Changes
On October 28, 2024, 8:40:09 AM UTC,
-
Added resource Supplementary Table.xlsx to Dataset belonging to "Glacial mid-depth carbon storage and the role of Northern African upwelling in the last deglaciation"
| f | 1 | { | f | 1 | { |
| 2 | "author": "Szabina Karancz (Royal Netherlands Institute for Sea | 2 | "author": "Szabina Karancz (Royal Netherlands Institute for Sea | ||
| 3 | Research)", | 3 | Research)", | ||
| 4 | "author_email": "szabina.karancz@nioz.nl", | 4 | "author_email": "szabina.karancz@nioz.nl", | ||
| 5 | "code": "7b.b.yh", | 5 | "code": "7b.b.yh", | ||
| 6 | "contributor": "Royal Netherlands Institute for Sea Research | 6 | "contributor": "Royal Netherlands Institute for Sea Research | ||
| 7 | (NIOZ)", | 7 | (NIOZ)", | ||
| 8 | "creator_user_id": "eee7702a-68fd-4584-9eca-76c747e3b2a0", | 8 | "creator_user_id": "eee7702a-68fd-4584-9eca-76c747e3b2a0", | ||
| 9 | "creators": | 9 | "creators": | ||
| 10 | id\":\"https://orcid.org/0000-0003-3433-3041\",\"affiliation\":\"Royal | 10 | id\":\"https://orcid.org/0000-0003-3433-3041\",\"affiliation\":\"Royal | ||
| 11 | Netherlands Institute for Sea | 11 | Netherlands Institute for Sea | ||
| 12 | tactemailaddress\":\"szabina.karancz@nioz.nl\",\"formatted\":\"Szabina | 12 | tactemailaddress\":\"szabina.karancz@nioz.nl\",\"formatted\":\"Szabina | ||
| 13 | Karancz - Royal Netherlands Institute for Sea Research - ORCID: | 13 | Karancz - Royal Netherlands Institute for Sea Research - ORCID: | ||
| 14 | https://orcid.org/0000-0003-3433-3041 - Corresponding Author - | 14 | https://orcid.org/0000-0003-3433-3041 - Corresponding Author - | ||
| 15 | szabina.karancz@nioz.nl\"},{\"firstname\":\"Lennart | 15 | szabina.karancz@nioz.nl\"},{\"firstname\":\"Lennart | ||
| 16 | J.\",\"lastname\":\"de | 16 | J.\",\"lastname\":\"de | ||
| 17 | Nooijer\",\"orcid\":null,\"affiliation\":\"Royal Netherlands Institute | 17 | Nooijer\",\"orcid\":null,\"affiliation\":\"Royal Netherlands Institute | ||
| 18 | for Sea | 18 | for Sea | ||
| 19 | dingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Lennart | 19 | dingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Lennart | ||
| 20 | J. de Nooijer - Royal Netherlands Institute for Sea Research - ORCID: | 20 | J. de Nooijer - Royal Netherlands Institute for Sea Research - ORCID: | ||
| 21 | \"},{\"firstname\":\"Marcel T. J.\",\"lastname\":\"van der | 21 | \"},{\"firstname\":\"Marcel T. J.\",\"lastname\":\"van der | ||
| 22 | Meer\",\"orcid\":null,\"affiliation\":\"Royal Netherlands Institute | 22 | Meer\",\"orcid\":null,\"affiliation\":\"Royal Netherlands Institute | ||
| 23 | for Sea | 23 | for Sea | ||
| 24 | ndingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Marcel | 24 | ndingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Marcel | ||
| 25 | T. J. van der Meer - Royal Netherlands Institute for Sea Research - | 25 | T. J. van der Meer - Royal Netherlands Institute for Sea Research - | ||
| 26 | ORCID: | 26 | ORCID: | ||
| 27 | uddha\",\"lastname\":\"Misra\",\"orcid\":null,\"affiliation\":\"Centre | 27 | uddha\",\"lastname\":\"Misra\",\"orcid\":null,\"affiliation\":\"Centre | ||
| 28 | for Earth Sciences, Indian Institute of | 28 | for Earth Sciences, Indian Institute of | ||
| 29 | ngauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Sambuddha | 29 | ngauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Sambuddha | ||
| 30 | Misra - Centre for Earth Sciences, Indian Institute of Science - | 30 | Misra - Centre for Earth Sciences, Indian Institute of Science - | ||
| 31 | ORCID: | 31 | ORCID: | ||
