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Copyright © by Clean Energy Enterprises, Inc. All Rights Reserved.Copyright © by Clean Energy Enterprises, Inc. All Rights Reserved.
The BT Advanced Gasification System
Transforming Waste into Clean Energy in a Sustainable Manner
Copyright © by Clean Energy Enterprises, Inc. All Rights Reserved.
The Company• Clean Energy Enterprises Inc. (CEE), a Delaware company, headquarters in
Southern California• Organized as a holding company, two wholly-owned subsidiaries• Clean Energy Industries (CEI), System Manufacturing and Sales• Clean Energy Development (CED), Project operations
• Managing selected projects transforming biomass and other forms of organic waste streams, including plastics, into clean energy• Proven selected technology: The BT Advanced Gasification System.
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Creating Value out of WasteNon-Incineration Waste-to-Energy systems are a significant, value-added improvement to the Energy Smart Grid:• Unlike solar or wind, clean W2E systems are predictable and
continuous• Small size distributed systems improve waste logistics and provide a
clean conversion of waste to energy• Advanced Gasification overcomes the issues associated with
conventional gasification processes
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The BT Advanced Gasification SystemA Local Waste-to-Energy Solution
• Advanced gasification engineered, refined and enhanced in Japan: • Developed by Japan Blue Energy Co., Ltd.• Organic waste into hydrogen-rich syngas• 16 years development, 3 generations of test size units built,
tested and enhanced• 4th generation currently in operation in Joso, Japan, treating
sewage sludge• Small to medium size, truly local solutions, standard 25 tons
per day design. Systems available from 8 t/day.
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The BT Advanced Gasification SystemA Local, Decentralized Approach to Various Organic Waste Stream Management and Clean Energy Production
Sewage sludgeMunicipal Solid Waste
Clean Energy Production
Hydrogen gas
Woodchips, food waste, agriculture waste & other forms of biomass, plastics
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• The BT Advanced Gasification System is characterized by a combination of indirect heating using heat carriers for the gasification step, and partial oxidation for the reforming step.• Low emissions• Feedstock versatility• Feedstock quality variations
• Solution available from 8t/day treatment capacity.
Gasification converts organic (carbonaceous) materials into carbon monoxide, hydrogen and carbon dioxide. This is achieved by reacting the material at high temperatures (>700 °C), without combustion.
The BT Process
Pre-heater
Heated air generator
ReformerPyrolizer
Heat carrier circulation
Char
Hot flue gas for process heat
Feedstock Syngas
O2 injection
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BT OutputThe BT process generates a hydrogen-rich product gas from virtually any organic feedstock.
• 50 vol % hydrogen for hydrogen gas production
• Optimal 2:1 H2/CO ratio for Fischer-Tropsch liquid fuel production
• Available heat after internal process needs
• Additional high value-added by-products (according to system configuration).
Energy Paths due to Blue Tower Process
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Through the tests, the syngas components and the equilibrium constants were obtained. For instance, Fig.3 illustrates the gaseous yields on the pyrolysis at 550 °C with variation of S/C =0.14 to 0.98, and the reforming reaction at S/C=1.0 with variation of 800 to 950 °C, respectively. Here, a steam carbon ratio is defined as the following equation.
> @2Added Steam [mol/s] Moisture [mol/s]/
Carbon Content of Material [mol/s]S C mol H O mol C �
� � (5)
Note that the gaseous components are modified at 20% moisture content. Also, the approach temperature for each reaction is shown as Table 3.
Reaction T' Unit Pyrolysis 78.3 °C
Reforming 252.0 °C
Table 3. Approach temperature for each reaction (estimated)
a) Pyrolysis (550 °C, S/C=0.14-0.93)
b) Reforming reaction (800-950 °C, S/C=1.0)
Fig. 3. Gaseous yields of pyrolysis (a) and reforming reaction (b).
Copyright © by Clean Energy Enterprises, Inc. All Rights Reserved.
Markets• Remote communities pay a significant surcharge on their energy cost $.50 to $1 per kWh
• Northern Canada, Island Nations, life bases…• Growing waste management cost, landfilling no longer a solution, nor is exporting waste,
including plastics, to third party countries• The BT process is a local solution to waste transformation into clean energy
• Inadequate power generation infrastructure, aging large fossil- or nuclear-based power plants phase out against the growing importance of smart grids needing a reliable power solution• The BT process provides predictable, continuous electricity
• Advanced economies looking for solutions to clean mobility and renewable energy.• Most of current hydrogen production sites rely on fossil fuel conversion• The BT process converts waste, including non biodegradable plastics, that would
normally be buried in the ground into non-fossil fuel based pure Hydrogen
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Engineering and ConstructionEngineering, Manufacturing and Commissioning by BT Engineering, a CEI / JBEC joint company.
• Partnership with an EPC firm• US-Based• 900 engineers in-house: engineering, design, procurement. Part
of a major energy group.• Extensive experience on biomass gasification projects
• Contract with BT Engineering, Procurement & Commissioning on a case-by-case basis• Privileged relationship with one firm, keep engineering know-
how to restricted audience• Flexibility to select vendors / local partners
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Project ExecutionClean Energy Development and Clean Energy Industries, along with their partners, provide full support throughout all the project phases, from concept until operation.
The solution can be made available to users via EPC agreements, BOT or BOO solutions.
Project Overview
Project Scope Definition
Economical Feasibility Study
Project funding Concept Engineering
Operation
Go / No Go
Detailed Engineering
Commissioning
PHASE I
PHASE IIPreliminary Studies
PHASE IIIEngineering
PHASE IVConstruction
PHASE IVDelivery
Construction Civil Engineering
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Model 5, Multi-purpose, Small Scale Solution• Fully functional, ½ to 1 ton per day continuous treatment
capacity. • Fits into containers for portability• Fully self sustained
• A distinct product, semi-mass production, for specific markets such as military operation in the field or emergency relief.
• Hydrogen production• 500 kg per day biomass feedstock yields 25 kg hydrogen per
day (6 Fuel Cell Vehicle full tanks) or• 27 kW Power generator (with SOFC)
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Project Case Study, 2 Output Options
Raw material: Wood Biomass
30 t/day (Moisture: 20%) 24 t/day (Dry basis)Hydrogen contents: 1,440 kg
106 MWh/day energy or 4.5MW power
Hydrogen Production
50 kg/hr1200 kg/day
Energy Equivalent43 MWh/day energy or 1.8 MW power
BT System
v
FCV240 full tanks served per daySOFC
1.1 MW Electricity0.3 MW Heatv
Power Generation
Fuel Cell Vehicle
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For additional information please contact:
www.cleanenergy.enterprises
Bob Machen, President+1 (949) 292-5917
Jean-Louis Kindler, CEO+1 (323) 373-5844