Enviria.com BladeCleaning® - Limpieza de palas The solution to power loss BladeCleaning ® www.bladecleaning.com Limpieza de Palas.

Slides:



Advertisements
Similar presentations
Aerodynamics of Wind Turbine Control Systems By Chawin Chantharasenawong 21 August 2009.
Advertisements

SPCC 9424 Eton Ave. Unit A Chatsworth, CA Solar Panel Dust Cleaner Waterless Automatic Efficient.
Wind Turbine Session 4.
Lecture 30 November 4, 2013 ECEN 2060 Lecture 30 Fall 2013.
Wind Farm Noise Impact Assessment
Wind-Diesel Hybrid Power Trials and Tribulations at Ascension Island Gary Seifert, EE PE Kurt Myers, MSEE PE Idaho National Laboratory March 2006.
A Methodology for a Decision Support Tool for a Tidal Stream Device
Difficulties Integrating Wind Generation Into Urban Energy Load Russell Bigley Shane Motley Keith Parks.
Deep Water Offshore Wind Energy By Paul D. Sclavounos Horns Rev Wind Farm (Denmark) - Rated Power 160 MW – Water Depth 10-15m.
World Market Update 2002 March Page 1 - Market Status - Demand Side Supply Side - Market Forecast - Forecast until 2007 Predictions
Parameterised turbine performance Power Curve Working Group – Glasgow, 16 December 2014 Stuart Baylis, Matthew Colls, Przemek Marek, Alex Head.
Development of Turbine Cascades
Yet Another Four Losses in Turbines - 2 P M V Subbarao Professor Mechanical Engineering Department A Set of Losses not Strictly due to Geometry of Blading….
The transmission of energy from an object passing through a fluid to the fluid is known as fluid resistance. The resistance of an object passing through.
The Centrifugal Pump.
Wind Energy Chemical Engineering Seminar By: Jacqueline Milkovich.
Analysis of wind energy with pumped storage systems in autonomous islands George Caralis Mechanical Engineer NTUA National Technical University of Athens.
Alternative Energy Sources. Wind Turbines Wind: A General Description Wind energy- is a renewable resource that is used to create electrical energy.
Design of Wind Turbines P M V Subbarao Professor Mechanical Engineering Department Selection of Optimal Geometrical & Kinematic Variables ….
Rotor Track and Balance
What makes the TG101 better!
Power Generation from Renewable Energy Sources
Wind Power Station Utilizing Lift of a Rotating Cylinder
 Winds are caused by the uneven heating of the atmosphere by the sun, the irregularities of the earth's surface, and rotation of the earth.  Wind flow.
WIND POWER. Introduction  Energy is a major input for overall socio- economic development of any society  The prices of the fossil fuels steeply increasing.
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.
The Answer is Blowing in the Wind… The Power of Wind.
Wind Energy Basics. Power from the wind o The kinetic energy of wind is harvested using wind turbines to generate electricty. o Among various renewable.
Cody Beckemeyer Advisors: Junkun Ma Cris Koutsougeras ET 494 Fall 2013.
Details of a Steam Path Audit
Hydroelectric Power Plant -Turbine wheel consist of at least one moving part called rotor ( a shaft with blades attached ). -Moving fluid change pressure.
Introduction people business vision and goals Product design aims features and benefits competitive comparison current status What we are looking for manufacturing.
Wind Engineering Module 4.1 Blade Element Theory
LESSON LD04 Aerodynamics
Wind Turbine Aerodynamics Section 2 – Power Control E-Learning UNESCO ENEA Casaccia - February Fabrizio Sardella.
ECE 7800: Renewable Energy Systems
Renewable Energy Research Laboratory University of Massachusetts Wind Energy: State-of-the Art and Future Trends Southwest Renewable Energy Conference.
Wind Turbine Aerodynamics Section 1 – Basic Principles E-Learning UNESCO ENEA Casaccia - February Fabrizio Sardella.
Last days of suppliers hegemony: customer driven market has come Athens, March 1 st, 2006 Ester Cámara Operations Manager Iberdrola Renewables Energies.
Power Generation from Renewable Energy Sources Fall 2012 Instructor: Xiaodong Chu : Office Tel.:
Wind Turbine Design Methods
Horizontal Axis Wind Turbine Systems: Optimization Using Genetic Algorithms J. Y. Grandidier, Valorem, 180 Rue du Marechal Leclerc, F B ´ Begles,
1 Encotech Steam Path Audits Presentation. 2 Overview What is a Steam Path Audit? Benefits Cost Chronology of a Steam Path Audit STPE Results.
An Overview of the Technology and Economics of Offshore Wind Farms
A Presentation On Construction Of Turbo Generator
Horizontal Axis Fan design. HAWTs Vs. VAWTs -HAWTs should be used since it is more effective in producing laminar flow and aerodynamics compared to VAWTs.
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.
Engineering, Policy, Finance
Aerodynamic forces on the blade, COP, Optimum blade profiles
Flight Investigations TEXT BOOK CHAPTER 16 PAGE
SHP – Columbia University
Wind and Water Power pp Wind generators  Horizontal Axis— higher positioning of rotor blades  Vertical Axis— catches wind closer to the ground.
Power Generation from Renewable Energy Sources Fall 2013 Instructor: Xiaodong Chu : Office Tel.:
CENTRIFUGAL PUMPS:- DESIGN & PERFORMANCE Ir. N. Jayaseelan 2012.
NREL is a national laboratory of the U.S. Department of Energy Office of Energy Efficiency and Renewable Energy operated by the Alliance for Sustainable.
Date of download: 5/31/2016 Copyright © ASME. All rights reserved. From: Aerodynamic Performance of a Small Horizontal Axis Wind Turbine J. Sol. Energy.
Dr Ravi Kumar Puli National Institute of Technology WARANGAL.
Tidal power can be classified into two main types
Wind Turbine
Date of download: 10/27/2017 Copyright © ASME. All rights reserved.
Center for Advanced Life Cycle Engineering (CALCE)
BRAKES BY : VISHAKH V.
Department of Electrical Engineering
Fluid Dynamic Principles to Generate Axial Induction
Engineering, Policy, Finance
Theory and its application
WELCOME.
ME 252 Thermal-Fluid Systems G. Kallio
Wind Turbine Types.
Presentation transcript:

enviria.com BladeCleaning® - Limpieza de palas The solution to power loss BladeCleaning ® Limpieza de Palas

enviria.com BladeCleaning® - Limpieza de palas JUSTIFICATION Double Stall – Aerodynamic failure

enviria.com BladeCleaning® - Limpieza de palas 3 Double Stall – Aerodynamic failure Power losses up to 50 % from wind speeds over 10 m/s. Normal power curve Double Stall affected power curve

enviria.com BladeCleaning® - Limpieza de palas 4 Double Stall – Cause Accumulation of insects on the leading edge of the blades

enviria.com BladeCleaning® - Limpieza de palas 5 Double Stall – Consequences Expected consequences in wind farm management

enviria.com BladeCleaning® - Limpieza de palas 6 Double Stall – Process Low wind speed Insects fly around the turbines attracted by the colour and brightness Rotating blades pass by the clouds of insects causing accumulation of dirt on the leading edge High wind speed Insects do not fly at high wind speeds Blade roughness causes an unexpected aerodynamic failure (double stall)

enviria.com BladeCleaning® - Limpieza de palas 7 Double Stall – References Double stall caused by insects is widely documented

enviria.com BladeCleaning® - Limpieza de palas SOLUTION APPROACH BladeCleaning ® System

enviria.com BladeCleaning® - Limpieza de palas 9 Double Stall – Solutions Manual cleaning of the blades produces the recovery of the turbine’s power curve

enviria.com BladeCleaning® - Limpieza de palas 10 Double Stall – Solutions Manual cleaning is unsuitable: Turbine has to be stopped No wind is required to operate A minimum of three workmen is needed Cleaning time: 4 hours/WTG Turbine is loosing power until conditions are appropriate to perform a manual cleaning High operational cost Depends on the availability of specialized equipment Depends on the availability of specialized personnel Risky operation

enviria.com BladeCleaning® - Limpieza de palas 11 Double Stall – Solutions Natural sequence:

enviria.com BladeCleaning® - Limpieza de palas 12 Double Stall – Solutions Design of a device that imitates a rainfall event: Simple Cost effective Does not require stopping of turbine Does not require access to rotor Does not require specific qualification Does not require direct contact with the blade Independent of wind farm operation Minimum maintenance Robust Reliable

