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Sources of the Aeolian Material in Periglacial Conditions Based on Quartz Grain Analysis, Ebba Valley, Svalbard Cover

Sources of the Aeolian Material in Periglacial Conditions Based on Quartz Grain Analysis, Ebba Valley, Svalbard

Open Access
|Nov 2024

Figures & Tables

Fig. 1.

Orthophotomap of the study area with nine aeolian deposition test sites (1–9) located within the Ebba Valley. Weather stations (E – Ebba Valley, S – Sven Glacier, and P – Pyramiden city) are marked with black stars. Orthophotomap source – Norwegian Polar Institute. Inner map shows the location of the study area (black arrows and circle) in the central Spitsbergen, High Arctic.
Orthophotomap of the study area with nine aeolian deposition test sites (1–9) located within the Ebba Valley. Weather stations (E – Ebba Valley, S – Sven Glacier, and P – Pyramiden city) are marked with black stars. Orthophotomap source – Norwegian Polar Institute. Inner map shows the location of the study area (black arrows and circle) in the central Spitsbergen, High Arctic.

Fig. 2.

Geomorphological sketch of the study area (Ebba Valley, Svalbard). Modified after the original figure by Rachlewicz (2009).
Geomorphological sketch of the study area (Ebba Valley, Svalbard). Modified after the original figure by Rachlewicz (2009).

Fig. 3.

Percentage of quartz grains in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dowgiałło and Woronko (1998).
Percentage of quartz grains in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dowgiałło and Woronko (1998).

Fig. 4.

Percentage of quartz grains in the years 2015–2018 collected in Ebba Valley divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dowgiałło and Woronko (1998) at nine test sites.
Percentage of quartz grains in the years 2015–2018 collected in Ebba Valley divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dowgiałło and Woronko (1998) at nine test sites.

Total number of quartz grains collected in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dow-giałło and Woronko (1998)_

YearClass
CELEM–ELRMEM–RMNUTotal
2015834521355215126737
20165529125377367386
201740864275914212
2018478819711017720639

Total number of quartz grains collected in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dow-giałło and Woronko (1998) at nine test sites_

Test site nameClass
CELEM–ELRMEM–RMNUTotal
The mouth of the valley with dense vegetation
1. Wet tundra42468024
2. Dry tundra20217214
The middle part of the valley floor with little or no vegetation
3. Leeward slope901137434
4. Highest marine terrace top12831162611104
5. Windward slope38661518213954530
6. Sandy surface66552027017280645
7. Central part of the valley472690216726277
The upper part of the valley without vegetation cover
8. Sandur12523202814102
9. Moraine35885107036244

Percentage of quartz grains collected in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dowgiałło and Woronko (1998) at nine test sites_

Test site nameClass
CELEM–ELRMEM–RMNU
The mouth of the valley with dense vegetation
1. Wet tundra16.78.316.725.033.30.0
2. Dry tundra14.30.014.37.150.014.3
The middle part of the valley floor with little or no vegetation
3. Leeward slope26.50.032.48.820.611.8
4. Highest marine terrace top11.57.729.815.425.010.6
5. Windward slope7.212.528.515.526.210.2
6. Sandy surface10.28.531.310.926.712.4
7. Central part of the valley17.09.432.57.624.29.4
The upper part of the valley without vegetation cover
8. Sandur11.84.922.519.627.513.7
9. Moraine14.33.334.84.128.714.8

Percentage of quartz grains collected in the Ebba Valley in 2015–2018 divided into grain rounding and matting classes according to Cailleux (1942) with modification by Goździk (1995) and Mycielska-Dow-giałło and Woronko (1998)_

YearClass
CELEM–ELRMEM–RMNU
201511.36.128.97.529.217.1
201614.27.532.49.618.917.4
201718.93.830.212.727.86.6
20187.413.830.817.227.73.1

Spearman’s rank correlation coeffcient between different quartz grain types collected in the Ebba Valley and different meteorological variables_ The red colour indicates a positive correlation_ The blue colour indicates a negative correlation_

ParameterCELEM–ELRMEM–RMNU
Average wind speed Ebba Valley–0.01p = 0.92–0.02p = 0.87–0.03p = 0.75–0,14p = 0.19–0.05p = 0.630.49p < 0.01
Average wind speed Pyramiden0.08p = 0.43–0.31p < 0.01–0.22p = 0.04–0.08p = 0.470p = 0.99–0.01p = 0.92
Average wind speed Sven Glacier–0.04p = 0.71–0.1p = 0.340.04p = 0.73–0.18p = 0.08–0.13p = 0.230.45p < 0.01
Average temperature Ebba Valley–0.07p = 0.520.31p < 0.010.21p = 0.050.03p = 0.760.01p = 0.910.23p = 0.03
Totalprecipitation Longyearbyen–0.08p = 0.430.31p < 0.010.22p = 0.040.08p = 0.470p = 0.990.01p = 0.92
Average air humidity Ebba Valley–0.08p = 0.460.08p = 0.470.11p = 0.30.05p = 0.66–0.07p = 0.5–0.26p = 0.01

j_quageo-2024-0034_app-tab_001

2015Trap 1Trap 2Trap 3
CELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNU
Wet tundra000000000000000000
Dry tundra000000000000000000
Leeward slope000100000000000000
Highest marine terrace top116443202351315130
Windward slope31013213072985155507065
Sandy surface260685655792130104
Central part1033032732810365347354
Sandur324242125144003201
Moraine1011812113326089008023
2016Trap 1Trap 2Trap 3
CELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNU
Wet tundra203220000010000000
Dry tundra001001001010000000
Leeward slope404023000011100000
Highest marine terrace top010100001120004310
Windward slope762191367311061141220515
Sandy surface1332316410786491910123
Central part607258525030
Sandur101001000000001001
Moraine000013507035204042
2017Trap 1Trap 2Trap 3
CELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNU
Wet tundra100020000100000010
Dry tundra000021200120000010
Leeward slope201110000100201000
Highest marine terrace top001023113010100030
Windward slope1132201273621011440
Sandy surface201110010100504222
Central part417021503130305240
Sandur101022112321001141
Moraine305050016151402220
2018Trap 1Trap 2Trap 3
CELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNUCELEM–ELRMEM–RMNU
Wet tundra101000000000020320
Dry tundra000000000010000000
Leeward slope000000001000004030
Highest marine terrace top235244101000113110
Windward slope214144100111161081491824342
Sandy surface3123252215184110164561127332
Central part233241334344429240
Sandur301230102441102550
Moraine2081603462703015360
DOI: https://doi.org/10.14746/quageo-2024-0034 | Journal eISSN: 2081-6383 | Journal ISSN: 2082-2103
Language: English
Page range: 179 - 191
Submitted on: Aug 21, 2024
|
Published on: Nov 6, 2024
In partnership with: Paradigm Publishing Services
Publication frequency: 4 issues per year
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© 2024 Krzysztof Grzegorz Rymer, Lucyna Wachecka-Kotkowska, published by Adam Mickiewicz University
This work is licensed under the Creative Commons Attribution 4.0 License.