Аннотация: The subject of research is the development of key performance indicators of tax consultants. Object of research are the key performance indicators. It is proved that the key performance indicators of the business process tax advice is a measure to achieve the strategic objectives of the company, with which you can evaluate the activities and improve the performance of tax consultants, as well as to develop optimal approaches to the professional development of staff. It clarified that each figure should be: (1) clearly defined; (2) is achievable; (3) comparable; (4) contribute to the motivation of the personnel; (5) is the basis for the analysis.In this paper, using econometric and statistical methods, as well as using the program «Mathlab» (application «Fuzzy Logic») performance indicators tax consultants decomposed under the Balanced Scorecard and are considered by categories: (1) finance; (2) markets and customers; (3) business processes; (4) training and development.Decompose the evaluation parameter "Finance" on several input parameters (1) the level of income; (2) the level of costs; (3) the level of intangible assets (goodwill).Decompose option "Markets and customers" on the following inputs: (1) the level of customer savings (the base value for the customer); (2) the level of image and reputation; (3) quality of service (compliance with the law, the level of efficiency); (4) to attract customers; (5) retention of customers.Decompose option "Business Processes" on the following inputs: (1) maintain the level of competence (knowledge of the legislation, industry knowledge, experience); (2) the level of maintenance of lobbying the interests of taxpayers; (3) the level of effectiveness of the internal quality control; (4) the level of understanding of customer needs, the effectiveness of communication with customers; (5) The effectiveness of the internal exchange of information; (6) the level of compliance with the requirements of the services market; (7) the level of costs.Decompose option "Training and education" on the following input parameters: (1) the level of provision of search and recruitment of professional staff; (2) the professional qualifications of staff; (3) quality control and knowledge management; (4) the level of compliance with corporate and personal goals.The evaluation of the linguistic variables for the index of "Finance". To solve the problem of fuzzy set of input rules. The question of the application of fuzzy modeling functions in the selection of key performance indicators.

Ключевые слова: fuzzification of input variables, fuzzy inference rules, thermae, estimation parameters, function fuzzy modeling, Key Performance Indicators, accumulation, defuzzification, fuzzification, aggregation of data

Библиография:
www.toastmasters.org
www.hr-portal.ru
Kaplan Mobray “The 10Ks of Personal Branding”, New York, 2009.
www.e-xecutive.ru
Rampersad. K.Kh'yubert. Universal'naya sistema pokazateley deyatel'nosti. Kak dostich' rezul'tatov i sokhranit' tselostnost': Per. s ang. 2-e izd. M.: Al'p Bizn.Buks., 2005. 352 s.
Klochkov A.K «KPI i motivatsiya personala: polnyy sbornik prakticheskikh instrumentov». M.: Eksmo, 2011. 16 s. – (HR-biblioteka).
Parmanter D. «Klyuchevye pokazateli effektivnosti. Razrabotka, vnedrenie i primenenie reshayushchikh pokazateley. M.: ZAO «Olimp-biznes», 2009. S. 43.
Kaplan Robert S., Norton Deyvid P. Sbalansirovannaya sistema pokazateley. Ot strategii k deystviyu. 2-e izd., ispr. i dop.: Per. s angl. M.: ZAO «Olimp-Biznes», 2010. 320 s.
Karandashev A.N. Sbalansirovannoe upravlenie predpriyatiem. M.: KNORUS, 2009. S. 224.
Leonenkov A.V. Nechetkoe modelirovanie v srede Mathlab i Fuzzytech. SPb.: BVKh-Peterburg, 2005. 73 6s.
Bashkirova N.N., Sugrobova E.B. Osnovy nalogovogo konsul'tirovaniya. M., 2008. 175 s.
Vylkova E.S, Romanovskiy M.V. Nalogovoe planirovanie. izd. Piter, 2009. S. 76.

References (transliteration):
www.toastmasters.org
www.hr-portal.ru
Kaplan Mobray “The 10Ks of Personal Branding”, New York, 2009.
www.e-xecutive.ru
Rampersad. K.Kh'yubert. Universal'naya sistema pokazateley deyatel'nosti. Kak dostich' rezul'tatov i sokhranit' tselostnost': Per. s ang. 2-e izd. M.: Al'p Bizn.Buks., 2005. 352 s.
Klochkov A.K «KPI i motivatsiya personala: polnyy sbornik prakticheskikh instrumentov». M.: Eksmo, 2011. 16 s. – (HR-biblioteka).
Parmanter D. «Klyuchevye pokazateli effektivnosti. Razrabotka, vnedrenie i primenenie reshayushchikh pokazateley. M.: ZAO «Olimp-biznes», 2009. S. 43.
Kaplan Robert S., Norton Deyvid P. Sbalansirovannaya sistema pokazateley. Ot strategii k deystviyu. 2-e izd., ispr. i dop.: Per. s angl. M.: ZAO «Olimp-Biznes», 2010. 320 s.
Karandashev A.N. Sbalansirovannoe upravlenie predpriyatiem. M.: KNORUS, 2009. S. 224.
Leonenkov A.V. Nechetkoe modelirovanie v srede Mathlab i Fuzzytech. SPb.: BVKh-Peterburg, 2005. 73 6s.
Bashkirova N.N., Sugrobova E.B. Osnovy nalogovogo konsul'tirovaniya. M., 2008. 175 s.
Vylkova E.S, Romanovskiy M.V. Nalogovoe planirovanie. izd. Piter, 2009. S. 76.

Аннотация: The research is devoted to one of the physical nanoelectronic effect – resonant tunneling. The authors provide numerical calculations for constructing the MIS-structure based diod and modeling its characteristics. The metal-oxide-silicon semiconductor in the severe depletion mode next to the doped semiconductor has a similar structure. The authors establish the MIS-structure energy band diagram, define energy levels and wave functions of an electron in the quantum well and during tunneling and calcuate the probability of tunneling based on the amounnt of the voltage applied. In the course of calculations the authors use the PTC Mathcad Prime 3.1 visual environment for mathematical modeling and technical computing. The results of the computer modeling allow to define external limit voltage including the amount of voltage that leads to the dielectric breakdown. In addition, the authors define the qualitative dependency between the MIS-structure voltage and the height and width of the energy barrier. The model developed by the authors takes into account the joint influence of several factors which is proved by the coordination of recorded current voltrage characteristic with the experimental characteristics. 

Ключевые слова: nanoelectronics, wave function, MIS structure, energy band diagram, quantum well, modeling, resonant tunelling diod, semiconductor device, quantum transport, quantum effect

Библиография:
Flyugge Z. Zadachi po kvantovoy mekhanike. Tom 1. Per. s angl. M.: Mir, 1974. - 341 s.
Mustafaev G.A., Panchenko D.V., Panchenko V. A., Efimov M.Yu., Uyanaeva M.M. Raschet i modelirovanie urovney razmernogo kvantovaniya v strukture GaN-GaSb-GaN. Izvestiya KBGU, tom 1, №3, Nal'chik, 2011, s. 66-71.
Mustafaev G.A., Panchenko V.A., Mustafaev A.G., Panchenko D.V., Cherkesova N.V. Modelirovanie ionizatsionnykh poter' TTLSh logicheskogo elementa // Sovremennye problemy nauki i obrazovaniya. – 2015. – № 1; URL: www.science-education.ru/121-19357 (data obrashcheniya: 08.10.2015).
Fedyay A.V., Tisnyy I.S. Modelirovanie rezonansno-tunnel'nogo dioda metodom funktsiy Eyri // N.–tekhn. sb. «Elektronika i svyaz'», tematicheskiy vypusk «Elektronika i nanotekhnologii», ch.1. – 2009. – № 2-3, S. 19–21.
Abramov I.I., Goncharenko I.A., Kolomeytseva N.V. Kombinirovannaya model' rezonansno-tunnel'nogo dioda // Fizika i tekhnika poluprovodnikov. 2005. T. 39, vyp. 9. S. 1138-1145.
Ivanov Yu.A., Meshkov S.A., Sinyakin V.Yu., Fedorkova N.V., Fedorov I.B., Shashurin V.D., Fedorenko I.A. Povyshenie pokazateley kachestva radioelektronnykh sistem novogo pokoleniya za schet primeneniya rezonansno-tunnel'nykh nanodiodov // Nanoinzheneriya, 2011, № 1, S. 34-43.
Alkeev N.V., Averin S.I., Dorofeev A.A., Gladysheva N.B., Torgashin M.Yu. Rezonansno-tunnel'nyy diod na osnove geterosistemy GaAs/ AlAs dlya subgarmonicheskogo smesitelya // Mikroelektronika. 2010. T. 39, № 5. S. 356-365.

References (transliteration):
Flyugge Z. Zadachi po kvantovoy mekhanike. Tom 1. Per. s angl. M.: Mir, 1974. - 341 s.
Mustafaev G.A., Panchenko D.V., Panchenko V. A., Efimov M.Yu., Uyanaeva M.M. Raschet i modelirovanie urovney razmernogo kvantovaniya v strukture GaN-GaSb-GaN. Izvestiya KBGU, tom 1, №3, Nal'chik, 2011, s. 66-71.
Mustafaev G.A., Panchenko V.A., Mustafaev A.G., Panchenko D.V., Cherkesova N.V. Modelirovanie ionizatsionnykh poter' TTLSh logicheskogo elementa // Sovremennye problemy nauki i obrazovaniya. – 2015. – № 1; URL: www.science-education.ru/121-19357 (data obrashcheniya: 08.10.2015).
Fedyay A.V., Tisnyy I.S. Modelirovanie rezonansno-tunnel'nogo dioda metodom funktsiy Eyri // N.–tekhn. sb. «Elektronika i svyaz'», tematicheskiy vypusk «Elektronika i nanotekhnologii», ch.1. – 2009. – № 2-3, S. 19–21.
Abramov I.I., Goncharenko I.A., Kolomeytseva N.V. Kombinirovannaya model' rezonansno-tunnel'nogo dioda // Fizika i tekhnika poluprovodnikov. 2005. T. 39, vyp. 9. S. 1138-1145.
Ivanov Yu.A., Meshkov S.A., Sinyakin V.Yu., Fedorkova N.V., Fedorov I.B., Shashurin V.D., Fedorenko I.A. Povyshenie pokazateley kachestva radioelektronnykh sistem novogo pokoleniya za schet primeneniya rezonansno-tunnel'nykh nanodiodov // Nanoinzheneriya, 2011, № 1, S. 34-43.
Alkeev N.V., Averin S.I., Dorofeev A.A., Gladysheva N.B., Torgashin M.Yu. Rezonansno-tunnel'nyy diod na osnove geterosistemy GaAs/ AlAs dlya subgarmonicheskogo smesitelya // Mikroelektronika. 2010. T. 39, № 5. S. 356-365.

Аннотация: The subject of the research presented by the authors of the article is the mathematical models of endocardial signals from the main electrophysiological parts of the heart with the specified amplitude-time characteristics of information fragments. The authors of the article offer the mechanism for extending the mathematical models in order to generate normal and/or pathological states of the atrioventricular system conducting endocardial electrical impulses. The article contains the results of the comparison of modeled and actual endocardial signals recorded in the course of minimally invasive eletrophysiological examination. These results demonstrate that the designed models are appropriate and applicable for modeling endocardial signals coming from different parts of the heart. The research method used by the authors is the mathematical modeling using Gaussian functions approximating set elements of the endocardial signal coming from different parts of the intracardial space. The main conclusions of the research are the following: - the authors have proved that Guassian functions are applicable for the aforesaid purposes; - they have also described possible modifications of used functions for modeling signals from other endocardial spheres such as the left atrium pulmonary vein entry, mitral aortal zone and other zones  clinical electrophysiologists are particularly interested in; the authors have also demonstrated how the research results can be implemented in the form of the hardware and software complexes using the modern methodologies for assessing efficiency of treating complex heart rhythm disorders. 

Ключевые слова: radio frequency ablation, asymmetrical function, heart conduction system, electrophysiological study, Gaussian functions, endocardial signals' modeling, endocardial signals, atrial fibrillation, heart process modeling, atrioventricular conductin

Библиография:
Krueger M, Schmidt V, Tobón C, et al. Modeling Atrial Fiber Orientation in Patient-Specific Geometries: A Semi-automatic Rule-Based Approach. Functional Imaging and Modeling of the Heart; 2011: Springer. p. 223-32.
van Oosterom A. Closed-form analytical expressions for the potential fields generated by triangular monolayers with linearly distributed source strength. Med Biol Eng Comput 2012. p. 1-9.
D. Du, H. Yang, S. Norring and E. Bennett, "In-Silico Modeling of Glycosylation Modulation Dynamics in hERG Ion Channels and Cardiac Electrical Signals," IEEE Journal of Biomedical and Health Informatics, vol. 18, pp. 205-214, 2014. r. 122.
R. D. Simitev and V. N. Biktashev. "Conditions for Propagation and Block of Excitation in an Asymptotic Model of Atrial Tissue," Biophysical Journal. vol. 90, r. 2258-2269.
Sameni R, Shamsollahi MB, Jutten C, Babaie-Zade M. Filtering noisy ECG signals using the extended kalman filter based on a modified dynamic ECG model. Computers in Cardiology 2005. r. 1017 – 1020
Clifford GD, McSharry PE. Method to filter ecgs and evaluate clinical parameter distortion using realistic ECG model parameter fitting. Computers in Cardiology 2005. r. 715-718.
Sahambi JS, Tandon SN, Bhatt RKP. An Automated Approach to Beat by Bea t QT-Interval Analysis. IEEE Engineering in Medicine and Biology 2000. r. 97-101.
J. David Burkhardt, L. Di Biase, A. Natale. "Long-Standing Persistent Atrial Fibrillation," Journal of the American College of Cardiology. 60(19), pp1930-1932, 2012. r. 41.
January CT, et al. 2014 AHA/ACC/HRS Guideline for the management of patients with atrial fibrillation: A report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines and the Heart Rhythm Society. Circulation, published online March 28, 2014. r. 32.
Gromyko G.A., Yashin S.M., Sharikov N.L., Chetverikov S.U., Pasenov G.S., Didenko M.V. Characteristics of coronary artery involvement and probability of appropriate discharges of cardioverter-defibrillator implanted for primary prevention of sudden cardiac death. (2014) Kardiologiya, 54 (3), pp. 4-8.
Leif Sörnmo, Martin Stridh, Daniela Husser, Andreas Bollmann, and S Bertil Olsson. Analysis of atrial fibrillation: from electrocardiogram signal processing to clinical management. Philos Transact A Math Phys Eng Sci, 367(1887):235–53, Jan 2009.
Kukushkin Y.A., Bogomolov A.V., Maistrov A.I. Rhythmocardiogram approximation methods for calculation of spectral parameters of cardiac rhythm variability // Biomedical Engineering. 2010. T. 44. № 3. p. 92-103.
O.E. Baksanskiy Kognitivnaya nauka: modelirovanie chelovecheskogo intellekta // Psikhologiya i Psikhotekhnika. - 2010. - 10. - C. 12 - 20.

