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focus st 0-100的問題,我們搜遍了碩博士論文和台灣出版的書籍,推薦Pei-ChinHsieh,OwainMckimm寫的 中西節慶文化英語(16K彩色+寂天雲隨身聽APP) 和的 Handbook of Laser Micro- And Nano-Engineering都 可以從中找到所需的評價。

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這兩本書分別來自寂天 和所出版 。

中山醫學大學 營養學系 李健群所指導 張心瑜的 香蕉偽莖嫩芯殺菁榨汁萃取物對Hs578T人類三陰性乳癌細胞凋亡、移行及侵襲之影響 (2018),提出focus st 0-100關鍵因素是什麼,來自於香蕉偽莖嫩芯、凋亡、移行、侵襲、三陰性乳癌細胞。

而第二篇論文國立成功大學 行為醫學研究所 郭乃文、翁孟玉所指導 李雅惠的 執行功能與因應策略對創傷後成長之影響:以類風濕性關節炎婦女患者為例 (2015),提出因為有 類風濕性關節炎、執行功能、因應策略、創傷後成長的重點而找出了 focus st 0-100的解答。

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除了focus st 0-100,大家也想知道這些:

中西節慶文化英語(16K彩色+寂天雲隨身聽APP)

為了解決focus st 0-100的問題,作者Pei-ChinHsieh,OwainMckimm 這樣論述:

  16篇中西節慶來源故事和會話   打造跨文化英語溝通,深造英文素養!     本書精選中西方最重要的16個文化節慶,敘述其來源故事,及節慶文化儀式和習俗,透過中西節慶讓讀者深入了解中西方文化的價值、特色與差異,更能同時藉由節慶的渲染力,將日常生活議題與英語學習結合學習,讓讀者沉浸在使用英語的生活情境中,幫助讀者深入了解文化背景知識,藉此深化英文閱讀理解及溝通能力,有助於跨文化的溝通與理解,培養文化素養。     本書以強化學習者閱讀能力、增進英語聽力及口語技巧為目標,依各中西節慶分成16 課,每課分成四大部分:     I. Reading(閱讀):   一篇約300字的英文閱讀文章,

介紹節日起源與習俗儀式,提供關鍵常用單字詞彙對照,並以彩圖為輔,幫助讀者熟知運用各節慶的重要英文語彙及用法。     II. Reading Comprehension Questions(閱讀測驗):   五題練習題幫助讀者檢視學習成效,釐清文章主旨,訓練閱讀技巧。     III. Conversation(對話):   以100字的對話生動談論節日話題,訓練英語溝通能力,並附有母語人士的對話錄音,幫助讀者訓練口語技巧。     IV. Listening Practice(聽力練習):   一篇100到120字的對話與三題習題,讀者必須聆聽音檔並選出正確答案,可再次檢視學習效果,並加強訓

練英文聽力。     + 附文章與對話翻譯,也有聽力腳本方便讀者對照學習。   + 附文章朗讀及聽力測驗內容MP3,訓練聽力技巧與發音。

focus st 0-100進入發燒排行的影片

香蕉偽莖嫩芯殺菁榨汁萃取物對Hs578T人類三陰性乳癌細胞凋亡、移行及侵襲之影響

為了解決focus st 0-100的問題,作者張心瑜 這樣論述:

根據全球癌症最新數據GLOBOCAN 2018統計,乳癌為全世界婦女癌症發生率首位。其中三陰性乳癌因轉移及復發風險高,預後不佳成為導致乳癌患者死亡之主因。因此,如何降低三陰性乳癌生長及轉移成為目前各國致力於探討的議題。先前研究證實香蕉偽莖嫩芯萃取物(banana pseudostem tender core extract, BPTCE)具有抗氧化活性。本研究利用不同萃取方式之BPTCE,探討其對Hs578T三陰性乳癌細胞凋亡及轉移之影響。研究結果顯示,在凍乾(Freeze-dry, FD)、殺菁凍乾(Blanch and Freeze-dry, BFD)、榨汁(Squeeze, S)及殺菁

榨汁(Blanch and Squeeze, BS)等四種不同萃取方式得之萃取物中,以殺菁榨汁萃取物處理後Hs578T細胞促凋亡蛋白表現最高。因此本研究後續採用殺菁榨汁香蕉偽莖嫩芯萃取物(BPTCE -BS)進行實驗。MTT分析細胞存活率結果顯示,隨著BPTCE-BS處理濃度(0, 100, 200, 400 μg/ml)的增加,Hs578T乳癌細胞死亡率隨之增加。細胞凋亡檢測結果發現,預處理200、400 μg/ml BPTCE-BS 24小時後,顯著誘發Bax/Bcl-2蛋白表現比例並促使Hs578T乳癌細胞凋亡。此外cleaved caspase-7及PARP cleavage蛋白表現亦

