TY - CHAP
T1 - Conclusions
AU - Martorella, Marco
AU - Rosenberg, Luke
PY - 2024/12/12
Y1 - 2024/12/12
N2 - The work carried out within the NATO SET-250 research task group (RTG) produced many valuable outcomes that highlighted the importance and value of multi-dimensional imaging for the detection and recognition of targets. More specifically, multi-frequency, multi-channel, multi-aspect and multi-polarisation images, in a single word multi-dimensional, have proven able to produce the necessary diversity to better characterise targets and to separate targets from clutter and other disturbances, such as intentional and non-intentional jammers.
To enable the research in the RTG, a trial was conducted at the Spadeadam range in the United Kingdom, where four multi-dimensional airborne radar systems simultaneously collected unique radar data of military targets. This effort led to the creation of a multi-dimensional radar database to test new algorithms and evaluate the superiority of multi-dimensional radar imaging systems. Many of these innovative algorithms have been described throughout the chapters of this book, with the results proving that multi-dimensional images not only provide better system performance, but also enable new operational modes.
Section 9.1 reports on some main conclusions that have been extracted from Chapters 2 to 8. Section 9.2 then discusses the operational use of multi-dimensional radar imaging systems and how they can impact various scenarios and operations. Lastly, Section 9.3 explores what should be investigated to improve current capabilities and to implement new ones that are based on the use of multi-dimensional radar imaging systems.
AB - The work carried out within the NATO SET-250 research task group (RTG) produced many valuable outcomes that highlighted the importance and value of multi-dimensional imaging for the detection and recognition of targets. More specifically, multi-frequency, multi-channel, multi-aspect and multi-polarisation images, in a single word multi-dimensional, have proven able to produce the necessary diversity to better characterise targets and to separate targets from clutter and other disturbances, such as intentional and non-intentional jammers.
To enable the research in the RTG, a trial was conducted at the Spadeadam range in the United Kingdom, where four multi-dimensional airborne radar systems simultaneously collected unique radar data of military targets. This effort led to the creation of a multi-dimensional radar database to test new algorithms and evaluate the superiority of multi-dimensional radar imaging systems. Many of these innovative algorithms have been described throughout the chapters of this book, with the results proving that multi-dimensional images not only provide better system performance, but also enable new operational modes.
Section 9.1 reports on some main conclusions that have been extracted from Chapters 2 to 8. Section 9.2 then discusses the operational use of multi-dimensional radar imaging systems and how they can impact various scenarios and operations. Lastly, Section 9.3 explores what should be investigated to improve current capabilities and to implement new ones that are based on the use of multi-dimensional radar imaging systems.
KW - airborne radar
KW - jamming
KW - radar imaging
KW - NATO SET-250 research task group
KW - multidimensional imaging
KW - multifrequency
KW - multichannel
KW - multiaspect
KW - multipolarisation images
KW - single word multidimensional
KW - multidimensional airborne radar systems
KW - multidimensional radar database
KW - multidimensional radar imaging systems
KW - multidimensional images
UR - https://www.scopus.com/pages/publications/85214592372
U2 - 10.1049/sbra562e_ch9
DO - 10.1049/sbra562e_ch9
M3 - Chapter
AN - SCOPUS:85214592372
SN - 9781839538308
VL - 2
SP - 203
EP - 208
BT - Multidimensional Radar Imaging. Vol. 2
A2 - Martorella, Marco
PB - Institution of Engineering and Technology (IET)
ER -