References (transliteration):
Krueger M, Schmidt V, Tobón C, et al. Modeling Atrial Fiber Orientation in Patient-Specific Geometries: A Semi-automatic Rule-Based Approach. Functional Imaging and Modeling of the Heart; 2011: Springer. p. 223-32.
van Oosterom A. Closed-form analytical expressions for the potential fields generated by triangular monolayers with linearly distributed source strength. Med Biol Eng Comput 2012. p. 1-9.
D. Du, H. Yang, S. Norring and E. Bennett, "In-Silico Modeling of Glycosylation Modulation Dynamics in hERG Ion Channels and Cardiac Electrical Signals," IEEE Journal of Biomedical and Health Informatics, vol. 18, pp. 205-214, 2014. r. 122.
R. D. Simitev and V. N. Biktashev. "Conditions for Propagation and Block of Excitation in an Asymptotic Model of Atrial Tissue," Biophysical Journal. vol. 90, r. 2258-2269.
Sameni R, Shamsollahi MB, Jutten C, Babaie-Zade M. Filtering noisy ECG signals using the extended kalman filter based on a modified dynamic ECG model. Computers in Cardiology 2005. r. 1017 – 1020
Clifford GD, McSharry PE. Method to filter ecgs and evaluate clinical parameter distortion using realistic ECG model parameter fitting. Computers in Cardiology 2005. r. 715-718.
Sahambi JS, Tandon SN, Bhatt RKP. An Automated Approach to Beat by Bea t QT-Interval Analysis. IEEE Engineering in Medicine and Biology 2000. r. 97-101.
J. David Burkhardt, L. Di Biase, A. Natale. "Long-Standing Persistent Atrial Fibrillation," Journal of the American College of Cardiology. 60(19), pp1930-1932, 2012. r. 41.
January CT, et al. 2014 AHA/ACC/HRS Guideline for the management of patients with atrial fibrillation: A report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines and the Heart Rhythm Society. Circulation, published online March 28, 2014. r. 32.
Gromyko G.A., Yashin S.M., Sharikov N.L., Chetverikov S.U., Pasenov G.S., Didenko M.V. Characteristics of coronary artery involvement and probability of appropriate discharges of cardioverter-defibrillator implanted for primary prevention of sudden cardiac death. (2014) Kardiologiya, 54 (3), pp. 4-8.
Leif Sörnmo, Martin Stridh, Daniela Husser, Andreas Bollmann, and S Bertil Olsson. Analysis of atrial fibrillation: from electrocardiogram signal processing to clinical management. Philos Transact A Math Phys Eng Sci, 367(1887):235–53, Jan 2009.
Kukushkin Y.A., Bogomolov A.V., Maistrov A.I. Rhythmocardiogram approximation methods for calculation of spectral parameters of cardiac rhythm variability // Biomedical Engineering. 2010. T. 44. № 3. p. 92-103.
O.E. Baksanskiy Kognitivnaya nauka: modelirovanie chelovecheskogo intellekta // Psikhologiya i Psikhotekhnika. - 2010. - 10. - C. 12 - 20.

Аннотация: The subject of research is the decision support process in production and economic systems caused by the implementation of trade innovative projects and related economic and mathematical models and management methods. The object of the research is production and economic industrial enterprise system focused on implementation of trade innovative projects. The special attention is paid to the issues of design and usage of information systems based on simulation modeling for decision making support and studies of trade innovative projects at different stages of development. The study is based on theory and methodology of decision-making and management of social and economic systems, the provisions of the management theory, general systems theory, control theory, system analysis and operations research, methods of economic-mathematical modeling and simulation, statistical analysis, micro-economic forecasting. A special contribution of the study is in demonstrating that the decision making support in the management of the trade innovative projects in the industrial and economic systems requires the use of simulation modeling techniques based on econometric models and methods involving information systems. Also the requirements for the information system structure for emerging management challenges are developed.

Ключевые слова: management, production system, software, production planning, innovation project, algorithm, decision support, simulation model, method, mathematical model

Библиография:
Abdullaev A.R., Myl'nikov L.A., Vasil'eva E.E. O riskakh v innovatsionnykh proektakh: prichiny poyavleniya, integral'nye riski, ekspertiza proektov s uchetom riskov // Ekonomicheskiy analiz: teoriya i praktik. 2012. № 40 (295). C. 41–49.
Alkdirou R.Kh., Myl'nikov L.A. Prognozirovanie perspektiv razvitiya parametrov innovatsionnykh proektov, opisyvaemykh S-obraznoy krivoy // VII Vserossiyskaya shkola-seminar molodykh uchenykh «Upravlenie bol'shimi sistemami»: Sbornik trudov. 2010. (1). C. 118–123.
Batishcheva S.E., Kadaner E.D., Simonov P.M. Matematicheskie modeli mikroekonomiki / S.E. Batishcheva, E.D. Kadaner, P.M. Simonov, Perm': Perm. gos. un-t., 2006. 314 c.
Gurevich I.M. Zakony informatiki-osnova stroeniya i poznaniya slozhnykh sistem / I.M. Gurevich, M.: TORUS PRESS, 2007. 400 c.
Myl'nikov L.A. Mikroekonomicheskie problemy upravleniya innovatsionnymi proektami // Problemy upravleniya. 2011. № 3. C. 2–11.
Myl'nikov L.A., Alkdirou R.Kh. Podkhod k prognozirovaniyu razvitiya i upravleniya zhiznennym tsiklom investitsionnykh proektov // Upravlenie bol'shimi sistemami. 2009. № 27. C. 293–307.
Dignum V. An Overview of Agents in Knowledge Management pod red. M. Umeda [i dr.]., Berlin, Heidelberg: Springer Berlin Heidelberg, 2006. 175–189 s.
Gantt H.L., Forrer D. Organizing for work/ by Henry Laurence Gantt; edited and introduction by Donald A. Forrer. / H.L. Gantt, D. Forrer, Florida: Dr, Donald A. Forrer, 2006.
Jennings N.R. On agent-based software engineering // Artificial Intelligence. 2000. № 2 (117). C. 277–296.
Kaihara T., Fujii S. Game theoretic enterprise management in industrial collaborative networks with multi-agent systems // International Journal of Production Research. 2008. № 5 (46). C. 1297–1313.
Mylnikov L.A., Trusov A.V. On an approach to the design of a logical model of innovation project data // Scientific and Technical Information Processing. 2011. № 3 (38). C. 201–206.
Pepall L. Imitative Competition and Product Innovation in a Duopoly Model // Economica. 1995. № 64. C. 265–269.
Taylor F.W. The principles of scientific management / F.W. Taylor, New York, NY: Norton, 1967. 144 c.
Van den Heuvel W. [i dr.]. Integrated market selection and production planning: complexity and solution approaches // Mathematical Programming. 2012. № 2 (134). C. 395–424.
Wagner H.M., Whitin T.M. Dynamic version of the economic lot size model // Management Science. 1958. № 5. C. 89–96
Kul'ba V.V., Shul'ts V.L., Shelkov A.B., Chernov I.V. Metody upravleniya effektivnost'yu realizatsii sotsial'no-ekonomicheskikh tselevykh programm // Trendy i upravlenie. - 2013. - 4. - C. 4 - 28. DOI: 10.7256/2307-9118.2013.4.9603.

References (transliteration):
Abdullaev A.R., Myl'nikov L.A., Vasil'eva E.E. O riskakh v innovatsionnykh proektakh: prichiny poyavleniya, integral'nye riski, ekspertiza proektov s uchetom riskov // Ekonomicheskiy analiz: teoriya i praktik. 2012. № 40 (295). C. 41–49.
Alkdirou R.Kh., Myl'nikov L.A. Prognozirovanie perspektiv razvitiya parametrov innovatsionnykh proektov, opisyvaemykh S-obraznoy krivoy // VII Vserossiyskaya shkola-seminar molodykh uchenykh «Upravlenie bol'shimi sistemami»: Sbornik trudov. 2010. (1). C. 118–123.
Batishcheva S.E., Kadaner E.D., Simonov P.M. Matematicheskie modeli mikroekonomiki / S.E. Batishcheva, E.D. Kadaner, P.M. Simonov, Perm': Perm. gos. un-t., 2006. 314 c.
Gurevich I.M. Zakony informatiki-osnova stroeniya i poznaniya slozhnykh sistem / I.M. Gurevich, M.: TORUS PRESS, 2007. 400 c.
Myl'nikov L.A. Mikroekonomicheskie problemy upravleniya innovatsionnymi proektami // Problemy upravleniya. 2011. № 3. C. 2–11.
Myl'nikov L.A., Alkdirou R.Kh. Podkhod k prognozirovaniyu razvitiya i upravleniya zhiznennym tsiklom investitsionnykh proektov // Upravlenie bol'shimi sistemami. 2009. № 27. C. 293–307.
Dignum V. An Overview of Agents in Knowledge Management pod red. M. Umeda [i dr.]., Berlin, Heidelberg: Springer Berlin Heidelberg, 2006. 175–189 s.
Gantt H.L., Forrer D. Organizing for work/ by Henry Laurence Gantt; edited and introduction by Donald A. Forrer. / H.L. Gantt, D. Forrer, Florida: Dr, Donald A. Forrer, 2006.
Jennings N.R. On agent-based software engineering // Artificial Intelligence. 2000. № 2 (117). C. 277–296.
Kaihara T., Fujii S. Game theoretic enterprise management in industrial collaborative networks with multi-agent systems // International Journal of Production Research. 2008. № 5 (46). C. 1297–1313.
Mylnikov L.A., Trusov A.V. On an approach to the design of a logical model of innovation project data // Scientific and Technical Information Processing. 2011. № 3 (38). C. 201–206.
Pepall L. Imitative Competition and Product Innovation in a Duopoly Model // Economica. 1995. № 64. C. 265–269.
Taylor F.W. The principles of scientific management / F.W. Taylor, New York, NY: Norton, 1967. 144 c.
Van den Heuvel W. [i dr.]. Integrated market selection and production planning: complexity and solution approaches // Mathematical Programming. 2012. № 2 (134). C. 395–424.
Wagner H.M., Whitin T.M. Dynamic version of the economic lot size model // Management Science. 1958. № 5. C. 89–96
Kul'ba V.V., Shul'ts V.L., Shelkov A.B., Chernov I.V. Metody upravleniya effektivnost'yu realizatsii sotsial'no-ekonomicheskikh tselevykh programm // Trendy i upravlenie. - 2013. - 4. - C. 4 - 28. DOI: 10.7256/2307-9118.2013.4.9603.

Аннотация: The subject of the study is to optimize the management of flight speed and altitude of the aircraft, implementing a coordinated deflection of controls using special algorithmic software for flight control and navigation systems of automatic control. The authors solve the problem of creating a simulation software for controlling the regimes of horizontal flight of an unmanned aircraft, which allows to validate (to carry out a comprehensive study for a wide range of conditions, conditions and restrictions) control algorithms altitude and airspeed with the help of an integrated management system. The results are presented in relation to the adaptive control algorithm speed and altitude UAV aircraft type having versatility. The research methodology includes methods of mathematical modeling, management of complex systems, inverse problems of dynamics, system simulation, adaptive control, flight dynamics, aerodynamics. The main result of the study is a program complex of modeling management regimes of horizontal flight of an unmanned aircraft, which has been used to validated control algorithm level flight of an unmanned aircraft, providing an increase in the speed control loop speed and altitude, reducing fuel consumption, due to the desire of the current rate closer to the optimal value due to the withdrawal of the aircraft at the optimum altitude.

Ключевые слова: speed control loop, autothrottle, longitudinal control channel, flight control and navigation system, unmanned aerial vehicle, flight control, flight control algorithm, flight simulation, the inverse problem of dynamics, modeling software package

Библиография:
Khar'kov V.P., Khalyutin S.P. Upravlenie vektorom skorosti poleta letatel'nogo apparata na osnove energeticheskogo podkhoda // Nauchnyy vestnik Moskovskogo gosudarstvennogo tekhnicheskogo universiteta grazhdanskoy aviatsii. 2015. № 213 (3). S. 73-80.
Shibanov G.P. Optimizatsiya sistem upravleniya letatel'nym apparatom po kriteriyam upravlyaemosti i nablyudaemosti // Mekhatronika, avtomatizatsiya, upravlenie. 2012. № 4. S. 57-61.
Gulevich S.P., Aleksandrovskiy B.V., Veselov Yu.G. Obosnovanie osnovnykh trebovaniy k kharakteristikam dvizheniya bespilotnykh letatel'nykh apparatov dvoynogo naznacheniya // Problemy bezopasnosti poletov. 2008. № 8. S. 25-39.
Severtsev N.A., Shipilov V.V. Distantsionno upravlyaemye bespilotnye dvukhsrednye apparaty // Voprosy teorii bezopasnosti i ustoychivosti sistem. 2014. № 16. S. 107-116.
Khar'kov V.P. Algoritm upravleniya otnositel'nym polozheniem bespilotnykh letatel'nykh apparatov // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2015. T. 13. № 5. S. 33-40.
Gulevich S.P., Veselov Yu.G. Vybor i obosnovanie minimal'no neobkhodimogo ob'ema parametrov poletnoy informatsii, izmeryaemykh na bortu bespilotnogo letatel'nogo apparata // Problemy bezopasnosti poletov. 2008. № 11. S. 58-63.
Bukov V.N., Bocharov A.S., Sel'vesyuk N.I. Sintez konturov upravleniya letatel'nogo apparata s garantirovannoy tochnost'yu // Giroskopiya i navigatsiya. 2006. № 3 (54). S. 86.
Kulifeev Yu.B., Afanas'ev Yu.N. Algoritm avtomaticheskogo privedeniya samoleta k zadannym vysote i skorosti gorizontal'nogo poleta // Mekhatronika, avtomatizatsiya, upravlenie. 2011. №
S. 54-58. 9. Makarenko V.G., Podorozhnyak A.A., Rudakov S.V., Bogomolov A.V. Inertsial'no-sputnikovaya navigatsionnaya sistema upravleniya transportnymi sredstvami // Problemy upravleniya. 2007. № 1. S. 64-71.
Savchenko A.Yu., Sel'vesyuk N.I. Razrabotka metodicheskogo apparata sinteza robastnykh detsentralizovannykh zakonov upravleniya s model'noy koordinatsiey // Informatika i sistemy upravleniya. 2014. № 2 (40). S. 158-167.
Gulevich S.P., Veselov Yu.G. Metodika opredeleniya koeffitsienta momenta tangazha bespilotnykh letatel'nykh apparatov po materialam naturnykh eksperimentov // Problemy bezopasnosti poletov. 2009. № 11. S. 47-52.
Khar'kov V.P., Mikhalev I.S. Adaptivnyy algoritm upravleniya skorost'yu poleta letatel'nogo apparata // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2011. T. 9. № 1. S. 9-15.
Kulifeev Yu.B. Opredelenie diskretnykh matematicheskikh modeley dinamicheskikh ob'ektov, zadannykh lineynymi differentsial'nymi uravneniyami s postoyannymi koeffitsientami // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2008. T. 6. № 11. S. 5-19.
Kulifeev Yu.B., Likhachev I.V. Sintez algoritma upravleniya beskontaktnym ventil'nym dvigatelem metodom obratnykh zadach dinamiki // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 1. S. 28-36.
Khar'kov V.P., Korsun O.H., Grebnev O.H. Sintez upravleniya bespilotnym letatel'nym apparatom na osnove metoda obratnykh zadach dinamiki i parametricheskoy identifikatsii // Vestnik komp'yuternykh i informatsionnykh tekhnologiy. 2010. № 12. S. 18-23.
Kulifeev Yu.B., Afanas'ev Yu.N. Algoritmizatsiya avtomaticheskoy posadki samoleta v usloviyakh meteominimuma // Mekhatronika, avtomatizatsiya, upravlenie. 2012. № 11. S. 60-66.
Gulevich S.P., Veselov Yu.G. Metod opredeleniya skorosti prizemleniya bespilotnykh letatel'nykh apparatov na osnove rezul'tatov matematicheskogo modelirovaniya i naturnykh eksperimentov // Problemy bezopasnosti poletov. 2008. № 6. S. 33-37.
Makarenko V.G., Bogomolov A.V., Rudakov S.V., Podorozhnyak A.A. Tekhnologiya postroeniya inertsial'no-sputnikovoy navigatsionnoy sistemy upravleniya transportnymi sredstvami s neyrosetevoy optimizatsiey sostava vektora izmereniy // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 1. S. 39-44.
Kulifeev Yu.B., Alekseev E.O. Algoritm otrabotki zadannoy traektorii dvizheniya samoleta po vzletno-posadochnoy polose // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 10. S. 73-78.
Khar'kov V.P. Sintez optimal'nogo upravlenie nelineynymi dinamicheskimi sistemami na osnove kontseptsii obratnykh zadach dinamiki // Trudy mezhdunarodnogo simpoziuma Nadezhnost' i kachestvo. 2012. T. 1. S. 491-492.
Gurevich O.S. Gol'berg F.D., Selivanov O.D. Integrirovannoe upravlenie silovoy ustanovkoy mnogorezhimnogo samoleta. M.: Mashinostroenie, 1994. 304 s.
Kolomiets L.V., Fedorov M.V., Bogomolov A.V., Merezhko A.N., Soldatov A.S., Esev A.A. Metod podderzhki prinyatiya resheniy po upravleniyu resursami pri ispytaniyakh aviatsionnoy tekhniki // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 38-40.
Rudakov I.S., Rudakov S.V., Bogomolov A.V. Metodika identifikatsii vida zakona raspredeleniya parametrov pri provedeniya kontrolya sostoyaniya slozhnykh sistem // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2007. T. 5. № 1. S. 66-72.
Eremin E.M., Russkin A.V. Sposob rascheta otsenki maksimal'no dopustimoy vzletnoy massy bespilotnogo letatel'nogo apparata na etape ego proektirovaniya // Oboronnyy kompleks-nauchno-tekhnicheskomu progressu Rossii. 2014. № 1 (121). S. 39-42
Baykin V.A., Stetsyuk A.N. Modelirovanie informatsionnogo upravleniya funktsionirovaniem sistemy kosmicheskoy svyazi i navigatsii // Trendy i upravlenie. - 2015. - 2. - C. 162 - 166. DOI: 10.7256/2307-9118.2015.2.14408.

