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改變世界的味道 十八篇與當代廚界先行者

為了解決Tu Stock的問題，作者謝嫣薇 這樣論述：

　　食有百味，技藝巧奪天工的廚神們，人生也有百味。謝嫣薇從不停下訪尋滋味的腳步，足跡遍及法、意、俄、日，從經典法式盛宴，到新派的分子料理、充滿實驗性質的餐桌、回歸自然的蔬食之道⋯⋯她在10年間貼身訪問過近百位廚藝名師、餐飲名人，從中篩選了19位對於過去和未來最有代表性的廚藝名師：殿堂級法菜教父Alain Ducasse、甜點教主Cedric Grolet、蔬食之神Alain Passard、亞洲最佳女主廚陳嵐舒等等，與他們共聚交流，了解其成名經歷，以及各家的廚藝心得和哲學。帶給世人無數震撼、美好啟發的味道如何煉成？且看一眾名家被謝嫣薇一一拆解。 名人推薦 　　《改變世界

的味道》是一本雅正姣好、馥郁芬芳的廚藝訪談錄，讓讀者從文字中感受各國美食的精妙細膩，體會當代世界名廚的匠心獨運。——林建岳 　　Agnes’ book reflects her great knowledge of – and even greater love for – food with such a discerning sense of what cooking stands for today. ——Alain Ducasse 　　看謝嫣薇的文章給人一種幸福滿溢的感覺，因為書在手，不用買機票，不用訂枱點菜，便能跟Agnes一起走遍世界，跟各地的星級大廚品嚐美酒佳餚，探討飲食之道

。——葉澍堃  

Tu Stock進入發燒排行的影片

考量內生性生產要素與非意欲產出問題下探討CSR活動對銀行業經濟效率之影響

為了解決Tu Stock的問題，作者邱義晃 這樣論述：

隨著經濟成長與環境變遷，企業經營開始注重環境、社會和公司治理(ESG)，本文針對這個議題，探討企業社會責任投入對銀行業經濟效率之影響，CSR資料取自EIRIS之2003-2014年32個國家287家銀行，要素投入與產出數據取自Bureau Van Dijk公司之ORBIS Bank Focus全球銀行與金融分析資料庫，利用隨機邊界方法考慮生產要素內生性與非意欲產出，同時探討技術與配置效率議題。採用Amsler, Prokhorov and Schmidt (2016)工具變數法解決要素內生性問題，確保迴歸係數估計值具備一致性，實證結果顯示總成本無效率主要來自配置無效率，而非技術無效率，此發現

與銀行業常進行組織結構改造，重新調整人力、資本與資金等以改善配置無效率相呼應一致。進一步將技術和總無效率與環境變數連結，包括(1)前五大銀行市占率、(2) 銀行成立年數、(3)CSR員工項目分數、(4)資產報酬率、(5)淨值資產比、(6) CSR公司治理分數、(7)銀行資產/GDP比、(8)人均GDP等8個環境變數，其中前三項主要影響技術無效率因素，結果發現環境變數確實影響銀行經營效率，擬定執行經營策略納入考慮有其重要性。並將研究資料依年份期間與洲別分類，發現2007-2009年次貸風暴期間銀行經營效率最低，但三個期間的差異未達統計顯著；洲別分類以亞洲銀行經營效率最低，檢定發現歐洲與美洲銀行經

營效率顯著高於亞洲銀行，研判與亞洲銀行種族文化、經濟環境與規模差異較大有關。文中比較不考慮(1)內生性、(2) CSR與(3)非意欲產出對經營效率之影響，發現造成技術無效率與配置無效率誤置，導致銀行經營者執行錯誤的經營策略方向，反而造成資源更多的浪費，評估銀行經營效率的影響因素必須充份完整，不得不慎。

Disposal of All Forms of Radioactive Waste and Residues: Long-Term Stable and Safe Storage in Geotechnical Environmental Structu

