Abstract
Any generalizing theory will have scientific and practical validity only if it:
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1.
reduces theoretical complexities in special theories caused by some inherent limitations;
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2.
contains special theories as special cases, moreover results, obtained beforehand, must be reproduced in a new more wider scale;
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3.
brings to appearing of new theoretical results, which are impossible in special theories, moreover, it gives other new questions and problems then solves the old ones;
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4.
gives the new effective analysis methods and algorithms for the solution of important practical problems.
Does the given algebraic signals theory satisfy these demands? To answer the question, let's analyze what is done in its scale.
Firstly, a fundamental theoretical scheme is designed, containing the problems and research subject description and in which the main theory principles are proved on an abstract level. Secondly, sufficiently common and effective mathematical method of harmonic analysis of signals and systems known models have been worked out. Thirdly, a valuable range of new special theories have been worked out in detail put into the base of the most important practical problems solution.
Such a state of signals and systems abstract theory shows the principle completion of its construction. Hence the following its development must be connected with generalized harmonic analysis methods to concrete problems solution. The obtained practical results will give the answer to the question about the worked out theory and its applicability limits.
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References
AGARWAL, R. C.-BURRUS, C. S.: Fast digital convolution using Fermat transforms. Southwest IEEE Conference Record Houston, Texas (1973), pp. 538–543
AGARWAL, R. C.-BURRUS, C. S.: Fast convolution using Fermat number transforms with applications to digital filtering. IEEE Trans. Acoust. Speech Signal Process. ASSP-22 (1974), pp. 87–97
AGARWAL, R. C.-BURRUS C. S.: Number theoretic transforms to implement fast digital convolution. Proc. IEEE 63 (1975), pp. 550–560
AUSLANDER, L.-TOLIMIERI, R.: Ring structure and the Fourier transform. Math. Intelligencer 7 (1985), pp. 49–54
BAUM, U.-CLAUSEN, M.: Some lower and upper complexity bounds for generalized Fourier transforms and their inverses. Research Report, University of Bonn 1990
BAUM, U.; CLAUSEN, M.-TIETZ, B.: Improved upper complexity bounds for the discrete Fourier transform. Research Report, University of Bonn 1990
BELOGLASOVA, O. V.-LABUNETS, V. G.: Theory and applications of Gauss transforms. In: Control and Computational Systems Synthesis (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1981, pp. 25–40
BELOGLASOVA, O. V.-LABUNETS, V. G.: Theory and applications of Gauss-Rader transforms (in Russian). Proceed. USSR SA: Technical Cybernetics, No. 2 (1981), pp. 193–200
BERGSON, H.: Durce et Simultancite. Paris 1929
BETH, T.: Verfahren der schnellen Fourier-Transformation. Teubner: Stuttgart 1984
BETH, T.: Generalized Fourier transforms. Lecture Notes Comp. Sci. 296 (1988), pp. 92–118
BETH, T.: On the computational complexity of the general discrete Fourier transform. Theor. Comp. Sci. 51 (1987), pp. 331–339
BETH, Th.; FUMY, W.-MÜHLFELD, R.: Zur algebraischen diskreten Fourier-Transformation. Arch. Math. 40 (1983), pp. 238–244
BETH, Th.: Algorithm engineering a la Galois (AEG). Proc. AAECC-7 (1989)
BRITTEN, D. J.-LEMIRE, F. W.: A structure theorem for rings supporting a discrete Fourier transform. IEEE Trans. Acoust. Speech Signal Process. ASSP-26 (1978), pp. 284–290
CLAUSEN, M.-GOLLMANN, D.: Spectral transforms for symmetric groups — fast algorithms and VLSI architectures. Proc. Workshop Spectral Techniques 1988 (Dortmund, FRG), Ed.: C. Moraga), pp. 67–85
CLAUSEN, M.: Fast Fourier transforms for metabelian groups. SIAM J. Comput. 18 (1989) No. 3, pp. 584–593
CLAUSEN, M.: Fast generalised Fourier transforms. Theoret. Comp. Science 67 (1989), pp. 55–63
CREUTZBURG, R.: Finite Signalfaltungen und finite Signaltransformationen in endlichen kommutativen Ringen mit Einselement. Dissertation, Universität Rostock 1984