隨BPTCE-BS處理濃度增加而顯著上升。透過粒線體分離實驗結果發現,粒線體中Bax/Bcl-2蛋白質表現比例在400 μg/ml的BPTCE-BS處理細胞20小時後達到最大值。Wound-healing assay結果顯示低濃度(100、200 μg/ml)的BPTCE-BS可降低Hs578T乳癌細胞移行能力。Boyden chamber assay結果顯示25 μg/ml的BPTCE-BS可降低Hs578T乳癌細胞侵襲能力。預處理不同濃度(0, 25, 50, 100, 200 μg/ml)的BPTCE-BS可降低MMP-9酵素活性及蛋白表現,抑制效果呈劑量關係。綜合上述結果可知,BPTC

E-BS可透過啟動凋亡內在路徑促進Hs578T三陰性乳癌細胞凋亡,並藉由抑制MMP-9蛋白表現及活性降低癌細胞轉移。

Handbook of Laser Micro- And Nano-Engineering

為了解決focus st 0-100的問題,作者 這樣論述:

Prof. Dr. Koji Sugioka (Editor in Chief) RIKEN Center for Advanced Photonics, RIKEN-SIOM Joint Research Unit, Riken, Japan Prof. Dr. Sugioka is recognized worldwide as a leading scientist in the area of laser micro and nano processing. He has made important contributions to both fundamental research

on laser-matter interactions and applications in the areas of laser micro and nano processing including industrial applications. He is known for his work on laser doping, laser etching, laser surface modification, laser-induced selective metallization, microfabrication of transparent materials, VUV

laser processing, laser surface nanostructuring, 3D micro and nano fabrication by ultrafast laser, and fabrication of integrated microchips for biological analysis based on laser-based technology. He is a senior research scientist at RIKEN - Advanced Science Institute and head of the Center for Ad

vanced Photonics, as well as professor at Tokyo University of Science and Tokyo Denki University. He received B.E., M.E. and Ph.D degrees in electronics form Waseda University in 1984, 1986 and 1993, respectively. He has received nine awards for his research, inventions and contributions in the area

of laser microprocessing. He published more than140 articles, gave over 90 invited talks including plenary, keynote and tutorial presentations at international conferences and has about 30 patents or pending patents related to laser engineering. He is the editor-in-chief of the journal of Laser Mic

ro/Nanoengineering, a board member of Laser Institute of America (LIA), the Japan Laser Processing Society (JLPS) and SPIE Fellow.Dr. Gu, BoPresident Bos Photonics, Massachusetts, USADr. Gu worked for the world leading company in fibre optics as director of Asian operations from 2008 to 2012 before

he formed BOS Photonics to develop photonics technologies and provide consulting services. A fellow of the Optical Society of America (OSA) and the International Society for Optics and Photonics (SPIE), he is currently on the executive committee of the Chinese Optical Society and vice president of

its Laser Processing Committee. He became OSA Fellow, for his outstanding and sustained contributions in development of lasers, laser systems and applications, in particular laser micro- and nano-machining in industrial fabrication and high-power fiber laser applications in industrial metal processi

ng. He chaired several international conferences on Laser 3D Manufacturing and High-Power Laser Materials Processing.Prof. Dr. Milan BrandtRMIT University (Royal Melbourne Institute of Technology), School of Engineering, Melbourne, AustraliaProf. Dr. Brandt is director of the Royal Melbourne Institu

te of Technology (RMIT) in Australia. He is the leading Australian researcher in the area of macro processing with lasers and has conducted widely recognized work in laser cladding, cutting, drilling, welding, assisted machining and additive manufacturing. He initiated and chaired several internatio

nal conferences and workshops and has extensive links with many international researchers and organizations. He is a board member and fellow of the Laser Institute of America and honorary fellow of the Welding Technology Institute of Australia.After graduating from Macquarie University he joined the

