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< Back Coastal Virginia Offshore Wind Project Continues Amidst Industry Headwinds January 27, 2025 The recent executive order temporarily halting new federal wind leases has created uncertainty within the US offshore wind industry. While this pause may impact future projects, the construction of the $9.8 billion Coastal Virginia Offshore Wind (CVOW) project continues to progress. Dominion Energy , the developer of CVOW, remains confident in the completion of this 2.6 GW project, which is scheduled to be operational in 2026 and capable of powering 660,000 homes. As of November 2024, half of the monopile foundations for the 174 turbines had been installed roughly 27 miles off the coast of Virginia Beach. Recent developments include the departure of a heavy load carrier from the Port of Aalborg, Denmark, carrying 18 transition pieces for CVOW. This shipment, delivered by CS WIND Offshore , brings the total number of delivered transition pieces to 69. Despite challenging weather conditions, the loading operation was successfully completed, and the vessel is now in route to the US for installation by DEME Group . While Dominion emphasizes the long-term bipartisan support for Virginia's clean energy transition, the future of its other offshore wind leases, planned for development in the 2030s, remains uncertain due to the ongoing federal review of wind energy policies. The company secured a 176,000-acre lease adjacent to its existing CVOW project for $17.6 million in a federal auction last year. Additionally, they acquired Kitty Hawk North Wind, a 40,000-acre lease off the Outer Banks, from Avangrid Renewables for $160 million. Neither of these newly acquired leases have received the necessary federal permits for development, making their estimated cost and timeline currently unknown. Dominion has also implemented risk mitigation strategies, such as selling a stake in the CVOW project, to navigate potential challenges. Credit: Virginia Business Previous Next

Offshore Wind Blade Testing and Inspection Workshop Offshore wind blade testing and inspection is a critical aspect of ensuring the reliability and longevity of wind turbines in harsh marine environments. This process involves a range of techniques and considerations, including blade manufacturing, materials science, aerodynamics, structural integrity, and environmental factors. Keywords related to this field encompass blade design, composite materials (fiberglass, carbon fiber, resin), manufacturing processes (layup, molding, infusion), quality control, non-destructive testing (NDT), ultrasonic testing (UT), phased array ultrasonic testing (PAUT), eddy current testing (ET), radiographic testing (RT), thermography, visual inspection, borescope inspection, crack detection, delamination, fatigue testing, static testing, dynamic testing, bend testing, tensile testing, shear testing, buckling, vibration analysis, modal analysis, finite element analysis (FEA), computational fluid dynamics (CFD), blade aerodynamics, lift, drag, turbulence, wind loads, extreme weather conditions (storms, icing), salt spray corrosion, UV degradation, erosion, leading edge erosion, trailing edge damage, lightning strike protection, blade repair, blade maintenance, offshore operations, remote sensing, drone inspection, aerial inspection, underwater inspection, robotics, automation, data analysis, predictive maintenance, condition monitoring, structural health monitoring (SHM), sensors, strain gauges, accelerometers, acoustic emission, oil and gas industry parallels, marine environment, offshore wind farms, renewable energy, sustainable energy, wind energy technology, levelized cost of energy (LCOE), energy production, grid integration, safety, risk assessment, certification, standards (IEC, DNV GL), regulatory compliance, blade transportation, blade installation, offshore logistics, metocean data, weather forecasting, blade optimization, performance analysis, cost-effectiveness, lifecycle assessment, failure analysis, root cause analysis, warranty claims, insurance, offshore wind technicians, blade specialists, training, safety procedures, access systems, working at height, confined space entry, personal protective equipment (PPE), emergency response, search and rescue, environmental impact, marine ecosystems, noise pollution, visual impact, stakeholder engagement, community relations, permitting, environmental regulations, offshore wind development, project planning, due diligence, feasibility studies, risk management, supply chain, manufacturing capacity, logistics, port infrastructure, vessel availability, heavy lift vessels, jack-up vessels, crew transfer vessels, cable laying vessels, offshore construction, commissioning, operation and maintenance (O&M), service agreements, spare parts, inventory management, logistics optimization, digitalization, data analytics, artificial intelligence (AI), machine learning (ML), digital twins, simulation, virtual reality (VR), augmented reality (AR), remote operations centers, autonomous systems, robotics in offshore wind, underwater robotics, remotely operated vehicles (ROVs), autonomous underwater vehicles (AUVs), oceanographic surveys, bathymetry, seabed mapping, geotechnical investigations, environmental monitoring, marine mammals, bird strikes, wildlife protection, environmental impact assessment (EIA), social impact assessment (SIA), community benefits, job creation, local content, supply chain development, economic development, sustainable development goals (SDGs), climate change mitigation, decarbonization, energy transition, green energy, clean energy, renewable energy targets, policy support, government incentives, offshore wind industry, global market, market trends, technological advancements, research and development, innovation, collaboration, knowledge sharing, best practices, industry standards, safety culture, continuous improvement, operational excellence, asset integrity management, risk-based inspection, reliability-centered maintenance, predictive maintenance strategies, condition-based maintenance, life extension, repowering, decommissioning, end-of-life management, circular economy, recycling, waste management, environmental sustainability, social responsibility, corporate governance, ethical business practices, transparency, accountability, stakeholder engagement, community involvement, social license to operate, public acceptance, environmental stewardship, climate action, sustainable development. Offshore Wind Blade Testing and Inspection Workshop Price $1,250 Duration 1-Day Dates Fall 2025 edition TBA - Enroll to stay updated Format In-Person WTTC, MA Course Status Open Enroll Offshore Wind Blade Testing and Inspection Workshop This workshop provides comprehensive training on the testing and inspection of offshore wind blades, covering essential topics such as certification processes, inspection methods, typical findings, and repair options. Led by industry experts, participants will gain practical knowledge and hands-on experience to effectively evaluate the condition of wind turbine blades and ensure their safety and performance. This course takes place from 9am to 4pm EST. Wind Technology Testing Center This workshop will be held in person at the Wind Technology Testing Center (WTTC) in Massachusetts. Registration costs do not cover travel or accommodation expenses. Course Objectives: - Understand the certification process and international standards for offshore wind blades. - Learn various inspection methods, including contact and non-contact techniques. - Identify typical findings during blade inspections, such as delamination, cracks, and manufacturing deviations. - Explore repair options for addressing blade damage and defects. - Gain practical insights into blade testing and inspection through interactive sessions and real-world case studies. What Attendees Think: “The Offshore Wind Blade Testing and Inspection Workshop was very informative. Having the ability to see the scale and size of these blades in person allows one to put the inspecting process into perspective. Knowing what’s possible when it comes to inspecting blades will give one a better understanding of the decisions made during operations and management of wind turbines.” - Baker P. Lead Engineer – Testing, GE Vernova Who Should Attend: This workshop is designed for professionals involved in the maintenance, inspection, and management of offshore wind turbines, including wind farm operators and maintenance personnel, inspectors and technicians responsible for blade inspections, engineers and project managers in the renewable energy sector, and regulatory authorities and industry stakeholders seeking to enhance their understanding of offshore wind blade testing and inspection. Any professional who is interested in a hands-on visit to a blade testing center is welcomed. Course Outline: Module 1: WTTC Overview and Tour - Roundtable Introductions and Icebreaker 20 minutes - WTTC Blade Testing Presentation 30 minutes - WTTC Tour 1 hour - Coffee/Snack Break 10 minutes Module 2: Certification Process and Blade Testing environment - IEC 61400 and IECRE - IEC 61400 chapters -1,-5, -23 - International blade testing environment Module 3a: Blade Inspection Methods - Contact - Internal Visual - External Visual - Tap Testing Lunch / Table Topics Lunch with rotating question prompts to guide and promote discussion across multiple offshore wind subjects. Module 3b: Blade Inspection Methods – Non-contact - IR - Acoustic - Ultrasonic Module 4: Typical Findings - Delamination - Paste Cracks (transverse, longitudinal) - Manufacturing deviations - Panel gaps - Paste thickness and paste gaps - Wrinkles - Shipping / Handling damage - Lightning - Bolt loosening / failure - Coffee Break Module 5: Repair Options - Factory Repairs - Up-tower repairs - Blade removal - Typical Repairs Course Completion Certificate: Upon completing at least 50% of the course and achieving a minimum passing score of 50% on a post-course assessment, participants will receive a course certificate valid for three years. This certificate verifies that the essential learning outcomes of the course have been met. While not mandatory, this certification is currently undergoing an accreditation process to further enhance its value, allowing it to be used for job applications, promotions, and professional license renewals, such as the PE (Professional Engineer) license. Course Instructor George Blagdon Engineering Director, WTTC George is the Engineering Director at the Wind Technology Testing Center and has been active in wind turbine blade testing for over 12 years. Over this time, he has led the transition to testing ultra-long blades and will play a key role in the future plans of the facility. George leads a team of test engineers and takes a hands-on approach to engineering, never passing on an opportunity to climb in a blade. He acts as an expert technical assessor within the IECRE accreditation scheme, spending time in test facilities worldwide, and participates on the maintenance team for the IEC 61400-23 specification. Passionate about early STEM education, he has played a role in hosting hundreds of high school students for tours at the facility. He holds a BS in Mechanical Engineering from UMass Dartmouth and an M.B.A from UMass Boston. Outside of work, you can find him spending time with family, working on the house, or getting lost in mountain biking trails.

