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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.

Explore AOWA’s comprehensive offshore wind training programs. Find courses designed for professionals at every stage of their careers Upcoming Sessions Offshore Wind Operation and Maintenance Operation September 22-23, 2025 View Course Offshore Wind Transmission Course Technology October 14-16, 2025 View Course Floating Offshore Wind Masterclass Development October 23, 2025 View Course Auctions and Bid Strategies for Offshore Wind Development November 18, 2025 View Course Financing Offshore Wind From Auction To FID Financing Fall 2025 edition TBA - Enroll to stay updated View Course Offshore Wind Blade Testing and Inspection Workshop Safety Fall 2025 edition TBA - Enroll to stay updated View Course Offshore Wind Upskilling Course Development Coming Fall 2025 - Enroll to stay updated View Course Offshore Wind MetOcean Training Course Development Spring Session: May 12, 2025 Fall Session: On demand - Enroll now View Course OSW Risk Management, Insurance & Marine Warranty Surveying Development Spring Session: May 15, 2025 Fall Session: On demand - Enroll now View Course Performance Based Safety Management Systems in OSW Safety On demand - Enroll now View Course Offshore Wind Ports and Vessels Course Construction On demand - Enroll now View Course Offshore Wind Geophysical and Geotechnical Training Development On demand - Enroll now View Course Load more

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Deep Dive Into Offshore Wind Foundations Offshore wind foundations are critical for the stability and longevity of offshore wind farms. Key terms related to this vital component include: monopile, jacket, tripod, suction caisson, gravity base, floating foundation, spar, semi-submersible, tension leg platform (TLP), concrete, steel, precast, cast-in-situ, scour protection, seabed, geotechnical, soil investigation, bathymetry, metocean data, wave loading, current loading, wind loading, ice loading, seismic loading, fatigue analysis, dynamic analysis, structural integrity, corrosion protection, cathodic protection, coating, painting, maintenance, repair, inspection, decommissioning, installation, transportation, lifting, piling, drilling, anchoring, mooring, ballasting, stability, buoyancy, settlement, bearing capacity, lateral resistance, axial resistance, stiffness, damping, natural frequency, resonance, design criteria, code compliance, DNV, GL, API, AWS, Eurocodes, cost optimization, lifecycle assessment, environmental impact, marine environment, benthic habitat, noise pollution, marine mammals, birds, fish, water quality, sediment transport, erosion, accretion, climate change, sea level rise, extreme weather, hurricane, typhoon, storm surge, met mast, LiDAR, sonar, ROV, AUV, underwater inspection, geotechnical survey, seismic survey, geophysical survey, bathymetric survey, environmental impact assessment (EIA), consenting, permitting, stakeholder engagement, community benefits, local content, supply chain, manufacturing, fabrication, welding, bolting, grouting, concrete pouring, steel cutting, crane, barge, tug, heavy lift vessel, installation vessel, cable laying vessel, offshore construction, marine operations, health and safety, risk management, emergency response, offshore wind farm, renewable energy, clean energy, sustainable energy, wind power, offshore technology, marine engineering, civil engineering, structural engineering, geotechnical engineering, oceanography, meteorology, hydrodynamics, numerical modeling, finite element analysis, computational fluid dynamics, optimization algorithms, machine learning, artificial intelligence, digital twin, data analytics, predictive maintenance, remote sensing, monitoring, control systems, SCADA, automation, offshore operations and maintenance (O&M), life extension, repowering, wind turbine, nacelle, rotor, blade, tower, foundation design, foundation construction, foundation installation, foundation maintenance, foundation repair, foundation decommissioning, offshore wind industry, renewable energy industry, climate action, energy transition, green economy, blue economy, marine spatial planning, coastal zone management, environmental sustainability, social sustainability, economic sustainability, circular economy, innovation, research and development, technology advancement, best practices, lessons learned, knowledge sharing, collaboration, partnership, investment, financing, project development, project management, risk assessment, due diligence, feasibility study, site selection, offshore wind farm development, offshore wind farm operation, offshore wind farm ownership, offshore wind farm financing, power purchase agreement (PPA), grid connection, transmission cable, substation, onshore infrastructure, offshore infrastructure, port infrastructure, logistics, supply chain management, workforce development, skills training, education, research institutions, universities, government agencies, regulatory bodies, industry associations, non-governmental organizations (NGOs), public awareness, community engagement, social acceptance, environmental stewardship, climate resilience, sustainable development goals (SDGs), Paris Agreement, carbon neutrality, energy security, energy access, just transition, global energy market, offshore wind market, offshore wind cost, levelized cost of energy (LCOE), competitiveness, innovation ecosystem, technology roadmap, industry standards, certification, accreditation, quality assurance, health and safety regulations, environmental regulations, maritime regulations, construction regulations, planning regulations, permitting process, stakeholder consultation, community consultation, indigenous rights, cultural heritage, marine archaeology, underwater cultural heritage, visual impact, noise impact, shadow flicker, electromagnetic interference, radar interference, aviation safety, navigation safety, maritime safety, search and rescue, emergency preparedness, oil spill contingency plan, marine pollution, waste management, environmental monitoring, biodiversity conservation, ecosystem services, climate change adaptation, climate change mitigation, sustainable development, corporate social responsibility (CSR), environmental, social, and governance (ESG), impact investing, green finance, sustainable finance, blue bonds, project finance, risk management framework, insurance, warranty, contract negotiation, dispute resolution, project lifecycle, project phases, feasibility phase, development phase, construction phase, operation phase, decommissioning phase, project closeout, knowledge management, lessons learned database, best practice guidelines, industry standards development, research collaboration, technology transfer, innovation diffusion, capacity building, workforce development programs, education and training programs, skills gap analysis, talent acquisition, talent retention, diversity and inclusion, gender equality, social equity, community development, local economic development, supply chain localization, local content requirements, economic impact assessment, social impact assessment, environmental impact assessment, cumulative impact assessment, stakeholder engagement plan, communication plan, public relations, media relations, community relations, government relations, regulatory affairs, policy advocacy, industry lobbying, trade associations, industry events, conferences, workshops, webinars, publications, research reports, market analysis, industry trends, technology forecasts, competitive landscape, business strategy, market entry strategy, growth strategy, investment strategy, financial modeling, due diligence process, risk assessment framework, legal framework, regulatory framework, contractual framework, intellectual property, patents, trademarks, copyrights, trade secrets, data privacy, cybersecurity, information security, project management methodologies, agile project management, waterfall project management, lean project management, six sigma, quality management systems, health and safety management systems, environmental management systems, social management systems, sustainability management systems, corporate governance, ethical conduct, business ethics, anti-corruption, transparency, accountability, stakeholder engagement, community engagement, social responsibility, environmental stewardship, climate action, sustainable development. Deep Dive Into Offshore Wind Foundations Price $1,750 (Early Bird: $1,400 until August 1) Duration 2-Day Dates On demand - Enroll now Format Virtual (Live) Course Status Open Enroll Deep Dive Into Offshore Wind Foundations 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. This comprehensive course delves into the intricacies of offshore wind foundations, providing a deep dive into various foundation types, their design, installation, and maintenance. As offshore wind energy continues to grow, a solid understanding of the foundation systems is essential for industry professionals. This course equips participants with the knowledge and skills needed to navigate the complex world of offshore wind foundations effectively. Who Should Attend: This course is ideal for professionals working in the offshore wind industry, including wind energy technicians, engineers, project managers, environmental specialists, and safety experts. Researchers, academics, and industry analysts seeking to deepen their understanding of offshore wind foundations will also benefit. Participants in this deep-dive course will gain the expertise required to assess, design, and manage offshore wind foundations effectively, ensuring the structural integrity and reliability of wind turbines in challenging offshore environments. What Attendees Think: “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 Course Learning Objectives: Understand the different offshore wind foundation types and their unique challenges offshore Learn how different offshore wind structures are manufactured and constructed Apply principles of soil, rock, and structural mechanics to offshore wind foundations Learn how to utilize structural and loads & controls design techniques for offshore wind foundations Understand how offshore wind foundations are installed (methods, pre-assessments, vessels) and maintained Course Overview: Module 1: Introduction to Offshore Wind - Offshore wind worldwide - Project Cycle: Concept selection, FEED, Detailed design, Installation assessment, lifecycle management - Overview of offshore wind components: cables, foundations, structure, connections, wind turbine generator Module 2: The offshore Wind Engineering Challenges. Why we need robust foundations? The offshore Wind Engineering Challenges. Why we need robust foundations? - Offshore wind engineering challenges - Design philosophies –what makes offshore wind a unique & challenging environment? E.g. high cyclic loads, mobile seabed, natural frequency, corrosion etc. - Offshore hazards & geo hazards - Location specific soil challenges Module 3: Introduction to Offshore Wind Foundations and How They work. - Introduction foundation types: gravity, suction bucket, MP, jacket, pin pile, drilled and grouted. Pros/ cons of each type - How the foundations work e.g. resistance from push & pull, sliding, rotation, and bearing - Potential failure modes of foundations (fracture, fatigue, creep and corrosion, bearing failure, sliding, rotation, uplift Module 4: Introduction to Mechanics of Steel. - Introduction steel mechanical properties, strength, stiffness and how failure modes (fracture, fatigue, creep and corrosion) develop in steel. - Manufacturing methods, deformation and materials forming, standards and industrial applications. Joining and welding in metals and composites - Fatigue life analysis, stress-life and how to develop and use S-N curves and SCFs, fatigue crack initiation. Fracture mechanics: stress analysis of cracks, fracture toughness - Corrosion: corrosion prevention and mitigation, embrittlement mechanisms, environmentally assisted crack growth Module 5: Introduction to Soil & Rock Mechanics - Introduction to coarse grained and fine-grained soils, their characteristics and behaviour - Soil and rock strength and stiffness characteristics for offshore wind foundations - Soil and rock tests site investigation for offshore design. Module 6: Introduction to Structure Design e.g. jacket design, monopile design, flange design - Foundation structure types, their characteristics, and relevance to specific project requirements - Structural design check examples including strength, fatigue, and modal response (1P, 3P) - Structural ancillaries: flange design, cable departure design Module 7: Introduction to Geotechnical Design - Introduction to soil and rock lateral, axial and bearing resistance for both shallow and deep foundations - Introduction to design guidance and codes e.g. DNVGL-ST-0126. Module 8: Offshore Wind Foundation Installation - Foundation installation methods: drive (hammer), drilled and grouted, suction - Installation risks and challenges - Driveability, drillability assessments - Noise assessments Module 9: Future Trends and Innovations - What are the future challenges for offshore wind (size, noise, installation...) - Trends and innovative concepts Module 10: Foundation Maintenance and Monitoring - Strategies for the ongoing maintenance and structural health of offshore wind foundations - Advanced monitoring systems and data analysis for foundation performance - Troubleshooting common issues and preventive maintenance measures - Digital Twin - Decommissioning Course Completion Certificate: Upon completing at least 50% of the course and achieving a minimum 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 Instructors: Ben Andrew Director, 2H Offshore Ben has over 17 years of specialist engineering experience in the design and analysis of offshore platforms, foundations, cables, and riser systems. He has held numerous project management and technical leadership roles on a variety of projects from concept through to detailed design based out of our London, Kuala Lumpur and Houston offices. As one of the UK directors, Ben’s current focus is on the development of our minimum facilities platforms and fixed offshore wind offerings for the European, Middle East and Africa markets. Ben is a graduate of Oxford and Imperial Universities with a Bachelor’s degree in Mathematics, and a Master’s in Quantum Physics. Yusuf Arikan Senior Project Manager, 2H Offshore Yusuf Arikan is a Senior Project Manager at 2H Offshore. He has over 15 years of structural engineering and project management experience in the design and analysis of various offshore structures including hydrodynamics of various floating offshore wind foundations. In recent years, he has been extensively involved in floating offshore wind projects, specifically the coupled assessment of the floater & turbine, and the design and analysis of mooring systems and power cables. Yusuf holds a Bachelor’s degree from Bogazici University, Turkey and a Master’s degree from the University of Houston. He is a registered Professional Engineer (PE) in Texas and Project Management Professional (PMP). Michael Shaw Senior Structural Engineer, 2H Offshore Michael is a Senior Structural Engineer with 2H Offshore working on fixed and floating wind foundation structures. He has worked on the design of monopile and jacket foundations for fixed wind and all primary anchoring types for floating wind. Key areas of technical expertise include global coupled and local structural analysis of both primary and secondary steel structures. Michael holds a Master’s degree in Mechanical and Offshore Engineering, Robert Gordon University, he is also a chartered engineer with IMechE. David Knights Senior Project Manager, 2H Offshore David has over 19 years of industry experience covering a wide range of marine construction projects, both on and offshore. An experienced team leader, he has successfully delivered many projects across the offshore renewables, civil engineering and oil & gas sectors. He has extensive experience throughout project lifecycles and has been responsible for the delivery of various pioneering solutions within the offshore foundations industry. Previous experience includes management of the design and delivery of numerous pre-piling template systems, resulting in the successful installation of nearly 1000 piles for multiple offshore renewable projects. David has a First Class Masters Degree in Civil Engineering and is a Chartered Engineer. John Morton Principal Offshore Geotechnical Engineer, 2H Offshore John is a Principal Offshore Geotechnical Engineer with 2H offshore working on fixed and floating wind installation. He is well-published in soil mechanics journals and has produced several novel testing methods and theoretical frameworks to improve the assessment of geotechnical strength parameters of the seabed. John holds a PhD degree in Offshore Geotechnics, University of Western Australia and BA BAi (Hons) Civil and Environmental Engineering, Trinity College Dublin. He is also Chartered Engineer, CEng Owen Pocock Principal Engineer, 2H Offshore Owen is a Principal (chartered) Engineer with over ten years’ specialist experience in advanced numerical analysis and structural engineering of offshore wind farms, drilling and production riser systems. Owen’s oil and gas project portfolio covers a range of riser types and systems (rigid and flexible) in deep and shallow water around the globe. He has also performed numerous engineering assessments and package management roles for both fixed-bottom and floating wind farm developments. Owen is experienced in concept, pre-FEED, FEED and Detailed Design for EPCI projects Dharmik Vadel Vice President of Clarus Subsea Integrity Inc, a division of 2H Offshore Dharmik Vadel is the Vice President of Clarus Subsea Integrity Inc, a division of 2H Offshore within the Acteon Group. He is responsible for Operations and strategic growth initiatives including Digital Innovations for Integrity Management within the Energy Industry. With over 18 years of experience, Dharmik has managed multi-asset Integrity Management projects covering SURF, pipelines, and moorings systems with specific experience in risk-based IM program development, life extension solutions, and delivering digital data management solutions. Dharmik holds an M.S. in Environmental Engineering from Oklahoma State University, USA and a bachelor’s degree in Civil Engineering from National Institute of Technology, Calicut, India. Arran Armstrong Geoconsultancy Technical Manager, 2H Offshore Arran is 2H’s Geoconsultancy Technical Manager with an extensive career in offshore data acquisition, project management and geo-engineering consultancy. Arran joined the offshore industry as a graduate with RACAL in 2000, during this early time in Arran’s career he was primarily involved with geophysical and geotechnical offshore acquisition projects. After a period of time Arran specialised in geotechnics and geotechnical data acquisition, specifically with heave compensated geotechnical drilling vessels. In 2011 Arran moved onto Geo-engineering consultancy, applying his operational and technical experience gained as a site investigation contractor to provide clients with the knowledge they need to successfully meet their development design objectives. Now, as 2H’s Geonsultancy Technical Manager, Arran looks after our clients geo-engineering challenges whilst integrating with the other 2H engineering disciplines to provide our clients with holistic, turnkey engineering solutions. The course outline is subject to change and a detailed agenda will be shared after enrollment.

