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Cybersecurity For Wind Energy Offshore wind cybersecurity is a critical concern due to the increasing reliance on interconnected systems and the potential for significant disruptions. Keywords related to this topic include: offshore wind farm, cybersecurity, SCADA, industrial control systems (ICS), operational technology (OT), network security, data protection, risk assessment, vulnerability management, threat intelligence, intrusion detection, security monitoring, incident response, disaster recovery, business continuity, regulatory compliance, NERC CIP, NIST cybersecurity framework, ISO 27001, IEC 62443, maritime cybersecurity, port security, supply chain security, digital twin, remote access, authentication, authorization, encryption, firewall, intrusion prevention system (IPS), security information and event management (SIEM), vulnerability scanning, penetration testing, security audit, risk mitigation, cyber resilience, zero trust, endpoint security, data integrity, confidentiality, availability, safety systems, programmable logic controller (PLC), human-machine interface (HMI), distributed control system (DCS), communication protocols, wireless communication, satellite communication, remote operations, autonomous systems, machine learning, artificial intelligence, threat actor, malware, ransomware, phishing, denial-of-service (DoS) attack, distributed denial-of-service (DDoS) attack, man-in-the-middle attack, social engineering, insider threat, advanced persistent threat (APT), nation-state attack, hacktivism, cyber warfare, critical infrastructure, energy security, national security, environmental impact, economic impact, reputational damage, insurance, liability, regulatory bodies, government agencies, international standards, best practices, awareness training, security awareness, employee training, incident reporting, vulnerability disclosure, security patching, software updates, hardware security, physical security, access control, surveillance systems, perimeter security, emergency response, contingency planning, backup and recovery, data backup, system restoration, forensics, investigation, cyber insurance, risk transfer, legal implications, data breach, privacy, compliance, GDPR, CCPA, data localization, cross-border data flow, cloud security, edge computing, internet of things (IoT) security, industrial internet of things (IIoT) security, digital transformation, smart grid, renewable energy, sustainable energy, offshore energy, wind power, wind turbine, turbine control, wind farm operations, grid integration, power generation, energy storage, transmission, distribution, smart sensors, data analytics, predictive maintenance, remote diagnostics, asset management, lifecycle management, supply chain management, logistics, maritime operations, offshore construction, installation, commissioning, operation and maintenance, decommissioning, safety, health, environment (SHE), occupational safety, risk management framework, bowtie analysis, hazard identification, consequence analysis, likelihood assessment, risk matrix, quantitative risk assessment, qualitative risk assessment, security architecture, security design, secure coding, software development lifecycle (SDLC), DevSecOps, security testing, code review, static analysis, dynamic analysis, fuzzing, vulnerability research, exploit development, ethical hacking, red teaming, blue teaming, purple teaming, security community, information sharing, collaboration, public-private partnership, research and development, innovation, standardization, certification, training programs, education, workforce development, skills gap, cybersecurity skills, talent acquisition, retention, diversity, inclusion, leadership, governance, policy, strategy, investment, budget, return on investment (ROI), cost-benefit analysis, total cost of ownership (TCO), lifecycle cost, risk appetite, risk tolerance, risk threshold, security posture, security maturity, continuous improvement, lessons learned, best practices sharing, knowledge management, information security management system (ISMS), security management, compliance management, audit management, vulnerability management program, incident response plan, disaster recovery plan, business continuity plan, security awareness program, training materials, security policies, procedures, standards, guidelines, frameworks, regulations, laws, legal requirements, ethical considerations, professional ethics, code of conduct, social responsibility, sustainability, environmental stewardship, corporate social responsibility (CSR). Cybersecurity For Wind Energy Price $1,450 (Early Bird: $1,160 until June 1) Duration TBA Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Open Enroll Cybersecurity For Wind Energy This course provides a comprehensive exploration of cybersecurity in the context of renewable energy, with a specific focus on offshore wind projects. As renewable energy generation becomes increasingly integrated into utility infrastructures, the importance of securing critical systems and data cannot be overstated. The course delves into the unique challenges and strategies involved in safeguarding offshore wind energy assets, providing participants with a deep understanding of this vital aspect of the industry. By focusing on cybersecurity in the context of renewable energy, this course equips professionals with the knowledge and skills needed to protect vital energy infrastructure in an increasingly digital and interconnected world. Participants will leave with a strong foundation in renewable energy cybersecurity, prepared to address the unique challenges associated with wind projects. Who Should Attend: - Wind farm operators and managers - Cyber security and IT / OT professionals - Software and hardware technology providers - Planning and risk management analysts - Energy cybersecurity professionals - Health and safety managers and personnel - Environmental experts and regulators - Energy industry professionals seeking expertise in cybersecurity within the renewable energy sector This course offers a unique opportunity to develop expertise in safeguarding renewable energy infrastructure, preparing professionals to secure and sustain the growing wind energy sector in the face of an evolving cybersecurity landscape. Day 1 Introduction to Renewable Energy and Cybersecurity - Understanding Renewable Energy and Its Vulnerabilities - Introduction to cybersecurity challenges Cybersecurity Threat Landscape in Wind Energy - Types of cybersecurity threats - Vulnerabilities in wind energy systems - Case studies of cybersecurity breaches Cybersecurity Standards and Best Practices Cybersecurity Strategies and Implementation Risk Assessment and Management - Identifying potential risks - Risk mitigation strategies - Security risk assessment methodologies Network Security and Data Protection - Securing wind farm networks - Data encryption and protection - Data backup and recovery strategies Wind Energy Cybersecurity Framework and Protocols Wind Farm Network Architecture - Wind farm network design - Securing communication networks - Network segmentation SCADA Systems and Vulnerability Mitigation - Understanding SCADA systems - Vulnerabilities and threat protection - Real-world examples of SCADA security Security Incident Detection and Response - Cyber threat detection systems - Incident response procedures - Creating and implementing an incident response plan Day 2 Health and Safety in a Cybersecure Wind Energy Environment Health and Safety Protocols - The intersection of health, safety, and cybersecurity - Compliance with industry safety standards - Safety measures for cybersecurity personnel Incident Response and Recovery - Cybersecurity incident case studies - Learning from past incidents - Developing strategies for incident recovery Emerging Technologies and Innovations - Cybersecurity innovation in wind energy - Automation and AI applications - Future advancements and challenges Industry Trends and Future Growth - Industry trends and growth prospects - The future of renewable energy cybersecurity - Preparing for an evolving threat landscape Practical Applications and Future Security Security for Distributed Energy Resources - Security challenges in distributed energy systems - Microgrid and decentralized energy cybersecurity - Case studies in distributed energy security Future-Proofing Wind Energy Cybersecurity - Preparing for future threats - Emerging technologies and their impact - Industry collaborations and sharing best practices Course Instructors: Instructors for this course are seasoned professionals with extensive experience in securing critical infrastructure within the renewable energy sector. They offer diverse expertise in cybersecurity strategies and threat mitigation, bringing valuable practical knowledge to the program. Stay tuned for our forthcoming instructor announcements, as they play a pivotal role in enhancing your understanding of this critical aspect of the renewable energy industry. The course outline is subject to change and a detailed agenda will be shared after enrollment.