< Back Course Coordinator - Internship (Currently filled) North America Job Type Internship Workspace Remote Apply Now Please note that this role is filled and not currently hiring. If you wish to send your profile for us to keep on file in case of future openings, please send your resume and cover letter to info@aowacademy.com . About the Role As a Course Coordinator, you will be responsible for managing course content, schedules, and communication with attendees and instructors. You will assist with course logistics before and during the course and coordinate with external partners to oversee course delivery from end-to-end. With this role will have the opportunity to access over 50+ courses and learn from highest quality SMEs on each topic related to offshore wind. Qualifications - Current enrollment as a graduate student in a relevant field such as offshore wind, renewable energy, environmental studies, business management, or a related field. - Excellent written and verbal communication skills, including the ability to draft professional emails, communicate effectively in virtual meetings or presentation settings, and maintain accurate records - Strong organizational and project management skills, including the ability to track and manage numerous tasks and responsibilities simultaneously with high attention to detail. - Technological proficiency in Microsoft Office Suite, Google Suite, and other relevant software, with a willingness to learn new tools as needed - Experience in administrative roles or with project coordination is a plus - Demonstrated interest in offshore wind, sustainability, or renewable energy. How to Apply Please submit your resume and a cover letter detailing your relevant experience to info@aowacademy.com The American Offshore Wind Academy is an equal opportunity employer. We celebrate diversity and are committed to creating an inclusive environment for all employees. About Us American Offshore Wind Academy is a pioneering initiative driven by senior leaders within the offshore wind industry who are committed to advancing and strengthening the sector in the United States and worldwide through comprehensive education, training, and collaboration. Apply Now

