Nanotechnology: Micro-Generation of Energy Stored In Thin Film Batteries World Energy Market Shifts, Forecasts and Strategies, 2007 to 2013 : Market Research Report

Nanotechnology: Micro-Generation of Energy Stored In Thin Film Batteries World Energy Market Shifts, Forecasts and Strategies, 2007 to 2013

Published: Feb. 6, 2007 - 229 Pages

NANOTECHNOLOGY: MICRO GENERATION OF ENERGY STORED IN THIN FILM BATTERIES
MARKET SHIFTS EXECUTIVE SUMMARY: Demand For Electricity; Total Energy Usage and Thin Film Batteries and Fuel Cell Market Forecasts; Industrialization Requires Sustainable, Highly Efficient Energy; World Energy Segments and Forecasts; Worldwide Grid Electricity Supplemented by Off Grid Micro Generation of Power Stored in Thin Film Batteries; Thin Film Batteries; Micro-Generation Of Energy; Wind And Solar Automotive Energy Stored In Thin Film Batteries; DC Connectors; Stationary Fuel Cell Market Development; Stationary Fuel Cell Growth; Stationary Fuel Cell Market Shares; Worldwide Stationary Fuel Cell Market Share Analysis For Campus and Residential Markets; Stationary Fuel Cells Market Forecasts; Market For Continued Fuel Cell Commercialization; New Grid Power Lines Threaten to Intrude on Preservation Natural Areas; PEM (Polymer Electrolyte Membrane) Fuel Cell Modules
1. WORLD ENERGY MARKET SHIFTS: MICRO GENERATION OF ENERGY STORED IN THIN FILM BATTERIES -- MARKET DYNAMICS AND MARKET DESCRIPTION: 1.1 Cost-Effective And Efficient Generation Of Electricity, Heat, And Air Conditioning; 1.2 Grid Energy; 1.3 Micro Generation Of Energy For Residential Markets; 1.4 Stationary Fuel Cells on Campus; 1.5 Stationary Fuel Cell Market Applications; 1.6 Transportation; 1.7 Battery Description Thin Film Solid-State Battery Construction; 1.8 Comparison Of Rechargeable Battery Performance; 1.9 Hydrogen Storage Methods; 1.10 Global Trends Driving Fuel Cell Development; 1.11 Fuel Cell Transportation Competitive Landscape; 1.12 Vehicular Applications For Fuel Cells; 1.13 Fuel Cell Vs. Internal Combustion Engine
2. NANOTECHNOLOGY: MICRO GENERATION OF ENERGY STORED IN THIN FILM BATTERIES MARKET SHIFTS, SHARES, AND FORECASTS: 2.1 Industrialization Requires Sustainable, Highly Efficient Energy; 2.2 World Energy Segments and Forecasts; 2.3 Residential Use of Thin Film Batteries To Store Wind and Solar Energy; 2.4 Commercial Energy Sector; 2.5 Developed Economy Industrial Sector; 2.6 Developed Economy Transportation Sector; 2.7 Worldwide Grid Electricity Shift To Residential Thin Film Batteries Market Forecasts; 2.8 Total Energy Usage and Thin Film Batteries and Fuel Cell Market Forecasts; 2.9 World Electricity Generation, 2005-2013; 2.10 Heating Oil; 2.11 Lithium Ion Hybrid Batteries; 2.12 Solar Panels; 2.13 Micro-Generation Of Energy; 2.14 Estimates of New Renewable Energy Capacity; 2.15 Stationary Fuel Cells Market; 2.16 Stationary Fuel Cells Combined Heat and Power (CHP); 2.17 Fuel Cell Market Forecasts; 2.18 Nuclear Power; 2.19 Worldwide Uranium Mined Forecast 2006-2012; 2.20 Coal
