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The Growth of Distributed Solar Power

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Quick overview of the potential and growth of distributed solar power generation.
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NYDOCS1 - #771442v40 /1 Growth of Distributed Solar Power Iga Hallberg - Vice President Business Development
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Page 1: The Growth of Distributed Solar Power

NYDOCS1 - #771442v40 /1

Growth of Distributed Solar Power

Iga Hallberg - Vice President Business Development

Growth of Distributed Solar Power

Iga Hallberg - Vice President Business Development

Page 2: The Growth of Distributed Solar Power

Energy Generation and the Terawatt (TW) Challenge• Humanity uses 12 TW of power today

– 1 TW = 1,000 GW (Gigawatts)

• World will need 15 TW by 2012• Only 5 known sources of energy are available on a TW scale*

– Fossil fuels: Coal, oil, gas– Nuclear fuels– Solar

• Only inherently distributed solution• No fuel cost

*Prof. Nathan Lewis,

http://nsl.caltech.edu/

Page 3: The Growth of Distributed Solar Power

Sun – Our Free Fuel!The earth receives more energy from the sun in just over one hour than the world uses in an entire year

Page 4: The Growth of Distributed Solar Power

Global solar resources

4

Page 5: The Growth of Distributed Solar Power

Northern Suburb of Tokyo

Page 6: The Growth of Distributed Solar Power

Global Solar Demand

Source: Jeffries International, 2010

Page 7: The Growth of Distributed Solar Power

Policy Driven DemandMW

Page 8: The Growth of Distributed Solar Power

PV and Renewable Incentives

8

Page 9: The Growth of Distributed Solar Power
Page 10: The Growth of Distributed Solar Power

Source: Christopher O’Brien of Sharp Solar at EESI climate change meeting 2005

Example of successful long term solar incentives

Page 11: The Growth of Distributed Solar Power

Growing Competitiveness of Solar

Source: McKinsey.(1) kWh = kilowatt hour; kWp = kilowatt peak; TWh = terawatt hour; Wp = watt peak; the annual solar yield is the amount of electricity

generated by a south-facing 1 kW peak-rated module in 1 year, or the equivalent number of hours that the module operates at peak rating.(2) Tier 4 and 5 are names of regulated forms of electricity generation and usage.(3) Unsubsidized cost to end users of solar energy equals cost of conventional electricity.

Annual solar energy yield (kWh/kWp(1))

Grid Parity as of(3)

Today

Size of electricity market TWh a year(1)

Av

era

ge

po

we

r p

ric

e p

er

ho

us

eh

old

($

/kW

h(1

) )

1,000 1,500 2,000500

$0.3

$0.2

$0.1

$0.0

Co

st

pe

r w

att

at

pe

ak

ho

urs

($

/Wp

(1) )

China

India

Greece

Texas

Australia

SpainNew YorkFranceFinland

Japan

Germany

Sweden

Netherlands

Denmark

California Tier 4(2)

2020

California Tier 5(2)

Hawaii

Italy

California

$8.0

$6.0

$4.0

$2.0

Norway

United Kingdom

South Korea

Page 12: The Growth of Distributed Solar Power

In deregulated regions, fuel price depends on the marginal fuel

Marginal Fuel Type for Electricity Production

RMP

Source: Energy Velocity, NERC ES&D

Hydro

Coal

Natural Gas

Primary Fuel Type

Petro

Discussion

Prices of the fuel type that sets the marginal price of electricity most impact electricity price

Natural gas sets the price for electricity in the Northeast, California, and Texas

This coincides with the regions with the highest average electricity prices and regions with deregulated markets

Deregulated Regions

Page 13: The Growth of Distributed Solar Power

HelioVolt Introduction• Commercializing high-efficiency thin-film modules based on a

proprietary CIGS manufacturing process• Founded in 2001 in Austin TX

– Headquarters, Manufacturing and R&D (122,400 sqft)– 20 MW manufacturing capacity– Customer samples – Q1 2010; Certified product - Q3 2010– Production ramp Factory 1 during H1 2010– Production ramp Factory 2 during H1 2012