OSW Planning, Leasing and Permitting Workshop Offshore wind energy, wind farm development, renewable energy, clean energy, green energy, sustainable energy, offshore wind projects, wind turbine installation, wind turbine maintenance, offshore construction, marine environment, environmental impact assessment, environmental impact statement, EIS, environmental review, permitting process, federal permitting, state permitting, local permitting, regulatory approvals, Bureau of Ocean Energy Management, BOEM, lease area, offshore lease, commercial lease, site assessment, resource assessment, metocean data, wind resource, bathymetry, geotechnical surveys, benthic surveys, marine mammals, protected species, endangered species, migratory birds, fish stocks, marine ecology, oceanography, coastal zone management, coastal communities, stakeholder engagement, public engagement, community benefits agreement, CBA, visual impact, noise impact, navigation safety, maritime safety, shipping lanes, fishing industry, commercial fishing, recreational fishing, tribal consultation, cultural resources, historic preservation, archaeological sites, underwater cables, subsea cables, grid connection, power transmission, offshore substation, onshore substation, energy storage, battery storage, transmission lines, project financing, capital investment, tax credits, renewable energy certificates, RECs, power purchase agreement, PPA, offtake agreement, economic development, job creation, supply chain, manufacturing, port infrastructure, vessel traffic, construction vessels, installation vessels, service vessels, decommissioning, repowering, operational life, levelized cost of energy, LCOE, energy policy, climate change, carbon emissions, greenhouse gas emissions, energy transition, just transition, marine spatial planning, ocean planning, integrated coastal zone management, ICZM, cumulative impacts, mitigation measures, best management practices, BMPs, adaptive management, monitoring programs, scientific research, data collection, technology innovation, floating offshore wind, deepwater wind, wind turbine technology, blade technology, nacelle, rotor, gearbox, generator, control systems, SCADA, remote sensing, LiDAR, met masts, wind measurement, wave measurement, current measurement, seabed mapping, habitat mapping, wildlife monitoring, avian radar, acoustic monitoring, marine mammal observation, protected species observer, PSO, cultural impact assessment, social impact assessment, economic impact assessment, risk assessment, hazard assessment, safety management system, emergency response plan, contingency plan, insurance, liability, performance bonds, project schedule, project budget, cost overruns, supply chain disruptions, force majeure, dispute resolution, arbitration, mediation, legal framework, regulatory framework, international law, maritime law, Jones Act, Outer Continental Shelf Lands Act, OCSLA, National Environmental Policy Act, NEPA, Clean Water Act, CWA, Endangered Species Act, ESA, Marine Mammal Protection Act, MMPA, Migratory Bird Treaty Act, MBTA, National Historic Preservation Act, NHPA, 1 Magnuson-Stevens Fishery Conservation and Management Act, MSFCMA, Coastal Zone Management Act, CZMA, public hearings, environmental justice, disadvantaged communities, low-income communities, indigenous communities, community engagement plan, communication plan, outreach plan, education plan, workforce development, training programs, apprenticeship programs, local hiring, domestic manufacturing, supply chain localization, port development, harbor improvements, navigation aids, safety zones, exclusion zones, weather forecasting, metocean modeling, climate resilience, sea level rise, storm surge, extreme weather events, climate adaptation, coastal resilience, community resilience, stakeholder collaboration, interagency coordination, government agencies, federal agencies, state agencies, local agencies, non-governmental organizations, NGOs, environmental organizations, industry associations, research institutions, academic institutions, public-private partnerships, joint ventures, consortiums, project developers, turbine manufacturers, contractors, subcontractors, consultants, engineers, surveyors, scientists, lawyers, financial institutions, investors, lenders, insurance companies, risk managers, community representatives, tribal representatives, fishermen, environmental advocates, local businesses, tourism industry, recreation industry, property owners, residents, media, public opinion, social media, press releases, public relations, communication strategy, stakeholder mapping, engagement strategy, consultation process, feedback mechanisms, comment period, public meetings, workshops, webinars, online platforms, data visualization, GIS mapping, 3D modeling, virtual reality, augmented reality, storytelling, narrative, transparency, accountability, best practices, lessons learned, case studies, comparative analysis, international experience, global best practices, innovation, technology transfer, knowledge sharing, capacity building, sustainable development goals, SDGs, Paris Agreement, climate action, energy security, energy independence, economic growth, social equity, environmental stewardship, future generations. OSW Planning, Leasing and Permitting Workshop Price $1,250 (Early bird: $1,000 until August 1) Duration 1-Day Dates On demand - Enroll now Format Virtual (Live) Course Status Open Enroll OSW Planning, Leasing and Permitting Workshop This course does not have a set date. If you are an individual: We will run this course periodically - please enroll through the "Enroll" button above to stay updated If you are a team leader: Please contact us via the "Contact" button to arrange a training for your team. The "Offshore Wind Planning, Leasing, and Permitting" full-day workshop offers a comprehensive exploration of the multifaceted world of offshore wind energy in the United States. Participants will delve into key aspects of the industry through extensive discussion and interactive exercises, covering topics from the current state of the industry to the intricacies of planning/leasing/permitting, to the anticipated changes with the new administration. This is a workshop - be ready to put your knowledge and ideas to work! Course Objectives: This workshop aims to equip participants with a well-rounded understanding of offshore wind energy in the U.S. and the ability to actively participate in the many steps in the process leading to steel in the water. The objectives are as follows: - Gain insights into the present landscape of the U.S. offshore wind industry. - Explore the role of federal and state governments in ocean governance. - Understand the influence of technology and its historical context. - Analyze the legislative and regulatory background shaping the industry. - Examine real-life case studies of offshore wind projects, including Cape Wind and the Imaginary Energy Program. - Engage in discussions on the challenges and opportunities within the industry. - Learn about stakeholder involvement and outreach strategies. - Delve into the complex dynamics of offshore wind auctions. - Participate in an auction exercise to simulate real-world scenarios. - Gain an overview of site assessment, COP (Construction and Operations Plan) development, and the BOEM/BSEE handoff. - Explore the current and future industry challenges, such as the supply chain, infrastructure, and transmission. Who Should Attend: Professionals and individuals with a vested interest in offshore wind energy will find this workshop invaluable. This includes: - Government officials and policymakers involved in energy regulation. - Industry professionals and decision-makers. - Technology enthusiasts seeking an overview of the offshore wind landscape. - Academics and researchers interested in the industry's history and legislative backdrop. - Stakeholders and community representatives involved in offshore wind projects. - Those interested in the dynamics of offshore wind auctions. - Individuals looking to understand the site assessment and development processes. - Those curious about the future challenges of the offshore wind sector. This workshop provides a foundational understanding of the complexities and opportunities inherent to U.S. offshore wind energy, making it beneficial for a wide range of participants. Workshop Agenda: Course Time: 9.30am-4pm EST Module 1: Introductions/Course Objectives/Guidelines Module 2: The U.S. Offshore Wind Industry Today Module 3: Ocean Governance Federal role(s) State Role Exercise: Alternative Program frameworks Break Module 4: Program Background and History Legislation and the regulatory regime Cape Wind The Imaginary Energy Program Exercise: Alternative Program frameworks Lunch Break Module 5: The Role of Technology Exercise: Innovative ideas put to work Module 6: Issues and Opportunities (Discussion) Module 7: Stakeholder involvement Intergovernmental Task Forces Public Meetings Outreach Exercise: Public meeting simulation and roleplaying Module 8: The Purpose of an Outer Continental Shelf "Auction"- Discussion: Bidding Factors Exercise: Strategy formulation Break Exercise: Auction (with Mike Olsen) Bidding assignments and instructions Round by Round bidding and evaluations Announcement of Winners Module 9: Post-Lease Activities and Responsibilities Site Assessment and Development of a COP BOEM/BSEE handoff Module 10: Industry Challenges Ahead Supply Chain Infrastructure Transmission Module 11: New Administration - Your concerns, Q&A, and open discussion Course Instructors: Jim Bennett Former Program Manager for Offshore Renewable Energy, Office of Renewable Energy Programs, Bureau of Ocean Energy management (BOEM), U.S. Department of the Interior Jim Bennett, recognized both domestically and internationally as an expert on environmental review and development of natural resources on the U.S. Outer Continental Shelf (OCS), recently retired after 43 years of Federal service including more than seven years as the Renewable Energy Program Manager in Bureau of Ocean Energy Management (BOEM). Under his leadership, the Program managed the upsurge in Atlantic renewable energy leases, the installation of the first OCS steel-in-the-water, and the approval of the first two commercial-scale wind farms in U.S. waters. Jim also led the Bureau’s Division of Environmental Assessment for many years. He now shares his vast experience and unique expertise with our new national offshore wind industry. He provides industry training and is currently associated with the highly ranked, full-service global business and technology consultancy Burns & MacDonnell. Mike Olsen Founding Principal, M.D. Olsen Consulting, LLC Mike Olsen has over 20 years’ experience in energy policy.  He is the founding principal of M.D. Olsen Consulting, which offers strategic advice and government affairs services.  Before launching his firm, Mike was Vice President for Strategy & Partnerships at Aker Solutions.  Prior to that he managed government affairs for Mainstream Renewable Power in the U.S.  He joined Mainstream from Equinor, where he was responsible for offshore wind market development and policy.  Before joining Equinor, Mike was Senior Counsel at the law firm Bracewell LLP.  He spent almost six years at the Department of the Interior during the George W. Bush administration in roles including Deputy Assistant Secretary for Land and Minerals Management and Principal Deputy Assistant Secretary for Indian Affairs.  Before that he was Director of the Office of Native American and Insular Affairs for the House of Representatives Committee on Resources.  The course outline is subject to change and a detailed agenda will be shared after enrollment.

