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研究生：	賴昱中 Lai, Yu-Chung
論文名稱：	鞋底磨損與模組化設計研究：以休閒鞋為例 Research on Shoe's Outsole of Abrasion and Modular Design：Taking Casual Shoes as an Example
指導教授：	劉說芳 Liu, Shuo-Fang
學位類別：	碩士 Master
系所名稱：	規劃與設計學院 - 工業設計學系 Department of Industrial Design
論文出版年：	2017
畢業學年度：	105
語文別：	英文
論文頁數：	91
中文關鍵詞：	休閒鞋、鞋底磨損、模組化設計
外文關鍵詞：	Casual Shoes, Sole’s Abrasion, Modular Design
相關次數：	點閱：172 下載：5
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　　鞋子是日常生活中不可或缺的用品，一雙好的鞋子更能幫自己在外表與安全上加分，但鞋面與鞋底的產品週期並沒有一致，通常是鞋底先磨損，而鞋面依然保持完好。根據研究顯示，隨著鞋底磨耗程度的增加，會導致使用者增加滑倒或腳部、走路姿勢變形的機會。搜索現有鞋底磨損的解決方案，發現除了高昂的店家修補服務與更換大底之外，亦可自行手作修補；然而，修補後走路的路感、美感都會大打折扣。因此，本研究透過研究國人鞋底磨耗的情況，分析各種不同身高體重與性別的人，在穿著鞋子上的鞋底磨損特徵，計算出磨損範圍，並依照模組化設計的手法，將在實驗中所得到的各項磨損範圍轉換成模塊的尺寸，初步搭配一種卡榫，成為可拆卸替換之鞋底，以期後續在研究鞋底模組化的結構與材料實驗試作上可依本研究之成果作為參考。
　　本研究根據實驗所獲得的相關數據，初步分析得到鞋底跟部的磨損體積與穿鞋總時數呈正相關，統計樣本的各種基本數值也符合常態分布，而後根據這些數據，先將數據標準化，再轉換成模塊尺寸，最後邀請國內知名的製鞋集團研發主管與工程師進行設計訪談，作為本研究的修正建議與後續研究發展方向的規劃。訪談內容大致為對於本研究模組化設計的優缺點、製程、材料選用、應用在各種不同鞋類應注意的相關事項。

　　Shoes are indispensable in daily life supplies, a pair of good shoes to help themselves in the appearance and safety of extra points, but the upper and soles of the product cycle is not consistent, usually the first wear soles, while the upper remains intact. According to the study, with the increase in the degree of wear, will lead to increased user slippage or foot, walking posture deformation opportunities. Search the existing soles wear solution and found that in addition to the high shop repair service and replacement outsole, but also self-repair; However, the road after the repair road feeling, beauty will be greatly reduced Therefore, the study through the study Chinese people soles wear situation, analysis of a variety of height and weight and gender of the people, wearing shoes on the sole wear characteristics, calculate the wear range, and in accordance with the modular design approach, will be in the experiment to get the wear The scope of conversion into the size of the module, initially with a kind of card tenon, as a removable replacement of the soles, with a view to the subsequent study of the sole structure of the structure and material experiments can be based on the results of this study as a reference.
　　According to the data obtained from the experiment, the wear volume of the heel of the sole is positively correlated with the total number of shoes, and the basic values of the statistical samples are also consistent with the normal distribution. Then, according to the data, the data are standardized first, And then converted into the module size, and finally invited the well-known domestic shoe-making group R & D executives and engineers to conduct design interviews, as the proposed amendments to the study and follow-up research and development direction of the plan. Interview content is roughly for the study of the advantages and disadvantages of modular design, process, material selection, applied in a variety of different footwear should pay attention to the relevant matters.

摘要	i
SUMMARY	ii
ACKNOWLEDGEMENTS	iii
TABLE OF CONTENTS	iv
LIST OF TABLES	vii
LIST OF FIGURES	viii
CHAPTER 1 INTRODUCTION	1
1 Research Background	1
1.1 The Transformation Problem Encountered by the Domestic Footwear Industry	1
1.2 Burden Caused by Worn-out Soles on the Body	1
1.3 Excess Capacity of Shoes and the Waste of Resources	2
2 Research Motivation	2
2.1 Benefits of Replaceable Sole Modules	2
2.2 To Avoid Excessive Capacity of Shoes and the Waste of Consumption	2
2.3 Summary	3
3 Research Purposes	3
4 The Importance of Research	4
4.1 Improving the Efficiency of Resource Use	4
4.2 Potential Emerging DIY Market	4
4.3 To Provide Designers in the Young Adult Group of Shoes Design Reference	4
4.4 To Provide Footwear Design Innovation in the Field of Design and Development	5
5 Research Object Restrictions	5
5.1 Casual Shoe Types as the Target Shoe Design in this Study	5
5.2 The Soles to be Designed are for the Midsole and Outsole of Casual Shoes	6
5.3 The Design of the Soles of This Study Aims Only on the Dismantling, Repair, and the Usability Analysis, No Discussion of Other Parts.	7
5.4 The Subjects of This Study Were 15-24 Year Old	7
CHAPTER 2 LITERATURE REFERENCE	8
1 Foot Structure, Type and Shoes to Deal With	8
1.1 Distribution of Foot Structure	8
1.2 Summary of Wear Ranges	9
2 Soles Wear Condition Measurement Method and the Yaw Angle of Walking	10
2.1 The Condition of the Sole Wear and the Increase in the Energy Cost of the Human Body	10
2.2 Definition of Valgus Angle and Yaw Angle	11
2.3 Measurement of the Wear Condition of the Soles	12
2.4 Sole Wear Severity	13
3 Definition and Conditions of Module and Modularization, Product Modularization	14
3.1 Definition of Modules	14
3.2 Modularization	14
3.3 Feature Modularization	15
3.4 Product Modularization	15
3.5 Conditions to be met by Product Modularization	16
3.6 Modular Operation Related Principles and Methods	16
3.7 Example of Product Modularization	16
CHAPTER 3 RESEARCH METHODS	18
1 Research Process and Steps	19
2 Descriptions of Wear Range of Experimental Planning Content	20
2.1 Collection of Sole Wear Samples	20
2.2 Object Selection and Solicitation Process	21
2.3 Relevant Principles of Data Protection for the Subjects	21
2.4 Experimental Flow	21
3 Modular Design	26
4 Expert Interviews and Assessments	28
CHAPTER 4 RESULTS AND ANALYSIS	29
1 Statistical Results and Analysis of Sole Wear	29
1.1 Experimental Measurement Data	29
1.2 Analysis of Experimental Data	41
2 Soles Modular Design	43
2.1 Specified Sole Module Size	43
2.2 Modularization Module Function and Reorganization	50
3 Interview Outline	53
CHAPTER 5 CONCLUSIONS AND RECOMMENDATIONS	59
1 Conclusions	59
2 Recommendations for Follow-up Studies	60
REFERENCES	63
Appendix A Shoe Wear Research Survey Form	67
Appendix B Interview Invitation Letter	69
Appendix C Questionnaire Interview Content verbatim	72
Appendix D Experimental Sole Sample 	81

                                    

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