Offshore Wind Policy and Regulations Offshore wind energy, policy, regulations, permitting, leasing, federal, state, local, environmental impact, assessment, offshore wind farms, renewable energy, clean energy, wind turbines, seabed, marine environment, coastal zone, maritime law, navigation, fishing, wildlife, avian, marine mammals, benthic habitats, endangered species, migratory birds, noise pollution, visual impacts, radar interference, economic development, job creation, supply chain, port infrastructure, transmission, grid integration, power purchase agreements, offshore wind developers, stakeholders, public engagement, community benefits, environmental justice, energy policy, climate change, carbon emissions, renewable portfolio standards, RPS, tax incentives, subsidies, investment, financing, project development, construction, operation, maintenance, decommissioning, safety regulations, worker safety, vessel traffic, maritime safety, search and rescue, emergency response, cybersecurity, data privacy, intellectual property, contracts, liability, insurance, dispute resolution, international law, UNCLOS, maritime boundaries, exclusive economic zone, continental shelf, treaties, agreements, cooperation, best practices, standards, certification, technology, innovation, research, development, monitoring, data collection, analysis, modeling, forecasting, resource assessment, wind resource, metocean data, site selection, feasibility studies, due diligence, risk management, stakeholder engagement, public hearings, environmental review, NEPA, National Environmental Policy Act, Coastal Zone Management Act, CZMA, Endangered Species Act, ESA, Marine Mammal Protection Act, MMPA, Migratory Bird Treaty Act, MBTA, Clean Water Act, CWA, Clean Air Act, CAA, Outer Continental Shelf Lands Act, OCSLA, Bureau of Ocean Energy Management, BOEM, Department of the Interior, DOI, National Oceanic and Atmospheric Administration, NOAA, US Army Corps of Engineers, USACE, Federal Energy Regulatory Commission, FERC, Federal Aviation Administration, FAA, US Coast Guard, USCG, state agencies, local governments, tribal governments, indigenous communities, environmental organizations, industry associations, advocacy groups, research institutions, universities, public opinion, social acceptance, NIMBYism, visual amenity, property values, tourism, recreation, commercial fishing, recreational fishing, navigation safety, maritime traffic, shipping lanes, port access, coastal communities, economic benefits, job creation, manufacturing, supply chain development, local businesses, workforce development, education, training, STEM, science, technology, engineering, mathematics, community engagement, public awareness, education campaigns, environmental stewardship, sustainability, climate resilience, energy security, energy independence, energy transition, decarbonization, green economy, blue economy, ocean governance, marine spatial planning, integrated coastal management, adaptive management, cumulative impacts, mitigation measures, compensation, offsets, environmental monitoring, post-construction monitoring, long-term monitoring, adaptive management, best available technology, BAT, best management practices, BMPs, environmental protection, conservation, restoration, mitigation banking, habitat restoration, species protection, marine debris, plastic pollution, ocean acidification, climate change impacts, sea level rise, coastal erosion, storm surge, extreme weather events, climate adaptation, resilience planning, disaster preparedness, emergency response, recovery, climate finance, green bonds, sustainable investment, ESG, environmental, social, governance, corporate social responsibility, CSR, stakeholder capitalism, just transition, equitable development, community benefits agreements, CBAs, workforce diversity, inclusion, equity, environmental justice, public health, social impacts, cultural resources, historic preservation, archaeological sites, indigenous cultural sites, traditional ecological knowledge, TEK, consultation, collaboration, partnerships, co-management, ocean literacy, public education, outreach, communication, media relations, public relations, government affairs, lobbying, policy advocacy, regulatory reform, streamlining, permitting efficiency, cost reduction, project finance, risk assessment, due diligence, insurance, liability, contracts, legal framework, regulatory certainty, investor confidence, market development, industry growth, global offshore wind market, international competition, supply chain localization, domestic manufacturing, export opportunities, technology transfer, innovation, research and development, collaboration, partnerships, knowledge sharing, best practices, standards, certification, quality control, safety standards, operational efficiency, cost competitiveness, grid integration, transmission infrastructure, energy storage, smart grid, demand response, distributed generation, microgrids, energy efficiency, renewable energy integration, energy policy, climate policy, sustainable development goals, SDGs, Paris Agreement, international cooperation, climate diplomacy, technology cooperation, capacity building, knowledge transfer, finance mechanisms, climate finance, green finance, sustainable finance, blended finance, public-private partnerships, PPPs, investment promotion, risk mitigation, policy incentives, regulatory frameworks, enabling environment, market access, trade agreements, international standards, best practices, global best practices, knowledge exchange, technology transfer, capacity building, sustainable development, green growth, blue growth, ocean economy, marine resources, coastal management, integrated coastal management, marine spatial planning, ecosystem-based management, climate change adaptation, resilience building, disaster risk reduction, sustainable development goals, SDGs, Paris Agreement, international cooperation, climate diplomacy, technology cooperation, capacity building, knowledge transfer, finance mechanisms, climate finance, green finance, sustainable finance, blended finance, public-private partnerships, PPPs, investment promotion, risk mitigation, policy incentives, regulatory frameworks, enabling environment, market access, trade agreements, international standards, best practices, global best practices, knowledge exchange, technology transfer, capacity building. Offshore Wind Policy and Regulations Price Please inquire Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Open Enroll Offshore Wind Policy and Regulations The Offshore Wind Policy and Regulations Course is a one day crash course providing a detailed exploration of offshore wind energy history, policy and regulatory frameworks. Looking primarily at leading offshore wind markets in the USA, this course is designed to offer a thorough understanding of the intricacies within the rapidly evolving offshore wind industry. Comparative analysis and insights from global market designs and policy approaches will be leveraged to identify and understand the wide array of tools available for policy makers and to discuss opportunities and challenges of domestic market evolution. The course is instructed by a team of esteemed experts with extensive experience in various aspects of offshore wind and clean energy policy. It is tailored to equip participants with the knowledge necessary to navigate the challenges and opportunities within this industry. By enrolling in this course, individuals can gain valuable insights and enhance their expertise in offshore wind, which can significantly enhance their careers in this growing sector. Who Should Attend: - Government and Policy Professionals who are involved in shaping and enforcing offshore wind regulations. - Legal Experts: Attorneys specializing in offshore wind laws, contracts, and environmental matters. - Industry Practitioners: Professionals within offshore wind companies and associations dealing with regulatory aspects. - Academics and Consultants: Experts providing consulting services and researchers in renewable energy policies. - Financial Analysts and Investors: Individuals evaluating the financial aspects of offshore wind projects, including incentives, subsidies, and investment opportunities. - Environmental and Conservation Advocates: Organizations and individuals interested in offshore wind policy to address environmental concerns and conservation goals. Course Outline 1- Introduction to offshore wind energy through the lens of policy and regulatory frameworks: Delineation of generation, transmission, distribution, procurement, planning and permitting, etc. assets and activities. 2- Overview of renewable energy policy history and contours of leading state and federal clean energy frameworks: Topics will include the deregulation of utilities and prominence of competitive market regimes, legislation, regulatory roles and tariffs, Renewable Portfolio and Clean Energy Standards, targets, etc.. 3- Identification of key players and their respective roles informing policy design and priorities: Including Federal and state agencies, grid operators, developers (generation, transmission), supply chain and port actors (Marshaling and Assembly, Operations and Maintenance, OEMs, Tier 1/2/3 suppliers, raw materials), and roles of Tribes and stakeholders (labor, environmental justice, commercial and recreational fishing, eNGOs, coastal communities). 4- Federal, State, and local planning and regulatory regimes and their intersections: Overview of Bureau of Ocean Energy Management (BOEM) seabed leasing processes on the Outer Continental Shelf (OCS), transmission pathways and corridors (offshore and onshore), port infrastructure and supply chain investments, and community benefits planning. 5- Offshore wind and renewable energy offtake designs : Energy, capacity, renewable energy credits, corporate power purchase agreements (PPAs), market indices, etc.) and value stacking). Distinctions between levelized cost of electricity (LCOE), offtake price, and value of resource to markets (complementarity with demand profiles and demand growth forecasting in the clean energy transition (ELCC); fossil fuel volatility and hedging; importance of location including grid benefits, clean energy transition dynamics, and environmental justice). 6- Transmission deepdive: Policy updates and ongoing reform. Role of the Federal Energy Regulatory Committee (FERC), Department of Energy, RTOs and ISOs,and influence on project design, development risk, grid operation, project pricing and electricity consumer rate impacts. 7- Procurement modalities and solicitation processes: Radial and generation/transmission hybrid models; risk sharing and contractual overlaps; bidding, bid evaluation, and awards processes; ports and supply chain investments; cost-recovery mechanisms, etc.. 8- Technological and commercial evolutions: Trajectories in energy policy and offshore wind procurements and resource cost (fixed bottom, floating, supply chains, finance, tax-equity). Course Instructors: Adrienne Downey Principal Engineer and Country Manager, Hexicon Adrienne Downey is the Principal Engineer and Country Manager for Hexicon North America. Adrienne most recently was the Principal Engineer for offshore wind for the New York State Energy Research and Development Authority (NYSERDA). During her tenure, Adrienne led NYSERDA’s nation-leading offshore wind program with the goal of reaching 9 gigawatts by 2035, and successfully procured an excess of 4.1 GW and associated port infrastreucture: a total porfolio valued at over $22B USD. Adrienne holds a degree in Chemical Engineer from McGill University in Montreal, Canada, and a Masters in Sustainable Environmental Systems from the Pratt Institute in New York City. She holds numerous Board seats in support of the offshore wind industryincluding the National Offshore Wind R&D Consortium (NOWRDC), Offshore Wind California (OWC), Board Member of Marine Renewables Canada, and Advisory Board Member of the American Offshore Wind Academy. Theodore Paradise Energy Partner, K&L Gates Theodore Paradise is a Partner in the Energy, infrastructure, and Resources practice at the global law firm of K&L Gates in the Boston, New York City, and Washington, DC offices. He has over 23 years of experience in the energy industry both in private practice and as the Chief Legal and Policy Officer for a European floating offshore wind developer, and as the Executive Vice President and Chief Strategy Officer and Counsel for of a US-based developer of subsea transmission for offshore wind. Theodore was also in charge of transmission planning and system operations regulatory issues for a US grid operator. Theodore has a deep understanding of US regulatory law, and has represented clients before the Federal Energy Regulatory Commission, in state public utility commission proceedings, and before the federal Bureau of Ocean Energy Management and the Department of Energy. He has worked with clients on project RFP strategy and submissions on the east and west coasts of the US. Theodore has also been a leading policy voice on transmission for offshore wind and other renewables, educating law makers, legislators, and leading industry discussions on ways to address this industry challenge and steps that can help both scale and derisk project development, as well as participating in technical study groups. He holds his Juris Doctor degree from Georgetown University in Washington, DC. The course outline is subject to change and a detailed agenda will be shared after enrollment.

