Please use this identifier to cite or link to this item: https://ah.lib.nccu.edu.tw/handle/140.119/35280
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dc.contributor.advisor姜國輝zh_TW
dc.contributor.advisorCHIANG,Johannes K.en_US
dc.contributor.author吳家齊zh_TW
dc.contributor.authorWu,Chia-Chien_US
dc.creator吳家齊zh_TW
dc.creatorWu,Chia-Chien_US
dc.date2004en_US
dc.date.accessioned2009-09-18T06:37:32Z-
dc.date.available2009-09-18T06:37:32Z-
dc.date.issued2009-09-18T06:37:32Z-
dc.identifierG0923560341en_US
dc.identifier.urihttps://nccur.lib.nccu.edu.tw/handle/140.119/35280-
dc.description碩士zh_TW
dc.description國立政治大學zh_TW
dc.description資訊管理研究所zh_TW
dc.description92356034zh_TW
dc.description93zh_TW
dc.description.abstract在今日以客戶為導向的市場中,“給較好的客戶較好的服務”的概念已經逐漸轉變為“給每一位客戶適當的服務”。藉由跨域行銷(cross-selling)的方式,企業可以為不同的客戶提供適當的服務及商品組合。臺灣的金融業近年來在金融整合中陸續成立了多家金融控股公司,希望藉由銀行、保險與證券等領域統籌資源與資本集中,以整合旗下子公司達成跨領域的共同行銷。這種新的行銷方式需要具有表達資料項目間關係的資訊技術,而關聯規則(association rule)是一種支援共同行銷所需之資料倉儲中的極重要元件。\n傳統關聯規則的挖掘可以用來找出交易資料庫中客戶潛在的消費傾向。如果得以進一步的鎖定是那些客戶在什麼時間、什麼地點具有這種消費傾向,我們可藉此制定更精確、更具獲利能力的行銷策略。然而,大部分的相關習成技術都假設挖掘出的規則在資料庫的每一個區間都是一樣有效的,然而這顯然不符合大多數的現實狀況。\n本研究主要著眼於如何有效率的在不同維度、不同大小的資料庫區域中挖掘關聯規則。藉此發展出可以自動在資料庫中產生分割的機制。就此,本研究提出一個方法找出在各個分割中成立的關聯規則,此一方法具有以下幾個優點:\n1. 對於找出的關聯規則,可以進一步界定此規則在資料庫的那些區域成立。\n2. 對於使用者知識以及資料庫重覆掃瞄次數的要求低於先前的方法。\n3. 藉由保留中間結果,此一方法可以做到增量模式的規則挖掘。\n本研究舉了兩個例子來驗證所提出的方法,結果顯示本方法具有效率及可規模化方面均較以往之方法為優。zh_TW
dc.description.abstractIn today’s customer-oriented market, vision of “For better customer, the better service” becomes “For every customer, the appropriate service”. Companies can develop composite products to satisfy customer needs by cross-selling. In Taiwan’s financial sector, many financial holding companies have been consecutively founded recently. By pooling the resources and capital for banking, insurance, and securities, these financial holding companies would like to integration information resources from subsidiary companies for cross-selling. This new promotion method needs the information technology which can present the relationship between items, and association rule is an important element in data warehouse which supports cross-selling.\nTraditional association rule can discover some customer purchase trend in a transaction database. The further exploration into targets as when, where and what kind of customers have this purchase trend that we chase, the more precise information that we can retrieve to make accurate and profitable strategies. Moreover, most related works assume that the rules are effective in database thoroughly, which obviously does not work in the majority of cases.\nThe aim of this paper is to discover correspondent rules from different zones in database. We develop a mechanism to produce segmentations with different granularities related to each dimension, and propose an algorithm to discover association rules in all the segmentations. The advantages of our method are:\n1. The rules which only hold in several segmentations of database will be picked up by our algorithm.\n2. Mining all association rules in all predefined segmentations with less user prior knowledge and redundant database scans than previous methods.\n3. By keeping the intermediate results of the algorithm, we can implement an incremental mining.\nWe give two examples to evaluate our method, and the results show that our method is efficient and effective.en_US
dc.description.tableofcontentsTable of Contents\nTable of Contents 6\nList of Illustrations 8\nList of Tables 10\n1. Introduction 11\n2. Literature review 14\n2.1. Association rule 14\n2.1.1. Definition of association rules 15\n2.1.2. Mining association rules 16\n2.1.3. Entropy function & application 17\n2.1.4. Mining association algorithm 18\n2.2. Multi-dimension association rule 20\n2.2.1. Quantitative association rules 20\n2.2.2. Relationship graph 22\n2.2.3. Association rule clustering system (ARCS) 24\n2.3. Calendar-based temporal association rules 27\n2.3.1. Calendar schema and calendar pattern 27\n2.3.2. Calendar-based temporal association rules 28\n2.4. Concept hierarchy 29\n3. Problem definition 32\n3.1. Multi-dimension transaction database 32\n3.2. A dimension in MD 33\n3.2.1. Dimension