| 32 | sten\",\"lastname\":\"Bickert\",\"orcid\":null,\"affiliation\":\"MARUM | 32 | sten\",\"lastname\":\"Bickert\",\"orcid\":null,\"affiliation\":\"MARUM | ||
| 33 | \u2013 Centre for Marine Environmental Sciences, University of | 33 | \u2013 Centre for Marine Environmental Sciences, University of | ||
| 34 | dingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Torsten | 34 | dingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Torsten | ||
| 35 | Bickert - MARUM \u2013 Centre for Marine Environmental Sciences, | 35 | Bickert - MARUM \u2013 Centre for Marine Environmental Sciences, | ||
| 36 | University of Bremen - ORCID: | 36 | University of Bremen - ORCID: | ||
| 37 | fan\",\"lastname\":\"Schouten\",\"orcid\":null,\"affiliation\":\"Royal | 37 | fan\",\"lastname\":\"Schouten\",\"orcid\":null,\"affiliation\":\"Royal | ||
| 38 | Netherlands Institute for Sea | 38 | Netherlands Institute for Sea | ||
| 39 | ndingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Stefan | 39 | ndingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Stefan | ||
| 40 | Schouten - Royal Netherlands Institute for Sea Research - ORCID: | 40 | Schouten - Royal Netherlands Institute for Sea Research - ORCID: | ||
| 41 | Jan\",\"lastname\":\"Reichart\",\"orcid\":null,\"affiliation\":\"Royal | 41 | Jan\",\"lastname\":\"Reichart\",\"orcid\":null,\"affiliation\":\"Royal | ||
| 42 | Netherlands Institute for Sea | 42 | Netherlands Institute for Sea | ||
| 43 | ingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Gert-Jan | 43 | ingauthor\":null,\"contactemailaddress\":null,\"formatted\":\"Gert-Jan | ||
| 44 | Reichart - Royal Netherlands Institute for Sea Research - ORCID: | 44 | Reichart - Royal Netherlands Institute for Sea Research - ORCID: | ||
| 45 | \"}]", | 45 | \"}]", | ||
| 46 | "dataset_persistent_id": "DOI:10.25850/nioz/7b.b.yh", | 46 | "dataset_persistent_id": "DOI:10.25850/nioz/7b.b.yh", | ||
| 47 | "deposit_date": "2024-10-27", | 47 | "deposit_date": "2024-10-27", | ||
| 48 | "depositor": "Szabina Karancz (szabina.karancz@nioz.nl)", | 48 | "depositor": "Szabina Karancz (szabina.karancz@nioz.nl)", | ||
| 49 | "distribution_date": "2024-10-27", | 49 | "distribution_date": "2024-10-27", | ||
| 50 | "distributor": "Research Data Management(NIOZ Royal Netherlands | 50 | "distributor": "Research Data Management(NIOZ Royal Netherlands | ||
| 51 | Institute for Sea Research)", | 51 | Institute for Sea Research)", | ||
| 52 | "doi_date_published": "2024-10-27T12:42:22", | 52 | "doi_date_published": "2024-10-27T12:42:22", | ||
| 53 | "groups": [], | 53 | "groups": [], | ||
| 54 | "id": "db822759-1180-4f26-b572-65252903d626", | 54 | "id": "db822759-1180-4f26-b572-65252903d626", | ||
| 55 | "isopen": false, | 55 | "isopen": false, | ||
| 56 | "license_title": null, | 56 | "license_title": null, | ||
| 57 | "maintainer": "Szabina", | 57 | "maintainer": "Szabina", | ||
| 58 | "maintainer_email": "szabina.karancz@nioz.nl", | 58 | "maintainer_email": "szabina.karancz@nioz.nl", | ||
| 59 | "metadata_created": "2024-10-27T11:42:39.893638", | 59 | "metadata_created": "2024-10-27T11:42:39.893638", | ||
| n | 60 | "metadata_modified": "2024-10-28T08:39:57.963057", | n | 60 | "metadata_modified": "2024-10-28T08:40:09.138183", |
| 61 | "name": "dataset-belonging-to-", | 61 | "name": "dataset-belonging-to-", | ||
| 62 | "notes": "Upwelling systems are important components of the carbon | 62 | "notes": "Upwelling systems are important components of the carbon | ||
| 63 | cycle due to their role in redistributing CO2 from mid-depth to the | 63 | cycle due to their role in redistributing CO2 from mid-depth to the | ||
