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Preface |
6 |
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Contents |
9 |
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About the Authors |
11 |
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1 Artificial Intelligence for Modeling and Control of Nonlinear Phenomena in Internal Combustion Engines |
13 |
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1.1 Neural Networks Architectures for Engine Applications |
13 |
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1.2 Use of ANNs for Modeling and Control of Internal Combustion Engines |
17 |
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1.2.1 Air–Fuel Ratio Prediction and Control |
17 |
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1.2.2 Use of Neural Networks to Predict Combustion Pressure Parameters |
25 |
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References |
29 |
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2 Non-interfering Diagnostics for the Study of Thermo-Fluid Dynamic Processes |
32 |
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2.1 Air Motion |
33 |
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2.2 Mixture Preparation |
34 |
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2.3 Combustion |
37 |
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2.4 Pollutants Formation |
41 |
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References |
42 |
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3 Modeling of Particle Size Distribution at the Exhaust of Internal Combustion Engines |
44 |
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3.1 Particulate Matter Emissions in Engines |
45 |
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3.2 Real-Time Prediction of Particle Sizing at the Exhaust of a Diesel Engine |
51 |
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References |
55 |
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4 Diagnosis and Control of Engine Combustion Using Vibration Signals |
58 |
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References |
65 |
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5 Use of in-Cylinder Pressure and Learning Circuits for Engine Modeling and Control |
66 |
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5.1 Cylinder Pressure Analysis and Extraction of Parameters for Engine Combustion Diagnosis and Control |
67 |
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5.2 Use of Learning Algorithms in Pressure-Based Engine Controls |
70 |
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5.3 Use of Combustion Pressure Signal for Cylinder Air Charge Estimation |
70 |
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5.4 Engine Knock Detection and Control Using in-Cylinder Pressure Measurement |
75 |
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References |
80 |
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6 Identification and Compensation of Nonlinear Phenomena in Gasoline Direct Injection Process |
83 |
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References |
87 |
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Index |
88 |
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