Agent and data mining based decision support system and its adaptation to a new customer-centric electronic commerce

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Abstract

Recently, as the Internet has become more widely used, Electronic Commerce (EC) has emerged and has developed a high-level business environment. The customer-centric EC model is important for the success of EC and this study presents a new customer-centric EC model in make-to-order (MTO) semiconductor manufacturing environment. In this study we proposed the EC model providing the process transparency of process sampling method that can provide online semiconductor customers with the performance information of available process sampling methods which can be used at all manufacturing process steps for their own products in MTO manufacturing environment, and then the capability to select a desirable one among them based on their purchase situations on EC web site. In the proposed EC model the customer can select a process sampling method that is most suitable to him/her according to the customer's purchase situation. In this model the use of intelligent decision support system called customized sampling decision support system (CSDSS) that can autonomously generate available customized sampling methods and provide the performance information of those methods to EC system is requisite. We implemented an Internet-based prototype of CSDSS which had an architecture based on intelligent agent technology and also the successful integration of data mining process for the generation of optimal sampling method into DSS framework by means of applying that technology.

Introduction

Recently, as the Internet has become more widely used, electronic commerce (EC) has emerged and has developed a high-level business environment. The initial rush to EC by businesses resulted in the first step of establishing a commercial Web presence. However, companies have now begun to mature from using the Web as a promotional tool, to actually conducting business over it. Businesses providing Web-based services can track the personal preferences of their customers through monitoring their Web browsing and purchasing habits. This can even be fed back into the presentation of products to customers permitting the development and marketing of an ‘individual product’ tailored to a particular customer's preference. At the same time the direct link between business and customer has allowed the delivery of close to ‘real-time’ services. However, this personal contact builds high customer expectations-if they are let down, they are quick to judge and only one click away from your competition.

When a customer purchases products in EC market, he/she may have many possible sources for the desired products and in making a choice decision of product, greater product information is expected to be critical to ensure effective customer decision making. Rather than always demanding the lowest price in EC, online customers have shown an interest in making quicker, better, informed decisions (The Economist, 1997).

Efficient EC market generally has the manifest concept of transparency in four primary dimensions (Morgan Stanley Dean Witter, 2000): price transparency that means the trading participants can get the market price or the price they have come to expect, and know nearly perfect information on price variation by geographic region or by size of supplier (or buyer), availability transparency that implies the customer who needs a certain product can get the information on who has it now, supplier transparency that is about that who else out there makes the product, and product transparency that indicates whether there is a substitute, alternative product.

Transparency is a knowledge-based concept that implies participants have intelligence about the market around them and buyers always want more market transparency in EC market. In this paper we introduce another concept of transparency, process transparency, in EC market in order to improve the efficiency of that. Process transparency implies that online customers can have access not only to product information, product pricing and product availability but also to order status, product career information (e.g. manufacturing and testing process history of product: test results, quality information, etc.), etc. (Fig. 1).

Process transparency is intended to provide customers greater visibility of a (seller) company's internal activities such as the placement and processing of purchase orders. Through the EC web site providing process transparency, customers can monitor, feedback and furthermore regulate a (seller) company's operations for their own products. It can give a higher degree of customer satisfaction concurrent with a high degree of customization in especially make-to-order (MTO) manufacturing by providing customers the capability to directly control the operations of manufacturing process for their own products.

In our study we address the new semiconductor EC model specifically providing the process transparency of process sampling for MTO semiconductor manufacturing (SM). In this model when the online customers of semiconductor product order in the EC web site, they can access to the performance information (e.g. detection of any abnormality and good representation of total defect distribution) of available process sampling methods which can be used at all manufacturing process steps for their ordered products, and then select a desirable one based on their purchase situations. In our study we call the selected sampling method customized sampling method. The underlying idea of customized sampling method is that according to the customer's purchase situation, the desirable (optimal) process sampling method to him/her is different.

When a customer purchases products in EC, the purchase is generally made based on multiple attributes considerations such as product quality, delivery time, quantity, price/cost at the same time. In some cases, the purchases of customer are time-critical, so that if the products are not received before a deadline, they are worthless. In those situations, delivery time is a crucial attribute to the customer. In other cases, the customer wants to purchase products of very high quality, so that the product quality is very important to the customer. Thus, the customer purchases are made based on the varying importance of each attribute to his/her purchase situations.