References (transliteration):
Khar'kov V.P., Khalyutin S.P. Upravlenie vektorom skorosti poleta letatel'nogo apparata na osnove energeticheskogo podkhoda // Nauchnyy vestnik Moskovskogo gosudarstvennogo tekhnicheskogo universiteta grazhdanskoy aviatsii. 2015. № 213 (3). S. 73-80.
Shibanov G.P. Optimizatsiya sistem upravleniya letatel'nym apparatom po kriteriyam upravlyaemosti i nablyudaemosti // Mekhatronika, avtomatizatsiya, upravlenie. 2012. № 4. S. 57-61.
Gulevich S.P., Aleksandrovskiy B.V., Veselov Yu.G. Obosnovanie osnovnykh trebovaniy k kharakteristikam dvizheniya bespilotnykh letatel'nykh apparatov dvoynogo naznacheniya // Problemy bezopasnosti poletov. 2008. № 8. S. 25-39.
Severtsev N.A., Shipilov V.V. Distantsionno upravlyaemye bespilotnye dvukhsrednye apparaty // Voprosy teorii bezopasnosti i ustoychivosti sistem. 2014. № 16. S. 107-116.
Khar'kov V.P. Algoritm upravleniya otnositel'nym polozheniem bespilotnykh letatel'nykh apparatov // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2015. T. 13. № 5. S. 33-40.
Gulevich S.P., Veselov Yu.G. Vybor i obosnovanie minimal'no neobkhodimogo ob'ema parametrov poletnoy informatsii, izmeryaemykh na bortu bespilotnogo letatel'nogo apparata // Problemy bezopasnosti poletov. 2008. № 11. S. 58-63.
Bukov V.N., Bocharov A.S., Sel'vesyuk N.I. Sintez konturov upravleniya letatel'nogo apparata s garantirovannoy tochnost'yu // Giroskopiya i navigatsiya. 2006. № 3 (54). S. 86.
Kulifeev Yu.B., Afanas'ev Yu.N. Algoritm avtomaticheskogo privedeniya samoleta k zadannym vysote i skorosti gorizontal'nogo poleta // Mekhatronika, avtomatizatsiya, upravlenie. 2011. №
S. 54-58. 9. Makarenko V.G., Podorozhnyak A.A., Rudakov S.V., Bogomolov A.V. Inertsial'no-sputnikovaya navigatsionnaya sistema upravleniya transportnymi sredstvami // Problemy upravleniya. 2007. № 1. S. 64-71.
Savchenko A.Yu., Sel'vesyuk N.I. Razrabotka metodicheskogo apparata sinteza robastnykh detsentralizovannykh zakonov upravleniya s model'noy koordinatsiey // Informatika i sistemy upravleniya. 2014. № 2 (40). S. 158-167.
Gulevich S.P., Veselov Yu.G. Metodika opredeleniya koeffitsienta momenta tangazha bespilotnykh letatel'nykh apparatov po materialam naturnykh eksperimentov // Problemy bezopasnosti poletov. 2009. № 11. S. 47-52.
Khar'kov V.P., Mikhalev I.S. Adaptivnyy algoritm upravleniya skorost'yu poleta letatel'nogo apparata // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2011. T. 9. № 1. S. 9-15.
Kulifeev Yu.B. Opredelenie diskretnykh matematicheskikh modeley dinamicheskikh ob'ektov, zadannykh lineynymi differentsial'nymi uravneniyami s postoyannymi koeffitsientami // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2008. T. 6. № 11. S. 5-19.
Kulifeev Yu.B., Likhachev I.V. Sintez algoritma upravleniya beskontaktnym ventil'nym dvigatelem metodom obratnykh zadach dinamiki // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 1. S. 28-36.
Khar'kov V.P., Korsun O.H., Grebnev O.H. Sintez upravleniya bespilotnym letatel'nym apparatom na osnove metoda obratnykh zadach dinamiki i parametricheskoy identifikatsii // Vestnik komp'yuternykh i informatsionnykh tekhnologiy. 2010. № 12. S. 18-23.
Kulifeev Yu.B., Afanas'ev Yu.N. Algoritmizatsiya avtomaticheskoy posadki samoleta v usloviyakh meteominimuma // Mekhatronika, avtomatizatsiya, upravlenie. 2012. № 11. S. 60-66.
Gulevich S.P., Veselov Yu.G. Metod opredeleniya skorosti prizemleniya bespilotnykh letatel'nykh apparatov na osnove rezul'tatov matematicheskogo modelirovaniya i naturnykh eksperimentov // Problemy bezopasnosti poletov. 2008. № 6. S. 33-37.
Makarenko V.G., Bogomolov A.V., Rudakov S.V., Podorozhnyak A.A. Tekhnologiya postroeniya inertsial'no-sputnikovoy navigatsionnoy sistemy upravleniya transportnymi sredstvami s neyrosetevoy optimizatsiey sostava vektora izmereniy // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 1. S. 39-44.
Kulifeev Yu.B., Alekseev E.O. Algoritm otrabotki zadannoy traektorii dvizheniya samoleta po vzletno-posadochnoy polose // Mekhatronika, avtomatizatsiya, upravlenie. 2007. № 10. S. 73-78.
Khar'kov V.P. Sintez optimal'nogo upravlenie nelineynymi dinamicheskimi sistemami na osnove kontseptsii obratnykh zadach dinamiki // Trudy mezhdunarodnogo simpoziuma Nadezhnost' i kachestvo. 2012. T. 1. S. 491-492.
Gurevich O.S. Gol'berg F.D., Selivanov O.D. Integrirovannoe upravlenie silovoy ustanovkoy mnogorezhimnogo samoleta. M.: Mashinostroenie, 1994. 304 s.
Kolomiets L.V., Fedorov M.V., Bogomolov A.V., Merezhko A.N., Soldatov A.S., Esev A.A. Metod podderzhki prinyatiya resheniy po upravleniyu resursami pri ispytaniyakh aviatsionnoy tekhniki // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 38-40.
Rudakov I.S., Rudakov S.V., Bogomolov A.V. Metodika identifikatsii vida zakona raspredeleniya parametrov pri provedeniya kontrolya sostoyaniya slozhnykh sistem // Informatsionno-izmeritel'nye i upravlyayushchie sistemy. 2007. T. 5. № 1. S. 66-72.
Eremin E.M., Russkin A.V. Sposob rascheta otsenki maksimal'no dopustimoy vzletnoy massy bespilotnogo letatel'nogo apparata na etape ego proektirovaniya // Oboronnyy kompleks-nauchno-tekhnicheskomu progressu Rossii. 2014. № 1 (121). S. 39-42
Baykin V.A., Stetsyuk A.N. Modelirovanie informatsionnogo upravleniya funktsionirovaniem sistemy kosmicheskoy svyazi i navigatsii // Trendy i upravlenie. - 2015. - 2. - C. 162 - 166. DOI: 10.7256/2307-9118.2015.2.14408.

Аннотация: In this paper a problem of network planning and management with a random duration of individual operations is considered. The subject of the study is the law of distribution of the random variable which describes duration of the project. The aim is to estimate such law. The urgency of this problem is related to the need to improve the accuracy of the known existing assessments which do not take into account the specifics of the distribution law of separate works determining the project. The main difficulty of the practical solution of this problem is the need to calculate the multiple definite integral, wherein the number of individual integrals not known in advance and determined by the number of works that make up the critical path of the project. As a result, the numerical method based on recursion is proposed, which allows to numerically estimate the desired distribution law. Scientific novelty of the results is in obtaining estimates of the distribution law of the duration of the project that improves positional accuracy over the existing analogues. Without loss of generality developed a recursive algorithm can be used for a wide class of problems in which the unknown distribution of the sum of random variables with known distributions of the individual terms.

Ключевые слова: project management, the sum of beta-values, beta-distribution, distribution law, duration of the project, probabilistic and temporal characteristics, mathematical model of risks, PERT, recursion, numerical method

Библиография:
Klimenko A.B., Trotsenko R.V. Reshenie zadachi optimizatsii resursov i planirovaniya vychisleniy s ispol'zovaniem parallel'noy imitatsii otzhiga // Programmnye sistemy i vychislitel'nye metody.-2014.-3.-C. 282-290. DOI: 10.7256/2305-6061.2014.3.13419.
Grakova N.V. Postroenie semanticheskoy modeli upravleniya proektami // Kibernetika i programmirovanie.-2012.-1.-C. 7-15. URL: http://www.e-notabene.ru/kp/article_13857.html
L. S. Kirina Etapy upravleniya nalogovymi riskami v nalogovom konsul'tirovanii // Nalogi i nalogooblozhenie.-2012.-5.-C. 46-54.
Labkovskaya R.Ya., Kozlov A.S., Pirozhnikova O.I., Korobeynikov A.G. Modelirovanie dinamiki chuvstvitel'nykh elementov gerkonov sistem upravleniya // Kibernetika i programmirovanie.-2014.-5.-C. 70-77. DOI: 10.7256/2306-4196.2014.5.13309. URL: http://www.e-notabene.ru/kp/article_13309.html
Wise M.E. The incomplete beta-function as a contour integral and a quickly conversing series for its inverse // Biometrika. 1950. V. 37. P. 208-218.
Krylov V.I., Bobkov V.V., Monastyrskiy P.I. Nachala teorii vychislitel'nykh metodov. Interpolirovanie i integrirovanie. Minsk, Nauka i tekhnika, 1983. – 287s.
Verzhbitskiy V.M. Osnovy chislennykh metodov. M.: Vyssh. shk., 2005. – 840s.
Mal'tsev A.I. Algoritmy i rekursivnye funktsii. – M., Nauka, Gl. red. fiz.-mat. lit. 1986. – 368 s.
Pirogov A.M., Oleynikova S.A. Ob odnom podkhode k otsenke dlitel'nosti proekta v zadachakh setevogo planirovaniya i upravleniya// Informatsionnye tekhnologii v vychislitel'noy tekhnike i svyazi: Materialy II Mezhd. konf. Vypusk II.-Voronezh, Mezhdunarodnyy institut komp'yuternykh tekhnologiy, 2013. – s. 57-69.
Kobzar' A.I. Prikladnaya matematicheskaya statistika. Dlya inzhenerov i nauchnykh rabotnikov. – M.: Fizmatlit, 2006. – 816 s.
Oleynikova S.A. Chislennaya otsenka vremeni obsluzhivaniya v zadachakh setevogo planirovaniya i upravleniya// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2009. T. 5. № 3. S. 111-114.
Oleynikova S.A. Vychislitel'nyy eksperiment dlya analiza zakona raspredeleniya sluchaynoy velichiny, opisyvayushchey dlitel'nost' proekta v zadachakh setevogo planirovaniya i upravleniya// Ekonomika i menedzhment sistem upravleniya, 2013. T.9. № 3. s. 90-96.
WILLIAMS, T. M. (1995) What are PERT estimates? J. Oper. Res. Soc., 46, 1498–1504.
Oleynikova S.A. Otsenka kriticheskogo vremeni v zadachakh upravleniya proektami// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2011. T. 7. № 2. S. 106-109.
Oleynikova S.A. Kriticheskiy analiz metoda PERT resheniya zadachi upravleniya proektami so sluchaynoy dlitel'nost'yu vypolneniya rabot// Sistemy upravleniya i informatsionnye tekhnologii. № 1(51), 2013. – s. 20-24. Kobzar' A.I. Prikladnaya matematicheskaya statistika. Dlya inzhenerov i nauchnykh rabotnikov. – M.: Fizmatlit, 2006. – 816 s.
Venttsel' E.S. Teoriya veroyatnostey. – M. Fizmatlit, 1962. – 564s.
Oleynikova S.A. Matematicheskaya model' i optimizatsionnaya zadacha sostavleniya raspisaniya dlya mul'tiproektnoy sistemy s vremennymi i resursnymi ogranicheniyami i kriteriem ravnomernoy zagruzki// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2013. T. 9. № 6-3. S. 58-61.
Novakova N.E., Goryachev A.V., Goryachev A.A., Vasil'ev A.A., Monakhov A.V. Sistema upravleniya proektami v avtomatizirovannom proektirovanii // Kibernetika i programmirovanie.-2013.-4.-C. 1-13. DOI: 10.7256/2306-4196.2013.4.8301. URL: http://www.e-notabene.ru/kp/article_8301.html
Komartsova L.G., Lavrenkov Yu.N., Antipova O.V. Kompleksnyy podkhod k issledovaniyu slozhnykh sistem // Programmnye sistemy i vychislitel'nye metody.-2013.-4.-C. 330-334. DOI: 10.7256/2305-6061.2013.4.10551.

