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【Talk】Stochastic Simulation, Modeling & Opti...

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【Talk】Stochastic Simulation, Modeling & Optimization of Complex Systems via Parameterized Model Reduction

Welcome all to join it !!!

Time : 10:30am-12:00pm, April 29, 2014
Venue : ED528, Engineering Building 4, National Chiao Tung University

Prof. Luca Daniel
Massachusetts Institute of Technology

Abstract
Many complex systems developed by engineers (e.g. iPads, sensor body networks, power delivery networks, magnetic resonance imaging machines) or found in nature (e.g. the human cardiovascular system, or the geophysical oil/water/gas reservoir networks) can be viewed as large collections of interconnected dynamical system components The performance or characteristics of each individual component critically depend on what engineers or scientist refer to as “second order effects”, and can be captured only by resorting to accurate partial differential equation descriptions (e.g. Poisson, Maxwell, Navier-Stokes equations etc…). In addition, such components are often affected by random uncertainties in parameters and in geometries. In the first part of this talk I will illustrate how recent advances in computational techniques have made it possible to quantify efficiently and accurately the effect of second order effects and random uncertainties in individual system components. In the second part of this talk I will show how parameterized model order reduction techniques are beginning to enable the efficient simulation, design and optimization of “entire” complex networks of interconnected dynamical systems. Examples of complex systems analysis and optimization will be presented from the electrical engineering world including network of integrated circuit interconnect, RF inductors, micro-electro-mechanical sensors, low noise RF amplifiers, and power amplifiers, as well as city/state wide power distribution grids. At the end of the talk I will outline how the same stochastic field solver and parameterized compact dynamical modeling techniques used for designing complex electronic systems can be used to handle complex systems in other fields (e.g. to control undesired local heat deposition in human tissues by the RF power used in high resolution MRI machines, or to diagnose diseases of the human cardiovascular system, or to enable water/oil/gas reservoir exploration.)


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國立交通大學於2021年2月1日與國立陽明大學合校為國立陽明交通大學。國立交通大學源自西元1896年創立之南洋公學,百餘年來以培養我國應用科學人才著稱。民國46年10月24日,行政院同意教育、國防、經濟、交通四部會所呈意見,准由教育部籌備國立交通大學復校事宜;民國47年6月1日,國立交通大學電子研究所在新竹市博愛街正式成立,期許能培育電子科學的菁英並奠定國內電子資訊產業發展的基石。為進一步配合工業發展之需,擴充科技人力之基礎,於民國53年成立電子工程學系,開始招收大學部學生。 本系多年來在全體同仁共同努力及系友們的支持下已深具規模,不僅師資、課程及設備在國內首屈一指,也與世界著名大學並駕齊驅。目前本系陣容堅實壯盛,計有助理教授以上專任教師五十餘位;學生方面,則有學士生四百餘人,碩士生四百餘人,博士生三百餘人;故為國內舉足輕重之龍頭大系。系所畢業系友已近六千人,分別在國內外學術界、研究機構、工業界及企業界服務,多數傑出系友並已成為台灣電子資訊產業之領袖人物,是科技發展及國家建設的中流砥柱。
陽明交大電子系期許未來在各項電子科技領域持續引領風騷,並以創新、綠色的電子科技不斷增進人類生活品質。邀請您共同見證我們寫下我國電子資訊的新頁。
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