5G NETWORKS

Vincenzo MATTA 5G NETWORKS

0612700125
DEPARTMENT OF INFORMATION AND ELECTRICAL ENGINEERING AND APPLIED MATHEMATICS
EQF6
COMPUTER ENGINEERING
2023/2024

OBBLIGATORIO
YEAR OF COURSE 3
YEAR OF DIDACTIC SYSTEM 2017
AUTUMN SEMESTER
CFUHOURSACTIVITY
15G NETWORKS
648LESSONS
2PROGETTO DI 5G NETWORKS
324EXERCISES
Objectives
THE COURSE FOCUSES ON ARCHITECTURES AND TECHNOLOGIES RELATIVE TO MODERN COMMUNICATION SYSTEMS, WITH EMPHASIS ON 5G NETWORKS, PROVIDING THE ESSENTIAL TOOLS FOR THEIR DESIGN.

KNOWLEDGE AND UNDERSTANDING
- BASIC NOTIONS ABOUT ARCHITECTURES AND TRANSMISSION TECHNOLOGIES OVER COMMUNICATION NETWORKS: SATELLITE COMMUNICATIONS, CELLULAR NETWORKS, OPTICAL FIBERS, WIRELESS TECHNOLOGIES.
- NEW GENERATION NETWORKS. MAIN ATTRIBUTES OF 5G NETWORKS.
- MIMO SYSTEMS.

APPLYING KNOWLEDGE AND UNDERSTANDING
- DESIGNING AND SIMULATING NEW-GENERATION NETWORK ARCHITECTURES.
- SELECTING THE ENABLING TECHNOLOGIES MORE SUITED TO A SPECIFIC SETTING, OPTIMIZING THE NETWORK CONFIGURATION AND RESOURCE ALLOCATION IN VIEW OF BANDWIDTH, POWER, AND LATENCY REQUIREMENTS.
Prerequisites
FUNDAMENTALS OF PROBABILITY, SIGNAL ANALYSIS AND TRANSMISSION TECHNIQUES.

PREPARATORY COURSES: FONDAMENTI DI ANALISI DEI SEGNALI E TRASMISSIONE.
Contents
DIDACTIC UNIT 1: PHYSICAL LAYER AND POINT-TO-POINT COMMUNICATIONS.
(TOTAL LECTURE/PRACTICE/LABORATORY HOURS 8/2/2)
- 1 (2 HOUR LECTURE): BASIC ARCHITECTURE OF SYSTEMS AND TELECOMMUNICATION NETWORKS. POINT-TO-POINT COMMUNICATION MODEL. PHYSICAL LAYER.
- 2 (2 HOUR LECTURE): TRANSMISSION TECHNOLOGIES. OPTICAL FIBERS. SATELLITE COMMUNICATIONS. WIRELESS COMMUNICATIONS. CELLULAR NETWORKS.
- 3 (2 HOUR LECTURE): STANDARD MODULATIONS: PSK AND QAM. GEOMETRIC REPRESENTATION AND PERFORMANCE EVALUATION. BANDWIDTH AND POWER REQUIREMENTS.
- 4 (2 HOUR LECTURE): ORTHOGONAL MODULATIONS. GEOMETRIC REPRESENTATION AND PERFORMANCE EVALUATION. BANDWIDTH AND POWER REQUIREMENTS.
- 5 (2 HOUR PRACTICE): EXERCISES ON DIGITAL MODULATIONS.
- 6 (2 HOUR LABORATORY): COMPUTER-AIDED SIMULATIONS ON DIGITAL MODULATIONS.

KNOWLEDGE AND UNDERSTANDING
BASIC NOTIONS ABOUT THE PHYSICAL LAYER AND DIGITAL MODULATIONS INVOLVED IN POINT-TO-POINT COMMUNICATIONS.
APPLYING KNOWLEDGE AND UNDERSTANDING
PLANNING AND SIMULATING A SIMPLE DIGITAL TRANSMISSION SYSTEM IN VIEW OF BANDWIDTH AND POWER REQUIREMENTS.


