Arttu Jutila

Arttu Jutila
Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research | AWI · Department of Sea Ice Physics

Doctor of Natural Sciences

About

19
Publications
3,262
Reads
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144
Citations
Citations since 2017
19 Research Items
144 Citations
20172018201920202021202220230102030405060
20172018201920202021202220230102030405060
20172018201920202021202220230102030405060
20172018201920202021202220230102030405060
Additional affiliations
January 2018 - March 2022
Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research
Position
  • PhD Student
August 2014 - June 2017
University of Helsinki
Position
  • Research Assistant
Education
January 2018 - March 2022
Universität Bremen
Field of study
  • Sea Ice Physics
December 2014 - May 2017
University of Helsinki
Field of study
  • Hydrospheric Geophysics
August 2010 - December 2014
University of Helsinki
Field of study
  • Hydrospheric Geophysics

Publications

Publications (19)
Article
Full-text available
Plain Language Summary This study presents first results from the 2018 Multidisciplinary Arctic Program‐Last Ice, the most intensive ecologically focused research project ever conducted within the so‐called “Last Ice Area.” This region is of key importance because it is the only place in the Arctic expected to retain summer sea ice by the year 2050...
Article
Full-text available
Plain Language Summary Platelet ice is a particular type of ice that consists of decimeter sized thin ice plates that grow and collect on the underside of sea ice. It is most often related to Antarctic ice shelves and forms from supercooled water with a temperature below the local freezing point. Here we present the first comprehensive observation...
Article
Full-text available
We present new high-resolution snow depth data on Arctic sea ice derived from airborne microwave radar measurements from the IceBird campaigns of the Alfred Wegener Institute (AWI) together with a new retrieval method using signal peakiness based on an intercomparison exercise of colocated data at different altitudes. We aim to demonstrate the capa...
Article
Full-text available
Knowledge of sea-ice thickness and volume depends on freeboard observations from satellite altimeters and in turn on information of snow mass and sea-ice density required for the freeboard-to-thickness conversion. These parameters, especially sea-ice density, are usually based on climatologies constructed from in situ observations made in the 1980s...
Article
Full-text available
Year-round observations of the physical snow and ice properties and processes that govern the ice pack evolution and its interaction with the atmosphere and the ocean were conducted during the Multidisciplinary drifting Observatory for the Study of Arctic Climate (MOSAiC) expedition of the research vessel Polarstern in the Arctic Ocean from October...
Article
Full-text available
Plain Language Summary We compare winter surface temperatures from an infrared camera with summer photographs of sea ice with melt ponds. The datasets were recorded from a helicopter during the Multidisciplinary drifting Observatory for the Study of Arctic Climate expedition. Melt ponds form on sea ice in summer when the snow melts and water accumu...
Preprint
Full-text available
Information about the sea ice surface topography and related deformation are crucial for studies of sea ice mass balance, sea ice modeling, and ship navigation through the ice pack. NASA’s Ice, Cloud, and land Elevation Satellite-2 (ICESat-2) has been on-orbit for nearly four years, sensing the sea ice surface topography with six laser beams capabl...
Preprint
Full-text available
Wind transport alters the snow topography and microstructure on sea ice through snow redistribution controlled by deposition and erosion. The impact of these processes on radar signatures is poorly understood. Here, we examine the effects of snow redistribution on Arctic sea ice from Ka- and Ku-band radar signatures. Measurements were obtained duri...
Article
Full-text available
The sea ice surface temperature is important to understand the Arctic winter heat budget. We conducted 35 helicopter flights with an infrared camera in winter 2019/2020 during the Multidisciplinary Drifting Observatory for the Study of Arctic Climate (MOSAiC) expedition. The flights were performed from a local, 5 to 10 km scale up to a regional, 20...
Article
Full-text available
Radiation transmitted through sea ice and snow has an important impact on the energy partitioning at the atmosphere-ice-ocean interface. Snow depth and ice thickness are crucial in determining its temporal and spatial variations. Under-ice surveys using autonomous robotic vehicles to measure transmitted radiation often lack coincident snow depth an...
Preprint
Full-text available
Knowledge of sea-ice thickness and volume depends on freeboard observations from satellite altimeters and in turn on information of snow mass and sea-ice density required for the freeboard-to-thickness conversion. These parameters, especially sea-ice density, are usually based on climatologies constructed from in situ observations made in the 1980s...
Article
Full-text available
The aim of this study was to investigate the light transfer through sea ice with a focus on bio-optical substances both in fast ice and in the drift ice zones in the northern Baltic Sea. The measurements included snow and ice structure, spectral irradiance and photosynthetically active radiation below the sea ice. We also measured the concentration...
Article
Full-text available
Light-absorbing impurities (LAIs) deposited in snow have the potential to substantially affect the snow radiation budget, with subsequent implications for snow melt. To more accurately quantify the snow albedo, the contribution from different LAIs needs to be assessed. Here we estimate the main LAI components, elemental carbon (EC) (as a proxy for...
Preprint
Full-text available
Light-absorbing impurities (LAI) have the potential to substantially affect snow albedo, with subsequent changes on snow melt and impact on climate. To more accurately quantify the snow albedo, the contribution from different LAI needs to be assessed. Here we estimate the main LAI components, elemental carbon (EC) (as a proxy for black carbon) and...

Network

Cited By
    • Finnish Meteorological Institute
    • Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research
    • State Key Laboratory of Cryosphere Sciences, Chinese Academy of Sciences, Lanzhou, China
    • Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research
    • Fisheries and Oceans Canada