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On November 2, 2022 at 1:16:13 PM UTC, seanh:
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2 | "author": "", | 2 | "author": "", | ||
3 | "author_email": "", | 3 | "author_email": "", | ||
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10 | "license_title": "", | 10 | "license_title": "", | ||
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13 | "metadata_created": "2022-11-02T13:15:42.925328", | 13 | "metadata_created": "2022-11-02T13:15:42.925328", | ||
n | 14 | "metadata_modified": "2022-11-02T13:16:12.793521", | n | 14 | "metadata_modified": "2022-11-02T13:16:13.002002", |
15 | "name": "zhongfen_7th", | 15 | "name": "zhongfen_7th", | ||
16 | "notes": "Abstract:\r\nVariations in Arctic sea ice are not only | 16 | "notes": "Abstract:\r\nVariations in Arctic sea ice are not only | ||
17 | apparent in the extent and thickness but also in its inter nal | 17 | apparent in the extent and thickness but also in its inter nal | ||
18 | properties.The microstructure of summer Arctic sea ice changes | 18 | properties.The microstructure of summer Arctic sea ice changes | ||
19 | simultaneously due to vary ing external forcing,ice ageand extended | 19 | simultaneously due to vary ing external forcing,ice ageand extended | ||
20 | melting seasons that affect its optical properties Thus, knowledge of | 20 | melting seasons that affect its optical properties Thus, knowledge of | ||
21 | the role ofinternal variations on the partitioning ofincident solar | 21 | the role ofinternal variations on the partitioning ofincident solar | ||
22 | shortwave radiation within the ice and upper ocean is important.We | 22 | shortwave radiation within the ice and upper ocean is important.We | ||
23 | investigated the sensitivity of the opti- cal properties of summer ice | 23 | investigated the sensitivity of the opti- cal properties of summer ice | ||
24 | on ice microstructures.The results show that gas bubbles are the | 24 | on ice microstructures.The results show that gas bubbles are the | ||
25 | predominant scatterers within sea ice.Their effects on the scattering | 25 | predominant scatterers within sea ice.Their effects on the scattering | ||
26 | coefficient and ice albedo are 5 and 20 times stronger, | 26 | coefficient and ice albedo are 5 and 20 times stronger, | ||
27 | respectively,than the effect of brine pockets\r\nSea ice cores sampled | 27 | respectively,than the effect of brine pockets\r\nSea ice cores sampled | ||
28 | in the Pacific Sector of the Arctic during the summers of 2008 to 2016 | 28 | in the Pacific Sector of the Arctic during the summers of 2008 to 2016 | ||
29 | were used to estimate the variations in the inherent optical | 29 | were used to estimate the variations in the inherent optical | ||
30 | properties(IOPs ofice and further effects on the radiation budget of | 30 | properties(IOPs ofice and further effects on the radiation budget of | ||
31 | sea iceThe modeled results reveal that variations in ice IOPs of | 31 | sea iceThe modeled results reveal that variations in ice IOPs of | ||
32 | different ice layers are different.These variations are related to the | 32 | different ice layers are different.These variations are related to the | ||
33 | increasing air temperature and decreasing ice ages.At the Arctic basin | 33 | increasing air temperature and decreasing ice ages.At the Arctic basin | ||
34 | scalethe changing OPs ofice greatly changed the amount of solar | 34 | scalethe changing OPs ofice greatly changed the amount of solar | ||
35 | radiation transmitted to the upper ocean even when a constant ice | 35 | radiation transmitted to the upper ocean even when a constant ice | ||
36 | thickness was assumed. especially in marginal ice zonesimplying | 36 | thickness was assumed. especially in marginal ice zonesimplying | ||
37 | different sea ice bottom melt.These find ings revealed the important | 37 | different sea ice bottom melt.These find ings revealed the important | ||
38 | role of the microstructure ofice in affecting the radiation budget of | 38 | role of the microstructure ofice in affecting the radiation budget of | ||
39 | Arctic sea ice.\r\nThis work has been | 39 | Arctic sea ice.\r\nThis work has been | ||
40 | published:https://doi.org/103389/fmars2022.861994 Short-bio:\r\nMiao | 40 | published:https://doi.org/103389/fmars2022.861994 Short-bio:\r\nMiao | ||
41 | YU is a PhD candidate from the Dalian University | 41 | YU is a PhD candidate from the Dalian University | ||
42 | ofTechnology(Supervisor Peng LU) His research interests are the | 42 | ofTechnology(Supervisor Peng LU) His research interests are the | ||
43 | changes in sea ice on different scales and understanding the corre | 43 | changes in sea ice on different scales and understanding the corre | ||
44 | sponding physical processes. The recent study is focused on the | 44 | sponding physical processes. The recent study is focused on the | ||
45 | effects of changing ice micro- structure on ice optical properties.", | 45 | effects of changing ice micro- structure on ice optical properties.", | ||
46 | "num_resources": 1, | 46 | "num_resources": 1, | ||
47 | "num_tags": 0, | 47 | "num_tags": 0, | ||
48 | "organization": { | 48 | "organization": { | ||
49 | "approval_status": "approved", | 49 | "approval_status": "approved", | ||
50 | "created": "2020-04-30T11:11:08.802657", | 50 | "created": "2020-04-30T11:11:08.802657", | ||
51 | "description": "Aerospace Information Research Institute (AIR) | 51 | "description": "Aerospace Information Research Institute (AIR) | ||
52 | under the Chinese Academy of Sciences (CAS) was established in July | 52 | under the Chinese Academy of Sciences (CAS) was established in July | ||
53 | 2017, following the approval for consolidation of three CAS | 53 | 2017, following the approval for consolidation of three CAS | ||
54 | institutes: the Institute of Electronics (IECAS), the Institute of | 54 | institutes: the Institute of Electronics (IECAS), the Institute of | ||
55 | Remote Sensing and Digital Earth (RADI), and the Academy of | 55 | Remote Sensing and Digital Earth (RADI), and the Academy of | ||
56 | Opto-Electronics (AOE) at CAS President Board Meeting. The merger is | 56 | Opto-Electronics (AOE) at CAS President Board Meeting. The merger is | ||
57 | the outcome of CAS efforts towards reformation of its R&D system to | 57 | the outcome of CAS efforts towards reformation of its R&D system to | ||
58 | meet future R&D challenges and to better meet the national demands.", | 58 | meet future R&D challenges and to better meet the national demands.", | ||
59 | "id": "c25dce84-97be-4153-8b90-d38f9ab73e5f", | 59 | "id": "c25dce84-97be-4153-8b90-d38f9ab73e5f", | ||
60 | "image_url": "2021-05-18-080509.992585AIRlogo.png", | 60 | "image_url": "2021-05-18-080509.992585AIRlogo.png", | ||
61 | "is_organization": true, | 61 | "is_organization": true, | ||
62 | "name": "air", | 62 | "name": "air", | ||
63 | "state": "active", | 63 | "state": "active", | ||
64 | "title": "Aerospace Information Research Institute, CAS", | 64 | "title": "Aerospace Information Research Institute, CAS", | ||
65 | "type": "organization" | 65 | "type": "organization" | ||
66 | }, | 66 | }, | ||
67 | "owner_org": "c25dce84-97be-4153-8b90-d38f9ab73e5f", | 67 | "owner_org": "c25dce84-97be-4153-8b90-d38f9ab73e5f", | ||
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