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Advanced Motion systems For Intersecting Beam Implementation of Anemometric LIDAR

Reference Number
InnUK/132489/01
Title
Advanced Motion systems For Intersecting Beam Implementation of Anemometric LIDAR
Status
Completed
Energy Categories
Renewable Energy Sources(Wind Energy)
Research Types
Applied Research and Development
Science and Technology Fields
PHYSICAL SCIENCES AND MATHEMATICS (Computer Science and Informatics)
ENGINEERING AND TECHNOLOGY (Mechanical, Aeronautical and Manufacturing Engineering)
ENVIRONMENTAL SCIENCES (Earth Systems and Environmental Sciences)
UKERC Cross Cutting Characterisation
Not Cross-cutting
Principal Investigator
Project Contact
Fraunhofer UK Research Limited
Award Type
Feasibility Studies
Funding Source
Innovate UK
Start Date
01 March 2017
End Date
28 February 2018
Duration
12 months
Total Grant Value
£180,984
Industrial Sectors
Region
Scotland
Programme
Competition Call: 1604_FS_ENRG_ENCATES4 - Energy Catalyst - Early Stage - Round 4. Activity Energy Catalyst R4 FS
Investigators
Principal Investigator
Project Contact, Fraunhofer UK Research Limited
Other Investigator
Project Contact, Wind Farm Analytics
Project Contact, THALES UK LIMITED
Web Site
Objectives
Abstract
Wind LIDAR (LIght Detection and Ranging) is a technique that is used to remotely measure the wind speed and is being used throughout the wind industry from site prospecting to wind turbine control. Floating Wind LIDAR has been more recently introduced to replace expensive offshore meteorological masts, however multiple intersecting beams are required to give a true 3D wind direction and this cannot be done with today's floating Wind LIDAR designs. Existing floating LIDAR cannot adequately measure turbulence because of their diverging beams whereas the converging beam LIDAR offers this capability which is critical to appropriate wind turbine type selection. This project seeks to investigate the feasibility of constructing an advanced motion control that can enable multiple Wind LIDAR beams to be intersected even when operating in the open sea from floating platforms. This enhancement of details will lead to more accurate turbine performance assessment, optimisation and also offer the opportunity to investigate and monitor what are the actual wind profiles hitting these enormous offshore structures by offering volumetric 3d wind mapping.
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Added to Database
26/05/20