3. WORLD ENERGY MARKET SHIFTS: WIND AND SOLAR MICRO GENERATION OF ENERGY STORED IN THIN FILM BATTERIES PRODUCT DESCRIPTION: 3.1 Thin Film Batteries; 3.2 Front Edge Technology (FET); 3.3 Excellatron High Rate Deposition Process (Plasma Enhanced Chemical Vapor Deposition); 3.4 Eveready; 3.5 ORNL Thin-Film Lithium Battery; 3.6 Solar Power; 3.7 Teledyne; 3.8 Residential Wind Systems; 3.9 Bergey Windpower; 3.10 Shell Solar Panels; 3.11 BP Solar 380J 80W Solar Panel; 3.12 GE Solar; 3.13 Global Solar Sunlinq 6.5Watt 12V Portable Power Pack; 3.14 Evergreen Solar; 3.15 Isofoton; 3.16 Matrix Solar; 3.17 Sanyo Solar; 3.18 Sharp; 3.19 SolarWorld 24V Solar Panel; 3.20 Sun Tech Solar Panel; 3.21 Sunwize 12V Solar Panel; 3.22 DC Connectors
4. WORLD ENERGY MARKET SHIFTS: MICRO GENERATION OF ENERGY STORED IN THIN FILM BATTERIES TECHNOLOGY: 4.1 Battery Cell Construction; 4.2 Thin Film Batteries; 4.3 Naming Standards For Cell Identification; 4.4 Comparison Of Rechargeable Battery Performance; 4.5 Thin-Film Rechargeable Lithium Batteries UT/Battelle Oak Ridge National Laboratory; 4.6 Polymer Film Substrate; 4.7 Micro Battery Solid Electrolyte; 4.8 Alternative Power for Autonomous MEMs; 4.9 Lithium Technology; 4.10 Sony Lithium-Ion Cells; 4.11 Sanyo Electric Co.; 4.12 Lithium-Ion/Polymer Cell Shipment Market Shares; 4.13 Ultralife Batteries; 4.14 Lithium Technology Corporation (LTC); 4.15 BYD; 4.16 Industries International Incorporated (INDI),; 4.17 Cymbet™ Corporation; 4.18 Power Paper Battery-Assisted UHF RFID Chips; 4.19 Power Paper Thin And Flexible Energy Cells; 4.20 Fuel Cell Operation; 4.21 Fuel Cell Operation; 4.22 Fuel Cell Issues; 4.23 Battery Function; 4.24 Roadmap On Manufacturing R&D For The Hydrogen Economy; 4.25 California Stationary Fuel Cell Collaborative; 4.26 Solid State Energy Conversion Alliance (SECA); 4.27 SECA Program at the National Technical Energy Laboratory; 4.28 Energy Conversion Factors
5. WORLD ENERGY COMPANY PROFILES: 5.1 Acumentrics; 5.2 Acal Energy; 5.3 Adaptive Materials; 5.4 Adelan; 5.5 Advent International / RWE Energy; 5.6 Agni; 5.7 Alca Torda Applications; 5.8 ALLPS Fuel Cell System GMBH; 5.10 Angstrom Power; 5.11 Ansaldo Fuel Cells SpA-AFC; 5.12 Apollo Energy Systems-; 5.13 Aperion Energy Systems; 5.14 A Real World Approach Makes Fuel Cell Technology Available. Clean, boundless energy revolutionizes lives. Practical fuel cell solutions drive this transformation. The company has built an approach to solution development by listening to customers. Areva / Cogema; 5.15 Astris Energi; 5.16 Air Liquide / Axane Fuel Cell Systems; 5.17 Finmeccanica Group / Ansaldo Fuel Cells; 5.18 Ball Aerospace & Technologies; 5.19 Ballard; 5.20 Baxi Group-; 5.21 BCS Technology; 5.22 BHP Billiton Olympic Dam Uranium Mine; 5.23 British Nuclear Group (BNG); 5.24 Cameco; 5.25 Ceramic Fuel Cells Limited (CFCL); 5.26 Celex Power; 5.27 CellTech Power LLC; 5.28 Cellennium; 5.29 Cenergie Corporation; 5.30 Ceramatec; 5.31 Ceres Power; 5.32 Clean Fuel Generation-; 5.33 CMR Fuel Cells; 5.34 Connecticut Clean Energy Fund CCEF's Funding Comes From A Surcharge On Electric Ratepayers' Utility Bills. Constellation Energy and Electricite de France (EdF); 5.36 Coval H2; 5.37 CTP Hydrogen; 5.38 Daimler Chrysler / MTU / CFC-MTU Solutions (German); 5.39 Delphi; Delphi Reports Fourth Quarter and Calendar Year Financial Revenue; 5.40 DE NORA s.p.a; 5.41 Dias