EPCI Strategies for Offshore Wind Success Offshore wind EPCI (Engineering, Procurement, Construction, and Installation) strategies are complex and multifaceted, encompassing a wide range of considerations. Key areas include project planning, feasibility studies, site assessment (bathymetry, geotechnical surveys, metocean data), wind resource assessment, turbine selection (capacity, technology), foundation design (monopile, jacket, gravity base, floating), turbine installation (heavy lift vessels, crane capacity, offshore logistics), array cable installation (subsea cables, trenching, burial), offshore substation installation (platform design, transformer installation), export cable installation (seabed conditions, cable laying, landfall), onshore grid connection, logistics and supply chain management (vessel availability, port infrastructure, component manufacturing), risk management (weather delays, technical challenges, contractual issues), health and safety (offshore operations, worker safety), environmental impact assessment (marine ecology, noise pollution), permitting and regulatory compliance, cost optimization (CAPEX, OPEX), financing and investment, project management, quality control, stakeholder engagement (local communities, fishermen, environmental groups), supply chain localization, workforce development, innovation (new technologies, automation), digitalization (BIM, digital twins), floating offshore wind, deepwater foundations, metocean modeling, scour protection, cable protection, turbine maintenance, offshore operations and maintenance (O&M), decommissioning, repowering, wind farm layout optimization, energy yield assessment, grid integration, power purchase agreements (PPAs), contract negotiation, insurance, warranty management, risk allocation, dispute resolution, project closeout, lessons learned, continuous improvement, collaborative partnerships, strategic alliances, global supply chains, local content requirements, port development, marine coordination, heavy lift operations, offshore construction vessels, jack-up vessels, installation vessels, cable laying vessels, survey vessels, crew transfer vessels, remote sensing, underwater robotics, autonomous underwater vehicles (AUVs), remotely operated vehicles (ROVs), data analytics, predictive maintenance, condition monitoring, offshore safety training, emergency response, environmental monitoring, marine mammal protection, bird strike mitigation, visual impact assessment, noise impact assessment, seabed habitat restoration, community benefits, economic development, job creation, supply chain development, technology transfer, knowledge sharing, best practices, industry standards, certification, regulatory frameworks, international collaboration, climate change mitigation, renewable energy targets, sustainable development, energy security, green jobs, blue economy, maritime law, offshore regulations, environmental regulations, health and safety regulations, construction regulations, permitting process, stakeholder consultation, public awareness, social acceptance, community engagement plans, communication strategies, media relations, government relations, policy advocacy, industry associations, research and development, innovation hubs, technology clusters, offshore wind farms, wind power, renewable energy, clean energy, sustainable energy, energy transition, climate action. EPCI Strategies for Offshore Wind Success Price Please inquire Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Waiting List Enroll EPCI Strategies for Offshore Wind Success Course details to be determined - stay up to date by enrolling for free in the "enroll" button above

