Opportunities and challenges in floating wind Eirik Byklum – 27 November 2012.

Slides:



Advertisements
Similar presentations
OO Star Wind Floater A robust and flexible concept for floating wind
Advertisements

The Seismic Dilatometer test (SDMT) in geotechnical inshore and offshore investigation Fino a qualche decennio fa le indagini geotecniche venivano eseguite.
Carl Sixtensson Senior Consultant, DNV KEMA Renewable Energy
Edit this text for your title
Offshore Wind Floating Foundations the competitive technology
TIDAL TURBINE FOUNDATION OPTIMISATION RAMBOLL ENERGY MOJO MARITIME Alternative title slide.
The first floating wind turbines Martin Jakubowski Technology Architect Blue H Technologies BV, The Netherlands Brindisi, Italia 23rd of May
Self Installing Wind Turbine (SIWT) Mark Riemers – Managing Director.
Dynamic Response and Control of the Hywind Demo Floating Wind Turbine
Optimising Site Investigations for Offshore Wind Farm Projects Mark Finch Geotechnical Engineering Manager Hydrosearch Associates, Aberdeen UK Offshore.
Ilinca Julian, Heikki Ojanen, Juha - Matti Lukkari.
© ABB Group May 1, 2015 | Slide 1 Large scale integration of Offshore Wind Power Design Considerations Peter Sandeberg /ABB, EOW 2009,
An Experimental Investigation on Loading, Performance, and Wake Interactions between Floating VAWTs ____________________________________________ Morteza.
Louisiana Offshore Wind Energy Wind Energy Systems Technologies, LLC New Iberia, Louisiana, USA Presented By: Herman J. Schellstede W.E.S.T.
The Evolution of a New Mooring System for Ultra-Deep Waters By Charles N. White Strategic Offshore Solutions – Houston Fall.
NNMREC National Marine Renewable Energy Centers Hawaii National Marine Renewable Energy Center (HINMREC) University of Hawaii Wave, OTEC Southeast National.
Wind Energy Wind power is the conversion of wind energy into a useful form of energy, such as using wind turbines to make electricity, wind mills for mechanical.
THE MONOPOD BUCKET FOUNDATION Recent experience and challenges ahead Christian LeBlanc1, Kim Ahle1, Søren A. Nielsen 2, Lars B. Ibsen 3 1) DONG Energy,
Gireesh Ramachandran Amy Robertson Jason Jonkman Marco Masciola
© Siemens AG 2011 Hull Offshore Wind Workshop Siemens Wind Power A/S, Thomas Mousten, Offshore Wind Americas.
A. L. Hopstad, K. Ronold, C. Sixtensson, J. Sandberg Standard Development for Floating Wind Turbine Structures EWEA 2013.
Deep Water Offshore Wind Energy By Paul D. Sclavounos Horns Rev Wind Farm (Denmark) - Rated Power 160 MW – Water Depth 10-15m.
Hydrodynamic Analysis and Optimal Design of Floating Wind Turbine and Ocean Wave Energy Systems Paul D. Sclavounos Professor of Mechanical Engineering.
Lesson 8 Offshore Drilling
TOPIC 2: TYPES OF FOUNDATION
NEW CONCEPTS FOR INSTALLING WINDTURBINES OFFSHORE.
Maryam Aljaber PBL Q2. Types of oil platforms Fixed platform. Complaint tower. Sea star Floating production system. Tension-leg platform. Spar.
©2015 Energy Technologies Institute LLP - Subject to notes on page 1 ©2015 Energy Technologies Institute LLP The information in this document is the property.
Ocean and Wave Power Adam Henry Wesley Chicago Kent College of Law May, 2007.
1.  Renewable energy is energy which comes from natural resources such as sunlight, wind, rain, tides, and geothermal heat, which are renewable.  Climate.
1 EWEC 2007: UpWind Workshop WP 4 Offshore Support Structures Martin Kühn, et al. Endowed Chair of Wind Energy University of Stuttgart Thanks to the co-authors.
Offshore Wind and the European Supergrid Joe Corbett, Head of Technical Services Mainstream Renewable Power Representing: Friends of the Supergrid.
1 UK Offshore Wind 2002 Offshore Wind and Wave: A Common Route Map Phil Thompson - British Maritime Technology Chris French - NaREC Centre Director.
Converting Kinetic Energy Of Fluid Currents Into Electricity
Off-Shore Wind Energy Technologies
NREL – Jason Jonkman MARINTEK – Ivar Fylling Risø-DTU – Torben Larsen
Offshore Natural Resource Extraction. Overview History History Exploration Exploration  Seismic surveys  Drill ships Platform models Platform models.
A Quantitative Comparison of Three Floating Wind Turbines
© Offshore Wind A big opportunity? GA-EMA Conferences 22 October 2014.
Innovative Technologies, Creative Solutions Turret Mooring Design – Some Challenges and Solutions FPSO Forum 2004 NUS, Singapore Arun Duggal FMC SOFEC.
1  Renewable energy is energy which comes from natural resources such as sunlight, wind, rain, tides, and geothermal heat, which.
FLOATING AUTONOMOUS ENVIRONMENTAL FRIENDLY AND EFFICIENT DESALINATION UNIT.
Integrated Dynamic Analysis of Floating Offshore Wind Turbines EWEC2007 Milan, Italy 7-10 May 2007 B. Skaare 1, T. D. Hanson 1, F.G. Nielsen 1, R. Yttervik.
Systems Model and Offshore Oil Offshore Oil: Decision to Recover The determination must be made whether cost of inputs and processing will be offset.
TMR4225 MARINE OPERATIONS SPRING 2007 Introduction.
Current Status of Phase VI Floating Design Operated for the U.S. Department of Energy Office of Energy Efficiency and Renewable Energy by the Alliance.
Floating Offshore Wind Turbines Floating Offshore Wind Turbines An Aeromechanic Study on the Performance, Loading, and the Near Wake Characteristics of.
FUTURE FOR OFFSHORE WIND ENERGY IN SPAIN Wind Energy Department
Offshore Wind Farms An overview… UE VISION FOR % energetic efficiency -20 % greenhouse gas emissions 20 % of energy from renewable.
Kyoko Abe 16 March Outlines Concept Technology Market Status Potentials Projection.
A Quantitative Comparison of Three Floating Wind Turbines
Evan Gaertner University of Massachusetts, Amherst IGERT Seminar Series October 1st, 2015 Floating Offshore Wind Turbine Aerodynamics.
Restricted © Siemens AG 2014 All rights reserved.siemens.com/answers Passion for Offshore - Frank Zimmermann, Head of Sales - 5 th British Chamber Conference.
Date of download: 5/28/2016 Copyright © ASME. All rights reserved. From: Comparison of Spar and Semisubmersible Floater Concepts of Offshore Wind Turbines.
Enabling a paradigm shift in Offshore Wind
The Universal Foundation Concept
IMPROVED SEABED ANCHORING TECHNOLOGY Innovation Opportunity Identified at PROTTEC Retreat 26/28 October 2010 Jonathan Williams, Marine South East.
The Future Of Offshore Wind Power? Presentation By David Campbell.
H2020 Proposals LIFES 50 PLUS James Battensby – Technical Bid Manager 23 rd June 2015.
Chapter 6.  Moveable rigs include drilling barges, drill ships, jack-up rigs, and semisubmersible rigs.  Offshore rigs use a device called a top drive,
“Potential of floating wind turbines in Aegean Sea” Prof
From: Experimental Comparison of Three Floating Wind Turbine Concepts
OFFSHORE CONSTRUCTION
Optimising the installation phase of wind turbines in deep water
SEMINAR ON Floating Windmills
Harbors and Ports Engineering Geology – CE31FB2.
NS4960 Spring Term 2018 U.S. Offshore-Wind Projects
Dr Daniel Buhagiar Founding Partner
Reduced Draft Spar (RDS) Floating Offshore Wind Turbines A Market Opportunity Pedro López Offshore Engineering & Ship Design
Renewables : A transformational Opportunity
Presentation transcript:

Opportunities and challenges in floating wind Eirik Byklum – 27 November 2012

Foundations for floating wind Spar buoys From 100 m water depth Hywind Demo (2009) Semi-submersibles From 40 m water depth WindFloat Demo (2011) Tension leg floaters From 60 m water depth Scale test under planning Classification: Internal

Installation Bottom-fixed foundations Offshore installation of foundation Offshore installation of WTG Offshore commisioning Floating foundations Inshore assembly Tow-out of complete unit Large part of commisioning onshore Classification: Internal

Environment Bottom-fixed foundations Piling noise during installation Often in sight from land Larger seabed footprint Floating foundations No piling needed Can be placed out of sight Smaller seabed footpring Classification: Internal

Fabrication and technology Bottom-fixed foundations Adaption needed for each unit Proven technology Floating foundations Standardized, mass production Less mature technology, need pilots Classification: Internal

Cost reduction pathway

Main cost reduction areas for floating wind Concept development Upscaling Design optimization Mooring systems Cost-efficient fabrication Fabrication friendly design Efficient mass production Assembly and installation Efficient installation vessels Onshore assembly

Conclusions Large offshore wind resources located in deep waters Floating wind has advantages in terms of fabrication, installation and environment Currently higher CAPEX, but cost-competitive in the future

Eirik Byklum Technology Manager Floating Wind

Feedback: Privacy Policy Feedback
Do Not Sell My Personal Information
About project: SlidePlayer Terms of Service

© 2024 SlidePlayer.com Inc. All rights reserved.