No description is available. Visit https://dataone.org/datasets/%7BA13662A2-C520-4C15-AC73-D6E6C20485AA%7D for complete metadata about this dataset.

EMODnet Chemistry aims to provide access to marine chemistry data sets and derived data products concerning eutrophication, ocean acidification, contaminants and litter. The chosen parameters are relevant for the Marine Strategy Framework Directive (MSFD), in particular for descriptors 5, 8, 9 and 10. The dataset contains standardized, harmonized and validated data collections from beach litter (monitoring and other sources). Datasets concerning beach and seafloor litter data are loaded in a central database after a semi-automated validation phase. Once loaded, a data assessment is performed in order to check data consistency and potential errors are corrected thanks to a feedback loop with data originators. For beach litter, the harmonized datasets contain all unrestricted EMODnet Chemistry data on beach litter, including monitoring data, data from cleaning surveys and data from research. A relevant part of the monitoring data has been considered for assessment purposes by the European institutions and therefore is tagged as MSFD_monitoring. EMODnet beach litter data and databases are hosted and maintained by 'Istituto Nazionale di Oceanografia e di Geofisica Sperimentale, Division of Oceanography (OGS/NODC)' from Italy. Data are formatted following Guidelines and forms for gathering marine litter data, which can be found at: https://doi.org/10.6092/15c0d34c-a01a-4091-91ac-7c4f561ab508. The updated vocabularies of admitted values are available in https://nodc.ogs.it/marinelitter/vocab. The harmonized datasets can be downloaded as EMODnet Beach litter data format Version 7.0, which is a spreadsheet file composed of 4 sheets: beach metadata, survey metadata, animals and litter.

No description is available. Visit https://dataone.org/datasets/%7BF5416A06-3A5E-4213-AD6F-DD149E64EB4A%7D for complete metadata about this dataset.

The Copernicus Marine Service is the marine component of the European Union’s Copernicus Programme. It provides free, open-access, and science-based information on the state of the Ocean at both global and regional scales. This includes data on the physical Ocean (Blue Ocean), sea ice (White Ocean), and Ocean biogeochemistry (Green Ocean).Funded by the European Commission and implemented by Mercator Ocean International, the service supports the implementation of EU policies and International legal Commitments related to Ocean Governance. It also aims to meet the growing demand for reliable Ocean knowledge across society, and to foster sustainable development in the Ocean sectors by providing state-of-the-art Ocean data and forecasts.The Copernicus Marine Service contributes to a wide range of applications, including marine protection, climate change monitoring, pollution tracking, maritime safety, sustainable use of marine resources, and the development of renewable Ocean energy. It is also an asset for scientific research and innovation, and plays a key role in raising public awareness of Ocean-related issues by making complex Ocean information accessible to citizens all around the world.The GLORYS12V1 product is the CMEMS global ocean eddy-resolving (1/12° horizontal resolution, 50 vertical levels) reanalysis covering the altimetry (1993 onward).It is based largely on the current real-time global forecasting CMEMS system. The model component is the NEMO platform driven at surface by ECMWF ERA-Interim then ERA5 reanalyses for recent years. Observations are assimilated by means of a reduced-order Kalman filter. Along track altimeter data (Sea Level Anomaly), Satellite Sea Surface Temperature, Sea Ice Concentration and In situ Temperature and Salinity vertical Profiles are jointly assimilated. Moreover, a 3D-VAR scheme provides a correction for the slowly-evolving large-scale biases in temperature and salinity.DOI (product): https://doi.org/10.48670/moi-00021

EMODnet Chemistry aims to provide access to marine chemistry data sets and derived data products concerning eutrophication, ocean acidification, contaminants and litter. The chosen parameters are relevant for the Marine Strategy Framework Directive (MSFD), in particular for descriptors 5, 8, 9 and 10. The dataset contains standardized, harmonized and validated data collections from beach litter (monitoring and other sources). Datasets concerning beach and seafloor litter data are loaded in a central database after a semi-automated validation phase. Once loaded, a data assessment is performed in order to check data consistency and potential errors are corrected thanks to a feedback loop with data originators. For beach litter, the harmonized datasets contain all unrestricted EMODnet Chemistry data on beach litter, including monitoring data, data from cleaning surveys and data from research. A relevant part of the monitoring data has been considered for assessment purposes by the European institutions and therefore is tagged as MSFD_monitoring. EMODnet beach litter data and databases are hosted and maintained by 'Istituto Nazionale di Oceanografia e di Geofisica Sperimentale, Division of Oceanography (OGS/NODC)' from Italy. Data are formatted following Guidelines and forms for gathering marine litter data, which can be found at: https://doi.org/10.6092/15c0d34c-a01a-4091-91ac-7c4f561ab508 The updated vocabularies of admitted values are available at: https://nodc.ogs.it/marinelitter/vocab The harmonized datasets can be downloaded as EMODnet Beach litter data format Version 7.0, which is a spreadsheet file composed of 4 sheets: beach metadata, survey metadata, animals and litter. Local_CDI field in the survey metadata sheet allows to retrieve the original data.

