兵工自动化
兵工自動化
병공자동화
ORDNANCE INDUSTRY AUTOMATION
2014年
12期
67-71
,共5页
机器鱼%游动性能%鱼尾
機器魚%遊動性能%魚尾
궤기어%유동성능%어미
robot fish%swimming performance%tail of the robotic fish
为了提高机器鱼的推进速度和推进动力,对机器鱼尾鳍的大小和形状进行改善。通过分析仿生机器鱼的波动方程得到尾鳍面积与推力的关系,从鱼尾形状、鱼尾弧口深度、鱼尾大小、鱼尾软硬度4个方面出发,依次采用 solidworks 设计了鱼尾形状,根据2种软硬度下不同形状的游动速度,得到最佳形状及软硬度,在此最佳形状的基础上改变弧口深度,并通过实体实验确定了最佳鱼尾大小方案。实验结果表明:机器鱼的游动性能受鱼尾形状、大小、软硬度等多个因素共同影响,使用较软材料的月牙形鱼尾对鱼游行较为有利。
為瞭提高機器魚的推進速度和推進動力,對機器魚尾鰭的大小和形狀進行改善。通過分析倣生機器魚的波動方程得到尾鰭麵積與推力的關繫,從魚尾形狀、魚尾弧口深度、魚尾大小、魚尾軟硬度4箇方麵齣髮,依次採用 solidworks 設計瞭魚尾形狀,根據2種軟硬度下不同形狀的遊動速度,得到最佳形狀及軟硬度,在此最佳形狀的基礎上改變弧口深度,併通過實體實驗確定瞭最佳魚尾大小方案。實驗結果錶明:機器魚的遊動性能受魚尾形狀、大小、軟硬度等多箇因素共同影響,使用較軟材料的月牙形魚尾對魚遊行較為有利。
위료제고궤기어적추진속도화추진동력,대궤기어미기적대소화형상진행개선。통과분석방생궤기어적파동방정득도미기면적여추력적관계,종어미형상、어미호구심도、어미대소、어미연경도4개방면출발,의차채용 solidworks 설계료어미형상,근거2충연경도하불동형상적유동속도,득도최가형상급연경도,재차최가형상적기출상개변호구심도,병통과실체실험학정료최가어미대소방안。실험결과표명:궤기어적유동성능수어미형상、대소、연경도등다개인소공동영향,사용교연재료적월아형어미대어유행교위유리。
To improve the robot fish propulsion speed and propulsive force, change the size and shape of robot fish tail. Through analyzing fluctuation equation of bionics robot fish, acquire the relation of tail acreage and propulsive force, based on tail shape, arc-shaped end depth, size and hardness-softness, use solidworks to design tail shape, according to different swimming speed of different shapes under 2 hardness-softness conditions, acquire optimal shape and hardness-softness. Based on the optimal shape, change arc-shaped end depth, determine optimal tail size according to experiment. The experiment results show that the swimming performance is influenced by tail shape, size, hardness-softness and so on, use crescent tail made by soft material is good for swimming.