Department of Defence Materials Research Laboratory at Maribyrnong where he was involved in research on novel visible lasers. In 1986 he joined the CSIRO Division of Manufacturing Technology in Sydney to conduct research on the interaction of laser radiation with materials and the application of th

is research to laser welding, cutting, surfacing and cladding of materials. This led to the development and commercialization of a number of new, laser-based products and processes. In 1990 he received a grant from the Division to establish the first Industrial Laser Centre in Australia to further p

romote laser technology to industry and develop new applications. In 1999 he joined Swinburne University and established high power laser research activities, his research emphasis was on the development of new laser-based products and processes. In 2010 he joined RMIT as Professor of Advanced Manuf

acturing to focus his research activities on additive manufacturing.Prof. Dr. Cheng, YaState Key Laboratory of High Field Laser Physics, Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences, China Prof. Dr. Cheng focuses in his research on ultrafast photonics and related fie

lds, including femtosecond laser micromachining, ultrafast nonlinear optics and strong field laser physics. He is a professor of the Shanghai Institute of Optics and Fine Mechanics (SIOM), Chinese Academy of Sciences, and the deputy director of the State Key Laboratory of High Field Laser Physics in

China. He received his B.S. degree from Fudan University in 1993 and Ph.D degree from SIOM in 1998. He has published more than 100 papers in peer-reviewed journals, and given more than 60 invited talks at international conferences. He is an editor of the journals of Laser Micro/Nanoengineering and

Chinese Physics Letters and the Deputy Secretary General of the Chinese Optical Society.Dr. Du, KemingEdgeWave GmbH, Innovative Laser Solutions, Würselen, Germany Dr. Du is General Manager of EdgeWave Laser Solutions company. The generation and amplification of laser pulses in compact diode pumped

systems are a central part of his research. He spearheaded the development of new technologies for solid-state lasers and has hold records regarding the amplification of short and ultrashort pulses up to kW powers.From 1985 to 2001 he worked at the Fraunhofer Institute for Laser Technology on the de

velopment of high-power lasers. In 2001 he founded EdgeWave to offer innovative solutions in compact diode-pumped solid-state lasers for different applications.In 2010 he and his team has received the 1st prize of the "Innovation Award Laser Technology" from Arbeitskreis Lasertechnik e.V. and the Eu

ropean Laser Institute. He was awarded the Arthur L. Schawlow Award in Laser Science from the American Physical society in recognition of his outstanding contributions to the field of industrial laser technology.Currently he focuses on industrial applications of new compact systems enabling high-po

wer ultra-short laser pulses are put to use in the industry. Especially in micro processing those lasers are suited for cutting a high number of very different materials as well as precision processing of tools. Prof. Dr. Guo, ChunleiThe Institute of Optics, University of Rochester, USA Prof. Dr. G

uo is full professor in The Institute of Optics at University of Rochester. His research is in the area of femtosecond laser-matter interactions at high intensities He received his Ph.D. in Physics from University of Connecticut in 1999, and was later named one of the University’s 40 Under 40 outsta

nding alumni. His postdoctoral training was at Los Alamos National Laboratory from 1999 to 2001, where his work was awarded the Postdoctoral Publication Prize in Experimental Sciences. He joined the faculty of University of Rochester in 2001. His research at Rochester led to the discoveries of the s

o-called Black and Colored Metals, which may find a broad range of technological applications and have been covered extensively by the media. He is an elected Fellow for both American Physical Society and Optical Society of America. He has authored well over 100 refereed journal articles and has bee

n playing an active role in serving the scientific community; he is at the editorial board of the journals Light: Science & Applications (Nature), Laser in Materials Processing and Manufacturing (Springer), Optics Express and Nanoengineering and Nanomanufacturing. He had been the chair of numerous i

nternational conferences on photonics, optics and laser technology.Prof. Dr. Hong, Minghui Dept. of Electrical & Computer Engineering, National University of Singapore, Singapore Prof. Dr. Hong is full professor at the Department of Electrical and Computer Engineering at the National University of

Singapore. He received his Ph.D. from Xiamen University in China. Between 1995 and 2010 he worked as senior scientist and manager at the Data Storage Institute (Astar) in Singapore. He had been awarded beeing fellow of the Optical Society of America (OSA), of the International Society for Optics and

Photonics (SPIE) and of the International Academy of Photonics and Laser Engineering (IAPLE). He served as editorial board member of the journal "Scientific Reports" (Nature) and as editor of "Science China", he is editor of "Laser Micro/nanoengineering", at the editorial board of The Laser User (A

ssociation of Industrial Laser Users, UK) as well as guest editor of the journal Applied Physics A. He has an extensive track record in long term guest professorships, for example at the University of Science & Technology of China (USTC), at the Institute of Optoelectronics (IOE), at the Chinese Aca

demy of Sciences (CAS), at Xiamen University, China, at Zhejiang University, China, and at Nanjing University of Technology, China. Prof. Dr. Li, Lin School of Mechanical, Aerospace and Civil Engineering, The University of Manchester, UK Prof. Dr. Li is a fellow of the Royal Academy of Engineering,