The International Programme for Antarctic Buoys (IPAB) is run by the World Climate Research Programme (WCRP). IPAB is a self-sustaining project of the WCRP, and provides a link between institutions with Antarctic and Southern Ocean interests. IPAB was formally established, following a one year pilot phase, at a meeting in Helsinki, Finland in June 1994. IPAB aims to establish and maintain a network of drifting buoys in the Antarctic sea-ice zone, which monitor ice motion, pressure and temperature. In 1997, 16 organisations, representing 11 countries, were involved in the IPAB programme, including: Alfred Wegener Institute, Antarctic CRC, Australian Antarctic Division, British Antarctic Survey, Commonwealth Bureau of Meteorology, INPE -National Institute for Space Research, Institute for Marine Research and University of Helsinki, Hydrographic Department, Maritime Safety Agency, National Ice Center, National Institute of Polar Research, Programma Nazionale di Ricerche in Antardtide, Scott Polar Research Institute, Service Argos, South African Weather Bureau, United Kingdom Meteorological Office, and World Data Center A Glaciology. Tables of data availability, information, experiment details, literature, and data sets are available from the IPAB home page. Links are also available to databases held by other organisations, and links to Arctic and Indian Ocean buoy databases.

The data are available via several provided URLs. Further information and the data can be obtained from the IPAB home page URL. The data and documentation are also available directly from the NSIDC website. Finally, an older copy of the data are also held locally on the Australian Antarctic Data Centre's servers.

The documentation held at the NSIDC website provides important information on interpreting the dataset. A static copy of this document is included with the local copy of the dataset held on the Australian Antarctic Data Centre's servers.

Data from January 1995 to July 1998 only has been made available on the NSIDC website (and correspondingly on the AADC's servers). More data should be available soon.

This work was also completed as part of ASAC projects 732, 742 and 2678.

The fields in this dataset are: Buoy Number Year Time Longitude Latitude ARGOS Positional Accuracy Sea Ice Flag Air Pressure Air Temperature Water Temperature Velocity

Current meter components data were collected from FIXED PLATFORMS from 09 November 1977 to 20 February 1990. Data were collected by the Maritime Safety Agency; Hydrographic Division (MSA). Data were processed by NODC to the NODC standard F015 Current Meter Components format. Full format description is available from NODC at www.nodc.noaa.gov/General/NODC-Archive/f015.html.

The F015 format contains time series measurements of ocean currents. These data are obtained from current meter moorings and represent the Eulerian method of current measurement, i.e., the meters are deployed at a fixed point and measure flow past a sensor. Position, bottom depth, sensor depth and meter characteristics are reported for each station. The data record includes values of east-west (u) and north-south (v) current vector components at specified date and time. Current direction is defined as the direction toward which the water is flowing with positive directions east and north. Data values may be subject to averaging or filtering and are typically reported at 10 - 15 minute time intervals. Water temperature, pressure and conductivity or salinity may also be reported. A text record is available for optional comments.

Ocean Glider Sensor Market Outlook

As per our latest research, the global ocean glider sensor market size reached USD 685 million in 2024, reflecting robust demand across multiple sectors. The market is projected to grow at a CAGR of 9.3% from 2025 to 2033, reaching an estimated value of USD 1.53 billion by 2033. This remarkable growth is primarily driven by technological advancements in sensor accuracy and reliability, as well as the expanding scope of oceanographic research and environmental monitoring initiatives worldwide.