In the semiconductor industry, each customer has a different set of attribute requirements and technology needs for his/her broad spectrum of applications, from advanced, high-end applications (such as scientific research computing systems, etc.) to commodity applications (such as personal computers, etc.), so that there are varying levels of purchase situations of a customer.

In the case of quality-sensitive purchase (e.g. advanced, high-end applications) of a customer, the semiconductor product quality is very important to that customer, so that the process sampling method with the best performance may be desirable (optimal) to him/her. In the case of time-critical purchase of a customer because of being a deadline, the delivery time is a crucial factor to that customer, so that the process sampling method with the smaller sampling size because of having less (sampling) inspection operations may be desirable (optimal). Like this, the customer wants to rigorously control the process sampling method for his/her own product by the standpoint of the important attribute to his/her purchase in MTO manufacturing and the EC market providing the process transparency of process sampling can provide online customer with the capability to do it.

In order to provide the process transparency of process sampling in the EC market, we present an intelligent decision support system (IDSS) based on data mining and intelligent agent technology, called customized sampling decision support system (CSDSS), for the autonomous generation of available customized sampling methods and their provision on EC web site. In this study, we implement an Internet-based CSDSS prototype and illustrate its application to EC.

The presented CSDSS has a similar architecture to the architecture of IDSS proposed by Wang (1997) that takes advantage of the intelligent, autonomous, and active aspects of intelligent agent technology. It also has the successful integration of data mining process for the generation of optimal sampling method proposed by Lee (2002) into a DSS framework by means of applying intelligent agent technology.

The sampling method generated by Lee's (2002) methodology specifies the sampling chip locations and their size within the wafer to be sampled (measured) in order to represent a good sensitivity of total defect distribution and defect detection within a certain time period. And furthermore, by Lee's (2002) methodology, the previously determined sampling chip locations and their size are dynamically adjusted for faster detection of any abnormality and good representation of total defect distribution.

This paper proceeds as follows. Section 2, ‘Preliminaries’, reviews the status of semiconductor industry's EC, semiconductor manufacturing's process sampling and fundamental concepts and literature in decision support system. Section 3 presents the CSDSS and its adaptation to EC in MTO SM environment. Section 4 will describe our CSDSS prototype implementation and its application. Finally, we shall end this paper with conclusions.

Section snippets

Overview of semiconductor industry's EC

Since semiconductor companies are the worldwide suppliers of Integrated Circuits (ICs) to Original Equipment Manufacturers (OEMs) such as computing, telecommunications, consumer-electronics and entertainment, etc. firms and most OEMs are adopting EC, it is critical for semiconductor companies to set up business transactions through EC.

Due to an intense global competition, however, semiconductor design and manufacturing companies (SDMs) are forced to spend a major portion of their capital

Customized sampling decision support system and its adaptation to EC

In this section, we present a new EC model providing the process transparency of process sampling through the use of CSDSS in MTO semiconductor manufacturing (SM) environment. The proposed EC model can provide online customer with the performance information such as the sensitivity of total defect distribution and defect detection of available process sampling methods that can be used at all process steps for his/her products and the capability to select his/her own process sampling method

CSDSS prototype and its application

This section describes the CSDSS prototype implementation and its application to the proposed EC model as presented in Section 3. In this study we implemented the CSDSS prototype with the similar way that Wang (1997) did. As shown in Fig. 11, the CSDSS prototype consists of three agents and one SKR.

It is implemented on two computers, both are SUN Sparc workstations. The SAA, UAA and SKR are on one SUN workstation, called the host machine. The SKMA and WBM database is on the other Sun

Conclusions

This paper introduced a new concept called process transparency in EC market which provides more information related to the product such as order status, product career information, etc. to the online customers on EC web site with the support of IDSS based on data mining and intelligent agent technology.

We presented a new customer-centric EC model providing the process transparency of sampling method in MTO semiconductor manufacturing environment that provides online customers with the

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