Analytic; 5.42 Donaldson Company; 5.43 DTI Energy; 5.44 Dupont; EBZ Entwicklungs-und Vertriebsgesellschaft Brennstoffzelle mbH; 5.46 ESL Electric Auto Science; 5.47 Electrotec; 5.48 ElectroChem; 5.49 Element 1 Power Systems; 5.50 Electric Power Research Institute; 5.51 Electronic Machining s.r.l.; 5.52 Emprise -; 5.53 Entegris-; 5.54 Eneco; 5.55 ENrG; 5.56 EnergySolutions; 5.57 Energy Resources of Australia Ltd. ERA; 5.58 Engelhard; 5.59 Esoro; 5.60 Evonyx-eVionyx; 5.61 Exelon Generation Company LLC; 5.62 Five Star Technologies; 5.63 Fuel Cell Components and Integrators; 5.64 Fuel Cell Control; 5.65 FuelCell Energy; 5.66 Fuel Cells Ltd; 5.67 Fuel Cells Canada; 5.68 FuelCell Energy; 5.69 Fuel Cell Technologies Ltd.; 5.70 Fuel Cell Technologies; 5.71 Fuji; 5.72 Franklin Fuel Cells; 5.73 GE; 5.74 GenCell; 5.75 General Hydrogen; 5.76 Gesellschaft für Angewandte Technik mbH Greifswald (GAT)-; 5.77 Global Thermoelectric!; 5.78 GreenVOLT™; 5.79 GreenVOLT™ Mini Fuel Cell; 5.80 GTI -Gas Technology Institute; 5.81 Hoku / Sanyo; 5.82 Honda:; 5.83 HydroGen; 5.84 Idaho National Laboratory; 5.85 IDACORP / IdaTech; IdaTech ElectraGen(TM)3 Critical Backup Power Fuel Cell System; 5.86 Impala Platinum; 5.87 Ion America; 5.88 LOGANEnergy; 5.89 McDermott International / SOFCo-EFS; 5.90 Matsushita Electric Industrial Co. Ltd.; 5.91 Mesoscopic Devices / MesoGen; 5.92 Millennium Cell; 5.93 Mitsubishi; 5.94 NanoDynamics; Navoi Mining and Metallurgical Combine (Navoi MMC) Navoi, Uzbekistan; 5.96 Nuclear Construction Contractors; 5.97 Nu Element; 5.98 Nuvera Fuel Cells; Nuvera Fuel Cells / Rivoira / SIAD Group To Expand Laboratory Plant In Italy For Testing Hydrogen-Based Fuel Cell Systems; 5.99 Palcan; 5.100 Pinnacle / Arizona Public Service Co (APS); 5.101 Plug Power; 5.102 Pacific Telepoint; 5.103 Parker Hannifin; 5.104 PEMEAS Polymer Electrolyte Membrane (PEM); 5.105 Power Air Corporation; 5.106 Praxair / Rivoira; 5.107 Priargunsky; 5.109 Protonetics; 5.110 Protonex Technology Corporation; Protonex Military Development Contract From Army Research Office; 5.111 Proton Energy Systems; 5.112 ReliOn; 5.113 Rolls Royce Group; 5.114 Rössing; 5.115 RWE Nukem; 5.116 RWE AG, Essen / RWE Fuel Cells; 5.117 Solid State Energy Conversion Alliance (SECA); 5.118 Siemens; Siemens Westinghouse / Fuel Cell Technologies Strategic Partnership Siemens SOFC Power Generation System In The 5-10 Kw Range; 5.119 Sulzer Group / Sulzer Hexis; 5.120 SXR Uranium One; 5.121 Takagi Industrial Co., Ltd.; 5.122 Toshiba-Polymer Electrolyte Fuel Cells (PEFC); 5.123 TOTO; 5.124 Ultracell; 5.125 Umicore; 5.126 Unitec Ceramics; 5.127 Uranium Information Centre Ltd; 5.128 United States Enrichment Corporation (USEC) Inc; 5.129 United Technologies; 5.130 Viaspace / Direct Methanol Fuel Cell; 5.131 WMC; WMC Is Spending $50 Million Studying Expansion Plans For Olympic Dam; 5.132 ZAO Independent Power Technologies; 5.133 ZTEK; Ztek Corporation to Collaborate with U.S. Department of Navy On Hydrogen Fueling Station
List of Tables and Figures
Table - ES-1: Worldwide Energy Analysis
Table ES-2: Basic Technologies For Clean, Renewable Energy
Table ES-3: Market Driving Forces for Energy Shifts: Micro Generation Of Energy Stored in Thin Film Batteries, Nuclear and Stationary Fuel Cells
