Green Fuels to the World
DynaMotive Energy Systems
November 2002
Industry Partners
Resource Transforms International L
110 Baffin Place, Unit 5, Waterloo, O
Canada N2V 1Z7
Tel: (519) 884 4910; FAX: (519) 884
Government Partners
Agreements concluded with:
 IRAP
 CIITT
 TPC
 NRCAN / CANMET
 Ethanol BC
 BC Ministry of Industry & Employment
Overview

NASDAQ, OTC.BB, quoted company (symbol DYMTF)

World leading developer of technology used to convert Biomass into
environmentally “friendly” energy (e.g. BioOil)

BioOil is greenhouse gas neutral, it does not produce sulfur oxide
(SOx) emissions and produces approximately half the nitrogen oxide
(NOx) of comparable fossil fuels

BioOil compatible with established technologies, replaces fossil fuels
in gas turbines, boilers, and burners

Technology (BioThermTM) proven and demonstrated to be reliable,
replicable, commercially scaleable and supported by patents

Development partners in place to commercialize BioTherm –
contracts in place
Market Drivers
Distributed
Generation
BioMass Waste
2 billion tons residue pa
2.4 billion BOE
Deregulation
Energy
Security
Cost of
Disposal &
Opportunity
Cost
MARKET
DRIVERS
Energy Cost
Primary – volatility
Cost of Delivery
National and
International
Incentives
Environmental
Kyoto
Biomass to BioOil
Opportunity/Problem/Solution
Biomass Advantages
 Globally abundant
 Accessible
 Renewable
Low value resource
Above ground reserves
Green House Gas Neutral
Biomass Disadvantages
 Low energy density
 Low energy efficiency
Inefficient to store and transport
Boilers/steam turbines
Solution - Convert biomass to liquid BioOil
 Increase energy density
Storable/transportable
 Increase energy efficiency Gas turbines/diesel engines
 Compatible
Existing fuel infrastructure
 Utilization
Decoupled from production
BioTherm Process
Competitive Advantages
 CO2 / GHG neutral
 No SOx emissions
 Low NOx emissions
 Zero waste process
Competitive Advantages
 Accessible and abundant renewable
reserves
 Eliminate tipping costs
 Local production from biomass
residue/waste
 Reliable technology, not weather dependant
Value Chain
Green Energy
Diesels
Gas Turbines
Boilers
Renewable Fuels
Methanol
Diesel
Gasoline/Ethanol
Non-Depleting
Biomass
Waste
Waste Free
BioOil
Production
Storable
Transportable
Clean Fuel
Green Fuel
and Chemical
Markets
Green Chemicals
Resins/Fertilizers
Ammonia
Oxo-alcohols
Green Fuels to the World
Projects
Commercialization Timelines
PHASES 1
PHASE 2
PHASE 3
PHASE 4
PHASE 5
Proof
Of Concept
(Bench)
2 TPD
Prototype
10 TPD
Pilot Plant
100 TPD
Demonstr’n
400TPD
1st
Commerc’l
1994/97
1998/00
2000/01
2002/03
2003/04
COMPLETED
COMPLETED
DESIGN
COMPLETED
PLANNING
1994/97
2000
2001
2002
2003
2004
Production Model
BioOil
Electricity
Steam
Biomass
BioTherm
Process
Char
GHG
Reductions
Briquettes
CO2 Credits
100 TPD Project Objectives

Demonstrate scaled-up BioTherm
technology

Demonstrate BioOil fired turbine

Integrate pyrolysis / power generation

Enter green power market
Technical

White-wood (no bark) feedstock

2.5 MW BioOil-fired turbine

Simple Cycle with cogeneration

Steam sold to feedstock producer
Orenda GT2500 BioOil Fuelled Turbine
Green Power Generation
Total Hydrocarbons
(Emissions vs Engine Power)
Green Power Generation
SO2 (Emissions vs Engine Power)
Green Power Generation
% Particulates vs Engine Power
100 TPD Operating Objectives
 First commercial scale demonstration project
 Output of 75,000 BOE/yr energy equivalent
(~225 BOE/day)
 IRR 10%+ (leveraging government assistance)
400TPD Project
First full-scale commercial project
Output of 303,000 BOE/yr energy equivalent
(~900 BOE/day)
Potential to power a 20 MW combined cycle
generating station
400 TPD Project Economics
 Capital cost less than $ 20 million
 IRR 15%+ (without government assistance)
 Variable production cost less than US$ 10 per
BOE
Moving Forward
 Level Playing Field
(Policies,Taxes, Legislation)
 Market Validation Programs
 Industry Association
 R&D Funding
 “Gap” Funding
Green Fuels to the World
Thank You