References (transliteration):
Klimenko A.B., Trotsenko R.V. Reshenie zadachi optimizatsii resursov i planirovaniya vychisleniy s ispol'zovaniem parallel'noy imitatsii otzhiga // Programmnye sistemy i vychislitel'nye metody.-2014.-3.-C. 282-290. DOI: 10.7256/2305-6061.2014.3.13419.
Grakova N.V. Postroenie semanticheskoy modeli upravleniya proektami // Kibernetika i programmirovanie.-2012.-1.-C. 7-15. URL: http://www.e-notabene.ru/kp/article_13857.html
L. S. Kirina Etapy upravleniya nalogovymi riskami v nalogovom konsul'tirovanii // Nalogi i nalogooblozhenie.-2012.-5.-C. 46-54.
Labkovskaya R.Ya., Kozlov A.S., Pirozhnikova O.I., Korobeynikov A.G. Modelirovanie dinamiki chuvstvitel'nykh elementov gerkonov sistem upravleniya // Kibernetika i programmirovanie.-2014.-5.-C. 70-77. DOI: 10.7256/2306-4196.2014.5.13309. URL: http://www.e-notabene.ru/kp/article_13309.html
Wise M.E. The incomplete beta-function as a contour integral and a quickly conversing series for its inverse // Biometrika. 1950. V. 37. P. 208-218.
Krylov V.I., Bobkov V.V., Monastyrskiy P.I. Nachala teorii vychislitel'nykh metodov. Interpolirovanie i integrirovanie. Minsk, Nauka i tekhnika, 1983. – 287s.
Verzhbitskiy V.M. Osnovy chislennykh metodov. M.: Vyssh. shk., 2005. – 840s.
Mal'tsev A.I. Algoritmy i rekursivnye funktsii. – M., Nauka, Gl. red. fiz.-mat. lit. 1986. – 368 s.
Pirogov A.M., Oleynikova S.A. Ob odnom podkhode k otsenke dlitel'nosti proekta v zadachakh setevogo planirovaniya i upravleniya// Informatsionnye tekhnologii v vychislitel'noy tekhnike i svyazi: Materialy II Mezhd. konf. Vypusk II.-Voronezh, Mezhdunarodnyy institut komp'yuternykh tekhnologiy, 2013. – s. 57-69.
Kobzar' A.I. Prikladnaya matematicheskaya statistika. Dlya inzhenerov i nauchnykh rabotnikov. – M.: Fizmatlit, 2006. – 816 s.
Oleynikova S.A. Chislennaya otsenka vremeni obsluzhivaniya v zadachakh setevogo planirovaniya i upravleniya// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2009. T. 5. № 3. S. 111-114.
Oleynikova S.A. Vychislitel'nyy eksperiment dlya analiza zakona raspredeleniya sluchaynoy velichiny, opisyvayushchey dlitel'nost' proekta v zadachakh setevogo planirovaniya i upravleniya// Ekonomika i menedzhment sistem upravleniya, 2013. T.9. № 3. s. 90-96.
WILLIAMS, T. M. (1995) What are PERT estimates? J. Oper. Res. Soc., 46, 1498–1504.
Oleynikova S.A. Otsenka kriticheskogo vremeni v zadachakh upravleniya proektami// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2011. T. 7. № 2. S. 106-109.
Oleynikova S.A. Kriticheskiy analiz metoda PERT resheniya zadachi upravleniya proektami so sluchaynoy dlitel'nost'yu vypolneniya rabot// Sistemy upravleniya i informatsionnye tekhnologii. № 1(51), 2013. – s. 20-24. Kobzar' A.I. Prikladnaya matematicheskaya statistika. Dlya inzhenerov i nauchnykh rabotnikov. – M.: Fizmatlit, 2006. – 816 s.
Venttsel' E.S. Teoriya veroyatnostey. – M. Fizmatlit, 1962. – 564s.
Oleynikova S.A. Matematicheskaya model' i optimizatsionnaya zadacha sostavleniya raspisaniya dlya mul'tiproektnoy sistemy s vremennymi i resursnymi ogranicheniyami i kriteriem ravnomernoy zagruzki// Vestnik Voronezhskogo gosudarstvennogo tekhnicheskogo universiteta. 2013. T. 9. № 6-3. S. 58-61.
Novakova N.E., Goryachev A.V., Goryachev A.A., Vasil'ev A.A., Monakhov A.V. Sistema upravleniya proektami v avtomatizirovannom proektirovanii // Kibernetika i programmirovanie.-2013.-4.-C. 1-13. DOI: 10.7256/2306-4196.2013.4.8301. URL: http://www.e-notabene.ru/kp/article_8301.html
Komartsova L.G., Lavrenkov Yu.N., Antipova O.V. Kompleksnyy podkhod k issledovaniyu slozhnykh sistem // Programmnye sistemy i vychislitel'nye metody.-2013.-4.-C. 330-334. DOI: 10.7256/2305-6061.2013.4.10551.

Аннотация: the authors in detail review pneumatic pressure regulator, which is has essential value for on-board systems of aircraft oxygen supply in order to build a mathematical model of the regulator. The subject of the study is building a mathematical model of pneumatic pressure regulator considering factors having a significant impact on vital functions and work of the flight crew. This ensured the construction of adequate mathematical models, describing the functioning of pneumomechanical pressure regulator in the cabin of aircrafts, which are essential for safety in high-altitude flights. Mathematical modelling of pressure regulator considering factors having a significant impact on vital functions and work of the flight crew: factors that characterize the atmospheric space as a habitat for the crew; factors related to the dynamics of flight; factors related to various types of emergencies in case of which the flight becomes impossible. The study of the mathematical model built allowed the authors to identify that: dry friction of the main valve significantly impairs the dynamics of the regulator, but has almost no effect on its static error; dry friction of the control valve significantly increases the static error of the controller, but has almost no effect on the dynamics of the regulator; the presence of self-oscillations of small amplitude and high frequency together with the elimination of the dead zone of the controller changes the structure of dry friction, removing the dry static friction etc. The results obtained are essential for the design of aircraft life support systems.

Ключевые слова: life support system, high-altitude flights, aviation cybernetics, pneumatic mechanical regulator, preasure regulator, model of dry friction, model of pneumatic regulator, computational experiment, transition functions, oxygen supply system

Библиография:
Ilyushin Yu.S., Olizarov V.V. Kislorodnoe oborudovanie letatel'nykh apparatov i vysotnoe spetssnaryazhenie. M.: Voenizdat, 1970. 280 s.
Bukhtiyarov I.V., Usov V.M., Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V., Chernukha V.N. Tekhnologiya bioadaptivnogo upravleniya funktsionirovaniem sredstv obespecheniya zhiznedeyatel'nosti cheloveka v usloviyakh izmenennoy gazovoy sredy // Bezopasnost' zhiznedeyatel'nosti. 2004. № 5. S. 32–36.
Kukushkin Yu.A., Bogomolov A.V., Dvornikov M.V., Kislyakov Yu.Yu., Ryzhenkov S.P. Raschet riska poteri rabotosposobnosti chelovekom v usloviyakh nizkogo barometricheskogo davleniya // Polet. Obshcherossiyskiy nauchno–tekhnicheskiy zhurnal. 2012. № 11. S. 37–45.
Kukushkin Yu.A., Dvornikov M.V., Bogomolov A.V., Matyushev T.V., Polyakov A.V. Matematicheskoe obespechenie riskometrii sostoyaniy cheloveka v ekstremal'nykh i avariynykh situatsiyakh, sopryazhennykh s gipoksicheskim vozdeystviem // Bezopasnost' zhiznedeyatel'nosti. 2012. № 10. S. 25–33.
Ushakov I.B., Kukushkin Yu.A., Bogomolov A.V., Karpov V.N. Potentsial'naya nenadezhnost' deystviy operatora kak kharakteristika stepeni vliyaniya fiziko–khimicheskikh faktorov usloviy deyatel'nosti // Bezopasnost' zhiznedeyatel'nosti. 2001. № 1. S. 24.
Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V., Matyushev T.V. Tekhnologiya sinteza zakonov upravleniya cheloveko–mashinnymi sistemami, ekspluatiruemymi v usloviyakh vysokogo riska gipoksicheskikh sostoyaniy cheloveka // Dvoynye tekhnologii. 2014. № 1 (66). S. 8–11.
Guziy A.G., Bogomolov A.V., Kukushkin Yu.A. Teoreticheskie osnovy funktsional'no–adaptivnogo upravleniya sistemami «chelovek–mashina» povyshennoy avariynosti // Mekhatronika, avtomatizatsiya, upravlenie. 2005. № 1. S. 39–48.
Kukushkin Yu.A., Bogomolov A.V., Shibanov G.P., Chernukha V.N. Ustroystvo dlya prognozirovaniya rabotosposobnosti letchika v vysotnom polete. Patent na poleznuyu model' № 136609. Zayavl. 23.09.2013, opubl. 10.01.2014, byull. №1. 2 s.
Kukushkin Yu.A., Dvornikov M.V., Bogomolov A.V., Shishov A.A., Sukholitko V.A., Simonenko A.P., Stepanov V.K. Osobennosti podderzhki prinyatiya resheniy po ustraneniyu osobykh sobytiy i opasnykh sostoyaniy letchika v vysotnom polete // Problemy bezopasnosti i chrezvychaynykh situatsiy. 2009. № 6. S. 74–79.
Kukushkin Yu.A., Bogomolov A.V., Shibanov G.P., Chernukha V.N. Ustroystvo dlya prognozirovaniya vremeni avariynoy razgermetizatsii salona samoleta. Patent na poleznuyu model' № 140940. Zayavl. 09.01.2014, opubl. 20.05.2014, byull. №14. 2 s.
Ilyukhin V.N. Dinamika regulyatorov davleniya magistral'nykh gazoprovodov // Izvestiya Samarskogo nauchnogo tsentra Rossiyskoy akademii nauk, t. 8, №4, 2006. S 1114–1120.
Zamyatin V.G. Dinamika gazovogo regulyatora s pnevmaticheskoy pruzhinoy // Dinamika slozhnykh sistem. №1, t. 7, 2013. S. 69–73.
Zamyatin V.G, Kasterskiy S.M. Matematicheskaya model' gazovogo regulyatora s pnevmaticheskoy pruzhinoy // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. №7, t. 9, 2011. S.21–27.
Arzumanov Yu.L., Petrov R.A., Khalatov E.M. Sistemy gazosnabzheniya i ustroystva pnevmoavtomatiki raketno–kosmicheskikh kompleksov. M.: Mashinostroenie, 1997. 229 s.
Zamyatin V.G, Kasterskiy S.M, Chernukha V.N. Avtokolebaniya v sisteme s neskol'kimi nelineynostyami // Dinamika slozhnykh sistem. №1, t. 7, 2013. S. 74–78.
Bogomolov A.V., Kukushkin Yu.A., Dvornikov M.V. Matematicheskoe modelirovanie dinamiki gipoksicheskikh sostoyaniy cheloveka // Programmnye produkty i sistemy. 2013. № 2. S. 40.
Guziy A.G., Kukushkin Yu.A., Bogomolov A.V. Metodologiya stabilizatsii funktsional'nogo sostoyaniya operatora sistemy "chelovek–mashina" // Mekhatronika, avtomatizatsiya, upravlenie. 2002. № 5. S. 9.
Kukushkin Yu.A., Dvornikov M.V., Stepanov V.K., Sukholitko V.A., Bogomolov A.V. Analiz problem zashchity letchika ot vozdeystviya vysotnogo faktora poleta // Problemy bezopasnosti poletov. 2002. № 10. S. 27.
Bogomolov A.V., Kukushkin Yu.A., Shishov A.A., Filatov V.N. Indikator rezervnogo vremeni sokhraneniya soznaniya chelovekom v usloviyakh gipoksicheskoy gipoksii. Patent na poleznuyu model' № 136206. Zayavl. 02.09.2013, opubl. 27.12.2013, byull. №36. 2 s.
Matyushev T.V., Dvornikov M.V., Bogomolov A.V., Kukushkin Yu.A., Polyakov A.V. Matematicheskoe modelirovanie dinamiki pokazateley gazoobmena cheloveka v usloviyakh gipoksii // Matematicheskoe modelirovanie. T. 26, № 4, 2014.S. 51–64.
Matyushev T.V., Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V. Upravlenie dlitel'nost'yu desaturatsii chlenov ekipazha pilotiruemykh kosmicheskikh ob'ektov s ispol'zovaniem matematicheskogo modelirovaniya // Mekhatronika, avtomatizatsiya, upravlenie. 2014. № 2. S. 45–52.
Ushakov I.B., Ponomarenko V.A., Kukushkin Yu.A., Bogomolov A.V. Avtomatizirovannye sistemy dlya kontrolya sostoyaniya spetsialistov opasnykh professiy // Bezopasnost' zhiznedeyatel'nosti. 2005. № 10 (prilozhenie). 24 s.
Kukushkin Yu.A., Guziy A.G., Bogomolov A.V. Metodologiya stabilizatsii funktsional'nogo sostoyaniya operatora sistemy «chelovek –mashina» // Mekhatronika, avtomatizatsiya, upravlenie. 2002. № 5. S. 17.
Kolomiets L.V., Fedorov M.V., Bogomolov A.V., Merezhko A.N., Soldatov A.S., Esev A.A. Metod podderzhki prinyatiya resheniy po upravleniyu resursami pri ispytaniyakh aviatsionnoy tekhniki // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 38–40.
Fedorov M.V., Bogomolov A.V., Tsyganok G.V., Ayvazyan S.A. Tekhnologiya proektirovaniya mnogofaktornykh eksperimental'nykh issledovaniy i postroeniya empiricheskikh modeley kombinirovannykh vozdeystviy na operatorov ergaticheskikh sistem // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 53–61.
Rudakov I.S., Rudakov S.V., Bogomolov A.V. Metodika identifikatsii vida zakona raspredeleniya parametrov pri provedeniya kontrolya sostoyaniya slozhnykh sistem // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2007. T. 5. № 1. S. 66–72