DIDACTIC UNIT 2: WIRELESS COMMUNICATIONS
(TOTAL LECTURE/PRACTICE/LABORATORY HOURS 6/4/2)
- 7 (2 HOUR LECTURE): MULTIPATH AND DOPPLER EFFECTS IN WIRELESS CHANNELS. FADING IN MOBILE RADIOCOMMUNICATIONS. RAYLEIGH MODEL.
- 8 (2 HOUR LECTURE): EVALUATION OF PERFORMANCE DEGRADATION IN DIGITAL SYSTEMS CAUSED BY FADING. COUNTERMEASURES: DIVERSITY TECHNIQUES.
- 9 (2 HOUR LECTURE): ANALOG AND DIGITAL REPEATERS. THE LINK BUDGET PROBLEM.
- 10 (2 HOUR PRACTICE): EXERCISES ON FADING.
- 11 (2 HOUR PRACTICE): EXERCISES ON LINK BUDGET PLANNING WITH ANALOG REPEATERS.
- 12 (2 HOUR LABORATORY): COMPUTER-AIDED SIMULATIONS ON DIGITAL SYSTEMS AFFECTED BY FADING, WITH OR WITHOUT DIVERSITY TECHNIQUES.

KNOWLEDGE AND UNDERSTANDING
BASIC NOTIONS ABOUT WIRELESS COMMUNICATIONS AND ABOUT LINK BUDGET.

APPLYING KNOWLEDGE AND UNDERSTANDING
PLANNING A POINT-TO-POINT SYSTEM MADE OF MULTIPLE PATHS, BY SELECTING THE APPROPRIATE TRANSMISSION TECHNOLOGIES, AND BY CONVENIENTLY DIMENSIONING THE SYSTEM IN TERMS OF LINK BUDGET AND ALLOCATION OF ANALOG AND/OR DIGITAL REPEATERS.


DIDACTIC UNIT 3: CELLULAR NETWORKS AND MULTIPLE ACCESS.
(TOTAL LECTURE/PRACTICE/LABORATORY HOURS 8/2/2)
- 13 (2 HOUR LECTURE): THE “CELLULAR” CONCEPT. CELL PARTITIONING. FREQUENCY REUSE.
- 14 (2 HOUR LECTURE): CELL ALLOCATION PROBLEMS, DIMENSIONING, AND COVERAGE. NEAR-FAR EFFECT. HANDOVER STRATEGIES.
- 15 (2 HOUR LECTURE): ACCESS TECHNIQUES. ORTHOGONAL TECHNIQUES. TDMA. FDMA. NON-ORTHOGONAL ACCESS TECHNIQUES.
- 16 (2 HOUR LECTURE): SPREAD-SPECTRUM TECHNIQUES. CDMA. OFDM.
- 17 (2 HOUR PRACTICE): DIMENSIONING OF A CELLULAR SYSTEM.
- 18 (2 HOUR LABORATORY): COMPUTER-AIDED SIMULATIONS ON MULTIPLE ACCESS TECHNIQUES.

KNOWLEDGE AND UNDERSTANDING
BASIC NOTIONS ABOUT CELLULAR NETWORKS AND ABOUT MULTIPLE ACCESS TECHNIQUES IN TELECOMMUNICATION NETWORKS.

APPLYING KNOWLEDGE AND UNDERSTANDING
DIMENSIONING A SIMPLE CELLULAR SYSTEM IN VIEW OF CAPACITY CONSTRAINTS. SELECTING APPROPRIATE ACCESS TECHNIQUES IN VIEW OF SYSTEM REQUIREMENTS.


DIDACTIC UNIT 4: ARCHITECTURE OF 5G NETWORKS AND RADIO ASPECTS.
(TOTAL LECTURE/PRACTICE/LABORATORY HOURS 14/0/2)
- 19 (2 HOUR LECTURE): OVERVIEW ON DIFFERENT GENERATION NETWORKS.
- 20 (2 HOUR LECTURE): LTE NETWORKS AND ADVANCED LTE (LTE-A). VOICE OVER LTE.
- 21 (2 HOUR LECTURE): 5G NETWORKS. CRITICAL ASPECTS OF 5G NETWORKS AND COMPARISON WITH PREVIOUS GENERATIONS.
- 22 (2 HOUR LECTURE): ACCESS NETWORK. RADIO ASPECTS. SOFTWARE DEFINED RADIO.
- 23 (2 HOUR LECTURE): BEAMFORMING.
- 24 (2 HOUR LECTURE): MULTIPLE INPUT MULTIPLE OUTPUT (MIMO) SYSTEMS.
- 25 (2 HOUR LECTURE): MASSIVE MIMO IN 5G.
- 26 (2 HOUR LABORATORY): COMPUTER-AIDED SIMULATIONS OF A SIMPLE MIMO SYSTEM

KNOWLEDGE AND UNDERSTANDING
BASIC NOTIONS ABOUT TELECOMMUNICATION NETWORK ARCHITECTURES. NEW-GENERATION NETWORKS. MIMO SYSTEMS

APPLYING KNOWLEDGE AND UNDERSTANDING
PLANNING SIMPLE SOLUTIONS FOR ACCESS NETWORK MANAGEMENT IN 5G NETWORKS.


