volvooceanrace.com Volvo Ocean Race Science programme Preliminary results Leg 8 Itajaí to Newport

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Volvo Ocean Race Science programme Preliminary results Leg 8 Itajaí to Newport

Preliminary results Leg 8 Compiled using data provided by Dr Toste Tanhua & Dr-Ing. Sören Gutekunst, GEOMAR Helmholtz Centre for Ocean Research Kiel with the support of Cluster of Excellence Future Ocean. With contributions from Shaun Dolk, National Oceanic & Atmospheric Adminisitration. The microplastic results reported here have been revised November 2018 to include updated data - measurements were previously reported differently but further analysis confirmed the values presented here. Particular thanks to the Turn the Tide on Plastic and Team AkzoNobel race teams, and notably Liz Wardley and Nicolai Sehested of those teams respectively, for facilitating and conducting the data collection. Further correspondence contact: Mairéad O'Donovan education@volvooceanrace.com / Sören Gutekunst sgutekunst@geomar.de Media & Communication: Robin Clegg robin.clegg@volvooceanrace.com Central Coordination: Volvo Ocean Race: Anne-Cécile Turner annececile.turner@volvooceanrace.com All contacts page 12 This report forms part of a suite of reports summarising the progress of data collection and preliminary analysis. Refer also to previous reports available to download at https://www.volvooceanrace.com/en/sustainability/legacy.html

Executive Summary The Volvo Ocean Race Science Programme continues to contribute data to extend scientific knowledge of microplastics distribution and other parameters that indicate overall ocean health. Leg 8 of the race from Itajaí, Brazil to Newport, U.S.A effectively allowed for sampling of a transect of the Atlantic Ocean from south to north. Scientific drifter buoys were also deployed by some boats to increase the coverage of data collection by Volvo Ocean Race drifter buoys. Samples were collected along this leg by two racing boats as both Turn the Tide on Plastic and Team AkzoNobel carried sampling units. The Team AkzoNobel sampling unit did not operate optimally during this leg but the technical issues were rectified during maintenance in Newport. Based on the preliminary results of analysis microplastics were recorded in all samples from this south to north route. The highest microplastic concentration was recorded in the sample closest to Itajaí. This measurement was previously reported as 157 particles/m 3 but after further analysis the value was confirmed to be 79 particles/m 3. Otherwise, levels were relatively consistent averaging 24 particles/m 3 along the leg route to Newport. Oceanographic measurements reflected the occurrence of a phytoplankton spring bloom in northerly waters with marine primary producers absorbing carbon dioxide from the ocean and allowing for uptake of atmospheric CO 2 by the ocean. Collaboration, Funding and Support The onboard sampling component of the science programme is a collaboration between Volvo Cars, Cluster of Excellence - The Future Ocean, GEOMAR Helmholtz Centre for Ocean Research Kiel, SubCtech GmbH, bbe Moldaenke, Turn the Tide on Plastic and Team AkzoNobel crews. Volvo Cars is funding the onboard equipment through profits from the sale of their Cross Country Volvo V90 Ocean Race edition cars. The scientific drifter buoys are part of the National Oceanic and Atmospheric Administration s (NOAA) drifter programme. The sharing of meteorological data measured from the boats is part of a pilot project developed by JCOMM (Joint technical Commission for Oceanography and Marine Meteorology, WMO IOC1) partners. These organisations are brought together by the Volvo Ocean Race sustainability programme, in order to increase ocean knowledge, pioneer a new area of data collection and advance the technology of instrumentation in order to contribute to create a global map of standardised data, specifically in the area of microplastic concentration.