CREUTZBURG, R.-TASCHE, M.: F-Transformation und Faltung in kommutativen Ringen. Elektr. Informationsverarb. Kybernetik 21 (1985), pp. 129–149
CREUTZBURG, R.: Finite Signalfaltungen und finite Signaltransformationen in endlichen kommutativen Ringen mit Einselement. ZKI-Informationen, Akademie der Wissenschaften, Zentralinstitut für Kybernetik und Informationsprozesse, Berlin, Sonderheft 2 (1986)
CREUTZBURG, R.-TASCHE, M.: Number-theoretic transforms of prescribed length. Math. Comp. 47 (1986), pp. 693–701
CREUTZBURG, R.-TASCHE, M.: Construction of moduli for complex number-theoretic transforms. Publ. Math. (Ungarn) 33 (1986), pp. 162–165
CREUTZBURG, R.;-M. TASCHE: Number-theoretic transforms of prescribed length. Proc. EU-ROCAL'87 (Leipzig 1987), Lecture Notes in Computer Science 378, Springer: Berlin 1989, pp. 161–162
CREUTZBURG, R.-ANDREWS, L.: Determination of convenient moduli for mixed-radix numbertheoretic transforms for parallel evaluation in binary and multiple-valued logic. Proceed. 3rd Internat. Workshop on Spectral Techniques (Dortmund, 1988), C. Moraga (Ed.), pp. 46–55
CREUTZBURG, R.-STEIDL, G.: Number-theoretic transforms in rings of cyclotomic integers. Elektr. Informationsverarb. Kybernetik 24 (1988), pp. 573–584
CREUTZBURG, R.-TASCHE, M.: Parameter determination for complex number-theoretic transforms using cyclotomic polynomials. Math. Comp. 52 (1989), pp. 189–200
DUBOIS, E.-VENETSANOPOULOS, A. N.: The discrete Fourier transform over finite rings with application to fast convolution. IEEE Trans. Comput. C-27 (1978), pp. 586–593
DUBOIS, E.-VENETSANOPOULOS, A. N.: The generalized discrete Fourier transform in rings of algebraic integers. IEEE Trans. Acoust. Speech Signal Process.ASSP-28 (1980), pp. 169–175
GETHÖFFER, H.: Algebraic theory of finite systems. Progress in Cybernetics and Systems Research. (1975), pp. 170–176
HARMUTH, H. F.: Grundzüge einer Filtertheorie für die Mäanderfunktion. Archiv Elektr. Übertragung (1964) No. 18, pp. 544–555
HARMUTH, H. F.: Transmission of Information by Orthogonal Functions. Springer: Berlin 1969
HOLMES, R. B.: Mathematical foundations of signal processing. SIAM Review 21 (1979), No. 3, pp.361–388
HOLMES, R. B.: Mathematical foundations of signal processing II. The role of group theory. MIT Lincoln Lab., Techn. Report 781 (October 1987)
HOLMES, R. B.: Signal processing on finite groups. MIT Lincoln Laboratory, Lexington (MA), Technical Report 873 (Febr. 1990)
KARPOVSKY, M. G.: Finite Orthogonal Series in the Design of Digital Devices. Wiley: New York 1976
KARPOVSKY, M. G.: Error detection in digital devices and computer programs with the aid of linear recurrent equations over finite commutative groups. IEEE Trans. Comput. C-26 (1977), pp. 208–218
KARPOVSKY, M. G.: Harmonic analysis over finite commutative groups in linearization problems for systems of logical functions. Information and Control 33 (1977), pp. 142–165
KARPOVSKY, M. G.-TRACHTENBERG, E. A.: Some optimization problems for convolution systems over finite groups. Information and Control 34 (1977), pp. 227–247
KARPOVSKY, M. G.: Fast Fourier transforms on finite non-Abelian groups. IEEE Trans. Comput. C-26 (1977), pp. 1028–1030
KARPOVSKY, M. G.-TRACHTENBERG, E. A.: Fourier transform over finite groups for error detection and error correction in computation channels. Information and Control 40 (1979), pp. 335–358
KARPOVSKY, M. G.: Spectral Techniques and Fault Detection. Academic Press: New York 1985
KRISHNAN, R.; JULLIEN, G. A.-MILLER, W. C.: Complex Digital Signal Processing using Quadratic Residue Number Systems. Proc. ICASSP '85, IEEE (1985), pp. 764–767
LABUNETS, V. G.-SITNIKOV, O. P.: Generalized harmonic analysis of VP-invariant systems and random processes (in Russian) in: Harmonic Analysis on groups in abstract systems theory. Ural Polytechnical Institue Press: Sverdlovsk: 1976, pp. 44–67
LABUNETS, V. G.-SITNIKOV, O. R.: Generalized and fast Fourier transforms on arbitrary finite abelian groups. In: Harmonic Analysis on Groups in Abstract Systems Theory (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1976, pp. 44–66
LABUNETS, V. G.-SITNIKOV, O. R.: Generalized harmonic analysis of VP-invariant linear sequential circuits. In: Harmonic Analysis on Groups in Abstract Systems Theory (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1976, pp. 67–83
