Книги з теми "Hydrodynamics linear stability analysis"

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1

Rogers, E. T. A. Stability analysis for linear repetitive processes. Berlin: Springer-Verlag, 1992.

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2

Rogers, Eric, and David H. Owens, eds. Stability Analysis for Linear Repetitive Processes. Berlin/Heidelberg: Springer-Verlag, 1992. http://dx.doi.org/10.1007/bfb0007165.

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3

Boi͡adzhiev, Khristo. Non-linear mass transfer and hydrodynamic stability. Amsterdam: Elsevier, 2000.

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4

Shi, Jian. A simplified Von Neumann method for linear stability analysis. Cranfield, Bedford, England: Cranfield Institute of Technology, College of Aeronautics, 1993.

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5

Aristide, Halanay, ed. Stabilization of linear systems. Boston, MA: Birkhauser, 1999.

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6

Dragan, Vasile. Stabilization of Linear Systems. Boston, MA: Birkhäuser Boston, 1999.

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7

Donley, M. G. Dynamic analysis of non-linear structures by the method of statistical quadratization. Berlin: Springer-Verlag, 1990.

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8

Kopachevskiĭ, N. D. Operator approach to linear problems of hydrodynamics. Basel: Birkhäuser Verlag, 2001.

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9

Tsamilis, Sotirios E. Nonlinear analysis of coupled roll/sway/yaw stability characteristics of submersible vehicles. Monterey, Calif: Naval Postgraduate School, 1997.

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10

Graham, Ronald E. Linearization of digital derived rate algorithm for use in linear stability analysis. [Washington, DC?]: National Aeronautics and Space Administration, 1985.

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11

Ivanova, Jordanka. Geometric method for stability of non-linear elastic thin shells. Boston: Kluwer Academic Publishers, 2002.

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12

Franco, Pastrone, ed. Geometric method for stability of non-linear elastic thin shells. Boston: Kluwer Academic Publishers, 2002.

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13

Bushenkov, V. A. Stabilization problems with constraints: Analysis and computational aspects. Australia: Gordon and Breach Science Publishers, 1997.

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14

Orlik, Lyubov', and Galina Zhukova. Operator equation and related questions of stability of differential equations. ru: INFRA-M Academic Publishing LLC., 2020. http://dx.doi.org/10.12737/1061676.

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Анотація:
The monograph is devoted to the application of methods of functional analysis to the problems of qualitative theory of differential equations. Describes an algorithm to bring the differential boundary value problem to an operator equation. The research of solutions to operator equations of special kind in the spaces polutoratonny with a cone, where the limitations of the elements of these spaces is understood as the comparability them with a fixed scale element of exponential type. Found representations of the solutions of operator equations in the form of contour integrals, theorems of existence and uniqueness of such solutions. The spectral criteria for boundedness of solutions of operator equations and, as a consequence, sufficient spectral features boundedness of solutions of differential and differential-difference equations in Banach space. The results obtained for operator equations with operators and work of Volterra operators, allowed to extend to some systems of partial differential equations known spectral stability criteria for solutions of A. M. Lyapunov and also to generalize theorems on the exponential characteristic. The results of the monograph may be useful in the study of linear mechanical and electrical systems, in problems of diffraction of electromagnetic waves, theory of automatic control, etc. It is intended for researchers, graduate students functional analysis and its applications to operator and differential equations.
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15

Zhukova, Galina. Differential equations: examples and tasks. ru: INFRA-M Academic Publishing LLC., 2020. http://dx.doi.org/10.12737/1072182.

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To master the skills of solving examples and problems of the course "Ordinary differential equations" proposed a cycle of workshops covering the topics: differential equations of first, second, n-th orders; systems of linear differential equations; integration of initial and boundary value problems; stability theory. Given the large number of examples and tasks for independent operation with answers. This sample tests with solutions and analysis. It is recommended that teachers, postgraduates and students of higher educational institutions studying differential equations.
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16

Non-Linear Mass Transfer and Hydrodynamic Stability. Elsevier Science, 2000.

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17

Linear and Non-Linear Stability Analysis in Boiling Water Reactors. Elsevier, 2019. http://dx.doi.org/10.1016/c2017-0-01640-3.

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18

Georgescu, A. Hydrodynamic Stability Theory. Springer Verlag, 2010.

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19

Georgescu, A. Hydrodynamic Stability Theory. Springer, 2013.

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20

Moeleker, P. J. J. Linear Temporal Stability Analysis (Series 01 - Aerodynamics , No 7). Delft Univ Pr, 1998.

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21

Guerrero, Alfonso Prieto, and Gilberto Espinosa Paredes. Linear and Non-linear Stability Analysis in Boiling Water Reactors: The Design of Real-Time Stability Monitors. Woodhead Publishing, 2018.

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22

Guerrero, Alfonso Prieto, and Gilberto Espinosa Paredes. Linear and Non-Linear Stability Analysis in Boiling Water Reactors: The Design of Real-Time Stability Monitors. Elsevier Science & Technology, 2018.