atom 34\n3.2.2. Dimension compound 35\n3.2.3. Concept hierarchy with lattice structure 36\n3.3. Multi-dimension pattern 36\n3.3.1. Element patterns and generalized patterns 37\n3.3.2. Element segmentations 38\n3.3.3. Combination segmentations 39\n3.4. Multi-dimension association rules 40\n3.4.1. Multi-dimension association rule w.r.t full match 40\n3.4.2. Multi-dimension association rule w.r.t relaxed match 41\n4. Algorithm 42\n4.1. Generate all patterns and pattern table 43\n4.2. Update process 45\n4.3. Rules output 47\n5. Experiments 48\n5.1. A whole selling example 48\n5.1.1. Experiment scenario 48\n5.1.2. Data generation 49\n5.1.3. Experiment result 51\n5.2. A financial example 55\n5.2.1. Experiment scenario 55\n5.2.2. Data generation 56\n5.2.3. Experiment result 56\n6. Conclusion and future works 58\n6.1. Conclusion 58\n6.2. Future works 61\nAppendix A. Counting strategy 62\nAppendix B. Proof sketches 64\nReference 65\n\n\nList of Illustrations\nFigure 2.1 transaction database D 15\nFigure 2.2 Initial candidate space for the circuit example 16\nFigure 2.3 Association rules mining algorithm 18\nFigure 2.4 Example of a customer table 21\nFigure 2.5 Mapping to Boolean association rules problem 21\nFigure 2.6 Part of quantitative association mining result 21\nFigure 2.7 Example of transaction and customer database 22\nFigure 2.8 Example of relationship graph 23\nFigure 2.9 Algorithm of relationship graph 24\nFigure 2.10 An example of BinArray 25\nFigure 2.11 An example of marked BinArray 26\nFigure 2.12 Result and output rules 26\nFigure 2.13 An example of calendar schema and calendar patterns 28\nFigure 2.14 Outline of algorithm in calendar-based temporal association rules. 29\nFigure 2.15 An example of temporal hierarchy 30\nFigure 2.16 Hierarchical and lattice structures of attributes in warehouse dimensions 31\nFigure 2.17 An example of salary hierarchy 31\nFigure 3.1 Multi-dimension transaction database MD 32\nFigure 3.2 A transaction in MD 33\nFigure 3.3 CH1 for dimension “Date” 33\nFigure 3.4 Example of dimension atom in dimension “Date” 34\nFigure 3.5 An example of dimension compound in dimension “Date” 35\nFigure 3.6 An example of lattice structure concept hierarchy 36\nFigure 3.7 Hyper-cubes diced by dimension atoms. 38\nFigure 3.8 An example of element segmentation. 39\nFigure 3.9 A combination segmentation is composed of element segmentations. 40\nFigure 4.1 Outline of our algorithm. 42\nFigure 4.2 Two given concept hierarchy. 44\nFigure 4.3 belonging relationships between patterns. 44\nFigure 4.4 A pattern table for concept hierarchies in Fig. 4.2. 45\nFigure 4.5 Update algorithm for full match 45\nFigure 4.6 An example of update for full match 46\nFigure 4.7 Update algorithm for relaxed match 46\nFigure 4.8 An example of update for relaxed match. 47\nFigure 5.1. MD of scenario 48\nFigure 5.2. Concept hierarchies of scenario 49\nFigure 5.3. Scalability experiment 51\nFigure 5.4. Effects of minimum support on efficient. 52\nFigure 5.5. Effects of number of element patterns on efficient. 52\nFigure 5.6. Effects of minsup on discrete large itemsets ratio. 53\nFigure 5.7. Effects of match ratio on discrete large itemsets ratio. 54\nFigure 5.8. Effects of match ratio on lost large itemsets. 54\nFigure 5.9. Concept hierarchies in the example. 56\nFigure 5.10. Scalability experiment 56\nFigure 6.1. Example concept hierarchy I 59\nFigure 6.2. Example concept hierarchy II 59\nFigure 6.3 incremental mining 60\n\nList of Tables\nTable 1. Three types of data set 50\nTable 2. Parameters and default values of data sets 51\nTable 3. Definition of funds 55\nTable 4. Symbol definitions 62zh_TW
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dc.language.isoen_US-
dc.source.urihttp://thesis.lib.nccu.edu.tw/record/#G0923560341en_US
dc.subject資料探勘zh_TW
dc.subject關聯規則zh_TW
dc.subject多維度規則zh_TW
dc.subject購物籃分析zh_TW
dc.subjectdata miningen_US
dc.subjectassociation ruleen_US
dc.subjectMulti-dimension ruleen_US
dc.subjectBasket analysisen_US
dc.titleMining Multi-Dimension Rules in Multiple Database Segmentation-on Examples of Cross Sellingzh_TW
dc.typethesisen
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