References (transliteration):
Ilyushin Yu.S., Olizarov V.V. Kislorodnoe oborudovanie letatel'nykh apparatov i vysotnoe spetssnaryazhenie. M.: Voenizdat, 1970. 280 s.
Bukhtiyarov I.V., Usov V.M., Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V., Chernukha V.N. Tekhnologiya bioadaptivnogo upravleniya funktsionirovaniem sredstv obespecheniya zhiznedeyatel'nosti cheloveka v usloviyakh izmenennoy gazovoy sredy // Bezopasnost' zhiznedeyatel'nosti. 2004. № 5. S. 32–36.
Kukushkin Yu.A., Bogomolov A.V., Dvornikov M.V., Kislyakov Yu.Yu., Ryzhenkov S.P. Raschet riska poteri rabotosposobnosti chelovekom v usloviyakh nizkogo barometricheskogo davleniya // Polet. Obshcherossiyskiy nauchno–tekhnicheskiy zhurnal. 2012. № 11. S. 37–45.
Kukushkin Yu.A., Dvornikov M.V., Bogomolov A.V., Matyushev T.V., Polyakov A.V. Matematicheskoe obespechenie riskometrii sostoyaniy cheloveka v ekstremal'nykh i avariynykh situatsiyakh, sopryazhennykh s gipoksicheskim vozdeystviem // Bezopasnost' zhiznedeyatel'nosti. 2012. № 10. S. 25–33.
Ushakov I.B., Kukushkin Yu.A., Bogomolov A.V., Karpov V.N. Potentsial'naya nenadezhnost' deystviy operatora kak kharakteristika stepeni vliyaniya fiziko–khimicheskikh faktorov usloviy deyatel'nosti // Bezopasnost' zhiznedeyatel'nosti. 2001. № 1. S. 24.
Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V., Matyushev T.V. Tekhnologiya sinteza zakonov upravleniya cheloveko–mashinnymi sistemami, ekspluatiruemymi v usloviyakh vysokogo riska gipoksicheskikh sostoyaniy cheloveka // Dvoynye tekhnologii. 2014. № 1 (66). S. 8–11.
Guziy A.G., Bogomolov A.V., Kukushkin Yu.A. Teoreticheskie osnovy funktsional'no–adaptivnogo upravleniya sistemami «chelovek–mashina» povyshennoy avariynosti // Mekhatronika, avtomatizatsiya, upravlenie. 2005. № 1. S. 39–48.
Kukushkin Yu.A., Bogomolov A.V., Shibanov G.P., Chernukha V.N. Ustroystvo dlya prognozirovaniya rabotosposobnosti letchika v vysotnom polete. Patent na poleznuyu model' № 136609. Zayavl. 23.09.2013, opubl. 10.01.2014, byull. №1. 2 s.
Kukushkin Yu.A., Dvornikov M.V., Bogomolov A.V., Shishov A.A., Sukholitko V.A., Simonenko A.P., Stepanov V.K. Osobennosti podderzhki prinyatiya resheniy po ustraneniyu osobykh sobytiy i opasnykh sostoyaniy letchika v vysotnom polete // Problemy bezopasnosti i chrezvychaynykh situatsiy. 2009. № 6. S. 74–79.
Kukushkin Yu.A., Bogomolov A.V., Shibanov G.P., Chernukha V.N. Ustroystvo dlya prognozirovaniya vremeni avariynoy razgermetizatsii salona samoleta. Patent na poleznuyu model' № 140940. Zayavl. 09.01.2014, opubl. 20.05.2014, byull. №14. 2 s.
Ilyukhin V.N. Dinamika regulyatorov davleniya magistral'nykh gazoprovodov // Izvestiya Samarskogo nauchnogo tsentra Rossiyskoy akademii nauk, t. 8, №4, 2006. S 1114–1120.
Zamyatin V.G. Dinamika gazovogo regulyatora s pnevmaticheskoy pruzhinoy // Dinamika slozhnykh sistem. №1, t. 7, 2013. S. 69–73.
Zamyatin V.G, Kasterskiy S.M. Matematicheskaya model' gazovogo regulyatora s pnevmaticheskoy pruzhinoy // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. №7, t. 9, 2011. S.21–27.
Arzumanov Yu.L., Petrov R.A., Khalatov E.M. Sistemy gazosnabzheniya i ustroystva pnevmoavtomatiki raketno–kosmicheskikh kompleksov. M.: Mashinostroenie, 1997. 229 s.
Zamyatin V.G, Kasterskiy S.M, Chernukha V.N. Avtokolebaniya v sisteme s neskol'kimi nelineynostyami // Dinamika slozhnykh sistem. №1, t. 7, 2013. S. 74–78.
Bogomolov A.V., Kukushkin Yu.A., Dvornikov M.V. Matematicheskoe modelirovanie dinamiki gipoksicheskikh sostoyaniy cheloveka // Programmnye produkty i sistemy. 2013. № 2. S. 40.
Guziy A.G., Kukushkin Yu.A., Bogomolov A.V. Metodologiya stabilizatsii funktsional'nogo sostoyaniya operatora sistemy "chelovek–mashina" // Mekhatronika, avtomatizatsiya, upravlenie. 2002. № 5. S. 9.
Kukushkin Yu.A., Dvornikov M.V., Stepanov V.K., Sukholitko V.A., Bogomolov A.V. Analiz problem zashchity letchika ot vozdeystviya vysotnogo faktora poleta // Problemy bezopasnosti poletov. 2002. № 10. S. 27.
Bogomolov A.V., Kukushkin Yu.A., Shishov A.A., Filatov V.N. Indikator rezervnogo vremeni sokhraneniya soznaniya chelovekom v usloviyakh gipoksicheskoy gipoksii. Patent na poleznuyu model' № 136206. Zayavl. 02.09.2013, opubl. 27.12.2013, byull. №36. 2 s.
Matyushev T.V., Dvornikov M.V., Bogomolov A.V., Kukushkin Yu.A., Polyakov A.V. Matematicheskoe modelirovanie dinamiki pokazateley gazoobmena cheloveka v usloviyakh gipoksii // Matematicheskoe modelirovanie. T. 26, № 4, 2014.S. 51–64.
Matyushev T.V., Dvornikov M.V., Kukushkin Yu.A., Bogomolov A.V. Upravlenie dlitel'nost'yu desaturatsii chlenov ekipazha pilotiruemykh kosmicheskikh ob'ektov s ispol'zovaniem matematicheskogo modelirovaniya // Mekhatronika, avtomatizatsiya, upravlenie. 2014. № 2. S. 45–52.
Ushakov I.B., Ponomarenko V.A., Kukushkin Yu.A., Bogomolov A.V. Avtomatizirovannye sistemy dlya kontrolya sostoyaniya spetsialistov opasnykh professiy // Bezopasnost' zhiznedeyatel'nosti. 2005. № 10 (prilozhenie). 24 s.
Kukushkin Yu.A., Guziy A.G., Bogomolov A.V. Metodologiya stabilizatsii funktsional'nogo sostoyaniya operatora sistemy «chelovek –mashina» // Mekhatronika, avtomatizatsiya, upravlenie. 2002. № 5. S. 17.
Kolomiets L.V., Fedorov M.V., Bogomolov A.V., Merezhko A.N., Soldatov A.S., Esev A.A. Metod podderzhki prinyatiya resheniy po upravleniyu resursami pri ispytaniyakh aviatsionnoy tekhniki // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 38–40.
Fedorov M.V., Bogomolov A.V., Tsyganok G.V., Ayvazyan S.A. Tekhnologiya proektirovaniya mnogofaktornykh eksperimental'nykh issledovaniy i postroeniya empiricheskikh modeley kombinirovannykh vozdeystviy na operatorov ergaticheskikh sistem // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2010. T. 8. № 5. S. 53–61.
Rudakov I.S., Rudakov S.V., Bogomolov A.V. Metodika identifikatsii vida zakona raspredeleniya parametrov pri provedeniya kontrolya sostoyaniya slozhnykh sistem // Informatsionno–izmeritel'nye i upravlyayushchie sistemy. 2007. T. 5. № 1. S. 66–72

Аннотация: in navigation there are two systems of radio navigation: NAVSTAR or GLONASS. Both systems use same approach – determination of the distance from satellites to the object. Distance measuring is performed by measuring the propagation time of the satellite signal to the object. For that purpose the receiver generates pseudorandom code at the exact same moment, when the satellite transmits the signal. On the receiving of the signal by the receiver, the receiver calculates the propagation time as the difference between time of the pseudorandom code generation and the rime of signal receiving. This rises the need to synchronize clocks of the satellite and the receiver. Due to hardware limitations not all receivers can be synchronized with the satellite’s clock. The method presented in the research is based on the analysis of radio navigation systems, principles of functioning and existing techniques of defining object’s coordinates. The article proposes a new way of determining the coordinates, based on the measuring the time difference of signals arrival from different satellites. Because of this there is no need in strict synchronization of the receiver clock and satellite clock, detecting the moment of signal transition from satellite to receiver and use of corrective systems.

Ключевые слова: GPS, delay, trilateration, coordinate determination, satellite navigation, GLONASS, corrective systems, radio navigation, WAAS, range difference method

Контактная информация: Egoshin Aleksei Valer’evich, 424000, Russia, Yoshkar-Ola, pl. Lenina, 3

Библиография:
1. Tyler Nighswander, Robert Brumley, Brent Ledvina, David Brumley, Jonathan Diamond. GPS software attacks. 2012g.
2. D. Khrustalev GPS-vzglyad iznutri. Komponenty i tekhnologii. №6 2001.
3. Peter H. Dana. Global Position System (GPS) Time Dissemination for Real-Time Application. 1997.
4. Raj Jain. Potential Networking Application of Global Position Systems (GPS). Gopal Dommety,
5. Navstar GPS uses equipment introduction. Public release version. 1996.
6. Markov S. Printsipy raboty sistemy GPS i ee ispol’zovanie. Access: http://rix.com.ua/tech/441/404/488/855.html
(date of reference: 01.05.2014).
7. Antonovich K.M. Ispol’zovanie sputnikovykh navigatsionnykh sistem v geodezii. FGUP «Kartgeotsentr», 2006

References (transliteration):
1. Tyler Nighswander, Robert Brumley, Brent Ledvina, David Brumley, Jonathan Diamond. GPS software attacks. 2012g.
2. D. Khrustalev GPS-vzglyad iznutri. Komponenty i tekhnologii. №6 2001.
3. Peter H. Dana. Global Position System (GPS) Time Dissemination for Real-Time Application. 1997.
4. Raj Jain. Potential Networking Application of Global Position Systems (GPS). Gopal Dommety,
5. Navstar GPS uses equipment introduction. Public release version. 1996.
6. Markov S. Printsipy raboty sistemy GPS i ee ispol’zovanie. Access: http://rix.com.ua/tech/441/404/488/855.html
(date of reference: 01.05.2014).
7. Antonovich K.M. Ispol’zovanie sputnikovykh navigatsionnykh sistem v geodezii. FGUP «Kartgeotsentr», 2006

Аннотация: the questions of using formal modeling tools for simulating processes of different categories (the information business processes in particular) are currently under a lot of attention. However, in general the modeling is based on graphs and network solutions, based on the state diagrams, such as Petri nets, graphs representing network chain and other document oriented models, such as UML or IDEFx. The purpose of this article is to present the achievements in the theory of business processes, oriented on such models that can be applied in more strict symbolic systems giving the opportunity to automate model validation, properties detection and connection between the model and technological means of implementation. The author suggests using pi-calculus as symbolic mean of process simulation. In that formal model a process is represented as a term of calculus, which is described by reducing of this term in accordance with selected semantics. This calculus was developed to describe interaction of several system within the frame of processes with changeable structure. The article proposes distinctive approach to the description of tracing: the author shows a way of making process execution logs, combining them into journals and reviews general requirements to journaling process. The article describes the appliance of process mining to the processes modeled using pi-calculus. Implementation of proposed approaches to the process modeling and their execution tracing provides, as compared with the analogues, more abilities to evaluate the adequacy and accuracy of the model built, simplifies system expansion via adding new criteria, ease keeping and interpreting execution logs of the process that corresponds to the model.

Ключевые слова: process trace, business process modeling, process mining, pi calculus, lambda calculus, ABC, interactive system calculus, business process execution semantics, formal model interpretation, model evaluation

Контактная информация: Shumskii Leonid Dmitrievich, 115409, Russia, Moskva, Kashirskoe sh., 31

Библиография:
Aalst W.M. van der. Formalization and verification of event-driven process chains // In-formation and Software technology. 1999. T. 41. № 10. S. 639–650.
Aalst W.M. van der. Discovery, Conformance and Enhancement of Business Processes. : Springer, 2011.
Aalst W.M. van der, Adriansyah A., Dongen B.F. van. Conformance checking using cost-based fitness analysis // Enterprise Distributed Object Computing Conference (EDOC), 2011 15th IEEE International. , 2011. S. 55–64.
Baader F. i dr. The description logic handbook: Theory, implementation and applications. : Cambridge university press, 2003.
Berry G., Boudol G. The chemical abstract machine // Theoretical computer science. 1992. T. 96. № 1. S. 217–248.
Boudol G. The π-calculus in direct style // Higher-Order and Symbolic Computation. 1998. T. 11. № 2. S. 177–208.
Jianzhong L., Liangyou C. Extended Event-Process Chain (EEPC) and It’s Application in BPR // Systems Engineering. 2000. T. 1. S. 009.
Milner R. A calculus of communicating systems. : Springer-Verlag New York, Inc., 1982.
Milner R. Functions as processes // Mathematical structures in computer science. 1992. T. 2. № 02. S. 119–141.
Milner R. The polyadic π-calculus: a tutorial. : Springer, 1993.
Milner R., Parrow J., Walker D. A calculus of mobile processes, i // Information and com-putation. 1992. T. 100. № 1. S. 1–40.
Pierce B., Sangiorgi D. Typing and subtyping for mobile processes // Logic in Computer Science, 1993. LICS’93., Proceedings of Eighth Annual IEEE Symposium on. , 1993. S. 376–385.
Shumsky L. i dr. Applicative Approach to Information Processes Modeling-Towards a Constructive Information Theory: : SciTePress-Science and and Technology Publications, 2013a. S. 323–328.
Shumsky L. i dr. A synthetic approach to building a canonical model of subject areas in the integration bus // ISKO-Maghreb, 2013 3rd International Symposium. , 2013b. S. 1–7.
Vol'fengagen V.E. Metody i sredstva vychisleniy s ob'ektami. Applikativnye vy-chislitel'nye sistemy. : OOO «YurInfoR-Press», 2004.

References (transliteration):
Aalst W.M. van der. Formalization and verification of event-driven process chains // In-formation and Software technology. 1999. T. 41. № 10. S. 639–650.
Aalst W.M. van der. Discovery, Conformance and Enhancement of Business Processes. : Springer, 2011.
Aalst W.M. van der, Adriansyah A., Dongen B.F. van. Conformance checking using cost-based fitness analysis // Enterprise Distributed Object Computing Conference (EDOC), 2011 15th IEEE International. , 2011. S. 55–64.
Baader F. i dr. The description logic handbook: Theory, implementation and applications. : Cambridge university press, 2003.
Berry G., Boudol G. The chemical abstract machine // Theoretical computer science. 1992. T. 96. № 1. S. 217–248.
Boudol G. The π-calculus in direct style // Higher-Order and Symbolic Computation. 1998. T. 11. № 2. S. 177–208.
Jianzhong L., Liangyou C. Extended Event-Process Chain (EEPC) and It’s Application in BPR // Systems Engineering. 2000. T. 1. S. 009.
Milner R. A calculus of communicating systems. : Springer-Verlag New York, Inc., 1982.
Milner R. Functions as processes // Mathematical structures in computer science. 1992. T. 2. № 02. S. 119–141.
Milner R. The polyadic π-calculus: a tutorial. : Springer, 1993.
Milner R., Parrow J., Walker D. A calculus of mobile processes, i // Information and com-putation. 1992. T. 100. № 1. S. 1–40.
Pierce B., Sangiorgi D. Typing and subtyping for mobile processes // Logic in Computer Science, 1993. LICS’93., Proceedings of Eighth Annual IEEE Symposium on. , 1993. S. 376–385.
Shumsky L. i dr. Applicative Approach to Information Processes Modeling-Towards a Constructive Information Theory: : SciTePress-Science and and Technology Publications, 2013a. S. 323–328.
Shumsky L. i dr. A synthetic approach to building a canonical model of subject areas in the integration bus // ISKO-Maghreb, 2013 3rd International Symposium. , 2013b. S. 1–7.
Vol'fengagen V.E. Metody i sredstva vychisleniy s ob'ektami. Applikativnye vy-chislitel'nye sistemy. : OOO «YurInfoR-Press», 2004.

Аннотация: development of local systems of vehicle automation in the late XX – early XXI century along with increasing use of microprocessors created the prerequisites for vehicle control based on the personal characteristics of the operator. While creating new control algorithm on that basis it is rational to apply Feldbaum Dual control theory, that refers to using the capacity of the control system to study specifics of control actions of a particular operator and considering them in correlation with environment while selecting an algorithm for control system. It becomes possible not only in simulators, but also by adjusting the variables of operator’s actions directly. However the operator is represented by a model in which not every variable of watchers’ classes is measurable. The author also notes that according to the modal theory the base for simulation is in taking the dominant roots in consideration of main psychophysiological features of operator and the significant nonstationarity of the main operator’s parameters. This becomes possible as a result of procedures of current dynamic identification of output variables of operator during the control process. Taking into account the complexity of operator’s inner processes and using the features of decompositions the initial steps of description may be simplified to forming sub-models in operator’s subsystem: the person; inner model of object being controlled; inner model of environment and its state. In order to solve the problem of creating a complex human-computer interface author suggests to use Feldbaum Dual control principle. This kind of works is based on the capabilities of realization provided by existing automation devises and computer equipment. The novelty and perceptiveness of the suggested approaches is defined by the results expected on the development and implementation of the system: 1) creating of automated informational system of control and diagnostics of psychological and physiological safety of computers consisting of a set of measures such as: preventive measures, controlling lapses and deviations in the health of the operators, organization of medical examinations with key factor with emphasis on the psychological and physiological factors. 2) building control computer systems with artificial intelligence and devices for information exchange via the human-machine interface for intellectualization of the interaction between man and computer.