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23

Morikawa, G. K., and Eva Swenson. Interacting Motion of Rectilinear Geostrophic Vortices. I: Linear Stability Analysis. Creative Media Partners, LLC, 2018.

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24

Su, Yi-Chung. Linear stability analysis of mixed convection flow in a vertical pipe. 1994.

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25

W, Porada Theodore, and United States. National Aeronautics and Space Administration., eds. Linearization of digital derived rate algorithm for use in linear stability analysis. [Washington, DC?]: National Aeronautics and Space Administration, 1985.

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26

Lam, Hak-Keung, and Allen Leung. Stability Analysis of Fuzzy-Model-Based Control Systems: Linear-Matrix-Inequality Approach. Springer, 2014.

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27

Lam, Hak-Keung, and Allen Leung. Stability Analysis of Fuzzy-Model-Based Control Systems: Linear-Matrix-Inequality Approach. Springer London, Limited, 2011.

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28

Toll, Raymond F. Jr. A linear stability analysis of the rapid development of an extratropical cyclone. 1986.

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29

Al-Shamali, Saleh A. Stability analysis and control design for uncertain and time-delay systems. 2004.

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30

Boukas, El-Kébir. Stochastic Switching Systems: Analysis and Design. Springer London, Limited, 2006.

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31

Stability of capillary surfaces in rectangular containers: The right square cylinder. [Washington, DC]: National Aeronautics and Space Administration, Langley Research Center, 1998.

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32

C, Hsieh K., and Langley Research Center, eds. Stability of capillary surfaces in rectangular containers: The right square cylinder. [Washington, DC]: National Aeronautics and Space Administration, Langley Research Center, 1998.

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33

Tyc, George *. A method of stability analysis for systems of linear differential equations with periodic coefficients. 1988.

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34

Stochastic Switching Systems: Analysis and Design (Control Engineering). Birkhäuser Boston, 2005.

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35

Hagelberg, Carl R. Stability analysis of homogeneous shear flow: The linear and nonlinear theories and a Hamiltonian formulation. 1989.

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36

Ivanova, Jordanka, and Franco Pastrone. Geometric Method for Stability of Non-Linear Elastic Thin Shells. Springer London, Limited, 2013.

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37

Ivanova, Jordanka, and Franco Pastrone. Geometric Method for Stability of Non-Linear Elastic Thin Shells. Springer, 2014.

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38

Linear Modeling of Tiltrotor Aircraft (In Helicopter and Airplane Modes) for Stability Analysis and Preliminary Design. Storming Media, 1996.

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39

Bushenkov, Vladimir A., and Georgi V. Smirnov. Stabilization Problems with Constraints: Analysis and Computational Aspects. CRC, 1998.

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40

Kopachevskii, Nikolay D., and Selim G. Krein. Operator Approach in Linear Problems of Hydrodynamics: Volume 1: Self-adjoint Problems for an Ideal Fluid (Operator Theory: Advances and Applications). Birkhauser, 2001.

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41

Zhu, Yang, and Miroslav Krstic. Delay-Adaptive Linear Control. Princeton University Press, 2020. http://dx.doi.org/10.23943/princeton/9780691202549.001.0001.

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Actuator and sensor delays are among the most common dynamic phenomena in engineering practice, and when disregarded, they render controlled systems unstable. Over the past sixty years, predictor feedback has been a key tool for compensating such delays, but conventional predictor feedback algorithms assume that the delays and other parameters of a given system are known. When incorrect parameter values are used in the predictor, the resulting controller may be as destabilizing as without the delay compensation. This book develops adaptive predictor feedback algorithms equipped with online estimators of unknown delays and other parameters. Such estimators are designed as nonlinear differential equations, which dynamically adjust the parameters of the predictor. The design and analysis of the adaptive predictors involves a Lyapunov stability study of systems whose dimension is infinite, because of the delays, and nonlinear, because of the parameter estimators. This book solves adaptive delay compensation problems for systems with single and multiple inputs/outputs, unknown and distinct delays in different input channels, unknown delay kernels, unknown plant parameters, unmeasurable finite-dimensional plant states, and unmeasurable infinite-dimensional actuator states. Presenting breakthroughs in adaptive control and control of delay systems, the book offers powerful new tools for the control engineer and the mathematician.
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42

Newman, Mark. Dynamical systems on networks. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198805090.003.0017.

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An introduction to the theory of dynamical systems on networks. This chapter starts with a short introduction to classical (non-network) dynamical systems theory, including linear stability analysis, fixed points, and limit cycles. Dynamical systems on networks are introduced, focusing initially on systems with only one variable per node and progressing to multi-variable systems. Linear stability analysis is developed in detail, leading to master stability conditions and the connection between stability and the spectral properties of networks. The chapter ends with a discussion of synchronization phenomena, the stability of limit cycles, and master stability conditions for synchronization.
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43

Sobczyk, Eugeniusz Jacek. Uciążliwość eksploatacji złóż węgla kamiennego wynikająca z warunków geologicznych i górniczych. Instytut Gospodarki Surowcami Mineralnymi i Energią PAN, 2022. http://dx.doi.org/10.33223/onermin/0222.