Ainhoa Sanchez Volvo Ocean Race volvooceanrace.com Onboard sampling

Preliminary results Provided by Dr Toste Tanhua and Dr-Ing. Sören Gutekunst, GEOMAR Helmholtz Centre for Ocean Research Kiel with the support of Cluster of Excellence Future Oceans The microplastic results reported here have been revised November 2018 to include updated data measurements were previously reported differently but further analysis confirmed the values presented here. Leg 8: Itajaí to Newport A South to North Atlantic Transect During Leg 8 the boats raced from Itajaí in Brazil to Newport, Rhode Island in the United States. Unlike the previous leg through the remote South Pacific this leg passed relatively close to continental America approximately providing a south to north transect through the Atlantic. The preliminary results presented here are those from Turn the Tide on Plastic sampling effort only. To maintain continuity of the existing dataset analyses of Turn the Tide on Plastic samples were prioritised and Team AkzoNobel sample results will be presented at a later stage. In total for this leg there were 53 filters collected relating to 16 samples. In addition to the 100 and 500 µm filters used for measurements during previous legs, a finer 30 µm filter was added to the systems during this leg. Data presented here exclude the finer particle measurements in order to remain comparable to data from earlier legs. It is important as always to remember the preliminary nature of these results and also to view them with consideration of ocean currents and the averages that the numbers represent due to the potential geographical range of a single sample. Microplastic levels along this route ranged between 79 particles/m 3 in the sample closest to Itajaí, with otherwise relatively consistent levels averaging around 24 particles/m 3. Notably on the approach to Newport the highest levels were not recorded in the sample closest to the mainland. This may again illustrate the effects of ocean current movement of microplastics in a boundary-less marine environment. South to North in more detail The first sample along this leg was at an average distance of 431 km from Itajaí. The level of 79 particles/m 3 was higher than the level of 95 particles/m 3 measured on the approach, and closer, to Itajaí. Progressing north along the Brazilian coastline levels were relatively consistent between 24 and 29 particles per cubic metre with one lower measurement of 7 particles/m 3. A low measurement of 6 particles/m 3 in a sample taken from the Caribbean southeast of Barbados may have been related to partial blockage of the filters by sargassum seaweed as reported by Liz Wardley on board Turn the Tide on Plastic, although in theory such a blockage should not influence measurements as analysis is based on the volume of water passed through the filters. Proceeding north into the North Atlantic concentrations measured were between 15 and 45 particles/m 3 with a measurement of 36 particles per cubic metre in the last sample collected an average of 124 km from Newport U.S.A.

Science Report 2017-2018

Oceanography Volvo Ocean Race 2017-2018 Measurements of pco 2 showed a fitting transition from higher concentrations in southern and equatorial Atlantic samples to lower concentrations further north. The lower concentrations in the north correspond to the seasonal increase in phytoplankton during the northern hemisphere spring - spring bloom. Phytoplankton utilise carbon dioxide during photosynthesis thereby decreasing the pco 2 concentration in the seawater and potentially driving a flux of carbon dioxide from the atmosphere to the ocean. pco 2 - parts per million Chlorophyll a measurements which provide a proxy for primary production measurement and therefore phytoplankton biomass might be expected to correspond inversely to carbon dioxide levels. Other variables will affect this relationship however, including for example the time of day when samples were measured photosynthesis and primary productivity being restricted to daylight hours. Chlorophyll a mg/m 3 ph levels were closely related to CO 2 measurements showing very clearly the relationship between higher dissolved carbon dioxide levels and increased acidity i.e. lower ph. ph Maps Sören Gutekunst, GEOMAR Helmholtz Centre for Ocean Research Kiel

Oceanography Volvo Ocean Race 2017-2018 Temperature showed as expected a gradient from warm to cold as sampling progressed north. The pattern relating to salinity along this south-north transect was typical of what would be expected with lower salinity in tropical waters where high rainfall lowers salinity. Relatively low salinity in the northernmost sample likely reflects the input of colder water from the north. Temperature - Celsius Salinity - Practical Salinity Unit Volvo Ocean Race data is now available open source on the National Oceanic and Atmospheric Administration website: https://data.nodc.noaa.gov/cgi-bin/iso?id=gov.noaa.nodc:0170967 The contribution of Volvo Ocean Race data to understanding and protecting our ocean and climate was highlighted in the World Meteorological Organisation s World Oceans Day statement: https://public.wmo.int/en/media/news/world-oceans-day-campaigncleaner-healthier-seas Maps Sören Gutekunst, GEOMAR Helmholtz Centre for Ocean Research Kiel

