Mosideo/cirfa tank experiments on behavior and detection of oil in ice

In the Arctic, presence of sea ice presents a challenge to safe and sustainable operations. To optimize planning and minimize impact of inadvertent oil spills, oil-in-ice experiments were performed at the HSVA Arctic Environmental Test Basin (AETB) from 14 March to 4 April 2017. Following an under-i...

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Hauptverfasser: Petrich, Christian, O'Sadnick, Megan Eileen, Brekke, Camilla, Myrnes, Marianne, Maus, Sønke, Salomon, Martina Lan, Woelk, Sofie, Grydeland, Tom, Jenssen, Rolf-Ole Rydeng, Eicken, Hajo, Oggier, Marc, Ferro-Famil, Laurent, Harkati, Lekhmissi, Rebane, Ott, Reimer, Nils
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creator Petrich, Christian
O'Sadnick, Megan Eileen
Brekke, Camilla
Myrnes, Marianne
Maus, Sønke
Salomon, Martina Lan
Woelk, Sofie
Grydeland, Tom
Jenssen, Rolf-Ole Rydeng
Eicken, Hajo
Oggier, Marc
Ferro-Famil, Laurent
Harkati, Lekhmissi
Rebane, Ott
Reimer, Nils
description In the Arctic, presence of sea ice presents a challenge to safe and sustainable operations. To optimize planning and minimize impact of inadvertent oil spills, oil-in-ice experiments were performed at the HSVA Arctic Environmental Test Basin (AETB) from 14 March to 4 April 2017. Following an under-ice spill and simulated springtime warming, the microscopic movement and distribution of oil in the sea ice pore space as well as the detectability of oil as it approaches the surface were investigated. Two ice types were studied simultaneously, i.e., columnar ice with and without a granular ice surface layer. Among the detection techniques were electromagnetic (radar, tomographic SAR) and optical (fluorescent, hyperspectral, thermal) sensors, and microscopic distribution of oil in sea ice were determined through X-ray computed tomography (CT). This paper presents the setup of the experiment and general ice properties. It was found that the movement of oil differed considerably between the investigated ice types. Predicting the behavior of oil in ice based on environmental conditions will help optimize the approaches used in spill detection and response.
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To optimize planning and minimize impact of inadvertent oil spills, oil-in-ice experiments were performed at the HSVA Arctic Environmental Test Basin (AETB) from 14 March to 4 April 2017. Following an under-ice spill and simulated springtime warming, the microscopic movement and distribution of oil in the sea ice pore space as well as the detectability of oil as it approaches the surface were investigated. Two ice types were studied simultaneously, i.e., columnar ice with and without a granular ice surface layer. Among the detection techniques were electromagnetic (radar, tomographic SAR) and optical (fluorescent, hyperspectral, thermal) sensors, and microscopic distribution of oil in sea ice were determined through X-ray computed tomography (CT). This paper presents the setup of the experiment and general ice properties. It was found that the movement of oil differed considerably between the investigated ice types. 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subjects Fjernmåling
Microstructure
Mikrostruktur
Oil in ice
Olje i is
Remote sensing
Tank experiment
title Mosideo/cirfa tank experiments on behavior and detection of oil in ice
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