holds a chair of laser engineering and is director of the Laser Processing Research Centre at The University of Manchester, UK. He has over 560 publications in peer reviewed journals and 47 patents related to laser processing and photonic science. He was elected to fellow of International Academy fo

r Production Engineering (CIRP), fellow of Institute of Engineering and Technology (IET), and fellow of Laser Institute of America (LIA). He serves on the editorial boards of 11 international journals and is a director of Laser Institute of America, President of International Academy of Photonics an

d Laser Engineering (IAPLE), Chairman of Process and Product Innovation Group of Association of Laser Users (AILU), and a member of UK Advanced Design and Manufacturing National Technical Committee. He had been the chair of several international conferences on advanced manufacturing. He received the

Arthur Charles Main Award from the Institute of Mechanical Engineers for work in laser based nuclear decommissioning technology, and received the Sir Frank Whittle Medal from the Royal Academy of Engineering for his outstanding and sustained achievements in engineering innovations in manufacturing

that has led to wide commercial applications. He received Wolfson Research Merit Award from the Royal Society for his research on laser nano-fabrication and nano-imaging, and received the Researcher of the Year medal in Engineering and Physical Sciences at The University of Manchester. He obtained h

is BSc degree in control engineering from Dalian University of Technology in 1982 and a PhD degree in laser engineering from Imperial College, London in 1989. He worked at University of Liverpool during 1988-1994 as a postdoctoral research associate in high power laser engineering. He started his ac

ademic career at UMIST (University of Manchester Science and Technology) in 1994 and was promoted to a full professor in 2000. He set-up the first high power laser processing research laboratory and research group at UMIST and founded the Laser Processing Research Centre in 2000. He served as Direct

or of Research and Deputy Head of School of Mechanical, Aerospace and Civil Engineering during 2009-2013, and Head of Manufacturing Research Group during 2004-2014. Prof. Dr. Lu, YongfengLaser Assisted Nano Engineering Lab, Dept of Electrical and Computer Engineering, University of Nebraska Lincoln,

USA Prof. Dr. Lu obtained his B.Eng. degree in 1984 from Tsinghua University, Beijing, China. He received his M.Eng. and Ph.D. degrees from Osaka University, Japan, in 1988 and 1991, respectively. Upon graduation from Osaka University, he joined the Department of Electrical Engineering at the Natio

nal University of Singapore, where he served in various positions. He joined the Department of Electrical Engineering at the University of Nebraska-Lincoln (USA) in September 2002. He has an extensive research background in the areas of laser-based microscale and nanoscale material processing. He ha

s written over 220 peer-reviewed journal publications and over 160 presentations for international conferences. He has also received a number of national and international awards, including the National Technology Award (Singapore, 1998), Asean Engineering Achievement Award (Asean Engineering Associ

ation, 1999), and Laser International Award (Germany, 2000).He had been a pioneer in laser removal of nanoparticles from solid surfaces (laser cleaning) and nanoscale patterning by optical resonance in microparticles. He was among the first researchers to theoretically propose a model to explain the

behaviors of nanoparticles on a solid surface under laser irradiation and to experimentally obtain subwavelength nanostructures using laser-induced optical resonance in nanospheres. His work encompasses a few important topics - including laser writing of subwavelength structures, applications of l

aser removal of nanoparticles, behaviors of nanoparticles under laser irradiation, theoretical modeling, influence of laser wavelength, and particle removal with assistance of thin liquid films. He has also closely worked with industries and developed a few commercial products for laser etching, las

er cleaning, laser cutting and laser surface texturing. His main areas of research and expertise are: Novel carbon materials, nanophotonics, optical spectroscopy and imaging, nanoscale laser material processing and characterization, laser-assisted nanoimprinting, 2D and 3D nanomanufacturing, surface

cleaning and drying and laser-assisted materials synthesis and processing. Prof. Dr. Andreas OstendorfInstitute for Laser Applications, Ruhr-University Bochum, GermanyProf. Dr. Ostendorf is head of the Institute for Laser Applications at the University of Bochum, Germany. He has published more than