Ключевые слова: dual control principle, human-computer interface, operator, mathematical model, ergatic control system, artificial intelligence, human-computer system, multidimensional scaling unit, executive system, base of knowledge

Контактная информация: Minitaeva Alina Mazhitovna, 115054, Russia, Moskva, Stremyannyi per., 36

Библиография:
Minitaeva A.M. Metod setevogo operatora dlya resheniya zadachi sinteza sistemy upravleniya. Sovremennye problemy informatsionnoy bezopasnosti i programmnoy inzhenerii: Sbornik izbrannykh statey nauchno-metodologicheskogo seminara kafedry IBiPI (12.10.2011). – M.: Izd-vo «Sputnik+», 2011. S. 53-57.
Korneev N.V. Minitaeva A.M. Zadachi organizatsii cheloveko-mashinnogo interfeysa s uchetom intellektualizatsii vzaimodeystviya cheloveka i vychislitel'nogo kompleksa. Zhurnal «Uchenye zapiski RGSU», 2011, №8. – S. 211 – 215.
N. V. Korneev, Yu. S. Kustarev, Yu. Ya. Morgovskiy. Teoriya avtomaticheskogo upravleniya s praktikumom. – M.: Izd-vo: Akademiya, 2008. S. 224.
Korneev N.V., A.M. Minitaeva. Issledovaniya problem cheloveko-mashinnogo vzaimodeystviya primenitel'no k sistemam upravleniya. Matematicheskie metody i prilozheniya: Trudy dvadtsat' pervykh matematicheskikh chteniy RGSU (23-29 yanvarya 2012 g.). M.: APKiPPRO, 2012. S. 300-302.
Minitaeva A.M. Vvedenie v problemu cheloveko-mashinnogo interfeysa s uchetom vzaimodeystviya vychislitel'noy mashiny. Sovremennye problemy informatsionnoy bezopasnosti i programmnoy inzhenerii: Sbornik izbrannykh statey nauchno-metodologicheskogo seminara №3 kafedry IBiPI (7.12.2011). – M.: Izd-vo «Sputnik+», 2012. S. 73-77.

References (transliteration):
Minitaeva A.M. Metod setevogo operatora dlya resheniya zadachi sinteza sistemy upravleniya. Sovremennye problemy informatsionnoy bezopasnosti i programmnoy inzhenerii: Sbornik izbrannykh statey nauchno-metodologicheskogo seminara kafedry IBiPI (12.10.2011). – M.: Izd-vo «Sputnik+», 2011. S. 53-57.
Korneev N.V. Minitaeva A.M. Zadachi organizatsii cheloveko-mashinnogo interfeysa s uchetom intellektualizatsii vzaimodeystviya cheloveka i vychislitel'nogo kompleksa. Zhurnal «Uchenye zapiski RGSU», 2011, №8. – S. 211 – 215.
N. V. Korneev, Yu. S. Kustarev, Yu. Ya. Morgovskiy. Teoriya avtomaticheskogo upravleniya s praktikumom. – M.: Izd-vo: Akademiya, 2008. S. 224.
Korneev N.V., A.M. Minitaeva. Issledovaniya problem cheloveko-mashinnogo vzaimodeystviya primenitel'no k sistemam upravleniya. Matematicheskie metody i prilozheniya: Trudy dvadtsat' pervykh matematicheskikh chteniy RGSU (23-29 yanvarya 2012 g.). M.: APKiPPRO, 2012. S. 300-302.
Minitaeva A.M. Vvedenie v problemu cheloveko-mashinnogo interfeysa s uchetom vzaimodeystviya vychislitel'noy mashiny. Sovremennye problemy informatsionnoy bezopasnosti i programmnoy inzhenerii: Sbornik izbrannykh statey nauchno-metodologicheskogo seminara №3 kafedry IBiPI (7.12.2011). – M.: Izd-vo «Sputnik+», 2012. S. 73-77.

Аннотация: of road transport is currently one of the priority areas in science, technology and engineering. One of the most complicated tasks for all manufactures of electric vehicles is the problem of providing electromagnetic safety of users of the cars and ensuring the electromagnetic compatibility of all devices located in the vehicle. In addition there is a concern among citizens and media about the possible health risks and traffic safety due to eff ects of electromagnetic fields, generated by strong currents in the power lines and cables of electric vehicles. It is also noted that such currents and the magnetic fields generated by them may also pose a risk for various electromagnetic compatibility of electrical and electronic equipment of the electric car. In this regards the measuring and evaluation of magnetic fields along with the determination of their topology in the electric car in real time is highly important task. The article present a comparative analysis of the methods for the detection of magnetic fields in an electric car appropriate to identified specific features of these fields. The authors review the task of defining the main characteristics of magnetic field in the electric car. Based on these characteristics the authors concluded that the most perspective magnetic field sensors for the purposes of electromagnetic safety in the electric car are traditional geophysics magnetostatic sensors and modern sensors based on giant impedance.

Ключевые слова: magnetic field, magnetic field detectors, measuring of the magnetic field, road transport, hybrid car, electric car, electromagnetic fields, ecology, electromagnetic safety, electric cart

Контактная информация: Korobeinikov Anatolii Grigor’evich, 197101, Russia, St. Petersburg, Kronverkskiy prospect, d.49

Библиография:
1. Ptitsyna N.G., Kopytenko Yu. A., Ismagilov V.S., Korobeynikov A.G.,
Elektromagnitnaya bezopasnost' elektrotransportnykh sistem: osnovnye istochniki
i parametry magnitnykh poley//Nauchno-tekhnicheskiy vestnik informatsionnykh
tekhnologiy, mekhaniki i optiki.-Sankt-Peterburg: SPBNIU ITMO, 2013.-Vyp. 84.-№
2. Analiz i sintez slozhnykh sistem.-S.65-71.-180 s.-ISSN 2226-1494. 2. Pike Research. A
part of Navigant, 2012, http://www.pikeresearch.com/. Data poslednego dostupa 24.01.2014
3. Muc A.M., Electromagnetic Fields Associated with Transportation Systems, Radiation
Health and Safety Consulting, Contract Report 4500016448, Air Health Effects Division,
Healthy Environments and Consumer Safety Branch Health, Canada, 2002
4. Halgamuge, M. N., C. D. Abeyrathne and P. Mendis. Measurements performed in
electric trains-Comparison with ICNIRP Limit & Laboratory Experiments. “Measurement
and Analysis of Electromagnetic Fields from Trams, Trains and Hybrid Cars”, Radiation
Protection Dosimetry, Vol. 141, Issue 3, pp 255-268, 2010.
5. Ptitsyna N.G., Villorezi Dzh., Kopytenko Yu.A. Tyasto M.I. Magnitnye polya na
elektrotransporte i ekologiya cheloveka//Sankt-Peterburg, Izd. Nestor-Istoriya. 2010.
120 c.
6. A.G. Korobeynikov, N.G. Ptitsyna, V.S. Ismagilov, Yu.A. Kopytenko Vychislenie
topologii magnitnogo polya v elektromobile s ispol'zovaniem fazovo-gradientnogo
metoda // Programmnye sistemy i vychislitel'nye metody.-2013.-1.-C. 45-55. DOI:
10.7256/2305-6061.2013.01.4
7. Snyder M. Magnetic Shielding for Electric Vechicles. Program Review. Contract DAAE07-
93-C-R107. Army TACOM, Chrysler Corp. 1995.
8. Ptitsyna N., Ponzetto A. Magnetic Fields Encountered in Electric Transport: Rail
Systems, Trolleybus and Cars. IEEE Conference Publications. Proceedings of the
Electromagnetic Compatibility (EMC EUROPE), 2012 International Symposium on
Fields, Waves & Electromagnetics, Rome, Italy, 17-21 Sep., P.1 – 5, 2012. DOI 10.1109/
EMCEurope.2012.6396901 . 2012.
9. Lenz J.E. A Review of Magnetic Sensors, Proc IEEE, Vol. 78, No. 6:973-989. 1990
10. Bartland T., Caruso M., Schneider R., Smith C. A New Perspective on Magnetic Field
Sensing. Sensors. Electric/Magnetic, December 1, 1998.
11. Janicke J.M. The Magnetic Measurement Handbook, New Jersey: Magnetic Research
Press. 1994
12. Ramsden E. Sept. «Measuring Magnetic Fields with Fluxgate Sensors,» Sensors:87-90.
1994.
13. Ripka P. «Review of Fluxgate Sensors,» Sensors and Actuators A, 33:129-141. 1996.
14. Sergeev V.G., Shikhin A.Ya. Magnitoizmeritel'nye pribory i ustanovki//M.
Enerogoizdat, Elektroizmeritel'nye pribory; Vyp. 24. 152 S.,1982.
15. Kopytenko Y.A., Kopytenko E.A., Amosov L.G., Zaitsev D.B., Voronov P.M.,
Timoshenkov Y.P., Magnetovariation complex MVC-2. Proc. of VI Workshop on
Geomagnetic Observatory Instruments, Data Acquisition and Processing. Dourbes, Belgium,
1994.
16. Hirota, E., Sakakima, H., Inomata, K. Giant Magneto-Resistance Devices. Springer, 2002,
P. 30, 177 p. , ISBN 978-3-540-41819-1
17. Mukovskiy Ya. M. Poluchenie i svoystva materialov s kolossal'nym
magnetosoprotivleniem // Ros. khim. zh. , 2001, T. XLV, № 5-6, S. 32-41.
18. Nagaev E. L. Manganity lantana i drugie magnitnye provodniki s gigantskim
magnitosoprotivleniem //Uspekhi fizicheskikh nauk. 1996, T. 166, № 8, S. 833-858.
DOI:10.3367/UFNr.0166.199608b.0833
19. Nikitin S. A. Gigantskoe magnitosoprotivlenie // Sorosovskiy obozrevatel'nyy
zhurnal. 2004, T. 8, № 2, S. 92-98.
20. Chappert C., Fert A. and Nguyen Van Dau F. (2007). «The emergence of spin electronics
in data storage». Nature Materials 6: 813–823. DOI:10.1038/nmat2024.
21. Coehoorn R. Novel Magnetoelectronic Materials and Devices. Giant magnetoresistance
and magnetic interactions in exchange-biased spin-valves. Lecture Notes. Technische
Universiteit Eindhoven (2003).
22. Panina LV, Mohri K. Magneto-impedance effect in amorphous wires. Appl Phys Lett; 65:
1189-91. 1994.
23. Beach R, Berkowitz A. Giant magnetic field dependent impedance of amorphous FeCoSiB
wire. Appl Phys Lett; 64: 3652-4. 1994
24. Gudoshnikov S., Zhukova A., Zhukova A., Sitnov Yu. Correlation of magnetic properties
and Giant magnetoimpedance characteristics of Co-rich amorphous microwires. Phis. Status
Solidi, A 206, No. 4, P. 625-629, 2009.
25. Cobeno AF, Zhukov A, Blanco JM, Gonzalez J. Giant magnetoimpedance effect in
CoMnSiB amorphous microwires. J Magn Mater; 234: L359-65. 2001.
26. Honkura Y. Development of amorphous wire type MI sensors for automobile use. J Magn
Magn Mater; 249: 375-81. 2002.
27. Zhukova V, Ipatov M, Zhukov A. Thin magnetically soft wires for magnetic microsensors.
Sensors; 9: 9216-40. 2009.
28. Geliang Yu., Chao Kh., Hong X. Design of a GMImagneticsensor based on longitudinal
excitation. Sensors and Actuators A: Physical. Vol 161, Issues 1–2, pp 72–77, 2010.

References (transliteration):
1. Ptitsyna N.G., Kopytenko Yu. A., Ismagilov V.S., Korobeynikov A.G.,
Elektromagnitnaya bezopasnost' elektrotransportnykh sistem: osnovnye istochniki
i parametry magnitnykh poley//Nauchno-tekhnicheskiy vestnik informatsionnykh
tekhnologiy, mekhaniki i optiki.-Sankt-Peterburg: SPBNIU ITMO, 2013.-Vyp. 84.-№
2. Analiz i sintez slozhnykh sistem.-S.65-71.-180 s.-ISSN 2226-1494. 2. Pike Research. A
part of Navigant, 2012, http://www.pikeresearch.com/. Data poslednego dostupa 24.01.2014
3. Muc A.M., Electromagnetic Fields Associated with Transportation Systems, Radiation
Health and Safety Consulting, Contract Report 4500016448, Air Health Effects Division,
Healthy Environments and Consumer Safety Branch Health, Canada, 2002
4. Halgamuge, M. N., C. D. Abeyrathne and P. Mendis. Measurements performed in
electric trains-Comparison with ICNIRP Limit & Laboratory Experiments. “Measurement
and Analysis of Electromagnetic Fields from Trams, Trains and Hybrid Cars”, Radiation
Protection Dosimetry, Vol. 141, Issue 3, pp 255-268, 2010.
5. Ptitsyna N.G., Villorezi Dzh., Kopytenko Yu.A. Tyasto M.I. Magnitnye polya na
elektrotransporte i ekologiya cheloveka//Sankt-Peterburg, Izd. Nestor-Istoriya. 2010.
120 c.
6. A.G. Korobeynikov, N.G. Ptitsyna, V.S. Ismagilov, Yu.A. Kopytenko Vychislenie
topologii magnitnogo polya v elektromobile s ispol'zovaniem fazovo-gradientnogo
metoda // Programmnye sistemy i vychislitel'nye metody.-2013.-1.-C. 45-55. DOI:
10.7256/2305-6061.2013.01.4
7. Snyder M. Magnetic Shielding for Electric Vechicles. Program Review. Contract DAAE07-
93-C-R107. Army TACOM, Chrysler Corp. 1995.
8. Ptitsyna N., Ponzetto A. Magnetic Fields Encountered in Electric Transport: Rail
Systems, Trolleybus and Cars. IEEE Conference Publications. Proceedings of the
Electromagnetic Compatibility (EMC EUROPE), 2012 International Symposium on
Fields, Waves & Electromagnetics, Rome, Italy, 17-21 Sep., P.1 – 5, 2012. DOI 10.1109/
EMCEurope.2012.6396901 . 2012.
9. Lenz J.E. A Review of Magnetic Sensors, Proc IEEE, Vol. 78, No. 6:973-989. 1990
10. Bartland T., Caruso M., Schneider R., Smith C. A New Perspective on Magnetic Field
Sensing. Sensors. Electric/Magnetic, December 1, 1998.
11. Janicke J.M. The Magnetic Measurement Handbook, New Jersey: Magnetic Research
Press. 1994
12. Ramsden E. Sept. «Measuring Magnetic Fields with Fluxgate Sensors,» Sensors:87-90.
1994.
13. Ripka P. «Review of Fluxgate Sensors,» Sensors and Actuators A, 33:129-141. 1996.
14. Sergeev V.G., Shikhin A.Ya. Magnitoizmeritel'nye pribory i ustanovki//M.
Enerogoizdat, Elektroizmeritel'nye pribory; Vyp. 24. 152 S.,1982.
15. Kopytenko Y.A., Kopytenko E.A., Amosov L.G., Zaitsev D.B., Voronov P.M.,
Timoshenkov Y.P., Magnetovariation complex MVC-2. Proc. of VI Workshop on
Geomagnetic Observatory Instruments, Data Acquisition and Processing. Dourbes, Belgium,
1994.
16. Hirota, E., Sakakima, H., Inomata, K. Giant Magneto-Resistance Devices. Springer, 2002,
P. 30, 177 p. , ISBN 978-3-540-41819-1
17. Mukovskiy Ya. M. Poluchenie i svoystva materialov s kolossal'nym
magnetosoprotivleniem // Ros. khim. zh. , 2001, T. XLV, № 5-6, S. 32-41.
18. Nagaev E. L. Manganity lantana i drugie magnitnye provodniki s gigantskim
magnitosoprotivleniem //Uspekhi fizicheskikh nauk. 1996, T. 166, № 8, S. 833-858.
DOI:10.3367/UFNr.0166.199608b.0833
19. Nikitin S. A. Gigantskoe magnitosoprotivlenie // Sorosovskiy obozrevatel'nyy
zhurnal. 2004, T. 8, № 2, S. 92-98.
20. Chappert C., Fert A. and Nguyen Van Dau F. (2007). «The emergence of spin electronics
in data storage». Nature Materials 6: 813–823. DOI:10.1038/nmat2024.
21. Coehoorn R. Novel Magnetoelectronic Materials and Devices. Giant magnetoresistance
and magnetic interactions in exchange-biased spin-valves. Lecture Notes. Technische
Universiteit Eindhoven (2003).
22. Panina LV, Mohri K. Magneto-impedance effect in amorphous wires. Appl Phys Lett; 65:
1189-91. 1994.
23. Beach R, Berkowitz A. Giant magnetic field dependent impedance of amorphous FeCoSiB
wire. Appl Phys Lett; 64: 3652-4. 1994
24. Gudoshnikov S., Zhukova A., Zhukova A., Sitnov Yu. Correlation of magnetic properties
and Giant magnetoimpedance characteristics of Co-rich amorphous microwires. Phis. Status
Solidi, A 206, No. 4, P. 625-629, 2009.
25. Cobeno AF, Zhukov A, Blanco JM, Gonzalez J. Giant magnetoimpedance effect in
CoMnSiB amorphous microwires. J Magn Mater; 234: L359-65. 2001.
26. Honkura Y. Development of amorphous wire type MI sensors for automobile use. J Magn
Magn Mater; 249: 375-81. 2002.
27. Zhukova V, Ipatov M, Zhukov A. Thin magnetically soft wires for magnetic microsensors.
Sensors; 9: 9216-40. 2009.
28. Geliang Yu., Chao Kh., Hong X. Design of a GMImagneticsensor based on longitudinal
excitation. Sensors and Actuators A: Physical. Vol 161, Issues 1–2, pp 72–77, 2010.

