The Second-Order Adjoint Sensitivity Analysis Methodology - Dan Gabriel Cacuci

The Second-Order Adjoint Sensitivity Analysis Methodology

Buch | Hardcover
306 Seiten
2018
Chapman & Hall/CRC (Verlag)
978-1-4987-2648-1 (ISBN)
149,60 inkl. MwSt
The author has achieved the breakthrough of generalizing the First-Order Theory presented in his previous books, to the efficient computations of arbitrarily high-order sensitivities for nonlinear systems (HONASAP). This breakthrough has many applications, especially when there is a need to quantify nonlinear behavior.
The Second-Order Adjoint Sensitivity Analysis Methodology generalizes the First-Order Theory presented in the author’s previous books published by CRC Press. This breakthrough has many applications in sensitivity and uncertainty analysis, optimization, data assimilation, model calibration, and reducing uncertainties in model predictions. The book has many illustrative examples that will help readers understand the complexity of the subject and will enable them to apply this methodology to problems in their own fields.

Highlights:

• Covers a wide range of needs, from graduate students to advanced researchers

• Provides a text positioned to be the primary reference for high-order sensitivity and uncertainty analysis

• Applies to all fields involving numerical modeling, optimization, quantification of sensitivities in direct and inverse problems in the presence of uncertainties.

About the Author:

Dan Gabriel Cacuci is a South Carolina SmartState Endowed Chair Professor and the Director of the Center for Nuclear Science and Energy, Department of Mechanical Engineering at the University of South Carolina. He has a Ph.D. in Applied Physics, Mechanical and Nuclear Engineering from Columbia University. He is also the recipient of many awards including four honorary doctorates, the Ernest Orlando Lawrence Memorial award from the U.S. Dept. of Energy and the Arthur Holly Compton, Eugene P. Wigner and the Glenn Seaborg Awards from the American Nuclear Society.

Dan Gabriel Cacuci is a South Carolina SmartState Endowed Chair Professor and the Director of the Center for Nuclear Science and Energy, Department of Mechanical Engineering at the University of South Carolina. He has a Ph.D. in Applied Physics, Mechanical and Nuclear Engineering from Columbia University. He is also the recipient of many awards including four honorary doctorates, the Ernest Orlando Lawrence Memorial award from the U.S. Dept. of Energy and the Arthur Holly Compton, Eugene P. Wigner and the Glenn Seaborg Awards from the American Nuclear Society.

MOTIVATION FOR COMPUTING FIRST- AND SECOND-ORDER SENSITIVITIES OF SYSTEM RESPONSES TO THE SYSTEM’S PARAMETERS

The Fundamental Role of Response Sensitivities for Uncertainty Quantification

The Fundamental Role of Response Sensitivities for Predictive Modeling

Advantages and Disadvantages of Statistical and Deterministic Methods for Computing Response Sensitivities

ILLUSTRATIVE APPLICATION OF THE SECOND-ORDER ADJOINT SENSITIVITY ANALYSIS METHODOLOGY (2nd-ASAM) TO A LINEAR EVOLUTION PROBLEM

Exact Computation of the 1st-Order Response Sensitivities

Exact Computation of the 2nd-Order Response Sensitivities

Computing the 2nd-Order Response Sensitivities Corresponding to the 1st-Order Sensitivities

Discussion of the Essential Features of the 2nd-ASAM

Illustrative Use of Response Sensitivities for Predictive Modeling

THE SECOND-ORDER ADJOINT SENSITIVITY ANALYSIS METHODOLOGY (2nd-ASAM) FOR LINEAR SYSTEMS

Mathematical Modeling of a General Linear System

The 1st-Level Adjoint Sensitivity System (1st-LASS) for Computing Exactly and Efficiently 1st-Order Sensitivities of Scalar-Valued Responses for Linear Systems

The 2nd-Level Adjoint Sensitivity System (2nd-LASS) for Computing Exactly and Efficiently 1st-Order Sensitivities of Scalar-Valued Responses for Linear Systems

APPLICATION OF THE 2nd-ASAM TO A LINEAR HEAT CONDUCTION AND CONVECTION BENCHMARK PROBLEM

Heat Transport Benchmark Problem: Mathematical Modeling

Computation of First-Order Sensitivities Using the 2nd-ASAM

Computation of first-order sensitivities of the heated rod temperature

Computation of first-order sensitivities of the coolant temperature

Verification of the "ANSYS/FLUENT Adjoint Solver"

Applying the 2nd-ASAM to Compute the Second-Order Sensitivities and Uncertainties for the Heat Transport Benchmark Problem

APPLICATION OF THE 2nd-ASAM TO A LINEAR PARTICLE DIFFUSION PROBLEM

Paradigm Diffusion Problem Description

Applying the 2nd-ASAM to Compute the First-Order Response Sensitivities to Model Parameters

Applying the 2nd-ASAM to Compute the Second-Order Response Sensitivities to Model Parameters

Role of Second-Order Response Sensitivities for Quantifying Non-Gaussian Features of the Response Uncertainty Distribution

Illustrative Application of First-Order Response Sensitivities for Predictive Modeling

APPLICATION OF THE 2nd-ASAM FOR COMPUTING SENSITIVITIES OF DETECTOR RESPONSES TO UNCOLLIDED RADIATION TRANSPORT

The Ray-Tracing Form of the Forward and Adjoint Boltzmann Transport Equation

Application of the 2nd-ASAM to Compute the First-Order Response Sensitivities to Variations in Model Parameters

Application of the 2nd-ASAM to Compute the Second-Order Response Sensitivities to Variations in Model Parameters

THE SECOND-ORDER ADJOINT SENSITIVITY ANALYSIS METHODOLOGY (2nd-ASAM) FOR NONLINEAR SYSTEMS

Mathematical Modeling of a General Nonlinear System

The 1st-Level Adjoint Sensitivity System (1st-LASS) for Computing Exactly and Efficiently the 1st-Order Sensitivities of Scalar-Valued Responses

The 2nd-Level Adjoint Sensitivity System (2nd-LASS) for Computing Exactly and Efficiently the 2nd-Order Sensitivities of Scalar-Valued Responses for Nonlinear Systems

APPLICATION OF THE 2nd-ASAM TO A NONLINEAR HEAT CONDUCTION PROBLEM

Mathematical Modeling of Heated Cylindrical Test Section

Application of the 2nd-ASAM for Computing the 1st-Order Sensitivities

Application of the 2nd-ASAM for Computing the 2nd-Order Sensitivities

Erscheinungsdatum
Reihe/Serie Advances in Applied Mathematics
Zusatzinfo 17 Tables, black and white; 95 Illustrations, black and white
Sprache englisch
Maße 156 x 234 mm
Gewicht 589 g
Themenwelt Mathematik / Informatik Mathematik Angewandte Mathematik
Naturwissenschaften Physik / Astronomie
ISBN-10 1-4987-2648-8 / 1498726488
ISBN-13 978-1-4987-2648-1 / 9781498726481
Zustand Neuware
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