Università Roma Tre

WILL BE PROVIDE THE MAIN CONCEPTS OF ANALYSIS. THE TOPICS WILL BE GIVE IN CONNECTION WITH POSSIBLE ENGINEERING'S APPLICATIONS.

THE COURSE INTRODUCES THE SCIENTIFIC METHOD, PRESENTS NEWTON'S MECHANICS AND THE MAIN ELECTRIC AND MAGNETIC PHENOMENA, TOGETHER WITH THE PERTINENT LAWS. THE STUDENT BECOMES FAMILIAR WITH THE BASIC MODELS OF CLASSICAL PHYSICS AND, IN PARTICULAR, WITH SUCH CONCEPTS AS PHYSICAL QUANTITY, FIELD, CONSERVATION LAW. THE STUDENT IS ABLE TO APPLY THE ABOVE CONCEPTS TO THE SOLUTION OF SIMPLE PROBLEMS BY MEANS OF APPROPRIATE ANALYTICAL PROCEDURES.

THIS COURSE WANTS TO PROVIDE THE TOOLS NEEDED TO ANALYZE THE MOST IMPORTANT MICROSCOPIC AND MACROSCOPIC BEHAVIORS OF MATTER FROM A QUANTITATIVE AND QUALITATIVE POINT OF VIEW.

Theory and algorithms to studing Scalar and vestor fields

THE COURSE OBJECTIVE IS TO LET THE STUDENT OBTAIN COMPETENCES ON: THE ISSUES RELATED TO THE ACQUISITION AND MANAGEMENT OF BIOMEDICAL EQUIPMENT, AND OF RELEVANT DATA IN THE MANAGEMENT OF HEALTH SYSTEMS; INFORMATION SYSTEMS (ACCOUNTING, MAINTENANCE MANAGEMENT ETC..); TODAY'S STANDARDS ON STORAGE AND TRANSMISSION OF MEDICAL DATA. AT THE END OF THE COURSE, IT IS PREDICTED THAT THE STUDENT WILL ALSO MASTER PROBABILITY MODELS ASSOCIATED TO THE MAINTENANCE OF BIOMEDICAL EQUIPMENT.

The course aim is to improve the students' knowledge in digital electronics, from basic components to complex systems. Particular attention will be given to recent applications like FPGAs and ASICs and will be given basic knowledge about current digital communication standards such as USB, Ethernet and LVDS.

Aim of the course is to lead students to get more insight into the
fundamentals of digital systems, gaining knowledge for the basic
functionality and performances they have for different typical
applications. The course is mainly focused on the design of simple digital
electronic systems based on programmable devices and practical experiments
allow students to understand the fundamental working methodology from a
design perspective.

THIS COURSE AIMS AT GIVING THE STUDENT THE TOOLS TO ANALYZE AND DESIGN ANTENNAS FOR BOTH BASE STATIONS AND MOBILE TERMINALS OF CELLULAR COMMUNICATION SYSTEMS.

This course gives theoretical and experimental basis for the characterization of microwave and radiofrequency circuits and antennas. The first part of the course will be devoted to measurements in guided structures, in particular the student will be introduced to measurement of frequency, wavelength, attenuation, swr, and impedance. The scattering parameters of microwave components will also be measured. The second part of the course will be devoted to the characterization of different types of antennas: measurements of gain, directivity, radiation pattern and polarization will be performed, by using horn antennas, parabolic reflectors, arrays of slot and of microstrip antennas, loop antennas, yagi-uda and log-periodic antennas. In a final part of the course, environmental electromagnetic fields will be measured, due to electromagnetic pollution, by employing both wide-band and selective techniques. At the end of the course the student will be able to plan and perform experimental activities, in the electromagnetic fields area, by adopting the most appropriate equipment and components.

Aim of the course is the description the characteristics of telecommunications systems, from the telephone network to data packet/switch network to wireless networks. Among the issues that will be addressed, the performance evaluation in terms of quality, security and cost of service will be discussed. The multimedia communication requirements will be analyzed.

To present a series of practice exercitation to the students is the aim of the course. The laboratory experiences allow to the students to became confidence with base instrumentations always present in an electronic or measurements laboratory. The course is principally practice so after a brief introductive theory phase in which are explained of the exercitations and instrumentation presented in laboratory, the students has to attempt the laboratory facing autonomously each experience.

