Self-organization of spiking neural network that generates autonomous behavior in a real mobile robot

被引:10
|
作者
Alnajjar, Fady [1 ]
Murase, Kazuyuki [1 ]
机构
[1] Univ Fukui, Dept Human & Artificial Intelligence Syst, Fukui 9108507, Japan
关键词
spiking neural network; spike response model; Hebbian rule; use-dependent synaptic modification;
D O I
10.1142/S0129065706000640
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
In this paper, we propose self-organization algorithm of spiking neural network (SNN) applicable to autonomous robot for generation of adoptive and goal-directed behavior. First, we formulated a SNN model whose inputs and outputs were analog and the hidden unites are interconnected each other. Next, we implemented it into a miniature mobile robot Khepera. In order to see whether or not a solution(s) for the given task(s) exists with the SNN, the robot was evolved with the genetic algorithm in the environment. The robot acquired the obstacle avoidance and navigation task successfully, exhibiting the presence of the solution. After that, a self-organization algorithm based on a use-dependent synaptic potentiation and depotentiation. at synapses of input layer to hidden layer and of hidden layer to output layer was formulated and implemented into the robot. In the environment, the robot incrementally organized the network and the given tasks were successfully performed. The time needed to acquire the desired adoptive and goal-directed behavior using the proposed self-organization method was much less than that with the genetic evolution, approximately one fifth.
引用
收藏
页码:229 / 239
页数:11
相关论文
共 50 条
  • [31] Self-Organization of Wireless Sensor Network for Autonomous Control in an IT Server Platform
    Khanna, Rahul
    Liu, Huaping
    Chen, Hsiao-Hwa
    2010 IEEE INTERNATIONAL CONFERENCE ON COMMUNICATIONS, 2010,
  • [32] Self-organization via active exploration: hardware implementation of a neural robot
    Prakash, RV
    Ogmen, H
    ROBOTICA, 1998, 16 : 127 - 141
  • [33] Self-organization via active exploration: hardware implementation of a neural robot
    Univ of Houston, Houston, United States
    Robotica, pt 2 (127-141):
  • [34] Self-organization in neural matter
    Martin, MT
    Plastino, A
    Rosso, OA
    CONDENSED MATTER THEORIES, VOL 17, 2003, 17 : 279 - 291
  • [35] A neural network model for the self-organization of cortical grating cells
    Bauer, C
    Burger, T
    Lang, EW
    FOUNDATIONS AND TOOLS FOR NEURAL MODELING, PROCEEDINGS, VOL I, 1999, 1606 : 431 - 441
  • [36] A neural network model for the self-organization of cortical grating cells
    Bauer, C
    Burger, T
    Stetter, M
    Lang, EW
    ZEITSCHRIFT FUR NATURFORSCHUNG C-A JOURNAL OF BIOSCIENCES, 2000, 55 (3-4): : 282 - 291
  • [37] Neural constructivism or self-organization?
    Molenaar, PCM
    van der Maas, HLJ
    BEHAVIORAL AND BRAIN SCIENCES, 2000, 23 (05) : 783 - +
  • [38] SELF-ORGANIZATION OF NEURAL NETWORKS
    CLARK, JW
    WINSTON, JV
    RAFELSKI, J
    PHYSICS LETTERS A, 1984, 102 (04) : 207 - 211
  • [39] Autonomous Mobile Robot Behavior Control Using Immune Network
    Department of Oornputational Science and Engineering, Graduate Schoo1 of Engineering, Nagoya University, Furo-cho, Chikusa-ku, Nagoya
    464-8603, Japan
    J. Rob. Mechatronics, 4 (326-332):
  • [40] A Sensor-Based Learning Algorithm for the Self-Organization of Robot Behavior
    Hesse, Frank
    Martius, Georg
    Der, Ralf
    Herrmann, J. Michael
    ALGORITHMS, 2009, 2 (01) : 398 - 409