為了解決Tu Stock的問題，作者Lersow, Michael,Waggitt, Peter 這樣論述：

Dr.-Ing. Michael Lersow has studied the disposal of radioactive waste and residues in different geotechnical environmental structures from various aspects and in significant positions. To name just a few examples: From 1980 to 1990 at the Technical University Bergakademie Freiberg he performed inter

disciplinary and sponsored research on the storage of radioactive waste and closure systems and obtained his PhD in 1984.From 1990 to 1994, following the peaceful revolution and reunification of Germany he was a member of the environmental committee of the Saxonian Landtag. There he was involved in

the design of the supervision of the safekeeping and rehabilitation services of the legacies of SDAG Wismut.From 1995-2005 he worked in leading positions for the sustainable remediation and restructuring of abandoned mine sites of Central Germany.From 2005 he acted as CEO of the Wismut GmbH and WISU

TEC GmbH where he was responsible for the remediation of the legacies of Uranium mining and processing of the Soviet-German stock company (SDAG) Wismut and for the design of a new landscape in Saxony and Thuringia. After this position from 2009 he worked, until his retirement in 2012, at the Federal

Office of Radiation Protection, Department of Nuclear Waste Disposal dealing with the disposal of low and intermediate level radioactive waste including heat generating, high level radioactive wastes such as spent fuel and vitrified waste from reprocessing. Since 2007 Dr.-Ing. Michael Lersow has be

enthe Chair of the working group ＂Tailings＂ of the German Geotechnical Society. He has more than 25 publications and is involved with various patents related to the modelling of geotechnical applications, abandoned mine site remediation, mining technologies and disposal of radioactive and toxic mate

rials.He has won several awards: including the Constitutional Medal of the Free State of Saxony for his engagement in the reunification of Germany and the development of Saxon state and the Science Award, Class 1st, of the TU Bergakademie Freiberg for his research on the storage of radioactive waste

and closure systems.Peter Waggitt, (FAusIMM, IEng, CEnv), is a soil scientist and environmental engineer who has worked on mine remediation issues in many parts of the world over the past 45 years or more. After early research on remediation of coal mines in the United Kingdom he was employed on a

variety of environmental projects globally including natural resource inventory and rural development, often including elements of environmental impact assessment and landscape remediation, especially post mining.In 1988 Peter moved to settle in Australia working for the Office of the Supervising Sc

ientist, a specialist unit within the Commonwealth (Federal) Government with responsibility to oversee the environmental aspects of uranium mining in the Alligator Rivers Region of northern Australia. The main sites were the mines at Ranger and Nabarlek as well as extensive exploration operations th

roughout Arnhem Land. The work also included working with others to prepare the remediation of the 13 small uranium mines in the abandoned South Alligator Valley uranium field and other sites in the Pine Creek geosyncline, including Rum Jungle.From 2004 to 2011 Peter worked with the International At

omic Energy Agency (IAEA), initially as a Waste Safety Specialist concentrating on remediation of former uranium mining and processing sites throughout the world, including major projects in the Central Asian states of the former Soviet Union, work which continues to this day. Later he was working w

ith the Nuclear Fuel Cycle and Materials Section at IAEA, assisting member states to manage former uranium mining sites as well as helping them to develop local capacities in uranium mining regulation.In 2011 Peter returned to Australia as Director of Mining Compliance for the Northern Territory (NT

) Government, responsible for managing the day-to-day regulation of all environmental aspects for the mining industry in the NT. In 2017 Peter became Director Uranium Mine Closure to concentrate on the remediation of the Ranger Uranium Mine (RUM). RUM is obliged to cease mining and processing operat

ions in January 2021 and to complete remediation by January 2026. As the site is surrounded by the double World Heritage listed Kakadu National Park this work will need to be of the highest quality and is attracting close oversight from all stakeholders, both national and international.Peter retired

in May 2019 and is now working as a consultant. He has over 50 publications, journal papers, conference presentations and reports, to his name. He is currently a member of the Chartered Professional Programme Committee for the Australasian Institute of Mining and Metallurgy (AusIMM).

