HCE DESIGN GROUP’s Post

And, how do we feel towers may cope under the additional motion stresses of a floating platform design? If we look at the structural challenges of monopile structures as they become taller and then consider why we use a jacket installation in deeper/rougher conditions...What about the tower structure and its integrity in a floating design and considering the average higher wind speeds and offshore conditions the designs are set to deal with. What impact will this have on the O&M of projects? #floatingoffshorewind #engineering #opex #o&m #owf #offshorewind #offshorewindfarm #floatingoffshorewind #flow https://lnkd.in/ejbRgK7N

🚢 Optimizing Construction Vessel Use in a Competitive Market 🚢 The Salamander Floating Offshore Wind Project is an upcoming 100 MW FOW development near Peterhead, Scotland that aims to bolster the Scottish supply chain for future large-scale projects. Floating offshore wind projects like Salamander necessitate a substantial number of vessels. Future endeavors will require even more vessels, both in terms of specifications and quantity, and will be located further from shore, increasing the time commitment per vessel. To address these challenges, the Salamander project is exploring innovative solutions to: •Reduce project requirements, thereby increasing the availability of suitable vessels in the current market. •Enhance vessel efficiency through optimizations, making better use of existing resources. •Eliminate the need for vessels altogether in these demanding markets. At Blackfish Engineering, we are thrilled to support applicants to the Salamander project by offering bespoke mechanical engineering design services. We are committed to fostering innovative ideas that can optimize offshore wind construction. If you have solutions to improve construction vessel use, we want to hear from you. Get in touch today! ⚓ #FOW #FloatingWind #OceanEnergy #Renewables

🌊 Exploring Innovations in the Floating Wind Sector! 💡 In this blog, we delve into the complexities of innovation within the floating wind sector, focusing on the emergence of reinforced concrete foundations. As the industry continues to evolve at a rapid pace, the adoption of reinforced concrete platforms offers a promising avenue for enhanced localization, cost-effectiveness, and design flexibility. However, with this innovation comes unique challenges, particularly in the design, construction, deployment, and operation phases. Read the full blog post here. ⬇️⬇️⬇️ #RenewableEnergy

The video below shows some of how it is to design a super tall building for resistance to wind loads. The Shanghai Tower was born as a solution by going vertical for the need to shelter people in the context of the populated grand urban centers and the difficult to find land to build. The 632 meter height of the tower implies a grand challenge facing the typhoon's wind that hits up to 175 miles per hour (equivalent to 280 kilometers per hour, 78 meters per second) which could sway it strongly. The way engineers chose to deal with that was confusing the wind by twisting the shape of the exterior of the tower and creating a knot over the height. In this context, further to understanding the behavior of the building face to the wind and to guarantee its safety and stability, structural engineers worked supported by wind engineers who are able to perform the wind tunnel test with an instrumented model of the building. In addition, to provide more stability, the tower counts on the tuned mass damper at the top of the building that acts as a counterweight that moves out of phase, lagging behind as the tower moves in the wind. https://lnkd.in/duUpNePU #StructuralEngineering #WindEngineering #StructuresofBuildings #HighRiseBuildings #WindLoads #StructuralAnalysis #StrcturalDesign #ConcreteStructures #CompositeStructures

GWT Port Fourchon Wind Turbine update: We've recently begun the geotechnical study for our Greater Lafourche Port Commission Wind Turbine foundations. A 120-foot soil boring has been completed to gather critical data on static soil pile properties, and the samples are now undergoing detailed laboratory testing. This testing is crucial to ensure the foundation design is perfectly suited to the site’s conditions and potential for extreme weather events such as storm surges and high winds. Leading this important work is a local geotechnical team. Once the testing is complete, we’ll move into the engineering design phase and prepare for site construction. The topographic survey of the site has also been completed, providing additional context for the geotechnical study. These steps are crucial as we work toward a foundation design that ensures long-term stability and success for the turbine. #WindEnergy #GeotechnicalEngineering #FoundationDesign #PortFourchon #PortFourchonWindTurbine #GulfWindTechnology #GWT

