1） Hokkaido Government, Profile of Hokkaido Fisheries, <http:// www.pref.hokkaido.lg.jp/sr/sum/grp/02/AP_05_2010_ Fisheries_in_Hokkaido.pdf> (Last Access May 29, 2018)
2） LALLI C and PARSONS T (1997) Biological Oceanography : An Introduction, Second Edition. Elsevier Butterworth Heinemann, Oxford, pp. 40-73.
3） AOTA M (1971) Study of the Variation of Oceanographic Condition to the North East off Hokkaido in the Sea of Okhotsk III. Low Temp. Sci. Ser. A Phys. Sci. 29 : 210- 224.
4） TAKIZAWA T (1982) Characteristics of the Soya Warm Cur- rent in the Okhotsk Sea. J. Ocea. Soc. J. 38 : 281-292.
5） AOTA M, ISHIKAWA M and UEMATSU E (1988) Variation in Ice Concentration off Hokkaido Island. Low Temp. Sci. Ser. A Phys. Sci. 47 : 161-175.
6） MAITA Y and TOYA K (1986) Characteristics on the Distri- bution and Composition of Nutrients in Subarctic Regions. Bull. J. Soc. Fish. Ocea. 50 (2) : 105-113.
7） KUDO I, FROLAN A, TAKATA H and KOBAYASHI N (2011) Ocean-ographic Structure and Biological Productivity in the Coastal Area of Okhotsk Sea. Bull. Coast. Ocea. 49 (1) : 13- 21.
8） Hokkaido Regional Development Bureau, Ministry of Land, Infrastructure, Transport and Tourism Japan <https://www.hkd.mlit.go.jp/ab/tisui/v6dkjr00000006jx.html>
9） WOTTON R S, MALMQVIST B (2001) Feces in Aquatic Ecosys- tems : Feeding Animals Transform Organic Matter into Fecal Pellets, which Sink or are Transported Horizontally by Currents ; these Fluxes relocate Organic Matter in Aquatic Ecosystems. BioScience 51 (7) : 537-544.
10） YAMAMOTO G (1956) On Behavior of the Scallop under some Environmental Conditions, with Special Reference to Effects of Suspended Silt, Lack of Soluble Oxygen and others on Ciliary Movement of Gill Pieces. J. J. Ecol. 5 (4) : 172-175.
11） Japan Meteorological Agency, Latest Weather, <https:// www.data.jma.go.jp/fcd/yoho/typhoon/statistics/landing/ landing.html>
12） KITANO Y and YAMADA T (2016) The Relationship between Explosive Cyclone through Northern Japan and Pacific Blocking. J. J. Soc. Civil Eng. Ser. B1 72 (4) : 121-126.
13） Kyusyu Univ., Explosive Cyclone Database, <http://fujin. geo.kyushu-.ac.jp/meteorol_bomb/index.php>
14） Weekly Paper Suisan Shinbun, <http://suisan.jp/article- 7483.html> (Last access November 20, 2017).
15） Ministry of Agriculture, Forestry and Fisheries, <http:// www.maff.go.jp/j/saigai/typhoon/20171106.html> (Last access November 20, 2017)
16） Fishing Communities Promotion and Disaster Prevention Division, Fisheries Infrastructure Department, Fisheries Agency Japan, <http://www.jfa.maff.go.jp/j/bousai/ hamaplan/hokkaido_koikihamaplan.html> (Last access November 20, 2017)
17） FUKUSHIMA H, KASHIWAMURA M, YAKUWA I and TAKAHASHI S (1964) A Study of the mouth of the Ishikari river. Proc. Coast. Eng. Comm. J. Soc. Civil Eng. 11 : 137-146.
18） FUNAKI J and SHINME R (1999) Sediment diffusion from Mukawa River to ocean after the 1997 Flood. Proc. Conf. Hydr. Eng. J. Soc. Civil Eng. 43 : 449-454.
19） ASAKUMA K, KENJYOU Y and SHIMA T (2016) Study of the classification method for the costal water in an outfall area along the Hokkaido coast in the Okhotsk Sea from satellite imagery. Low Temp. Sci. 74 : 85-93.
20） OHMINATO T, KANEKO T, KOYAMA T, WATANABE A, YASUDA A, TAKEO M, HONDA Y and IgUCHI M (2011) Volcano Obser- vations Using an Unmanned Autonomous Helicopter : seismic observations near the active summit vents of Sakurajima volcano, Japan. Geophys. Res. Abst. 13 : EGU2011- 2855.
21） KOYAMA T, KANEKO T, OHMINATO T, YANAgISAWA T, WATANABE A and TAKEO M (2013) An aeromagnetic survey of Shinmoedake volcano, Kirishima, Japan, after the 2011 eruption using an unmanned autonomous helicopter. Earth Planets Space 65 : 657-666.
22） NIETHAMMER U, JAMES M R, ROTHMUND S, TRAVELLETTI J and JOSWIgA M (2012) UAV based remote sensing of the Super- Sauze landslide: Evaluation and results. Eng. Geology 28 (9) : 2-11.
23） LOMAX A S, CORSO W and ETRO J F (2005) Employing Un-manned Aerial Vehicles (UAVs) as an element of the Integrated Ocean Observing System. Proc. OCEANS 2005 MTS/IEEE 1 : 184-190.
24） KLEMAS V V (2015) Coastal and Environmental Remote Sensing from Unmanned Aerial Vehicles : An Overview. J. Coastal Res. 31 (5) : 1260-1267.
25） PRAVEEN C, MARCELO B, DAVID K and CORRAL J V (2015) A Tone mapping operator based on Neural and Psychophysical Models of Visual Perception. Proc. SPIE 9394, Human Vision and Electronic Imaging XX : 93941I.
26） Overseas Environmental Cooperation Center, Japan, <https:// www.env.go.jp/earth/coop/coop/document/04-wpctmj1/04- wpctmj1.pdf> (Last Access December 11, 2017)
27） Ministry of the Environment Government of Japan, Envi- ronmental Standard about Preservation of Living Envi- ronment <https://www.env.go.jp/kijun/pdf/wt2-1-1.pdf>
28） YONg H K, JUNgHO I, HO K H, JONg-KUK C and SUNgHYUN H (2014) Machine learning approaches to coastal water quality monitoring using GOCI satellite data. GIScience & Remote Sens. 51 (2) : 158-174.
29） MOURI M and FUJII S (1997) Analysis on settling velocity distribution of suspended matter determined by the Plural Settling Cylinders Method. J. J. Soc. Water Env. 20 (12) : 838-844.
30） California Institute of Technology, The ECOSTRESS spectral library, <https://speclib.jpl.nasa.gov/>
31） GMT-The Generic Mapping Tools, <http://gmt.soest.hawaii. edu/> (Last Access April 21, 2018)
32） MIYAZONO A, TADA M and KOMATSU T (1995) Growth of Scallops (Patinopecten yessoensis) in sowing culture grounds around the Abashiri Bay in relation to water and sediment flux. Bull. J. Soc. Fish. Ocea. 59 (4) : 389-397.
33） ISHII J, OKADA S and IWATA K (1977) The Suspended Matter in Sea Water in the Bay of Ishikari, Hokkaido, North Japan. Earth Sci. 31 (1) : 19-33.
34） YAMASHITA T, OSHIDA R, TOMISAWA S, SATO M, TOKISAWA T and YAMAgAMI Y (2014) Influence of the Climate Change on Sediment Transport around the Second Inlet of Saroma Lake. J. J. Soc. Civil Eng. Ser. B2 70 (2) : 606-610.
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