Опубликован: 25.12.2006 | Доступ: свободный | Студентов: 1884 / 400 | Оценка: 4.43 / 4.13 | Длительность: 15:29:00
Специальности: Программист, Экономист
  • 1.
    А.А.Веденов
    Моделирование элементов мышления
  • 2.
    Т. Кохонен
    Ассоциативная память
  • 3.
    Ф.Розенблатт
    Принципы нейродинамики
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    Ф. Уоссерман
    Нейрокомпьютерная техника
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    Ф.В.Широков
    Введение в нейрокомпьютинг
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    Arbib M., ed
    The Handbook of Brain Theory and Neural Networks
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    А.Н.Горбань
    Обучение нейронных сетей
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    А.Н.Горбань, Д.А.Россиев
    Нейронные сети на персональном компьютере
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    Ф.В. Широков
    Нейросети на шине VME. Краткая история нейроинформатики
  • 10.
    Anderson, E, J. A. and Rosenfeld
    Neurocomputing: Foundations of Research
  • 11.
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    Neurocomputing 2: Directions for Research
  • 12.
    Beltratti A., Margarita S., Terna P
    Neural Networks for Economic and Financial Modeling
  • 13.
    Bishop C.M
    Neural Networks and Pattern Recognition
  • 14.
    Haykin, S
    Neural Networks, a Comprehensive Foundation
  • 15.
    Hecht-Nielsen. R
    Neurocomputing
  • 16.
    Hopfield, J.J
    Neural networks and physical systems with emergent collective computational abilities
  • 17.
    Hopfield, J.J
    Neurons with graded response have collective computational properties like those of two-state neurons
  • 18.
    McCulloch, Pitts. W., W.S.
    A logical calculus of the ideas immanent in nervous activity
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    Analog VLSI and neural systems
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    Murray A.F
    Applications of Neural Nets
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    Pao, Y. H
    Adaptive Pattern Recognition and Neural Networks
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    and Wiliams, D.E., G.E., Hinton, R.J, Rumelhart
    Learning internal representations by error propagation, in: McClelland, J. L. and Rumelhart, D. E. (Eds.). Parallel Distributed Processing: Explorations in the Microstructure of Cognition. Volume 1, 318-362
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    Bishop C.M
    Neural Networks and Pattern Recognition
  • 27.
    Fausett, L.V
    Fundamentals of Neural Networks: Architectures, Algorithms and Applications
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    Masters, T
    Practical Neural Network Recipes in C++
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    M. and Illingworth, McCord Nelson, W.T
    A Practical Guide to Neural Nets
  • 31.
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    An information-maximization approach to Blind Separation and Blind Deconvolution
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    Bishop, C.M
    Neural Networks and Pattern Recognition
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    Deboeck, G. and Kohonen, T. (Eds)
    Visual Explorations in Finance with Self-Organizing Maps
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    The Organization of Behavio
  • 35.
    A., and Palmer, Hertz, J., Krogh, R
    Introduction to the Theory of Neural Computation
  • 36.
    Kohonen, T
    Self-organized formation of topologically correct feature maps
  • 37.
    Kohonen, T
    Self-Organizing Maps. Springer, 1997 (2-nd edition)
  • 38.
    Linsker, R
    Local synaptic learning rules suffice to maximize mutual information in linear network
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    and Wangviwattana J, E., H., Ogawa, Oja
    Learning in nonlinear constrained Hebbian networks, in Artificial Neural Networks (Proc. ICANN-91), T.Kohonen et al. (Eds.)
  • 41.
    Crick, F. & Mitchison G.
    The function of dream sleep
  • 42.
    Diderich, M, S. & Opper
    Learning of Correlated Patterns in Spin-Glass Networks by Local Learning Rules
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    A., A. & Knizhnikova, Ezhov, Kalambet, L.A. (1990) ., Yu.
    Neural networks: general properties and particular applications
  • 44.
    A., Ezhov
    Empty classes, predictive and clustering thinking networks
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    A., A. & Vvedensky V.L, Ezhov
    Object generation with neural networks (when spurious memories are useful)
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    Hassoun M.H. ed
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    Hopfield, J.
    Neural Networks and Physical Systems with Emergent Collective Computational Abilities
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    Hopfield, J, J.
    Neurons with Graded Response Have Collective Computational Properties Like Those of Two-State Neurons
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    & Palmer, D., Feinstein, Hopfield, I., J., R.G
    Unlearning has a stabilizing effect in collective memories
  • 50.
    Kinzel, W
    Learning and pattern recognition in spin glass models
  • 51.
    Kohonen, T
    Self-organization and Associative Memory
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    & Strikland M., B., J, Muller, Reinhardt, T
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    Кук, С
    Обзор вычислительной сложности. Тьюринговская лекция в: Лекции лауреатов премии Тьюринга за первые двадцать лет 1966-1985
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    and Ignizio, Burke, J, L., L.., P
    Neural networks and operations research: An overview
  • 56.