Revolutionizing Offshore Wind Storage: An Innovative Solution for Handling and Storing Monopiles Foundations piles in the offshore wind industry are growing larger, longer, and heavier. As projects become more diverse, traditional storage methods using sand dunes face limitations in terms of geometry and structural integrity. We are delighted to introduce our latest novel solution for Yard Pile Storage. This innovative method uses heavy-duty storage bags engineered to handle significant loads of the stored monopiles. Furthermore, the marshalling of piles becomes efficient with a bespoke lifting system supported on SPMTs. The lifting and storing solutions are designed to accommodate all types of pile geometries and offer flexibility in pile layout on the yard. Key benefits of the method: - Streamlined Process: Reducing yard preparation time to nearly 6 weeks per project. - Time Efficiency: Increasing the operational window of the yard by 55% annually. - Universality: No need for project-specific storage solutions. - Over 90% Reduction in Sand Volume: Compared to traditional sand dunes. - Reduced Pile Stresses: Due to increased support area of up to 25%. - Future-Proofing: Capability to store piles of the future (>2000 tonnes). Let's simplify the logistics of pile storage and load-out, making your offshore wind projects more flexible and efficient. Read more about this innovation in our Port Yard Pile Storage Design Special: https://bit.ly/3PXoVEp or contact our Innovation Manager Bas van Wuijckhuijse #OffshoreWind #RenewableEnergy #Innovation #PileStorage

Amazing Way They Build the World Largest Wind Turbines! First and foremost, extensive research and development are conducted to design turbines that can withstand the harsh conditions of wind farms, while maximizing energy output. Once the design is finalized, construction begins with the assembly of the turbine components. The most striking feature of these turbines is their sheer size. Standing as tall as skyscrapers, the assembly of these giants requires specialized equipment such as cranes capable of lifting heavy components hundreds of feet into the air. The tower, typically made of steel or concrete, serves as the backbone of the turbine, providing structural support for the entire system. Next comes the installation of the blades, which can span over 100 meters in length. Transporting these enormous blades to the construction site requires careful coordination and logistical planning. Once in place, each blade is meticulously attached to the hub of the turbine, a process that demands precision and expertise. Finally, the nacelle, housing the generator and other crucial components, is lifted atop the tower and securely fastened. This stage requires careful attention to detail to ensure that all electrical and mechanical connections are properly installed and functioning correctly. Credited by: FUTEK HD #WindTurbines #RenewableEnergy #Construction #Engineering #Logistics #GreenEnergy #Sustainability #Innovation

Wind turbine foundations: Essential structures providing stability and safety for efficient wind energy generation. A wind turbine foundation is a structural base designed to support wind turbines, ensuring stability against dynamic forces from wind and turbine operation. The type of foundation varies depending on soil conditions and turbine specifications. In solid ground, concrete or brick foundations are common. In softer soils or offshore locations, more complex foundations such as monopiles, stakes, or floating platforms are employed. These foundations are crucial for the safe and efficient operation of wind turbines, particularly in challenging environments like offshore wind farms, where they must withstand strong winds and water currents. video rights : wind world #windturbine #foundations #concrete #construction #civilengineering #civilconstruction #engenharia #engenhariacivil #civilengineer #engenheiro #engenheirocivil

Wind turbine foundations: Essential structures providing stability and safety for efficient wind energy generation. A wind turbine foundation is a structural base designed to support wind turbines, ensuring stability against dynamic forces from wind and turbine operation. The type of foundation varies depending on soil conditions and turbine specifications. In solid ground, concrete or brick foundations are common. In softer soils or offshore locations, more complex foundations such as monopiles, stakes, or floating platforms are employed. These foundations are crucial for the safe and efficient operation of wind turbines, particularly in challenging environments like offshore wind farms, where they must withstand strong winds and water currents. video rights : wind world #windturbine #foundations #concrete #construction #civilengineering #civilconstruction #engenharia #engenhariacivil #civilengineer #engenheiro #engenheirocivil

Latest Innovation from TWD for MP storage & handling. Could this improve efficiency at your marshaling or fabrication facility?