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REFUELING GAS TURBINES WITH WESTINGHOUSE PLASMA SYNGAS World Waste to Energy City Summit London, UK May 2015

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REFUELING GAS TURBINES WITH

WESTINGHOUSE PLASMA SYNGAS

World Waste to Energy City Summit

London, UK

May 2015

Alter NRG is a publicly traded:

(TSX: NRG; OTCQX: ANRGF)

Who We Are

Our Focus

The industry’s leading plasma gasification

technology that provides Syngas for industrial use.

Our Vision

To provide the leading technology platform for

converting the world’s waste into clean energy for a

healthier planet.

Our Mission

Build shareholder value by enabling customers to

convert waste into clean energy.

Focused on the gasification of difficult waste streams:

• Municipal Solid Waste

• Hazardous Waste

• Industrial Waste

• Medical Waste

• Mixed Biomass

• Construction & Demolition Waste

WESTINGHOUSE PLASMA CORPORATION:

2

WESTINGHOUSE PLASMA CORPORATION:

3

Key Milestones:

• Commercial operations since 2002

• Recently commissioned 2 new China based

projects in Shanghai (30tpd) and Wuhan (150tpd);

• Commercial scale project in Bijie (600tpd),

scheduled start of construction late Q2 2015

• 30+ years of commercial development with over $1

billion USD invested worldwide

• Wide range of capacity: 25tpd to 1000tpd

WESTINGHOUSE PLASMA: PROJECTS UPDATE

Commercial Facilities:

PILOT PLANT, U.S.A -

48 TPD:

1983-2015

MIHAMA MIKATA,

JAPAN - MSW &

SLUDGE, 24 TPD:

2002

PUNE, INDIA - HAZARDOUS

WASTE, 78 TPD:

2008

WUHAN, CHINA -

BIOMASS, 150 TPD:

2012

SHANGHAI, CHINA -

MEDICAL WASTE & FLY

ASH, 30 TPD:

2013

Under Construction:

TEES VALLEY, UK -

TV2MSW, 1,000 TPD:

2016

BIJIE, CHINA –

MSW, 600 TPD:

LATE Q2, 2017

Commissioning:

TEES VALLEY, UK -

TV1MSW, 1,000 TPD:

2015

UTASHINAI, JAPAN - MSW

& AUTO SHREDDER

RESIDUE, 220 TPD:

2003 TO 2013

4

5

GE TECHNICAL / ECONOMIC FEASIBILITY STUDY

• GE completed a study that answered the two main

questions that customers were asking:

– Will the 6, 7 and 9 series gas turbines burn WPC syngas?

– Can GE confirm that the gas turbine will not experience a

de-rate when operating on a blend or a full load of WPC

syngas?

• GE confirmed that WPC syngas is suitable for the 6, 7

and 9 series units, and that in each case operating on

syngas will create additional power when compared

to fossil fuels.

© 2014, General Electric Company. Proprietary information. All rights reserved.

Syngas study assumptions

• Two options: − Blending syngas and natural gas

− 100% Westinghouse Plasma syngas

• Calculations performed on a delta basis − Baseline performance on new and clean gas turbine

configured to operate on natural gas with a Dry Low

NOx (DLN) combustion system

• Fuel composition:− 45.5% CO, 22.4% H2, 16.4% CO2, 10.3% N2, 1.63%

CH4, 1.28% Ar, plus 1.64% higher hydrocarbons and

small amounts of NH3, H2S and COS.

• Ambient conditions:− 1.0 atm, 15 °C and 60% relative humidity, and 0 meters

altitude

6

Notes:

(1) New and clean delta performance should be similar to delta for gas turbine unit that has

been in operation on natural gas for some period prior to the switch to blended fuel.

(2) Switch to blended fuel may require fuel nozzles to be optimized to new fuel based on

revised fuel composition and heating value.

© 2014, General Electric Company. Proprietary information. All rights reserved.

Option 1: blended syngas and natural gas

• Blend limited by CO and/or H2 content to stay within DLN

combustion system limits

• Plant configuration impact:

- Fuel blending generally requires a blending skid, gas measuring

instruments, and new gas turbine controls.

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© 2014, General Electric Company. Proprietary information. All rights reserved.

7E.03

• Output (MW): +1.0%

• Heat rate (kJ/kWhr): - 0.38%

• Exhaust Energy (GJ/hr): +0.48%

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Results for blended natural gas and syngasChanges relative to natural gas performance

6B.03

• Output (MW): +1.23%

• Heat rate (kJ/kWhr): - 0.4%

• Exhaust Energy (GJ/hr): +0.65%

Assuming that blend stays within limits and DLN combustion system is

retained.

