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NATIONAL LAUNCH ACADEMY

Technology Challenges

We are independent and neutral, and our unparalleled industry knowledge, combined with wide stakeholder engagement experience at all levels of the value chain, means we are well-versed in the technology challenges and opportunities that exist in the sector. Working with our Launch Academy partners, we’ve identified a series of technology challenges, the solutions to which could provide the products and services of the future.

Charging Electric and Hybrid Vessels at Sea

In 2018, IMO adopted an initial strategy on the reduction of GHG emissions from ships, setting out a vision which confirms IMO’s commitment to reducing GHG emissions from international shipping and to phasing them out as soon as possible.

Based on the next steps to implement the strategy to decarbonize international vessels, it is expected that many vessels would become electrically driven or hybrid. In both cases, the long distances to attend offshore stations and wind turbines can be challenging for the vessels’ batteries autonomy.

This challenge is seeking solutions to allow vessels to recharge at sea, using the power available from the offshore substation. With that, service vessels (Crew Transfer Vessels (CTVs) and Service Operation Vessels (SOVs)) can recharge while offshore, ensuring their presence offshore is longer without returning for charging at a port.

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High Tidal Variation Impact Mitigation on Pre-Assembly Site

At the turbine and floaters’ pre-assembly ports the assembly timing is critical for the operation. Due to high demand of storage and assembly areas and access to water availability, a properly executed and timely pre-assembly of floaters and turbines is needed to optimize costs and improve safety.

The Celtic Sea region has a big tidal variation. Such variation is mostly perceived at the ports in the region, which could be used for pre-assembly of turbines and floaters. The tidal variation has a huge impact on the pre-assembly operations, as it delays the assembly capacity, the vessels’ logistics and navigation and can significantly reduce the operational window of the port.

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Optimising Tools for Port and Vessel Operations for Low-Carbon Fuels

In 2018, IMO adopted an initial strategy on the reduction of GHG emissions from ships, setting out a vision which confirms IMO’s commitment to reducing GHG emissions from international shipping and to phasing them out as soon as possible.

Based on the next steps to implement the strategy to decarbonize international vessels, it is expected that many vessels will change to use low carbon fuels.

This challenge is seeking solutions for planning and optimization tools for port and vessel operations (Barges, Crew Transfer Vessels (CTVs)and Service Operation Vessels(SOVs)) considering the transition to low carbon fuels.

Proposed planning and optimization tools should be capable of analysing both current vessel technologies and potential future vessel technology developments expected on the industry.

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Aggregation and Stacking of Grid Services

Ørsted is seeking novel solutions for the aggregation and stacking of revenue streams from grid services. Relevant approaches may include hardware and software solutions for the control and coordination of Hybrid Power Plants (HPPs) through to commercial and contractual solutions for aggregation across multiple power plants–and anything in between. Hybrid Power Plants (HPPs) are power plants comprised of several generation and storage systems (e.g. offshore wind, onshore wind, solar, battery storage, power-to-x, etc.).

A key component of an HPP is the controller, which must be capable of interoperating the various generation and storage systems to optimise efficiency, safety and performance.

Novel approaches to stacking and/or aggregating these services and functions, across hybrid or multiple power plants, are expected to improve operational efficiency and optimise revenue generation. In turn, improved business cases and reduced levelized cost of energy are anticipated.
By implementing solutions for the optimal stacking and aggregation of grid services, power plant operators will be able to more efficiently and effectively manage multi-energy systems, with ever greater impact as the world’s first energy islands come online from 2030.

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Optimise Development and O&M of Offshore Wind Farms with Autonomous Solutions

RWE has recently announced the Growing Green strategy with a plan to invest 50 billion euros to achieve 50 GW of capacity by 2030. Offshore wind will play a major role in those ambitions with an aim of 8 GW of offshore wind capacity in 2030. Continuous improvement is one of the key values of RWE, and there is a promising potential in making operations and maintenance activities more efficient and with lower carbon emissions, while ensuring safety at the same time. We believe autonomous technologies will playa fundamental role in this development and we are therefore looking for autonomous solutions for multiple use cases and the best way to integrate them into wind farm site investigations, construction and O&M.

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Improve Cable Monitoring and Protection

Cable failures have become a high-profile topic in the offshore industry. Although they don’t happen often, their consequences are considerable: failing inter-array and export cables are very costly and complicated to repair and until repair is achieved, the wind farm can experience significant losses in energy production.

With our new Growing Green Strategy, RWE Renewables is planning to reach 8 GW of Offshore Wind capacity by 2030. To ensure continuity of energy production in our operating and new assets and to avoid additional HSE risks and costs that cable failure entails, RWE is looking for further ideas and innovations in the cable monitoring and protection space, aiming to secure a reduction in the number of OWF cable failures.

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Measure and Reduce Ecological Impact of Wind Farm Construction and Operation on Birds

RWE has recently announced the Growing Green strategy with a plan to invest 50 billion euros to achieve 50 GW of capacity by 2030. With offshore wind growth being a core part of this ambition, it is important to measure, evaluate and mitigate the impacts construction and operation of wind farms have on the surrounding environment.

RWE is engaging with partners around the world to minimise potential negative ecological impacts of offshore windfarms and use the learnings for future projects. In the UK, RWE is an integral part of the research programmes ORJIP (Offshore Renewables Joint Industry Programme)and OWSMRF (Offshore Wind Strategic Monitoring and Research Forum)to further drive industry know-how on environmental topics.

RWE has been driving developments and innovations within ecology across its wind farm portfolio and would like to take it further to make sure the rapid expansion of offshore wind happens without negative impacts on the environment.

In this challenge, we concentrate on the impact of offshore windfarm construction and operation on birds. Currently, pre-construction monitoring of kittiwakes and other species is ongoing at Sofia using LiDAR technology to capture information on flight height, flight speed and age class, however we continue to look for further innovations for Sofia and other UK projects in the areas described below to better understand bird behaviour and to mitigate any negative impacts.

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Open category

In the open call, we welcome applications from companies developing any technology that has the potential to lead to future wind farms that are cheaper, safer, or more sustainable.

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