Table ES-4: Market Driving Forces for Energy Shifts
Figure ES-5: Worldwide Electricity Generation Power Source Market Segments, 2006
Figure ES-6: Worldwide Grid and Off Grid Electricity Generation Power Source Market Segments, 2013
Figure ES-7: Worldwide Grid And Off Grid Electricity Generation Power Source Market Segments, 2018
Table - ES-8: Packaging Thin Film Batteries in a Standard Integrated Circuit Package.
Table - ES-9: Worldwide Energy Market Shifts
Table - ES-10: Micro Generation of Energy
Table - ES-11: Renewable Energy Accounts for 53% of World Energy By 2018
Figure ES-12: Micro Power Generation Supplements the Grid
Figure ES-13: Pacific 100 Wind Generator Systems
Figure ES-14: Teledyne Thin Film Battery Capacity and Charging rate Cycles
Table ES-15: Hypertronics D Series Circular Plastic Connectors
Table - ES-16: Stationary Fuel Cells Used In Campus Environments
Table ES-17: Commercialization Challenges Of The Stationary Fuel Cell Industry
Table ES-18: Worldwide Cogeneration Utility and Campus Stationary Phosphoric Acid Fuel Cells (PAFC) and SOFC Shipment Market Shares, Dollars, 2005
Table ES-19: Worldwide SOFC, PEM, PAFC, and Molten Carbonate Utility, Campus, and Remote Backup Stationary Fuel Cell Market Forecasts, Units and Dollars, 2006-2012 In Millions of Dollars
Table ES-20: Worldwide SOFC, PEM, PAFC, and Molten Carbonate Utility, Campus, and Remote Backup Stationary Fuel Cell Market Forecasts, Units and Dollars, 2006-2012 In Millions of Dollars
Table ES-21: Stationary Fuel Cell Market Driving Forces
Table ES-22: Specific Areas Of Cost Reduction Investigation
Table - ES-23: Worldwide Energy Market Shifts
Table - ES-24: Mega Coal Plants
Table - ES-25: Alliances for Clean Energy
Table 1-1: Worldwide Energy sectors
Table 1-2: Stationary Fuel Cell Market Participants That Deliver Energy In A Campus Environment
Table 1-3: Stationary Fuel Cells Used in Campus Environments
Table 1-4: Fuel Cell Technologies FTC Residential Applications
Table 1-5: Fuel Cell Technologies FTC Application Target Markets
Table 1-6: Fuel Cell Technologies FTC Communications Applications
Table 1-7: FTC Commercial Applications
Table 1-8: Fuel Cell FTC Industrial Applications
Table 1-9: Fuel Cell FTC Military / Security Applications
Table 1-10: Waste Heat Recovery Applications
Table 1-11: Environmental Concerns Relating To Energy
Table 1-12: Environmental Benefits Of Using Fuel Cell Technology
Table 1-13: Fuel Cell Advantages Compared To Internal Combustion Engine
Table 1-14: Low-carbon production systems
Figure 1-15: Typical Structure Of A Thin Film Solid State Battery
Table 1-16: Comparison Of Battery Performances
Table 1-17: Thin Films For Advanced Batteries
Table 1-18: Thin Film Batteries Technology
Table 1-19: Thin Film Battery / Lithium Air Batteries Applications
Table 1-20: Global Trends Driving Fuel Cell Development
Table 1-21: Vehicular Applications For Fuel Cells
Table 1-22: Parameters Of Fuel Cell Unit Powered Vehicles
Table 1-23: Traditional Internal Combustion Engine Type Of Work
Table 2-1: Market Driving Forces for Energy Shifts: Micro Generation Of Energy Stored in Thin Film Batteries, Nuclear and Stationary Fuel Cells