LABUNETS, V. G.: Examples of linear dynamical systems, invariant to action of a generalized shift operators. in: Orthogonal Methods for the Application in Signal Processing and Systems Analysis (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1980, pp. 111–118
LABUNETS, V. G.: Symmetry principles in signals and systems. in: Synthesis of Control and Computation Systems (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1980, pp. 4–14
LABUNETS, V. G.: Number-theoretic transforms over algebraic number fields. In: Orthogonal Methods for the Application in Signal Processing and Systems Analysis (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1981, pp. 4–54
LABUNETS, V. G.: Quaternion number-theoretic transform. In: Devices and Methods of Experimental Investigations in Automation (in Russian). Dnepropetrovsk State University Press: Dnepropetrovsk 1981, pp. 28–33
LABUNETS, V. G.: Number theoretic transforms over quadratic fields. In: Complex Control Systems (in Russian). Institute of Cybernetics USSR Academy of Sciences Press: Kiev 1982, pp. 30–37
LABUNETS, V. G.: Algebraic approach to signals and systems theory: linear systems examples. in: Radioelectronics Apparatus and Computational Technics Means Design Automation (in Russian). Ural Polytechnical Institue Press: Sverdlovsk 1982, pp. 75–81
LABUNETS, V. G.: Application of algebraic numbers in signal processing. In: Orthogonal Methods for the Application in Signal Processing and Systems Analysis (in Russian). Ural Polytechnical Institute: Sverdlovsk 1982, pp. 18–29
LABUNETS, V. G.: Relativity of “space” and “time” notions in system theory. in: Orthogonal Methods Application in Signal Processing and Systems Analysis (in Russian). Ural Polytechnical Institue Press: Sverdlovsk 1983, pp. 53–73
LABUNETS, V. G.: Codes invariant to generalized shift operators. In: Automated Systems for Transmission and Automatization (in Russian). Charkov Institute of Radioelectronics Press: Charkov 1983, pp. 56–68
LABUNETS, V. G.: Number theoretic transforms over algebraic number fields and their application in signal processing. In: Theory and Methods of Automation Design (in Russian). Institute of Technical Cybernetics Belorussian Academy of Sciences Press: Minsk 1985, pp. 16–28
LABUNETS, V. G.: Algebraic Theory of Signals and Systems — Computer Signal Processing (in Russian). Ural State University Press: Sverdlovsksk 1984
LABUNETS, V. G.: Fast Fourier transform on affine groups of Galois fields. in: Devices and Methods of Experimental Investigations in Automation. Dnepropetrovsk State University Press: Dnepropetrovsk 1984, pp. 48–60
LABUNETS, V. G.: Fast Fourier transform on generalized dihedral groups. In: Design Automation Theory and Methods (in Russian). Institute of Technical Cybernetics of the Belorussian Academy of Sciences Press: Minsk 1985, pp. 46–58
LABUNETS, V. G.: Theory of Signals and Systems — Part II (in Russian). Ural State University Press: Sverdlovsk 1989
LABUNETS, V. G.; LABUNETS, E. V.-CREUTZBURG, R.: Algebraic foundations of an abstract harmonic analysis based on a generalized symmetry principle. Part I: Analysis of signals. Preprint, Karlsruhe 1991
LABUNETS, V. G.; LABUNETS, E. V.-CREUTZBURG, R.: Algebraic foundations of an abstract harmonic analysis based on a generalized symmetry principle. Part II: Analysis of systems. Preprint, Karlsruhe 1991
LEVITAN, B. M.: Theory of Generalized Shift Operators (in Russian). Nauka: Moscow 1973
MacWILLIAMS, F. J.: Binary codes which are ideals in the group algebra of an abelian group. Bell. Syst. Tech. J. 49 (1970) No. 6, pp. 987–1011
MAHER, D. P.: The Chinese remainder theorem and the discrete Fourier transform. Preprint, Worcester Polytechnic Institute 1979
MAHER, D. P.: Existence theorems for transforms over finite rings with applications to 2-D convolutions. Math. Comp. 35 (1980), pp. 757–767
MARTENS, J. B.-VANWORMHOUDT, M. C.: Convolution using a conjugate symmetry property for number theoretic transforms over rings of regular integers. IEEE Trans. Acoust. Speech Signal Process. ASSP-31 (1983), pp. 1121–1124
NICHOLSON, P. J.: Algebraic theory of finite Fourier transform. J. Comput. Syst. Sci. 5 (1971), pp. 524–547