Offshore Wind Ports and Vessels Course Offshore wind ports and vessels are crucial for the development, construction, operation, and maintenance of offshore wind farms. Key elements include port infrastructure like heavy lift quays, deep-water berths, storage areas, and assembly yards for turbine components (blades, nacelles, towers). Vessel types are diverse, encompassing wind turbine installation vessels (WTIVs) or jack-up vessels, capable of lifting and installing turbines at sea; crew transfer vessels (CTVs) or fast crew boats for transporting personnel to and from the wind farms; service operation vessels (SOVs) acting as floating accommodation and maintenance platforms; cable laying vessels for subsea cable installation and repair; survey vessels for site assessment and seabed mapping; guard vessels for site security; and tugboats for maneuvering and assisting larger vessels. Port operations involve logistics, crane operations, heavy cargo handling, and supply chain management. Vessel operations require specialized navigation, dynamic positioning systems, offshore lifting expertise, and adherence to stringent safety regulations. Related terms include offshore wind farm development, renewable energy, marine engineering, port management, vessel chartering, metocean data (meteorological and oceanographic), wind resource assessment, environmental impact assessment, consenting process, project finance, supply chain, manufacturing, turbine components, gearbox, generator, rotor, blades, nacelle, tower, foundation, monopile, jacket, transition piece, scour protection, cable installation, subsea cable, export cable, inter-array cable, offshore substation, transformer, grid connection, operations and maintenance (O&M), repair, inspection, remote sensing, unmanned aerial vehicles (UAVs) or drones, autonomous underwater vehicles (AUVs), ROVs (remotely operated vehicles), diving operations, safety at sea, marine environment, marine mammals, seabirds, benthic habitats, noise mitigation, navigational safety, aids to navigation, port security, ISPS code, customs regulations, port fees, vessel traffic management, port expansion, dredging, land reclamation, coastal infrastructure, climate change, decarbonization, energy transition, green energy, sustainable development, maritime law, international regulations, classification societies, flag state, port state control, maritime safety, search and rescue, emergency response, offshore logistics, heavy lift cranes, mobile cranes, crawler cranes, gantry cranes, storage facilities, warehouses, laydown areas, fabrication yards, marshalling yards, project management, engineering design, procurement, construction, installation, commissioning, decommissioning, life cycle assessment, risk management, insurance, financing, investment, stakeholders, community engagement, local content, supply chain localization, workforce development, training, certification, apprenticeships, skilled labor, marine technicians, wind turbine technicians, electrical engineers, mechanical engineers, naval architects, marine surveyors, port operators, vessel owners, charterers, shipyards, dry docks, maintenance facilities, repair yards, spare parts, logistics providers, fuel supply, bunkering, port access, channel depth, turning basin, navigation channels, mooring systems, fenders, bollards, quayside equipment, container handling, breakbulk cargo, project cargo, heavy cargo, out-of-gauge cargo, hazardous cargo, cargo securing, lashing, securing arrangements, weather forecasting, sea state, wave height, wind speed, current speed, tidal currents, visibility, ice conditions, marine traffic, AIS (Automatic Identification System), radar, VHF radio, communication systems, emergency communication, distress signals, safety equipment, life rafts, lifeboats, fire fighting equipment, pollution control, oil spill response, ballast water management, anti-fouling systems, marine growth, biofouling, corrosion, cathodic protection, underwater inspection, repair techniques, diving equipment, ROV operations, underwater welding, cable repair, turbine maintenance, blade repair, gearbox maintenance, generator maintenance, hydraulic systems, lubrication, condition monitoring, predictive maintenance, remote diagnostics, data analytics, digital twins, artificial intelligence, machine learning, offshore safety, health and safety, risk assessment, hazard identification, safe work practices, personal protective equipment (PPE), emergency procedures, rescue operations, first aid, medical evacuation, offshore regulations, IMO (International Maritime Organization), SOLAS (Safety of Life at Sea), MARPOL (Marine Pollution), ILO (International Labour Organization), environmental regulations, EIA (Environmental Impact Assessment), habitat protection, species conservation, noise pollution, visual impact, landscape impact, cultural heritage, archaeological sites, marine archaeology, stakeholder engagement, public consultation, community benefits, economic development, job creation, local businesses, supply chain development, skills development, education, training programs, research and development, innovation, technology advancements, cost reduction, competitiveness, grid parity, energy security, climate change mitigation, renewable energy targets, sustainable energy, energy policy, offshore wind industry, global market, market trends, industry growth, investment opportunities, financing models, project finance, risk management, due diligence, legal framework, regulatory approvals, permitting process, consenting process, environmental permits, marine licenses, navigation permits, construction permits, operational permits, decommissioning plans, environmental monitoring, compliance, reporting, audits, inspections, enforcement, best practices, industry standards, certification schemes, quality management, health and safety management, environmental management system, social responsibility, corporate sustainability, sustainable development goals (SDGs), corporate governance, transparency, accountability, ethics, anti-corruption, human rights, labor rights, community relations, stakeholder engagement, public consultation, social impact assessment, environmental impact assessment, economic impact assessment, cultural impact assessment, cumulative impacts, mitigation measures, compensation measures, environmental monitoring, compliance monitoring, reporting requirements, data management, information sharing, knowledge transfer, capacity building, education and training, research and development, innovation, technology transfer, collaboration, partnerships, industry associations, government agencies, regulatory bodies, research institutions, academic institutions, non-governmental organizations (NGOs), community groups, local communities, indigenous communities, stakeholders, public, media, communication, outreach, awareness raising, education campaigns, public engagement, consultation processes, feedback mechanisms, grievance mechanisms, dispute resolution, conflict resolution, mediation, arbitration, legal proceedings, environmental law, maritime law, contract law, commercial law, insurance law, liability, negligence, force majeure, dispute settlement, jurisdiction, applicable law, governing law, choice of law, arbitration clause, dispute resolution clause, legal costs, expert witnesses, legal representation, legal advice, legal opinions, due diligence, legal compliance, regulatory compliance, environmental compliance, health and safety compliance, contractual compliance, insurance coverage, risk transfer, indemnification, liability insurance, property insurance, marine insurance, cargo insurance, construction all risks insurance, operational all risks insurance, professional indemnity insurance, directors and officers liability insurance, cyber insurance, political risk insurance, war risk insurance, marine war risks insurance, terrorism insurance, environmental liability insurance, pollution liability insurance, consequential loss insurance, business interruption insurance, delay in start-up insurance, increased cost of working insurance, claims handling, loss adjustment, subrogation, recovery, reinsurance, insurance brokers, risk managers, loss adjusters, marine surveyors, insurance underwriters, insurance companies, reinsurance companies, insurance market, insurance premiums, insurance policies, insurance contracts, insurance claims, insurance disputes, insurance litigation, insurance arbitration, insurance mediation, insurance regulation, insurance supervision, financial regulation, prudential regulation, conduct of business regulation, market conduct regulation, consumer protection, financial ombudsman, dispute resolution mechanisms, alternative dispute resolution, mediation, arbitration, litigation, court proceedings, legal costs, expert witnesses, legal representation, legal advice, legal opinions, due diligence, legal compliance, regulatory compliance, environmental compliance, health and safety compliance, contractual compliance, insurance coverage, risk transfer, indemnification. Offshore Wind Ports and Vessels Course Price Please inquire Duration 2-Day Dates On demand - Enroll now Format Virtual (Live) Course Status Open Enroll Offshore Wind Ports and Vessels Course The Offshore Wind Port and Vessels Training Course provides a comprehensive understanding of the port and vessel operations within the offshore wind industry. This course covers the essential elements of supporting logistics and transportation requirements for offshore wind projects. Participants will explore the core functions, challenges, and best practices associated with port and vessel management in the offshore wind sector. This course will take place from 9am until 4pm EST each day. Course Objectives: Describe the role of ports and vessels in offshore wind logistics and project execution Differentiate between types of offshore wind ports and vessels and explain their functions and operational constraints Analyze key factors influencing port site selection, design, and construction for both fixed-bottom and floating offshore wind projects Identify regulatory, permitting, and safety requirements for port and vessel operations in the offshore wind industry Interpret case studies and best practices to evaluate successful offshore wind port and vessel strategies Apply project planning and management principles to schedule, budget, and coordinate port and vessel activities in offshore wind development Who Should Attend: - Professionals in offshore wind logistics and transportation. - Project managers, engineers, and developers in the offshore wind sector. - Port and vessel operators and managers. - Government officials, policymakers, and union affiliations in the renewable energy sector. - Skilled Trades and Technical Roles - Anyone interested in gaining expertise in offshore wind port and vessel management. Course Outline: Day One Module 1: Introduction to the course - Offshore Wind Ports - Contrast to Other Types of Ports Overview of the offshore wind industry. Factors influencing port location and selection. Module 2: Port Types and the Vessels that use them. Marshalling Ports Facility Storage Port Facility Manufacturing Port Facility Operation and Maintenance Facility Service Port Module 3: US vs EU Ports A comparative analysis of offshore wind ports in the United States and the European Union. Module 4: Ports Construction for Fixed Bottom Strategic Ports Evaluation Preliminary Assessment and Planning Environmental/ Geophysical Geotechnical & Intro to Load Bearing Capacity Permitting, Design and Procurement Construction/ Oversight Operation and Maintenance Module 5: Port Operations and Logistics Port layout and design considerations for offshore wind. Cargo handling and transportation within ports - Cranes and SPMTs. Supply chain and logistics management for offshore wind projects. Real-life examples of efficient port operations. Module 6: Ports Construction for Floating Wind Variations on the theme - what is different about floating wind Siting and Logistics for Floating Offshore Wind Ports Day Two Module 7: Offshore Wind Vessels Overall Strategy: Feeder Barge vs Direct Install with WTIV Vessel Operations and Technology Module 8: Types of Offshore Wind Vessels - Deeper Dive Construction and Installation Vessels Transportation Vessels and Barges Personnel and Equipment Transport - SOV/CTV Module 9: Floating Offshore Wind Vessels Safety and Regulatory Considerations for offshore wind vessels. Regulatory and Safety Considerations Maritime regulations related to offshore wind projects. Safety protocols and best practices for port and vessel operations. Environmental impact assessments and compliance. Risk management in offshore wind port and vessel operations. Module 10: The Special Case of Floating Offshore Wind and the Implications to Ports Types of Floating Wind Construction Considerations for Floating Wind Single Super-Port vs Distributed Cooperative Port Concepts Differences in Port Design and Function Costs and Timelines Module 11: Specifications: A deeper dive into the Construction of the Port Load Beaing Capacity Cranes SPMTs Other Transport Quayside and Bulkhead Design Bulkhead and Wall Types Berth Jack-up Pad Design Unpland Design Appurtenance Design Floating Wind Pot Design Special Case Module 12: Project Management and Planning Planning and scheduling port and vessel activities. Budgeting and cost control in port and vessel operations. Utilizing project management tools and software. Examples: Project management for offshore wind. Module 13: Case studies and Best Practice: Examining successful offshore wind port and vessel management through case studies. Learning from past projects. Identifying industry trends and future developments. Embracing best practices in the field. Course Instructors Jay Borkland Director of Ports and Supply Chain Development, Avangrid Mr. Borkland currently holds a Director position in Ports and Supply Chain Development at Avangrid Renewables in the U.S. He is a Visiting Scholar at Tufts University in Massachusetts, teaching and conducting research in Offshore Wind and Sustainability. Mr. Borkland is also currently acting as Chairman of the Board of Directors for the U.S. Offshore Wind trade organization: The Business Network for Offshore Wind; and is an active participant in the United Nations Global Compact (UNGC), where he is an editor and contributing author for UNGC document development for its Sustainability and Ocean Renewable Energy programs. Over the past 38 years, Mr. Borkland has been involved in large infrastructure and energy projects, with over two decades of that in the Offshore Wind sector of the Ocean Renewable Energy arena. He was the team lead for the development and construction of the first-in-the-nation Offshore Wind marshalling port facility in the U.S. in Massachusetts, and has acted as lead and/or contributing author for the Offshore Wind Infrastructure Master Plans for the states of MA, VA, NY, CT, NJ, NC and MD. Today he stays active assisting Avangrid Renewables develop multiple Wind Farms in the U.S. Richard Baldwin Senior Scientist, McAllister Marine Engineering Mr. Baldwin currently holds a position of Senior Scientist at McAllister Marine Engineering and his practice focusses primarily on supporting the offshore wind (OSW) industry currently developing off of the coasts of the U.S., as well as addressing coastal area impacts associated with global climate change. He is a licensed Professional Geologist in New York and in Pennsylvania, and an American Institute of Professional Geologists Certified Professional Geologist. He is an Adjunct Professor in the Earth Sciences Department at State University of New York at Stony Brook. Over the last 36 year, Mr. Baldwin has been providing subject matter expert (SME) expertise and consulting services associated with projects involving ports and harbors/waterway infrastructure studies, OSW development (including its local, national and international supply chains), OSW vessel logistics strategies, storm recovery and remedial actions, resiliency, flood-event evaluations, environmental investigations at industrial, private, federal and publicly-owned facilities. He has been involved in multiple state-led OSW ports studies and OSW strategic plans for a multitude of states including Connecticut, Massachusetts, New Jersey, New York, North Carolina and Virgina. He has designed and implemented environmental investigations, remediation work plans, evasive species identification and eradication programs, bathymetric surveys, geotechnical evaluations, regulatory permit evaluation/acquisition, contractor evaluation/oversight, and public awareness and education. In his volunteer life, Mr. Baldwin as a volunteer Emergency Medical Technician for the East Moriches Community Ambulance and is a Board Member of the Peconic Land Trust. 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 device with an internet connection and a valid email address. 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.

