机械工程学报
機械工程學報
궤계공정학보
CHINESE JOURNAL OF MECHANICAL ENGINEERING
2015年
9期
51-57
,共7页
过金超%崔光照%陈旭%高瑜
過金超%崔光照%陳旭%高瑜
과금초%최광조%진욱%고유
爬壁机器人%电极吸附%交叉电极%有限元分析%模型构建
爬壁機器人%電極吸附%交扠電極%有限元分析%模型構建
파벽궤기인%전겁흡부%교차전겁%유한원분석%모형구건
climbing robot%electro-adhesion%interdigitated electrode%finite element analysis%model construction
针对爬壁机器人现有吸附方式的不足,提出一种电极吸附的新方法。对电极吸附技术的吸附机理进行分析,并根据爬壁机器人的应用特点,提出电极阵列式吸附结构——共面梳状交叉电极阵列。针对该阵列结构,基于有限元分析方法,构建吸附力输出模型,并结合量子粒子群优化算法,以电极吸附阵列吸附力输出的最大化为目标,对电极阵列布局的参数进行优化设计;在对电极阵列吸附力分布特性、击穿特性等性能进行分析的基础上,提出电极阵列结构优化设计方案,并采用MEMS技术,设计出了试验样版。为了验证电极吸附方法的有效性和所建模型的正确性,分别基于不同的材料基底(水泥墙、玻璃和木材),进行吸附力测试试验,并基于电极吸附技术,设计单履带式攀爬机器人。试验数据及攀爬机器人的实际运行效果表明了电极吸附技术的有效性和先进性。
針對爬壁機器人現有吸附方式的不足,提齣一種電極吸附的新方法。對電極吸附技術的吸附機理進行分析,併根據爬壁機器人的應用特點,提齣電極陣列式吸附結構——共麵梳狀交扠電極陣列。針對該陣列結構,基于有限元分析方法,構建吸附力輸齣模型,併結閤量子粒子群優化算法,以電極吸附陣列吸附力輸齣的最大化為目標,對電極陣列佈跼的參數進行優化設計;在對電極陣列吸附力分佈特性、擊穿特性等性能進行分析的基礎上,提齣電極陣列結構優化設計方案,併採用MEMS技術,設計齣瞭試驗樣版。為瞭驗證電極吸附方法的有效性和所建模型的正確性,分彆基于不同的材料基底(水泥牆、玻璃和木材),進行吸附力測試試驗,併基于電極吸附技術,設計單履帶式攀爬機器人。試驗數據及攀爬機器人的實際運行效果錶明瞭電極吸附技術的有效性和先進性。
침대파벽궤기인현유흡부방식적불족,제출일충전겁흡부적신방법。대전겁흡부기술적흡부궤리진행분석,병근거파벽궤기인적응용특점,제출전겁진렬식흡부결구——공면소상교차전겁진렬。침대해진렬결구,기우유한원분석방법,구건흡부력수출모형,병결합양자입자군우화산법,이전겁흡부진렬흡부력수출적최대화위목표,대전겁진렬포국적삼수진행우화설계;재대전겁진렬흡부력분포특성、격천특성등성능진행분석적기출상,제출전겁진렬결구우화설계방안,병채용MEMS기술,설계출료시험양판。위료험증전겁흡부방법적유효성화소건모형적정학성,분별기우불동적재료기저(수니장、파리화목재),진행흡부력측시시험,병기우전겁흡부기술,설계단리대식반파궤기인。시험수거급반파궤기인적실제운행효과표명료전겁흡부기술적유효성화선진성。
A novel electro-adhesion technology is presented for deficiency of existing adhesion methods. The mechanism of electro-adhesion is analyzed and the structure of planar combed interdigitated electrode array for climbing robots usage is presented based on the characteristics of climbing robot usage. With regard to the presented structure, the adhesion force output model is constructed with finite element analysis tool. The quantum particle swarm algorithm (QPSO) is used to optimize the parameters of the adhesion array for the maximal adhesion force output. The shape of electrode is also designed with regard to the force layout and dielectric characteristics of the whole array. With MEMS tech, a testing sample is designed and generated. In order to validate the effectiveness of electro-adhesion method, experiments were performed based on different substrates (concrete wall, glass and wood) and a single tracked climbing robot based on electro-adhesion caterpillar is designed. Experimental data and performance of the designed robot indicate effectiveness and advantage of the depicted method which can provide stable and robust adhesion foe climbing robot.