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研究生: 邱于庭
Chiu, Yu-Ting
論文名稱: 一般化運動鏈之數目合成
On the Number Synthesis of Generalized Kinematic Chains
指導教授: 顏鴻森
Yan, Hong-Sen
學位類別: 博士
Doctor
系所名稱: 工學院 - 機械工程學系
Department of Mechanical Engineering
論文出版年: 2014
畢業學年度: 102
語文別: 英文
論文頁數: 140
中文關鍵詞: 機構運動鏈數目合成構造合成圖學理論機構概念設計
外文關鍵詞: kinematic chains of mechanisms, number synthesis, structural synthesis, graph theory, conceptual design of mechanisms
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  • 本研究之目的是針對單接頭的一般化運動鏈、運動鏈、及呆鏈進行數目合成。基於圖學理論和運動鏈矩陣,提出四種確認演算法來判斷運動鏈的類型,以及三種列舉演算法來合成各種類型的運動鏈。並根據所提出的演算法發展電腦軟體,合成與繪圖製各種一般化運動鏈、運動鏈、及呆鏈圖譜,作為機構概念設計或創意性機構設計之用。
    首先介紹機構運動鏈與圖學理論相關術語與定義,舉例說明其涵義,據此針對單接頭運動鏈之數目合成方法,做詳細的文獻回顧與探討。接著,對本研究所用之基本理論與概念如連桿類配、縮桿類配、及多接頭連桿鄰接矩陣合成、連桿鄰接矩陣合成等舉例說明並探究。以機構運動鏈文獻與基本理論為基礎,提出確認分離連桿演算法來刪除分離連桿運動鏈,以及確認庫拉托夫斯基(Kuratowski)圖形演算法是來刪除非平面圖形,並提出一種繪圖演算法以進行繪製機構運動鏈與圖。基於以上述的確認演算法,本研究提出一種列舉演算法可合成與繪製所有一般化運動鏈圖譜。再者,利用三桿基本呆鏈與退化運動鏈演算法,檢驗運動鏈是否為退化運動鏈,並提出運動鏈與呆鏈列舉演算法,合成出各種運動鏈與呆鏈圖譜。最後,根據以上所提出的演算法,發展出一套電腦軟體供機構設計者使用,可產生各種連桿與接頭數目之非同構單接頭機構運動鏈圖譜。
    藉由本研究所提出的演算法,不只可精確地獲得所有機構運動鏈圖譜,且可簡化機構概念設計程序。

    This work provides four checking algorithms and three enumeration algorithms based on graph theory and kinematic matrices for the number synthesis and the construction of the necessary atlases of generalized kinematic chains, kinematic chains, and rigid chains for the conceptual design of mechanisms. Furthermore, a computer program is developed to synthesize and sketch the various atlases of generalized kinematic chains, kinematic chains, and rigid chains with simple joints based on the proposed algorithms.
    Firstly, the fundamental definitions and terminology regarding kinematic chains of mechanisms and graph theory are introduced. The literature survey on the number synthesis of various kinematic chains with simple joints is reviewed and studied. Then, the basic theories and concepts such as link assortments, contracted link assortments, and the synthesis of multiple link adjacency matrices and link adjacency matrices are presented and illustrated with examples. The algorithm for checking cut-links is provided for the elimination of chains with cut-links. The algorithm for checking Kuratowski graphs is proposed to delete non-planar graphs. And, a sketching algorithm is developed to sketch kinematic graphs or chains based on the basic contracted graphs. According to these algorithms, an enumeration algorithm is proposed for the construction of generalized kinematic chains. Furthermore, two algorithms for checking three-bar basic rigid chains and degenerate kinematic chains are put forward to discard the degenerate kinematic chains. Then, two enumeration algorithms are proposed for the synthesis of kinematic chains and rigid chains. Finally, a computer program based on the proposed algorithms is developed to synthesize and sketch various non-isomorphic generalized kinematic chains, kinematic chains, and rigid chains with simple joints.
    The proposed algorithms and computer programs not only can precisely obtain various atlases of generalized kinematic chains, kinematic chains, and rigid chains, but also can simplify the methodology for the conceptual design of mechanisms.

