The Power to Change Cost Reduction Potentials for Solar and Wind 1 - - PowerPoint PPT Presentation

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The Power to Change Cost Reduction Potentials for Solar and Wind 1 - - PowerPoint PPT Presentation

The Power to Change Cost Reduction Potentials for Solar and Wind 1 Continued cost reductions are vital To rapidly meet economic, environmental and social policy goals Accelerating deployment is crucial to keeping open ambitious climate


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The Power to Change

Cost Reduction Potentials for Solar and Wind

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Continued cost reductions are vital To rapidly meet economic, environmental and social policy goals Accelerating deployment is crucial to keeping open ambitious climate targets Focus will shift sooner rather than later from competiveness to costs of transition Markets need to be broadened and deepened

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Methodology Top-down learning curve analysis Detailed bottom-up technology-based analysis Approaches complement and inform each other

1992 1998 2002 2004 2011 2014 2025 0.10 1.00 10.00 100.00 1 10 100 1000 10000 100000 1000000 Global average module selling price (2015 USD/W) Cumulative production volume (MW) 2006 c-Si price increase due to polysilicon shortage 22% price reduction for each doubling of cumulative volume 2006 c-Si price increase due to polysilicon shortage 22% price reduction for each doubling of cumulative volume 2006 c-Si price increase due to polysilicon shortage 22% price reduction for each doubling of cumulative volume
  • c-Si
  • CdTe
2006 c-Si price increase due to polysilicon shortage 22% price reduction for each doubling of cumulative volume
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Cost reduction potentials to 2025

Global weighted average data Investment costs (USD/kW) Percent change Capacity factor Percent change LCOE (USD/kWh) Percent change

2015 2025 2015 2025 2015 2025 Solar PV 1820 830

  • 57%

18% 18% 51 0.13 0.06

  • 64%

CSP (PTC) 5 550 3 700

  • 33%

41% 45% 8.4% 0.15 -0.19 0.09 -0.12

  • 37%

CSP (ST) 5 700 3 600

  • 37%

46% 49% 7.6% 0.15 -0.19 0.08 -0.11

  • 43%

Onshore wind 1 560 1 370

  • 12%

27% 30% 11% 0.07 0.05

  • 26%

Offshore wind 4650 3950

  • 15%?

43% 45% 5% 0.18? 0.12

  • 33%

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Continued technology innovation Growing scale of markets Costs will continue to fall for solar and wind power technologies to 2025 Large cost differentials Policy framework critical to unlocking largest savings

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New renewable power technologies: rapidly maturing

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SOLAR PHOTOVOLTAICS

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Solar PV: Installed system costs to 2025 BoS dominates potential Will require action by policy makers Large average cost reduction potential

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Solar PV LCOE to 2025

Highly dependent on BoS convergence scenario

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ONSHORE WIND

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Onshore wind

Historically every doubling of global capacity has meant: 8% decline in investment costs 12% decline in LCOE

Capacity Hub Height Rotor diameter Yield (for same wind resource) Specific kW costs Increase

Decrease (for same wind resource)

Technology innovation

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Onshore wind costs

Capacity factor drives cost reduction potential

  • 26% for global LCOE

Transition to today’s best technology and new Main driver - CF growth

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OFFSHORE WIND

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2000 to 2015 a shift to deeper waters further offshore

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Offshore wind: Installed costs

There are incremental opportunities to reduce capital costs by 2025 across the entire wind farm, from interconnection to project development Inst. costs Reduction driven by: ▪ construction and installation (about 60% of total cost reduction potential) Other ▪ Incremental cost reductions for turbine rotors and nacelles

Projected installed cost reductions for offshore wind, 2015 to 2025

2015-2025 Installed Cost Reduction About 15%

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Offshore wind: LCOE

WACC ▪ Reduced cost of capital

(larger pool of experienced developers, maturity of local markets, decreased perceived risks.

Larger Turbines ▪ shift from large 6 MW turbines to very large (8 MW+) ▪ blade and drivetrain improvements

Increased capacity factors Lower downtime Lower O&M Costs

Costs fall by one-third

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CONCENTRATING SOLAR POWER

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Concentrating solar power

Deployment in its infancy! CAPEX could decline by one-third by 2025

PT

  • 31% CAPEX (15-25)

▪ USD 5550/kW to

USD 3800/kW 2025

ST

  • 35% CAPEX (15-25)

▪ USD 5450/kW to USD 3600/kW

Indirect EPC costs + Owner’s costs also major contributors to reduction potential

Plant Efficiency: 15% currently to 17% by 2025 Plant Efficiency: 15.5% currently to 18% by 2025

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Concentrating solar power

By 2025 the LCOE of both parabolic through and solar tower technologies will decrease between 37% and 43%

Main drivers Lower capital investment costs Higher efficiency Reduced WACC

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Cost reduction drivers are changing

Low equipment costs change the dynamics Balance of project costs, O&M, financing will grow in importance In some cases more challenging to unlock and integration issues need to be anticipated But cost differentials are large and the policy levers exist

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www.irena.org mtaylor@irena.org

Cost reductions to continue The winners are customers, the environment and our future