運用仿生支架進行骨軟骨修復組織工程的生物設計策略

為了解決Tu Stock的問題，作者Swathi Nedunchezian 這樣論述：

Acknowledgment iii摘要 vAbstract viiList of figures xiii1. Chapter One 1Introduction 11.1 Problem statement 11.1.1 Articular cartilage 31.1.2 Structure and composition of articular cartilage 31.1.3 Articular cartilage defect 51.2. Surgical techniques for cartilage and Osteochondral repair

currently in use 61.2.1 Bone marrow techniques 61.2.2 Mosaiplasty 81.2.3 Autologous chondrocyte implantation method 91.2.4 Matrix induced autologous chondrocyte implantation 111.3. Tissue engineering approaches to Osteochondral defect repair 121.3.1 Scaffold and hydrogel-based cell delivery 1

41.4. Cell source for tissue engineering purposes 161.4.1 Chondrocyte cells 161.4.2 Adult somatic stem cells 171.4.3 Bone marrow-derived stem cell (BMSCs) 181.4.4 Adipose-derived stem cells (ADSCs) 191.5 Scaffolds and hydrogels for tissue engineering 211.5.1 Natural hydrogels in cartilage tiss

ue engineering 251.6. Crosslinking of hydrogel for tissue engineering purpose 291.6.2 Silicon-dioxide Nanoparticle as crosslinkers in tissue engineering 341.6.3 Interaction of SiO2 nanoparticle with adipose-derived stem cells 361.7 Bio ceramics for Osteochondral tissue engineering and regenerati

on 371.7.1 Bio ceramics in Tissue engineering applications 371.7.2 Applications of bioceramics in Osteochondral tissue engineering 391.8 Research Objectives 421.8.1 The specific aims of this thesis are as follows: 43Chapter Two 44Characteristic and chondrogenic differentiation analysis of hybr

id hydrogels comprise of hyaluronic acid methacryloyl (HAMA), gelatin methacryloyl (GelMA), and the acrylate functionalized nano-silica crosslinker 442.1 Introduction 442.2 Materials and methods 522.2.1 Materials 522.2.2 Synthesis of HAMA hydrogel 522.2.4 Synthesis of acrylate functionalized nS

i crosslinker (AFnSi) 532.2.5 Identification of the synthesis HAMA and GelMA 542.2.6 Production of hybrid hydrogels 552.2.7 Identification of the synthesis AFnSi cross-linker 552.2.8 Fabrication of HG hybrid hydrogels 562.2.9.Swelling ratio evaluation 562.2.10 The microstructure morphology ana

lysis 572.2.11 Mechanical properties evaluation 572.2.12 In vitro degradation assay by hyaluronidase 582.2.13 Isolation and culturing of hADSCs 592.2.14 Cell viability assay 602.2.15 Chondrogenic marker gene expression 612.2.15 Quantification of DNA, sGAG deposition and collagen type Ⅱ synthes

is 622.2.16 Statistical analysis 632.3. Results and Discussion 632.3.1.Identification of the synthesis HAMA and GelMA 632.3.2 Identification of the AFnSi crosslinker 672.3.3 Swelling ratio of HG hybrid hydrogels 702.3.4 Morphological examination of HG hybrid hydrogels 722.3.5 Compressive stud

y of HG hybrid hydrogels 752.3.6.Viscoelastic property of HG hybrid hydrogel 782.3.7. Degradation study of HG hybrid hydrogels 812.3.8.Cell viability evaluation of hADSCs on HG hybrid hydrogels 822.3.8. Chondrogenic differentiation ability of HG hybrid hydrogels 852.4. Conclusion 90Chapter Thr

ee 92Multilayer-based scaffold for Osteochondral defect regeneration in the rabbit model 923.1 Introduction 923.2 Materials and methods 963.2.1 Preparation and Characterization of the 3D bioceramic scaffold by DLP method 963.2.2 Cell isolation and culture 973.2.3 Fabrication of the cell-laden

hydrogel/ 3D bioceramic scaffolds mimicking the Osteochondral tissue. 983.2.4 Surgery 983.2.5 Macroscopic Examination 993.2.6 Tissue Processing for paraffin block 993.2.7 Histological and Immunohistochemical Evaluation 1003.2.8 Masson’s trichrome stain 1013.3 Results and discussion 1023.3.1 C

haracterization of the 3D bioceramic scaffold by DLP method 1023.3.2 Fabrication of the hydrogel with hADSCs into the 3D bioceramic scaffold 1043.3.3 In-vivo studies using rabbit as an animal model 1053.3.5 Histological evaluation of neocartilage formation 1073.3.6 Masson’s trichrome staining an

alysis for neocartilage formation 1093.4. Conclusion 110Chapter four 1104.1 General discussion 1124.2 Future work 1134.2.1 Macroscopic Observation of neocartilage formation for 8 weeks 1145.Reference 115