| 64 | ocean surface and thereby affecting sea-atmosphere exchange of CO2. | 64 | ocean surface and thereby affecting sea-atmosphere exchange of CO2. | ||
| 65 | This latter flux is affected by multiple factors, involving | 65 | This latter flux is affected by multiple factors, involving | ||
| 66 | oceanography and local climate conditions, that have also contributed | 66 | oceanography and local climate conditions, that have also contributed | ||
| 67 | to glacial-interglacial variability of atmospheric pCO2. Along the | 67 | to glacial-interglacial variability of atmospheric pCO2. Along the | ||
| 68 | shore of northwestern Africa, the Canary Current Upwelling System | 68 | shore of northwestern Africa, the Canary Current Upwelling System | ||
| 69 | (CCUS) brings the nutrient- and CO2-rich Antarctic Intermediate Water | 69 | (CCUS) brings the nutrient- and CO2-rich Antarctic Intermediate Water | ||
| 70 | (AAIW) to the surface. Today, upwelling intensity in this region is | 70 | (AAIW) to the surface. Today, upwelling intensity in this region is | ||
| 71 | characterized by seasonal fluctuations linked to the migration of the | 71 | characterized by seasonal fluctuations linked to the migration of the | ||
| 72 | Intertropical Convergence Zone. Due to differences in biology-driven | 72 | Intertropical Convergence Zone. Due to differences in biology-driven | ||
| 73 | CO2 uptake, ocean-atmosphere interaction in this region differs | 73 | CO2 uptake, ocean-atmosphere interaction in this region differs | ||
| 74 | between the northern and southern cells, featuring net CO2-sink and | 74 | between the northern and southern cells, featuring net CO2-sink and | ||
| 75 | CO2-source properties, respectively. To better understand | 75 | CO2-source properties, respectively. To better understand | ||
| 76 | glacial-interglacial processes of the North Atlantic tropics, we | 76 | glacial-interglacial processes of the North Atlantic tropics, we | ||
| 77 | reconstructed temperature and pCO2 based on both organic (UK \u02b937, | 77 | reconstructed temperature and pCO2 based on both organic (UK \u02b937, | ||
| 78 | \u03b413C of alkenones) and inorganic proxies (Mg/Ca and \u03b411B of | 78 | \u03b413C of alkenones) and inorganic proxies (Mg/Ca and \u03b411B of | ||
| 79 | foraminiferal carbonate). These proxy signal carriers allow | 79 | foraminiferal carbonate). These proxy signal carriers allow | ||
| 80 | constraining conditions both in the surface (using alkenones and T. | 80 | constraining conditions both in the surface (using alkenones and T. | ||
| 81 | sacculifer) and subsurface (using G. bulloides). Subsurface carbon | 81 | sacculifer) and subsurface (using G. bulloides). Subsurface carbon | ||
| 82 | contents, upwelling rate and the position of the Cape Verde Frontal | 82 | contents, upwelling rate and the position of the Cape Verde Frontal | ||
| 83 | Zone (CVFZ) all affect the carbon speciation of the upwelled water. | 83 | Zone (CVFZ) all affect the carbon speciation of the upwelled water. | ||
| 84 | The 120 ka BP records of reconstructed pCO2 suggest that carbon | 84 | The 120 ka BP records of reconstructed pCO2 suggest that carbon | ||
| 85 | dynamics of the region were very similar to present-day conditions | 85 | dynamics of the region were very similar to present-day conditions | ||
| 86 | prior to the glacial, between approximately 120 and 75 ka BP. During | 86 | prior to the glacial, between approximately 120 and 75 ka BP. During | ||
| 87 | the Last Glacial, however, ocean circulation and water mass | 87 | the Last Glacial, however, ocean circulation and water mass | ||