Explore AOWA’s media coverage, press mentions, and resources related to offshore wind energy and workforce training Media Podcast: Ask The Expert Ask The Expert is AOWA’s podcast featuring industry leaders discussing key topics in offshore wind. Each episode explores critical questions, emerging trends, and expert insights shaping the industry. Watch now to stay informed and engage with experts driving the future of offshore wind. View More Testimonials Offshore Wind Upskilling "This course was an invaluable learning experience for any engineer interested in the offshore wind industry. It provided a comprehensive overview of the turbine lifecycle, from leasing to decommissioning. I also learned about the essential roles of ports, vessels, and logistics in transporting turbine components to the site. One of the highlights was the floating wind turbine site exercise, which taught me the strategic site selection process before leasing applications." Marwa A. PhD candidate Western University Offshore Wind Transmission “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 Blade Testing & Inspection Workshop “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 Mastering Wind & Waves Workshop “This course was an invaluable learning experience for me, especially as someone new to the industry. From finite element analysis to advanced simulation tools for wave and wind interaction, I had the opportunity to explore the cutting-edge technologies shaping the future of offshore wind. I now feel more confident much in navigating the technical aspects of offshore wind design and analysis and I’m excited to apply this knowledge as I continue to build my career in the field!” Catherine Q. Intern National Renewable Energy Laboratory Deep Dive Into Offshore Wind Foundations "This course is essential for every civil engineer involved in offshore wind turbine foundations. It provides in-depth knowledge of various foundation types and the critical aspects of load transfer to soil. You’ll learn how to select the optimal foundation based on many factors including site conditions and soil characteristics. A key takeaway is understanding the installation process of these foundations, ensuring that designs are not only theoretically sound but also practically feasible for real-world deployment." Marwa A. PhD candidate Western University View More

Help us improve! Share your feedback on AOWA’s training programs and initiatives to enhance the offshore wind workforce AOWA Course Feedback Form Thank you very much for your participation in our training course. Your valuable feedback will help us to align our training services to your specific requirements and needs. Your assessment and suggestions will influence the further planning and organization of AOWA seminars, training course, and workshops, and will enable us to improve our portfolio continuously in order to remain the high-quality training. All feedback will be treated confidentially. We look forward to your open responses. Thank you very much for your support. How satisfied were you with the event? What was the best part of the event? The content The people The food The music How relevant was it for you? How convenient were the time & place? Would you consider coming to future events? Yes No Send Feedback Thanks for your feedback!

Mastering Offshore Wind Turbine Generators Offshore wind turbine generators, a cornerstone of renewable energy, harness the power of wind at sea to produce clean electricity. These complex systems involve numerous components and processes, encompassing aerodynamics, electrical engineering, structural mechanics, and marine operations. Key terms associated with offshore wind turbine generators include: wind resource assessment, metocean data, wind speed, wind direction, turbulence intensity, shear, veer, atmospheric stability, offshore wind farm, wind turbine, rotor, blades, nacelle, hub, pitch system, yaw system, main shaft, gearbox, generator, power converter, transformer, electrical grid connection, subsea cables, export cable, inter-array cables, offshore substation, high voltage direct current (HVDC), alternating current (AC), reactive power compensation, grid stability, frequency regulation, voltage control, SCADA system, remote monitoring, condition monitoring, predictive maintenance, operations and maintenance (O&M), blade inspection, tower inspection, foundation inspection, turbine repair, component replacement, offshore crane, jack-up vessel, service operation vessel (SOV), crew transfer vessel (CTV), helicopter operations, safety at sea, marine environment, environmental impact assessment, marine mammals, seabirds, fish stocks, benthic habitats, noise pollution, visual impact, electromagnetic fields, social impact, stakeholder engagement, community benefits, economic development, job creation, supply chain, manufacturing, installation, commissioning, decommissioning, lifecycle assessment, levelized cost of energy (LCOE), capital expenditure (CAPEX), operational expenditure (OPEX), financing, insurance, risk management, regulatory framework, permitting, consenting, maritime law, international waters, exclusive economic zone (EEZ), seabed lease, wind farm developer, turbine manufacturer, component supplier, service provider, research and development, innovation, technology advancement, blade design, rotor dynamics, generator efficiency, power electronics, control systems, floating offshore wind, deepwater wind, mooring systems, dynamic cables, turbine foundation, monopile, jacket, gravity base, suction bucket, floating platform, spar buoy, semi-submersible, tension leg platform, hydrodynamic loads, wave loads, current loads, ice loads, seismic loads, fatigue analysis, structural integrity, corrosion protection, cathodic protection, anti-fouling, biofouling, marine growth, scour protection, cable protection, seabed preparation, trenching, backfilling, rock dumping, cable laying vessel, ploughing, jetting, remotely operated vehicle (ROV), autonomous underwater vehicle (AUV), diving operations, underwater inspection, repair and maintenance, health and safety, personal protective equipment (PPE), working at height, confined space entry, emergency response, search and rescue, met mast, LiDAR, SoDAR, remote sensing, data acquisition, data analysis, wind farm layout optimization, turbine spacing, wake effects, turbulence intensity, power curve, capacity factor, availability, reliability, maintainability, life extension, repowering, wind energy policy, renewable energy targets, climate change mitigation, decarbonization, energy security, sustainable development. Mastering Offshore Wind Turbine Generators Price $1,350 (Early Bird: $1,080 until August 1) Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Not Open Enroll Mastering Offshore Wind Turbine Generators This in-depth course provides a comprehensive exploration of offshore wind turbine generators, focusing on their design, components, operation, and maintenance. Participants will gain a detailed understanding of the critical components, technologies, and considerations involved in these essential offshore wind systems. The course is designed to provide a comprehensive understanding of the technical and operational aspects of offshore wind turbine generators (WTGs). In this course, participants will delve deep into the critical components, functioning, maintenance, and emerging technologies related to these vital machines that convert wind energy into electricity. Who Should Attend: Professionals, engineers, technicians, and anyone seeking a comprehensive understanding of offshore wind turbine generators, their design, operation, and maintenance. This course is especially beneficial for individuals involved in the offshore wind energy sector, including project developers, operators, technicians, and engineers. Course Duration: 2 Days Course Objectives: Upon completing this course, participants will: 1. Gain a deep understanding of the structure and components of offshore wind turbine generators. 2. Develop comprehensive knowledge of the operational principles and working mechanisms of offshore wind turbine generators. 3. Explore the maintenance, troubleshooting, and repair procedures for WTGs. 4. Understand the latest technological advancements and innovations in offshore wind turbine generator design. 5. Identify key safety considerations and best practices for offshore wind turbine generator operations. Day 1: Offshore Wind Turbine Generator Fundamentals Introduction to Offshore Wind Energy - Overview of the offshore wind energy industry Offshore Wind Turbine Generator Basics - An overview of the turbine generator's main components - Key principles of offshore wind energy conversion Offshore Wind Turbine Types - Comparison of different turbine types - Factors influencing turbine selection Turbine Design and Components - In-depth exploration of turbine design and major components - Direct drive vs gearbox-driven wind turbine generator - Nacelle, rotor, blades, drivetrain, tower and foundation systems - Onshore vs. offshore turbine design Day 2: Wind Turbine Generator Operation - Wind energy conversion process - Wind resource assessment - Power generation and control - Power curve analysis - Turbine performance optimization Maintenance and Condition Monitoring - Routine maintenance procedures - Advanced condition monitoring technologies - Strategies to ensure turbine reliability and performance Troubleshooting and Repairs - Common turbine issues and failures - Root cause analysis - Repair and replacement techniques - Safety precautions during maintenance Emerging Technologies - Innovations in turbine design - Next-generation materials and components - Floating offshore wind turbine generators - Grid integration and energy storage solutions Course Instructors: Your instructors are seasoned professionals with extensive experience in the offshore wind industry, specifically in the design, operation, and maintenance of offshore wind turbine generators. Instructors' names will be announced soon. The course outline is subject to change and a detailed agenda will be shared after enrollment.