Table 2-2: Market Driving Forces for Energy Shifts
Figure 2-3: Worldwide Electricity Generation Power Source Market Segments, 2006
Figure 2-4: Worldwide Grid and Off Grid Electricity Generation Power Source Market Segments, 2013
Figure 2-5: Worldwide Grid And Off Grid Electricity Generation Power Source Market Segments, 2018
Figure 2-6: Worldwide Electricity Generation Power Source Market Segments, 2006, 2013, and 2018
Figure 2-7: U.S. Electricity Generation Power Source Market Segments, 2006
Figure 2-8: U.S. Electricity Generation Power Source Market Segments, 2013
Figure 2-9: U.S. Electricity Generation Power Source Market Segments, In Billions of Kilowatt Hours 2006 and 2013
Table 2-10: Basic Technologies for Clean, Renewable Energy
Figure 2-11: US Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - BTU’s
Figure 2-12: US Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - Percentages
Figure 2-13: US Residential Energy Shifts
Figure 2-14: Worldwide Residential Energy Shifts
Figure - 2-15: Rest of World Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - BTU’s
Figure - 2-16: Rest of World Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - Percentages
Figure - 2-17: Worldwide Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - BTU’s
Figure - 2-18: Worldwide Residential Shift To Solar, Wind, Thin Film Battery, Fuel Cells - Percentages
Figure - 2-19: Worldwide Commercial Shift To Solar, Wind, Thin Film Battery, Fuel Cells - BTU’s
Figure - 2-20: Worldwide Commercial Shift To Solar, Wind, Thin Film Battery, Fuel Cells - Percentages
Table - 2-21: Worldwide Commercial Shift To Campus Fuel Cells Market Forecasts
Table - 2-22: Worldwide Industrial Shift To Campus Fuel Cells Market Forecasts
Table - 2-23: U.S. and Rest of World Transportation Shift To Personal Vehicle Thin Film Batteries and Fleet Vehicle Fuel Cells Market Forecasts
Table - 2-24: Worldwide Transportation Shift To Personal Vehicle Thin Film Batteries and Fleet Vehicle Fuel Cells Market Forecasts
Table - 2-25: U.S. Grid Electricity Shift To Residential Thin Film Batteries and Campus and Grid Stationary Fuel Cells Market Forecasts
Table - 2-26: Rest of World Grid Electricity Shift To Residential Thin Film Batteries and Campus and Utility Stationary Fuel Cells Market Forecasts
Table - 2-27: Worldwide Grid Electricity Shift To Residential Thin Film Batteries and Campus and Utility Stationary Fuel Cells Market Forecasts
Table - 2-28: Worldwide Energy Analysis
Table - 2-29: US Total Energy Usage and Thin Film Batteries and Fuel Cell Market Forecasts
Table - 2-30: US Total Energy Usage and Thin Film Batteries and Fuel Cell Market Forecasts
Table - 2-31: US Total Energy Usage and Thin Film Batteries and Fuel Cell Market Forecasts
Table - 2-32: Worldwide Energy Market Shifts
Table - 2-33: Micro Generation of Energy
Table - 2-34: Renewable Energy Accounts for 53% of World Energy By 2018
Table - 2-35: World Energy Generation, 2005-2013
Table - 2-36: U.S. Energy Generation, 2005-2013
Table - 2-37: European Energy Generation, 2005-2013
Table - 2-38: Asian Energy Generation, 2005-2013
Table - 2-39: Rest of World Energy Generation, 2005-2013
Figure 2-40: Periodic Table
