... transformation matrixof the augmented system Ai matrixof gPC expansion coefficients of A(∆) associated with the i-th orthogonal polynomial ¯ Aij the ij-th n-by-n submatrix of A mp the p-th moment of x ... investigate the influences of both the structure of the original system and the random uncertain parameters on the stability and performance of the system, and demonstrate the application of this finding ... the control of the probability distribution of the system states The main contribution of this thesis is the application of the gPC theory to the analysis and control ofsystems with random parametric...
... Cataloging-in-Publication Data [Analyse des systèmes linéaires/Commande des systèmes linéaires eng] Analysis and control oflinearsystems analysis and control oflinear systems/ edited by Philippe de Larminat p cm ... equations of measurement for continuous systems 2.1.3 Case oflinearsystems 2.1.4 Case of continuous and invariant linearsystems ... Calculation method of the transition matrix e A(t -t0 ) 2.2.5 Application to the modeling oflinear discrete systems 2.3 Scalar representation oflinearand invariant systems ...
... at 5%) and ω t m according to the damping ξ Figure 1.21 ω0 tr and ω0 tm according to the damping ξ 30 Analysis and Control ofLinearSystems The alternation of slow and fast variations of product ... final value of the response at the end of time T, which is called time constant of the system The response reaches 0.63 K in T and 0.95 K in T 24 Analysis and Control ofLinearSystems Figure ... jf0 20 Analysis and Control ofLinearSystems Table 1.1 sums up the features of a system’s transfer function, the existence conditions of its frequency response and the possibility of performing...
... Analysis and Control ofLinearSystems 3.2.2 Delay and lead operators The concept of an operator is interesting because it enables a compact formulation of the description of signals andsystems ... development of X (z) by polynomial division according to 86 Analysis and Control ofLinearSystems the decreasing powers of z −1 or apply the method of deviations, starting from the definition of the ... ) and y f (k ) designate respectively the free response and the forced response of the system Unlike the continuous case, the solution involves a sum, and not an integration, of powers of A and...
... 110 Analysis and Control ofLinearSystems The object of this chapter is to describe certain structural properties oflinearsystems that condition the resolution of numerous control problems ... and W t a basis of the canceller at the left of W (i.e a maximal solutionof equation WtW = {0}), a basis of LV is obtained by directly preserving only the independent columns of LV A basis of ... illustrated with respect to the existence of solutions, the existence of stabilizing solutions and flexibilities offered in terms of poles positions (concept of fixed poles) This is illustrated in...
... proximity of ν0 152 Analysis and Control ofLinearSystems Figure 5.1 Typical power spectrum of an MA (left) or AR (right) model In the case of a single denominator (nc = 0), we talk of an AR ... filter, in the sense of the second momentum of the prediction error y[k] − y [k], among all linear filters without direct transmission on y[k] ˆ 156 Analysis and Control ofLinearSystems This prediction ... my )) ∀κ ∈ Z [5.18] 146 Analysis and Control ofLinearSystems are independent of index k, i.e independent of the time origin σy = ryy [0] is the r [κ] variance of the signal considered yy2 is...
... Analysis and Control ofLinearSystems u (t ) = − K x(t ) + e(t ) [6.2] where K is an m × n matrix (Figure 6.1) and signal e(t ) represents the input of the looped system The equations of the looped ... ( H , F ) is detectable [6.41] 174 Analysis and Control ofLinearSystems there is a unique matrix P , symmetric and positive semi-defined, solutionof the following equation (called discrete ... control, whereas the increase of ξ leads to better dynamics 164 Analysis and Control ofLinearSystems Figure 6.2 Stabilization by pole placement 6.3 Reconstruction of state and observers 6.3.1 General...
... 196 Analysis and Control ofLinearSystems in performing the roles of the procedure, in connection with a structure and behavior of components They are used for the design of procedure monitoring, ... one hand, the problem of identification (and also the problem of simulation and control) is made much easier by the computing tool and is already well known in data analysis (linear or non -linear ... Analysis and Control ofLinearSystems recording of a specific response We need to be aware of the fact that it is essential to have a little, even very little, noise on the responses and, irrespective...
... Analysis and Control ofLinearSystems directly apply the results of the previous section From a theoretical point of view, we can, however, return by transforming [8.13] into a system directly ... λM and λm are respectively the poles with the highest and smallest negative real part, of absolute value N OTE 8.4 For standard linearsystems [8.1], the poles are directly the eigenvalues of ... in the direct chain of control One solution can be to increase the length of words intervening in the calculations of the integral action A second solution consists of storing the part of ekT...
... SIGUERDIDJANE and Martial DEMERLÉ 254 Analysis and Control ofLinearSystems Figure 9.2 General block diagram The open loop transfer function of this chain is the product of transfer functions of all ... equation of n order The roots of this equation are of strictly negative real part if and only if the terms of this first column of the table have the same sign and are not zero Statement of Routh’s ... in CL and (b) frequency response in CL 258 Analysis and Control ofLinearSystems When the system has good damping, let ξ be the value of the damping coefficient delimited between 0.4 and 0.7,...
... Points A and B are thus the separations of cases and Synthesis of Closed Loop Control Systems Between A and B: µ1 µ µ β > and B: µ1 µ µ β < µ1 µ β C µ1 µ β C 317 , i.e µ C > (1st case) and outside ... Analysis and Control ofLinearSystems Figure 10.12 Bode graph with insufficient phase margin Figure 10.13 Bode graph in OL of the corrected system Synthesis of Closed Loop Control Systems 297 ... response time and limited precision) On the other hand, irrespective of the linearity of the system, it is not always interesting to have a too extended bandwidth, due to the amplification of noises...