DIDACTIC UNIT 5: CORE NETWORK

(TOTAL LECTURE/PRACTICE/LABORATORY HOURS 12/0/8)

- 27 (2 HOUR LECTURE): 5G CORE NETWORK.
- 28 (2 HOUR LECTURE): NETWORK SOFTWARIZATION. SOFTWARE DEFINED NETWORKS, NETWORK FUNCTION VIRTUALIZATION. NETWORK SLICING IN 5G.
- 29 (2 HOUR LECTURE): THE EDGE CONCEPT. WIRELESS EDGE. EDGE COMPUTING AND ADVANTAGES IN TERMS OF RESOURCES, LATENCY, QOS.
- 30 (2 HOUR LECTURE): SECURITY ISSUES IN 5G.
- 31 (2 HOUR LECTURE): DELAY PROBLEMS. LATENCY REQUIREMENTS. LOW-LATENCY IN 5G.
- 32 (2 HOUR LECTURE): DELAY MODELS
- 33 (2 HOUR LABORATORY): PLANNING AND SIMULATING AN APPLICATION COVERING ASPECTS PERTAINING TO ACCESS AND/OR CORE AND/OR EDGE NETWORK, PART 1.
- 34 (2 HOUR LABORATORY): PLANNING AND SIMULATING AN APPLICATION COVERING ASPECTS PERTAINING TO ACCESS AND/OR CORE AND/OR EDGE NETWORK, PART 2.
- 35 (2 HOUR LABORATORY): PLANNING AND SIMULATING AN APPLICATION COVERING ASPECTS PERTAINING TO ACCESS AND/OR CORE AND/OR EDGE NETWORK, PART 3.
- 36 (2 HOUR LABORATORY): PLANNING AND SIMULATING AN APPLICATION COVERING ASPECTS PERTAINING TO ACCESS AND/OR CORE AND/OR EDGE NETWORK, PART 4.



KNOWLEDGE AND UNDERSTANDING
PLANNING SIMPLE SOLUTIONS FOR CORE NETWORK MANAGEMENT IN 5G NETWORKS.

APPLYING KNOWLEDGE AND UNDERSTANDING
PLANNING SIMPLE NEW-GENERATION TELECOMMUNICATION NETWORK ARCHITECTURES BY SELECTING APPROPRIATE ENABLING TECHNOLOGIES IN VIEW OF THE SYSTEM REQUIREMENTS (I.E., BANDWIDTH, POWER, AND LATENCY).

TOTAL LECTURE/PRACTICE/LABORATORY HOURS 48/8/16
Teaching Methods
THE COURSE INCLUDES THEORETICAL LECTURES, CLASSROOM EXERCISES, AND COMPUTER LABORATORY EXPERIENCES FOCUSED ON THE SIMULATION OF COMMUNICATION SYSTEMS.
Verification of learning
SUCCESSFUL ACHIEVEMENT OF THE LEARNING OUTCOMES WILL BE ASSESSED THROUGH:
1) A WRITTEN EXAMINATION CONSISTING OF EXERCISES PERTAINING TO THE TOPICS ILLUSTRATED DURING THE COURSE.
2) THE IMPLEMENTATION OF A SIMPLE SIMULATOR TO SOLVE A PROBLEM OF DESIGN AND ALLOCATION IN A COMMUNICATION SYSTEM.
Texts
PROAKIS-SALEHI, "FUNDAMENTALS OF COMMUNICATION SYSTEMS", 2ND EDITION, PEARSON, 2014

SESIA-TOUFIK-BAKER "LTE, THE UMTS LONG TERM EVOLUTION: FROM THEORY TO PRACTICE", 2ND EDITION, WILEY, 2011.

DAHMAN-PARKVALL-SKOLD "5G NR – THE NEXT GENERATION WIRELESS ACCESS TECHNOLOGY", 2ND EDITION, ACADEMIC PRESS, 2021.

SUPPLEMENTARY TEACHING MATERIAL WILL BE AVAILABLE ON THE UNIVERSITY E-LEARNING PLATFORM (HTTP://ELEARNING.UNISA.IT) ACCESSIBLE TO STUDENTS USING THEIR OWN UNIVERSITY CREDENTIALS.
More Information
THE COURSE IS HELD IN ITALIAN.
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