# 臺灣博碩士論文加值系統

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 本文提出六足機器人的偏移模型，在一般模型中加入偏移量D值，探討改變機器人形態對其使用不同步態行走各方向時的穩定性之影響，文中以穩定極限(Stability Margin)和誤差極限(Error Margin)作為機器人移動時穩定性的參考基準，判別機器人移動時的穩定性高低。文中探討了兩種步態朝各方向行走的穩定性，分別為人工編排的對稱步態與自然生物的異相步態，編排其朝各方向行走的步態循環後，分析兩種步態沿各方向行走時的穩定性受偏移量D值變化之影響，並探討運用這兩種步態朝不同方向行走時的適用性與穩定性優劣。本文的研究結果發現增加偏移量D值可以提高使用對稱步態朝X方向與斜向行走的穩定度，對於使用異相步態行走則幫助較小，並且發現此構型之機器人使用對稱步態行走時，其朝Y方向移動時的穩定度較高，而使用異相步態則是朝X方向移動時的穩定性較高。
 This thesis studies the effects of morphological factors of hexapod robots on their locomotion stability. In particular, an offset model for such robots is proposed. The stability margin as well as the error margin are used to indicate the stability of the hexapod robot, as it walks with different gaits in arbitrary directions. Two hexapod gaits are compared, which are the symmetric gait and the metachronal gait. The former is an artificial gait and the latter, on the contrary, is a natural gait which can be observed in many multiped animals.As we investigate advantages and disadvantages of the two gaits, we find that the stability of a hexapod robot can be enhanced by increasing the offset value. This is particularly true for a robot moving in the X and oblique directions with a symmetrical gait. However, altering the offset is less useful for metachronal gaits. In general, a hexapod robot moves most stably in the Y direction with a symmetrical gait, whereas it is most stable in the X direction with a metachronal gait.
 目錄...............................................................Ⅰ圖目錄.............................................................Ⅴ表目錄.............................................................Ⅹ摘要............................................................ ⅩⅠABSTRACT....................................................... ⅩⅡ第一章 緒論.........................................................1 1.1 文獻回顧.....................................................1 1.1.1 六足機器人的人工步態....................................1 1.1.2 六足生物步態............................................1 1.1.3 穩定極限Sm(Stability Margin)...............................3 1.1.4 容錯步態(Fault Tolerant Gait)與誤差極限 Em(Error Margin).......41.2 研究動機與目的...............................................61.3 本文的基本架構...............................................7第二章 偏移模型使用對稱步態朝X方向行走…...........................82.1 一般模型與偏移模型...........................................8 2.2 編排步態.....................................................92.3穩定極限Sm(Stability Margin)...................................10 2.3.1 穩定極限的定義.........................................102.3.2 計算方法...............................................112.3.3 範例...................................................14 2.3.4 P、Q、U與D值改變對於模型穩定極限的影響..............152.4誤差極限Em(Error Margin)......................................172.4.1 誤差極限的定義.........................................172.4.2 計算方法...............................................172.4.3 範例...................................................192.4.4.. P、Q、U各值改變對於模型誤差極限的影響.................202.5偏移與一般模型之穩定性比較..................................21 2.5.1兩模型穩定性比較之限制條件.............................21 2.5.2偏移與一般模型的穩定極限...............................212.5.3偏移與一般模型的誤差極限...............................232.6 本章小結....................................................26第三章 偏移模型使用對稱步態朝Y軸方向行走..........................273.1 編排步態....................................................283.2穩定極限Sm(Stability Margin)...................................283.2.1 穩定極限的計算.........................................283.2.2 範例...................................................31 3.2.3 P、Q、U與D值改變對於模型穩定極限的影響..............323.3誤差極限Em(Error Margin)......................................343.3.1 誤差極限的計算.........................................343.3.2 範例...................................................363.3.3.. P、Q、U各值改變對於模型誤差極限的影響.................373.4偏移與一般模型之穩定性比較..................................383.4.1偏移與一般模型的穩定極限................................383.4.2偏移與一般模型的誤差極限................................393.5..偏移模型使用對稱步態朝兩軸方向行走之穩定性比較..............413.5 本章小結....................................................43第四章 偏移模型使用對稱步態斜向行走................................444.1 編排步態....................................................444.2 機器人斜行的角度與跨幅的計算................................454.3穩定極限Sm(Stability margin)...................................464.3.1...斜行角度 的穩定極限.......................464.3.2 .範例...................................................494.3.3..斜行角度 的穩定極限.........................504.3.4 .範例...................................................534.3.5...D值改變對於模型穩定極限的影響.........................544.3.6...偏移模型與一般模型斜行的穩定極限比較...................554.4誤差極限Em(Error margin).....................................564.4.1...斜行角度 的誤差極限.......................564.4.2 .範例...................................................584.4.3...斜行角度 的誤差極限........................594.4.4 .範例...................................................614.4.5...偏移模型與一般模型斜行的誤差極限比較...................624.5相同跨福不同斜行角度之穩定性比較............................634.5.1 .跨幅相同時不同的斜行角度之穩定極限比較.................634.5.2 .跨幅相同時不同的斜行角度之誤差極限比較.................644.6..本章小結....................................................654.7..對稱步態各章小結統整........................................65第五章 偏移模型使用異相步態行走....................................675.1 本章研究重點................................................67 5.2運用異相步態朝X軸方向行走..................................675.2.1 編排步態...............................................675.2.2 穩定極限與誤差極限.....................................69 5.2.3 P、Q、U與D值變化對穩定度之影響......................725.2.4..偏移與一般模型之穩定性比較.............................755.3運用異相步態朝Y軸方向行走..................................765.3.1 編排步態...............................................765.3.2 穩定極限與誤差極限.....................................77 5.3.3 P、Q、U與D值變化對穩定度之影響......................815.3.4..偏移與一般模型之穩定性比較.............................845.4 異相與對稱步態的比較項目....................................855.4.1..使用異相步態朝X軸與Y軸行走之比較.....................855.4.2 使用異相步態與對稱步態朝X軸行走之比較.................86 5.4.3 用異相步態與對稱步態朝Y軸行走之比較...................875.5 本章小結....................................................89第六章 結論與建議..................................................90參考文獻...........................................................92
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 1 橫行六足機器人之步行與攀爬 2 仿生多足機器人足部故障之步態研究 3 六足機器人跨越非連續地形之行走策略 4 真「蟹形」自然及人工步態之討論與比較 5 仿生六足球型機器人之研發與應用 6 六足機器人之力回饋功能應用 7 多功能四足機器人

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