- E-postFinn.Nielsen@uib.no
- Telefon+47 55 58 26 44
- BesøksadresseAllégaten 705007 Bergen
- PostadressePostboks 78035020 Bergen
Finn Gunnar Nielsens forskning har rettet seg mot samvirke mellom hav (vind, strøm og bølger) og marine konstruksjoner. De senere år har han spesielt arbeidet med dynamikk av vindturbiner til havs. I sin tidligere stilling ledet han forskningsprosjektet som utviklet av verdens første fullskala, flytende vindturbin. For dette arbeidet ble han i 2018 tildelt Norges Tekniske Vitenskapsakademis ærespris.
Finn Gunnar Nielsen er aktiv ved å holde foredrag om energi fra havvind og fornybar energi generelt.
Finn Gunnar Nielsen har vært leder av programstyret for de to- og femårige masterprogrammene i energi ved UiB. Han har forelest grunnleggende energiemner og spesialemner innen havvindenergi.
Tidligere har han utviklet og forelest et emne innen marine operasjoner ved NTNU. Her er også utviklet et eget kompendium.
Vitenskapelig artikkel
- (2022). Sensitivity of the dynamic response of a multimegawatt floating wind turbine to the choice of turbulence model. Wind Energy. 1013-1029.
- (2022). Development of an automatic thresholding method for wake meandering studies and its application to the data set from scanning wind lidar. Wind Energy Science. 849-873.
- (2021). Quasi-static response of a bottom-fixed wind turbine subject to various incident wind fields. Wind Energy. 1482-1500.
- (2021). Analysis of turbulence models fitted to site, and their impact on the response of a bottom-fixed wind turbine. Journal of Physics: Conference Series (JPCS). 12 sider.
- (2020). The dynamic response of offshore wind turbines and their sensitivity to wind field models. Journal of Physics: Conference Series (JPCS).
- (2020). On Stochastic Reduced-Order and LES-based ModelsofOffshore Wind Turbine Wakes. Journal of Physics: Conference Series (JPCS).
- (2020). Evaluation of different wind fields for the investigation of the dynamic response of offshore wind turbines. Wind Energy. 1810-1830.
- (2020). Evaluation of Gaussian wake models under different atmospheric stability conditions: Comparison with large eddy simulation results. Journal of Physics: Conference Series (JPCS).
- (2019). Processing of sonic anemometer measurements for offshore wind turbine applications. Journal of Physics: Conference Series (JPCS).
- (2018). Load Estimation of offshore Wind Turbines. Energies.
- (2015). Coalescing Wind Turbine Wakes. Journal of Physics: Conference Series (JPCS).
- (2014). Cascade Analysis of a Floating Wind Turbine Rotor. Journal of Physics: Conference Series (JPCS).
- (2012). The Norwegian Centre for Offshore Wind Energy (NORCOWE). OCEANS. 1-5.
- (2004). Wave synchronizing crane control during water entry in offshore moonpool operations - Experimental results (Reprinted with permission from J. Oceanic Engineering, vol 29, pg 720-728). MIC Journal: Modeling, Identification and Control. 29-44.
- (2004). Seasonal Modeling of MMultivariate Distributions of Metocean Parameters With Application to Marine Operations. Journal of Offshore Mechanics and Arctic Engineering.
- (2003). Wave synchronizing crane control during water entry in offshore moonpool operations - experimental results. IEEE Journal of Oceanic Engineering. 720-728.
- (2003). Wave synchronizing crane control during water entry in offshore moonpool operations - Experimental results. IEEE Journal of Oceanic Engineering. 720-728.
- (2000). Extreme loads in taut mooring lines and mooring induced famping : an aymptotic approach. Applied Ocean Research. 103-118.
- (1999). Participating mass in colliding risers. Journal of Marine Science and Technology. S. 58-67.
- (1999). Mooring line tension observed through a maximum entropy spectrum. Journal of Marine Science and Technology. S. 68-75.
- (1999). An examination of polyester fiber taut leg mooring systems for deepwater. Offshore : The Journal of Ocean Business. 102-106.
- (1979). On the Influence of the Propeller Race on Large, Towed Structures. Proceedings - Offshore Technology Conference.
Rapport
- (2019). The Ocean as a Solution for Climate Change: Five Opportunities for Action. World Resources Institute. .
Faglig foredrag
- (2023). Offshore Wind Energy. Some challenges and future opportunities.
- (2022). Norsk Havvind - Hvordan har det gått?
- (2022). Hywind - en pioner innen havvind.
- (2022). Hvor bør havvindparker plasseres?
- (2022). Hvilken plass har havvind i fremtidens energiforsyning?
- (2022). Hvilken plass har havvind i fremtidens energiforsyning?
- (2022). Hva innebærer havvind med tanke på teknologier og arealbeslag?
- (2022). Havvind. Muligheter og utfordringer.
- (2022). Havvind - arealbehov.
- (2022). Akademias rolle i Havvind.