< Back Beyond the Horizon: The Future of Offshore Wind is Floating February 26, 2025 The global energy landscape is undergoing a dramatic transformation, driven by the urgent need to decarbonize our economies and mitigate the impacts of climate change. Offshore wind energy has emerged as a critical component of this transition, offering a clean, abundant, and increasingly cost-competitive alternative to fossil fuels. However, the full potential of offshore wind has been constrained by the limitations of traditional fixed-bottom installations, restricting development to shallower coastal waters. Floating offshore wind turbines represent the future of offshore power, unlocking access to vast, untapped wind resources in deeper waters and ushering in a new era of clean energy generation. The Untapped Potential of the Deep Offshore wind offers significant advantages over its onshore counterpart, including higher capacity factors due to stronger and more consistent winds. Traditional fixed-bottom offshore wind turbines, however, are economically and technically limited by water depth and complex seabed conditions. These limitations significantly restrict the geographic scope of development. Floating platforms, anchored to the seabed by flexible mooring systems, overcome these constraints, enabling turbines to be deployed in deeper waters where wind resources are significantly more abundant and consistent. Crucially, around 80% of the world's exploitable offshore wind resources reside in waters deeper than 60 meters (~200 ft.), a domain currently inaccessible to fixed-bottom installations. Floating offshore wind thus represent a critical pathway to harnessing this vast, untapped energy potential. While the global floating wind industry remains in its early stages, with approximately 270 MW of operational capacity as of 2023, the future appears exceptionally promising. The global project pipeline has surged to 244 GW, demonstrating substantial industry momentum. The United States, recognizing its vast deep-water resources, currently has over 6 GW of floating projects in its development pipeline, with a significant portion under site control. Given that over two-thirds of the nation's offshore wind potential lies in deep waters, a 2022 study by the National Renewable Energy Laboratory (NREL) estimates the U.S. technical potential for floating offshore wind at a staggering 2,773 GW, capable of generating nearly 9,000 terawatt-hours of energy annually. Technological Innovation at the Forefront Floating offshore wind farms consist of wind turbines mounted on floating platforms, which are stabilized by sophisticated mooring and anchoring systems. Just like fixed-bottom offshore wind farms, the kinetic energy of the wind is captured by the turbine blades, converted into electricity, and transmitted via subsea cables to onshore substations for distribution. Several innovative platform designs are under development, each tailored to specific environmental conditions and project requirements: Barge Platforms: Characterized by their large surface area in contact with the water, barge platforms offer inherent stability, similar to a ship. Their relatively simple design makes them a potentially cost-effective solution for certain applications. Semi-submersible Platforms: These platforms minimize their exposure to wave action by reducing the water plane area while maximizing submerged volume for buoyancy. This design offers enhanced stability in challenging sea states. Spar Platforms: Spar platforms achieve stability through a deep-draft design, with the majority of the weight concentrated at the lowest point. This approach provides excellent stability but can present challenges in manufacturing and deployment. Tension Leg Platforms (TLPs): TLPs are anchored to the seabed using tensioned tendons, effectively minimizing platform motion. This design offers the potential for cost reduction by minimizing the size of the floating structure. The selection of the optimal platform type is a complex decision, influenced by a multitude of factors including site-specific conditions, water depth, wind resource characteristics, turbine size, cost considerations, and supply chain availability. Image credit: Iberdrola Mooring Systems Mooring systems are essential for maintaining the stability and position of floating wind turbine foundations, especially in deep water. These systems, comprising mooring lines and anchors, transfer forces from the foundation to the seabed, counteracting unwanted motions that could damage subsea power cables. They are typically composed of various steel chain sections alternating with some sections composed of synthetic fiber rope, usually polyester or nylon. Mooring configurations are tailored to site conditions, foundation type, and cable design, influencing the turbine's six degrees of motion. Taut mooring lines, often used with tension leg platforms, connect the platform to high-load vertical anchors. Catenary lines, common in spar, barge, and semi-submersible platforms, utilize freely hanging chains and drag anchors. Anchors Anchors are critical for securing floating wind platforms to the seabed, and their design is heavily influenced by seabed characteristics. While various types exist, including deadweight, driven pile, drag, suction pile, gravity drop, and vertical load anchors, drag anchors are the most common due to their strong horizontal load resistance and good seabed penetration. However, they are less suited for vertical loads. Driven piles and suction piles offer alternative solutions, with suction piles also offering recoverability. A key innovation being explored is shared anchor systems, which allow multiple platforms to connect to a single anchor. This approach, demonstrated by Equinor 's Hywind Tampen project, can reduce the total number of anchors required, improving efficiency and potentially lowering costs compared to projects like Hywind Scotland. More information on anchors and moorings: Fact sheet from offshore wind Scotland Image credit: IRENA Transmission Cables A key element for floating offshore wind cabling is the fact the cables are dynamic, meaning that they are designed to follow and withstand the motion of the floating sub-structure caused by wind, waves and current. They are developed specifically to be exposed to saltwater, to have high fatigue loads and to have tolerance to the motions of foundations and oceans. Dynamic cables usually have a non-lead insulator sheath and an additional armoring layer when compared to static cables. The Multifaceted Advantages of Floating Wind The adoption of floating offshore wind technology offers a compelling array of benefits: Access to Superior Wind Resources: Floating turbines unlock access to stronger, more consistent winds further offshore, resulting in significantly higher capacity factors compared to fixed-bottom installations. Capacity factors exceeding 60% are achievable, representing a substantial improvement over traditional fixed-bottom projects. Reduced Environmental Footprint: By locating further from shore, floating offshore wind farms minimize impacts on sensitive coastal ecosystems and marine life. Less noisy installation methods, such as the use of drag anchors and suction piles, further reduce disturbance to marine animals. Streamlined Manufacturing and Deployment: Floating platforms can be constructed and assembled onshore, simplifying logistics and reducing reliance on expensive heavy-lift vessels. Towing the completed platforms to the offshore site minimizes weather-dependent operations and facilitates easier maintenance, with some operations potentially conducted in port. Enhanced Public Opinion: The greater distance from shore reduces the visual impact and noise associated with wind farms, minimizing potential community resistance which can help facilitate smoother project development. Driving Cost Competitiveness: The floating offshore wind industry is experiencing rapid cost reductions, driven by technological advancements, economies of scale, and optimized manufacturing and installation processes. Stimulating Local Economies: Onshore assembly and manufacturing foster the development of local supply chains, creating valuable jobs and stimulating economic growth in coastal communities. The development of dedicated port infrastructure further enhances these economic benefits. Enhanced Scalability and Standardization: The potential for standardized platform designs offers significant cost advantages and accelerates deployment, enabling the rapid scaling of floating wind capacity. Navigating the Challenges While floating offshore wind holds immense promise, its widespread adoption faces a complex web of challenges that must be addressed to unlock its full potential. These challenges span technical, cost, environmental, regulatory, and infrastructural domains. Technical Challenges Deep Water Installation: Deploying massive wind turbines in the challenging environment of deep ocean waters presents significant logistical hurdles. Specialized vessels capable of handling and installing these large structures in deep water are required, driving up costs and demanding innovative installation techniques. Mooring Systems: The heart of a floating wind farm lies in its mooring system. Designing robust and reliable mooring systems that can withstand extreme weather conditions, including high winds, strong currents, and large waves, is crucial for maintaining platform stability and ensuring long-term operational integrity. Weather Dependence: Installation and maintenance operations for floating wind farms are inherently dependent on favorable weather windows. Rough seas and high winds can significantly disrupt these activities, leading to delays and increased costs. Developing strategies to mitigate weather-related risks is essential. Cable Management: Managing the intricate network of underwater cables that connect the floating turbines to the onshore grid poses a significant technical challenge. Protecting these cables from damage caused by marine life, strong currents, and other environmental factors is vital for reliable energy transmission. Transmitting electricity over longer distances can also result in greater efficiency losses, which can reduce the overall output to the grid. Cost Challenges High Capital Investment: The specialized technology required for floating wind farms, including the sophisticated floating foundations, advanced mooring systems, and subsea cables, necessitates substantial upfront capital investment. Reducing these initial costs is crucial for making floating wind competitive with other energy sources. Operation and Maintenance: The remote location of floating wind farms, often far offshore, makes operation and maintenance activities complex and expensive. Developing cost-effective strategies for accessing turbines for repairs and maintenance, particularly in harsh weather conditions, is essential for long-term economic viability. Environmental Challenges Marine Life Impacts: The construction and operation of floating wind farms have the potential to impact marine ecosystems. Noise from construction activities, electromagnetic fields from subsea cables, and the presence of turbine structures can potentially disrupt fish migration patterns, marine mammal behavior, and other aspects of the marine environment. Careful environmental assessments and mitigation measures are essential to building these projects in a responsible manner.. Regulatory Challenges Permitting Complexities: Navigating the complex and often lengthy permitting processes associated with offshore wind development can be a significant hurdle. Streamlining these processes while ensuring environmental protection is crucial for accelerating project timelines. Grid Connection: Integrating the electricity generated by floating wind farms into the existing power grid requires careful planning and coordination. Upgrading grid infrastructure and ensuring grid stability are essential for accommodating large-scale floating wind deployment. Infrastructure Challenges Port Limitations: The construction and assembly of large floating wind turbines require specialized port facilities with sufficient capacity, heavy-lift capabilities, and deep-water access. Many existing ports lack these capabilities, requiring significant investment in port infrastructure development. Vessel Availability: The installation and maintenance of floating wind farms require specialized vessels capable of operating in deep water and harsh weather conditions. The limited availability of these vessels can create bottlenecks and increase costs. Addressing these multifaceted challenges requires a concerted effort from industry, government, and research institutions. Continued innovation in technology, streamlined regulatory processes, strategic infrastructure investments, and a commitment to environmental stewardship are crucial for realizing the full potential of floating offshore wind and powering a sustainable future. Operational Developments Several floating offshore wind projects have demonstrated the viability and potential of this technology. Hywind Scotland, the world's first floating wind farm (30MW), has consistently achieved the highest average capacity factor of all UK offshore wind farms for three years running (reaching 57.1% in 2020), proving the potential of floating wind. Equinor, the developer, has achieved significant cost reductions (60-70%) between its demonstrator project and Hywind Scotland and anticipates further reductions (40%) with its larger 88 MW Hywind Tampen project. Hywind Tampen, the world's largest floating wind farm, powers offshore oil and gas platforms and serves as a testbed for future floating wind technologies. These projects showcase the technical feasibility, increasing cost-competitiveness, and real-world performance of floating offshore wind, paving the way for larger-scale deployments. Check out this video by Equinor about Hywind Scotland, the worlds first floating offshore wind project. Other Pilot Projects -The 25-MW WindFloat Atlantic project: The first floating wind farm in continental Europe, features three 8.4 MW turbines utilizing semi-submersible platforms. It has been operational since 2019, supplying clean energy to the 25,000 Portuguese households every year -The 25-MW Provence Grand Large pilot project: Three 8.4-MW Siemens Gamesa turbines on tension-leg floating platforms near Marseille, France. It is expected to produce the equivalent of the annual electricity consumption of 45,000 inhabitants. -The 3.6-MW Guoneng Sharing pilot project: A single turbine on a semisubmersible platform near Longyuan Nanri Island in China. -The 2-MW DemoSATH demonstration project in Spain: A single 2-MW turbine, designed to test the "SATH" (Saitec Offshore Technologies Hull) floating platform technology in real-world conditions off the Basque coast. While most other projects are still in the planning phase, it is estimated that around 14 GW of floating offshore wind capacity will be installed globally by 2029. Still, there is a high degree of uncertainty about their timing and likelihood of completion. Most of the developer announced deployment through 2029 is in the United Kingdom (4,242 MW), Italy (4,160 MW), Taiwan (1,530 MW), China (1,052 MW), and Spain (995 MW). The First Two-Turbine Floating Platform Mingyang Smart Energy has launched OceanX, a groundbreaking floating offshore wind platform featuring two 8.3MW turbines for a combined capacity of 16.6MW, making it the world's largest single-capacity floating wind turbine platform. Designed to withstand Category 5 hurricane conditions and continue generating power in winds up to 161 mph and waves as high as 98 feet, OceanX is expected to produce enough electricity to power approximately 30,000 Chinese households annually. A 1:10 scale prototype was successfully tested in 2020, and the full-scale platform has now been deployed to the Qingzhou IV offshore wind farm in Yangjiang, Guangdong, China. This innovative dual-turbine design, built with ultra-high-performance concrete and featuring 219-meter towers, represents a significant advancement in floating offshore wind technology. Image credit: Renew Economy Charting the Course for a Sustainable Future Floating offshore wind is not merely a promising technology; it is a transformative force poised to reshape the global energy landscape. By unlocking access to previously inaccessible wind resources, floating offshore wind farms have the potential to become a cornerstone of the clean energy transition. While challenges remain, the industry is rapidly maturing, propelled by innovation, investment, and a growing recognition of the immense potential of this technology. With continued focus on supply chain development, port infrastructure, and O&M strategies, floating offshore wind is poised to play a leading role in powering a sustainable future. Innovation in floating offshore wind technology is the key to unlocking the vast, untapped energy potential of deeper waters, paving the way for a cleaner and more secure future. Sources Equinor , NREL , OSW Biz , Iberdrola , Semar , Science Direct , Acteon , IRENA Previous Next