Offshore Wind Robotics and Autonomous Systems Offshore wind robotics and autonomous systems are revolutionizing the industry, driving efficiency, safety, and cost reductions. Key terms include autonomous underwater vehicles (AUVs), remotely operated vehicles (ROVs), unmanned aerial vehicles (UAVs or drones), autonomous surface vessels (ASVs), and unmanned surface vessels (USVs) for tasks like turbine inspection, blade repair, foundation maintenance, cable laying, and subsea surveys. Robotics encompasses robotic arms, manipulators, and automated systems for tasks such as bolt tightening, welding, painting, and component handling. Artificial intelligence (AI) and machine learning (ML) are crucial for data analysis, predictive maintenance, and autonomous decision-making. Computer vision, sensor fusion, and perception systems enable robots to understand their environment. Navigation, positioning, and control algorithms ensure precise and reliable operation. Communication technologies like satellite communication, acoustic modems, and wireless networks facilitate remote control and data transfer. Digital twins, simulation, and virtual reality (VR) are used for planning, training, and optimizing operations. Condition monitoring, predictive maintenance, and failure detection minimize downtime and maximize asset lifespan. Cybersecurity, data integrity, and safety are paramount concerns. Automation, remote control, and human-machine interfaces (HMIs) are essential for efficient operation. Offshore wind farms, wind turbines, substations, and export cables are the infrastructure requiring robotic and autonomous solutions. Met-ocean data, weather forecasting, and environmental monitoring inform decision-making. Regulations, standards, and certifications govern the deployment of these technologies. Research and development, innovation, and technology transfer are driving progress in the field. Cost-effectiveness, return on investment (ROI), and lifecycle cost analysis are key considerations. Supply chain, manufacturing, and logistics are impacted by the adoption of robotics and autonomous systems. Skills development, training, and workforce transition are necessary to support the growing industry. Collaboration, partnerships, and knowledge sharing are vital for accelerating innovation. Sustainability, environmental impact, and social responsibility are important factors. Offshore operations, marine environment, and subsea conditions present unique challenges. Inspection and repair, maintenance and operations (O&M), and decommissioning are key applications. Remote sensing, data acquisition, and processing are essential for generating insights. Digitalization, connectivity, and the Internet of Things (IoT) are transforming the industry. Big data, cloud computing, and data analytics are enabling new capabilities. Cyber-physical systems, mechatronics, and embedded systems are integral to robotic and autonomous solutions. Human-in-the-loop systems, supervised autonomy, and full autonomy represent different levels of automation. Motion planning, path following, and trajectory optimization are critical for robot navigation. Localization, mapping, and simultaneous localization and mapping (SLAM) are essential for robot awareness. Actuators, sensors, and control systems are fundamental components of robots. Power systems, energy efficiency, and battery technology are important considerations for autonomous platforms. Reliability, robustness, and fault tolerance are crucial for operating in harsh environments. Safety regulations, risk assessment, and hazard analysis are essential for ensuring safe operations. Environmental monitoring, marine life protection, and underwater acoustics are important environmental considerations. Stakeholder engagement, public acceptance, and social impact are key factors for project success. The future of offshore wind energy relies heavily on the continued development and deployment of robotics and autonomous systems. Offshore Wind Robotics and Autonomous Systems Price $1,150 (Early Bird: $920 until 1 July) Duration 1-Day Dates On demand - Enroll now Format Virtual (Live) Course Status Open Enroll Offshore Wind Robotics and Autonomous Systems 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 Robotics in Offshore Wind course is a comprehensive program that delves into the integration of robotics technologies in the offshore wind industry. Participants will gain an in-depth understanding of the applications, benefits, and challenges associated with the use of robots in offshore wind farms. This course is designed to equip professionals, engineers, project managers, and researchers with the knowledge and skills needed to excel in this rapidly evolving field. Who Should Attend: This course is suitable for a wide range of professionals, including: - Wind Energy Engineers and Technicians - Offshore Wind Project Managers - Renewable Energy Researchers - Environmental and Regulatory Specialists - Government Officials and Policymakers - Robotics and Automation Enthusiasts - Students and Educators in Renewable Energy and Robotics The Offshore Robotics in Offshore Wind course provides a comprehensive understanding of the role of offshore robots in the offshore wind industry, making it essential for those seeking to excel in this field. Course Outline: Section 1: Key Technical Challenges for Offshore and Underwater Robotics - Offshore positioning and underwater positioning - Communications from subsea to surface and offshore to onshore - Offshore and underwater sensors including vision, acoustics, and others - Power solutions for underwater and offshore robotics - Discussion of autonomy levels and state of the art for autonomous offshore robotics systems Section 2: Description of Offshore Robotics Systems - Exploration of surface robotics systems including USV/ASV, Aerial Drones, and Buoys - Exploration of underwater robotics systems including ROV, AUV, and ROV/AUV Hybrid Systems - Evaluation of underwater robotics selection including ROV Classification, Tethered vs. Untethered, and AUV form factors Section 3: Site Assessment - Site survey and assessment (USVs, AUVs, ROVs, and seabed sampling) - MetOcean and Marine Mammal Observation (buoys and remote monitoring) Section 4: Site Clearance - Work Class ROVs for site clearance and UXO - Specialty Underwater Robotics including boulder grabs and trenching Section 5: Installation and Field Commissioning - Foundation Installation support using ROV - Additional hardware installation and ROV tooling - Cable installation support including ROV and trenching Section 6: Operation and Maintenance of Offshore Windfarms - Inspection, repair, and maintenance of fixed windfarms using ROVs, AUVs, and USVs - Inspection, repair, and maintenance of windfarm cables using ROVs, AUVs, and USVs - Key challenges to underwater inspection including cleaning/marine growth removal and sensors - Inspection of topsides assets using Aerial Drones - The importance of data collection in offshore wind operations. - Analyzing and making decisions based on the data collected by offshore robotics. Section 7: Decommissioning of Offshore Windfarms - ROVs and tooling required for removal of offshore structures - Clear bottom inspections using ROV or AUV Section 8: Floating Offshore Windfarms - Robotics challenges specific to installation of floating wind farms (hull and mooring, dynamic cables) - Robotics challenges for operational of floating wind farms (UWILD inspection, dynamic cable inspection and repair) Course Instructors: Nick Rouge Subsea Robotics Product Manager, Oceaneering In his role as Subsea Robotics Product Manager for Oceaneering, Nick is responsible for managing the work class ROV products for Oceaneering with a focus on the next generation of work class ROV service. Nick’s prior experience includes design engineering, installation engineering, systems engineering, project management, and customer service for multiple projects and customers in the Gulf of Mexico and in West Africa. Before joining Oceaneering, Nick previously served as a project engineer, an installation engineer and later a customer service manager at TechnipFMC. Nick earned his Bachelor of Science in mechanical engineering from Texas A&M University. The course outline is subject to change and a detailed agenda will be shared after enrollment.