One of the primary growth factors for the ocean glider sensor market is the increasing need for continuous and real-time ocean data collection. Modern ocean gliders, equipped with sophisticated sensors, have revolutionized the way researchers monitor and understand marine environments. These sensors enable the collection of critical parameters such as temperature, salinity, dissolved oxygen, and nutrient concentrations, which are crucial for climate modeling, marine ecosystem management, and disaster prediction. The advancement in low-power, miniaturized sensor technologies has further enhanced the deployment capabilities of ocean gliders, allowing for longer and deeper missions. Additionally, the rise in government and private funding for marine research, particularly in response to climate change and its impact on the oceans, has significantly boosted the adoption of ocean glider sensors.

Another significant driver is the rising integration of ocean glider sensors in defense and security applications. Maritime surveillance, border security, and anti-submarine warfare are increasingly relying on autonomous underwater vehicles equipped with advanced sensor suites. These gliders provide persistent monitoring capabilities, enabling defense agencies to detect and track underwater threats over extended periods. The growing geopolitical tensions and the need for enhanced maritime domain awareness have led to substantial investments in underwater surveillance technologies, thus fueling the demand for high-precision ocean glider sensors. Furthermore, the oil and gas industry is leveraging ocean glider sensors for offshore exploration and monitoring, as these devices offer cost-effective and efficient solutions for data acquisition in challenging environments.

The ocean glider sensor market is also benefiting from the expanding commercial and industrial applications. Companies involved in offshore energy, fisheries, and environmental consulting are increasingly deploying ocean gliders to monitor water quality, track pollutant dispersion, and optimize resource management. The proliferation of smart sensor networks and advancements in data analytics are enabling more actionable insights from the vast datasets collected by ocean gliders. Moreover, the growing emphasis on sustainable ocean resource management and regulatory compliance is encouraging commercial entities to invest in advanced ocean monitoring solutions. The convergence of Internet of Things (IoT) and artificial intelligence (AI) with ocean glider sensor technology is expected to unlock new opportunities, making ocean data collection more accessible and impactful.

From a regional perspective, North America continues to dominate the ocean glider sensor market, accounting for the largest share in 2024. This is attributed to the presence of leading research institutions, significant government funding, and a strong focus on technological innovation. Europe follows closely, driven by collaborative marine research programs and stringent environmental regulations. The Asia Pacific region is witnessing the fastest growth, supported by increasing investments in marine science and a heightened focus on coastal security. Latin America and the Middle East & Africa are emerging markets, with growing awareness about the importance of ocean monitoring for sustainable development and resource management. Overall, the global outlook for the ocean glider sensor market remains highly positive, with continued advancements and expanding applications expected to drive sustained growth through 2033.

Sensor Type

The sound velocity data in this accession were collected from unknown platforms in May 1972 by Japanese. The sound velocity in water is analog profiles data that was recorded in stripcharts by Japanese. Radio logs are forms that contain time, weather latitude/longitude, vessel id, ship id, etc. These are radioed every two hours to some military center. One line per strip chart. Some strip charts have time/date/ship id/latitude/longitude annotated on the strip chart. Twenty two stripcharts and radio logs were submitted to NODC by Hydrographic Division, Maritime Safety Agency, Tokyo, Japan.

Oceanographic Sensor Market Outlook

According to our latest research, the global oceanographic sensor market size is valued at USD 5.8 billion in 2024, with a robust compound annual growth rate (CAGR) of 7.2% projected from 2025 to 2033. This growth trajectory will drive the market to an estimated USD 10.8 billion by 2033. The primary growth factor is the increasing demand for real-time, high-precision ocean data to support environmental monitoring, climate change research, and resource management initiatives globally. The market is witnessing heightened investments in marine technology innovation, driven by both governmental and private sector initiatives to enhance ocean observation capabilities.

One of the major growth drivers for the oceanographic sensor market is the escalating urgency around climate change and its impact on marine ecosystems. Governments and international organizations are intensifying their focus on ocean health, necessitating advanced sensor technologies for more accurate and comprehensive data collection. The proliferation of marine research programs, as well as global initiatives such as the United Nations Decade of Ocean Science for Sustainable Development, have significantly boosted the adoption of oceanographic sensors. These sensors are critical in tracking ocean temperature, salinity, and chemical composition, which are vital parameters for understanding the changing climate and its effects on biodiversity and coastal communities.