< Back Hurricanes & Offshore Wind July 10th, 2025 Written by Sarah McElman, Lead Consultant at Metocean Expert Americas. What are hurricanes, and how are they different from winter storms? Unlike winter storms, which are created when a cold air mass and a warm air mass meet, creating a “front”, hurricanes form from “atmospheric waves” in the tropics and are sustained by heat from warm ocean temperatures. This means that trajectory, landfall location, and the “forward speed” of the hurricane all influence how the storm evolves in intensity and size. And because of the different temperature mechanisms at play, hurricanes occur at a different time of the year than winter storms. (The Atlantic Hurricane Season is June 1 – November 30.) This means that the Atlantic and Gulf coasts of the United States experience both hurricanes and winter storms, at varying frequencies and intensities, annually. Tracking Hurricanes for Offshore Engineering Typically smaller than winter storms, hurricanes and ocean features during a storm can be much more of a challenge to measure. With the advent of satellite-based observations, the global community’s models of these storms have improved, but features such as wave height, wave period, and its evolution within and outside of storm winds are still an active area of research. With luck, a well-placed and rugged buoy like those in NOAA’s National Data Buoy Center may capture ocean surface features, but whether the buoy is crossed near “the eye” or the far end of a storm—even on the left or right side of the storm—can register a big difference in measured values. Smart people from NOAA have been able to construct hurricane tracks back to 1850, which gives ocean engineers a collection of features to assess risk and is a starting point in determining extreme values for offshore design and operation. Given the relative size of today’s offshore wind projects in the United States, assessing hurricane-generated extreme values should therefore be repeated for multiple turbine locations across the project—and not just based on single metocean parameters that may appear to be the most conservative at one location or another. Extreme Value Analysis (Briefly) We determine extreme values for “return periods” such as 50-year or 100-year magnitudes based on the statistical methods of Extreme Value Analysis (EVA). When conducting EVA, a metocean analyst fits a parameter with a distribution from a set of storms (think “Weibull”) and then linearizes the distribution (the result is logarithmic). N-year values can then be determined from this linear model beyond the duration of the dataset. Concerning the Atlantic Hurricane Season, consider that we only have 10-15 named storms a year, a fraction of which evolve into hurricanes and move close enough to the coast to measure in any given region. As a result, it can be a challenge to right-size an estimate of 100-year, 500-year, and 10,000-year extremes. (A 10,000-year return period is specified in European standards for properly sizing the offshore substation deck height. The American Petroleum Institute guidelines specify a 1,000-year value plus margin.) Metocean Models for Offshore Wind So how do we capture all of this when we design an offshore wind project? A typical metocean model is a hind cast (think hourly forecast, but into the past) of winds, waves, and currents. This is the basis of detailed design work, such as the Input to Design Basis Part A1 for foundations. Normally, the metocean model length is set by the duration of global data that provide model boundary conditions. Typical metocean models for offshore wind in the North Sea region span about 30 years in length. Given the high variability of landfall, path, and strength of hurricanes captured on record, this time period does not give us a very large sample set to conduct EVA with reasonable uncertainty, even with a calibrated and validated model. As a result, there are a few methods metocean analysts use to better represent extremes in regions with hurricane activity: synthetic modeling, which relies on historical tracks and Monte Carlo simulations (for more information, see IEC 61400-1 Annex J), and direct numerical modeling, such as Oceanweather’s 100+ years of recreated hurricanes. Both techniques have strengths and limitations, but they improve the quality and quantity of information available to metocean analysts to characterize the true extremes at a site. Additional Modeling Needs You can imagine that these small, complex storms are challenging to model for engineering purposes, and the work isn’t over. Researchers at the US’ National Laboratories and universities have projects underway--TREXO, STORM, and OWIND to name a few—to refine models and methods in order to better understand storm dynamics and continue informing offshore wind project design standards. It's thanks to forward-thinking collaborations between universities, governments, and industry players around the world that we’re writing the next stage of resilient energy infrastructure design. Previous Next

< Back Meet Charybdis: America's First Domestic Wind Turbine Installation Vessel February 7, 2025 The Charybdis, the United States' first domestically built wind turbine installation vessel (WTIV), represents a landmark $715 million investment in the future of American energy independence. This cutting-edge vessel, built at Seatrium AmFELS, Inc. shipyard in Brownsville, Texas, is poised to strengthen the U.S. offshore wind industry and pave the way for a cleaner, more sustainable future. While the cost of this pioneering vessel has increased from initial estimates (around $500 million), this reflects the complexities of developing a brand-new industry and incorporating the latest technological advancements. The Charybdis' final design incorporates crucial modifications to handle the newest generation of wind turbines, ensuring its long-term viability and maximizing its contribution to U.S. energy goals. This investment in advanced technology will ultimately pay dividends in increased efficiency and performance. The 472-foot Charybdis is a critical component of Dominion Energy 's ambitious Coastal Virginia Offshore Wind (CVOW) project. As a Jones Act-compliant vessel, it plays a vital role in strengthening domestic shipbuilding and maritime industries. This compliance ensures that American jobs and expertise are at the forefront of this burgeoning sector. Although the Charybdis project has faced some delays, these are typical of complex, first-of-their-kind endeavors. The project is now nearing completion, with delivery expected sometime in 2025. This timeline reflects a commitment to quality and precision, ensuring the vessel's reliability and safety for years to come. The Charybdis offers significant advantages to the U.S. offshore wind industry. Its Jones Act compliance streamlines installation processes, eliminating the need for feeder vessels and mitigating weather-related delays. This translates to greater efficiency and cost-effectiveness in the long run. Moreover, a U.S.-flagged WTIV reduces reliance on foreign vessels, securing America's energy future and fostering domestic expertise. The CVOW project, now well underway (recently reaching 50% completion), is a testament to the potential of offshore wind to create jobs and stimulate economic growth. The Charybdis project alone generated over 1,200 jobs at its peak, and the CVOW project is creating thousands more in Virginia. This investment in clean energy is an investment in American communities and the American workforce. Dominion's commitment to the CVOW project, even with the increased costs and political headwinds, demonstrates a forward-thinking approach to energy development. The company recognizes the long-term benefits of offshore wind and is willing to invest in the infrastructure necessary to make it a reality. The anticipated modest increase in customer bills (around 43 cents per month) underscores the company's commitment to balancing affordability with sustainability. “Charybdis is vital not only to CVOW but also to the growth of the offshore wind industry along the U.S. East Coast and is key to the continued development of a domestic supply chain by providing a homegrown solution for the installation of offshore wind turbines,” said Bob Blue, Dominion Energy's chair, president and chief executive officer. The Charybdis is more than just a ship; it's a symbol of American ingenuity and a commitment to a cleaner energy future. Its launch and upcoming sea trials mark a pivotal moment in the development of a robust domestic offshore wind industry. This vessel, and the projects it will support, represent a significant stride towards U.S. energy independence and a more sustainable future. Sources Marine Link, Work Boat, & Marine Insight Previous Next

