Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction

碩士 === 國立成功大學 === 工業與資訊管理學系碩士在職專班 === 104 === After the transition of consumer demand in the market, in order to create the technology and develop the finance, corporations adopt industrial transformation strategy to make an alteration of the corporation structure and scale and improve the competiti...

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Main Authors: Wei-LinLiao, 廖洧琳
Other Authors: Der-Chiang Li
Format: Others
Language:en_US
Published: 2015
Online Access:http://ndltd.ncl.edu.tw/handle/64579382380698443165
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spelling ndltd-TW-104NCKU50410032017-10-15T04:36:45Z http://ndltd.ncl.edu.tw/handle/64579382380698443165 Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction 利用適合度技術挑選虛擬樣本以提升小樣本成本預測 Wei-LinLiao 廖洧琳 碩士 國立成功大學 工業與資訊管理學系碩士在職專班 104 After the transition of consumer demand in the market, in order to create the technology and develop the finance, corporations adopt industrial transformation strategy to make an alteration of the corporation structure and scale and improve the competition and satisfy customer needs. Under stress of time and cost, the cost prediction in the product development process is often being conducted without acquiring sufficient sample data. The method of constructing prediction model to perform cost prediction analysis from limited data in the competitive and qualitative environment has become an important goal for corporation management. For the issue of insufficient sample data in the practice and application, the matter of how to develop the meaningful information from few samples is the research topic of small data set learning. Many studies noted that in order to address the predict issues of production system and break through the learning efficiency when data is inadequate, small data research increase the sample amount by virtual sample generation method to increase the sample data through small data sets and enhance the accuracy of prediction learning. The study adopted methods of two parameters Weibull distribution and Maximal P-value approach to generate virtual sample to increase data. The confounding factors were filtered and screened by Kolmogorov–Smirnov test and imported the training sample data into the prediction learning instruction to compare the accuracy of prediction in different methods. The study adopted small data sets of automotive printed circuit board in Taiwan as experiment case. The result indicated the method conducted in the study had a significant improvement on the prediction error than one in original data, and it received better effect of prediction comparing to maximum p-value. Der-Chiang Li 利德江 2015 學位論文 ; thesis 69 en_US
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language en_US
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description 碩士 === 國立成功大學 === 工業與資訊管理學系碩士在職專班 === 104 === After the transition of consumer demand in the market, in order to create the technology and develop the finance, corporations adopt industrial transformation strategy to make an alteration of the corporation structure and scale and improve the competition and satisfy customer needs. Under stress of time and cost, the cost prediction in the product development process is often being conducted without acquiring sufficient sample data. The method of constructing prediction model to perform cost prediction analysis from limited data in the competitive and qualitative environment has become an important goal for corporation management. For the issue of insufficient sample data in the practice and application, the matter of how to develop the meaningful information from few samples is the research topic of small data set learning. Many studies noted that in order to address the predict issues of production system and break through the learning efficiency when data is inadequate, small data research increase the sample amount by virtual sample generation method to increase the sample data through small data sets and enhance the accuracy of prediction learning. The study adopted methods of two parameters Weibull distribution and Maximal P-value approach to generate virtual sample to increase data. The confounding factors were filtered and screened by Kolmogorov–Smirnov test and imported the training sample data into the prediction learning instruction to compare the accuracy of prediction in different methods. The study adopted small data sets of automotive printed circuit board in Taiwan as experiment case. The result indicated the method conducted in the study had a significant improvement on the prediction error than one in original data, and it received better effect of prediction comparing to maximum p-value.
author2 Der-Chiang Li
author_facet Der-Chiang Li
Wei-LinLiao
廖洧琳
author Wei-LinLiao
廖洧琳
spellingShingle Wei-LinLiao
廖洧琳
Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
author_sort Wei-LinLiao
title Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
title_short Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
title_full Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
title_fullStr Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
title_full_unstemmed Using Goodness-of-fit Techniques to Select Virtual Samples to Improve Small Data of Cost Prediction
title_sort using goodness-of-fit techniques to select virtual samples to improve small data of cost prediction
publishDate 2015
url http://ndltd.ncl.edu.tw/handle/64579382380698443165
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