15

Page 14: The Growth of Distributed Solar Power

HelioVolt Confidential and Proprietary 16

Our Process vs. AlternativesOur Process

Glass In Module Out

GlassPreparation

FASST® CIGSProcess

ModuleFormation

Final Assembly& Test

Competitors’ CIGS Cell-Based Processes

Substrate In Module Out

SubstratePreparation

CIGSProcess

Contact & GridFormation Cell Cut & Sort Cell Stringing

Silicon Process

Polysilicon Ingot Wafer Solar Cell Solar Module

Final Assembly& Test

Source: Wall Street research.

Page 15: The Growth of Distributed Solar Power

Solar Product Availability• Crystalline Silicon ~ 18% conversion efficiency• Multi-crystalline Silicon ~ 14%

• Amorphous Silicon ~ 6-8%– Flexible and rigid

• Cadmium Telluride ~ 9-10%– First Solar capturing significant market share for

central power applications• CIS/CIGS ~10-12%

– New commercial availability entering the market in 2010

85% of current market

15% of current marketbut fastest growing segment

17

Page 16: The Growth of Distributed Solar Power

Final Assembly& Test

ModuleFormation

FASST® CIGSProcess

GlassPreparation

HelioVolt Module Production Process

Glass In

Module Out

Page 17: The Growth of Distributed Solar Power

Competitive Manufacturing Cost Potential is Key!

Source: Greentech Media and Prometheus Institute.

$1.2

6

$0.9

8

$0.8

9

$0.8

0

$61

$174

$100

$54$76

$105

$52

$65

$0.00

$0.50

$1.00

$1.50

$2.00

$2.50

$3.00

$3.50

2008E 2010E 2012E 2015E

Asia Multi-Si Euro Multi-Si Integ. Multi-Si Super Mono Si a-Si CdTe CIGS

Asia Poly($/kg)

Euro Poly($/kg)

Page 18: The Growth of Distributed Solar Power

20

Opportunities for a More Efficient Value Chain

Customer

Installer

Power Purchase Agreement

Financing

If buy power

LLC

Financing

If own system

Integrator/ System Designer

Future Integrated Products

Opportunity for Integration & System

Cost Reduction

Opportunity forPre-engineered

SolutionsPV Module

Mfgr

Mounting & Wiring

System Mfgr

Inverter Mfgr

Page 19: The Growth of Distributed Solar Power

Solar Systems Around the WorldUtility Scale Commercial Roof Top Systems

Google HQ - CaliforniaSolar farm - Germany

Austin City HallResidential roof - California

Building Integrated

Hong Kong Science Center

21

Page 20: The Growth of Distributed Solar Power

Atlantic City Convention Center, NJ2.3MW Largest rooftop solar PV project in North America

22

Page 21: The Growth of Distributed Solar Power

Example: Correlation between Daily PV Power Production and Energy Consumption of an Office Building in Spain

24h-Energy Profile

0:0

0

6:0

0

12:0

0

18:0

0

24:0

0

Ele

ctr

ica

l E

ne

rgy

[a

rb. u

nit

s]

Low Tariff Low TariffHigh Tariff

Electricity supplied by Utility

Fed-InEnergy

Solar Energy

Energy consumption of building

Electricity supplied by Utility

Source: RWE Energie AG and RSS GmbH

23

Page 22: The Growth of Distributed Solar Power

In Summary – Rapidly Growing Global Market• Tremendous cost reductions making solar energy more

affordable than ever• Grid parity in many markets• Financial services innovation and business models

developing – PPAs, PACE • Technological breakthroughs and system integration

continuing to drive low cost of solar energy – Key! - long term efficiency and reliability with exceptional

performance

Page 23: The Growth of Distributed Solar Power

THANK YOU!

IGA HALLBERG512-767-6030

[email protected]

Page 24: The Growth of Distributed Solar Power

NYDOCS1 - #771442v40 /26

World’s Highest Performance, Lowest Cost, & Most Versatile

Solar Power Platform


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