Offshore Wind Transmission Course Offshore wind transmission, a critical component of harnessing clean energy, involves complex systems and technologies. Key terms include: offshore wind farms, wind turbines, subsea cables, export cables, inter-array cables, high-voltage direct current (HVDC) transmission, alternating current (AC) transmission, grid connection, onshore substations, offshore substations, converter stations, reactive compensation, power flow control, voltage stability, frequency stability, grid integration, transmission planning, capacity factor, curtailment, energy storage, battery storage, pumped hydro storage, power purchase agreements (PPAs), renewable energy certificates (RECs), levelized cost of energy (LCOE), project finance, risk assessment, environmental impact assessment, marine spatial planning, stakeholder engagement, permitting, regulatory approvals, Bureau of Ocean Energy Management (BOEM), Federal Energy Regulatory Commission (FERC), National Environmental Policy Act (NEPA), Endangered Species Act (ESA), Marine Mammal Protection Act (MMPA), benthic habitats, marine ecosystems, avian impacts, visual impacts, electromagnetic fields (EMF), cable burial, cable protection, rock dumping, concrete mattresses, trenching, jetting, horizontal directional drilling (HDD), installation vessels, cable laying vessels, maintenance vessels, operation and maintenance (O&M), remote monitoring, fault detection, repair, asset management, cybersecurity, data acquisition, SCADA systems, communication networks, fiber optic cables, metocean data, wind resource assessment, wave data, current data, soil conditions, geotechnical surveys, bathymetry, seabed mapping, UXO (unexploded ordnance), safety, health, environment (HSE), supply chain, manufacturing, logistics, port infrastructure, workforce development, local communities, economic benefits, job creation, supply chain localization, innovation, research and development, smart grid technologies, microgrids, offshore platforms, floating offshore wind, deepwater wind, hybrid power plants, green hydrogen, power-to-x, energy transition, decarbonization, climate change mitigation, renewable energy targets, sustainable development, circular economy, life cycle assessment, cost optimization, reliability, resilience, grid modernization, interconnection agreements, transmission access, capacity markets, ancillary services, grid codes, standards, best practices, technology advancements, digitalization, artificial intelligence (AI), machine learning, digital twins, predictive maintenance, automation, remote operations, unmanned underwater vehicles (UUVs), autonomous underwater vehicles (AUVs), ROVs (remotely operated vehicles), subsea inspection, cable repair, offshore construction, marine engineering, electrical engineering, civil engineering, project management, consulting, legal, financial advisory, insurance, risk management, due diligence, feasibility studies, conceptual design, front-end engineering design (FEED), detailed design, construction management, commissioning, testing, operation, decommissioning, repowering, life extension, offshore wind transmission infrastructure, offshore wind transmission systems, offshore wind transmission lines, offshore wind transmission cables, offshore wind transmission substations, offshore wind transmission grid, offshore wind transmission planning, offshore wind transmission development, offshore wind transmission operation, offshore wind transmission maintenance, offshore wind transmission costs, offshore wind transmission benefits, offshore wind transmission challenges, offshore wind transmission opportunities, offshore wind transmission future. Offshore Wind Transmission Course Price 2.950€ (Early bird 2.360€ until September 1) Duration 2.5-Day Dates October 14-16, 2025 Format In-Person Course Status Open Enroll Offshore Wind Transmission Course Explore the intricate world of offshore wind transmission in this comprehensive two-a-half day workshop with the opportunity to enter GE Vernova's Stafford, UK transmission facility. Gain a deep understanding of the electrical systems that connect offshore wind farms to onshore grids, including both High Voltage Direct Current (HVDC) and High Voltage Alternating Current (HVAC) solutions, and explore transmission automation and simulation facilities - normally reserved only for customers of GE Vernova. This course will take place from 8.30h until 17h GMT the first two days and 8.30h until 12h GMT the final day. The price of this course includes the course attendance, refreshments, lunch on days 1 & 2, and a happy hour. The price does not include other related travel & accommodation costs. A list of hotels can be provided upon request. Course Learning Objectives: Explain the role and challenges of offshore wind transmission systems, including environmental, technical, and regulatory considerations Describe the fundamental components and functions of HVAC and HVDC technology, onshore and offshore substations, and key high-voltage equipment Compare AC and HVDC transmission solutions in offshore wind, including pros and cons, converter technologies, and typical system configurations Analyze power flow, voltage levels, load balancing, and grid code compliance strategies for integrating offshore wind with onshore grids Identify the types, functions, and maintenance considerations of export and array cables, and evaluate their importance in system reliability Assess emerging technologies (e.g., floating substations, DC breakers, DC/DC converters), and discuss their impact on future offshore wind transmission systems What Attendees Think: “It was an invaluable experience. The course provided a comprehensive overview of the technical, regulatory, and financial aspects of offshore wind power transmission. The interactive format encouraged active participation and allowed for a deeper understanding of the material. What stood out to me in the course was the depth of knowledge the instructors brought to the table. They shared real-world insights and case studies that highlighted challenges and solutions in the field.” - Jude T. ABS, Managing Principal Electrical Engineer Who Should Attend: This course is ideal for professionals working in the offshore wind industry with high engineering competencies including engineers and technicians, regulatory and compliance specialist, grid operators and utility professionals, academics and researchers, and consultants and advisors. Renewable energy developers, energy analysts and economists, and engineering project members will also benefit. Course Outline Day 1 Module 1: Introduction to Offshore Wind Transmission - Role of Transmission in Offshore Wind Projects - Key Challenges and Considerations in Offshore Wind Transmission - Regulatory and Environmental Aspects Module 2: Onshore Substation Design - HVAC Technology - Fundamentals of Onshore and Offshore Substations - Equipment and Components - Interconnection with the Grid - Control and Protection Systems (Automation) - Project System Studies - Case Studies and Best Practices FACILITY TOUR 1 - HVDC Valve facility - Grid Automation facility Day 2 Module 3: Offshore Substation Design - HVDC Technology - Fundamentals of HVDC Technology - Equipment and Components - Considerations for Onshore Substations, Interconnection with the onshore Grid - Considerations for and Offshore Substation Platform and Offshore windfarm - Control and Protection Systems - Project System Studies - Case Studies and Best Practices Module 4: Transmission - Power Flow within an Offshore Wind Farm - Voltage Levels and Load Balancing - Grid Connection Strategies - Integration with Onshore Grids - Grid Codes and Compliance FACILITY TOUR 2 - HVDC RTDS Simulation facility - Grid Automation Simulation facility Day 3 Module 5: Export and Array Cable - Types of Export and Array Cables - Cable Selection Criteria - Cable Monitoring, Protection and Maintenance Module 6: Trending Technology - Case Studies on Technological Innovations - DC Grids, Floating Substations, DC Breakers, DC/DC Converters Course Instructors Neil Kirby Business Development Manager, HVDC GE Grid Solutions Neil Kirby graduated from the University of Newcastle upon Tyne, England in 1983, starting work with GEC in Stafford, England, which evolved over the years through GEC Alsthom to Alstom, to Areva, to Alstom and most recently to GE. He has held many roles in Control System Hardware and Software design, Site Commissioning and Project Engineering in HVDC systems worldwide. Neil is currently HVDC Business Development Manager, living in Port St Lucie, Florida. Neil is a Senior Member of IEEE, Cigre B4 Regular Member for the US National Committee, and is active on several IEEE and Cigre working groups. Hongbiao Song Global Technical Tender Leader for Offshore Wind GE Grid Solutions Hongbiao Song graduated from Texas A&M University in College Station, Texas, USA with Ph. D degree in Electrical Engineering in Dec 2006. He worked in Bechtel between Oct 2006 and Jan 2014 as Senior Electrical Engineer involving in many large international and US Oil & Gas (O&G) projects such as LNG, refineries, petrochemical, gasification, pipelines, etc. He worked in GE since Jan 2014 with multiple technical and commercial roles involving large international and US projects such as power generation, utilities, O&G, O&G electrification, offshore wind. He had extensive system domain and equipment domain knowledge so he can lead and coordinate with GE internal teams and external partners from different regions and different organizations to win and execute large projects. He led multiple innovative R&D programs in GE such as Trailer Mounted HV Substation, Containerized HV Substation, Fast Power HV Substation Standardization, Floating Offshore Substation. Hongbiao is currently Global Technical Tender Leader for Offshore Wind in GE Grid Solutions, living in Houston, Texas. Hongbiao is a Senior Member of IEEE, Cigre B4 Member for the US National Committee, and is active on Cigre B4.98 working group. About the GE Vernova Stafford Facility From Stafford, GE Vernova exports to customers in over 100 countries. The GE Grid Solutions business specializes in grid technologies that support the energy transition in meeting the growing demand for power, upgrading and digitizing ageing infrastructure and integrating renewables as part of a diversified energy mix. The site is renowned for its expertise in HVDC and large complex power transformers, plus as a key hub for upskilling and training on offshore wind and HV products. GE Vernova’s Grid Automation activity integrates cutting-edge software, hardware, and communication technologies to enhance the efficiency, reliability, and resilience of electrical grid infrastructure. There is a strong history of manufacturing and pioneering R&D in Stafford, all the way back to 1903 when the very first factory was inaugurated. The course outline is subject to change and a detailed agenda will be shared after enrollment. Course Completion & Certificate: In order to complete this certificate program, attendees will require a valid email address and physical presence in Stafford, UK. Upon attending at least 50% of the course and achieving a minimum passing score (shared during the course) on a post-course assessment, participants will receive a course certificate valid for three years. This certificate verifies that the essential learning outcomes of the course have been met and thus that the certificate holder is well-versed in the subject matter. This certificate program is currently undergoing an accreditation process to further enhance its value, allowing it to be used for job applications, promotions, and professional license renewals, such as the PE (Professional Engineer) license. Cancellation policy: You are eligible for a full refund if you request cancellation within 24 hours of course enrollment. Payment is due within 30 days of the invoice date. Cancellations or deferrals made after the initial 24-hour period but up to two months before the scheduled course date will be eligible for a 50% refund. Due to program demand and the volume of preprogram preparation, no refunds will be issued if cancellation occurs less than two months from the course start date. Confidentiality of Information: Information collected by the certificate issuer during the training and certification process is treated as strictly confidential. This information will only be disclosed to third parties under the following conditions: With the explicit consent of the individual providing the information When required by law, regulation, or accrediting body When necessary to verify the authenticity of a certificate or qualification, and only to relevant parties (e.g., employers or regulatory bodies), and in accordance with applicable privacy laws All data is handled in accordance with our privacy policy and relevant data protection regulations.

