11 June 2009 American Control ConferenceSt. Louis, MO Control of Wind Turbines: Past, Present and Future.

Slides:



Advertisements
Similar presentations
TWO STEP EQUATIONS 1. SOLVE FOR X 2. DO THE ADDITION STEP FIRST
Advertisements

Accredited Supplier Communications Plan FY09-10 Q1 to Q4 May 2009, v2.0 Home Access Marketing & Stakeholder Engagement Team.
Feichter_DPG-SYKL03_Bild-01. Feichter_DPG-SYKL03_Bild-02.
Copyright © The McGraw-Hill Companies, Inc. Permission required for reproduction or display. *See PowerPoint Lecture Outline for a complete, ready-made.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 116.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Appendix 01.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 107.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 40.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 28.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 44.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 38.
1 Copyright © 2013 Elsevier Inc. All rights reserved. Chapter 75.
National Aeronautics and Space Administration Wind turbines generate electric power from clean renewable sources. They must be robust and.
Chapter 1 Image Slides Copyright © The McGraw-Hill Companies, Inc. Permission required for reproduction or display.
0 - 0.
MULTIPLICATION EQUATIONS 1. SOLVE FOR X 3. WHAT EVER YOU DO TO ONE SIDE YOU HAVE TO DO TO THE OTHER 2. DIVIDE BY THE NUMBER IN FRONT OF THE VARIABLE.
SUBTRACTING INTEGERS 1. CHANGE THE SUBTRACTION SIGN TO ADDITION
MULT. INTEGERS 1. IF THE SIGNS ARE THE SAME THE ANSWER IS POSITIVE 2. IF THE SIGNS ARE DIFFERENT THE ANSWER IS NEGATIVE.
Addition Facts
Photo Slideshow Instructions (delete before presenting or this page will show when slideshow loops) 1.Set PowerPoint to work in Outline. View/Normal click.
$100 $200 $300 $400 $100 $200 $300 $400 $100 $200 $300 $400 $100 $200 $300 $400 $100 $200 $300 $400.
Pole Placement.
Break Time Remaining 10:00.
This module: Telling the time
Accelerating Wind Energy 1 A physical approach to monitor tower base fatigue loads using standard signals Thesis presentation Freark Koopman Committee:
Scheduled Model Predictive Control of Wind turbines in Above Rated Wind Avishek Kumar Dr Karl Stol Department of Mechanical Engineering.
1 © 2011 The MathWorks, Inc. Designing Control Systems for Wind Turbines Steve Miller Technical Marketing, Physical Modeling MathWorks Root LocusBode Plot.
0 - 1 © 2007 Texas Instruments Inc, Content developed in partnership with Tel-Aviv University From MATLAB ® and Simulink ® to Real Time with TI DSPs Vehicle.
15. Oktober Oktober Oktober 2012.
We are learning how to read the 24 hour clock
Using Technology Effectively Caroline Hargrove World Rowing Coaches Conference 22 nd January 2011.
DC Machine.
MOTION. 01. When an object’s distance from another object is changing, it is in ___.
Addition 1’s to 20.
Test B, 100 Subtraction Facts
: 3 00.
5 minutes.
Week 1.
Copyright © 2014 John Wiley & Sons, Inc. All rights reserved.
Visions of Australia – Regional Exhibition Touring Fund Applicant organisation Exhibition title Exhibition Sample Support Material Instructions 1) Please.
Clock will move after 1 minute
Copyright © 2014 John Wiley & Sons, Inc. All rights reserved.
Rolling, Torque, and Angular Momentum
The Influence of Aerodynamic Damping in the Seismic Response of HAWTs
Chapter 13: Digital Control Systems 1 ©2000, John Wiley & Sons, Inc. Nise/Control Systems Engineering, 3/e Chapter 13 Digital Control Systems.
Select a time to count down from the clock above
Dave Corbus, Dan Prascher Presentation at the 24 th ASME Wind Energy Symposium January 10-13, 2005 Analysis and Comparison of Test Results from the Small.
Murach’s OS/390 and z/OS JCLChapter 16, Slide 1 © 2002, Mike Murach & Associates, Inc.
Delft University of Technology Aeroelastic Modeling and Comparison of Advanced Active Flap Control Concepts for Load Reduction on the Upwind.
A Comparison of Multi-Blade Coordinate Transformation and Direct Periodic Techniques for Wind Turbine Control Design Karl Stol Wind Energy Symposium AIAA.
Disturbance Accommodating Control of Floating Wind Turbines
Hazim Namik Department of Mechanical Engineering
Controller design for a wind farm, considering both power and load aspects Maryam Soleimanzadeh Controller design for a wind farm, considering both power.
Alan D. Wright Lee J. Fingersh National Renewable Energy Laboratory
Active Control Systems for Wind Turbines
Where: I T = moment of inertia of turbine rotor.  T = angular shaft speed. T E = mechanical torque necessary to turn the generator. T A = aerodynamic.
Jarred Morales and Cody Beckemeyer Advisior: Dr. Junkun Ma ET 483.
Smart Rotor Control of Wind Turbines Using Trailing Edge Flaps Matthew A. Lackner and Gijs van Kuik January 6, 2009 Technical University of Delft University.
Wind Turbine Aerodynamics Section 2 – Power Control E-Learning UNESCO ENEA Casaccia - February Fabrizio Sardella.
AIAA Aerospace Sciences Meeting 2009
WIND TURBINE CONTROL DESIGN TO REDUCE CAPITAL COSTS P. Jeff Darrow(Colorado School of Mines) Alan Wright(National Renewable Energy Laboratory) Kathryn.
Period 7.   The more curved side generates low air pressures, due to more surface area. While high pressure air, pushes on the other side of the design.
Aerodynamic forces on the blade, COP, Optimum blade profiles
Advanced Controls Research Alan D. Wright Lee Fingersh Maureen Hand Jason Jonkman Gunjit Bir 2006 Wind Program Peer Review May 10, 2006.
Chapter 8, pp (*figures from text)
Classical Design of Wind Turbine Controllers
Wind Turbine Control System
Dynamic Controllers for Wind Turbines
ME 252 Thermal-Fluid Systems G. Kallio
Presentation transcript:

11 June 2009 American Control ConferenceSt. Louis, MO Control of Wind Turbines: Past, Present and Future

11 June 2009 American Control ConferenceSt. Louis, MO OUTLINE HAWT TURBINE OVERVIEW BASIC TURBINE CONTROL – TORQUE AND PITCH CONTROL LOOPS – BASIC TURBINE MODEL – PITCH ORIENTATION – POWER COEFFICIENT – REGIONS OF OPERATION – BASIC TORQUE/ PITCH CONTROLLER SIMULATION DESIGN TOOLS ADVANCED CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 3 TURBINE OVERVIEW Upwind HAWT Horizontal Axis Turbine Types Fixed SpeedVariable Speed FIXED PITCHLow Power VARIABLE PITCH Utility Scale Turbines ½ MW and Larger CART3 [figure courtesy of US Dept. of Energy]

American Control Conference, 11 June 2009 Laks, Pao & Wright 4 BASIC TURBINE CONTROL Wind w d Speed Sensor Pitch Motor Rotor Speed Pitch Angle Load Torque c e Torque Controller Pitch Controller K KaKa a Power Converter

American Control Conference, 11 June 2009 Laks, Pao & Wright 5 OPERATIONAL CONTROLLER Wind w d Rotor Speed Pitch Angle Load Torque c e Torque Controller Pitch Controller K KaKa a BASIC TURBINE CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 6 Tower Nacelle Blade Pitch Angle Rotor Wind Direction Blade Direction BASIC TURBINE CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 7 Wind Velocity: w Relative Velocity BASIC TURBINE CONTROL Wind Direction Blade Direction Blade Velocity:

American Control Conference, 11 June 2009 Laks, Pao & Wright 8 Thrust Relative Velocity Lift (torque) BASIC TURBINE CONTROL Wind Direction Blade Direction Tip Speed Ratio:

American Control Conference, 11 June 2009 Laks, Pao & Wright 9 Available Wind Power Power Harvested Region 2: BASIC TURBINE CONTROL Normalized Torque Versus Tip Speed Ratio Normalized Torque

American Control Conference, 11 June 2009 Laks, Pao & Wright 10 Region 2: torque control at optimal ( c = a* ) Region 3: regulate speed/power Region 4: shut down (cut out) BASIC TURBINE CONTROL (Rated Power)

American Control Conference, 11 June 2009 Laks, Pao & Wright 11 BASIC TURBINE CONTROL Cut-Out: Once wind speed > 28m/sec – Pitch is ramped up to near perpendicular – Torque is held constant until generator speed is < 200 rpm and then regulated with a 2 nd PID (no brake!) Regions 1 & 2: Generator speed < 1800 rpm – Pitch Held constant at * – Torque adjusted according to sqare law once generator speed is > 200 rpm w Region 3: Generator speed > 1800 rpm – Torque is held constant at rated (~3500 KN-m) – Pitch is adjusted based on speed error using a PID controller.

American Control Conference, 11 June 2009 Laks, Pao & Wright 12 PID Pitch Loop Response BASIC TURBINE CONTROL (HSSV = gen. speed)

American Control Conference, 11 June 2009 Laks, Pao & Wright 13 BASIC TURBINE CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 14 Wind Modeling System Simulation FAST Structural and aeroelastic simulation of two and three bladed wind turbines Dynamically linked with simulink TURBSIM Generation of model-based wind fields for input to simulation Simulink MathWorks integration engine DESIGN TOOLS

American Control Conference, 11 June 2009 Laks, Pao & Wright 15 ADVANCED TURBINE CONTROL Tower Flexible Modes (Fore-Aft, Side-Side) Blade Flexible Modes (Flap & Edge) Drive Train Torsional Compliance

American Control Conference, 11 June 2009 Laks, Pao & Wright 16 Numerically Linearized Model ADVANCED TURBINE CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 17 ADVANCED TURBINE CONTROL ADD FEEDBACK FROM INDIVIDUAL BLADES INSTRUMENT TOWER TO DETECT SWAY USE MIMO DESIGN TECHNIQUES – INDIVIDUAL BLADE PITCH – INCORPORATE WIND DISTURBANCE MODELS TORQUE CONTROL TORQUE CONTROL TORQUE CONTROL TORQUE CONTROL TORQUE CONTROL TORQUE CONTROL MIMO CONTROL MIMO CONTROL TURBINE Individual Pitch Torque Command Blade Measurements Generator Speed Tower Measurements

American Control Conference, 11 June 2009 Laks, Pao & Wright 18 TURBINE DIST DELAY LIDAR BASED FEEDFORWARD – MEASURE WIND UPSTREAM FROM TURBINE – REAL TIME WIND SPEED – PRE-VIEW OF WIND SPEED CHANGES ADVANCED TURBINE CONTROL

American Control Conference, 11 June 2009 Laks, Pao & Wright 19 ADVANCED TURBINE CONTROL Low Speed Shaft Response Speed [rpm] PID FB FBFFprev Blade Flap Bending Moment Response Rm [kN-m] Time [sec]

American Control Conference, 11 June 2009 Laks, Pao & Wright 20 SUMMARY Operational controllers can be constructed using basic parallel torque and collective pitch controllers. There are public domain tools and modelling codes available so that you can get started relatively quickly. MIMO Control approaches can improve load mitigation with additional instrumentation on the turbine. Advanced wind measurement technologies hold the promise of great improvements in performance.

11 June 2009 American Control ConferenceSt. Louis, MO Control of Wind Turbines: Past, Present and Future