< Back AOWA Sponsors AFloat - American Floating Offshore Wind Technical Summit 9/24/24 The American Offshore Wind Academy is a proud sponsor of this year's American Floating Offshore Wind Technical Summit. AFloat unites global experts, researchers, and industry leaders to accelerate advancements in floating offshore wind technology, propelling us toward a cleaner, more sustainable energy future. Attendees had the opportunity to hear from renowned keynote speakers who addressed the future of Floating Offshore Wind in the Gulf of Maine, the United States, and worldwide. Previous Next

< Back AOWA Launches Scholarship Program 8/28/24 AOWA scholarship program is designed to empower the next generation of leaders in offshore wind energy. We particularly encourage applications from underrepresented groups, including minorities, veterans, and individuals with disabilities, to ensure that the offshore wind sector benefits from the broadest possible range of talents and perspectives. Whether you're a student, an early-career professional, or someone looking to upskill in the offshore wind industry, this is a fantastic opportunity to gain valuable knowledge and expertise. Scholarships are available on a case-by-case basis and across different courses, so don’t miss out—apply today! Previous Next

Offshore Wind SubMarine Power Cable Offshore wind submarine power cables are critical for transmitting electricity generated by offshore wind farms to onshore grids. These cables face numerous challenges, including harsh marine environments, seabed conditions, and potential damage from anchors, fishing gear, or marine life. Keywords related to this technology include: offshore wind farm, submarine cable, power transmission, subsea cable, export cable, inter-array cable, high voltage cable, HVDC (High Voltage Direct Current), HVAC (High Voltage Alternating Current), cable installation, cable burial, seabed survey, geotechnical investigation, cable protection, trenching, jetting, backfilling, rock dumping, concrete mattresses, cable repair, cable maintenance, cable monitoring, fiber optic cable, communication cable, umbilical cable, dynamic cable, static cable, cable joint, cable termination, offshore platform, substation, converter station, grid connection, renewable energy, wind energy, marine engineering, electrical engineering, civil engineering, oceanography, marine biology, environmental impact, cable route, cable design, cable manufacturing, cable testing, cable laying vessel, cable plough, remotely operated vehicle (ROV), autonomous underwater vehicle (AUV), diving operations, offshore construction, marine contractor, risk assessment, safety management, regulatory compliance, permitting, environmental impact assessment (EIA), benthic environment, marine habitat, electromagnetic field (EMF), acoustic impact, cable fault, cable failure, power loss, grid stability, energy security, cost optimization, levelized cost of energy (LCOE), offshore wind industry, renewable energy integration, smart grid, grid modernization, climate change mitigation, sustainable energy, blue economy, marine spatial planning, stakeholder engagement, public consultation, community benefits, supply chain, manufacturing process, quality control, testing standards, international standards, industry best practices, innovation, research and development, cable materials, XLPE insulation, EPR insulation, cable armor, steel wire armor, copper conductor, aluminum conductor, cable weight, cable diameter, water depth, current velocity, wave action, scour protection, corrosion protection, biofouling, marine growth, abrasion resistance, impact resistance, tensile strength, bending radius, cable lifespan, operational lifetime, life cycle assessment, decommissioning, cable recycling, circular economy, environmental sustainability, cost-effectiveness, reliability, availability, maintainability, survivability, grid resilience, energy transition, decarbonization, electrification, offshore grid infrastructure, regional grid interconnection, subsea power transmission, deep water cable, shallow water cable, nearshore cable, landfall, cable landing, horizontal directional drilling (HDD), micro-tunneling, onshore cable, underground cable, cable duct, cable trench, joint bay, sealing end, cable support, cable clamp, cable ladder, cable tray, fire resistance, flame retardant, cable identification, cable documentation, as-built drawings, geographical information system (GIS), data management, remote sensing, sonar survey, bathymetric data, metocean data, wind resource assessment, wave data, current data, soil data, seabed mapping, habitat mapping, marine protected area, ecological sensitivity, fisheries impact, marine mammal protection, bird strike avoidance, noise mitigation, light pollution, visual impact, landscape impact, cultural heritage, archaeological sites, marine archaeology, underwater archaeology, shipwreck, cultural resources, social impact, economic impact, job creation, local economy, regional development, port infrastructure, supply chain development, workforce training, education, skills development, community engagement, public awareness, communication strategy, stakeholder consultation, government policy, regulatory framework, licensing process, environmental permitting, marine license, consent to locate, offshore wind lease, seabed lease, cable corridor, right of way, land rights, property rights, legal agreements, contracts, procurement, project management, risk management, financial close, investment, financing, insurance, warranty, performance guarantee, operation and maintenance (O&M), asset management, digital twin, predictive maintenance, condition monitoring, remote diagnostics, fault detection, alarm systems, emergency response, contingency planning, disaster recovery, cybersecurity, data security, information management, knowledge sharing, best practices, lessons learned, continuous improvement, innovation ecosystem, research collaboration, industry partnerships, academic institutions, government agencies, non-governmental organizations (NGOs), international cooperation, global best practices, sustainable development goals (SDGs), climate action, clean energy transition. Offshore Wind SubMarine Power Cable Price $1,150 (Early Bird: $920 until June 1) Duration TBA Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Not Open Enroll Offshore Wind SubMarine Power Cable Course details will be announced at a later date. If you require any further details or have questions, please feel free to reach out.