THE COURSE AIMS AT ILLUSTRATING THE MORE RECENT TECHNIQUES FOR MULTIMEDIA SIGNAL PROCESSING. VIDEO SIGNALS AND IMAGES WILL BE ANALYZED IN BOTH BI-DIMENSIONAL AND TRI-DIMENSIONAL CASE. THE COURSE WILL BE ORGANIZED IN TWO PARTS: IN THE FIRST, THE BASICS NEEDED FOR MULTIMEDIA SIGNAL PROCESSING AND PROGRAMMING IN MATLAB WILL BE PRESENTED TO THE STUDENTS. IN THE SECOND PART PRACTICAL EXPERIENCES WILL BE PERFORMED, BOTH IN INDIVIDUAL AND IN GROUP ASSIGNEMENTS, BY USING THE TOOLS AVAILABLE IN THE LAB (KINECT, RENDERING 3D SYSTEMS, STEREO WEBCAM). THE POSSIBILITY TO USE IN THE LAB SYSTEMS FOR ACQUIRING, ELABORATING AND RENDERING MULTIMEDIA CONTENT, WILL ALLOW THE STUDENTS TO EFFICIENTLY PROJECT AND MANAGE A MULTIMEDIA SYSTEM. THE COURSE WILL INCLUDE DEDICATED SEMINARS ON PRACTICAL APPLICATIONS OF MULTIMEDIA SIGNALS SUCH AS E-LEARNING, CINEMA, IP-TV AND MOBILE COMMUNICATIONS.

THIS COURSE BUILDS ON THE BASIC KNOWLEDGE OF COMPUTER NETWORKS FROM ELEMENTS OF INTERNET. IT COVERS FUNDAMENTAL CONCEPTS ON COMMUNICATION PROTOCOLS AND THEIR ARCHITECTURES CURRENTLY USED IN TELECOMMUNICATIONS NETWORKS, PARTICULARLY ON INTERNET. THE COURSE WILL ALSO FOCUS ON DEVELOPPING YOUR SKILLS AS A DESIGNER, ANALYST AND IMPLEMENTOR OF NETWORK SYSTEMS VIA SIMULATION SOFTWARE. TO THIS END, SEVERAL LAB ACTIVITIES WILL BE DEDICATED TO NETWORK SIMULATIONS BY OPEN-SOURCE TOOLS. DURING THE COURSE STUDENTS WILL BE ASSIGNED FEW PROBLEM SETS, WHICH ARE EXPECTED TO BE COMPLETED INDIVIDUALLY.

Acquire specific knowledge on methods and technologies used in the biomedical field, through the proposition of significant examples of biomedical signals acquisition. Get acquainted with the fundamentals of the regulations and certification of biomedical devices and systems. Get familiar with the instrumentation for the acuisition of biomedical data and signals, and for the assessment of the performance, quality and safety of the biomedical instrumentation.

Objective of the course is to give the fundamentals of environmental Remote Sensing, introducing its main techniques and applications for monitoring the Earth's surface and the atmosphere. The mechanisms of interactions between the electromagnetic waves and natural media is studied, to give an understanding of how extracting environmental parameters from electromagnetic measures. A particular attention is devoted to passive Remote Sensing at microwave frequencies, for the collecting of information on earth and sea surface, ice extension, and atmospheric parameters useful for meteorological forecast or indicative of climate change.

Application fields: industry of Remote Sensing and Aerospace, industry of electronics and telecommunications, laboratories of scientific research.

KNOWLEDGE ABOUT METHODS AND TECHNOLOGY USED IN BIOMEDICAL FIELD, WITH THE PRESENTATION OF PHYSIOLOGICAL SIGNAL ACQUISITION. KNOWLEDGE ABOUT REGULATORY FRAMEWORK AND ELECTRCAL SAFETY OF MEDICAL DEVICES.
PRACTICAL USE OF MEASUREMENT INSTRUMENTATION AND LABORATORY EXPERIENCES CONCERNING SIGNAL ACQUISITION AND PERFORMANCE AND SAFETY TESTS ON MEDICAL DEVICES.

the rules for the quality is managed toISO 9000.
study of ISO 9000 and ISO standards of 9001 allows aware as, approach process, they can be fully defined in the philosophy of the PDCA (plan, do, check act), only if this protocol is complete and in definition of the field of scientific field of the "measure ....." they regard to the stage of check.
the study of how you can, in the application of rules, procedures to determine the check, bearing in mind the spread of electronic applications in the world of work, it is the objective of the course. another goal of course is to provide students first language, with the precise definition of nomenclature (ISO 9000) and then the elements of operational design as, according to the present (ISO 9001) with the purpose of allowing in their professional activities and development of a right placement of any initiative in terms of quality.