Аннотация: the article presents results of software realization of Goertzel algorithm for determining the phase shift between two sinusoidal signals. The authors show practical appliance of Goertzel algorithm for calculation of active component R of the complex impedance filter Z. It is noted that the Goertzel algorithm is implemented in form of the filter with infinite impulse response (IIR-filter) of the second order with two real feedback coefficients and one complex coefficient in the forward loop. Modeling was carried out in the MathCad computer algebra system. The article stated that the Goertzel algorithm allows to efficiently calculate fixed spectral counts of the discrete Fourier transform without the calculation of the Fourier transform itself. The authors point out that the Goertzel algorithm proved to be eff ective for computation of the spectral components at high sampling rates and correct calculation of sampling counts. In the Mathcad the authors built a model showing the working capacity of this algorithm. Using this model the optimal parameters for further practical implementation of the Goertzel algorithm were found.

Ключевые слова: Goertzel algoritm, phase shift, sinusoidal signals, complex impedance, feedback, direct link chain, Mathcad, modeling, sampling, fixed spectral counts

Контактная информация: Galanina Nataliya Andreevna, 428015, Russia, Cheboksary, Moskovskiy pr., d. 15

Библиография:
1. Tsifrovaya obrabotka signalov: Vtoroe izdanie. Per. s angl. – M.: OOO «Binom-Press»,
2006 g. – 656 s.: il.
2. Tsifrovaya obrabotka signalov: prakticheskiy podkhod, 2-e izdanie.: Per. s angl. – M.:
Izdatel'skiy dom «Vil'yams», 2008. – 992s.: il. – Paral. tit. angl.

References (transliteration):
1. Tsifrovaya obrabotka signalov: Vtoroe izdanie. Per. s angl. – M.: OOO «Binom-Press»,
2006 g. – 656 s.: il.
2. Tsifrovaya obrabotka signalov: prakticheskiy podkhod, 2-e izdanie.: Per. s angl. – M.:
Izdatel'skiy dom «Vil'yams», 2008. – 992s.: il. – Paral. tit. angl.

Аннотация: the article describes a model and problem definition for optimization of distributed computing systems. The results of the study are in good accordance with Amdahl’s law and together with the game theory and optimizations allow finding the most successful solutions in terms of efficient use of computing resources when designing or upgrading the distributed computing systems. The article discusses the threaded model of distributed computing systems of continuous time. The disadvantage of this model is the possibility of simulating only threaded distributed computing system while the case of transferring of blocks of data requires the discrete time system model. Modern distributed computing systems may contain multiple separate computing units linked through communications network and located in diff erent parts of the Earth and near-Earth space. The authors review block model of distributed computing discrete time system. Such model allows examining both threaded and blocks data processing and considering time of delay needed for data synthesis and transfer. The solution of optimization task can be found by sequential search with appliance of game theory and optimizations for computational tasks, resource nodes.

Ключевые слова: threading model, distributed computing system, optimization, Amdahl’s law, discrete time system, direct graph, graph node, block model of distributed computing systems, computation channel time, game theory

Контактная информация: Grishentsev Aleksei Yur’evich, 197101, Russia, St. Petersburg, Kronverkskiy prospect, d.49

Библиография:
1. Tanenbaum E. Raspredelennye sistemy. Printsipy i paradigmy / E. Tanenbaum, M.
Van Sten — SPb.: Piter, 2003. — 877 s: il.
2. Grishentsev A. Yu., Muromtsev D. I. Sistema upravleniya dannymi nablyudeniy
solnechno-zemnoy fiziki «MI» // Registratsiya programmy dlya EVM ot
21.07.2011 g. – № 2011615714.
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zondirovaniya ionosfery. Rossiyskaya akademiya nauk «Zhurnal radioelektroniki»
elektronnyy zhurnal. Web: http://jre.cplire.ru/jre/oct10/6/text.html №10-oktyabr' 2010 g.
4. Antonov A. Pod zakonom Amdala (rus.) Komp'yuterra. — 11.02.2002. — № 430. Web:
http://old.computerra.ru/offline/2002/430/15838/

References (transliteration):
1. Tanenbaum E. Raspredelennye sistemy. Printsipy i paradigmy / E. Tanenbaum, M.
Van Sten — SPb.: Piter, 2003. — 877 s: il.
2. Grishentsev A. Yu., Muromtsev D. I. Sistema upravleniya dannymi nablyudeniy
solnechno-zemnoy fiziki «MI» // Registratsiya programmy dlya EVM ot
21.07.2011 g. – № 2011615714.
3. Grishentsev A. Yu., Korobeynikov A. G. Obratnaya zadacha radiochastotnogo
zondirovaniya ionosfery. Rossiyskaya akademiya nauk «Zhurnal radioelektroniki»
elektronnyy zhurnal. Web: http://jre.cplire.ru/jre/oct10/6/text.html №10-oktyabr' 2010 g.
4. Antonov A. Pod zakonom Amdala (rus.) Komp'yuterra. — 11.02.2002. — № 430. Web:
http://old.computerra.ru/offline/2002/430/15838/

Аннотация: the percolation theory in sufficient details studied how the problem both nodes and links and the mixed problem of percolation theory. However, several experimental processes show the probability variation of the horizontal and vertical communication in the communication lattice structure with defects. In the real physical models such processes may occur, for example, when spraying the conductive material onto the inclined surface or during gradual solidification of the insulating matrix, which contains the micro-charged microparticles of a conductor, and which is placed in the electric or magnetic fields, etc.. In addition, we can expect that the presence of various defects in the structure aff ects both the mechanical and electrical properties of materials. Unfortunately, due to considerable experimental difficulties it is not always possible to determine the exact quantitative relationship between the number of defects and physical parameters. Modeling of the relation between physical parameters and the number of defects for anisotropic links is an important scientific problem. The number of such problems is large and can be of a great practical value in the case of numerical solution of such problems. The aim of this work is to study computer simulation of the combined problem of nodes and links with the division of the probabilities of formation of horizontal and vertical relations and the possibility of adding the Schottky defects into the lattice. The results of the research should be the numerical values of dependencies of the conductivity G of the 2d square grid on the values of probabilities: of the vertical connection P1, horizontal connection P2 and defects N.

Ключевые слова: Software, percolation, conductivity, modeling, cluster, high-performance computing, Open MP, MPI, parallel computing

Контактная информация: Denisenko Vladimir Anatol’evich, 360000, Russia, Kabardino-Balkariya, Nalchik, I. Armand, 37-А, kv. 2.4

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References (transliteration):
1. Shklovskiy B.I., Efros A.L. Elektronnye svoystva legirovannykh poluprovodnikov.
M.: Nauka, 1979.
2. Shklovskiy B.I., Efros A.L. // UFN. 1975. T. 117 (3). S. 401.436.
3. Tarasevich Yu.Yu. Perkolyatsiya: Teoriya, prilozheniya, algoritmy. – M.: Editorial
URSS, 2002.-112 s.
4. Tarasevich Yu.Yu., van derMarck S.C. // Int. J. of Modern Physics. C. 1999. Vol. 10 (7). PP.
1193-1204.
5. Frank D.J., Lobb C.J. Highly efficient algorithm for percolative studies in two dimensions
// Phys.Rev.B. 1988.V.37.PP.302-307.
6. Lobb C.J., Frank D.J. Percolative conduction and Alexander-Orbach conjecture in two
dimensions // Phys.Rev.B.1984.V.30, No.7.PP. 4090-4092.
7. L.A.Bulavin, N.V. Vygornitskiy, N.I.Lebovka. Komp'yuternoe modelirlvanie
fizicheskikh sistem: Uchebnoe posobie/ – Dolgoprudnyy: Izdatel'skiy Dom «Intelekt»,
2011.-352 s.ISBN 978-5-91559-101-0.
8. Denisenko V.A., Sotskov V.A. Modelirovanie ob'edinenoy zadachi svyazey i uzlov
s razdeleniem svyazey v teorii perkolyatsii.// Zhurnal tekhnicheskoy fiziki 2009 T79
Vyp.7.-s. 154-155.
9. Orlov A. N. Vvedenie v teoriyu defektov v kristallakh. – M.: Vysshaya shkola. 1983.
145 s.
10. Orlov A. N., Trushin Yu. V., Energii tochechnykh defektov v metallakh, – M.: 1983.80 c.
11. Fizicheskie protsessy v obluchennykh poluprovodnikakh, pod red. L. S. Smirnova, –
Novosibirsk: 1977.-s. 170-185.

Аннотация: the article presents the results of experimental study of geoelectric structure of the Earth crust held in Karelia. Simultaneous measurements of extra-low-frequency variations of the Earth electromagnetic field were held in August 2012 near Tolvuya village (Karelia) to determine the depth of crustal conductivity anomalies. The choice of this exact place was made due to the fact that in this area there are outputs of highly conductive shungite rocs on the Earth” surface. For the research five highly sensitive trinary geomagnetic-variation systems GI–MTS-1 where placed at a distance of 10.5 km from each other. The data was recorder at a frequency of 50 Hz. At all five systems the data processing was performed in two ways using magnetotelluric method (DOLE) and phase-gradient sensing to analyze the changes in apparent resistivity with increase of the depth. The phasegradient sensing method was developer in the St. Petersburg branch of the N. V. Pushkov Institute of Terrestrial Magnetism, Ionosphere and Radio Wave Propagation of the Russian Academy of Sciences and it requires at least three geomagnetic-variation systems placed in a triangle on the earth’s surface. Comparison of the interpretation results of the magnetotelluric method and method of phase-gradient sensing showed their good match.

Ключевые слова: geoelectrical structure, Earth crust, extra-low-frequency variations, highly conductive shungite rock, stationary recording magnetometer, registration site, geomagnetic perturbation, medium resistivity, phase velocity, conductive bed

Контактная информация: Korobeinikov Anatolii Grigor’evich, 191023, Russia, St. Petersburg, Muchnoi per., d. 2.

Библиография:
Kopytenko, Yu. A. Magnitnaya lokatsiya istochnikov geomagnitnykh vozmushcheniy/Yu.A. Kopytenko, V.S. Ismagilov, E.A. Kopytenko i dr.//DAN, seriya "Geofizika", t.371, № 5, s. 685-687, 2000.
Kopytenko Yu.A. Monitoring of the ULF electromagnetic disturbances at the station network before EQ in seismic zones of Izu and Chiba peninsulas// Yu.A. Kopytenko, V.S. Ismaguilov, K. Hattori and at//In: “Seismo Electromagnetics: Litosphere-Atmosphere-Ionosphere Coupling”, Eds. M.Hayakawa and O.A.Molchanov, TERRAPUB, Tokyo, pp.11-18, 2002.
Ismaguilov, V. S. Variations of phase velocity and gradient values of ULF geomagnetic disturbances connected with the Izu strong earthquakes/ V.S.Ismaguilov, Yu.A. Kopytenko, K. Hattori Hayakawa and at //Natural Hazards and Earth Sys. Sci. v.20, p.1-5, 2002.
Ismagilov, V. S. Ispol'zovanie gradientov i fazovykh skorostey UNCh geomagnitnykh vozmushcheniy dlya opredeleniya mestopolozheniya ochaga budushchego sil'nogo zemletryaseniya/V. S. Ismagilov, Yu. A. Kopytenko, K. Khattori i dr.// //Geomagnetizm i Aeronomiya, t.46, №3, str.423-430, 2006.
Kovtun, A. A Ispol'zovanie estestvennogo elektromagnitnogo polya pri izuchenii elektroprovodnosti Zemli/A.A. Kovtun-Izd. Lengosuniversiteta, Leningrad,1980, 195 s.

References (transliteration):
Kopytenko, Yu. A. Magnitnaya lokatsiya istochnikov geomagnitnykh vozmushcheniy/Yu.A. Kopytenko, V.S. Ismagilov, E.A. Kopytenko i dr.//DAN, seriya "Geofizika", t.371, № 5, s. 685-687, 2000.
Kopytenko Yu.A. Monitoring of the ULF electromagnetic disturbances at the station network before EQ in seismic zones of Izu and Chiba peninsulas// Yu.A. Kopytenko, V.S. Ismaguilov, K. Hattori and at//In: “Seismo Electromagnetics: Litosphere-Atmosphere-Ionosphere Coupling”, Eds. M.Hayakawa and O.A.Molchanov, TERRAPUB, Tokyo, pp.11-18, 2002.
Ismaguilov, V. S. Variations of phase velocity and gradient values of ULF geomagnetic disturbances connected with the Izu strong earthquakes/ V.S.Ismaguilov, Yu.A. Kopytenko, K. Hattori Hayakawa and at //Natural Hazards and Earth Sys. Sci. v.20, p.1-5, 2002.
Ismagilov, V. S. Ispol'zovanie gradientov i fazovykh skorostey UNCh geomagnitnykh vozmushcheniy dlya opredeleniya mestopolozheniya ochaga budushchego sil'nogo zemletryaseniya/V. S. Ismagilov, Yu. A. Kopytenko, K. Khattori i dr.// //Geomagnetizm i Aeronomiya, t.46, №3, str.423-430, 2006.
Kovtun, A. A Ispol'zovanie estestvennogo elektromagnitnogo polya pri izuchenii elektroprovodnosti Zemli/A.A. Kovtun-Izd. Lengosuniversiteta, Leningrad,1980, 195 s.

Аннотация: the article shows mathematical approaches to modeling of expanded reproduction processes in peasants’ (farmers’) farms, formulates the optimization task of defining rational parameters in crop farming, presents symbolic economic-mathematical model of optimization of peasant farming parameters, that reflects production, economic and technological conditions and requirements on the use of labor and land resources, on crop rotations, on defining volumes of production and sales in terms of volume and value, on demand for basic production assets, on determination of its wear and calculation of the amount of its depreciation, on insurance premiums and payments on short-term and long-term loans. The authors provides results of computational experiments on the six variants of solving the optimization problem, each represents a relatively independent task, reflecting a new production and economic situation. The article defines optimal parameters of a particular farm at various rates of accumulation, shows calculations of transition period to the optimal variant of use of productive resources, makes suggestions on the use of economic-mathematical methods and models, carrying out the computer experiments in economics and farm management on an extended basis.