Figure 2-41: Valence Technology Thin Film Auto Battery
Figure 2-42: Valence Technology Auto Using Thin Film Battery
Table 2-43: SolarWorld Mono-crystalline PV Modules Benefits
Table 2-43: Energy Consumption by Sector
Figure 2-44: Bergey Wind Generator Systems
Figure 2-45: Pacific 100 Wind Generator Systems
Figure 2-46: Teledyne Thin Film Battery Capacity and Charging rate Cycles
Table 2-47: New Renewable Capacity Supplying Green Power Markets, 2006
Table 2-48: New Renewable Capacity Supplying Green Pricing Programs
Table 2-49: New Renewables Capacity Supplying Competitive Markets and Renewable Energy Certificates
Figure 2-50: Stationary Fuel Cell Used in Campus Environments
Table 2-51: Worldwide Stationary Fuel Cell Market Growth Drivers
Table 2-52: Worldwide Stationary Fuel Cell Market Segments
Table 2-53: Fuel Cell Technology Positioning
Figure 2-54: Worldwide Cogeneration Utility and Campus Stationary Phosphoric Acid Fuel Cells (PAFC), PEM, MFC, and SOFC Shipment Market Forecasts, Dollars, 2006-2012
Table 2-55: Worldwide Cogeneration Utility and Campus Stationary Phosphoric Acid Fuel Cells (PAFC), PEM, MCFC, and SOFC Shipment Market Forecasts, Dollars, 2006-2012
Figure 2-56: Worldwide Cogeneration Utility and Campus Stationary Phosphoric Acid Fuel Cells (PAFC) and SOFC Shipment Market Shares, Dollars, 2005
Table 2-57: Worldwide Cogeneration Utility and Campus Stationary Phosphoric Acid Fuel Cells (PAFC) and SOFC Shipment Market Shares, Dollars, 2005
Table 2-58: Nuclear Reactors, Number And MWe By Country 2005
Table 2-59: Nuclear Electricity Generation By Country In 2005
Figure 2-60: Worldwide Nuclear Electricity Generation, Forecast 2006-2012
Table 2-61: Worldwide Nuclear Electricity Generation, Forecast 2006-2012
Figure 2-62: Worldwide Uranium Mined, Forecast 2006-2012
Table 2-63: Where the World’s Uranium Lies
Table 2-64: Known Recoverable Resources* of Uranium
Table 2-65: Uranium Market driving forces
Table 2-66: Western World Uranium Production Mapped Against Demand 1945-2002
Table 2-67: World Nuclear Power Reactors 2005-06 And Uranium Requirements
Table 2-68: World Nuclear Power Reactors 2005-06 and Uranium Requirements
Table 2-69: Nuclear Uranium Production From Mines Share Figures, 1995-2005
Table 2-70: Nuclear Uranium Production Methods Segments 2005
Table 2-71: Nuclear Electricity Generation 2005
Table - 2-72: Worldwide Energy Market Shifts
Table - 2-73: Mega Coal Plants
Table - 2-74: Alliances for Clean Energy
Table 3-1: Front Edge Technology (FET) NanoEnergy Ultra-Thin Rechargeable Battery Key Features
Table 3-2: Front Edge Technology (FET) NanoEnergy Ultra-Thin Rechargeable Battery Technical Information
Table 3-3: Excellatron Deposition Of Solid State Electrolyte By The PECVD Process
Table 3-4: ORNL Solid-State Thin-Film Batteries Offer Advantages
Table 3-5: Major Challenges To ORNL For The Development Of The Lithium Cells
Figure 3-6: Teledyne NanoEnergyTM Powering A Blue LED
Table 3-7: Teledyne Typical Charging Curve Of A 0.9 mAh Batter
Figure 3-8: Teledyne NanoEnergyTM Discharge Rates And Discharge Characteristics
Figure 3-9: Teledyne Thin Film Battery Capacity and Charging rate Cycles
Figure 3-10: Bergey Wind XL.1
Table 3-11: Bergey XL.1 Specifications