Applications of AI in Offshore Wind Offshore wind energy, artificial intelligence, machine learning, deep learning, neural networks, predictive maintenance, condition monitoring, wind turbine, SCADA, sensor data, data analytics, big data, cloud computing, IoT, internet of things, digital twin, simulation, optimization, energy forecasting, wind resource assessment, metocean data, weather forecasting, LiDAR, remote sensing, satellite imagery, drone inspection, autonomous vessels, robotics, subsea operations, cable installation, foundation installation, turbine installation, O&M, operation and maintenance, downtime reduction, cost reduction, efficiency improvement, grid integration, energy storage, smart grid, renewable energy, sustainable energy, clean energy, green energy, climate change, decarbonization, offshore wind farm, wind power, marine environment, environmental impact, wildlife monitoring, noise reduction, blade inspection, gearbox monitoring, generator monitoring, yaw system, pitch system, hydraulic system, electrical system, control systems, fault detection, anomaly detection, predictive modeling, regression analysis, classification algorithms, clustering algorithms, time series analysis, computer vision, image recognition, object detection, semantic segmentation, natural language processing, text mining, sentiment analysis, risk assessment, safety management, cybersecurity, data security, privacy, ethics, AI ethics, responsible AI, explainable AI, human-in-the-loop, automation, autonomous systems, digital transformation, industry 4.0, smart infrastructure, energy transition, energy policy, government regulation, investment, financing, supply chain, manufacturing, logistics, workforce development, skills gap, education, training, research and development, innovation, technology, future of energy, sustainable development goals, circular economy, life cycle assessment, environmental sustainability, social sustainability, economic sustainability, stakeholder engagement, community benefits, offshore development, marine spatial planning, oceanography, meteorology, acoustics, vibration, oil and gas, maritime industry, shipping, ports, logistics, supply chain management, data-driven decision making, real-time monitoring, remote operations, unmanned aerial vehicles, underwater vehicles, autonomous underwater vehicles, ROVs, remotely operated vehicles, subsea cable repair, offshore platform maintenance, wind turbine technician, marine engineer, data scientist, AI engineer, software developer, machine learning engineer, cybersecurity expert, project management, risk management, cost control, quality control, health and safety, environmental protection, regulatory compliance, permitting, stakeholder communication, public awareness, social acceptance, community engagement, economic development, job creation, local content, supply chain localization, knowledge transfer, technology transfer, international collaboration, global energy market, energy security, climate resilience, adaptation, mitigation, low-carbon economy, net-zero emissions, Paris Agreement, COP26, energy future, smart cities, sustainable communities, green jobs, blue economy, marine conservation, ocean health, biodiversity, ecosystem services, environmental monitoring, pollution control, marine debris, plastic pollution, noise pollution, visual impact, landscape impact, cultural heritage, archaeological sites, marine archaeology, underwater cultural heritage, indigenous communities, traditional knowledge, social impact assessment, environmental impact assessment, cumulative impact assessment, stakeholder consultation, public participation, transparency, accountability, governance, corporate social responsibility, ESG, environmental, social, and governance, sustainability reporting, sustainable finance, impact investing, green bonds, renewable energy certificates, carbon offsetting, carbon capture, utilization, and storage, CCUS, hydrogen, green hydrogen, ammonia, energy storage solutions, battery storage, pumped hydro, compressed air energy storage, thermal energy storage, smart energy management, demand response, energy efficiency, energy conservation, renewable energy integration, grid stability, grid flexibility, power system optimization, microgrids, virtual power plants, distributed generation, smart meters, energy data management, data analytics platforms, machine learning algorithms, artificial intelligence applications, offshore wind innovation, digital solutions, smart solutions, predictive technologies, remote sensing technologies, autonomous technologies, robotics technologies, data visualization, interactive dashboards, reporting tools, communication tools, collaboration tools, knowledge management, best practices, lessons learned, case studies, success stories, challenges, opportunities, future trends, emerging technologies, disruptive innovation, energy revolution, climate action, sustainable future Applications of AI in Offshore Wind Price $1,250 (Early Bird: $1,000 until July 1) Duration 1-Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Open Enroll Applications of AI in Offshore Wind This one-day course provides an in-depth exploration of the practical applications of Artificial Intelligence in the offshore wind industry. Participants will gain a comprehensive understanding of how AI technologies are revolutionizing offshore wind projects, from optimizing maintenance and operations to enhancing energy production and environmental impact assessment. Who Should Attend: - Offshore wind project managers and developers - Energy industry professionals seeking AI integration insights - Environmental experts and regulators - Researchers and academics in the renewable energy sector - Those interested in the intersection of AI and clean energy This course offers a valuable opportunity to explore the transformative potential of AI in offshore wind, equipping participants with the knowledge to harness these technologies effectively in their own projects and organizations. Course Outline: AI Fundamentals and Offshore Wind Integration Introduction to AI in Offshore Wind - What is AI, and how does it work? - The role of AI in renewable energy - AI applications in offshore wind: A global perspective AI in Offshore Wind Operations - Predictive maintenance and asset management - Monitoring and diagnostics with AI - Case studies of AI-driven operational efficiency -AI in Wind Resource Assessment - Optimizing wind farm layout and design - AI-driven weather forecasting - Enhancing energy yield assessments Practical Applications and Future Trends AI for Environmental Impact Assessment - Wildlife monitoring and mitigation strategies - AI in offshore wind's role in sustainability - Real-world examples of AI-driven environmental assessments AI-Enabled Decision Support Systems - Integrating AI into offshore wind project decision-making - Advanced data analytics and reporting - Best practices and emerging trends The Future of AI in Offshore Wind - AI-driven innovations and emerging technologies - Industry trends and future prospects - Preparing for the AI-powered offshore wind landscape Course instructors Beccie Drake, CEng MICE Offshore Wind Digital Lead, Arup Beccie leads digital within Arup’s offshore wind sector, combining Arup’s deep expertise with advanced digital technologies and data to enable offshore wind to scale-up and help deliver a net-zero energy system. Beccie is a chartered civil engineer, with a background in offshore energy and maritime structures. Beccie has 12 years varied experience within the renewable energy sector. Beccie is passionate about delivering innovative energy projects and digital engineering services for global clients that support step-changes in our industry; a recent example being delivery of the Future Offshore Wind Scenarios project for the UK Government, The Crown Estate and Crown Estate Scotland that used Arup’s cutting-edge offshore wind deployment & LCOE model, SCALE. Beccie completed the Arup University Masters ‘Artificial Intelligence & Machine Learning in the Built Environment’ in 2020 in association with Kings College London, and sits on various Renewable Energy Data & Digital Steering Groups. These include the UK’s Offshore Energy Data Architecture Programme, the UN Global Compact: Enabling Data-Sharing in Offshore Renewable Energy Development within the wider UNGC Ocean Stewardship Programme and on Renewable UK’s Shadow Board. Beccie continues to develop her own interest and understanding in artificial intelligence and machine learning approaches applying these to industry projects, client problems and the development of digital services. 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.

Floating Offshore Wind Masterclass Floating offshore wind turbines represent a cutting-edge advancement in renewable energy technology, offering access to stronger and more consistent wind resources in deeper waters. This field encompasses a wide range of keywords, including floating wind, offshore wind, wind energy, renewable energy, clean energy, sustainable energy, alternative energy, wind power, deepwater wind, offshore wind farms, floating foundations, mooring systems, dynamic cables, subsea cables, power transmission, grid connection, wind turbine technology, turbine design, rotor blades, nacelle, gearbox, generator, pitch control, yaw control, blade aerodynamics, structural engineering, hydrodynamics, metocean data, wave modeling, current modeling, wind resource assessment, site selection, environmental impact assessment, marine environment, ocean engineering, naval architecture, mooring design, anchor systems, catenary mooring, taut mooring, spar buoys, semi-submersibles, tension leg platforms, TLPs, floating production storage and offloading, FPSO, spar platforms, semi-submersible platforms, floating wind farms, wind farm development, project planning, cost analysis, levelized cost of energy, LCOE, capital expenditure, CAPEX, operational expenditure, OPEX, risk assessment, insurance, financing, supply chain, manufacturing, assembly, installation, commissioning, operation, maintenance, remote sensing, monitoring, digital twin, SCADA systems, autonomous systems, robotics, remote operations, offshore operations, maritime operations, port infrastructure, heavy lift vessels, transportation, logistics, mooring installation, cable installation, turbine installation, offshore construction, marine construction, met mast, LiDAR, sonar, bathymetry, geotechnical surveys, seabed surveys, environmental monitoring, marine mammals, seabirds, underwater noise, habitat impact, stakeholder engagement, community benefits, local economy, job creation, research and development, innovation, technology development, prototype testing, model testing, tank testing, at-sea testing, demonstration projects, commercialization, policy support, regulatory framework, permitting, licensing, grid integration, smart grid, energy storage, battery storage, pumped hydro, hydrogen production, power-to-x, green hydrogen, ammonia production, synthetic fuels, decarbonization, climate change mitigation, energy transition, energy security, blue economy, maritime industry, offshore industry, oil and gas industry, cross-sector collaboration, knowledge sharing, best practices, standards, certification, safety, reliability, durability, extreme weather conditions, typhoon, hurricane, storm surge, ice loading, corrosion, fatigue, structural integrity, condition monitoring, predictive maintenance, lifetime extension, decommissioning, recycling, circular economy, life cycle assessment, LCA, social impact assessment, SIA, environmental, social, and governance, ESG, sustainability reporting, corporate social responsibility, CSR, United Nations Sustainable Development Goals, SDGs, Paris Agreement, climate action, energy policy, government incentives, subsidies, feed-in tariffs, renewable portfolio standards, RPS, carbon pricing, carbon tax, emissions trading, international collaboration, global market, market analysis, market trends, industry growth, investment opportunities, future of energy, energy innovation, technological advancements, digital transformation, artificial intelligence, machine learning, big data, internet of things, IoT, remote sensing, automation, robotics, unmanned aerial vehicles, UAVs, drones, autonomous underwater vehicles, AUVs, oceanographic data, meteorological data, weather forecasting, climate modeling, data analytics, predictive analytics, optimization, energy efficiency, cost reduction, competitiveness, grid stability, power quality, ancillary services, smart grid technologies, demand response, energy management, microgrids, hybrid power systems, offshore energy hubs, multi-purpose platforms, ocean space utilization, spatial planning, marine spatial planning, MSP, integrated maritime policy, ocean governance, international law, UNCLOS, maritime safety, search and rescue, SAR, environmental protection, marine conservation, biodiversity, ecosystem services, sustainable development, blue growth, ocean literacy, public awareness, education, workforce development, skills gap, training programs, STEM education, gender equality, diversity and inclusion, social equity, just transition, community engagement, stakeholder consultation, local partnerships, economic development, regional development, rural development, coastal communities, island nations, remote areas, energy access, electrification, rural electrification, off-grid power, decentralized energy systems, energy independence, energy security, climate resilience, adaptation, mitigation, low-carbon economy, net-zero emissions, sustainable development goals, global challenges, energy future. Floating Offshore Wind Masterclass Price 975€ (Early bird: 780€ until Sept 15) Duration 1-Day Dates October 23, 2025 Format Virtual (Live) Course Status Open Enroll Floating Offshore Wind Masterclass The Floating Offshore Wind course is a comprehensive program designed to provide a deep understanding of the emerging field of floating wind turbines and their application in offshore environments. Participants will explore the fundamental principles, technologies, and practical considerations related to floating offshore wind, equipping them with the knowledge necessary to engage in this innovative and rapidly growing sector of the renewable energy industry. Who Should Attend: This course is intended for a wide range of professionals and stakeholders interested in the field of floating offshore wind, including: - Renewable Energy Developers - Wind Energy Engineers and Technicians - Environmental Specialists - Government Officials and Policymakers - Energy Analysts and Economists - Researchers and Academics By attending the Floating Offshore Wind course, participants will gain the knowledge and insights needed to actively engage in this dynamic sector, contribute to the development of floating wind projects, and stay informed about the latest advancements and trends in the industry. Course Outline: - Session 1: Offshore Floating Wind - Industry heritage on floating systems and important lesson learned from floating systems - Floating vs fixed – which factors impact - Environmental considerations - Applications (power for export, electrification, other) - Session 2: Project Development Floating Systems Project phases - Accuracy in each phase - Decisions made in each phase - Contract types typical Site selection - Session 3: Selection of Floating System Concept Building blocks (floater, mooring and cable) - Discussion of different types of floaters, mooring system Key criteria's for selection (incl. financing model as criteriea, TRL, technical boundaries) - Session 4: Floating Concepts in The Market - Offshore Wind in the media - The global offshore wind market - Current status floating wind (and auctions) - Concepts in the market - Planned projects (which concept) - Session 5: Typical Floating System Design Process - Floater - Mooring - Cable - Session 6: Project Execution 1 – Floater Pre-Fabrication and Assembly - Requirements to yard - Typical challenges - Session 7: Project Execution 2 – WTG Integration - Site requirements - Typical operation (and challenges) - Session 8: Project execution 3 – T&I - Transport to site - Mooring and cable installation and floater hook-up - Session 9: Market vs Supply Chain - Projects in the market (fixed, floating, electrification) - Supply chain capabilities vs market - Materials - Yards - T&I - Session 10: Case Study Hywind Tampen Concrete Substructures and Marine Operations EPCI - Session 11: Floating Substation Status - Selection of floater vs function - Topside interface vs floater selection - Substation alternatives - Power Transmission System Course Instructors: Aamund Langelid Senior Manager, Offshore Wind, Aker Solutions Aamund Langelid has 21 years of experience with offshore installations with different roles from international companies as DNV, Kværner and Aker Solutions. He has for the 5 last years worked dedicated to offshore wind and HVAC/HVDC substations. As Senior Manager for Converter and substation Offshore Wind he has a key role in developing floating substation and being a Project Certification Manager for substations. Aamund has a MSc in Physics from University in Bergen in 2002. Per Kristian Bruun Senior Manager, Projects, Aker Solutions Per Kristian has worked 18 years at Aker Solutions with development of floating systems for oil and gas, aquaculture, floating wave energy conversion and the past 4 years with floaters for offshore wind and offshore HVAC/HVDC substations. He has held roles in the range from Engineer to Project Manager and currently hold the position as responsible for studies related to development of wind foundations in Aker Solutions Front End unit. Per Kristian has a MSc in Marine Structures from University of Stavanger in 2005. Skule Pedersen Vice President, Marine Operations Department, Aker Solutions Skule Pedersen graduated from The Norwegian University of Science and Technology in 1997 with a master in Marine Technology. Besides working in the Oil and gas industry for multiple Oil Service companies gaining experience and knowhow related to Marine Operations he has also led or been part of several R&D programs and engagements within renewables such as, Water transportation, tidal turbines, Biogas, CO2 recycling, Synthesis gas production and now as part of the energy transition and AKSO’s engagement in offshore wind. The latter 12 years he has been focusing on tendering, planning and execution of Marine operations. Skule Joined Kværner (now AKSO) in 2017 and today he is Vice President of Aker Solutions’ Marine Operations department. Jill Jørgensen Engineering Manager for the Hywind Tampen, Aker Solutions Jill Jørgensen has worked 27 years at Aker Solutions within different areas and the last 5 years as Engineering Manager for the Hywind Tampen Concrete Substructure and Marine Operations EPCI project. In early carrier years she worked with structural analysis of jacket structures, dynamic analysis of GBSes and analysis in connection with marine operations. She has had several management and lead positions for both EPC and I projects as well as early phase study lead positions. She has a degree in MSc in Structural Engineering from the Norwegian University of Science and Technology in 1996. Kristian Mikalsen VP & Head of Business Development Offshore Wind, Aker Solutions Kristian has almost 20 years of professional experience from offshore wind, renewables, oil &gas and shipping. The last seven years working in companies closely connected to offshore wind, both bottom fixed and floating. The experience contains senior leadership, business development, strategy, tender and project management work. He has a a degree in structural engineering and education within economics and shipping Peter Leitch Project Director, Offshore Wind, Aker Solutions Mr. Leitch has more than twenty-five years multidisciplinary experience in floating production systems design and engineering, including class and regulatory compliance and coordination. Mr. Leitch has managed multiple studies to screen and develop new technologies for early phase floating offshore wind energy projects, including NUF floating substations to minimize operational complexity intervention requirements. Even Sandøy Nærum Senior Engineer, Floating Wind, Aker Solutions Even Sandøy Nærum has 6 years of multidisciplinary experience relevant for floating wind systems. His career involves hands-on experience with cable installation and marine operations in Subsea 7 and floater and mooring design as well as Floating Wind concept development in Sevan SSP. In Aker Solutions, he has handled a wide range of roles within floating wind engineering, ranging from study management, motions and mooring analysis in a concept development framework and technical advisory as required. Magnus Ebbesen Director at Aker Solutions Magnus Ebbesen, Director at Aker Solutions Consultancy, is a highly motivated professional with 12 years of experience in the offshore wind industry. His primary role involves supporting clients' ambitions in offshore wind by merging technical and commercial insights. He has a deep passion for advancing floating offshore wind and possesses expertise in strategy, market assessment, investment analysis, technical due diligence, project management, and business development. Before joining Aker Solutions, he spent 14 years at DNV, culminating in his role as Segment Lead for floating wind. Additionally, Magnus has experience as a Technical Director for offshore wind at ICP-Infrastructure. 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 device with an internet connection and a valid email address. 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.