- (2020). offshore Wind. Grasping the opportunities and solving the challenges.
- (2020). What Role for Ocean-Based Renewable energy and Deep-Seabed Minerals in a Sustainable Future?
- (2020). Vindkraft i Vinden.
- (2020). Utslipp, energi og havvind.
- (2020). Utslipp, energi og havvind.
- (2020). Havvind - Europeiske ambisjoner og norske muligheter.
- (2020). An overview of R&D and innovation activities in Norway.
- (2019). The COTUR campaign - measuring offshore turbulence and coherence with lidars.
- (2019). The COTUR campaign - measuring offshore turbulence and coherence With lidars.
- (2019). Offshore wind and crossover technologies.
- (2019). Kan havvind bidra til at Norge når klimamålene?
- (2019). Havvind ved UiB - Bergen Offshore Wind Centre (BOW).
- (2019). Havvind - en ny industriell mulighet for Norge.
- (2019). Havvind - En ny industriell mulighet for Norge.
- (2019). Havind ved UiB.
- (2019). COTUR - Estimating coherence and turbulence with LIDARs.
- (2016). Summary and highlights from NORCOWE. Introduction, or: How was the key challenges addressed?
Populærvitenskapelig foredrag
- (2020). What role for Ocean-Based Renewable Energy and Deep-Seabed Minerals in a Sustainable Future?
- (2020). Vindkraft på land og til havs.
- (2020). Norsk havvind, stort potensial - ingen plan?
- (1997). Noen marintekniske utfordringer knyttet til store havdyp : eksempler på FoU innsats for å løse disse.
Vitenskapelig foredrag
- (2022). Offshore wind in the North Sea. An outlook.
- (2022). North Sea Wind Resourches.
- (2020). On the Stochastic Reduced-Order and LES-based Models of Offshore Wind Turbine Wake.
- (2019). Processing of sonic anemometer measurements for offshore wind turbine applications .
- (2019). Havvind - kan vi kombinere klimaforpliktelser og ny næringsvirksomhet.
- (2002). Wave synchronizing crane control during water entry in offshore moonpool operations.
- (2002). VIV Response of Long Free Spanningf Pipelines.
- (2002). Seasonal modelling of multivariate distributions of metocean paramters.
- (2002). Coupling between In-line and Transverse VIV Response.
- (2002). Coupled Fluid Structure Interaction Simulation of Vortex Induced Vibration of a Submerged Pipeline.
- (2002). An Efficient Finite Element for the Study of Drag Chains for a Floating Pipeline.
- (2001). Nonlinear Wave-Structure Interactions on Floating Production Systems.
- (2001). Development of a deep water gas field on the North Atlantic margin. Challengers related to a pipeline on a rough and steep seabed.
- (2001). Development and Technological Challenges for a Deepwater Gas Field in Harsh Environment on the North Atlantic Margin.
- (2000). Submerged floating pipeline in deep water.
- (1999). VIV-induced Vibrations in Deep Sea Risers.
- (1999). Riser colloision : assessment of impact energy.
- (1999). Alternative configurations and materials for deep water mooring : results from a three year research effort.
- (1999). Alternative configurations and materials for deep water mooring : re- sults from a three year joint research effort.
- (1998). Large scale model testing of deeps sea risers.
- (1997). Slow-drift responses of moored platforms.
- (1997). Model testing of the slow-drift motion of a moored semisubmersible in multidirectional waves.
- (1997). Model testing of deepwater floating production systems.
- (1980). Loads and Motion Responses of Offshore Oil Booms in Waves.
Leder
- (2022). Perspectives and Challenges Related Offshore Wind Turbines in Deep Water. Energies.
Leserinnlegg
- (2019). Betre kunnskap er avgjerande for havvindindustrien. Dagens næringsliv.
Kompendium
- (2000). SIN1546 MARINE OPERASJONER.
- (1997). Lecture notes in marine operations.
Kronikk
- (2017). Vi kan nå klimamålene ved bruk av havvind. Bergens Tidende. 27-27.
Intervju
- (2019). Vindkraft kan gi klimatap.
- (2016). Vindkraft er i ferd med å vokse ut av huset.
- (2016). Norsk havvind drukner i billig vannkraft.
Programdeltagelse
- (2023). Abels tårn.
Vitenskapelig Kapittel/Artikkel/Konferanseartikkel
- (2009). Characterization of Measured VIV for Free Spanning Pipelines. 10 sider.
Poster
- (2022). Application of the wake identification via adaptive thresholding to wake characterization and lidar retrieval.
- (2021). A study of nested simulations in PALM LES in application to the wind turbines.
- (2020). The COTUR project: Remote sensing of offshore turbulence for wind energy application.
- (2020). Evaluation of Gaussian wake models.
- (2018). Sensitivity analysis of the response of a floating wind turbine.
- (2012). Cascade Analysis of a Floating Wind Turbine Rotor.
Kompetansefelt