The Ocean Race: bringing sailing and science together to improve ocean health.

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Team Malizia Argo Float
Antoine Auriol / Team Malizia / The Ocean Race

The Ocean Race is the ultimate ocean challenge– a round-the-world sailing race through some of the most remote waters on earth. The roots of the event’s Science Programme can be traced to 2001 when onboard sensors captured data from surface water. 2015 saw teams deploy drifter buoys for the first time. 

One of the Race’s key aims, besides athletic excellence, is to advance knowledge and collect data on ocean health. This is considered particularly valuable to scientists because teams gather information from areas of the ocean that research vessels seldom access, helping to fill critical knowledge gaps. The 2022-23 race’s focus areas include measuring meteorological data, essential ocean parameters, and microplastic pollution; as well as deploying surface drifter buoys and Argo floats; marine megafauna protection; and researching ocean biodiversity. Collected data is open-source and shared with the Race’s science partners, feeding into reports that inform and influence climate policy and targets.

Last update: 04 Jul 2024
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Contexto
Défis à relever
Erratic rainfall
Extreme heat
Floods
Increasing temperatures
Loss of Biodiversity
Ocean warming and acidification
Sea level rise
Shift of seasons
Storm surges
Tropical cyclones / Typhoons
Invasive species
Pollution (incl. eutrophication and litter)
Poor monitoring and enforcement
Poor governance and participation

The Ocean Race collects data on two of the most significant threats to oceans: climate change and microplastic pollution. Onboard sampling, meteorological, and drifter buoy data contribute to more accurate weather, climate, and ocean health predictions.

 

The lack of direct measurements of environmental and oceanographic variables in data-sparse areas affects the reliability of forecasting and modelling simulations. The racing boats, also known as ‘Ships of Opportunity’, facilitate this direct measurement of ocean conditions beyond routine research and shipping routes, helping to fill critical knowledge gaps and advance our understanding of the ocean and climate change.

 

The Ocean Race’s data collection initiatives also address the relative lack of knowledge regarding the extent and nature of microplastic pollution in the ocean.. The data collected by the boats represent important baseline data and the race also facilitates the testing of resilient scientific sampling systems that can be transported and deployed on boats

Scale of implementation
Global
Ecosystems
Deep sea
Open sea
Coastal forest
Coral reef
River, stream
Tema
Access and benefit sharing
Genetic diversity
Species management
Adaptation
Disaster risk reduction
Mitigation
Connectivity / transboundary conservation
Ecosystem services
Erosion prevention
Restoration
Islands
Local actors
Coastal and marine spatial management
Flood management
Protected and conserved areas management planning
Watershed management
One Health
Outreach & communications
Science and research
Ubicación
Cape Verde
Alicante, Alicante, Spain
Cape Town, Western Cape, South Africa
Itajaí, Santa Catarina, Brazil
Newport, Rhode Island, United States
Aarhus, Central Denmark Region, Denmark
The Hague, South Holland, Netherlands
Kiel, Schleswig-Holstein, Germany
Genoa, Genoa, Italy
East and South Africa
South America
North America
West and South Europe
North Europe
East Europe
Oceania
Procesar
Summary of the process

Holding a race around the world is a premise for sailing through some of the most remote corners of the world. Understanding that this can benefit the science community by providing both a means to access oceans, and a vehicle for deploying measurement instrumentation, enables collaboration and partnership-building between Race stakeholders and the science community. Requiring teams and athletes to support and participate in scientific research through the Ocean Race Teams Sustainability Charter and Code of Conduct, ensures that this collaboration is embedded with The Ocean Race.

 

While the boats provide the means to test new technology and sampling techniques, collaborating with science partners provides the technology and savoir-faire needed to collect and analyse relevant data. Without the knowledge and expertise provided by science partners, and their ability to assess and report on findings, it would not be possible to collect meaningful data, nor share and disseminate findings to relevant audiences and stakeholders. Partnering with scientific institutions ensures quality data collection and the credibility necessary for informing research and policy.  

Building Blocks
A unique racecourse that provides access to geographically extreme and data-sparse areas across the planet’s oceans

The underlying premise for The Ocean Race – racing to circumnavigate the world – means that the race naturally takes competitors to some of the most remote areas in the world. This makes it a unique platform for undertaking scientific research as it gives scientists access to remote areas, such as the Southern Ocean around Antarctica, that would otherwise rarely be accessible. Ships sailing outside of regular shipping routes play an essential role in the ability to deploy scientific instrumentation, such as the drifter buoys and Argo floats that are deployed during the race, across under-sampled locations. This affords rare opportunities for gathering data from parts of the planet where little information has been recorded, making the Race a crucial platform for collecting data that is otherwise unattainable and filling data gaps, contributing to furthering our understanding of our oceans. 