Performance Based Safety Management Systems in OSW Offshore wind safety management systems (SMS) are crucial for mitigating risks and ensuring the well-being of personnel and the environment. Key elements include hazard identification and risk assessment, encompassing dropped objects, working at height, confined space entry, marine operations, helicopter operations, turbine maintenance, electrical safety, fire safety, emergency response, and weather-related hazards. Personal protective equipment (PPE) is essential, including harnesses, helmets, life vests, and specialized gear for various tasks. Training and competency are paramount, covering basic safety awareness, specific task training, emergency procedures, and rescue techniques. Permit-to-work systems ensure controlled operations for high-risk activities. Health and safety culture emphasizes proactive risk management, open communication, and continuous improvement. Incident reporting and investigation are vital for identifying root causes and preventing recurrence. Auditing and inspection verify SMS effectiveness and compliance with regulations and industry best practices. Emergency preparedness and response plans address various scenarios, including medical emergencies, evacuations, and search and rescue. Weather forecasting and monitoring are critical for safe operations, especially in challenging offshore environments. Marine coordination and vessel traffic management minimize collision risks. Subcontractor management ensures consistent safety standards across the workforce. Environmental protection measures prevent pollution and minimize impact on marine ecosystems. Cybersecurity safeguards operational technology and critical infrastructure. Human factors engineering considers the impact of human behavior on safety. Fatigue management addresses the challenges of long shifts and demanding work schedules. Occupational health programs monitor worker well-being and prevent work-related illnesses. Safety leadership promotes a strong safety culture and empowers employees to identify and report hazards. Risk communication ensures that all stakeholders are aware of potential dangers and control measures. Safety training programs must cover topics like sea survival, first aid, CPR, working at height rescue, confined space entry rescue, fire fighting, helicopter safety, boat transfer safety, wind turbine safety, electrical safety, and hazardous materials handling. Specific hazards related to offshore wind farms include blade strikes, tower collapses, turbine fires, crane accidents, dropped objects from height, man overboard situations, and collisions with vessels. Regulations and standards, such as those from OSHA, BSEE, and international bodies, provide a framework for SMS implementation. Continuous improvement through data analysis and feedback loops is essential for optimizing safety performance. The SMS should address all phases of the offshore wind farm lifecycle, from construction to operation and decommissioning. Specific SMS elements for offshore wind include turbine access safety, blade inspection and repair safety, nacelle access safety, gearbox maintenance safety, foundation inspection safety, cable laying safety, and scour protection safety. The SMS should also address the unique challenges of remote locations and limited access to medical care. Effective communication systems are critical for coordinating emergency response and ensuring timely information sharing. Safety management systems should be regularly reviewed and updated to reflect changes in technology, regulations, and best practices. The goal of an effective offshore wind SMS is to create a safe working environment for all personnel and protect the surrounding marine environment. Performance Based Safety Management Systems in OSW Price Please inquire Duration 1-day Dates On demand - Enroll now Format Virtual (Live) Course Status Open Enroll Performance Based Safety Management Systems in OSW 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. This comprehensive course provides an in-depth exploration of Performance-Based Safety Management Systems (SMS) tailored for offshore wind projects. Participants will gain a thorough understanding of the key components, regulatory frameworks, and implementation strategies necessary for developing and maintaining effective safety management systems. The course covers risk assessment, incident reporting, regulatory compliance, and continuous improvement, with practical insights and case studies from the offshore wind industry. Why You Should Take This Course: Participants will learn to design and implement robust safety management systems that meet regulatory requirements and industry standards. The course emphasizes practical applications, providing tools and techniques to improve safety outcomes, reduce incidents, and promote a proactive safety culture. By completing this course, professionals will be better equipped to ensure the safety and efficiency of offshore wind operations. Module 1 Introduction to H&S Key Risks and Challenges (& Quiz) Module 2 What is a Performance Based SMS? (& Quiz) Module 3 Implementing a Performance Based SMS (& Quiz) Module 4 Safety Management System Jeopardy Course Objectives: Understand the key challenges facing the US offshore wind industry. Understand the recognized structure of governance for an SMS. Explain how to demonstrate the functionality of an SMS. Know the fundamentals regarding Performance Based Regulations. Define the process of EHS Regulatory Compliance in OSW. Describe ESG fundamental requirements, benefits, challenges, and trends. Know the specific ESG metrics and their pros and cons. Understand the overview of the ESG reporting frameworks principles and their applicability. Explain the importance of the social aspects of ESG and relevant difficulties in reporting. Who Should Attend: This course is designed for those at or above the supervisory level in an OSW company involved in the development or operation of a WEA, or who seek to enhance their knowledge and skills in performance-based safety systems . Environmental Managers and Directors Health and Safety Managers and Directors Permitting or Project Managers Engineers Development Directors Regulatory Compliance Specialists, Managers, or Officers Public Outreach Specialists Risk Management Specialists Graduate Interns Course Instructor Mark Marien Mark Marien is a seasoned leader with over 25 years of global experience in business development, safety compliance, training, and management systems. A graduate of the US Merchant Marine Academy, he holds a Doctorate in Integrated Health Sciences and an MBA in Project Management. As a former Lieutenant Commander in the US Navy Reserve, Mark served as Director of QHSE for Avangrid's Offshore Wind Business, contributing significantly to industry initiatives. Based between Jacksonville, FL, and Westminster, MA, Mark is committed to advancing EHS and Sustainability roles and is a valuable contributor to the American Offshore Wind Academy. The course outline is subject to change and a detailed agenda will be shared after enrollment.