< Back AOWA Supports Reuters Event: Offshore Wind USA 2024 Conference 6/12/24 American Offshore Wind Academy is a proud supporting partner for Reuters Events Renewables: Offshore Wind USA 2024 conference. US offshore wind developers face a tangled supply chain challenge, requiring meticulous planning to secure the right mix of vessels, ensure port capacity, and build a pipeline of qualified tradespeople. Neglecting any one of these pain points can jeopardize your projects and significantly impact your budgets. This event is designed to tackle the practical realities of project delivery head on. We look forward to meeting other leaders in the US offshore wind sector as we pave the way for timely and financially feasible projects at North America’s premier business-focused offshore wind gathering, renowned for convening top policymakers, regulators, and developers. Previous Next

Mandar Pandit, Chief Strategy & Growth Officer, GE Vernova, Grid Solutions, North America, data center, renewable energy, strategic growth, global accounts, key accounts, GE Power, commercial leadership program, sales, business development, renewable energy, grid business, energy project developers, investors, EPC companies, industry network, global development, strategic initiatives, GDSI, wind energy, solar energy, IGCC deals, Terex-Vectra group, new product development, MBA, international business, State University of New York, upstate NY, meditation, nature photography, chief strategy officer, growth officer, GE, Vernova, grid solutions business, data centers, renewables, strategic planning, business growth, account management, global business, commercial leadership, sales management, business development strategy, energy industry, project development, investment, engineering, procurement, construction, industry connections, deal origination, wind power, solar power, integrated 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resilience, energy security, energy access, energy affordability, clean technology, green technology, sustainable development, corporate social responsibility, ESG, environmental, social, governance, renewable portfolio standards, RPS, carbon reduction, emissions reduction, climate action, energy future, energy transformation, innovation in energy, technology in energy, digitalization in energy, automation in energy, electrification of everything, energy transition, just transition, energy equity, energy justice, community engagement, stakeholder engagement, public-private partnerships, energy partnerships, global energy, international energy, energy markets, energy trading, energy finance, energy investment, project finance in energy, renewable energy finance, grid modernization finance, digital grid finance, smart grid finance, energy storage finance, power systems engineering, electrical power engineering, power systems analysis, grid stability, grid control, grid automation, smart grid technology, advanced metering infrastructure, AMI, demand response, distributed generation, renewable energy integration, energy storage integration, microgrid integration, cybersecurity, data analytics, artificial intelligence, machine learning, internet of things, IoT, cloud computing, edge computing, digital twin, simulation, modeling, optimization, planning, design, engineering, procurement, construction, operation, maintenance, asset management, risk management in energy, safety in energy, environmental management in energy, social impact assessment, stakeholder engagement in energy, community engagement in energy, public affairs in energy, government relations in energy, regulatory affairs in energy, energy policy in energy, renewable energy policy, grid modernization policy, energy storage policy, climate change policy, sustainability policy, energy efficiency policy, decarbonization policy, just transition policy, energy equity policy, energy justice policy, global energy policy, international energy policy, energy markets regulation, energy trading regulation, energy finance regulation, energy investment regulation, renewable energy finance regulation, grid modernization finance regulation, digital grid finance regulation, smart grid finance regulation, energy storage finance regulation, power systems engineering standards, electrical power engineering standards, grid stability standards, grid control standards, grid automation standards, smart grid technology standards, advanced metering infrastructure standards, demand response standards, distributed generation standards, renewable energy integration standards, energy storage integration standards, microgrid integration standards, cybersecurity standards, data analytics standards, artificial intelligence standards, machine learning standards, internet of things standards, cloud computing standards, edge computing standards, digital twin standards, simulation standards, modeling standards, optimization standards, planning standards, design standards, engineering standards, procurement standards, construction standards, operation standards, maintenance standards, asset management standards, risk management standards, safety standards, environmental management standards, social impact assessment standards, stakeholder engagement standards, community engagement standards, public affairs standards, government relations standards, regulatory affairs standards, energy policy standards, renewable energy policy standards, grid modernization policy standards, energy storage policy standards, climate change policy standards, sustainability policy standards, energy efficiency policy standards, decarbonization policy standards, just transition policy standards, energy equity policy standards, energy justice policy standards, global energy policy standards, international energy policy standards, energy markets regulation standards, energy trading regulation standards, energy finance regulation standards, energy investment regulation standards, renewable energy finance regulation standards, grid modernization finance regulation standards, digital grid finance regulation standards, smart grid finance regulation standards, energy storage finance regulation standards. < Back Mandar Pandit Chief Strategy & Growth Officer, GE Grid Solutions Mandar Pandit is the Chief Strategy & Growth Officer at GE Vernova’s Grid Solutions business in North America. In his position, Mandar is responsible for strategic growth in both the Data Center and Renewable segments. He is also responsible for GE Vernova’s key global accounts headquartered in North America. Mandar joined GE in 2005 in the GE Power business and was then selected for GE’s Corporate Commercial Leadership Program. He has held a variety of roles in Commercial, Sales, and Business Development in GE’s Renewable and Grid businesses. During his tenure, he has worked closely with multiple energy project developers, investors, and EPC companies, establishing a vast industry network worldwide. Prior to his GE Grid roles, Mandar was part of GE’s Global Development & Strategic Initiatives (GDSI) group where he was responsible for originating Wind, Solar, and IGCC deals. Prior to GE, Mandar worked for Terex-Vectra group in New Product Development. Mandar holds a Master of Business Administration degree in International Business from the State University of New York and resides in Upstate NY with his wife and two children. In his free time, Mandar is an avid meditation practitioner and hobby nature photographer.

