The recent improvements in the information technology will lead to the new era of the communication (5G) where everything will be connected, where smart and connected objects will be a constant presence in our daily life. Thus, stricter requirements in terms of communication bandwidth and latency have to be satisfied to meet the demands of a huge number of connected devices. Instead of the centralized approach, moving the data processing to the edge can improve the performance since it reduces the infrastructure-user round trip time and it saves Cloud bandwidth. However, this decentralization comes at a price though. Moving data computation and communication processing to the network edges improves system scalability and reliability but it requires more local hardware and only a subset of data is analyzed. This means that an edge system does not have global visibility of the information. This thesis aims at presenting a novel approach to accelerate the 5G infrastructure at the edge. The idea is to exploit hardware acceleration to improve the processing of the protocol stack functionalities and network functions close to the final user. In this way, the bandwidth for the communication between 5G radio infrastructure and the central Cloud can be saved. Moreover, real time application can benefit from the improved computation capabilities by means of hardware offloading. Considering the latest developments in the embedded systems in terms of computational power and lower hardware cost, we envision that edge computing can be exploited to improve 5G infrastructure. Thus, the edge computing is ready to be deployed in 5G architecture, improving the user experience.

How will edge computing shape the 5G deployment? The hardware acceleration use case

CIVERCHIA, FEDERICO
2019

Abstract

The recent improvements in the information technology will lead to the new era of the communication (5G) where everything will be connected, where smart and connected objects will be a constant presence in our daily life. Thus, stricter requirements in terms of communication bandwidth and latency have to be satisfied to meet the demands of a huge number of connected devices. Instead of the centralized approach, moving the data processing to the edge can improve the performance since it reduces the infrastructure-user round trip time and it saves Cloud bandwidth. However, this decentralization comes at a price though. Moving data computation and communication processing to the network edges improves system scalability and reliability but it requires more local hardware and only a subset of data is analyzed. This means that an edge system does not have global visibility of the information. This thesis aims at presenting a novel approach to accelerate the 5G infrastructure at the edge. The idea is to exploit hardware acceleration to improve the processing of the protocol stack functionalities and network functions close to the final user. In this way, the bandwidth for the communication between 5G radio infrastructure and the central Cloud can be saved. Moreover, real time application can benefit from the improved computation capabilities by means of hardware offloading. Considering the latest developments in the embedded systems in terms of computational power and lower hardware cost, we envision that edge computing can be exploited to improve 5G infrastructure. Thus, the edge computing is ready to be deployed in 5G architecture, improving the user experience.
25-nov-2019
Italiano
5G
BMV2
Cyber Security
Edge Node
Flowlet
FPGA
Hardware Acceleration
Multi-Layer
NetFPGA
NFV
OpenCL
Optical Bypass
P4
Pipelined Service Chain
Reconfigurable Computing
SDN
SYN Flood
Token Bucket
Traffic Engineering
CASTOLDI, PIERO
AZCORRA, ARTURO
SALVADOR, RUBEN
PELCAT, MAXIME
VALCARENGHI, LUCA
FRANKLIN, ANTONY
CERRONI, WALTER
MONTI, PAOLO
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.14242/147365
Il codice NBN di questa tesi è URN:NBN:IT:SSSUP-147365