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Post-Disaster Reconstruction Laws and Indigenous Adaptive Strategies in Taiwan: Focusing on Post-Typhoon Morakot Reconstruction
Post-disaster Reconstruction Laws and Indigenous Adaptive Strategies in Taiwan: Focusing on Post-Typhoon Morakot Reconstruction Yung-hua Kuo PhD Candidate, School of Law, University of Washington Abstract This paper examines and analyzes how the Taiwanese government and indigenous peoples responded to and recovered from natural disaster impacts, as well as their considerations and relating issues. In August 2009, the heavy rainfall of Typhoon Morakot triggered serious floods and mudslides throughout southern Taiwan and damaged many indigenous communities. After the disaster, the Taiwanese government rushed to adopt land conservation and relocation as major reconstruction methods. By designating risky lands as “Special Zones” and “Safety Doubtful Zones,” the government restricted land use and relocated a large number of indigenous people from their homelands in the mountains to the lowlands. The land zoning and relocation process was criticized as hurried, careless, and limited local participation. The relocated indigenous people also have faced legal, cultural, economic difficulties associated with displacement. In response to the official reconstruction policy, the Taiwanese indigenous peoples implemented multiple strategies to adapt to the environment changed by the disaster: relocation, reconstruction, and return. Although each adaptive strategy had advantages and disadvantages, the indigenous communities adopted the strategies according to their specific contexts. The flexible adaptive strategies are more likely to help the affected indigenous people recover from natural disaster impacts by applying their unique culture and traditional knowledge. I. Background: An Unexpected Disaster of Typhoon Morakot On the early morning of August 9th, 2009, a massive landslide occurred in a mountainous region of Kaohsiung Municipality, Taiwan. The large quantity of mud instantly buried the entire Xiaolin village and killed 491 people. -
Forensic Investigation of Typhoon Morakot Disaster: Nansalu and Daniao Village Case Study
NCDR 102-T28 Forensic Investigation of Typhoon Morakot Disaster: Nansalu and Daniao Village Case Study HuiHsuan Yang, SuYing Chen, SungYing Chien , and WeiSen Li 2014.05 Contents CONTENTS ................................................................................................................... I TABLES. ....................................................................................................................... II FIGURES ..................................................................................................................... III ABSTRACT .................................................................................................................. IV I. INTRODUCTION ................................................................................................. 1 II. TYPHOON MORAKOT DISASTER ......................................................................... 2 III. REVIEWING POSSIBLE CAUSES OF MORAKOT IMPACTS: ..................................... 4 (I) METEOROLOGICAL FACTORS .............................................................................................. 4 (II) PHYSIOGRAPHIC FACTORS ................................................................................................ 4 (III) DISASTER MITIGATION ................................................................................................... 4 (IV) DISASTER RESPONSE ..................................................................................................... 6 IV. RESEARCH APPROACH ...................................................................................... -
Public Administrators' Attitudes Toward Citizen Participation
Public Administrators’ Attitudes toward Citizen Participation: Case Evidence from the Water Resources Agency in Taiwan by Yinglee Tseng A Dissertation Submitted in Partial Fulfillment of the Requirements for the Degree of Doctor of Public Administration School of Public and International Affairs College of Public Affairs University of Baltimore April 24, 2018 Copyright© 2018 by Yinglee Tseng All Rights Reserved ACKNOWLEDGMENTS It has been 12 years since withdrawing from studying a Ph.D program for two years at George Mason University (GMU) in 2006. I am so thankful for finally receiving the doctoral degree in Public Administration (DPA) at the University of Baltimore (UB), which was my goal for returning to the United States. I had received much inspiration, encouragement, and assistance during the journey. First, I would like to thank the honorable faculty members of my dissertation committee, Dr. Lenneal Henderson, the chair, Dr. Ed Gibson, and Dr. Arron Wachhaus who had intellectually guided me through the process. Without the approval of the research project by the Chair, Dr. Henderson, regarding the citizen participation (CP) project which occurred in Taiwan, I would not have been able to complete my project smoothly. The detailed reviews of context and the helpful suggestions received from Dr. Wachhaus and Dr. Gibson also enriched the structure and the content of the dissertation. I cannot express enough appreciation for the time and voluntary assistance provided by my committee. I always remember the excitement I felt when Dr. Henderson called me “Scholar Tseng” from the beginning which reminded me of becoming a professional scholar to honor my degree and UB where I have had my dream came true. -