Registration form for the training course: Offshore Wind Operation and Maintenance First Name Last Name Email Address Phone Number Company / Organization Name Job Title or Position Country State, Region, or Province Address Confirm the course name Offshore Wind Operation and Maintenance Are you applying as: * Individual Group Select the course date * Spring Session Fall Session By clicking submit you agree to our Terms and Conditions Submit Your application has been submitted. We will reach out to you to complete the payment

Digital Twin Fundamentals for Offshore Wind Offshore wind digital twin fundamentals encompass a wide range of interconnected concepts. Key terms include digital twin, offshore wind farm, wind turbine, SCADA, predictive maintenance, condition monitoring, machine learning, artificial intelligence, AI, IoT, Internet of Things, sensors, data acquisition, data analytics, big data, cloud computing, edge computing, high-performance computing, HPC, simulation, modeling, computational fluid dynamics, CFD, finite element analysis, FEA, structural analysis, fatigue analysis, blade dynamics, rotor dynamics, gearbox health, generator performance, yaw system, pitch system, control systems, power conversion, grid integration, offshore operations, marine environment, metocean data, wave height, wind speed, current velocity, turbine installation, O&M, operation and maintenance, lifecycle management, asset integrity, risk assessment, downtime reduction, optimization, efficiency, cost reduction, virtual commissioning, virtual reality, VR, augmented reality, AR, mixed reality, MR, digital thread, data integration, interoperability, standards, cybersecurity, data security, remote sensing, LiDAR, radar, satellite imagery, drone inspection, underwater inspection, autonomous vessels, robotics, digital engineering, model calibration, model validation, uncertainty quantification, sensitivity analysis, what-if scenarios, decision support, stakeholder collaboration, communication, visualization, dashboards, reporting, real-time data, historical data, data mining, pattern recognition, anomaly detection, fault diagnosis, prognosis, remaining useful life, RUL, life extension, performance optimization, energy yield, AEP, capacity factor, wind resource assessment, site selection, environmental impact, social impact, regulatory compliance, permitting, financing, insurance, supply chain, logistics, manufacturing, installation vessels, heavy lift cranes, subsea cables, foundations, mooring systems, offshore platforms, crew transfer vessels, safety, health, environment, SHE, risk management, emergency response, training, education, workforce development, digital skills, innovation, research, development, R&D, future of energy, renewable energy, sustainable energy, clean energy, green energy, energy transition, decarbonization, climate change, circular economy, lifecycle assessment, LCA, cradle-to-grave, sustainability metrics, environmental monitoring, biodiversity, marine ecology, noise pollution, visual impact, community engagement, stakeholder engagement, social license, public acceptance, policy, regulation, market analysis, business models, value creation, digital transformation, industry 4.0, smart grids, energy storage, hydrogen, power-to-x, sector coupling, smart cities, future of work, digital twins in energy, digital twins for renewables, offshore wind energy, wind power, renewable energy integration, smart energy systems, energy management, energy efficiency, carbon footprint, sustainability reporting, ESG, environmental, social, and governance, corporate social responsibility, CSR, innovation ecosystems, open innovation, collaboration platforms, knowledge sharing, best practices, standards development, certification, quality assurance, project management, construction management, commissioning, decommissioning, repowering, circular economy principles, waste management, recycling, material reuse, sustainable development goals, SDGs, United Nations, Paris Agreement, climate action, energy policy, offshore wind policy, renewable energy targets, energy security, energy access, just transition, workforce transition, skills gap, digital divide, inclusive growth, social equity, environmental justice, community benefits, local content, supply chain development, economic development, regional development, global energy landscape, energy future, technological advancements, digital technologies, emerging technologies, future trends, offshore wind innovation, digital twin technology, digital twin applications, offshore wind industry, renewable energy industry, energy sector, maritime sector, offshore sector, engineering, procurement, construction, EPC, turnkey projects, project finance, investment, due diligence, feasibility studies, risk mitigation, insurance solutions, offshore wind insurance, marine insurance, cyber insurance, data privacy, data governance, intellectual property, open source, collaboration tools, communication platforms, project management software, data visualization tools, simulation software, modeling software, analytics platforms, cloud platforms, edge platforms, hardware, software, connectivity, sensors and instrumentation, data storage, data processing, data security, cybersecurity threats, cyberattacks, data breaches, vulnerability assessment, risk mitigation strategies, security protocols, authentication, authorization, access control, encryption, data integrity, data quality, data validation, data cleaning, data transformation, data analysis techniques, statistical analysis, machine learning algorithms, deep learning, neural networks, predictive modeling, forecasting, optimization algorithms, control algorithms, simulation models, computational models, numerical methods, finite element methods, computational fluid dynamics methods, model calibration techniques, model validation techniques, uncertainty quantification methods, sensitivity analysis methods, what-if analysis, scenario planning, decision-making processes, stakeholder engagement strategies, communication strategies, visualization techniques, reporting methods, key performance indicators, KPIs, performance metrics, data-driven insights, actionable intelligence, digital twin benefits, business value, return on investment, ROI, cost-benefit analysis, feasibility analysis, technology roadmap, innovation strategy, digital transformation strategy, offshore wind strategy, renewable energy strategy, sustainability strategy, energy transition strategy, climate action strategy, digital twin roadmap, implementation plan, project execution, change management, organizational culture, digital culture, talent development, skills development, training programs, education programs, research collaborations, industry partnerships, government support, policy incentives, regulatory frameworks, permitting processes, environmental impact assessment, social impact assessment, community engagement plans, stakeholder engagement plans, communication plans, risk management plans, emergency response plans, safety plans, health plans, environmental management plans, quality management plans, project management plans, contract management, supply chain management, logistics management, operations management, maintenance management, asset management, lifecycle management, digital twin platform, digital twin ecosystem, offshore wind ecosystem, renewable energy ecosystem, energy ecosystem, digital economy, smart economy, sustainable economy, circular economy, knowledge economy, future skills, digital literacy, data literacy, computational thinking, problem-solving skills, critical thinking skills, communication skills, collaboration skills, leadership skills, innovation skills, creativity, entrepreneurship, digital leadership, digital citizenship, ethical considerations, social responsibility, environmental stewardship, sustainability principles, circular economy principles, responsible innovation, digital ethics, data ethics, AI ethics, responsible AI, ethical AI, trustworthy AI, explainable AI, transparent AI, accountable AI, fair AI, unbiased AI, inclusive AI, human-centered AI, AI for good, AI for sustainability, AI for climate action, AI for energy, AI for renewables, AI for offshore wind, digital twin for AI, AI in digital twins, machine learning in digital twins, deep learning in digital twins, predictive maintenance with digital twins, condition monitoring with digital twins, optimization with digital twins, simulation with digital twins, modeling with digital twins, data analytics with digital twins, IoT in digital twins, cloud computing in digital twins, edge computing in digital twins, HPC in digital twins, virtual commissioning with digital twins, virtual reality in digital twins, augmented reality in digital twins, mixed reality in digital twins, digital thread in digital twins, data integration in digital twins, interoperability in digital twins, cybersecurity in digital twins, data security in digital twins, remote sensing in digital twins, drone inspection in digital twins, underwater inspection in digital twins, autonomous vessels in digital twins, robotics in digital twins, digital engineering in digital twins, model calibration in digital twins, model validation in digital twins, uncertainty quantification in digital twins, sensitivity analysis in digital twins, what-if scenarios in digital twins, decision support with digital twins, stakeholder collaboration with digital twins, communication with digital twins, visualization with digital twins, dashboards with digital twins, reporting with digital twins, real-time data in digital twins, historical data in digital twins, data mining in digital twins, pattern recognition in digital twins, anomaly detection in digital twins, fault diagnosis in digital twins, prognosis in digital twins, remaining useful life in digital twins, life extension with digital twins, performance optimization with digital twins, energy yield with digital twins, AEP with digital twins, capacity factor with digital twins, wind resource assessment with digital twins, site selection with digital twins, environmental impact assessment with digital twins, social impact assessment with digital twins, regulatory compliance with digital twins, permitting with digital twins, financing with digital twins, insurance with digital twins, supply chain with digital twins, logistics with digital twins, manufacturing with digital twins, installation vessels with digital twins, heavy lift cranes with digital twins, subsea cables with digital twins, foundations with digital twins, mooring systems with digital twins, offshore platforms with digital twins, crew transfer vessels with digital twins, safety with digital twins, health with digital twins, environment with digital twins, risk management with digital twins, emergency response with digital twins, training with digital twins, education with digital twins, workforce development with digital twins, digital skills with digital twins, innovation with digital twins, research with digital twins, development with digital twins, future of energy with digital twins, renewable energy with digital twins, sustainable energy with digital twins, clean energy with digital twins, green energy with digital twins, energy transition with digital twins, decarbonization with digital twins, climate change with digital twins, circular economy with digital twins, lifecycle assessment with digital twins, cradle-to-grave with digital twins, sustainability metrics with digital twins, environmental monitoring with digital twins, biodiversity with digital twins, marine ecology with digital twins, noise pollution with digital twins, visual impact with digital twins, community engagement with digital twins, stakeholder engagement with digital twins, social license with digital twins, public acceptance with digital twins, policy with digital twins, regulation with digital twins, market analysis with digital twins, business models with digital twins, value creation with digital twins, digital transformation with digital twins, industry 4.0 with digital twins, smart grids with digital twins, energy storage with digital twins, hydrogen with digital twins, power-to-x with digital twins, sector coupling with digital twins, smart cities with digital twins, future of work with digital twins. Digital Twin Fundamentals for Offshore Wind Price Please inquire Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Open Enroll Digital Twin Fundamentals for Offshore Wind This one-day course provides a comprehensive introduction to the concept and practical implementation of digital twins in the offshore wind industry. Participants will gain a deep understanding of digital twin technology, its applications, benefits, and its crucial role in enhancing operational efficiency, predictive maintenance, and decision-making processes within offshore wind projects. Who Should Attend This course is tailored for professionals in the offshore wind industry looking to enhance their knowledge of digital twins and how they can be effectively applied in wind farm operations. It is suitable for engineers, project managers, data analysts, and anyone interested in the latest advancements in offshore wind technology. Whether you are new to digital twins or seeking to expand your expertise, this course provides valuable insights and practical skills. Course Overview: Understanding Digital Twins in Offshore Wind - Key components and technologies involved in creating digital twins. - Real-world applications and benefits of digital twins. Building Digital Twins for Wind Farms - The process of creating a digital twin for offshore wind farms. - Data collection, sensors, and IoT devices. - Data management, storage, and integration for digital twins. - Hands-on exercises in setting up digital twin models. Monitoring, Analysis, and Predictive Maintenance - Real-time monitoring of offshore wind assets through digital twins. - Data analysis, anomaly detection, and trend forecasting. - Predictive maintenance and risk mitigation through digital twin insights. - Case studies on improved maintenance strategies. Digital Twins for Decision-Making and Optimization - The role of digital twins in operational decision-making. - Scenario analysis, optimization, and resource planning. - Integration with existing systems and software. - Future trends and advancements in digital twin technology. Course Instructors Espen Krogh Senior Technical Advisor, TGS Espen Krogh is a senior technical advisor in TGS and the chairperson of the OPC Foundation Wind Power Plant working group. In his career, he has worked his way from being SW developer in Kongsberg Maritime, to CTO- and eventually CEO in TGS Prediktor, a company that was acquired by TGS in 2022. Espen headed TGS Prediktor when the company was awarded and extensive real-time data management contract in the SSE/Equinor Dogger Bank project – the world’s largest offshore windfarm. TGS has data, expertise, and tools for the complete lifecycle of offshore windfarms. Thibaut Forest Principal Data Scientist, Equinor Thibaut Forest is a principal data scientist at Equinor with a six-year track record in creating digital solutions for wind farms. His skills in understanding data and using machine learning have been key in a wide array of projects aimed at making wind farms more profitable. These projects include work on both traditional and floating wind farms. Thibaut has led a team that watches over the health of wind farm equipment and is now working on new ways to use data to predict and prevent unexpected breakdowns. His work is especially important for the Dogger Bank wind farm, which is on its way to becoming the biggest of its kind in the world. The course outline is subject to change and a detailed agenda will be shared after enrollment.