9F.03

• Output (MW): +0.74%

• Heat rate (kJ/kWhr): -0.19 %

• Exhaust Energy (GJ/hr): +0.46%

© 2014, General Electric Company. Proprietary information. All rights reserved.

Option 2: 100% syngas

• Use of 100% syngas generally requires switching from DLN to a diffusion

combustion system. Therefore, the fuel is not limited by CO and/or H2

content.

• Converting to 100% syngas fuel generally requires new controls, syngas

and diluent modules, as well as changes to other BOP systems.

9

© 2014, General Electric Company. Proprietary information. All rights reserved.

10

Results for 100% syngasChanges relative to natural gas performance

6B.03*

• Output (MW): +0.53%

• Heat rate (kJ/kWhr): - 1.17%

• Exhaust Energy (GJ/hr): +1.79%* Reference to 6B.03 performance on natural gas

Generally requires change from DLN to diffusion flame combustor to

support 100% syngas operation

© 2014, General Electric Company. Proprietary information. All rights reserved.

• GE is a world leader in generating power from low

calorific value fuels, including syngas, with more

than 2.1 million operating hours

• GE gas turbines are capable of operating on a

variety of types of syngas, including the

Westinghouse Plasma syngas

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Summary

POWERING GE TURBINES WITH LOW COST,

ZERO COST AND NEGATIVE COST SYNGAS

PLASMA GASIFICATION FACILITY

UNIT OPERATING COST

(PER MMBTU SYNGAS PRODUCED, NET

OF GATE FEE REVENUES)

Tipping

Fees$0/t $20/t $40/t $60/t $80/t $100/t

G-65(1,000

tpd)

$6.0 $4.40 $1.75 $0 ($2.40) ($4.75)

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GAS TURBINE REFUELING MARKETS AND TARGETS

Currently, there are over 5,000 6, 7, and 9

series GE gas turbines operating globally

that are a potential target for fuel

replacement

Who benefits:Users: Importers of high cost fuels

Sellers: Countries that export high value fuels. E.g.

Middle East countries use fossil fuel to generate

highly subsidized power

Environment: Lower CO2 footprint, reduced landfill

volume

Region Frame 6 Frame 7 Frame 9 Total

AFRICA 33 2 112 147

ANZ-OCEANIA 1 0 0 1

AUSTRALIA 20 0 15 35

ASIA 131 95 219 445

CIS 33 0 25 58

EUROPE 90 0 131 221

LATIN 43 122 22 187

MIDEAST 107 362 248 717

N AMERICA 162 1712 2 1877

GRAND TOTAL 620 2293 774 3687

Country Frame 6 Frame 7 Frame 9 Total

AUSTRIA 2 0 0 2

BELGIUM 1 0 2 3

CYPRUS 4 0 0 4

CZECH REPUBLIC 0 0 0 0

DENMARK 1 0 0 1

ENGLAND & WALES 9 0 17 26

FINLAND 3 0 0 3

FRANCE 2 0 14 16

GERMANY 15 0 4 19

GREECE 0 0 9 9

HUNGARY 3 0 3 6

IRELAND 2 0 2 4

ITALY 11 0 29 40

LATVIA 0 0 2 2

LITHUANIA 0 0 1 1

NETHERLANDS 2 0 5 7

NORTHERN IRELAND 0 0 1 1

POLAND 0 0 2 2

PORTUGAL 5 0 2 7

SCOTLAND 1 0 0 1

SLOVAKIA 0 0 0 0

SPAIN 24 0 31 55

SWEDEN 0 0 1 1

GRAND TOTAL 85 0 125 210

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WHY IS TEES VALLEY #1 SIGNIFICANT FOR THE REFUELING OF GAS

TURBINES?

The operation of the Tees Valley #1 project will demonstrate:

1. Commercial volumes of syngas:

• 1000 tpd of feedstock will produce ~3.5 Million GJ/year of syngas

(50 MW electrical)

• Base load production of energy

2. Syngas that is consistently produced at the required specification:

• To ensure reliability, the syngas must consistently meet the fuel

specification of the gas turbine

3. Ability to create low cost syngas from feedstock's that you get paid to

process:

• A moderate tipping fee generates enough revenue to cover the operating

costs to make clean syngas

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Westinghouse Plasma

Gasifier

AIR PRODUCTS’ TEES VALLEY #1 SITE, UK

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AIR PRODUCTS’ TEES VALLEY #2 SITE, UK

CONFIDENTIAL

THANK YOU