Tabla de Contenidos: “…5.4.1 L-H transition -- 5.4.2 Pedestal performance -- 5.4.3 Operation at trans-Greenwald density -- 5.4.4 Core transport -- 5.5 Power exhaust -- 5.5.1 Power decay length -- 5.5.2 ELM mitigation with magnetic perturbations -- 5.6 MHD modes and disruptions -- 5.6.1 NTM suppression -- 5.6.2 Disruption studies -- 5.7 Scenario development -- 5.7.1 ITER baseline operation -- 5.7.2 Type I ELMy H-Modes at highest P/R values -- 5.7.3 Scenarios at elevated central q -- 5.8 Summary and outlook -- Acknowledgements -- References -- 6 - The Tokamak Fusion Test Reactor -- 6.1 Introduction -- 6.2 TFTR design and capabilities -- 6.2.1 Magnets -- 6.2.2 Vacuum vessel, plasma-facing components, bakeout system, and other "conditioning" techniques -- 6.2.3 Heating systems -- 6.2.3.1 Neutral beam injection -- 6.2.3.2 Ion cyclotron heating -- 6.2.4 Fueling and impurity injection systems -- 6.2.5 Tritium handling, delivery, and exhaust systems -- 6.2.6 Tritium retention and removal -- 6.2.7 Shielding -- 6.2.8 Conduct of maintenance, installation, and final decommissioning -- 6.2.9 Diagnostics -- 6.3 TFTR operational regimes: requirements, characteristics and limitations -- 6.3.1 Ohmically heated plasmas -- 6.3.2 Neutral beam injection-heated plasmas -- 6.3.2.1 L-mode -- 6.3.2.2 Supershots in TFTR -- 6.3.2.3 H-mode -- 6.3.2.4 High internal inductance regime -- 6.3.2.5 Reversed shear and enhanced reversed shear -- 6.3.2.6 Detached plasmas and radiating mantles -- 6.3.3 ICRF heated -- 6.4 Main physics results from TFTR (not D-T specific) -- 6.4.1 Thermal energy and particle confinement -- 6.4.1.1 Confinement in ohmically heated plasmas -- 6.4.1.2 Confinement of plasmas with dominant auxiliary heating -- 6.4.1.3 Role of turbulent fluctuations -- 6.4.1.4 Heat pulse propagation and perturbative transport studies…”

Tabla de Contenidos: “…13.3 An Illustrative Example on Ergonomic Design Evaluation -- 13.4 Conclusions -- References -- Chapter 14 Optimization of Energy Generated from Ocean Wave Energy Using Fuzzy Logic -- 14.1 Introduction -- 14.2 Control Approach in Wave Energy Systems -- 14.3 Related Work -- 14.4 Mathematical Modeling for Energy Conversion from Ocean Waves -- 14.5 Proposed Methodology -- 14.5.1 Wave Parameters -- 14.5.2 Fuzzy-Optimizer -- 14.6 Conclusion -- References -- Chapter 15 The m-Polar Fuzzy TOPSIS Method for NTM Selection -- 15.1 Introduction -- 15.2 Literature Review -- 15.3 Methodology -- 15.3.1 Steps of the mFS TOPSIS -- 15.4 Case Study -- 15.4.1 Effect of Analytical Hierarchy Process (AHP) Weight Calculation on the mFS TOPSIS Method -- 15.4.2 Effect of Shannon's Entropy Weight Calculation on the m-Polar Fuzzy Set TOPSIS Method -- 15.5 Results and Discussions -- 15.5.1 Result Validation -- 15.6 Conclusions and Future Scope -- References -- Chapter 16 Comparative Analysis on Material Handling Device Selection Using Hybrid FMCDM Methodology -- 16.1 Introduction -- 16.2 MCDM Techniques -- 16.2.1 FAHP -- 16.2.2 Entropy Method as Weights (Influence) Evaluation Technique -- 16.3 The Proposed Hybrid and Super Hybrid FMCDM Approaches -- 16.3.1 TOPSIS -- 16.3.2 FMOORA Method -- 16.3.3 FVIKOR -- 16.3.4 Fuzzy Grey Theory (FGT) -- 16.3.5 COPRAS -G -- 16.3.6 Super Hybrid Algorithm -- 16.4 Illustrative Example -- 16.5 Results and Discussions -- 16.5.1 FTOPSIS -- 16.5.2 FMOORA -- 16.5.3 FVIKOR -- 16.5.4 Fuzzy Grey Theory (FGT) -- 16.5.5 COPRAS-G -- 16.5.6 Super Hybrid Approach (SHA) -- 16.6 Conclusions -- References -- Chapter 17 Fuzzy MCDM on CCPM for Decision Making: A Case Study -- 17.1 Introduction -- 17.2 Literature Review -- 17.3 Objective of Research -- 17.4 Cluster Analysis -- 17.4.1 Hierarchical Clustering -- 17.4.2 Partitional Clustering -- 17.5 Clustering…”

Tabla de Contenidos: “…5 Negligible Impairment of Reliability -- Linear Phase -- Minimum Phase -- Absolute Phase -- Phase Perception -- Target Functions -- Chapter 4: Crossover Types -- All-Pole and Non-All-Pole Crossovers -- Symmetric and Asymmetric Crossovers -- Allpass and Constant-Power Crossovers -- Constant-Voltage Crossovers -- First-Order Crossovers -- First-Order Solen Split Crossover -- First-Order Crossovers: 3-Way -- Second-Order Crossovers -- Second-Order Butterworth Crossover -- Second-Order Linkwitz-Riley Crossover -- Second-Order Bessel Crossover -- Second-Order 1.0 dB-Chebyshev Crossover -- Third-Order Crossovers -- Third-Order Butterworth Crossover -- Third-Order Linkwitz-Riley Crossover -- Third-Order Bessel Crossover -- Third-Order 1.0 dB-Chebyshev Crossover -- Fourth-Order Crossovers -- Fourth-Order Butterworth Crossover -- Fourth-Order Linkwitz-Riley Crossover -- Fourth-Order Bessel Crossover -- Fourth-Order 1.0 dB-Chebyshev Crossover -- Fourth-Order Linear-Phase Crossover -- Fourth-Order Gaussian Crossover -- Fourth-Order Legendre Crossover -- Higher-Order Crossovers -- Determining Frequency Offsets -- Filler-Driver Crossovers -- The Duelund Crossover -- Crossover Topology -- Crossover Conclusions -- Chapter 5: Notch Crossovers -- Elliptical Filter Crossovers -- Neville Thiele MethodTM (NTM) Crossovers -- Chapter 6: Subtractive Crossovers -- Subtractive Crossovers -- First-Order Subtractive Crossovers -- Second-Order Butterworth Subtractive Crossovers -- Third-Order Butterworth Subtractive Crossovers -- Fourth-Order Butterworth Subtractive Crossovers -- Subtractive Crossovers With Time Delays -- Performing the Subtraction -- Chapter 7: Lowpass and Highpass Filter Characteristics -- Active Filters -- Lowpass Filters -- Highpass Filters -- Bandpass Filters -- Notch Filters -- Allpass Filters -- All-Stop Filters -- Brickwall Filters…”