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2020
DOI: 10.3390/s21010126
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DEDNet: Offshore Eddy Detection and Location with HF Radar by Deep Learning

Abstract: Oceanic eddy is a common natural phenomenon that has large influence on human activities, and the measurement and detection of offshore eddies are significant for oceanographic research. The previous classical detecting methods, such as the Okubo–Weiss algorithm (OW), vector geometry algorithm (VG), and winding angles algorithm (WA), not only depend on expert’s experiences to set an accurate threshold, but also need heavy calculations for large detection regions. Differently from the previous works, this paper… Show more

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Cited by 16 publications
(8 citation statements)
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References 33 publications
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“…Streamline dihitung pada sekeliling pusat eddy dengan menggunakan medan arus geostropik yang didapatkan dari SLA; 3. Streamline tertutup dipilih dengan mencari streamline yang memiliki nilai WA absolut lebih atau sama dengan 2𝜋 (Liu et al, 2020); 4. Pusat eddy diidentifikasi dengan menentukan titik potensial yang dikelilingi oleh streamline tertutup; 5.…”
Section: Deteksi Eddy Dengan Winding Angleunclassified
“…Streamline dihitung pada sekeliling pusat eddy dengan menggunakan medan arus geostropik yang didapatkan dari SLA; 3. Streamline tertutup dipilih dengan mencari streamline yang memiliki nilai WA absolut lebih atau sama dengan 2𝜋 (Liu et al, 2020); 4. Pusat eddy diidentifikasi dengan menentukan titik potensial yang dikelilingi oleh streamline tertutup; 5.…”
Section: Deteksi Eddy Dengan Winding Angleunclassified
“…Conventional ocean current measuring instruments, such as current recorders and acoustic doppler current profilers (ADCP), measure data at single points. High-frequency radars (HFR) can be developed as an alternative for measuring surface currents at higher temporal and spatial resolutions; HFR is now widely applied [4][5][6]. HFR can provide highly resolved temporal (tens of minutes) and spatial data vital to understanding marine mechanisms over relatively large domains [7].…”
Section: Introductionmentioning
confidence: 99%
“…This is the most commonly used method because it directly generates the desired output without extra steps. Studies related to its use include [431][432][433][434][435]. Lguensat et al [432] adopted U-Net [100] to classify each pixel into non-eddy, anticyclonic-eddy, or cycloniceddy from SSH maps.…”
mentioning
confidence: 99%
“…Lguensat et al [432] adopted U-Net [100] to classify each pixel into non-eddy, anticyclonic-eddy, or cycloniceddy from SSH maps. Both Xu et al [434] and Liu et al [433] leveraged PSPNet [283] to identify eddies from satellite-derived data. Although these studies adopt various networks, most of them fuse multi-scale features from the input, e.g., spatial pyramid operation [436] in PSPNet and FPN [58] in RetinaNet.…”
mentioning
confidence: 99%