| 88 | distributions differed substantially from modern conditions. Expansion | 88 | distributions differed substantially from modern conditions. Expansion | ||
| 89 | of the AAIW during the glacial affected upwelling intensity and | 89 | of the AAIW during the glacial affected upwelling intensity and | ||
| 90 | inorganic carbon chemistry of these upwelled waters. Our records | 90 | inorganic carbon chemistry of these upwelled waters. Our records | ||
| 91 | provide evidence for enhanced carbon storage at mid-depth from the | 91 | provide evidence for enhanced carbon storage at mid-depth from the | ||
| 92 | early stage of the glacial onwards and they also show that this did | 92 | early stage of the glacial onwards and they also show that this did | ||
| 93 | not contribute to appreciably local outgassing until approximately 30 | 93 | not contribute to appreciably local outgassing until approximately 30 | ||
| 94 | ka BP. An efficient biological carbon pump fuelled by enhanced | 94 | ka BP. An efficient biological carbon pump fuelled by enhanced | ||
| 95 | nutrient supply from the upwelled waters as well as micro nutrients | 95 | nutrient supply from the upwelled waters as well as micro nutrients | ||
| 96 | from Saharan dust and river runoff, could effectively retain carbon in | 96 | from Saharan dust and river runoff, could effectively retain carbon in | ||
| 97 | this region. A reduction in local nutrient sources during the later | 97 | this region. A reduction in local nutrient sources during the later | ||
| 98 | phases of the Last Glacial eventually resulted in the release of | 98 | phases of the Last Glacial eventually resulted in the release of | ||
| 99 | carbon stored at mid depth of the CCUS and hence, potentially | 99 | carbon stored at mid depth of the CCUS and hence, potentially | ||
| 100 | contribute to the onset of the last deglaciation.", | 100 | contribute to the onset of the last deglaciation.", | ||
| n | 101 | "num_resources": 0, | n | 101 | "num_resources": 1, |
| 102 | "num_tags": 5, | 102 | "num_tags": 5, | ||
| 103 | "organization": { | 103 | "organization": { | ||
| 104 | "approval_status": "approved", | 104 | "approval_status": "approved", | ||
| 105 | "created": "2024-10-22T06:06:56.074257", | 105 | "created": "2024-10-22T06:06:56.074257", | ||
| 106 | "description": "", | 106 | "description": "", | ||
| 107 | "id": "bed2a893-3895-450b-bf4b-c74318003b1b", | 107 | "id": "bed2a893-3895-450b-bf4b-c74318003b1b", | ||
| 108 | "image_url": | 108 | "image_url": | ||
| 109 | z.nl/application/files/1216/8924/5333/NIOZ-logo_witte_randi-2023.svg", | 109 | z.nl/application/files/1216/8924/5333/NIOZ-logo_witte_randi-2023.svg", | ||
| 110 | "is_organization": true, | 110 | "is_organization": true, | ||
| 111 | "name": "nioz", | 111 | "name": "nioz", | ||
| 112 | "state": "active", | 112 | "state": "active", | ||
| 113 | "title": "Royal Netherlands Institute for Sea Research", | 113 | "title": "Royal Netherlands Institute for Sea Research", | ||
| 114 | "type": "organization" | 114 | "type": "organization" | ||
| 115 | }, | 115 | }, | ||
| 116 | "owner_org": "bed2a893-3895-450b-bf4b-c74318003b1b", | 116 | "owner_org": "bed2a893-3895-450b-bf4b-c74318003b1b", | ||
| 117 | "private": false, | 117 | "private": false, | ||
| 118 | "production_date": "2024-10-27", | 118 | "production_date": "2024-10-27", | ||
| 119 | "relationships_as_object": [], | 119 | "relationships_as_object": [], | ||
| 120 | "relationships_as_subject": [], | 120 | "relationships_as_subject": [], | ||
| t | 121 | "resources": [], | t | 121 | "resources": [ |
