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研究生: 常春麗
Partida Castillo Laura Haydee
論文名稱: 台灣地區陸域風力發電之潛力分析:利用機器學習及地理資訊系統評估
The Onshore Wind Power Potential in Taiwan: An Assessment Using Machine Learning and Geographic Information System
指導教授: 李慧琳
Huey-Lin Lee
口試委員: 吳考甯
Courtney Work
湯京平
Ching-Ping Tang
張婷婷
Ting Ting Chang
莊秉潔
Ben-Jei Tsuang
學位類別: 碩士
Master
系所名稱: 社會科學學院 - 應用經濟與社會發展英語碩士學位學程(IMES)
International Master's Program of Applied Economics and Social Development(IMES)
論文出版年: 2022
畢業學年度: 110
語文別: 英文
論文頁數: 102
中文關鍵詞: 風能潛力評估地理資訊系統機器學習
外文關鍵詞: wind energy potential assessment, geographic information systems, machine learning
DOI URL: http://doi.org/10.6814/NCCU202201143
相關次數: 點閱:195下載:27
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  • 本論文試圖處理一個研究缺口:由於台灣在風力發電方面的發展相對較新,本研究探討未來發展風能作為台灣重要能源的可能性。這方面的研究對於電力能源安全政策具有參考價值,因為台灣政府決定停止使用核電和尋求更環保的能源。台灣的地理條件優越,而且盛行風充足,兩者皆是風力發電的潛在來源。本研究的主要分析方法是地理資訊系統 (GIS) 和機器學習模型Prophet。GIS用於找出風速佳和風能較充足的區域,以便能夠充分利用那些特定區域的風能,並且將其轉化為能源。GIS結果顯示台灣海峽是風力來源最充足的區域,這區域位於台灣本島的西海岸,亦是台灣電力公司陸域型風力發電場之所在地。藉由Prophet的預測,我們分析了這17個陸域型風力發電場自2017年1月至2022年2月的風力發電量。我們的研究結果顯示在冬季期間風力發電量達到最高,而這些風力發電量主要產自建置在台灣海峽沿岸地區之風力發電場。Prophet模型的預測結果顯示,自 2017年到2023年,風力發電呈現持續增長的趨勢。本研究的焦點為陸域型風力發電,但我們也簡要地探討建設離岸風力發電場所帶來的環境影響,這是本地環保組織所高度關注的面向,也是影響未來風力發電場建置的重要因素。


    This thesis is an attempt to address a gap in the research: since Taiwanese wind energy development is relatively new, this research explores the possibility of future development of wind as an important energy resource for Taiwan. This is of particular interest due to the Taiwanese government’s decision to cease the use of nuclear power and to seek more environmentally-sound sources of energy. Taiwan has excellent geographical features and an abundance of prevailing winds, both of which serve as potential sources of wind power. Our primary methods of analysis are Geographic Information System (GIS) and Prophet, a machine learning model. GIS is used to identify the areas where wind speed and wind power are more abundant so as to be able to fully exploit a specific region's wind capacity and transform it into energy. GIS results indicate that the Taiwan Strait is the area with most abundant wind sources, and it is on the west coast where Taipower’s onshore wind farms are located. With Prophet, we analyzed the wind energy production of these 17 onshore wind farms from January 2017 to February 2022. Our findings show that wind energy production is highest during the winter, from the wind farms set up in the area with more abundant wind sources along the Taiwan Strait. The Prophet model suggests a constantly increasing trend in wind energy generation from 2017 to 2023. This study focuses on onshore wind energy production and uncovers other findings beyond our analysis. We also briefly explored the environmental impact brought about by the construction of offshore wind farms, about which local environmental groups are highly concerned.

    Abstract II
    Chapter 1 Introduction 1
    Chapter 2 Literature Review 5
    2.1 The development of the wind industry in Taiwan 5
    2.1.1 Geography 5
    2.1.2 Economy 6
    2.1.3 Energy and government policies 7
    2.1.4 Onshore Wind Farms 11
    2.1.5 Offshore Wind Farms 14
    2.2 Current global wind power capacity 15
    2.2.1 Case Study: Europe 20
    2.2.2 Case: Southeast Asia 21
    2.3 Lessons learned from wind energy development in various nations 23
    2.3.1 Denmark 23
    2.3.2 Germany 25
    2.3.3 Incentives for feed-in tariffs lessons for Taiwan from the German experience 26
    2.3.4 The U.S. 27
    2.3.5 China 28
    Chapter 3 Methodology and Results 30
    3.1 Taiwan’s Geographic Advantages in Wind Power 30
    3.2 Machine Learning approach 37
    3.3 Prophet 38
    3.3.1 Prophet Model 38
    3.3.2 Prophet results and analysis 40
    3.3.3 Comparison of results with real data and limitations 46
    Chapter 4 Discussion 49
    4.1 Traditional approach 49
    4.2 Artificial Neural Networks (ANN) 49
    4.3 Fuzzy Neural Network model 50
    4.4 Taipower wind forecasting systems 51
    4.5 Prophet 52
    4.6 Additional considerations 53
    4.6.1 Energy supply and consumption in Taiwan 54
    4.6.2 Environmental concerns 56
    4.6.3 Consequences of development 59
    4.6.4 Climate change impact on wind sources 60
    Chapter 5 Conclusions 62
    References 64
    Appendices 74

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