Photo Sam Greenfield Volvo Ocean Race volvooceanrace.com Drifter Buoys

Volvo Ocean Race 2017-2018 Scientific Drifter Buoys Map NOAA/GDP & NOAA/OSMC Map showing the track to date of the four Volvo Ocean Race Leg 8 drifter buoys. The tracks display an overall west east movement likely influenced by the North Equatorial Counter Current. Leg eight was not part of the initial deployment plan. Because of the availability of extra drifter buoys at this stage several deployments were possible between Itajaí and Newport. 3 degrees north was identified as the optimal location for these deployments to minimise the likelihood of these buoys being carried aground onto the Brazilian coast and to seed an area with relatively few of these drifting buoys. To prevent non-deploying teams from gaining any advantage those teams were required to carry bags of water weighing equal that of a drifter buoy and to empty the bags at 3 degrees north. View the track of any of the Volvo Ocean Race Leg 8 drifter buoys at: http://osmc.noaa.gov/monitor/osmc/osmc.html BUOY NUMBER (WMO#) DEPLOYED BY 5201642 MAPFRE 5401572 Team Brunel 1301543 Dongfeng Race Team 5401558 Sun Hung Kai Scallywag

See more Watch: https://www.volvooceanrace.com/en/news/11890_making-sense-of-microplastics.html Media Mentions: https://public.wmo.int/en/media/news/world-oceans-day-campaign-cleaner-healthier-seas https://www.express.co.uk/news/uk/969915/prince-charles-global-plastics-plague-oceanpollution-volvo-ocean-race http://www.dailymail.co.uk/wires/pa/article-5808375/prince-charles-welcomes-decisiveaction-against-global-plastics-plague.html http://www.dorsetecho.co.uk/news/national/16270643.prince_charles_welcomes decis ive_action against global_plastics_plague / http://www.ihu.unisinos.br/579695-microplastico-nos-oceanos-descobertas-alarmantes https://edition.cnn.com/2018/06/08/sport/plastic-pollution-volvo-ocean-race-teamakzonobel-spt/index.html https://news.sky.com/story/prince-charles-praises-sky-ocean-rescue-bid-to-tackle-globalplastics-plague-11395442 Previous reports: Download at https://www.volvooceanrace.com/en/sustainability/legacy.html Legs 1-4 Alicante Lisbon Cape Town Melbourne Hong Kong Volvo Ocean Race Science Programme Preliminary Results Leg 1, 2, 3 & 4' Leg 6 Hong Kong Auckland Volvo Ocean Race Science Programme Leg 6 preliminary results_final Leg 7 Auckland - Itajaí Volvo Ocean Race Science Programme Auckland to Itajaí Preliminary Data Interesting links: https://www.nasa.gov/topics/earth/features/perpetual-ocean.html https://www.esa.int/specials/eduspace_weather_en/sem1hyk1yhh_1.html View the Volvo Ocean Race Drifter buoys: Search for the Volvo Ocean Race drifter buoys in the list at: http://www.aoml.noaa.gov/phod/dac/deployed.html Insert the WMO# of one of the buoys at http://osmc.noaa.gov/monitor/osmc/osmc.html, change Photo the Volvo Ocean Race time range, display All Positions and refresh the map to see the track line from where each buoy has been transmitting. Alternatively, access the Platform Info to view the raw near real-time data.

Volvo Ocean Race Scientific Consortium Contacts. Central Coordination Anne-Cécile Turner Sustainability Programme Leader Volvo Ocean Race annececile.turner@volvooceanrace.com Volvo Ocean Race Scientific Consortium coordinator Dr Toste Tanhua GEOMAR Helmholtz Centre for Ocean Research Kiel ttanhua@geomar.de On site coordinator, data analysis and reporting Dr-Ing. Sören Gutekunst GEOMAR Helmholtz Centre for Ocean Research Kiel sgutekunst@geomar.de Scientific Programme copywriting and communication Mairéad O'Donovan educationvolvooceanrace.com Communication & Media Robin Clegg Sustainability Communications robin.clegg@volvooceanrace.com With the support of