| 122 | { | ||||
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| 125 | "created": "2024-10-28T08:40:09.156858", | ||||
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| 127 | "format": "XLSX", | ||||
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| 135 | "name": "Supplementary Table.xlsx", | ||||
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| 144 | } | ||||
| 145 | ], | ||||
| 122 | "state": "active", | 146 | "state": "active", | ||
| 123 | "subject": "Earth and Environmental Sciences", | 147 | "subject": "Earth and Environmental Sciences", | ||
| 124 | "tags": [ | 148 | "tags": [ | ||
| 125 | { | 149 | { | ||
| 126 | "display_name": "canary current upwelling system", | 150 | "display_name": "canary current upwelling system", | ||
| 127 | "id": "c3ce2aac-cac2-4de6-97fc-13dee29600fb", | 151 | "id": "c3ce2aac-cac2-4de6-97fc-13dee29600fb", | ||
| 128 | "name": "canary current upwelling system", | 152 | "name": "canary current upwelling system", | ||
| 129 | "state": "active", | 153 | "state": "active", | ||
| 130 | "vocabulary_id": null | 154 | "vocabulary_id": null | ||
| 131 | }, | 155 | }, | ||
| 132 | { | 156 | { | ||
| 133 | "display_name": "carbon system reconstruction", | 157 | "display_name": "carbon system reconstruction", | ||
| 134 | "id": "8d2d327c-e36e-4710-b5d7-9681242b661b", | 158 | "id": "8d2d327c-e36e-4710-b5d7-9681242b661b", | ||
| 135 | "name": "carbon system reconstruction", | 159 | "name": "carbon system reconstruction", | ||
| 136 | "state": "active", | 160 | "state": "active", | ||
| 137 | "vocabulary_id": null | 161 | "vocabulary_id": null | ||
| 138 | }, | 162 | }, | ||
| 139 | { | 163 | { | ||
| 140 | "display_name": "glacial", | 164 | "display_name": "glacial", | ||
| 141 | "id": "e8803040-22b9-4c66-9413-122181ec3358", | 165 | "id": "e8803040-22b9-4c66-9413-122181ec3358", | ||
| 142 | "name": "glacial", | 166 | "name": "glacial", | ||
| 143 | "state": "active", | 167 | "state": "active", | ||
| 144 | "vocabulary_id": null | 168 | "vocabulary_id": null | ||
| 145 | }, | 169 | }, | ||
| 146 | { | 170 | { | ||
| 147 | "display_name": "glacial carbon storage", | 171 | "display_name": "glacial carbon storage", | ||
| 148 | "id": "4ad7153c-7aa8-4e64-8859-6ffa2cc56317", | 172 | "id": "4ad7153c-7aa8-4e64-8859-6ffa2cc56317", | ||
| 149 | "name": "glacial carbon storage", | 173 | "name": "glacial carbon storage", | ||
| 150 | "state": "active", | 174 | "state": "active", | ||
| 151 | "vocabulary_id": null | 175 | "vocabulary_id": null | ||
| 152 | }, | 176 | }, | ||
| 153 | { | 177 | { | ||
| 154 | "display_name": "interglacial", | 178 | "display_name": "interglacial", | ||
| 155 | "id": "a905a4a2-c7ba-45a4-a277-666750f79346", | 179 | "id": "a905a4a2-c7ba-45a4-a277-666750f79346", | ||
| 156 | "name": "interglacial", | 180 | "name": "interglacial", | ||
| 157 | "state": "active", | 181 | "state": "active", | ||
| 158 | "vocabulary_id": null | 182 | "vocabulary_id": null | ||
| 159 | } | 183 | } | ||
| 160 | ], | 184 | ], | ||
| 161 | "title": "Dataset belonging to \"Glacial mid-depth carbon storage | 185 | "title": "Dataset belonging to \"Glacial mid-depth carbon storage | ||
| 162 | and the role of Northern African upwelling in the last | 186 | and the role of Northern African upwelling in the last | ||
| 163 | deglaciation\"", | 187 | deglaciation\"", | ||
| 164 | "type": "dataset", | 188 | "type": "dataset", | ||
| 165 | "url": "https://doi.org/10.25850/nioz/7b.b.yh", | 189 | "url": "https://doi.org/10.25850/nioz/7b.b.yh", | ||
| 166 | "version": "1" | 190 | "version": "1" | ||
| 167 | } | 191 | } |