Table 3-12: Bergey XL.1Tilt Up Tower Kits Available
Figure 3-13: Ampair Pacific 100 Wind Generator Systems
Figure 3-14: Pacific 100 Stern Mount Systems
Table 3-15: Ampair Pacific 100 Wind GeneProduct Features
Table 3-16: Ampair Pacific 100 Wind Generator Installation
Figure 3-17: Pacific 300 generates 360ah of power a day
Figure 3-18: General Electric Solar Panel
Table 3-19: General Electric Solar Panel Features
Table 3-20: General Electric Solar Panel Benefits
Table 3-21: GE Solar Panel Typical Performance Characteristics
Figure 3-22: Evergreen Solar Panel
Figure 3-23: Evergreen Solar String Ribbon Technology
Figure 3-24: Evergreen Solar
Figure 3-25: Evergreen Solar Panel Mounting
Table 3-26: Matrix Solar Panel
Table 3-27: Matrix Solar Special Features and End Uses:
Table 3-28: Sanyo's HIP-G751B 167W Solar Panel Features:
Figure 3-29: Sanyo's HIP-G751B 167W Solar Panel
Table 3-30: Sharp Solar 165 Watt Module Features
Table 3-31: Sharp Solar Cell Ratings
Table 3-32: SolarWorld Mono-crystalline PV Modules Benefits
Table 3-33: Sun Tech Solar Panel Performance
Table 3-34: Sun Tech Solar Panel Features
Table 3-35: Sunwize SW150/155 Solar Modules Features:
Table 3-36: SunwizSW155 Dimensions / Specifications
Table 3-37: Hypertronics D Series Circular Plastic Connectors
Table 4-1: Thin Film Solid State Battery Construction
Table 4-2: Thin Film Lithium Battery Construction
Table 4-3: Thin Film Solid State battery Safety Security Protections
Table 4-4: Common Household-Battery Sizes, Shape, and Dimensions
Table 4-5: Thin Film Battery Unique Properties
Table 4-6: Comparison of battery performances
Table 4-7: Comparison Of Battery Performances
Table 4-8: Thin Films For Advanced Batteries
Table 4-9: Thin Film Batteries Technology
Table 4-10: Thin Film Battery / Lithium Air Batteries Applications
Figure 4-11: Polymer Film Substrate Thin Flexible battery Profiles
Figure 4-12: Design Alternatives of Thin Film Rechargable Batteries
Table 4-13: Advantages Of Using Alternative Energy Power Systems To Supply Micro Power To MEMs
Table 4-14: Selected Lithium Technology Corporation Customers
Table 4-15: Cymbet™ Thin-Film Battery System Key Features
Table 4-16: Cymbet™ Thin-Film Battery System Smart Card Applications
Table 4-17: Cymbet Application Specific Solid Energy Technology
Table 4-18: Cymbet Application Specific Solid Energy Technology Recharge Characteristics
Table 4-19: Cymbet Surface mountable battery Packaging Key features
Table 4-20: Cymbet Consumer Electronics Lightweight Energy Source Key Features
Table 4-21: Cymbet Medical Electronic Thin-Film Battery System Key Features
Table 4-22: Cymbet Medical Electronic Thin-Film Battery System Medical Device Industry Target Markets
Table 4-23: Cymbet Military Electronic Thin-Film Battery System Military Device Systems Key Features
Table 4-24: Cymbet Thin Film Battery System Advanced Features
Table 4-25: Cymbet Thin Film Battery System Applications
Figure 4-26: Fuel Cell
Figure 4-27: CellTech Power LTA-SOFC
Table 4-28: Fuel Cell Operation
Table 4-29: Fuel Cell Characteristics
Table 4-30: Fuel Cell Description
Table 4-31: Fuel Cell Issues
Table 4-32: Fuel Cell System
Table 4-33: Conceptual Operation of a Fuel Cell.