Ключевые слова: mathematical model, production parameters, computational experiment, the rate of accumulation, optimization, farm, expanded reproduction, task, optimality criterion, objective function

Контактная информация: Burda Aleksei Grigor’evich, 350044, Russia, g. Krasnodar, ul. Kalinina, 13

Библиография:
Burda A.G. Parametrizatsiya i komp'yuternoe eksperimentirovanie protsessov rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh / A.G. Burda // Politematicheskiy setevoy elektronnyy nauchnyy zhurnal Kubanskogo gosudarstvennogo agrarnogo universiteta (Nauchnyy zhurnal KubGAU) [Elektronnyy resurs]. – Krasnodar: KubGAU, 2012. – №10(84). – Rezhim dostupa: http://ej.kubagro.ru/2012/10/pdf/16.pdf
Burda A.G., Burda G.P., Kosnikov S.N., Permyakova S.V., Osenniy V.V., Frantsisko O.Yu. Informatsionnye tekhnologii i model'nye trenazhery v obuchenii metodam optimal'nykh resheniy v agroekonomicheskikh sistemakh: monografiya.-Krasnodar:KubGAU, 2012. – 133 s.
Burda A.G., Kosnikov S.N. Metodika reytingovoy otsenki ispol'zovaniya plodovogo potentsiala i ego ekonomicheskoy effektivnosti v khozyaystvakh Krasnodarskogo kraya // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 16. S. 7-12.
Burda A.G., Metel'skaya E.A. Upravlenie protsessom rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh: rezul'taty komp'yuternogo eksperimentirovaniya / Regional'naya ekonomika: teoriya i praktika. 2013. № 14. s. 30-40.
Burda A.G., Metel'skaya E.A. Upravlenie protsessom rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh: rezul'taty komp'yuternogo eksperimentirovaniya / Daydzhest-finansy. 2013. № 5. S. 58-68.
Burda A.G., Chulkov D.V. Trend-sezonnye modeli upravleniya zapasami khlebopekarnykh proizvodstv // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 18. S. 28-32.
Burda G.P. Modelirovanie ekonomiki. Uchebnoe posobie dlya vuzov. Chast' I. Metody modelirovaniya proizvodstva i rynka / G.P. Burda, Al. G. Burda, An. G. Burda.-Krasnodar: KGAU, 2005.
Zamotaylova D.A., Burda A.G. Optimizatsiya perevozok s ispol'zovaniem avtomatizirovannoy informatsionnoy sistemy vizual'nogo resheniya transportnykh zadach // Politematicheskiy setevoy elektronnyy nauchnyy zhurnal Kubanskogo gosudarstvennogo agrarnogo universiteta. 2010. № 60. S. 183-190.
Parametrizatsiya, modelirovanie i optimizatsiya konkurentosposobnogo APK: monografiya / A.I. Trubilin, A.G. Burda, G.P. Burda, I.M. Blagivskiy, S.N. Kosnikov, V.V. Kochetov, E.A. Metel'skaya, S.I. Turliy, O.Yu. Frantsisko // Pod rukovodstvom i redaktsiey akademika RASKhN, doktora ekonomicheskikh nauk, professora I.T. Trubilina. – Krasnodar: KubGAU, 2012. – 630 s.
Frantsisko O.Yu., Burda A.G. Vybor rezhima nalogooblozheniya pri razvitii podsobnykh pererabatyvayushchikh proizvodstv agrarnykh predpriyatiy // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 16. S. 72-77.
I. V. Pogodina, D. Yu. Fraymovich Analiz indikatorov sel'skokhozyaystvennogo razvitiya regionov v ramkakh realizatsii obshchegosudarstvennoy zadachi obespecheniya prodovol'stvennoy bezopasnosti // Natsional'naya bezopasnost'. - 2012. - 4. - C. 71 - 76.
I.V. Orobinskaya Osobennosti i analiz primeneniya razlichnykh rezhimov nalogooblozheniya dlya sel'skokhozyaystvennykh tovaroproizvoditeley v Rossii // Nalogi i nalogooblozhenie. - 2013. - 2. - C. 85 - 95. DOI: 10.7256/1812-8688.2013.02.1.

References (transliteration):
Burda A.G. Parametrizatsiya i komp'yuternoe eksperimentirovanie protsessov rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh / A.G. Burda // Politematicheskiy setevoy elektronnyy nauchnyy zhurnal Kubanskogo gosudarstvennogo agrarnogo universiteta (Nauchnyy zhurnal KubGAU) [Elektronnyy resurs]. – Krasnodar: KubGAU, 2012. – №10(84). – Rezhim dostupa: http://ej.kubagro.ru/2012/10/pdf/16.pdf
Burda A.G., Burda G.P., Kosnikov S.N., Permyakova S.V., Osenniy V.V., Frantsisko O.Yu. Informatsionnye tekhnologii i model'nye trenazhery v obuchenii metodam optimal'nykh resheniy v agroekonomicheskikh sistemakh: monografiya.-Krasnodar:KubGAU, 2012. – 133 s.
Burda A.G., Kosnikov S.N. Metodika reytingovoy otsenki ispol'zovaniya plodovogo potentsiala i ego ekonomicheskoy effektivnosti v khozyaystvakh Krasnodarskogo kraya // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 16. S. 7-12.
Burda A.G., Metel'skaya E.A. Upravlenie protsessom rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh: rezul'taty komp'yuternogo eksperimentirovaniya / Regional'naya ekonomika: teoriya i praktika. 2013. № 14. s. 30-40.
Burda A.G., Metel'skaya E.A. Upravlenie protsessom rasshirennogo vosproizvodstva v fermerskikh khozyaystvakh: rezul'taty komp'yuternogo eksperimentirovaniya / Daydzhest-finansy. 2013. № 5. S. 58-68.
Burda A.G., Chulkov D.V. Trend-sezonnye modeli upravleniya zapasami khlebopekarnykh proizvodstv // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 18. S. 28-32.
Burda G.P. Modelirovanie ekonomiki. Uchebnoe posobie dlya vuzov. Chast' I. Metody modelirovaniya proizvodstva i rynka / G.P. Burda, Al. G. Burda, An. G. Burda.-Krasnodar: KGAU, 2005.
Zamotaylova D.A., Burda A.G. Optimizatsiya perevozok s ispol'zovaniem avtomatizirovannoy informatsionnoy sistemy vizual'nogo resheniya transportnykh zadach // Politematicheskiy setevoy elektronnyy nauchnyy zhurnal Kubanskogo gosudarstvennogo agrarnogo universiteta. 2010. № 60. S. 183-190.
Parametrizatsiya, modelirovanie i optimizatsiya konkurentosposobnogo APK: monografiya / A.I. Trubilin, A.G. Burda, G.P. Burda, I.M. Blagivskiy, S.N. Kosnikov, V.V. Kochetov, E.A. Metel'skaya, S.I. Turliy, O.Yu. Frantsisko // Pod rukovodstvom i redaktsiey akademika RASKhN, doktora ekonomicheskikh nauk, professora I.T. Trubilina. – Krasnodar: KubGAU, 2012. – 630 s.
Frantsisko O.Yu., Burda A.G. Vybor rezhima nalogooblozheniya pri razvitii podsobnykh pererabatyvayushchikh proizvodstv agrarnykh predpriyatiy // Trudy Kubanskogo gosudarstvennogo agrarnogo universiteta. 2009. T. 1. № 16. S. 72-77.
I. V. Pogodina, D. Yu. Fraymovich Analiz indikatorov sel'skokhozyaystvennogo razvitiya regionov v ramkakh realizatsii obshchegosudarstvennoy zadachi obespecheniya prodovol'stvennoy bezopasnosti // Natsional'naya bezopasnost'. - 2012. - 4. - C. 71 - 76.
I.V. Orobinskaya Osobennosti i analiz primeneniya razlichnykh rezhimov nalogooblozheniya dlya sel'skokhozyaystvennykh tovaroproizvoditeley v Rossii // Nalogi i nalogooblozhenie. - 2013. - 2. - C. 85 - 95. DOI: 10.7256/1812-8688.2013.02.1.

Аннотация: the authors rise a problem of finding the optimal binary aperiodic sequences for the target detection tasks. The article presents an algorithm for a complete search “brunch and bound”, introduces a concept of equal transformations, describes it use for computational complexity reduce. The methods of optimization lower the computational complexity of the algorithm through to the usage modern processor instructions, computational graphic clusters, parallelization, batch search.

Ключевые слова: Software, binary sequences, aperiodic sequence, optimal sequence, pulse autocorrelation function, methods of optimization, brunch and bound, NVidia CUDA, equivalent sequences, Barker codes.

Контактная информация: Potekhin Egor Nikolaevich, 424000, Russia, Republic of Mari El, Yoshkar-Ola, pl. Lenina, d. 3.

Библиография:
1. Barker R.H. Group synchronizing of binary digital systems, Communication Theory (W. Jackson, ed.),
Academic Press, New York, 1953. — pp. 273–287.
2. Sverdlik M.B.Optimal'nye diskretnye signaly // Sov. Radio, 1975. — 200 s.
3. Sverdlik M.B. Raschet FM signalov s khoroshimi korrelyatsionnymi svoystvami // Izvestiya vuzov.
Radioelektronika, 1971. — t. 14. — №12.
4. Titsworth R.C. Optimal and minimax Sequences // Proc. in International Telemetry Conferece, 1963.
5. Binary pulse compression codes // IEEE Trans, 1967. v. IT-13, no. 2.
6. Pelekhatyy M.I. O nekotorykh blok-konstruktsiyakh, porozhdayushchikh posledovatel'nosti s khoroshimi
korrelyatsionnymi svoystvami // Radiotekhnika i elektronika, 1970. — t. 15. — №7.
7. Pelekhatyy M.I. Dopolnenie k stat'e «O nekotorykh blok-konstruktsiyakh, porozhdayushchikh posledovatel'-
nosti s khoroshimi korrelyatsionnymi svoystvami» // Radiotekhnika i elektronika, 1971. — t. 16. — №7.
8. Coxson G.E. Efficient exhaustive search for optimal-peak-sidelobe binary codes // IEEE Trans. Aerospace
and Electron. Systems, 2005, V. 41. — pp. 302–308 / G.E. Coxson, J. Russo.
9. Tematicheskiy sayt, posvyashchennyy sintezu signalov i ikh primeneniyu [Elektronnyy resurs]. Data
obnovleniya: 15.02.2013 // URL: http://signalslab.marstu.net (data obrashcheniya: 15.02.2013).

References (transliteration):
1. Barker R.H. Group synchronizing of binary digital systems, Communication Theory (W. Jackson, ed.),
Academic Press, New York, 1953. — pp. 273–287.
2. Sverdlik M.B.Optimal'nye diskretnye signaly // Sov. Radio, 1975. — 200 s.
3. Sverdlik M.B. Raschet FM signalov s khoroshimi korrelyatsionnymi svoystvami // Izvestiya vuzov.
Radioelektronika, 1971. — t. 14. — №12.
4. Titsworth R.C. Optimal and minimax Sequences // Proc. in International Telemetry Conferece, 1963.
5. Binary pulse compression codes // IEEE Trans, 1967. v. IT-13, no. 2.
6. Pelekhatyy M.I. O nekotorykh blok-konstruktsiyakh, porozhdayushchikh posledovatel'nosti s khoroshimi
korrelyatsionnymi svoystvami // Radiotekhnika i elektronika, 1970. — t. 15. — №7.
7. Pelekhatyy M.I. Dopolnenie k stat'e «O nekotorykh blok-konstruktsiyakh, porozhdayushchikh posledovatel'-
nosti s khoroshimi korrelyatsionnymi svoystvami» // Radiotekhnika i elektronika, 1971. — t. 16. — №7.
8. Coxson G.E. Efficient exhaustive search for optimal-peak-sidelobe binary codes // IEEE Trans. Aerospace
and Electron. Systems, 2005, V. 41. — pp. 302–308 / G.E. Coxson, J. Russo.
9. Tematicheskiy sayt, posvyashchennyy sintezu signalov i ikh primeneniyu [Elektronnyy resurs]. Data
obnovleniya: 15.02.2013 // URL: http://signalslab.marstu.net (data obrashcheniya: 15.02.2013).

Аннотация: forecasting is one of the main issues in the analysis of the time series. The goal is to determine future behavior of a time sires by its know past values. In this article the author proposes a method of time series prediction based on the idea of allocating basic patters (templates) from the input data allowing to define the internal rules of the studied series. Currently on of the approaches in the field of time series prediction is the Data Mining (or “data excavation”) system. This is due to the fact that classical methods, based only on the linear (ARIMA) and non-linear (GARCH) models of prediction can’t provide the required accuracy. Usage of the methods developed with this technology makes it possible to increase the performance of prediction and reveal hidden patterns in the studied time series.

Ключевые слова: Software, time series, approximation, piecewise-linear approximation, forecasting, data excavation, basic patterns, patterns, local extremes, algorithm.

Контактная информация: Sidorkina Irina Gennadyevna, 424000, Russia, Republic of Mari El, Yoshkar-Ola, pl. Lenina, d. 3.

Библиография:
1. Last M., Kandle A, Bunke H. Data Mining in Time Series Databases. Series in Machine Perception and Artificial
Intelligence. Vol. 57. — World Scientific, 2004. — 205 p.
2. Witten, I.H. (Ian H.) Data mining: practical machine learning tools and techniques / Ian H. Witten, Eibe
Frank. — 2nd ed. — Elsevier, 2005. — 558 p.
3. Keogh, E.J., Chakrabarti, K., Mehrotra, S., and Pazzani, M.J. (2001a). Locally Adaptive Dimensionality Reduction
for Indexing Large Time Series Databases. Proc. 2001 ACM SIGMOD Conf. on Management of
Data. pp. 151–162.
4. Kim, S., Park, S., and Chu, W.W. (2001). An Index-Based Approach for Similarity Search Supporting Time
Warping in Large Sequence Databases. Proc. 17th Int. Conf. on Data Engineering (ICDE). pp. 607–614.
5. Dyuk V. Data Mining: uchebnyy kurs (+ CD). — SPb: Piter, 2001. — 386 s.
6. Lebedev E.K. Vychislenie veroyatnostey perekhodov dlya tsepey Markova, approksimiruyushchikh signa-
ly v fazovykh sistemakh / E.K. Lebedev, N.A. Galanina, N.N. Ivanova // Vestnik Chuvashskogo univer-
siteta. — 2001. — № 3. — S. 89-100.

References (transliteration):
1. Last M., Kandle A, Bunke H. Data Mining in Time Series Databases. Series in Machine Perception and Artificial
Intelligence. Vol. 57. — World Scientific, 2004. — 205 p.
2. Witten, I.H. (Ian H.) Data mining: practical machine learning tools and techniques / Ian H. Witten, Eibe
Frank. — 2nd ed. — Elsevier, 2005. — 558 p.
3. Keogh, E.J., Chakrabarti, K., Mehrotra, S., and Pazzani, M.J. (2001a). Locally Adaptive Dimensionality Reduction
for Indexing Large Time Series Databases. Proc. 2001 ACM SIGMOD Conf. on Management of
Data. pp. 151–162.
4. Kim, S., Park, S., and Chu, W.W. (2001). An Index-Based Approach for Similarity Search Supporting Time
Warping in Large Sequence Databases. Proc. 17th Int. Conf. on Data Engineering (ICDE). pp. 607–614.
5. Dyuk V. Data Mining: uchebnyy kurs (+ CD). — SPb: Piter, 2001. — 386 s.
6. Lebedev E.K. Vychislenie veroyatnostey perekhodov dlya tsepey Markova, approksimiruyushchikh signa-
ly v fazovykh sistemakh / E.K. Lebedev, N.A. Galanina, N.N. Ivanova // Vestnik Chuvashskogo univer-
siteta. — 2001. — № 3. — S. 89-100.