< Back Shell Pulls Back From Atlantic Shores Offshore Wind Project January 31, 2025 In a significant blow to New Jersey's ambitious offshore wind energy plans, Shell has announced it is pausing its involvement in the Atlantic Shores Offshore Wind . During its fourth-quarter earnings call, the energy giant revealed it was writing down its investment in the project by a substantial $996 million, signaling serious concerns about its financial viability. "We just don’t see that it fits both our capabilities nor the returns that we would like," Shell Chief Financial Officer Sinead Gorman explained, effectively halting Shell's participation. This decision throws the future of Atlantic Shores, a joint venture between Shell and EDF Renewables North America , into considerable doubt. The 2.8 GW project, located around 9 miles off the New Jersey coast, was once considered a flagship venture, touted as the closest offshore wind project to shore along the Eastern Seaboard. However, its proximity to the coast also made it a lightning rod for criticism, drawing fire from New Jersey Republicans and even former President Donald Trump, who publicly targeted the project. While EDF Renewables has yet to issue a formal statement, Atlantic Shores released a statement asserting its intention to move forward. “Atlantic Shores is committed to New Jersey and delivering the Garden State’s first offshore wind project. Business plans, projects, portfolio projections, and scopes evolve over time – and as expected for large, capital-intensive infrastructure projects like ours, our shareholders have always prepared long-term strategies that contemplate multiple scenarios that enable Atlantic Shores to reach its full potential. While we can’t comment on the views of shareholders, Atlantic Shores intends to continue progressing New Jersey’s first offshore wind project and our portfolio in compliance with our obligations to local, state, and federal partners under existing leases and relevant permits.” Shell's decision to step back from Atlantic Shores reflects a broader trend of the company scaling back its investments in renewable energy. Despite previously positioning offshore wind as a central pillar of its net-zero emissions strategy announced in 2020, Shell has steadily retreated from the sector. Rising project costs and investor pressure for higher returns in the traditional oil and gas business have led the company to prioritize "performance, discipline, and simplification," according to a company spokesperson. This includes a focus on "value maximization in key markets where we have an advantaged position." Shell had already sold its stake in a Massachusetts offshore wind project last year, further demonstrating its shifting priorities. The withdrawal is a significant setback for New Jersey Governor Phil Murphy's ambitious offshore wind energy goals. The state has already faced setbacks in its renewable energy plans, notably the cancellation of the Ørsted project last year. The loss of Shell's backing for Atlantic Shores raises serious questions about the feasibility of the project moving forward and casts a shadow over New Jersey's broader efforts to transition to clean energy sources. The future of Atlantic Shores, and indeed New Jersey's offshore wind industry, now hangs in the balance. Credit: E&E News Update (2/3/25): New Jersey has cancelled its fourth solicitation for offshore wind capacity. The state's Board of Public Utilities said that while there were three initial bidders for the 1.2 GW to 4 GW solicitation, Corio-Total-Rise joint venture Attentive Energy and RWE-National Grid venture Community Offshore Wind have since pulled out, leaving only Atlantic Shores to submit a best and final offer. Shell's decision to pull out of the Atlantic Shores joint venture with EDF contributed to the Board's decision to cancel the solicitation, as well as President Donald Trump's indefinite delay on new federal permitting. According to Christine Guhl-Sadovy, from New Jersey Board of Public Utilities, "A number of reasons led to this decision, notably Shell backing out as an equity partner in the Atlantic Shores project and backing away from the American clean energy market, as well as uncertainty driven by federal actions and permitting. "The Board concluded that an award in New Jersey's fourth offshore wind solicitation, despite the manifold benefits the industry offers to the state, would not be a responsible decision at this time." Credit: ReNews.biz Previous Next