Table 4-34: Fuel Cell System Relative Efficiencies
Figure 4-35: CellTech Liquid Anode
Table 5-1: ALLPS Fuel Cell System GMBH Positioning
Figure 5-2: Angstrom Power Micro-Structured Fuel Cells
Table 5-3: AREVA Energy Business Positioning
Figure 5-4: Areva Sales by Region
Figure 5-5: Areva Nuclear Reactor and Services Sales
Table 5-6: Astris Fuel Cells
Table 5-7: Astris Fuel Cell Generators
Table 5-8: Key Features Of The Ballard Mark 1030 V3 Fuel Cell
Table 5-9: Ballard 2006 Corporate Objectives
Table 5-10: Cameco Construction Of The Cigar Lake Mine Project Aspects: Cameco’s Share of Production (millions pounds U3O8)
Table 5-11: Cameco Forecast Production Key Assumptions
Table 5-12: FuelCell Energy Multi-Megawatt Opportunities
Table 5-13: FuelCell Energy Target Markets
Table 5-14: GE Major Energy Research Initiatives
Table 5-15: Global’s TEGs Target Markets
Table 5-16: HydroGen principal goals of development
Table 5-17: Fuel Cell Reforming 500 kWe Proton Exchange Membrane fuel
Figure 5-18: CJSC Dalur carries out uranium mining
Table 5-19: Protonex 150 Series Portable Power System Functions
Table 5-20: Proton Energy Systems
Table 5-21: ReliOn Investors
Table 5-22: Rössing Mine Production Performance Data Table
Table 5-23: Uranium Information Centre Principal Aims

Abstract

Nanotechnology is providing us next generation systems that rely on microgeneration of energy stored in thin film batteries. Nanotechnology works on both sides of the equation. Solar and wind generators are made more efficient by the use of nanoparticles in the drive and collector mechanisms. Thin film batteries use new materials created using nanotechnology to achieve components that are used to manufacture batteries 40 times more efficient than current batteries.

World energy market shifts are a result of these new renewable energy and storage technologies. Wind and solar energy can be generated and stored as DC current in residential settings. Wind and solar power can be stored by using thin film batteries that in turn are used to power electronics, LED lights, and small appliances in the home. Systems work using a direct current (DC) power system that supplements the power coming off the grid into the home.

Wind and solar generators operating in residential settings store energy in thin film batteries for use in autos. Wind and solar power stored in thin film batteries can be used to power cars by hooking the car battery to the home battery with a wire and a plug at each end of the wire. This assumes that there are lots and lots of solar panels, small windmills like would be used on a boat, and thin film batteries. The billions of units needed create economies of scale and bring prices of these products well below the $100 per unit price.

Wind power and solar power are anticipated to be long-term energy sources for thin film batteries used to run cars and to provide a DC power connection in the home. Campus based stationary fuel cells, depend on landfill and wastewater treatment plants to provide gas for providing energy to manufacture hydrogen.

Micro-generation of energy is set to bring a worldwide economic revolution brought by the availability of thin film batteries that are more fuel-efficient, charge within minutes, and hold a charge 40 times longer than existing batteries. Thin film batteries can be charged from renewable energy sources and used to power the home and car.

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Nanotechnology: Micro-Generation of Energy Stored In Thin Film Batteries World Energy Market Shifts, Forecasts and Strategies, 2007 to 2013

Table of Contents

Abstract