Enabling factors

 

  • The underlying premise for The Ocean Race – circumnavigating the world as fast as possible – means that the race will invariably take boats to areas that are infrequently sailed. 
  • The design of the race route (race legs, race stopovers, etc.) will determine where boats go.
  • Sailing race boats allow access to some of the planet’s most remote seas as well as areas outside common shipping and research routes.
Lesson learned

The race’s route, with stopovers in different countries, presented logistical challenges regarding the transportation of scientific equipment to stopover ports as well as the shipment of samples, material, and instruments back to scientific partners. For example, shipments were subject to varying import conditions and customs duties depending on their country of origin and destination. 

 

Working with local scientific institutions helped with equipment, transporting the equipment on person and working diligently with customs before, during and after transport. Logistics for an international science experiment needs to be well planned out in advance and all admin done in advance regarding shipment of equipment and samples etc.

Establishing a set of race regulations that places science at the centre of racing activities

The Ocean Race Teams Sustainability Charter and Code of Conduct was co-created with the teams to express a fleet-wide commitment to sustainable operations and supporting a healthy ocean. The charter includes themes of Advocacy, Science, Learning and Operations. It seeks to get all teams, staff, and sailors to stand up for the ocean through sustainable sailing, team, and personal actions. 

 

On the science front, teams must pledge to agree to:

 

  • Supporting science-based decision making.
  • Participating in increasing knowledge and understanding of our ocean.
  • Hosting scientific equipment onboard.
  • Participating in sailor and citizen science programmes.
  • Contributing to the United Nations Decade of Ocean Science in collaboration with The Ocean Race.

 

Including science within a charter and requiring stakeholders to undertake various science-related activities whilst competing in a sailing race embeds science, as a core value, into race practices. This is unique in the sporting world as it requires teams and athletes to take on environmental responsibilities as well as their existing sporting responsibilities.

Enabling factors

 

  • Awareness of climate change and the importance, and fragility, of oceans. 
  • Desire to protect oceans and sailing’s ‘racetrack’.
  • Understanding the importance of data collection for climate and ocean science.
  • Desire to use sailing and racing beyond sporting objectives, as a platform for scientific research.
Lesson learned

Collaboration is key, everyone needs to take part and be responsible for a better future for all. 

 

Engagement with the teams, partners and host cities  needs to be early on and there is a need to support them in their journey - not as an afterthought or last minute addition. There needs to be someone within each team that is dedicated to Sustainability and maintaining the Sustainability Charter within their team and department. It is important not to underestimate the amount of work needed to maintain the Sustainability Charter and our sustainability goals - assign enough resources!

 

In an event like The Ocean Race, there are also challenges due to unpredictable circumstances like boat repairs from dismasting or collisions which can increase the footprint and environmental impact of the team and the Race. It is important to have some extra capacity and contingencies to offset unforeseen circumstances like these. 

Collaboration and partnerships with the science community and scientific institutions

The Ocean Race Science Programme is run in collaboration with various science partners, bringing together organisations and teams to pioneer new approaches to data collection, advance technology to contribute to global standardised data mapping, and increase our knowledge of oceans and their relationships with climate change. It provides a unique, and promising, expansion to observational networks, and enables the development of new sampling technologies (e.g. OceanPack-RACE – developed according to sailors’ and scientists’ specifications).

 

Partnerships with the scientific community allow the data collected by the racing boats to be processed and quality checked by science partners, and then made available through global open-source databases. Databases include, amongst others, the European Marine Observation and Data Network (EMODnet) and the Surface Ocean CO2 Atlas (SOCAT) – which informs the Global Carbon Budget, itself informing environmental projections and targets. The deployment of drifter buoys, operated by Météo France, contributes to the National Oceanic and Atmospheric Administration’s (NOAA) drifter programme. 

Enabling factors

 

  • The unique benefits provided by the race: the racecourse’s route through remote corners of the world, as well as the race yachts as vehicles for employing scientific sampling and measuring technology.
  • Organisers and stakeholders’ (teams, athletes, etc.) interest and desire to contribute to scientific research.
  • The science community’s appreciation of the opportunities that The Ocean Race provides for scientific research.
  • Diversity of sailing and scientific stakeholders involved. 
Lesson learned

Discussions with partners and start-ups are ongoing following feedback regarding the use of plastic to construct drifter buoys, and the difficulty to recover these at their end of life. The aim would be to deploy either instruments that are water degradable or that can be recovered.

 

Data collection using racing yachts for onboard sampling and deployment of drifter buoys

Beyond facilitating access to hard-to-reach locations, sailboats also provide useful modes of transport for deploying scientific instrumentation. The boats can carry scientific equipment, both for deployment in the ocean, but also for continual measurement by sensors that are permanently onboard. The race boats’ speed means that data from different locations can be captured across short timespans, something which is not achievable by most research vessels. Yachts can also be used to pilot and test new research technology and techniques, such as technology that allows results to be shared in real-time, and the OceanPack – a device which records essential ocean data from aboard the yachts. 