Another significant factor fueling the expansion of the oceanographic sensor market is the technological advancement in sensor miniaturization and integration. The development of multi-parameter sensors, capable of simultaneously measuring various oceanographic variables, has greatly enhanced data acquisition efficiency and reduced operational costs. Furthermore, the increasing deployment of autonomous underwater vehicles (AUVs) and remotely operated vehicles (ROVs) in both research and commercial applications has created a surge in demand for compact, rugged sensors capable of operating in harsh marine environments. Integration with IoT and satellite communication networks further extends the reach and utility of these sensors, enabling real-time data transmission and remote monitoring across vast oceanic expanses.

The expansion of offshore activities, particularly in the oil & gas and aquaculture sectors, also contributes to the strong growth of the oceanographic sensor market. In the oil & gas industry, oceanographic sensors are indispensable for safe and efficient exploration, drilling, and production operations, providing critical information about underwater conditions. Similarly, in aquaculture, sensors help monitor water quality, ensuring optimal conditions for marine life and maximizing yield. The increasing adoption of oceanographic sensors by defense and security agencies for maritime surveillance and border protection further amplifies market demand. As ocean-based economic activities continue to grow, the need for reliable, high-performance oceanographic sensors becomes increasingly paramount.

From a regional perspective, North America currently leads the oceanographic sensor market, followed closely by Europe and Asia Pacific. North America’s dominance is attributed to its advanced marine research infrastructure, significant government funding, and strong presence of leading technology providers. Europe’s market is propelled by stringent environmental regulations and active participation in marine conservation programs. Meanwhile, Asia Pacific is emerging as a high-growth region due to rapid industrialization, expanding maritime activities, and increased investment in ocean research by countries like China, Japan, and Australia. Latin America and the Middle East & Africa are also showing steady growth, driven by rising awareness of marine resource management and the need for sustainable development.

Product Type Analysis

The oceanographic sensor ma

Subsea Mapping Systems Market size is growing at a moderate pace with substantial growth rates over the last few years and is estimated that the market will grow significantly in the forecasted period i.e. 2024 to 2031.

Subsea Mapping Systems Market Drivers

Increased Offshore Exploration and Production Activities Oil and Gas Exploration: The need to identify and map underwater oil and gas reserves drives the demand for advanced subsea mapping systems. Renewable Energy: The growing interest in offshore wind and hydro projects requires detailed seabed mapping for site selection and infrastructure development. Marine Resource Management and Conservation Environmental Impact Assessment: Subsea mapping helps assess the environmental impact of offshore activities and supports conservation efforts. Fisheries Management: Mapping the seabed helps manage fisheries and protect marine ecosystems. Underwater Archaeology: Detailed seabed maps assist in locating and preserving underwater cultural heritage sites. Scientific Research and Ocean Exploration Oceanographic Studies: Scientists use subsea mapping systems to study ocean currents, marine life, and geological formations. Climate Change Research: Understanding seabed changes due to climate change requires accurate and detailed mapping. Maritime Safety and Security Hydrographic Surveys: Detailed seabed maps are crucial for safe navigation and preventing maritime accidents. National Security: Subsea mapping aids in detecting underwater threats and protecting critical infrastructure. Technological Advancements Autonomous Underwater Vehicles (AUVs): The development of advanced AUVs equipped with mapping sensors has increased the efficiency and coverage of subsea mapping operations. Sensor Technology: Improvements in sonar and other sensor technologies enable higher resolution and more accurate mapping.

Physical and other data from CTD casts, XBT casts, current meters, and other instruments from the SHOYO and other platforms from the NE Pacific (limit-180) and other locations from 16 January 1993 to 01 December 1995. Data were collected by the Japanese Hydrographic Office and the Maritime Safety Agency; Hydrographic Division (MSA). Additional funding for digitizing historic data were provided by the Global Ocean Data Archaeology and Rescue (GODAR) project.

Physical and other data from CTD casts, current meters, and other instruments from the SHOYO and other platforms from the North Pacific Ocean and other locations from 01 January 1990 to 31 December 1991. Data were collected by the Japanese Hydrographic Office and the Maritime Safety Agency; Hydrographic Division (MSA). Additional funding for digitizing historic data were provided by the Global Ocean Data Archaeology and Rescue (GODAR) project.

Discover the booming ocean environment simulation equipment market! Learn about its $1.5B valuation (2025), 7% CAGR, key drivers (maritime safety, material science, environmental monitoring), and leading companies. Explore regional market insights and future growth projections to 2033.