< Back Marketing Communications Manager (Currently filled) North America Job Type Internship Workspace Remote Apply Now Please note that this role is filled and not currently hiring. If you wish to send your profile for us to keep on file in case of future openings, please send your resume and cover letter to info@aowacademy.com . About the Role We are looking for a proactive, creative Communication Manager intern to handle AOWA's social media accounts, primarily LinkedIn, and contribute to our News section. This position is ideal for university or college students who are passionate about renewable energy, communications, or digital media. As our Communication Manager, you’ll play a crucial role in enhancing AOWA's online presence and sharing important updates with our audience in the U.S. and globally. Key Responsibilities - Social Media Management: Oversee and manage all AOWA social media platforms, focusing primarily on LinkedIn. - Content Creation: Write, edit, and publish regular posts about AOWA’s activities, achievements, and industry trends. - Industry News and Articles: Research and write articles on current events, advancements, and key trends in the offshore wind industry, both domestically and internationally. - Community Engagement: Engage with followers and respond to messages and comments to build a strong online community. - Analytics and Reporting: Track engagement metrics and provide regular reports on the effectiveness of social media and content efforts. - Team Support : Collaborate with AOWA's team to assist with communications tasks as needed, including supporting events, outreach initiatives, and internal projects. Qualifications - Currently enrolled in a university or college, ideally studying communications, marketing, journalism, or a related field. - Strong writing skills and ability to create clear, engaging content. - Familiarity with social media platforms. - Interest in renewable energy and offshore wind industry (a plus). - Ability to work independently and meet deadlines in a remote setting. About Us American Offshore Wind Academy is a pioneering initiative driven by senior leaders within the offshore wind industry who are committed to advancing and strengthening the sector in the United States and worldwide through comprehensive education, training, and collaboration. The American Offshore Wind Academy is an equal opportunity employer. We celebrate diversity and are committed to creating an inclusive environment for all employees. Apply Now

< Back AOWA Announces Partnership with Massachusetts Clean Energy Center (MassCEC) 2/01/24 As part of this collaboration, AOWA will be leading a specialized workshop on blade testing and inspection scheduled for May. This workshop will provide invaluable insights into the certification process, inspection methods, typical findings, and repair options for offshore wind blades. Previous Next

Registration form for the training course: Financing Offshore Wind From Auction To FID First Name Last Name Email Address Phone Number Company / Organization Name Job Title or Position Country State, Region, or Province Address Confirm the course name Financing Offshore Wind From Auction To FID Are you applying as: * Individual Group Select the course date * Spring Session Fall Session By clicking submit you agree to our Terms and Conditions Submit Your application has been submitted. We will reach out to you to complete the payment

Offshore Wind Layout Optimization Offshore wind farm layout optimization is a complex undertaking involving numerous interconnected factors. Key considerations include wind resource assessment, micrositing, turbine spacing, wake effects, turbulence intensity, wind shear, wind veer, atmospheric stability, metocean conditions (wave height, current speed, storm surge), seabed characteristics, geotechnical surveys, bathymetry, water depth, cable routing, array configuration, inter-array cable losses, export cable capacity, grid connection point, substation placement, offshore platform design, floating wind turbine technology, mooring systems, dynamic cable systems, installation vessel accessibility, turbine foundation types (monopile, jacket, gravity base), scour protection, maintenance access, operational costs, levelized cost of energy (LCOE), energy yield maximization, annual energy production (AEP), capacity factor, availability, reliability, turbine lifespan, repowering strategy, decommissioning plan, environmental impact assessment, marine mammal protection, bird strike risk, benthic habitat disturbance, noise pollution, visual impact, radar interference, navigation safety, shipping lanes, fishing grounds, stakeholder engagement, community benefits, economic impact, job creation, supply chain development, port infrastructure, permitting process, regulatory compliance, spatial planning, conflicting uses (e.g., fishing, shipping, military), social acceptance, public opinion, visual amenity, landscape impact, cultural heritage, archaeological sites, marine archaeology, underwater cultural heritage, cumulative impacts, optimization algorithms, computational fluid dynamics (CFD), numerical modeling, wind farm cluster optimization, multi-objective optimization, genetic algorithms, particle swarm optimization, gradient-based optimization, surrogate modeling, machine learning, artificial intelligence, data-driven optimization, uncertainty quantification, robust optimization, stochastic optimization, risk assessment, sensitivity analysis, cost-benefit analysis, lifecycle assessment, supply chain logistics, manufacturing capacity, installation schedule, project financing, insurance, risk management, health and safety, offshore operations, remote sensing, LiDAR, SoDAR, met masts, SCADA systems, condition monitoring, predictive maintenance, digital twin, data analytics, big data, cloud computing, high-performance computing, parallel computing, optimization software, simulation tools, geographic information systems (GIS), spatial data analysis, cartography, remote sensing data, satellite imagery, aerial surveys, bathymetric data, oceanographic data, meteorological data, wind resource maps, metocean hindcast data, climate change impacts, sea level rise, extreme weather events, climate resilience, adaptation strategies, sustainable development, circular economy, and blue economy. Offshore Wind Layout Optimization Price Please inquire Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Not Open Enroll Offshore Wind Layout Optimization Course details will be announced at a later date. If you require any further details or have questions, please feel free to reach out.

Recognizing excellence in offshore wind training and workforce development. Learn about AOWA’s awards and past honorees. Talent Investment Awards January 17, 2025 In 2024 at American Offshore Wind Academy, we trained over 400 people from 160+ companies. There were a few companies who stood out to us for being professional development champions. As a thank you for trusting in our academy and the subject matter experts who instruct our courses, we are thrilled to announce the recipients of our "Talent Investment Award ". This award is for organizations with unparalleled commitment to investing in their employees through offshore wind industry training programs. We are pleased to present this award to Avangrid Renewables & American Bureau of Shipping ! Image courtesy of ABS ABS receives Talent Investment Award at FWS conference Avangrid Renewables American Bureau of Shipping Image courtesy of ABS ABS receives Talent Investment Award at FWS conference 1/3 Top Learner Awards January 28, 2025 In 2024 at American Offshore Wind Academy, we trained 400+ people from over 160 companies. Out of the 400+ attendees from all over the world, there were a few individuals who stood out to us for high attendance and engagement. As a thank you for trusting in our academy and the subject matter experts who instruct our courses, we are thrilled to announce the recipients of our " Top Learner Award ". This award honors those dedicated to professional development through active learning, participation, and attentiveness during training sessions. Top Learners of 2024: George Lo, Marwa Reda, and Xiaodong Liu Top Learners of 2024 Top Learners of 2024 1/1 Energy Drink Award January 30, 2025 Out of the 400+ people, one stood out for his commitment to joining us from across the world in the dead of night! For your impressive engagement at crazy hours in the pursuit of offshore wind knowledge, we are thrilled to announce the recipient of the "Energy Drink Award ". Energy Drink Award: Lowell Morales

Registration form for the training course: OSW Planning, Leasing and Permitting Workshop First Name Last Name Email Address Phone Number Company / Organization Name Job Title or Position Country State, Region, or Province Address Confirm the course name OSW Planning, Leasing and Permitting Workshop Are you applying as: * Individual Group Select the course date * Spring Session Fall Session By clicking submit you agree to our Terms and Conditions Submit Your application has been submitted. We will reach out to you to complete the payment