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Table of Contents |
5 |
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Preface |
7 |
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List of Contributors |
9 |
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Abbreviations and Acronyms |
13 |
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Common Abbreviations and Acronyms |
13 |
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Abbreviations for Measures |
15 |
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Introduction |
16 |
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Part I New and Sustainable Energy Conversion and Storage Technologies |
23 |
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World Thirst for Energy: How to Face the Challenge |
24 |
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1.1 Introductory Remarks |
24 |
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1.2 World Population Evolution |
25 |
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1.3 ExplicitWorld Energy Consumption |
26 |
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1.4 Short and Middle-Term Evolutions |
33 |
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1.5 Closing Remarks |
42 |
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1.6 Conclusion |
43 |
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Acknowledgements |
43 |
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References |
44 |
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Sustainability Concept for Energy, Water and Environment Systems |
46 |
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2.1 Introduction |
46 |
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2.2 Sustainability and Global Processes |
48 |
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2.3 Limits |
51 |
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2.4 Sustainability De.nitions |
59 |
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2.5 Sustainability Concept |
60 |
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2.6 Sustainability Measurement |
61 |
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2.7 Sustainability Index Definition |
64 |
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2.8 Conclusions |
69 |
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References |
69 |
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Efficient Production and Use of Energy: Novel Energy Rationing Technologies in Russia |
71 |
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3.1 Russian Power Engineering: Problems and Solutions |
71 |
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3.2 Higher Efficiency for Gas-Fueled Thermal Power Plants |
76 |
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3.3 Cogeneration |
77 |
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3.4 Coal Technologies |
78 |
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3.5 Renewable Energy Sources |
82 |
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3.6 New Types of Energy Sources |
88 |
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3.7 Methods of Efficient Use of Energy |
90 |
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3.8 Conclusions |
92 |
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References |
93 |
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Perspectives on Wind Energy |
94 |
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4.1 Introduction |
94 |
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4.2 Market and Cost Perspectives |
96 |
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4.3 Technology Development |
100 |
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4.4 Grid Integration |
106 |
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4.5 The Research Agenda |
112 |
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4.6 Conclusions |
115 |
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References |
116 |
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Photovoltaic Cells for Sustainable Energy |
117 |
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5.1 The Solar Energy Resource |
117 |
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5.2 Principles of Photovoltaic Solar Energy Conversion |
118 |
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5.3 Fundamentals of Solar Cell Operation |
122 |
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5.4 Materials and Performance of Solar Cells |
123 |
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5.5 High Efficiency Tandem Cells |
128 |
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5.6 Photo-Electrochemical Solar Cells |
128 |
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5.7 Balance of Plant |
133 |
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5.8 Conclusions |
134 |
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Acknowledgements |
137 |
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References |
137 |
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Photo-Electrochemical Production of Hydrogen |
138 |
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6.1 Introduction |
138 |
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6.2 Principle of Operation |
140 |
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6.3 Device Concepts |
145 |
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6.4 Materials for Photo-Anodes |
151 |
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6.5 Conclusions |
155 |
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Acknowledgements |
156 |
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References |
156 |
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Distributed Energy Generation, The Fuel Cell and Its Hybrid Systems |
160 |
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7.1 Introduction |
160 |
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7.2 Distributed Energy Generation |
161 |
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7.3 Hydrogen Production |
162 |
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7.4 Fuel Cells and Superior Features of SOFC |
163 |
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7.5 SOFC-MGT Hybrid System |
167 |
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7.6 Numerical Simulators of SOFC Single Unit and SOFC Module |
169 |
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7.7 Concluding Remarks |
173 |
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References |
174 |
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Current International Initiatives for Sustainable Nuclear Energy |
176 |
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8.1 Current Status of Nuclear Fission Energy Generation |
176 |
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8.2 Generation IV ( Revolutionary”) Nuclear Power Plants |
181 |
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8.3 The Euratom Coordination Action Sustainable Nuclear Fission Technology Platform ( Snf- Tp)”, Coordinated by CEA |
185 |
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8.4 Conclusions |
191 |
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References |
192 |
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Safety in Nuclear Power: A Proposal |
194 |
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9.1 Introduction |
194 |
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9.2 Design Objectives |
196 |
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9.3 Reactor Description |
196 |
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9.4 Main Innovative Safety Systems |