 

In a racing context, carrying devices that take meteorological measurements is not only beneficial for science partners, but also for the race participants themselves, as it helps to inform and improve weather forecasts that will impact their own decision-making and performances throughout the race. 

 

Using racing yachts for data collection paves the way for the installation and deployment of measuring devices on other vessels such as fishing or commercial boats, as well as other sailing boats. 

 

 

Enabling factors
  • Sensors and scientific instrumentation can be installed on sailing boats.
  • The high speeds that are achievable by sailing yachts enable the collection of data across short time spans.
  • Boats can reach specific locations to deploy drifter buoys or Argo floats.
Lesson learned

Scientific devices were originally designed for use on large research or commercial vessels. This presented some technical challenges regarding their use and installation aboard racing yachts which falls beyond the scope of their intended applications. As the boats are racing yachts the devices needed to be resilient and also light.

Challenges included operating sampling devices in an environment where there is fluctuating power supply, constant exposure to corrosive humidity, and where operators (i.e. teams and athletes) face immense physical (and psychological) stresses. This meant the devices needed to be user-friendly and simple to operate so that individuals with little specialised training could use them effectively and efficiently under stressful and pressurised conditions. The Ocean Race is collaborating with manufacturers to advance the technology and enhance its reliability for future uses.

Data sharing to support science and policy

The data collected by the racing boats contributes to understanding the complex ocean system by recording high quality direct measurements. The meteorological and oceanographic data gathered from onboard sensors (OceanPack and weather stations), drifter buoys, and Argo floats, is transmitted to science partners in real-time via satellite. While the data alone is useful, its full potential for advancing climate science arises when it can be combined with existing data and integrated into models and assessments. Sharing data with the scientific community facilitates quality control and synthesis into useful data products. 

 

Collaboration with key environmental institutions means that the collected data can contribute to global open-source databases such as the Surface Ocean Carbon Atlas (SOCAT), the NOAA NCEI World Ocean Database, UNEP’s Global Marine Litter Programme, the Copernicus Marine Service, and the European Marine Observation and Data Network (EMODnet).

 

The aggregated data can then be used for assessing, mapping, and modelling pressing issues such as plastic pollution, ocean temperature, or the state of marine environments. The data also contributes to scientific assessments and reports that underpin key environmental policies such as the Global Carbon Budget, the UN Framework on Climate Change, or the Treaty on Plastic.

Enabling factors

 

  • Technology that allows data to be shared in real time.
  • Making the collected data open-source ensures that it is accessible to all, promoting the widest and most impactful use of data to advance climate science.
  • Partnerships with the science community mean that data can be included in databases and is accessible to those who can use it to its full potential.
  • Sharing data with organisations that are examining the impact of human activity on the ocean means that it can feed into reports and databases that inform and influence policy and environmental targets
Impacts

The programme garnered greater acceptance within the sailing community and raised awareness among
our sponsors (positive feedback loop). We had the opportunity to diversify the equipment and explore advanced approaches. For instance, Biotherm’s boat featured the deployment of a flow cytometer (basically an automatic microscope with a water pump). Additionally, we conducted trials of an innovative trace element sampler on Team Malizia and 11th Hour Racing Team, and introduced a novel eDNA sampler on 11th Hour Racing Team. Over 4 million data points were collected in the 7 months of the race in The Ocean Race science programme. Findings obtained by our science partners feed into vital reports that are used to inform and influence important decisions by governments across the world, including publications from the Intergovernmental Panel on Climate Change (IPCC), and databases such as the Surface Ocean Carbon Dioxide Atlas, which provides information for the Global Carbon Budget, a yearly assessment of carbon dioxide that informs targets and predictions for carbon reduction. The Ocean Race Science programme is part of the Ocean Decade Odyssey project. The Science programme provided compelling stories for media around the world. The programme and its results gained coverage in quality outlets including BBC News Online, Sky News, The Guardian and Al Jazeera. 

Beneficiaries

All the collected data is shared with The Ocean Race’s science partners, which are world-leading organisations dedicated to studying the effects of human activity on the ocean and the atmosphere. These collaborations
represent a win-win situation.

Sustainable Development Goals
SDG 3 – Good health and well-being
SDG 4 – Quality education
SDG 5 – Gender equality
SDG 9 – Industry, innovation and infrastructure
SDG 11 – Sustainable cities and communities
SDG 12 – Responsible consumption and production
SDG 13 – Climate action
SDG 14 – Life below water
SDG 15 – Life on land
SDG 17 – Partnerships for the goals
Story
Onboard Reporter Amory Ross managed the eDNA sampling onboard 11th Hour Racing Team boat
Amory Ross- 11th Hour Racing Team
Amory ross - The Ocean Race

First of its kind eDNA sampling from onboard racing vessel

https://www.youtube.com/watch?v=RukDm4hz-c4

Conectar con los colaboradores
Other contributors
Peter Rusch
The Ocean Race