TY - JOUR
T1 - The AutoICE Challenge
AU - Stokholm, Andreas
AU - Buus-Hinkler, Jørgen
AU - Wulf, Tore
AU - Korosov, Anton
AU - Saldo, Roberto
AU - Pedersen, Leif Toudal
AU - Arthurs, David
AU - Dragan, Ionut
AU - Modica, Iacopo
AU - Pedro, Juan
AU - Debien, Annekatrien
AU - Chen, Xinwei
AU - Patel, Muhammed
AU - Cantu, Fernando Jose Pena
AU - Turnes, Javier Noa
AU - Park, Jinman
AU - Xu, Linlin
AU - Scott, Katharine Andrea
AU - Clausi, David Anthony
AU - Fang, Yuan
AU - Jiang, Mingzhe
AU - Taleghanidoozdoozan, Saeid
AU - Brubacher, Neil Curtis
AU - Soleymani, Armina
AU - Gousseau, Zacharie
AU - Smaczny, Michał
AU - Kowalski, Patryk
AU - Komorowski, Jacek
AU - Rijlaarsdam, David
AU - Van Rijn, Jan Nicolaas
AU - Jakobsen, Jens
AU - Rogers, Martin Samuel James
AU - Hughes, Nick
AU - Zagon, Tom
AU - Solberg, Rune
AU - Longépé, Nicolas
AU - Kreiner, Matilde Brandt
N1 - Publisher Copyright:
© 2024 Andreas Stokholm et al.
PY - 2024
Y1 - 2024
N2 - Mapping sea ice in the Arctic is essential for maritime navigation, and growing vessel traffic highlights the necessity of the timeliness and accuracy of sea ice charts. In addition, with the increased availability of satellite imagery, automation is becoming more important. The AutoICE Challenge investigates the possibility of creating deep learning models capable of mapping multiple sea ice parameters automatically from spaceborne synthetic aperture radar (SAR) imagery and assesses the current state of the automatic-sea-ice-mapping scientific field. This was achieved by providing the tools and encouraging participants to adopt the paradigm of retrieving multiple sea ice parameters rather than the current focus on single sea ice parameters, such as concentration. The paper documents the efforts and analyses, compares, and discusses the performance of the top-five participants' submissions. Participants were tasked with the development of machine learning algorithms mapping the total sea ice concentration, stage of development, and floe size using a state-of-the-art sea ice dataset with dual-polarised Sentinel-1 SAR images and 22 other relevant variables while using professionally labelled sea ice charts from multiple national ice services as reference data. The challenge had 129 teams representing a total of 179 participants, with 34 teams delivering 494 submissions, resulting in a participation rate of 26.4 %, and it was won by a team from the University of Waterloo. Participants were successful in training models capable of retrieving multiple sea ice parameters with convolutional neural networks and vision transformer models. The top participants scored best on the total sea ice concentration and stage of development, while the floe size was more difficult. Furthermore, participants offered intriguing approaches and ideas that could help propel future research within automatic sea ice mapping, such as applying high downsampling of SAR data to improve model efficiency and produce better results.
AB - Mapping sea ice in the Arctic is essential for maritime navigation, and growing vessel traffic highlights the necessity of the timeliness and accuracy of sea ice charts. In addition, with the increased availability of satellite imagery, automation is becoming more important. The AutoICE Challenge investigates the possibility of creating deep learning models capable of mapping multiple sea ice parameters automatically from spaceborne synthetic aperture radar (SAR) imagery and assesses the current state of the automatic-sea-ice-mapping scientific field. This was achieved by providing the tools and encouraging participants to adopt the paradigm of retrieving multiple sea ice parameters rather than the current focus on single sea ice parameters, such as concentration. The paper documents the efforts and analyses, compares, and discusses the performance of the top-five participants' submissions. Participants were tasked with the development of machine learning algorithms mapping the total sea ice concentration, stage of development, and floe size using a state-of-the-art sea ice dataset with dual-polarised Sentinel-1 SAR images and 22 other relevant variables while using professionally labelled sea ice charts from multiple national ice services as reference data. The challenge had 129 teams representing a total of 179 participants, with 34 teams delivering 494 submissions, resulting in a participation rate of 26.4 %, and it was won by a team from the University of Waterloo. Participants were successful in training models capable of retrieving multiple sea ice parameters with convolutional neural networks and vision transformer models. The top participants scored best on the total sea ice concentration and stage of development, while the floe size was more difficult. Furthermore, participants offered intriguing approaches and ideas that could help propel future research within automatic sea ice mapping, such as applying high downsampling of SAR data to improve model efficiency and produce better results.
U2 - 10.5194/tc-18-3471-2024
DO - 10.5194/tc-18-3471-2024
M3 - Journal article
AN - SCOPUS:85200852577
SN - 1994-0416
VL - 18
SP - 3471
EP - 3494
JO - Cryosphere
JF - Cryosphere
IS - 8
ER -