198 |
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9.5 New Approach to Construction |
202 |
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9.6 Containment Building |
203 |
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9.7 Plant Simplification |
204 |
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9.8 Conclusions |
209 |
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References |
210 |
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CO2 Emissions Mitigation from Power Generation Using Capture Technologies |
211 |
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10.1 Introduction |
211 |
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10.2 Flue Gas De-Carbonisation |
213 |
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10.3 Fuel Gas De-Carbonisation |
215 |
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10.4 Oxy-Fuel Combustion |
216 |
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10.5 Costs of Capture for the Different Options |
217 |
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10.6 Conclusions |
219 |
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References |
219 |
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Clean and Efficient Coal Technology Integrated with CO2 Sequestration and Hydrogen Energy Systems |
222 |
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11.1 Introduction |
222 |
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11.2 Viewpoint of Energy and Environmental Countermeasures |
223 |
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11.3 CO2 Recovery and Sequestration Technologies |
224 |
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11.4 Significance of Introducing Hydrogen Energy and Prospects for Technology Development |
230 |
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11.5 Enhancement of Energy Quality Using Hydrogen as an Energy Carrier |
235 |
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11.6 System Integration of Coal, Hydrogen and CO2 Sequestration |
237 |
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11.7 Concluding Remarks |
239 |
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References |
239 |
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Advanced Steam Generator Concepts for Oxy- Fuel Processes |
241 |
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12.1 Introduction |
241 |
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12.2 Classification of CO2 Capture Technologies |
242 |
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12.3 Oxy-Fuel Processes |
243 |
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12.4 Oxy-Fuel Steam Generator Concepts |
244 |
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12.5 Prospect |
249 |
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References |
249 |
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Part II Initiatives in South-East Europe |
251 |
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CO2 Mitigation Options for Retrofitting Greek Low-Quality Coal-Fired Power Plants |
252 |
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13.1 Introduction |
252 |
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13.2 Characteristics of the Existing Thermal Power Plants in Enlarged EU |
253 |
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13.3 Greek Lignite-Fired Power Plants |
253 |
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13.4 Retrofit of a Typical Greek Lignite-Fired Power Plant with CO2 Sequestration |
254 |
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13.5 Assessment of Electricity Production Cost for Various Technological Options |
258 |
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13.6 Conclusions |
260 |
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References |
262 |
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Renewable Energy Sources in Slovenia: Facts and Plans |
264 |
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14.1 Introduction |
264 |
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14.2 RES in Primary Energy Balance |
266 |
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14.3 Electricity from RES |
266 |
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14.4 Biofuels |
268 |
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14.5 RES Heating and Cooling |
270 |
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14.6 Conclusion |
271 |
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Acknowledgement |
272 |
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References |
272 |
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EnergyWood Chains in Bulgaria |
273 |
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15.1 Introduction |
273 |
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15.2 Energy Wood Production Chains |
274 |
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15.3 Wood Production Chains |
281 |
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15.4 Production of Pellets and Briquettes |
289 |
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15.5 Biomass Present Utilisation |
291 |
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15.6 Conclusion |
292 |
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References |
292 |
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Energy Efficiency in Serbia: Research and Development Activities |
293 |
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16.1 Present Status of Energy Sector in Serbia |
293 |
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16.2 Energy Efficiency – Specific Energy Consumption in Serbia |
298 |
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16.3 National Energy Efficiency Programme |
302 |
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16.4 Activity of the NEEP in the Period 2002–2005 |
308 |
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16.5 Conclusions |
312 |
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References |
313 |
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Energy Sector in Macedonia: Current Status and Plans |
314 |
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17.1 Background |
314 |
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17.2 Energy Supply |
316 |
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17.3 National Energy Resources and Perspectives on Its Utilisation |
319 |
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17.4 Indicators for Energy Consumption and Energy Balance in Macedonia [ 16] |
328 |
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17.5 Background of the National Energy Policy, Legislation and Programmes |
329 |
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17.6 Conclusions |
330 |
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References |
331 |
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Energy Sector in Bosnia and Herzegovina: Current Status and Plans |
332 |
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18.1 Introduction |
332 |
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18.2 Status of the Energy Sector |
333 |
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18.3 Energy Infrastructure, Production and Consumption |
334 |
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18.4 Plans for Electricity Generation, Future Network Interconnections, Gas and Oil Exchanges |
337 |
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18.5 Conclusions |
340 |
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Index |
341 |
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