2.1 Indigenous Peoples in Taiwan
Land Rights of Taiwanese Indigenous Peoples under Natural Disasters: Analysis of Post-Typhoon Morakot Reconstruction from Legal, Historical, and Cultural Perspectives Yung-hua Kuo A dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy University of Washington 2018 Reading Committee: John O Haley, Chair Daniel B Abramson Robert T Anderson Stevan Harrell Program Authorized to Offer Degree: School of Law ©Copyright 2018 Yung-hua Kuo University of Washington Abstract Land Rights of Taiwanese Indigenous Peoples under Natural Disasters: Analysis of Post-Typhoon Morakot Reconstruction from Legal, Historical, and Cultural Perspectives Yung-hua Kuo Chair of the Supervisory Committee: John O Haley School of Law This dissertation discusses indigenous land rights, disaster management law, and recovery problems after Typhoon Morakot in Taiwan, analyzing these issues from legal, historical, and cultural perspectives. The study traces land history of indigenous peoples and development of disaster laws in Taiwan. Based on the history, the study takes post–Typhoon Morakot recovery as an example to examine reconstruction laws and indigenous adaptive strategies in response to natural disaster effects in contemporary Taiwan. By presenting the problems, this dissertation aims to provide suggestions for enhancing protection on Taiwanese indigenous land rights in natural disaster situations. Since the seventeenth century, indigenous peoples’ land has been encroached by settlers and taken by the governments as state-owned property. Indigenous communities were relocated to reach assimilation and development. Only in recent decades, social movements have urged the government to recognize the collective and individual rights of indigenous people. In regard of disaster laws in Taiwan, from 1945 to 1999, disaster effects were handled by executive power through local administrative regulations and presidential emergency decrees, whose function was limited to retrospective measures. -
Flood Prevention and Emergency Response System Powered by Google Earth Engine
Preprints (www.preprints.org) | NOT PEER-REVIEWED | Posted: 4 July 2018 doi:10.20944/preprints201807.0076.v1 Peer-reviewed version available at Remote Sens. 2018, 10, 1283; doi:10.3390/rs10081283 Article Flood Prevention and Emergency Response System Powered by Google Earth Engine Cheng-Chien Liu 1,2,*, Ming-Chang Shieh 3,4, Ming-Hsun Ko 2 and Kung-Hwa Wang 2 1 Department of Earth Sciences, National Cheng Kung University, Tainan, Taiwan ROC; [email protected] 2 Global Earth Observation and Data Analysis Center, National Cheng Kung University, Tainan, Taiwan ROC; 3 Water Hazard Mitigation Center, Water Resource Agency, Taipei, Taiwan ROC; 4 Now at the 10th River Management Office, Water Resource Agency, Banciao City, Taiwan ROC; * Correspondence: [email protected]; Tel.: +886-6-275-7575 (ext. 65422) Abstract: This paper reports the efforts made and experiences gained in developing the Flood Prevention and Emergency Response System (FPERS) powered by Google Earth Engine, with focus on its applications at the three stages of floods. At the post-flood stage, FPERS integrates various remote sensing imageries, including Formosat-2 optical imagery, to detect and monitor barrier lakes, synthetic aperture radar imagery to derive an inundation map, and high-spatial-resolution photographs taken by unmanned aerial vehicles to evaluate damage to river channels and structures. At the pre-flood stage, a huge amount of geospatial data are integrated in FPERS and are categorized as typhoon forecast and archive, disaster prevention and warning, disaster events and analysis, or basic data and layers. At the during-flood stage, three strategies are implemented to facilitate the access of the real-time data: presenting the key information, making a sound recommendation, and supporting the decision-making. -
Flood Prevention and Emergency Response System Powered by Google Earth Engine