Offshore Wind MetOcean Training Course Offshore wind metocean studies are crucial for successful project development, encompassing a wide range of interconnected factors. Accurate wind resource assessment is paramount, involving detailed analysis of wind speed, direction, shear, turbulence intensity, and extreme wind events like hurricanes and typhoons. Wave characteristics, including significant wave height, wave period, wave direction, and extreme wave heights, are essential for structural design and safe operations. Currents, both surface and subsurface, driven by tides, wind, and density gradients, impact turbine foundations, cable routing, and vessel operations. Water depth, bathymetry, and seabed morphology influence foundation selection and installation. Sea state conditions, including swell, sea, and chop, affect accessibility and workability during construction, operation, and maintenance. Marine growth, biofouling, and corrosion rates are critical considerations for long-term structural integrity. Ice loading, if applicable, requires specific metocean data and analysis. Visibility, including fog, haze, and precipitation, impacts navigation and safety. Air temperature, humidity, and icing conditions are important for turbine performance and maintenance. Storm surge, coastal erosion, and sediment transport are relevant for nearshore projects. Met data buoys, LiDAR systems, and satellite imagery provide valuable data for model calibration and validation. Numerical modeling, including wave models, current models, and wind models, is used to predict metocean conditions. Statistical analysis, including extreme value analysis and return period estimation, is crucial for design and risk assessment. Geophysical surveys, including seismic surveys and geotechnical investigations, provide information about the seabed. Environmental impact assessments consider the effects of metocean conditions on marine life. Operational and maintenance strategies are influenced by weather windows and accessibility. Risk management involves assessing and mitigating metocean-related hazards. Site selection considers the long-term metocean climate and its variability. Turbine design must withstand extreme wind and wave loads. Foundation design is tailored to specific soil conditions and metocean forces. Cable design must account for current and wave action. Mooring systems are designed to withstand extreme events. Vessel selection depends on sea state conditions and accessibility. Health and safety are paramount during offshore operations. Data quality and uncertainty are important considerations in metocean studies. Long-term monitoring programs provide valuable data for model improvement. Climate change impacts, including sea level rise and changes in storm intensity, are increasingly important. Met data management and sharing are essential for collaboration and data accessibility. Data assimilation techniques combine observations and model predictions. Remote sensing techniques provide wide-area metocean information. Computational fluid dynamics (CFD) is used to study local flow around structures. Hydrodynamic loading on offshore structures is calculated using metocean data. Fatigue analysis considers the effects of cyclic loading on structural integrity. Scour protection is necessary to prevent erosion around foundations. Offshore wind farm layout optimization considers wind resource and metocean conditions. Grid connection design must account for cable routing and seabed conditions. Stakeholder engagement is important for addressing concerns about metocean impacts. Regulatory requirements for metocean studies vary by jurisdiction. Best practices for metocean data collection and analysis are constantly evolving. Innovation in metocean technology is driving improvements in data quality and model accuracy. The economic viability of offshore wind projects depends on accurate metocean assessment. Sustainable development of offshore wind energy requires careful consideration of metocean factors. Offshore wind metocean, wind resource, wave characteristics, current profiles, water depth, bathymetry, seabed morphology, sea state, swell, sea, chop, marine growth, biofouling, corrosion, ice loading, visibility, air temperature, humidity, icing, storm surge, coastal erosion, sediment transport, met data buoys, LiDAR, satellite imagery, numerical modeling, wave models, current models, wind models, statistical analysis, extreme value analysis, return period, geophysical surveys, seismic surveys, geotechnical investigations, environmental impact assessment, operational and maintenance, risk management, site selection, turbine design, foundation design, cable design, mooring systems, vessel selection, health and safety, data quality, uncertainty, long-term monitoring, climate change, sea level rise, storm intensity, met data management, data assimilation, remote sensing, computational fluid dynamics, hydrodynamic loading, fatigue analysis, scour protection, offshore wind farm layout, grid connection, stakeholder engagement, regulatory requirements, best practices, innovation, economic viability, sustainable development Offshore Wind MetOcean Training Course Price $1,350 Duration 1-Day Dates Spring Session: May 12, 2025 Fall Session: On demand - Enroll now Format Virtual (Live) Course Status Open Enroll Offshore Wind MetOcean Training Course The Offshore Wind MetOcean course provides an in-depth exploration of meteorology and oceanography specific to the offshore wind industry. Participants will acquire a thorough understanding of how wind, waves, currents, and other environmental factors impact offshore wind projects. This knowledge is vital for the successful planning, design, and operation of offshore wind farms, making this course essential for professionals in the field. By attending the Offshore Wind MetOcean course, participants will gain valuable insights into the critical MetOcean aspects of offshore wind projects, enabling them to make informed decisions and contribute to the success and sustainability of offshore wind farms. This course will take place from 9am to 4pm EST. Course Learning Objectives: Explain how metocean data supports offshore wind planning, design, and operations Interpret key metocean parameters and assess their impact on turbine and foundation design Identify common measurement tools and modeling techniques used in metocean campaigns and differentiate between measurement vs. modeled data in project applications Apply extreme value analysis methods to evaluate storm and hurricane risks Assess the impact of metocean conditions on installation planning and operational decisions Evaluate new technologies and trends in metocean forecasting and analysis, analyzing their benefits and limitations Who Should Attend: This course is designed for professionals involved in offshore wind energy projects, including oceanographers and meteorologists, researchers and academics, wind energy engineers and technicians, and data scientists. Project developers and managers, environmental and safety specialists, and government officials and policymakers will also benefit. Course Outline: Module 1: Understanding "Metocean" - Discipline Overview: A comprehensive look at the meteorology and oceanography involved in offshore wind projects. - Turbine-Scale Analysis: Exploring meteorological and oceanographic considerations specific to the scale of offshore wind turbines. - Defining Boundaries: Clarifying what "Metocean" is not while highlighting the valuable role of the metocean team in project success. Module 2: Components of a Metocean Campaign - Measured Parameters: Identifying the critical aspects measured in a metocean campaign. - Measurement Techniques: Understanding the methods employed to measure meteorological and oceanographic variables. - Purpose of Measurement: Exploring the significance and relevance of metocean measurements in offshore wind projects. Module 3: Elements of a Metocean Model - Winds, Waves, Currents, and Water Levels Modeling: Detailing the modeling process for key metocean elements. - Extreme Value Analysis: Capturing and analyzing data related to extreme storm events. - Hurricane Models and Methods: An overview of some methods for capturing tropical cyclone events in metocean data. Module 4: Metocean Analysis in Offshore Wind Applications - Foundations Analysis: Examining metocean considerations for offshore wind foundations. - Offshore Substations: Addressing metocean factors relevant to offshore substations. - Cable Routes/Cable Landings: Analyzing metocean conditions along cable routes and at cable landings. - Installation Considerations: Understanding metocean aspects during the installation phase. Module 5: Emerging Technologies and Trends - Innovations: Exploring new technologies influencing metocean practices in offshore wind. - Trends: Analyzing current trends shaping the future of metocean in the offshore wind industry. Module 6: Specialty Topics - In-Depth Exploration: Addressing specialized topics such as scour, breaking waves, and climate change impacts. - Interactive Q&A: Participants are encouraged to submit questions in advance for potential coverage during this segment. Course Instructors: Sarah McElman Lead Consultant, Metocean Expert Americas Sarah McElman is a metocean analyst with a background in spectral wave modeling, computational fluid dynamics, and scale model testing. She is the former metocean lead for Avangrid Renewables and has over 10 years of experience in offshore site assessment for fixed and floating projects in the United States, Europe, and Asia. While at Avangrid, Sarah managed metocean buoy, FLiDAR, and other measurement campaigns across the US and Europe, in addition to leading the metocean dimensions of new business, development, and operational preparedness. Prior to joining Avangrid, Sarah was a computational modeler at Deltares and MARIN. Special topics instructor: Chan K. Jeong Metocean Engineer | Naval Architect | Offshore Wind Specialist Chan Jeong is a seasoned Metocean Engineer with expertise in weather data analysis, offshore wind development, and offshore structure transportation and installation (T&I). With a Ph.D. in Ocean Engineering from Texas A&M University, he has developed advanced weather data processing tools and forecasting models to enhance operational decision-making. His career spans roles at Shell, Fugro, and Boskalis, where he contributed to global offshore wind and oil & gas projects. Skilled in machine learning, numerical modeling, and risk management, Chan integrates cutting-edge technology into metocean and marine engineering consultancy. 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 device with an internet connection and a valid email address. 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.

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.

Energy Storage Solutions Offshore wind energy storage solutions are crucial for grid stability and maximizing the utilization of this renewable resource. Keywords related to this topic include: offshore wind power, energy storage, battery storage, pumped hydro storage, compressed air energy storage (CAES), hydrogen storage, power-to-gas, grid integration, grid stability, renewable energy integration, energy management systems, microgrids, hybrid power plants, offshore platforms, floating platforms, subsea cables, power transmission, energy conversion, DC transmission, AC transmission, frequency regulation, voltage control, reserve capacity, peak shaving, demand response, ancillary services, grid resilience, energy security, cost-effective storage, levelized cost of storage (LCOS), techno-economic analysis, feasibility studies, environmental impact assessment, marine environment, ocean engineering, subsea engineering, mooring systems, dynamic cables, offshore construction, installation, operation and maintenance (O&M), safety regulations, standards, certifications, research and development (R&D), innovation, advanced materials, battery chemistry, flow batteries, solid-state batteries, lithium-ion batteries, redox flow batteries, metal-air batteries, hydrogen production, electrolysis, fuel cells, methanation, ammonia synthesis, energy density, power density, cycle life, round-trip efficiency, depth of discharge (DOD), state of charge (SOC), thermal management, battery management system (BMS), power electronics, converters, inverters, transformers, grid codes, regulations, policies, incentives, subsidies, market analysis, business models, project finance, risk assessment, stakeholder engagement, community benefits, job creation, supply chain, manufacturing, logistics, port infrastructure, offshore wind farms, wind turbine generators, power generation, renewable energy targets, climate change mitigation, decarbonization, sustainable energy, green energy, clean energy, future of energy, energy transition, smart grid, digital grid, data analytics, artificial intelligence (AI), machine learning (ML), predictive maintenance, cybersecurity, remote monitoring, autonomous systems, robotics, underwater vehicles, remotely operated vehicles (ROVs), autonomous underwater vehicles (AUVs), oceanographic data, metocean data, weather forecasting, wave energy, tidal energy, offshore renewable energy, marine spatial planning, environmental monitoring, ecological impacts, marine biodiversity, noise pollution, visual impact, electromagnetic fields (EMF), habitat disruption, marine mammals, seabirds, fish populations, benthic communities, protected species, mitigation measures, best practices, life cycle assessment (LCA), circular economy, recycling, repurposing, end-of-life management, waste management, sustainability, environmental, social, and governance (ESG), corporate social responsibility (CSR), stakeholder engagement, public acceptance, social license to operate, community benefits agreements, just transition, workforce development, education, training, skills gap, innovation ecosystem, collaborative research, industry partnerships, government support, international cooperation, knowledge sharing, technology transfer, capacity building, standardization, best practices, lessons learned, case studies, pilot projects, demonstration projects, commercialization, market adoption, investment opportunities, financing mechanisms, risk management, due diligence, feasibility studies, bankability, insurance, performance guarantees, warranties, supply chain resilience, local content, economic development, regional development, infrastructure development, port expansion, grid modernization, smart cities, energy communities, decentralized energy systems, prosumers, energy trading, peer-to-peer energy trading, blockchain, digital twins, virtual power plants, demand-side management, energy efficiency, conservation, renewable energy certificates (RECs), carbon credits, carbon offsetting, greenhouse gas emissions reduction, climate action, Paris Agreement, Sustainable Development Goals (SDGs), energy access, energy equity, social justice, global energy transition, future of energy storage, next-generation energy storage, advanced energy storage technologies, grid-scale energy storage, utility-scale energy storage, distributed energy storage, behind-the-meter storage, residential energy storage, commercial energy storage, industrial energy storage, transportation electrification, electric vehicles (EVs), vehicle-to-grid (V2G), energy storage integration, smart charging, microgrid integration, island grids, remote areas, off-grid power, energy independence, energy security, resilience, reliability, affordability, sustainability. Energy Storage Solutions Price $1,550 (Early Bird: $1,240 until June 1) Duration 2 - Day Dates TBA - enroll to stay updated Format Virtual (Live) Course Status Not Open Enroll Energy Storage Solutions Course details will be announced at a later date. If you require any further details or have questions, please feel free to reach out.

