Journal of Aero Aqua Bio-mechanisms
Online ISSN : 2185-1522
ISSN-L : 2185-1522
1 巻, 1 号
Special Issue on Fourth International Symposium on Aero Aqua Bio-Mechanisms
選択された号の論文の18件中1~18を表示しています
Special Issue on Fourth International Symposium on Aero Aqua Bio-Mechanisms
Compilation Papers
  • Nicolas Franceschini, Franck Ruffier, Julien Serres
    2010 年 1 巻 1 号 p. 2-10
    発行日: 2010年
    公開日: 2010/10/20
    ジャーナル フリー
    This paper deals with the control problems involved in insects' and robots' visually guided piloting. Explicit control schemes are presented which may explain how insects navigate by relying on optic flow cues, without requiring any distance or speed measurements. The concept of the optic flow regulator, a feedback control system based on OF sensors, is presented. We tested our control schemes in simulation, and implemented them on-board two types of miniature aerial robots, a helicopter and a hovercraft. Their electronic OF sensors were inspired by the results of our microelectrode studies on motion sensitive neurons in the housefly's compound eye. The control schemes described do without any conventional avionic sensors like rangefinders or speedometers, and therefore show great potential for safe autonomous control of aerial, underwater and space vehicles in unchartered environments.
  • Motomu Nakashima
    2010 年 1 巻 1 号 p. 11-17
    発行日: 2010年
    公開日: 2010/10/20
    ジャーナル フリー
    Swimming movement of human being is quite distinctive compared to those of the other aquatic animals. Taking such peculiarity into account, the authors recently have developed a simulation model “SWUM” to simulate the human swimming. In this paper, the simulation model itself is firstly described. Next, several examples of applications of the model are presented in order to demonstrate the usefulness of the model. Finally, ongoing research projects are introduced to explain the future tasks for the model.
  • Hiroshi ARAI, Yasuaki DOI, Takuji NAKASHIMA, Hidemi MUTSUDA
    2010 年 1 巻 1 号 p. 18-23
    発行日: 2010年
    公開日: 2010/10/20
    ジャーナル フリー
    The objective of the present study is to elucidate the flow mechanism of delaying stall by use of a wavy leading edge. Experiments were carried out to examine the effects of various shapes of wavy leading edges. Numerical simulations were also carried out to investigate the flow around wavy leading edge. It is found that the wavy leading edge can restrain flow separation and delay stall. The shorter wavelength of protuberance is the better for producing large lift force at poststall angles of attack on rectangular wing.
Original Papers
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