Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis

碩士 === 國立臺北大學 === 企業管理學系 === 97 === In 1952, Markowitz innovates the mean-variance model for the portfolio selection problems. Henceforward this model has been the cornerstone of portfolio research and has served as a basis for the development of financial investment methodology. However, the proble...

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Main Authors: Hung-Hsin Hsieh, 謝宏鑫
Other Authors: Tai-Hsi Wu
Format: Others
Language:zh-TW
Published: 2009
Online Access:http://ndltd.ncl.edu.tw/handle/95357801184735922589
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spelling ndltd-TW-097NTPU01210592016-05-06T04:11:30Z http://ndltd.ncl.edu.tw/handle/95357801184735922589 Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis 考量投資標的基本面、技術面分析並運用遺傳基因演算法決定最佳投資組合 Hung-Hsin Hsieh 謝宏鑫 碩士 國立臺北大學 企業管理學系 97 In 1952, Markowitz innovates the mean-variance model for the portfolio selection problems. Henceforward this model has been the cornerstone of portfolio research and has served as a basis for the development of financial investment methodology. However, the problems of modern investment have become more complex, so the conventional methodology seems incapable of solving those problems effectively. Therefore, it is a very important issue that how to acquire the problem-solving methods between the computational technology and the traditional model. During the last decade, using artificial intelligence to solve portfolio problems has become a creative trend in investment research and one of those popular artificial intelligence is the genetic algorithm (GA). In many portfolio researches using GA, the index tracking problem is the most common subject. However, the fundamental and technical analysis, which have been emphasized criteria in stock investment, have been ignored. Meanwhile, because the Sharpe Index can not reflect the investment loss literally, so we revise the Sharpe Index through the Semi-Deviation. Therefore, this paper presents a modified Sharpe Index model and applies genetic algorithm on the optimal portfolio selection problems, in which the investments’ fundamental and technical analysis are considered and performed. Meanwhile, we propose five investment procedures, and those proposed investment procedures have been tested with TSEC Taiwan 50 Index’s data from 2005 to 2008. The empirical results show the one of proposed investment procedures (Procedure 3) is able to obtain approximately 17.11% average rate of return. Furthermore, the results also dominate the performance of TSEC Taiwan 50 Index during the same empirical period. Besides, the synergy of combining the rule of experience and scientific models has been observed in this paper. Tai-Hsi Wu 吳泰熙 2009 學位論文 ; thesis 90 zh-TW
collection NDLTD
language zh-TW
format Others
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description 碩士 === 國立臺北大學 === 企業管理學系 === 97 === In 1952, Markowitz innovates the mean-variance model for the portfolio selection problems. Henceforward this model has been the cornerstone of portfolio research and has served as a basis for the development of financial investment methodology. However, the problems of modern investment have become more complex, so the conventional methodology seems incapable of solving those problems effectively. Therefore, it is a very important issue that how to acquire the problem-solving methods between the computational technology and the traditional model. During the last decade, using artificial intelligence to solve portfolio problems has become a creative trend in investment research and one of those popular artificial intelligence is the genetic algorithm (GA). In many portfolio researches using GA, the index tracking problem is the most common subject. However, the fundamental and technical analysis, which have been emphasized criteria in stock investment, have been ignored. Meanwhile, because the Sharpe Index can not reflect the investment loss literally, so we revise the Sharpe Index through the Semi-Deviation. Therefore, this paper presents a modified Sharpe Index model and applies genetic algorithm on the optimal portfolio selection problems, in which the investments’ fundamental and technical analysis are considered and performed. Meanwhile, we propose five investment procedures, and those proposed investment procedures have been tested with TSEC Taiwan 50 Index’s data from 2005 to 2008. The empirical results show the one of proposed investment procedures (Procedure 3) is able to obtain approximately 17.11% average rate of return. Furthermore, the results also dominate the performance of TSEC Taiwan 50 Index during the same empirical period. Besides, the synergy of combining the rule of experience and scientific models has been observed in this paper.
author2 Tai-Hsi Wu
author_facet Tai-Hsi Wu
Hung-Hsin Hsieh
謝宏鑫
author Hung-Hsin Hsieh
謝宏鑫
spellingShingle Hung-Hsin Hsieh
謝宏鑫
Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
author_sort Hung-Hsin Hsieh
title Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
title_short Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
title_full Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
title_fullStr Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
title_full_unstemmed Using Genetic Algorithm to Determine the Optimal Portfolio with Fundamental and Technical Analysis
title_sort using genetic algorithm to determine the optimal portfolio with fundamental and technical analysis
publishDate 2009
url http://ndltd.ncl.edu.tw/handle/95357801184735922589
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