< Back AOWA Announces Partnership with K&L Gates 3/12/24 The American Offshore Wind Academy is pleased to work with K&L Gates as the academy's Trusted Legal Advisor. We are confident this will provide valuable support as we navigate the complex landscape of offshore wind projects. Previous Next

< Back Offshore Wind's Scaling Debate: Power, Progress, and Potential Pitfalls April 9, 2025 The offshore wind industry has witnessed a remarkable surge in technological advancement, characterized by a global "arms race" to develop the most powerful and efficient turbines. This drive for upscaling is fueled by the urgent need to meet ambitious renewable energy targets, but it also raises critical questions about the industry's long-term sustainability. A Race for Power The sheer scale of innovation is astounding. Companies like Mingyang Smart Energy are pushing the boundaries of what's possible, with their unveiling of the MySE 22 MW turbine. This giant, boasting a 22-MW rated capacity and a rotor diameter exceeding 310 meters, represents a significant leap forward in wind energy generation. Simultaneously, established players like Siemens Gamesa are actively testing their own high-capacity prototypes, such as the 21.5-MW turbine being trialed in Denmark. This intense competition is driving rapid technological evolution, with each new turbine promising greater efficiency and energy output. The Economic Drivers The appeal of these colossal turbines is undeniable. Their potential to significantly reduce costs is a major catalyst. By requiring fewer installations to achieve the same energy output, developers can save on foundation, cable, and installation expenses. Furthermore, reduced maintenance needs contribute to lower operational costs. This can potentially help developers win bids for their electricity as they are able to produce it at a lower cost. Mingyang has claimed that compared to using 13-MW turbines, its new 22-MW model would reduce the number of turbines needed for a 1-GW offshore wind farm by 18 units, significantly reducing capital expenditure. Figure from “Scaling the Offshore Wind Industry and Optimizing Turbine Size” by NREL The Overall Benefits to Upscaling Increased Energy Output: -Larger turbines can capture more wind energy due to their larger rotor swept areas. -Taller turbines access stronger and more consistent wind speeds, leading to higher capacity factors. Reduced Costs: -Fewer turbines are required to achieve the same energy output, reducing the number of foundations, cables, and other infrastructure components. -This leads to lower installation, maintenance, and operational costs. -Economies of scale in manufacturing can further drive down the cost of energy. Improved Efficiency : -Larger turbines can optimize energy capture and conversion, leading to higher overall efficiency. -Fewer turbines in a wind farm can reduce wake effects, allowing for more efficient use of the available wind resource. Optimized Resource Utilization: -Larger turbines allow for more energy to be generated from a set lease area. -Wider turbine spacing can reduce navigational concerns, and reduce the sea bed foot print. Driving Innovation : -The push for larger turbines stimulates innovation in materials, manufacturing, and design, leading to potential advancements in other industries. Navigating the Challenges This rapid pursuit of larger turbines presents a complex set of challenges. Concerns are growing about the technological maturity of these massive structures. The risk of premature deployment and potential future failures cannot be ignored. Moreover, the increased size of these turbines necessitates significant infrastructure upgrades, including larger ports and specialized vessels, potentially rendering existing facilities obsolete. Supply chain constraints are another critical consideration. The surge in demand for larger components could lead to delays and cost increases. Furthermore, the structural integrity of these increasingly massive turbines is a paramount concern, requiring robust designs and advanced materials. A significant point of discussion is the impact that this rapid technological advancement is having on the industrialization and optimization of the offshore wind industry. There are concerns that the speed of the turbine upscaling, is outpacing the ability for the industry to optimize installation, and maintenance procedures. In addition, the EU is now voicing concern over the competitive nature of the Chinese turbine production, and the effect that it could have on the European market. The Main Arguments Against Further Upscaling Technical & Engineering Challenges : -Structural Integrity: Ensuring the stability and durability of these massive structures in harsh offshore environments is a significant engineering hurdle. As turbines grow in size, they experience increased loads, potentially leading to structural fatigue and failures. -Floating Platform Design: Developing stable and efficient floating platforms for these larger turbines, especially in deeper waters, presents complex hydrodynamic challenges. -Technological Maturity: The rapid pace of development may outstrip the industry's ability to thoroughly test and validate these new technologies, increasing the risk of premature failures. Logistical & Supply Chain Concerns: -Infrastructure Demands: Larger turbines require significant port upgrades and specialized vessels for transportation and installation, potentially straining existing infrastructure. -Supply Chain Constraints: The increased demand for massive components like blades and towers can lead to supply chain bottlenecks, delays, and rising costs. -Transportation Challenges: Moving very large components from manufacturing sites to ports, and then out to sea, presents very large logistical problems. Economic & Industry Impact: -Increased Costs: While upscaling aims to reduce costs in the long term, the initial investment in research, development, and infrastructure upgrades can be substantial. -Obsolete technology: Previous generations of wind turbines, and the infrastructure that supports them, can become obsolete very quickly, creating large amounts of stranded assets. Social Considerations: -Visual Impact: Larger turbines can have a greater visual impact on coastal landscapes, potentially leading to public opposition. A Call for Balance The offshore wind industry finds itself at a crucial juncture. While the potential benefits of upscaling are undeniable, a balanced approach is essential. The industry must prioritize technological reliability, supply chain resilience, and infrastructure development. Careful consideration of the long-term implications of these advancements is vital to ensure the sustainable growth of offshore wind energy. While some countries like China have the infrastructure capabilities to develop exceedingly larger turbines, other regions like the U.S. are limited by a variety of factors such as port availability and government policy. For example, the Jones Act requires the use of domestic vessels for offshore projects, necessitating billions of dollars in investment in port and vessel upgrades to accommodate larger turbines. A variety of turbine scales will likely be needed to supply the global market with options that are most suitable for their infrastructure and supply chain. The current drive towards larger offshore wind turbines underscores the industry's commitment to maximizing renewable energy generation and reducing costs. The economic incentives for upscaling, particularly the potential for lower levelized cost of energy and more efficient utilization of offshore resources, are significant drivers. However, this rapid technological progression necessitates careful consideration of associated challenges, including ensuring the robustness and reliability of these advanced machines, adapting existing infrastructure and supply chains, and managing potential market disruptions. Recognizing that different regions possess varying infrastructure capabilities and policy frameworks, a diversified approach that strategically deploys a range of turbine scales may prove to be the most pragmatic and effective pathway to realizing the full global potential of offshore wind power. For a more in-depth conversation, check out this webinar about offshore wind turbine scaling by NYSERDA with Walt Musial from National Renewable Energy Laboratory Previous Next

< Back AOWA Announces Partnership with Alpine 2/03/24 The American Offshore Wind Academy has formed a strategic partnership with the leading Geotechnical and Geotechnical Survey company Alpine Ocean Seismic Survey, Inc. This collaboration aims to elevate the offshore wind industry through cutting-edge training, innovation, and collaborative initiatives. Alpine's wealth of experience will undoubtedly enrich our programs and empower professionals in the renewable energy sector. Previous Next

