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Data · dataset · 2026

Deep learning in compressive radar imaging and systems

Listed in ZivaHub and Deakin Research Online and DMU Figshare — shown once because both records carry DOI 10.17034/32826311.v1

Conventional microwave imaging methods, including synthetic aperture radar (SAR), suffer from slow data acquisition and high hardware complexity, limiting their suitability for real-time imaging, particularly for electrically large scenes.

Description

To address these challenges, computational microwave imaging (CMI) is considered an alternative technique. CMI-based systems successfully achieve a physical layer compression, but are still limited by the computational burden in the signal processing layer.

To improve the efficiency of CMI-based systems, deep learning techniques have been explored to reduce the computational burden associated with conventional methods.In this thesis, a series of deep learning–based methodologies are developed to enhance the overall efficiency of CMI. These include two ways of transfer function prediction, a deep learning approach for multi-tasking in CMI application, and a deep learning-based reconstruction method capable of handling obstructed measurement conditions.

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Together, these approaches provide a coherent framework that directly addresses the aforementioned challenges and advances the state of the art in CMI reconstruction.The proposed approaches significantly reduce the computational effort associated with transfer-function estimation, remove the need for labor-intensive near-field measurements, enable accurate joint reconstruction and recognition, and effectively recover target information in obstructed scenarios.Overall, the contributions of this thesis establish a deep learning–driven foundation for efficient, scalable, and resilient CMI, supporting its advancement toward real-time deployment in practical environments.

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Where it is published

Catalogue records · 1

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Inferred from text
Imaging 75%
Provenance · 3 source records, 14 field assertions
SourceKeyLast seenRaw
ZivaHuboai:figshare.com:article/3282631113 d agoJSON v1
Deakin Research Onlineoai:figshare.com:article/3282631113 d agoJSON v1
DMU Figshareoai:figshare.com:article/3282631113 d agoJSON v1
FieldAssertionExtractorEvidence
concepts[field].anzsrc:field:461103mapping · dro deakin edu auvocabulary-mapper@1.0.0keywords['deep learning']
concepts[field].anzsrc:field:461103mapping · zivahub uct ac zavocabulary-mapper@1.0.0keywords['deep learning']
concepts[field].anzsrc:field:461103mapping · figshare dmu ac ukvocabulary-mapper@1.0.0keywords['deep learning']
concepts[field].local:field:computer-science-aimapping · dro deakin edu auconnector:dro_deakin_edu_au@1.0.0
concepts[field].local:field:computer-science-aimapping · figshare dmu ac ukconnector:figshare_dmu_ac_uk@1.0.0
concepts[field].local:field:computer-science-aimapping · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].local:field:earth-environmentalmapping · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].local:field:earth-environmentalmapping · dro deakin edu auconnector:dro_deakin_edu_au@1.0.0
concepts[field].local:field:earth-environmentalmapping · figshare dmu ac ukconnector:figshare_dmu_ac_uk@1.0.0
concepts[modality].local:modality:imagingenrichment · zivahub uct ac zakeyword-concept-rules@1.0.0title+description (75%)
descriptionsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/description
license_textsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
publication_datesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
titlesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/title