remote sensing Review Flood Prevention and Emergency Response System Powered by Google Earth Engine Cheng-Chien Liu 1,2,*, Ming-Chang Shieh 3,4, Ming-Syun Ke 2 and Kung-Hwa Wang 2 1 Department of Earth Sciences, National Cheng Kung University, Tainan 70101, Taiwan 2 Global Earth Observation and Data Analysis Center, National Cheng Kung University, Tainan 70101, Taiwan; [email protected] (M.-S.K.); [email protected] (K.-H.W.) 3 Water Hazard Mitigation Center, Water Resource Agency, Taipei 10651, Taiwan; [email protected] 4 Now at the 10th River Management Office, Water Resource Agency, New Taipei 22061, Taiwan * Correspondence: [email protected]; Tel.: +886-6-275-7575 (ext. 65422) Received: 4 July 2018; Accepted: 10 August 2018; Published: 14 August 2018 Abstract: This paper reviews the efforts made and experiences gained in developing the Flood Prevention and Emergency Response System (FPERS) powered by Google Earth Engine, focusing on its applications at the three stages of floods. At the post-flood stage, FPERS integrates various remote sensing imageries, including Formosat-2 optical imagery to detect and monitor barrier lakes, synthetic aperture radar imagery to derive an inundation map, and high-spatial-resolution photographs taken by unmanned aerial vehicles to evaluate damage to river channels and structures. At the pre-flood stage, a huge amount of geospatial data are integrated in FPERS and are categorized as typhoon forecast and archive, disaster prevention and warning, disaster events and analysis, or basic data and layers. At the during-flood stage, three strategies are implemented to facilitate the access of the real-time data: presenting the key information, making a sound recommendation, and supporting the decision-making. -
Ibas in Taiwan (Second Edition)
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2019/03/28 Statistical Yearbook(102)
THE STATISTICAL YEARBOOK OF TAIWAN WATER CORPORATION 2013 No.36 Chengcing Lake Advanced water treatment plan TAIWAN WATER CORPORATION April 2014 Annual Important Performance Item Unit 1974 1975 1976 1977 1978 1979 1.Capacity of Water Supply System M3/Day ……………… 2.Capacity of Water-Purification-Station M3/Day 1,552,559 1,802,000 2,439,390 2,731,112 2,921,834 3,187,036 3.Average Yield Per Day M3 1,176,321 1,265,741 1,332,205 1,513,115 1,791,415 1,996,937 4.Average Water Distributed Per Day M3 1,159,958 1,251,325 1,329,623 1,509,732 1,786,097 1,993,547 5.Average Water Sold Per Day M3 791,814 833,840 906,641 1,053,783 1,294,756 1,493,036 6.Yield M3 429,357,104 461,995,434 487,586,996 552,286,833 653,866,592 728,881,919 7.Distributed Water M3 423,384,502 456,733,547 486,641,970 551,052,131 651,925,230 727,644,563 8.Water Sold M3 289,012,366 304,351,457 331,830,538 384,630,881 472,585,950 544,957,993 9.Actual Meter-Readings M3 ……325,943,007 366,487,228 447,447,054 508,369,477 10.Percentage of Water Sold % 68.26 66.64 68.19 69.80 72.49 74.89 11.Percentage of Actual Meter Readings % ……66.98 66.51 68.63 69.87 12.Percentage of NRW(Non-Revenue Water) % ……………… Percentage of Water Losses % ……………… Percentage of Unbilled % ……………… Authorized Consumption 13.Administrative Population Person 13,212,945 13,431,137 13,688,930 13,908,275 14,127,946 14,376,247 14.Designed Population Person 6,248,858 6,780,700 7,616,810 8,300,890 8,927,215 9,503,965 15. -
The Restoration of Sediment-Related Disasters and Driftwood from National Forest in Taiwan Caused by Typhoon Morakot in 2009
The restoration of sediment-related disasters and driftwood from national forest in Taiwan caused by Typhoon Morakot in 2009 Su Chin Chen *, Jau Pao Wang **, Chun Hsien Yang ** Department of Soil and Water Conservation, National Chung Hsing University* Forestry Bureau, Council of Agriculture, Executive Yuan** ABSTRACT: The number and area of new landslide, according to the interpreted SPOT images, caused by Typhoon Morakot in 2009 is estimated as 30,223 and 43,996 ha, respectively. The new landslide area in 2009 increased by about 16,392 ha in comparison with the landslide area in 2008. The heavy rainfall with a return period well over 200 years during Typhoon Morakot centralized in southwestern and southeastern Taiwan, and that also resulted in serious landslide disasters in national forest. Four forest working circles, including Chishan, Laonong, Pintung, and Dawu, are the most serious landslide zones with the landslide ratio over 8.0%. The Forestry Bureau assesses and ranks the seriousness of the disasters by using slope, the number of protected objects, the distance from the disaster to the protected objects to execute the restoration of sediment disasters and landslide in national forest. Due to the most torrential rain in the past 50 years caused by Typhoon Morakot, a large number of trees in the mountain area were destroyed. They became the driftwood, with a total weight of about 1.52 million tons, which ended up at the farmlands and ports. In order to recover agricultural products and livelihoods, Forestry Bureau made strategy for disaster prevention and reduction. Based on the strategy, Forestry Bureau sweeps away the driftwood by estimating its distribution, overcomes the issues caused by the heavy rainfall disaster, and helps the victims to recover their life.