Mastering Wave and Wind Dynamics Workshop Offshore wind energy, wind turbines, wave dynamics, wind-wave interaction, ocean waves, surface waves, gravity waves, capillary waves, wave height, wave length, wave period, wave frequency, significant wave height, peak wave period, wave spectrum, wave energy, wave power, wave forces, wave loads, hydrodynamic forces, aerodynamic forces, wind loads, turbulence, wind shear, atmospheric boundary layer, marine environment, coastal engineering, offshore structures, floating offshore wind turbines, fixed offshore wind turbines, monopile foundations, jacket foundations, gravity foundations, floating platforms, spar buoys, semi-submersibles, tension leg platforms, mooring systems, dynamic cable systems, scour protection, seabed stability, metocean data, wave measurement, wave modeling, numerical modeling, computational fluid dynamics (CFD), Reynolds-Averaged Navier-Stokes (RANS), Large Eddy Simulation (LES), Smoothed Particle Hydrodynamics (SPH), finite element analysis (FEA), structural analysis, fatigue analysis, extreme loads, operational loads, survivability, design criteria, safety factors, risk assessment, environmental impact, marine ecosystems, marine mammals, seabirds, fish, benthic communities, underwater noise, electromagnetic fields, habitat disruption, climate change, sea level rise, storm surge, extreme weather events, tropical cyclones, hurricanes, typhoons, wind gusts, turbulence intensity, wave breaking, whitecaps, spray, icing, marine growth, biofouling, corrosion, maintenance, inspection, repair, offshore operations, logistics, vessel traffic, port facilities, supply chain, cost of energy, levelized cost of energy (LCOE), grid integration, power transmission, offshore substations, cable landing, onshore grid, energy storage, battery storage, pumped hydro, hydrogen production, power-to-gas, smart grid, demand response, energy efficiency, renewable energy, sustainable energy, clean energy, carbon emissions, greenhouse gas emissions, climate mitigation, energy transition, blue economy, marine spatial planning, stakeholder engagement, public acceptance, social impact, economic development, job creation, local communities, coastal regions, research and development, innovation, technology advancement, offshore wind farms, wind power plants, renewable energy sources, oceanography, meteorology, fluid mechanics, structural engineering, geotechnical engineering, electrical engineering, mechanical engineering, control systems, sensors, data acquisition, data analysis, machine learning, artificial intelligence, digital twins, remote sensing, satellite data, radar data, lidar data, acoustic data, environmental monitoring, weather forecasting, wave prediction, wind resource assessment, site selection, feasibility studies, environmental impact assessment (EIA), permitting, licensing, regulations, standards, certification, offshore wind industry, offshore wind market, global offshore wind capacity, offshore wind development, offshore wind projects, offshore wind innovation, wave-current interaction, wave diffraction, wave reflection, wave refraction, long waves, short waves, infragravity waves, swell waves, sea waves, wind-generated waves, wave transformation, wave dissipation, shallow water effects, deep water waves, wave shoaling, wave refraction, wave diffraction, wave breaking, whitecapping, energy dissipation, momentum transfer, air-sea interaction, wind stress, drag coefficient, roughness length, boundary layer development, turbulent flow, coherent structures, wave-turbulence interaction, vortex shedding, wake effects, blade aerodynamics, rotor dynamics, structural dynamics, aeroelasticity, coupled dynamics, wind turbine control, pitch control, yaw control, blade loads, tower loads, foundation loads, cable loads, mooring loads, extreme events, fatigue damage, structural integrity, reliability, availability, maintainability, life cycle assessment, decommissioning, repowering, circular economy, sustainable development goals (SDGs), Paris Agreement, climate action, energy security, energy access, economic growth, social equity, environmental protection. Mastering Wave and Wind Dynamics Workshop Price $1,150 (Early Bird: $920 until 1 June) Duration 1-Day Dates TBA - enroll to stay updated Format In-Person ASCC, ME Course Status Open Enroll Mastering Wave and Wind Dynamics Workshop A one-day workshop focuses on wave and wind dynamics at UMaine’s state-of-the-art offshore model testing facilities. Participants will gain insights into the latest advancements in MetOcean technics and engineering and explore real-world examples of Wind and Wave testing technologies. Advanced Structures & Composites Center at UMaine Flagstaff Rd, Orono, ME 04469 This workshop will be held in person at the Advanced Structures & Composites Center of UMaine in Maine and following the Afloat Summit. Registration costs do not cover travel or accommodation expenses. Who Should Attend: - Researchers and scientists in offshore wind technology - Industry professionals in renewable energy and coastal engineering including wind energy technicians, engineers, environmental specialists, and safety experts - Government and regulatory representatives - Graduate students and postdoctoral researchers in related fields What Attendees Think: “This course was an invaluable learning experience for me, especially as someone new to the industry. From finite element analysis to advanced simulation tools for wave and wind interaction, I had the opportunity to explore the cutting-edge technologies shaping the future of offshore wind. I now feel more confident much in navigating the technical aspects of offshore wind design and analysis and I’m excited to apply this knowledge as I continue to build my career in the field!” - Catherine Q. Intern, National Renewable Energy Laboratory Workshop Agenda - Introduction to Advanced Structures & Composites Center Capabilities - Wind/Wave Basin Testing and Offshore Wind Design - Overview of wind/wave basin testing capabilities and recent projects. - Finite Element Analysis and Numerical Modeling - Numerical modeling, simulation techniques, and their applications in offshore engineering. - Hands-on Session: Wind/Wave Basin Demonstration - Live demonstration of the wave basin's capabilities, including the multi-directional wave generator, towing system, and wind generator. - Coastal Engineering and Resiliency - Coastal engineering challenges and solutions, including coastal resiliency projects. - Model Design and Fabrication Capabilities - Tour and demonstration of in-house model design and fabrication facilities, including the CNC machine, 3D printer, and other equipment. - Interactive Session: Real-World Applications - Group discussion on real-world applications and challenges faced in offshore engineering projects. Participants will share experiences and brainstorm solutions. Course Instructors: Your instructors are seasoned professionals with extensive experience in the offshore wind industry, specifically in the design, operation, and maintenance of offshore wind turbine generators. Instructors' names will be announced soon. The course outline is subject to change and a detailed agenda will be shared after enrollment.

< Back AOWA Announces 2024 Awards at the Floating Wind Solutions (FWS) Conference 1/17/25 In 2024 at American Offshore Wind Academy, we trained over 400 people from over 160 companies. There were a few 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! Out of the 400+ attendees from all over the world, there were a few 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 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 Previous Next