    摘要 (Abstract in Chinese) I Abstract II Acknowledgements IV Table of Contents VI List of Tables X List of Figures XI Nomenclature XIV Chapter 1 Introduction 1 1.1 Motivation and Objectives 1 1.2 Dissertation Organization 2 Chapter 2 Terminology and Definitions 5 2.1 Links and Joints 5 2.1.1 Kinematic links and joints 5 2.1.2 Generalized links and joints 6 2.2 Graph Theory 7 2.2.1 Graphs, vertices, and edges 7 2.2.2 Degrees of vertices 7 2.2.3 Walks 8 2.2.4 Paths 8 2.2.5 Loops and self-loops 8 2.2.6 Planar and connected graphs 9 2.2.7 Isomorphism 10 2.2.8 Blocks and planar blocks 10 2.2.9 Hypergraphs and line graphs 10 2.2.10 Homeomorphism 11 2.2.11 Kuratowski graphs 11 2.2.12 Contracted graphs 12 2.3 Degrees of Freedom 12 2.4 Various Chains of Mechanisms 13 2.4.1 Generalized kinematic chains and kinematic chains 13 2.4.2 Rigid chains 14 2.4.3 Generalized kinematic chains with simple and multiple joints 14 2.4.4 Fractionated and non-fractionated generalized kinematic chains 15 2.4.5 Degenerate kinematic chains 15 2.5 Link Assortments 16 2.5.1 Link assortments 16 2.5.2 Multiple link assortments 16 2.5.3 Contracted link assortments 16 2.6 Kinematic Matrices 17 2.6.1 Link adjacency matrices 17 2.6.2 Multiple link adjacency matrices 17 2.7 Permutation Groups 18 2.8 Summary 19 Chapter 3 Literature Review 20 3.1 Intuition or Visual Inspection 20 3.2 Franke’s Condensed Notation 21 3.3 Graph Theory 22 3.4 Contracted Graphs 25 3.5 Baranov Trusses 27 3.6 Transformation of Binary Chains 28 3.7 Matrices 30 3.8 Group Theory 33 3.9 Stratified Method 34 3.10 Others 36 3.11 Summary 37 Chapter 4 Basic Theories 41 4.1 Link Assortments 41 4.2 Contracted Link Assortments 42 4.3 Synthesis of Multiple Link Adjacency Matrices 44 4.4 Synthesis of Link Adjacency Matrices 48 4.5 Planar Blocks and Generalized Kinematic Chains 52 4.6 Basic Contracted Graphs 54 4.7 Summary 54 Chapter 5 Generalized Kinematic Chains 56 5.1 Algorithm for Checking Cut-links 56 5.2 Algorithm for Checking Kuratowski Graphs 59 5.3 Sketching Algorithm 65 5.4 Enumeration Algorithm of Generalized Kinematic Chains 68 5.5 Summary 73 Chapter 6 Kinematic Chains and Rigid Chains 74 6.1 Algorithm for Checking Three-bar Basic Rigid Chains 74 6.2 Algorithm for Checking Degenerate Kinematic Chains 76 6.3 Enumeration Algorithm of Kinematic Chains 82 6.4 Enumeration Algorithm of Rigid Chains 88 6.5 Summary 92 Chapter 7 Automatic Sketching of Chains and Graphs 94 7.1 Generalized Kinematic Chains 94 7.1.1 Example 1: Atlas of (6, 9) generalized kinematic chains 94 7.1.2 Example 2: Atlas of (8, 9) generalized kinematic chains 95 7.2 Kinematic Chains 98 7.2.1 Example 3: Atlas of (8, 10) kinematic chains 98 7.2.2 Example 4: Atlas of (10, 13) kinematic chains 98 7.3 Rigid Chains 101 7.3.1 Example 5: Atlas of (7, 9) rigid chains 101 7.3.2 Example 6: Atlas of (8, 11) rigid chains 102 7.4 Summary 104 Chapter 8 Conclusions and Suggestions 106 8.1 Conclusions 106 8.2 Suggestions 110 References 111 Appendix A: Basic Contracted Graphs with 1, 2, 3, and 4 loops 123 Appendix B: User Interface of the Computer Program 125 Appendix C: Atlases of Generalized Kinematic Chains 127 Appendix D: Atlases of Kinematic Chains 131 Appendix E: Atlases of Rigid Chains 136 Copyright Statement 140

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