations in relation to human health and will know how to use the software and measurement techniques necessary for such an assessment. They will be prepared to use the topics covered in the course as risk assessment guidelines for new electromagnetic technologies.
Prerequisites
none is required
Programme
EM PROPERTIES of TISSUES
Properties of tissues
Polarization mechanisms - counterions
Polarization mechanisms - interface
Polarization mechanisms - pol dipolar and Lorentz model
Tissue properties examples
LAB: MATLAB EM properties of tissues database and implementation Cole and Cole model
LAB: MATLAB mixture theory
ACCOMPANYING MECHANISMS and ANALYTIC DOSIMETRY.
Mechanisms induced fields
Analytical Dosimetry
NUMERICAL METHODS and NUMERICAL DOSIMETRY
FDTD method
FEM Method
Applications of numerical dosimetry
LAB: Using Software Sim4Lite SAR in a Prolate Ellipsoid
LAB: Using Software Sim4Lite SAR in an anthropomorphic model
PROTECTIVE REGULATIONS
Scientific Bases of the Standards
Protection Values of the Standards
Books
Lecturer's handouts and some reference review papers, all materials are available on th elearning site related to the course.
Lessons mode
Teaching will be carried out by addressing the 4 main topics in a serial fashion,
as far as possible each topic covered in theory will be followed by a practical or simulative laboratory exercise.
Students will be provided with the ability to use on cloud an academic license of Sim4lite
useful for the exercises.
Various digital technologies for teaching will be integrated as far as possible
Frequency
Not mandatory but recommended
Exam mode
TWO PARTS that contribute equally to the final grade:
1) LOGBOOK of LAB experiences
2) An oral question drawn from the entire program.
Overall, the examination is designed to assess the level the student has reached in acquiring the skills described in the learning objectives, with particular reference to:
(a) understanding of the concepts conveyed during the lectures, not only from a theoretical point of view but also with reference to application problems;
(b) ability to learn and organize concepts;
(d) accuracy and precision of exposition.
Example exam questions
Frequency properties of tissues
polarization from counterions
polarization by interface
Mechanisms of electromagnetic coupling in tissues
FDTD method
FEM method
RF standards
ELF standards
Arguments
- EM Electrical Properties
- Analytical and numerical Dosimetry
- Health Protection Guideline
Sustainability goals
- Academic year2026/2027
- Degree program to which the course belongsElectronics Engineering
- Lesson code1021813
- Year and semester2nd year - 2nd semester
- Activity typeAttività formative affini ed integrative
- Academic areaAttività formative affini o integrative
- SSDING-INF/02
- Mandatory presenceNo
- Languageita
- CFU6 CFU
- Total duration60 hours
- Hours distribution36 classroom hours, 24 training hours