NICHOLSON, P. J.: Algebraic theory of the finite Fourier transform. Ph. D. dissertation, Stanford University 1969
NICOLIS, G.-PRIGOGINE, I.: Die Erforschung des Komplexen. Piper: München 1987
NUSSBAUMER, H. J.: Dispositif generateur de fonction de convolution discrete et filtre numerique incorporant ledit dispositif. French Patent Application No. 7512557 1975
NUSSBAUMER, H. J.: Digital filtering using complex Mersenne transforms. IBM J. Res. Develop. 20 (1976), pp. 498–504
NUSSBAUMER, H. J.: Digital filtering using polynomial transforms. Electron. Lett. 13 (1977), pp. 386–387
NUSSBAUMER, H. J.: Relative evaluation of various number theoretic transforms for digital filtering applications. IEEE Trans. Acoust. Speech Signal Process. ASSP-26 (1978), pp. 88–93
NUSSBAUMER, H. J.: New polynomial transform algorithms for multidimensional DFT's and convolutions. IEEE Trans. Acoust. Speech Signal Process. ASSP-29 (1981), pp. 74–83
NUSSBAUMER, H. J.: Fast Fourier Transforms and Convolution Algorithms. Springer: Berlin 1981
PICHLER, F.: Synthese linearer periodisch zeitinvariabler Filter mit vorgeschriebenem Sequenzverhalten. Arch. Elektr. Übertragung 22 (1968), pp. 150–161
PICHLER, F.: Some aspects of a theory of correlations with respect to Walsh harmonic analysi. Univ. of Maryland, College Park, Report R-70-11, August 1970
PICHLER, F.: Walsh functions and linear systems theory. Proceed. Symp. on the Application Walsh functions (Washington, D. C., Nov. 1970
PICHLER, F.: Walsh-Fourier-Synthese optimaler Filter. Archiv Elektr. Übertragung (1970) No. 24, pp. 350–360
PICHLER, F.: Zur Theorie verallgemeinerter Faltungssysteme: dyadische Faltungssysteme und Walshfunktionen. Elektron. Informationsverarb. Kybernet. 8 (1972) No.4., pp. 197–209
POLLARD, J. M.: The fast Fourier transform in a finite field. Math. Comp. 25 (1971), pp. 365–374
RADER, C. M.: Discrete convolutions via Mersenne transforms. IEEE Trans. Comput. C-21 (1972), pp. 1269–1273
RADER, C. M.: The number-theoretic DFT and exact discrete convolution. Presented at IEEE Arden House Workshop on Digital Signal Process. Harriman 1972
REED, I. S.-TRUONG, T. K.: The use of finite fields to compute convolutions. IEEE Irans. Inform. Theory IT-21 (1975), pp. 208–213
REED, I. S.-TRUONG, T. K.: Complex integer convolution over a direct sum of Galois fields. IEEE Trans. Inform. Theory IT-21 (1975), pp. 657–661
REED, I. S.-TRUONG, T. K.: Fast Mersenne-prime transforms for digital filtering. IEEE Proceed. 125 (1978), pp.433–440, 126, p.203
REED. I. S.-TRUONG, T. K.: Convolutions over residue classes of quadratic integers. IEEE Trans. Inform. Theory IT-22 (1976), pp. 468–475
SCHÖNHAGE, A.-STRASSEN, V.: Schnelle Multiplikation groβer Zahlen. Computing 7 (1971), pp. 281–292
SITNIKOV, O. P.: Harmonic analysis on groups in abstract systems theory. In: Harmonic Analysis on Groups in Abstract Systems Theory (in Russian). Ural Polytechnical Institute Press: Sverdlovsk 1976, pp. 5–24
TRACHTENBERG, E. A.-KARPOVSKY, M. G.: Filtering in a communication channel by Fourier transforms over finite groups. in: Karpovsky, M. G. (Ed.): Spectral Techniques and Fault Detection. Academic Press: Mew York 1985, pp. 179–216
TRACHTMAN, A. M.; TRACHTMAN, V. A.: The Principles of Discrete Signals on Finite Intervals Theory (in Russian). Soviet Radio: Moscow 1975
VERNADSKY, V. N.: Time problem in modern science (in Russian). Izvest. Akad. Nauk SSSR, Mathematics and Natural Sciences 1932, pp. 511–541
VINITSKY, A. S.: Modulated Filters and Tracking Reception of Frequency Modulated Signals (in Russian). Moscow 1969
WINOGRAD, S.: On computing the discrete Fourier transform. Math. Comp. 32 (1978), pp. 175–199
WINOGRAD, S.: Some bilinear forms whose multiplicative complexity depends on the field of constants. IBM Research Report RC5669 1975
WU, M. Y.-SHERIF, A.: On the commutative class of linear time-varying systems. Int. J. Contr. 23 (1976), pp. 433–444
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Creutzburg, R., Labunets, V.G., Labunets, E.V. (1992). Towards an “Erlangen program” for general linear systems theory. In: Pichler, F., Díaz, R.M. (eds) Computer Aided Systems Theory — EUROCAST '91. EUROCAST 1991. Lecture Notes in Computer Science, vol 585. Springer, Berlin, Heidelberg. https://doi.org/10.1007/BFb0021003
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