Università Roma Tre

THE OBJECTIVE OF THE COURSE IS TO ENDOW THE STUDENTS WITH THE KEY ASPECTS OF DETERMINISTIC OPTIMIZATION, INCLUDING LINEAR AND NONLINEAR PROGRAMMING. TOPICS INCLUDE BASIC THEORY, MODELING, ALGORITHMS, AND APPLICATIONS.

Presentation of models, methods and tools for the definition, design and development of software systems that manage large sets of data. A student who has passed the course will be able to: (i) develop software applications that make use of databases of even high complexity, (i) design and built autonomously databases of medium complexity, and (iii) be involved in the project and development of large databases of high complexity.

1) indoor/outdoor electromagnetic field evaluation;2) antenna characterization (far-field, near-field);3) electromagnetic field mesaurement;4) use of electromagnetic cad;5) normatives.

Providing methods and tools for developing OO applications, with emphasis on the quality of code. At the end of the course, students should be able to develop autonomously OO applications of medium complexity, and to participate in the development of large OO applications.

The course aims to provide systematic and modeling aspects related to the support of multimedia services in telecommunications networks. We will define the characteristics of the media and the different sources (human visual system, auditory system, etc..). Will cover aspects related to architectural and protocol models and in particular will be considered source coding, secure information channel coding, and integration of different information media (video, audio, data, reality 'virtual). Part of the course is devoted to innovative coding and transmission.

THE COURSE PROVIDES THE STUDENTS WITH TOOLS FOR DEALING WITH DIFFRACTION AND PROPAGATION OF OPTICAL FIELDS, WHICH ARE AT THE BASIS OF OPTO-ELECTRONIC AND PHOTONIC APPLICATIONS. IN SUCH A CONTEXT, IT INTRODUCES AND DEVELOPS THE CONCEPT OF OPTICAL COHERENCE AND PRESENTS SUITABLE TECHNIQUES FOR SOLVING PROPAGATION PROBLEMS IN VACUO AND IN MATERIALS.

The course aim at giving the student the tools for the analysis and the design of innovative micro- and nano-electronics devices based on the employment of metamaterials.

The course allows the students to acquire the knowledge and the ability to apply design techniques for digital systems in general and in particular with programmable platforms. The course analyzes the typical structure and the technology of modern programmable electronic components, develops the ability to design a digital electronic system from specifications to implementation and experimental verification of the behavior, the ability to draft a technical report on the design and characterization of a component or digital electronic system.

THE PURPOSE IS TO PROVIDE ADVANCED KNOWLEDGE ON COMPUTER NETWORKS, WITH METHODOLOGICAL AND TECHNICAL CONTENTS. SPECIAL ATTENTION IS DEVOTED TO SCALABILITY ISSUES. AT THE END OF THE COURSE THE STUDENT IS SUPPOSED TO GET THE FOLLOWING CONCEPTS: INTERDOMAIN AND INTRADOMAIN ROUTING, CONGESTION CONTROL, ARCHITECTURES FOR SCALABLE SYSTEMS. THE STUDENT IS ALSO SUPPOSED TO GET ADVANCED TECHNICALITIES ON WIDELY ADOPTED PROTOCOLS. FINALLY, THE STUDENT IS SUPPOSED TO UNDERSTAND THE MAIN ECONOMIC AND TECHNICAL DRIVERS OF THE INTERNET EVOULUTION.

THE STUDENT WILL LEARN HOW TO UNDERSTAND PROPERTIES AND DESIGN OF VARIOUS MICROWAVE COMPONENTS (BOTH PASSIVE AND ACTIVE), CIRCUITS, USED IN BASIC RF/MICROWAVE FRONTEND FUNCTIONAL BLOCKS AND LEARN HOW TO APPLY THESE PROPERTIES FOR PARTICULAR DESIGNS. THE STUDENT WILL LEARN HOW TO DESIGN BASIC RF/MICROWAVE FRONTEND FUNCTIONAL BLOCKS USING BOTH ANALYTICAL TOOLS AND ADVANCED COMPUTER-AIDED DESIGN TOOLS. THE STUDENT WILL, THROUGH THE LAB SESSIONS, DEVELOP AN INTUITION AND PHYSICAL FEELING FOR MICROWAVE PHENOMENON AND TO GET FIRST HANDS-ON EXPERIENCE WITH MICROWAVES COMPONENTS AND EQUIPMENT.

THE COURSE AIMS AT PROVIDING THE NECESSARY INSTRUMETS FOR THE ANALYSIS AND DESIGN OF BIOMETRIC SYSTEMS.
SPECIFICALLY BOTH MORPHOLOGICAL BIOMETRICS (FINGERPRINTS, IRIS, FACES (2D AND 3D),
HAD GEOMETRY, HANDPALM, VEIN PATTERNS, THERMOGRAMS) AND BEHAVIOR (SIGNATURE, VOICE, GAIT ETC.).
ARE ANALYZED. THE ARCHITECTURE OF BIOMETRIC SYSTEMS WILL BE DESCRIBED.
THE METRICS TO DESCRIBE THE RECOGNITION SYSTEM PERFORMANCE (FAR, FRR, USABILITY, SCALABILITY, SECURITY, ETC.) ARE GIVEN.
MULTIMODAL BIOMETRIC SYSTEMS ARE INTRODUCED.
ANALYSIS OF SECURITY, PRIVACY OF VULNERABILITY OF BIOMETRIC SYSTEMS ARE DESCRIBED. FINALLY SOME ELEMENTS ABOUT
BIOMETRIC STANDARDS AND SOME EXAMPLES OF BIOMETRIC SYSTEMS IN REAL LIFE ARE ILLUSTRATED. THE COURSE WILL INCLUDE LABORATORY ACTIVITIES
TO DESIGN AND CONSTRUCTION OF A PRACTICE-BASED BIOMETRIC AUTHENTICATION SYSTEM.
STUDENTS WILL USE SENSORS FOR THE ACQUISITION OF FINGERPRINTS, HANDPALM OF THE PALM OF YOUR HAND, OF VEIN PATTERNS,
FACE, IRIS, SIGNATURE, VOICE AND WILL INTEGRATE SOME OF THEM IN AN AUTOMATIC RECOGNITION SYSTEM AND ASSESS THE RELATIVE PERFORMANCE.

THIS COURSE AIMS AT PROVIDING THE STUDENTS WITH THE FUNDAMENTALS TECHNIQUES OF REPRESENTATION, PROCESSING AND COMMUNICATIONS OF DIGITAL IMAGES.

Basic knowledge of the financial economic language by which the internal and external company relations and strategies are expressed. Developing of economic and financial evaluation of company operations. Analysis of interactions among internal organizational structures and analysis of financial and economis results drivers and measures.

The Software Defined Radio (SDR) technology as well as the Open Standards will provide a dramatic cost reduction and a proliferation of wireless radio-applications for every aspect of our modern life.

The course aims to provide students with advanced signal processing in the field of Software Radio. In particular, during the course the student will learn to connect the different blocks of a complex system in a single set of integrated and interdependent processes. In addition, the course will provide an overview of some telecommunications systems, briefly describing the radio key-concepts.

PROVIDING TECHNOLOGICAL AND METHODOLOGICAL PARADIGMS TO DESIGN AND DEVELOP WEB BASED INFORMATION SYSTEMS

Upon completion of this course the student will be able to have; a clear understanding of the concepts of Telemedicine, including basic terminologies, and technologies, services, impact and challenges of telemedicine; to understand the generic architecture of telemedicine systems and the constituents of each sub-system. Real world telemedicine implementations in diverse settingswill be presented, to illustrate the practical aspect of the theory.