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Hard coal mining is characterised by features that pose numerous challenges to its current operations and cause strategic and operational problems in planning its development. The most important of these include the high capital intensity of mining investment projects and the dynamically changing environment in which the sector operates, while the long-term role of the sector is dependent on factors originating at both national and international level. At the same time, the conditions for coal mining are deteriorating, the resources more readily available in active mines are being exhausted, mining depths are increasing, temperature levels in pits are rising, transport routes for staff and materials are getting longer, effective working time is decreasing, natural hazards are increasing, and seams with an increasing content of waste rock are being mined. The mining industry is currently in a very difficult situation, both in technical (mining) and economic terms. It cannot be ignored, however, that the difficult financial situation of Polish mining companies is largely exacerbated by their high operating costs. The cost of obtaining coal and its price are two key elements that determine the level of efficiency of Polish mines. This situation could be improved by streamlining the planning processes. This would involve striving for production planning that is as predictable as possible and, on the other hand, economically efficient. In this respect, it is helpful to plan the production from operating longwalls with full awareness of the complexity of geological and mining conditions and the resulting economic consequences. The constraints on increasing the efficiency of the mining process are due to the technical potential of the mining process, organisational factors and, above all, geological and mining conditions. The main objective of the monograph is to identify relations between geological and mining parameters and the level of longwall mining costs, and their daily output. In view of the above, it was assumed that it was possible to present the relationship between the costs of longwall mining and the daily coal output from a longwall as a function of onerous geological and mining factors. The monograph presents two models of onerous geological and mining conditions, including natural hazards, deposit (seam) parameters, mining (technical) parameters and environmental factors. The models were used to calculate two onerousness indicators, Wue and WUt, which synthetically define the level of impact of onerous geological and mining conditions on the mining process in relation to: —— operating costs at longwall faces – indicator WUe, —— daily longwall mining output – indicator WUt. In the next research step, the analysis of direct relationships of selected geological and mining factors with longwall costs and the mining output level was conducted. For this purpose, two statistical models were built for the following dependent variables: unit operating cost (Model 1) and daily longwall mining output (Model 2). The models served two additional sub-objectives: interpretation of the influence of independent variables on dependent variables and point forecasting. The models were also used for forecasting purposes. Statistical models were built on the basis of historical production results of selected seven Polish mines. On the basis of variability of geological and mining conditions at 120 longwalls, the influence of individual parameters on longwall mining between 2010 and 2019 was determined. The identified relationships made it possible to formulate numerical forecast of unit production cost and daily longwall mining output in relation to the level of expected onerousness. The projection period was assumed to be 2020–2030. On this basis, an opinion was formulated on the forecast of the expected unit production costs and the output of the 259 longwalls planned to be mined at these mines. A procedure scheme was developed using the following methods: 1) Analytic Hierarchy Process (AHP) – mathematical multi-criteria decision-making method, 2) comparative multivariate analysis, 3) regression analysis, 4) Monte Carlo simulation. The utilitarian purpose of the monograph is to provide the research community with the concept of building models that can be used to solve real decision-making problems during longwall planning in hard coal mines. The layout of the monograph, consisting of an introduction, eight main sections and a conclusion, follows the objectives set out above. Section One presents the methodology used to assess the impact of onerous geological and mining conditions on the mining process. Multi-Criteria Decision Analysis (MCDA) is reviewed and basic definitions used in the following part of the paper are introduced. The section includes a description of AHP which was used in the presented analysis. Individual factors resulting from natural hazards, from the geological structure of the deposit (seam), from limitations caused by technical requirements, from the impact of mining on the environment, which affect the mining process, are described exhaustively in Section Two. Sections Three and Four present the construction of two hierarchical models of geological and mining conditions onerousness: the first in the context of extraction costs and the second in relation to daily longwall mining. The procedure for valuing the importance of their components by a group of experts (pairwise comparison of criteria and sub-criteria on the basis of Saaty’s 9-point comparison scale) is presented. The AHP method is very sensitive to even small changes in the value of the comparison matrix. In order to determine the stability of the valuation of both onerousness models, a sensitivity analysis was carried out, which is described in detail in Section Five. Section Six is devoted to the issue of constructing aggregate indices, WUe and WUt, which synthetically measure the impact of onerous geological and mining conditions on the mining process in individual longwalls and allow for a linear ordering of longwalls according to increasing levels of onerousness. Section Seven opens the research part of the work, which analyses the results of the developed models and indicators in individual mines. A detailed analysis is presented of the assessment of the impact of onerous mining conditions on mining costs in selected seams of the analysed mines, and in the case of the impact of onerous mining on daily longwall mining output, the variability of this process in individual fields (lots) of the mines is characterised. Section Eight presents the regression equations for the dependence of the costs and level of extraction on the aggregated onerousness indicators, WUe and WUt. The regression models f(KJC_N) and f(W) developed in this way are used to forecast the unit mining costs and daily output of the designed longwalls in the context of diversified geological and mining conditions. The use of regression models is of great practical importance. It makes it possible to approximate unit costs and daily output for newly designed longwall workings. The use of this knowledge may significantly improve the quality of planning processes and the effectiveness of the mining process.
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