enviria.com BladeCleaning® - Limpieza de palas 13 BladeCleaning ® - Operation Water streams are projected against the wind; the cloud of water generated is ‘cut’ by the passing blade Water impact, moisturising, degreasing and dragging effects produce: Decomposition of attached particles on the blade Accumulated material detaches from the blade surface Centrifugal force pushes rests of insects to end of blade Material leaves the blade at the tip

enviria.com BladeCleaning® - Limpieza de palas 14 BladeCleaning ® - Operation The cleaning process is performed while the turbine is in operation, this means: The angle of impact between the blade and the water is the same as the angle between blade and flying insects The efficiency of the cleaning is maximum on the leading edge of the blade. The leading edge:  Is the section of the blade more susceptible to soil  Plays a key role in the efficiency of the turbine

enviria.com BladeCleaning® - Limpieza de palas 15 BladeCleaning ® - Operation The device is orientated against the dominant wind direction The cleaning fluid is sprinkled (against the wind) at a given pressure This generates a cloud of water + cleaning agent that is ‘cut’ by the passing blades The whole surface of the blade is reached: Inner side of blade (direct flow) Leading edge (passing blade impacts with the flow) Outer side (returning flow – wind effect)

enviria.com BladeCleaning® - Limpieza de palas 16 BladeCleaning ® - Operation Wind Rotor direction Impact on inner side Impact on leading edge Impact on outer side Water + cleaning agent cloud

enviria.com BladeCleaning® - Limpieza de palas 17 BladeCleaning ® - Patent Patented system and utility model Registry of mark

enviria.com BladeCleaning® - Limpieza de palas SYSTEM OPERATION BladeCleaning ® System

enviria.com BladeCleaning® - Limpieza de palas 19 BladeCleaning ® - Operation Turbine always in operation Cleaning performance: 2 WTG/h Flexibility System can be deployed on any turbine. Completely adaptable to the requirements of any wind farm.  Stall controlled turbines  Pitch controlled turbines Applications  Dirt (in general)  Insects  Dust  Oil  Ice

enviria.com BladeCleaning® - Limpieza de palas 20 BladeCleaning ® - Results

enviria.com BladeCleaning® - Limpieza de palas 21 BladeCleaning ® - Application sequence Dirt in blades detected (Loss on power curve) Dirt in blades detected (Loss on power curve) Recovery of power curve Application BladeCleaning® Application BladeCleaning® No stopping of turbine

enviria.com BladeCleaning® - Limpieza de palas 22 BladeCleaning® Services 1. Loss of production assessment 2. Installation of fixed BladeCleaning® devices on turbines 3. Performance of autonomous cleaning operations

enviria.com BladeCleaning® - Limpieza de palas 23 Real production analysis Comparison against theoretical production Evaluation of loss of production Economic analysis BladeCleaning ® Services Loss of production assessment

enviria.com BladeCleaning® - Limpieza de palas 24 Stopping of turbine: 3 hours Attachment device-tower: magnetic Immediately operational Adaptable to any make of turbine No external power source needed BladeCleaning ® Services Installation

enviria.com BladeCleaning® - Limpieza de palas 25 BladeCleaning ® Services Cleaning operation

enviria.com BladeCleaning® - Limpieza de palas 26 BladeCleaning ® Services Cleaning operation – Dragging effect

enviria.com BladeCleaning® - Limpieza de palas 27 BladeCleaning ® Customized design Recurrent cleaning operations Autonomous Immediate No stopping of turbine

enviria.com BladeCleaning® - Limpieza de palas 28 BladeCleaning ® Service includes: Wind farm logbook maintenance Continued improvement assessment

enviria.com BladeCleaning® - Limpieza de palas BladeCleaning ® Economic analysis

enviria.com BladeCleaning® - Limpieza de palas 30 BladeCleaning® - Economic analysis Evaluation of the observed power curve: 50 % Loss of production 50 %

enviria.com BladeCleaning® - Limpieza de palas 31 BladeCleaning ® - Economic analysis Calculation for a typical 1 MW wind farm Nominal power:1.000 kW Equivalent annual hours:2.500 h Theoretical production: kWh Selling price:0,08 €/kWh Predicted revenue: €/year Double Stall consequences Average loss in power curve:20 % Loss of production: kWh Loss in revenue: €/year BladeCleaning® system may increase revenue up to €/year/MW

enviria.com BladeCleaning® - Limpieza de palas BladeCleaning ® Contact (+34) Presentation by enviria enviria.com