Financing Offshore Wind From Auction To FID Offshore wind financing and auctions are complex processes involving numerous stakeholders and stages, culminating in the final investment decision (FID). Key terms encompass project finance, renewable energy investment, wind farm development, offshore wind farms, wind energy projects, renewable energy finance, clean energy investment, green finance, sustainable finance, ESG investing, environmental, social, and governance, impact investing, project sponsors, developers, utilities, independent power producers (IPPs), power purchase agreements (PPAs), contracts for difference (CfDs), revenue contracts, offtake agreements, transmission agreements, interconnection agreements, grid connection, offshore wind turbines, wind turbine manufacturers, turbine supply agreements, balance of plant, foundations, substructures, cables, offshore installation vessels, heavy lift vessels, construction contracts, engineering, procurement, and construction (EPC) contracts, operation and maintenance (O&M) contracts, asset management, due diligence, technical due diligence, commercial due diligence, financial due diligence, legal due diligence, risk assessment, feasibility studies, environmental impact assessments (EIAs), permitting, consenting, regulatory approvals, government support, subsidies, tax credits, feed-in tariffs, renewable energy certificates (RECs), carbon credits, auctions, competitive bidding, lease auctions, seabed rights, maritime law, offshore regulations, safety regulations, marine spatial planning, stakeholder engagement, community benefits agreements, supply chain, local content, job creation, economic development, port infrastructure, grid infrastructure, transmission infrastructure, energy storage, battery storage, green hydrogen, power-to-x, levelized cost of energy (LCOE), capital expenditure (CAPEX), operating expenditure (OPEX), discount rate, internal rate of return (IRR), net present value (NPV), debt financing, equity financing, mezzanine financing, project finance loans, commercial banks, investment banks, export credit agencies (ECAs), multilateral development banks (MDBs), institutional investors, pension funds, insurance companies, private equity funds, infrastructure funds, yieldcos, tax equity, financial modeling, cash flow projections, sensitivity analysis, risk mitigation, insurance, political risk insurance, construction risk insurance, operational risk insurance, force majeure, liquidated damages, performance guarantees, warranties, credit ratings, investment grade, non-recourse financing, limited recourse financing, security agreements, collateral, financial close, FID, construction phase, operational phase, decommissioning, repowering, lifecycle costs, energy yield assessments, wind resource assessment, metocean data, site investigation, geotechnical surveys, bathymetric surveys, environmental surveys, archaeological surveys, avian surveys, marine mammal surveys, fishing industry, navigation, shipping lanes, radar interference, visual impact, noise pollution, electromagnetic fields, shadow flicker, public consultation, community engagement, local communities, indigenous communities, environmental organizations, non-governmental organizations (NGOs), best practices, industry standards, health and safety, supply chain resilience, inflation, interest rates, currency exchange rates, political stability, regulatory changes, technology advancements, innovation, digitalization, offshore wind innovation, floating offshore wind, deepwater wind, hybrid projects, offshore wind integration, smart grid, grid modernization, energy transition, climate change mitigation, decarbonization, renewable energy targets, sustainable development goals (SDGs), energy security, energy independence, just transition, offshore wind workforce, skills development, training programs, research and development, knowledge sharing, collaboration, partnerships, industry associations, government agencies, international organizations, offshore wind conferences, offshore wind events, offshore wind market, global offshore wind, offshore wind pipeline, offshore wind capacity, offshore wind growth, offshore wind future. Financing Offshore Wind From Auction To FID Price $2,450 Duration 2-Day Dates Fall 2025 edition TBA - Enroll to stay updated Format Virtual (Live) Course Status Open Enroll Financing Offshore Wind From Auction To FID This comprehensive course is designed to provide a deep understanding of the commercial aspects involved in offshore wind projects, from the bidding stage to Power Purchase Agreements (PPAs), including bidding and contracting strategies, project financing and investment structures, risk management and regulatory considerations, PPAs and market dynamics. Participants will gain essential knowledge and skills to navigate the intricate world of offshore wind financing, enabling them to make informed decisions and contribute effectively to the development and management of these projects. This course will take place from 9am until 1pm EST each day. Course Objectives: - Equip participants with a comprehensive understanding of offshore wind financing from bid to PPA. - Develop the skills necessary to analyze risks and make informed investment decisions. - Provide insights into successful strategies and case studies in offshore wind projects. - Foster networking and collaboration among professionals in the renewable energy sector. Who Should Attend: - Investors and financiers: Professionals in the financial and investment sectors seeking to invest in or finance offshore wind projects will learn how to assess risks and opportunities - Government officials and policymakers: Individuals in regulatory or policymaking roles will benefit from understanding the financial and commercial dynamics of offshore wind energy. - Legal and financial experts involved in the offshore wind industry will gain a deeper understanding of the financial structures and legal considerations. - Energy industry professionals: Those working in the energy sector who want to expand their knowledge of renewable energy, specifically offshore wind financing. - Project developers and managers: Individuals responsible for planning, developing, and overseeing offshore wind projects will gain valuable insights into the financial aspects of their initiatives. - Professionals interested in learning more about the financing of offshore wind farms Course Outline: Day 1 Module 1: Introduction to Offshore Wind and Its Commercial Landscape - Understanding Offshore Wind: Economics and Politics of Offshore Wind - Role of Governments and Regulatory Frameworks - Offshore Wind Industry Players and Stakeholders Module 2: Overview of Project Finance, SPVs, Key Agreements - Difference in corporate finance vs. project finance - Key stakeholders in a project finance transaction & responsibilities - Overview of key contracts (PPA, EPC Agreement, GIA…etc) - Key Legal and Commercial Clauses in Offshore Wind Contracts Module 3: Project Financing and Investment Structures - Project Valuation and Investment Decision-Making - Financing Structures: Debt vs. Equity - Attracting Investors and Securing Financing - Financial Models and Risk Analysis - US Tax Equity Specificities Day 2 Module 4: Debt Financing Deep Dive Module 5: Tax Equity Financing Deep Dive Module 6: Risk Management and Regulatory Considerations - Risk Identification and Mitigation Strategies - Environmental and Permitting Challenges - Grid Connection and Transmission Issues - Legal and Regulatory Compliance Course Instructors: Ryan O’Connor Senior Financial Advisor, Ocean Winds Ryan O’Connor is a Senior Financial Advisor for the offshore wind developer Ocean Winds working within the SouthCoast Wind Project. Ryan has led finance efforts in both BOEM Auctions and Power Purchase Agreements. This experience has culminated in a PPA win, lease auction awards in the Ocean Wind portfolio, and heavy involvement in the pending tri-state PPA solicitation in Massachusetts, Rhode Island and Connecticut. Ryan has been instrumental in formulating valuation metrics, robust financing plans and funding strategies tailored to the unique demands of offshore wind projects, particularly as macroeconomic shocks continue to acutely impact the industry. This includes navigating the complex landscape of tax equity financing, where he has developed innovative strategies to optimize financial structures amidst the constant flux of regulatory changes, particularly those surrounding the details of the Inflation Reduction Act and its possible futures. Prior to joining the offshore wind industry, Ryan worked in both underwriting and deal structuring in the commercial real estate industry, with a focus on commercial construction. He holds a Bachelors in Economics & Finance and a Masters in Finance, both from Bentley University. Ian McGinnis Project Finance Manager, Ocean Winds Ian McGinnis is a Project Finance Manager at Ocean Winds North America where he provides oversight on project financing activities across the full lifecycle of OW’s North American portfolio. Prior to Ocean Winds, Ian was an Associate on the Project Finance team at Greenskies Clean Energy where he evaluated commercial solar + storage renewable energy projects. While at Greenskies, Ian was part of a team which closed several debt and tax equity financings for solar projects across the U.S. Ian began his career at FTI Consulting on the Power, Renewables, and Utilities team. His consulting experience spanned a range of matters such as regulatory due diligence, utility financial modeling, natural gas and electric rate case advisory, and wholesale market analysis. 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 device with an internet connection and a valid email address. 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.

OSW Risk Management, Insurance & Marine Warranty Surveying Risk management, insurance, and marine warranty surveying are interconnected fields crucial for mitigating potential losses in various industries, particularly maritime and energy. Keywords encompass a broad spectrum, starting with fundamental concepts like risk identification, risk assessment, risk mitigation, risk transfer, and risk acceptance. Insurance-related terms include policy, premium, deductible, coverage, claim, underwriter, broker, reinsurance, liability, indemnity, subrogation, and insurable interest. Marine warranty surveying focuses on specific aspects like vessel, cargo, voyage, port, offshore, subsea, renewable energy, wind farm, construction, installation, operation, maintenance, survey, inspection, certification, compliance, due diligence, loss prevention, damage survey, salvage, wreck removal, and general average. Specific risks covered include hull and machinery, cargo damage, pollution liability, war risks, piracy, cyber risk, political risk, force majeure, and business interruption. Keywords related to the surveying process involve marine surveyor, naval architect, master mariner, cargo surveyor, consultant, report, documentation, verification, quality control, safety, environmental regulations, IMO, ISM Code, ISPS Code, and other relevant industry standards. Furthermore, the energy sector introduces terms like offshore platform, pipeline, subsea cable, drilling rig, FPSO, wind turbine, solar panel, renewable energy certificate, power purchase agreement, and grid connection. Financial aspects are also important, including cost-benefit analysis, financial risk, capital expenditure, operating expenditure, and return on investment. Legal considerations involve contracts, liabilities, regulations, compliance, dispute resolution, arbitration, and maritime law. Emerging technologies add keywords like remote sensing, drones, AI, machine learning, data analytics, digital twin, and predictive maintenance. Finally, specific project phases are relevant, such as feasibility study, engineering, procurement, construction, commissioning, and decommissioning. This extensive vocabulary highlights the complexity of risk management, insurance, and marine warranty surveying, emphasizing the need for specialized knowledge and expertise to effectively manage risks and protect assets. Additional keywords could include: marine insurance, cargo insurance, P&I insurance, hull insurance, offshore energy insurance, renewable energy insurance, wind farm insurance, construction all risks insurance, marine warranty, warranty survey, condition survey, on-hire survey, off-hire survey, damage survey, pre-risk survey, post-loss survey, claims handling, loss adjuster, risk engineer, safety management system, environmental impact assessment, stakeholder engagement, project management, supply chain risk, logistics risk, operational risk, financial risk, legal risk, reputational risk, strategic risk, hazard identification, consequence assessment, probability assessment, risk matrix, risk register, control measures, contingency planning, business continuity, disaster recovery, crisis management, emergency response, training, competence, best practices, industry standards, international regulations, classification societies, flag state, port state control OSW Risk Management, Insurance & Marine Warranty Surveying Price $950 Duration 1-Day Dates Spring Session: May 15, 2025 Fall Session: On demand - Enroll now Format Virtual (Live) Course Status Open Enroll OSW Risk Management, Insurance & Marine Warranty Surveying This comprehensive one-day course delves into the essential aspects of risk management, insurances, and marine warranty surveying within the offshore wind energy sector. Participants will gain in-depth insights into the history and functioning of the insurance industry, the acquisition process for insurances, and the fundamentals of risk management. The course will provide a nuanced understanding of risks and perils specific to offshore wind projects, both from the perspective of project owners and supply chain companies. In the marine warranty surveying section, participants will explore loss prevention strategies and the areas of assurance review. The course culminates with an examination of the claims management process and real-world case studies to illustrate the practical application of the knowledge gained. This course will take place from 9am to 5:30pm EST. Course Learning Objectives: Describe the roles and responsibilities of Marine Warranty Surveyors across various project phases, including their focus during execution, transportation, and incident response Identify common causes of insurance claims in offshore wind projects and explain how risk transfer mechanisms (e.g., insurance) address these risks Explain key risk management strategies, including avoidance and risk sharing approaches, and how these are applied conceptually in offshore wind projects Recognize critical factors Marine Warranty Surveyors assess during component transport and installation to ensure safety and compliance Identify the types of documentation typically involved in marine warranty surveys and insurance claims in offshore wind operations What Attendees Think: “It gave me a general overview and open perspective regarding OSW risk management and insurance. It would be interesting to expand on this course since the industry is facing financial risk from various supply chain issues. The industry needs these learning programs to better understand how powerful and useful these tools are in making project execution smoother.” - Miguel L. CEO, Chekea-STO Who Should Attend: This course is tailored for a diverse group of professionals involved in or impacted by the offshore wind industry, including: - Project Developers and Owners - Supply Chain Companies - Insurance Professionals - Risk Managers - Marine Warranty Surveyors - Offshore Wind Project Managers - Energy Analysts - Financial Analysts - Regulatory and Compliance Experts - Legal Professionals in Renewable Energy - Individuals interested in deepening their understanding of risk management and insurance in offshore wind This course caters to a broad spectrum of professionals seeking to navigate the intricate landscape of risk management, insurance, and marine warranty surveying in the offshore wind energy sector. Course Outline: Module 1: Introduction to Risk Management 1.1. Understanding the History of Insurance 1.2. Exploring the Insurance Marketplace 1.3. Navigating the Insurance Acquisition Process 1.4. Fundamentals of Risk Management 1.5. Diving into Risks and Perils 1.6. Examining Different Types of Risk Management Module 2: Offshore Wind Risk Management 2.1. Risk Management for Project Owners 2.1.1. Defining a Risk Profile 2.1.2. Asset Insurance 2.1.3. Liability Insurance 2.1.4. Revenue Insurance 2.2. Risk Management for Supply Chain Companies 2.2.1. Establishing a Risk Profile 2.2.2. Asset Insurance 2.2.3. Liability Insurance Module 3: Marine Warranty Surveying 3.1. Overview of Loss Prevention 3.2. Areas of Assurance Review 3.2.1. General Considerations 3.2.2. Vessel Assessments 3.2.3. Module Evaluations 3.2.4. Piling Inspections 3.2.5. Installation Safety 3.2.6. Assessment of Pipelines & Cables 3.2.7. Ensuring Inshore Completion Module 4: Claims Management Process Module 5: Case Study Course Instructors: Benjamin A. Brown Client Advisor, Marsh Mr. Brown brings more than 12 years of technology and project development experience to INpower from the offshore wind, marine hydro kinetic, aquaculture, and renewable biofuel industries. Prior to joining INpower, Mr. Brown worked on behalf of the Business Network for Offshore Wind where consulted with companies on technology commercialization, supply chain entry, and project development needs; while also consulting with federal agencies and state governments on the impacts of policy and regulation. Before entering the insurance field, Mr. Brown operated as project development professional who helped start-ups, non-profits, and growing companies in the development of over $100 million in projects. Sean Murphy Renewables Manager, ABL Group Sean is a Chartered Engineer and, as Renewables Manager, he leads ABL’s renewable energy projects and market growth within the US. He is experienced in renewables marine warranty surveying (MWS) and has also supported clients from a loss management perspective in investigating numerous incidents involving damage to energy infrastructure equipment. He has provided risk assessments and marine warranty surveys for complex load outs, cable transport and installation, heavy lift project cargoes, and tows. He has carried out analyses for various early-stage fixed and floating offshore wind projects, including T&I strategies, logistics studies, CAPEX estimations, O&M strategy development and OPEX modelling, and associated project management. Working in engineering and marine / offshore surveying for over 10 years, Sean is also experienced in carrying out and coordinating surveys on behalf of various insurance interests (including H&M, cargo, and P&I), acting on behalf of owners in mitigating and investigating losses, providing naval architecture and marine engineering analyses, reporting and testifying in numerous expert witness cases, and conducting research into loss prevention and claims mitigation initiatives. 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 device with an internet connection and a valid email address. 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.