Lies的問題，透過圖書和論文來找解法和答案更準確安心。 我們查出實價登入價格、格局平面圖和買賣資訊

Calculus of Variations and Control Theory

為了解決Lies的問題，作者Lefter, Catalin-George 這樣論述：

Catalin Lefter is a Professor in the department of Mathematics at Al. I . Cuza University, Romania. His main areas of interest lies in Partial Differential Equations and Control Theory.

Lies進入發燒排行的影片

結合Breath Figure 週期性液滴透鏡之奈米雷射直寫加工技術

為了解決Lies的問題，作者黃彬勝 這樣論述：

　本研究為利用液滴透鏡輔助奈秒雷射於矽基板上加工奈米結構。開發的技術重點是利用Breath Figure法生成的高分子薄膜微孔模板，並在此模板上浸潤甘油來形成微米尺度之液態透鏡陣列，做為雷射二次聚焦之透鏡，再結合雷射熔融基板材料形成微奈米結構的製造技術。　　在Breath Figure製作上，將Polystyrene、Polymethylmethacrylate與甲苯混合成高分子溶液，透過甲苯高揮發特性以帶走基板表面熱能，使環境中水分子冷凝於基板表面，待溶液蒸發完畢形成高分子微孔薄膜。本論文使用Dip Coating方式測試兩種拉升速度，900 mm/min與400 mm/min，以製作所需

之微孔薄膜。其所形成之微孔孔徑在拉升速度900 mm/min時介於 1.2 μm 至 3.8 μm之間，400 mm/min則是介於1 μm 至3.6 μm之間，而孔洞剖面為橢圓狀，在拉升速度900與400 mm/min膜厚分別為1.5、1.2 μm。　　接著於微孔孔洞內浸潤甘油形成甘油透鏡，將雷射光經由甘油透鏡二次聚焦達到熔融矽基板。在本研究中探討不同雷射功率與不同掃描間距對於所加工出結構之影響。其結果顯示在雷射以掃描間距20 μm、正離焦4.8 mm、雷射功率密度介於1.63×107~1.74×107 W/cm2能加工出矽微奈米結構，經由量測得知微峰結構直徑介於1.1~1.4 μm之間。在

拉升速度400 mm/min所加工出來的結構高度介於20~160 nm，而在拉升速度900 mm/min結構高度介於20~130 nm。

Methods of Clinical Epidemiology

為了解決Lies的問題，作者 這樣論述：

This book provides an introduction to the common research methodology specific to clinical epidemiology for both students and researchers. The goal of the book is to fill the gap left by texts that concentrate on public health epidemiology and focuses on what is not covered well in such publications

. The four sections of the book cover methods that have not previously been brought together in one volume and serve as a second level textbook of clinical epidemiology methods. Some of the most important topics included in this volume are: clinical agreement in quantitative measurements, interpreta

tion of diagnostic tests, sample size considerations, modelling time-to-event data and meta-analysis. The book will be useful for clinical researchers as well as for postgraduate students in clinical epidemiology. In this second edition, sections related to modeling of binary outcomes and research s

ynthesis methods have been extensively updated. Suhail Doi is associate professor of clinical epidemiology at the University of Queensland. He is involved in teaching, student supervision, curriculum development and research. He has published widely and his interest lies in research that addresse

s unanswered questions in patient care as well as questions related to methods of research design and analysis used in medicine. Thus his research focuses on patient care topics such as epidemiology, prognosis and treatments of disease as well as methodology especially that related to meta-analysis.

He is the co-author of the Doi-Thalib method for meta-analysis which was introduced in 2008 as an alternative to the random effects model. Gail Williams is professor of international health statistics at the University of Queensland. She has had long involvement in curriculum development and teachi

ng in graduate programs in biostatistics and epidemiology, as well as consulting in clinical medicine and public health. Her specific areas of expertise include design and analysis of longitudinal studies, clinical and field intervention trials, survey design, and mathematical modelling. The focus o

f her applied research has been maternal and child health, a range of infectious diseases, and skin cancer. Her methodological areas of interest lie in statistical and mathematical modelling and approaches to dealing with attrition in longitudinal studies.

應用品質機能展開法於基隆港旅運服務品質改善方案之實證研究

為了解決Lies的問題，作者葉庭瑋 這樣論述：

本研究的目的在於提高基隆港旅運的服務品質，並探討可行的解決方案，以提升整體顧客服務水準。台灣為海島國家，具備北三角(日、韓、臺)與南三角(越、菲、臺)發展的潛力，非常適宜發展郵輪觀光業，對於促進經濟和郵輪港口的競爭力有顯著的幫助。然而，由於過去國內產業的外移港口營運不如已往，如何吸引更多的郵輪業者停靠，帶來獲取更多的商機與創造港口更高的服務附加價值就顯得十分重要。因此，港務公司的首要任務就是要找到提升顧客服務品質的方法與更新設備。本研究首先說明基隆郵輪港的發展背景，並就相關產業服務品質之文獻作為研究基礎，運用模糊層級分析結合多層次品質機能展開法，以服務提供者及顧客提升服務品質的觀點分析，並將

二者對於旅運服務需求，轉換為改善現有服務品質之技術需求，並針對前述結果，提出改善現況之策略與建議，作為基隆港務分公司(TIPC)提升旅運服務品質改善的參考，並期盼未來郵輪旅遊產業蓬勃永續發展。