360 scientific papers in peer reviewed journals and has chaired several international conferences on laser applications. He had been awarded being SPIE fellow and had been president of the Laser Institute of America (LIA). His main research focus is on microsensors and microactors, laser based metr

ology, laser based micro- and nanostructuring, laser ablation and ultrafast laser phenomena.Prof. Dr. Leonid V. ZhigileiDepartment of Materials Science and Engineering, University of Virginia, USA Prof. Dr. Zhigilei focuses in his research on computational materials science, development of multiple

length and time-scale computational methods for materials modeling, theoretical and numerical analysis of the dynamic non-equilibrium processes in materials undergoing processing by short laser pulses, investigation of the microscopic mechanisms of phase transformations and properties of nanostructu

red and non-crystalline materials. He has received his Ph.D. at Tomsk State University and St.-Petersburg State University, Russia. He had worked for laser technology companies in St. Petersburg and in Vlinius, Lithuania. He had been visiting scientist and guest professor at Pennsylvania State Unive

rsity, USA, at the Japan Atomic Energy Research Institute and the University of Virginia, USA. Aside to his primary research interest on laser interactions with materials, he has a strong interest in applying research outcomes to develop new technologies in microprocessing and nanofabrication, as we

ll as in nanophotonics. He has more than 20 years of experience in the field of laser interactions with materials and its applications, has co-authored more than 10 books and published 300+ scientific papers. He had been chair for several international conferences on functional materials, on plasmon

ics and nanotechnology. He is serving as the editor of Science China, the International Journal of Optomechatronics, Editor of Laser Micro/nanoengineering and Guest Editor of Applied Physics A and Industrial Laser Users. He had been awarded beeing fellow of the Optical Society of America (OSA) and f

ellow of the International Society for Optics and Photonics (SPIE) for his achievements and outstanding contributions to Laser Interactions.Prof. Dr. Zhong, MinLin The Center of Laser Processing, Dept. of Mechanical Engineering, Tsinghua University, China Prof. Dr. Zhong is director of the Laser C

enter at Tsinghua University, School of Materials Science and Engineering, China. His research focuses on fundamental and application oriented research on laser micro-nano fabriocation, laser surface engineering, laser additive manufacturing and novel materials development. He is member of the Laser

Institute of America (LIA). IAPLEPublished in cooperation with: IAPLE - International Academy of Photonics and Laser EngineeringThe aim of the Academy is to promote the advancement of photonics and laser science/ engineering globally and to provide a forum for leading scientists and engineers. The

Academy strives to identify key issues and challenges in the field and to forecast future R&D directions. Finally, to develop international level strategies and roadmaps for advancing the science, technology and applications of photonic sciences and laser engineering.

執行功能與因應策略對創傷後成長之影響:以類風濕性關節炎婦女患者為例

為了解決focus st 0-100的問題,作者李雅惠 這樣論述:

目的:慢性疾病患者對於疾病的心理調適和適應結果有極大的個別差異,由於生理不適和功能受限,可能會對其心理健康造成損害;但是,個體經歷疾患之挑戰,也可能產生正向心理改變,即創傷後成長(Posttraumatic Growth)。研究指出患者的負向情緒或創傷後成長會受到因應策略的影響,也有研究指出患者本身的執行功能具備影響因應策略選擇的結果。然過去較少研究直接探討執行功能對創傷後成長之影響,故本研究欲以類風濕性關節炎(Rheumatoid arthritis, RA)婦女為例,探討執行功能和因應策略對創傷後成長的預測關係。方法:於南臺灣某醫學中心過敏免疫風濕科兩位專科醫師之門診立意取樣。研究進行1

3個月,由門診總共轉介119位符合納入條款者,其中7位拒絕、8位未完成以及1位問卷無效。研究工具包含基本資料及病史問卷、執行功能問卷、因應策略量表及創傷後成長量表。以結構方程模式(Structural Equation Modeling, SEM)分析檢驗執行功能與因應策略對創傷後成長之預測模式。結果:共103位受試者,平均年齡56.00(±13.38)歲,平均罹病時間11.26(±8.72)年,日常活動功能分數平均為13.22(±19.33)分。人口學變項含年齡、教育程度、有無宗教信仰,和疾病變項含罹病時間、罹病年齡、自評手腳變形程度、日常活動功能,皆與創傷後成長無顯著相關。執行功能、正向因

應以及負向因應均對創傷後成長有顯著的預測效果,以SEM檢驗此三變項對創傷後成長的預測模式,結果顯示執行功能對創傷後成長有直接預測效果(β=.44, p〈.001),且會透過正向因應(β=.53, p〈.001)預測創傷後成長 (β=.32, p〈.001)。整體預測模式對創傷後成長的解釋量達39.3%。討論:過去研究著重因應策略對創傷後成長的影響,本結果顯示執行功能為創傷後成長之主要預測因子。未來可持續探討此模式是否對其他慢性疾病之創傷後成長也有解釋力。依據此成果,研究者建議慢性疾患的心理介入可加入增進患者執行功能之治療策略,以強化患者歷經疾病挑戰之正向心理功能。