Proiecte

The EROVMUS project aims to create an established interface for ROV (remotely operated vehicle) pilots, enabling them to easily and efficiently launch the ROV services in missions related to the identification/location of unexploded underwater munitions stranded on the seabed. These include both a multi-operational platform equipped with a series of sensors and software creating solutions. The activities envisaged are related to navigation improvement, the introduction of autonomous identification routines, as well as high-performance image acquisition technologies. The data obtained from multiple sensors will be overlaid to produce an equivalent of the standard primary Heads UP (HUD) display for the pilot, thus reducing the number of displays that is necessary for efficient operation. Furthermore, solutions for implementing virtual reality (VR) technology will be analysed, allowing the use of virtual displays and the combination of images from multiple cameras to create a single large virtual display to improve ammunition identification. The project will develop, test and optimize a range of tools and assess their interoperability with several existing ROV models and brands. This will create a potential product range that could be implemented by other ROV equipment manufacturers.

The project outcome has the potential to both improve the current technical state of the equipment and to create new jobs, thus improving the European competitiveness in the underwater technology sector.

Accelerating CCS to achieve significant CO₂ reductions by 2030 requires close integration of technical, economic, social, and environmental disciplines to support decision-making related to permitting, ensuring safe containment, and maintaining compliance during the execution phase of CCS projects. The RamonCO Project aims to further develop and fully apply the modeling/inversion framework developed in DigiMon and to assess societal challenges and requirements, as well as costs, in order to develop risk governance strategies for industry and regulators, incorporating them into decision-support tools.

The project will develop and demonstrate methodologies and tools for compliance assessment and risk-based monitoring on an industrial scale, including the analysis of operational data from sites equipped with relevant monitoring technologies. At the start of the project, we will initially test the inversion framework using synthetic data and then explore the possibility of obtaining suitable real-field data for testing the methodology with industry partners. Furthermore, we will model CO₂ storage sites that are in the planning phase, such as depleted gas fields in the Netherlands. We will also investigate how different perspectives on CO₂ storage across European countries influence risk assessment (for EU CO₂ storage hubs) and how these insights can be used to make informed decisions regarding the monitoring systems.

Recently CCS value chain started considering ships for direct injection, not only transport. The CTS project will evaluate the global potential of this technology for facilitating permanent CO₂ storage using case studies from offshore on the Norwegian Continental Shelf, Baltics, Black Sea and Atlantic coast of Portugal. CTS will study the impact of direct injection from ship on the definition of capture clusters and storage facilities by developing CCS scenarios in four different offshore regions in Europe. The efficiency of the scenarios from the perspective of cost and abated CO₂ emissions compared to existing plans and scenarios will be evaluated. One of the project goals is to advance direct ship injection technology further together with NEMO Maritime – the industrial partner developing one of such solutions. Direct ship injection is a flexible and low cost solution that can help accelerate CO₂ storage and contribute to reducing emissions already by 2030. CTS aims at improving cost and efficiency along the value chain; developing new markets by better addressing the need of smaller emitters; increasing LCA and TEA knowledge for the value chains in selected areas. By utilizing offshore storage and building trustful communication with stakeholders in selected geographical locations, CTS also aims to contribute to strengthening the acceptance of CCUS technologies.

The main impact of the project is to provide a technology that will allow to decrease costs, reduce conflicts with other marine activities and increase flexibility for early start of CO2 injection in offshore regions, therefore addressing some of the major issues that can hinder the deployment of CCS in Europe on a scale able to deliver required mitigations before 2030.

The project aims to engage new stakeholders in four offshore regions through versatility, flexibility and cost efficiency of direct CO2 injection from ship for permanent storage. The key outcome is design of a full CCUS value chain including direct injection from ship, with engagement of the stakeholders along it. Creation of a full value chain design will promote stakeholder engagement and create a platform for evaluation of the business cases by individual stakeholders by giving them a realistic scenario to adhere to.

The outcomes should help to increase roll-out of the CCS value chains not only through technological advantages of direct ship injection, but also by reducing the threshold for smaller emitters and unlocking offshore storage potential in sites becoming commercial due to lower capex and opex of direct ship injection. Generally, CTS contribution is to map potential emitters, prepare conceptual design of the value chain with a focus on ship design, wells, and storage site.

Among noise sources, maritime traffic is of relevance on animal wellness, although its impact is little known in many European sea-basins. To date, there has been an almost exclusive focus on vertebrates, in which noise involves the mechanoreceptor cells of the ear and can cause hearing impairment or deafness. Homolog cells have been discovered in tunicates, marine invertebrates closely related to vertebrates, thus opening the question on their ability to sense and be affected by noise. Tunicate mechanoreceptors sense sound waves and particle movement and are predictable targets of noise pollution. DeuteroNoise aims to characterize the noise pollution caused by maritime traffic (also using simulations) in selected sites of the North Adriatic Sea, Lagoon of Venice, North Sea, Black Sea, and Barcelona shore, and test its effects on behavior, nervous system and sensory organs, immune system, and resilience in marine invertebrates closely related to vertebrates (deuterostomes): hemichordates, echinoderms, cephalochordates, and tunicates. These animals are common in European seas and cover different levels of the trophic network, from the holoplankton-meroplankton to sessile or sedentary primary consumers. Noise level will be detected on site and simulated in the laboratory. A behavioral, morphological and genetic survey will be conducted on sampled animals living in polluted vs non-polluted areas. Moreover, animals will be exposed to noise in laboratory-controlled conditions to verify its effect on larval, juvenile and adult stages at individual level and over generations. Comparative studies will allow us to: highlight causes of noise pollution in the different basins; determine how species react to it; identify its genetic and morphological signatures; predict sensitivities in closely related animals that cannot easily be studied in laboratory or on-site; predict noise pollution and infer the best practices to reach the Good Environment Status of European basins.