energy supply from wind power chris jermy 24 th february 2005

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Energy Energy Supply Supply from Wind from Wind Power Power Chris Jermy Chris Jermy 24 24 th th February 2005 February 2005

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Manufacturing Constraints To account for the variability of future markets, technological advance and the growth of the wind turbine manufacturing industry 3 different scenarios are going to be forecasted in order to determine the number of turbines available… The 3 scenarios used will be:Optimistic Pessimistic Probable

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Page 1: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Energy Energy Supply Supply

from Wind from Wind PowerPowerChris JermyChris Jermy2424thth February 2005 February 2005

Page 2: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Structure of this Report

Potential output firstly needs consideration of: • Manufacturing constraints• Future turbine outputs

And Deeper Considerations:• Load Factors and Breakdowns• Further constraints

The British Wind Energy Association (BWEA) will be referred to for much of this presentation as its resources were highly relevant.

Page 3: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Manufacturing Manufacturing ConstraintsConstraints

To account for the variability of future markets, technological advance and the growth of the wind turbine manufacturing industry 3 different scenarios are going to be forecasted in order to determine the number of turbines available… The 3 scenarios used will be: Optimistic

Pessimistic  Probable

Page 4: Energy Supply from Wind Power Chris Jermy 24 th February 2005

How many turbines will we How many turbines will we have?have?

Year

No. turbines manufactured

per day

No. manufactured per year Cumulative stock

Current 0.66 0.66 0.66 241 241 241 1186 1186 1186

2010 0.70 0.67 0.70 256 244 255 2,466 2,406 2,461

2015 0.80 0.69 0.84 292 252 306 3,926 3,666 3,991

2020 0.95 0.73 0.95 347 266 346 5,661 4,996 5,721

2025 1.15 0.79 1.07 420 288 390 7,761 6,436 7,671

2030 1.30 0.85 1.15 840 310 420 9,861 7,986 9,771

Page 5: Energy Supply from Wind Power Chris Jermy 24 th February 2005

050

100150200250300350400450500

0 5 10 15 20 25No

of T

urbi

nes

man

ufac

ture

d pe

r ye

ar

Optimistic Pessimistic Probable

Years from Present

Manufacturing Manufacturing Capabilities based on Capabilities based on

the 3 scenariosthe 3 scenarios

In the ‘probable’ case manufacturing rates begin to steady off as demand decreases.

Industry reacts stagnantly to demand in the pessimistic case

Massive growth of industry fed by demand of cheapening technologies

Page 6: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Future Wind Turbine Future Wind Turbine OutputsOutputs

Now we know how many turbines we could have, we now need to know how powerful they will be in the future…

The BWEA give the maximum outputs that can be reached for both off and onshore wind turbines. - Onshore turbines in the future will reach ~2MWbut this may effect manufacturing rates so we will stick to outputs similar to Swaffham’s 1.5MW’s.

- The maximum for offshore turbines will be ~5MW but again we will be conservative and say 3MW.

Page 7: Energy Supply from Wind Power Chris Jermy 24 th February 2005

The BWEA are much more optimistic towards onshore wind turbines so for the sake of estimation we will say that the ratio of future onshore to offshore wind turbine deployment will be 70/30 in favour of onshore wind farms, which will stay constant in my predictions.

The total number of turbines were rationed according to the 70/30 split and multiplied by the specified outputs from the previous slide of 1.5MW and 3MW respectively.

Estimating the Output of the Onshore and Offshore Turbines

Page 8: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Total Energy from Total Energy from available wind turbinesavailable wind turbines

YearTotal no of

turbinesEnergy from

onshore (MW)Energy from

offshore (MW) Total Energy (MW)

2010 2,466 2,406 2,461 2,589 2526 2584 2,219 2,165 2,215 4,808 4,691 4,796

2015 3,926 3,666 3,991 4,122 3,870 4,190 3,535 3,317 3,591 7657 7,187 7,781

2020 5,661 4,996 5,721 5,944 5,245 6,007 5,094 4,720 5,149 11,038 9,965 11,156

2025 7,761 6,436 7,671 8,149 6,758 8,054 6,985 6,082 6,904 15,134 12,840 14,958

2030 9,861 7,986 9,771 10,354 8,385 10,26

0 8,875 7,187 8,794 19,229 15,572 19,054

Page 9: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Final CalculationsFinal CalculationsYear

Total Energy (MW) Peta joules

2010 4,808 4,691 4,796 151.7 148.0 151.32015 7657 7,187 7,781 242.6 226.8 226.8

2020 11,038 9,965 11,156 348.3 314.5 352.0

2025 15,134 12,840 14,958 477.6 405.2 472.0

2030 19,229 15,572 19,054 606.8 491.4 601.2

Page 10: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Further CalculationsFurther Calculations

Energy available after considering the Load factor for

the probable scenario(PJ)

Energy available after considering the No of failures

~5% (PJ)

45.4 43.1

68.0 64.6

105.6 100.3

141.6 134.5

180.36 171.3

Page 11: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Further ConsiderationsFurther Considerations Wind resource is variable Landscape designations-

SSSI’s Urban areas Civil and military airports Grid Transport infrastructure

Page 12: Energy Supply from Wind Power Chris Jermy 24 th February 2005

Examples of Constraints Examples of Constraints on Wind Energyon Wind Energy

This is an area near Southampton with restriction zones around residential localities

This is an area of the South East with the most useful average wind speed of 7 to 8 m/s.

Page 13: Energy Supply from Wind Power Chris Jermy 24 th February 2005

ConclusionsConclusionsCould have a vast resource in 2030, however the unpredictability of growth lies much on the shoulders of government policy and local authority implementation, as finding appropriate areas on land (where the most suitable resource is) is fraught with opposition.