... degree of polynomial A We will assume that the concepts of polynomials division are known, as well as those of PGCD and PPCM of polynomials If G and L are respectively the PGCD and the PPCM of A and ... and R and thus5: number of unknown factors = ∂S + ∂R + A polynomial of degree n has n + coefficients [11.36a] 338 Analysis and Control ofLinearSystems The number of equations is the number of ... degree of S and thus that of Bm’, which itself is solutionof [11.30(d)] For this equation, there is no constraint on being proper and we will set the uniqueness of the solution by retaining that of...
... ideas of the method, starting with the form of the model, the quadratic criterion and up to the examination of adjustment parameters The formalism and the 390 Analysis and Control ofLinearSystems ... , H j , J j are single solutions of Diophantus equations, which are obtained by equality of the inputs and output of transfer functions of equations [12.1] and [12.3] and they are solved recursively: ... the number of estimated values of the sequence 376 Analysis and Control ofLinearSystems 12.2 Generalized predictive control (GPC) 12.2.1 Formulation of the control law The objective of this section...
... principle than on the concept of state In [CHE 93] we used to talk ofdirect methods versus iterative methods For linear stationary systems 402 Analysis and Control ofLinearSystems In fact, the biggest ... formulated in the standard form of Figure 13.1 408 Analysis and Control ofLinearSystems Figure 13.1 Standard feedback diagram The quadripole G , also called a standard model, and feedback K are ... observable part by y is solutionof Let us give the idea of the equivalence proof of properties and 2., the equivalence of properties and resulting by duality Methodology of the State Approach...
... 14.5 Area of the complex plane corresponding to the desired performances and to the constraints on the bandwidth 460 Analysis and Control ofLinearSystems 14.4.2 Choice of eigenvectors of the closed ... always distinct [14.3] 448 Analysis and Control ofLinearSystems The left eigenvectors ofmatrix A + BK(I − DK)−1 C are noted: u , , un and the output directions: t1 , , tn where (by definition): ... Shift of a set of poles with minimum dispersion 464 Analysis and Control ofLinearSystems EXAMPLE 14.4 To illustrate these points, let us take a set of models pertaining to the lateral side of...
... the looping of an invariant system of transfer matrix K (s ) andof a response ofmatrix Θ(t ) (Figure 15.15) Robust H∞/LMI Control 513 Figure 15.15 Structures of the system andof the corrector ... Analysis and Control ofLinearSystems where N R and N S form a base of cores of ( Bu T Deu T ) and (C y Dyw ) respectively Inequalities [15.70], calculated on inequalities [15.20.a, b, c] of the ... [15.48] 500 Analysis and Control ofLinearSystems a) Robustness of stability b) Robustness of performance Figure 15.10 Upper bounds of the structured single value 15.2.4 Evaluation of structured single...
... λ + t and H (λ ) = λ−1 so ∑ y(t ) = u(t ) 1 530 Analysis and Control oflinearSystems 16.4.2 Parallel systems Let ∑1 and ∑ be two systemsof transfer functions H1 (λ) = Q1 (λ )−1 P (λ) and H ... algorithm: – solutionof the Diophantine equation; ~ ~ – search of RLCM M (λ) of Q(λ), P(λ) ; ~ ~ – P(λ ) and Q(λ ) are quotient polynomials of M (λ ) by Q(λ) and P(λ) respectively The resolution of the ... t Linear Time-Variant Systems 531 16.5 Applications In this section, two types of usage of this algebra are presented in the field of modeling and control 16.5.1 Modeling One of the methods of...
... stabilization oflinear singular time delay systems with control delay To the best of our knowledge, finite-time stabilization problem for linear control systems with multiple state and control ... t−mj −hi j=1 t−mj Using the same method of the proof of Theorem 3.1, taking the derivative of V (t) in t along the solutionof the closed-loop system and applying the following derived estimations ... nonlinear systems Automatica, 48(2012), 499-504 [5] F Amato, R Ambrosino, C Cosentino, G.De Tommasi, Finite-time stabilization of impulsive dynamical linearsystems Nonlinear Analysis: Hybrid Systems, ...
... denotes the space of all matrices of (n × r)−dimensions; A⊤ denotes the transpose ofmatrix A; A is symmetric if A = A⊤ ; I denotes the identity matrixof appropriate dimension Matrix A is called ... control of discrete-time linear systems: Analysis and design conditions, Automatica, 46(2010), 919-924 [3] Zuo Z., Li H., Wang Y., New criterion for finite-time stability oflinear discrete-time systems ... control oflinear discretetime systems with an interval-like time-varying delay, International Journal ofSystems Science, 39(2008), 427-436 [7] Meng Q., Shen Y., Finite-time H∞ control for linear...
... Tasks of Computational Linear Algebra • Solutionof the matrix equation A·x = b for an unknown vector x, where A is a square matrixof coefficients, raised dot denotes matrix multiplication, and ... “fast matrix inversion” (§2.11) 36 Chapter SolutionofLinear Algebraic Equations Coleman, T.F., and Van Loan, C 1988, Handbook for Matrix Computations (Philadelphia: S.I.A.M.) Forsythe, G.E., and ... Moler, C.B 1967, Computer SolutionofLinear Algebraic Systems (Englewood Cliffs, NJ: Prentice-Hall) Wilkinson, J.H., and Reinsch, C 1971, Linear Algebra, vol II of Handbook for Automatic Computation...