    A. and Unbehauen, Cichocki, R
    Neural Networks for Optimization and Signal Processing
  • 57.
    B., Cooper, S
    Higher order neural networks - can they help us optimise?
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    B.S, Cooper
    A comparison of the number of stable points of oprimisation networks
  • 59.
    and Gambardella, Dorigo, L., M, M.
    Ant colonies for the traveling salesman problem
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    and Willshaw, D, Durbin, R.
    An analogue approach to the travelling salesman problem using an elastic net method
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    FLEXMAP - A neural network for the travelling salesman problem with linear time and space complexity
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    A., Gee, H
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    and Peterson, B., C, Gislen, L., Soderberg
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    and Peterson, B., C, Gislen, L., Soderberg
    Teachers and classes with neural networks
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    & Tank, D., Hopfield J., J., W
    Neural computation of decisions in optimization problems
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    B., Lin, S. & Kernigan, W
    An effective heuristic algorithm for the travelling-salesman problem
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    J, von Neumann
    A certain zero-sum two-person game equivalent to the optimal assignment problem
  • 72.
    A, D., G. and Beyer, Ogier, R.
    Neural network solution to the link scheduling problem using convex relaxation
  • 73.
    and Soderberg, B, C., M., Ohlsson, Peterson
    Neural networks for optimization problems with inequality constraints - the knapsack problem
  • 74.
    B, G. and Soderberg, Peterson
    A new method for mapping optimization problems onto neural networks
  • 75.
    J-Y, Potvin
    The travelling salesman problem - A neural network perspective
  • 76.
    and Krishnamoorthy, K., M, Palaniswami. M., Smith
    Traditional heuristic versus Hopfield neural network approaches to car sequencing problem
  • 77.
    and Ignizio, J., P, S., Vaithyanathan
    A stochastic neural network for resource constrained scheduling
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    G., S, V. and Pawley, Wilson
    On the stability of the Travelling Salesman Problem algorithm of Hopfield and Tank
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    Bishop C.M
    Neural Networks and Pattern Recognition
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    Александер Г.Дж., Бэйли, Дж. В, У.Ф., Шарп
    Инвестиции
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    Abu-Mostafa, Y.S
    Financial market applications of learning from hints
  • 83.
    A., and Terna, Beltratti, Margarita, P, S.
    Neural Networks for Economic and Financial Modeling
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    Chorafas, D.N
    Chaos Theory in the Financial Markets
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    Colby, Meyers, R.W., T.A
    The Encyclopedia of Technical Market Indicators
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    Ehlers, J.F
    MESA and Trading Market Cycles
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    G, Kaiser
    A Friendly Guide to Wavelets
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    and Lucas, C., D.W, LeBeau
    Technical traders guide to computer analysis of futures market
  • 89.
    E.E, Peters
    Fractal Market Analysis
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    M.G, Pring
    Technical Analysis Explained
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    Plummer, T
    Forecasting Financial Markets
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    and Casdagli, J.A., M, Sauer, T., Yorke
    Embedology
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    and Rogers, eds, R.D., V.R., Vemuri
    Artificial Neural Networks. Forecasting Time Series
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    Times series prediction: Forecasting the future and understanding the past
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    Бэстенс, В.-М., Ван Ден Берг, Вуд, Д, Д.-Э.
    Нейронные сети и финансовые рынки. Принятие решений в торговых операциях
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    & Shavlik, Craven, J., M., W, W.
    Extracting tree-structured representations of trained networks
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    Lu Hongjun, R. and Liu Huan, Setiono
    NeuroRule: A connectionist approach to Data Mining
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    A., G, S. and Zimmerman H., Weigend
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    A., and Neuneier, G., H., R, S., Weigend, Zimmermann
    Clearning. In Neural Networks in Financial Engineering
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    Бэстенс, В.-М., Ван Ден Берг, Вуд, Д, Д.-Э.
    Нейронные сети и финансовые рынки. Принятие решений в торговых операциях
  • 101.
    Александер, Бейли, Г., Д, У., Шарп
  • 102.
    Altman, E. I
    Financial ratios, Discriminant analysis and the prediction of corporate bankruptcy
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    Altman, E. I.
    Defaults and returns on high-yield bonds through thr first half of 1991
  • 104.
    and Shekhar, Dutta, S, S.
    Bond Rating: A Non-Conservative Application of Neural Networks
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    Horrigan, J.O
    The determination of long term credit standing with financial ratios
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    J, J. and Utans, Moody
    Architecture Selection Strategies for Neural Networks: Application to Corporate Bond Rating Prediction
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    A.V, and Yarovoy, S.A., Shumsky
    Self-Organizing Atlas of Russian Banks
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    and Turban, E., eds, R., Trippi
    Neural Networks in Finance and Investing
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    R.R, West
    An alternative approach predicting corporate bond ratings
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    C.Couvrer and P.Couvrer
    Neural Networks and Statistics: A Naive Comparison
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    W.S.Sarle
    Neural Networks and Statistical Models