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Illustrating the Benefits of Embracing an Integrated Applied Mathematics Initiative: TRANSPORT PARAMETERS,LAPLACE TRANSFORMS,AND RESIDUE THEOREM

机译:说明拥抱综合应用数学倡议的好处:运输参数,拉普拉斯变换和残留定理

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An example problem is presented here to illustrate the relative straightforwardness of a number of viable mathematical concepts often thought of as complex and unwieldy.These are concepts that engineering students often either shy away from-considering them too difficult to apply-or may just simply be unaware of.These knowledge gaps or confidence-level issues can be quite restrictive,and can lead to poor choices with respect to adequately and accurately representing system behavior.Ideally,when en route to obtaining robust solutions to relevant technological problems it is imperative to avoid undue oversimplifications and/or assumptions that can limit a solution's range of applicability,or sometimes even render it essentially useless.Unfortunately,too often systems are modelled using these restrictive approaches.Consequently,the opportunity to obtain the desired robustness is often lost.This can be extremely problematic(a)when evaluating model predictive control(MPC)strategies via simulation protocols and(b)in establishing evaluation criteria for the various design scenarios involved in both process systems and advanced materials development,as these rely upon characterization via transport property determinations(Cussler,[1] Bird,et.al.,|2] Deen,[3] and Incropera and DeWitt[4]).This latter issue is particularly relevant in the emerging area of nanotechnology,and specifically in its role in delivery platforms.Representative materials include:(i)smart membranes,as biomirnetic systems or as encapsulation materials/surfaces with unique barrier properties;(ii)novel chaperones for drag delivery and controlled release;and(iii)nano-scale entities that are entrapped in macro-scale matrices to produce unique physicochemical properties with enhanced performance characteristics(e.g.,Johnson,et.al.,[5] Sokolnicki,et.al.,[6] and Panagiotou and Fisher[7]).Topics such as these are of growing importance,and feature in both core and elective courses offered to support the student's multiple options with respect to concentration tracks.
机译:这里提出了一个示例问题,以说明许多可行的数学概念的相对直接意义经常被认为是复杂和笨重的概念。这些是工程学生经常害羞的概念 - 考虑到它们太难申请 - 或者只是可能只是申请不知道。这些知识差距或置信级别问题可能是相当长的,并且可以对充分准确地代表系统行为的选择差..当途中获得强大的解决方案到相关的技术问题时,它必须避免可能限制解决方案的适用性范围的过度过度简化和/或假设,或者有时甚至会使它基本上无用。不幸的是,经常使用这些限制方法进行建模。当然,获得所需的鲁棒性的机会通常丢失。这可以在通过Simu评估模型预测控制(MPC)策略时非常有问题(a) Lation协议和(b)在建立过程系统和高级材料开发中涉及的各种设计方案的评估标准,因为这些依赖于通过运输属性确定(Cussler,[1]鸟,et.al。,| 2] Deen,[3]和Incopera和Dewitt [4])。这种后一种问题在纳米技术的新出现面积特别相关,特别是其在交付平台中的作用。重复化材料包括:(i)智能膜,作为生物型系统或作为封装材料/具有独特屏障性质的表面;(ii)用于拖动递送和控制释放的新型伴侣;(iii)纳米级实体,其被捕获在宏观型矩阵中,以产生具有增强性能特征的独特物理化学性质(例如, Johnson,et.al。,[5] Sokolnicki,et.al。,[6]和Panagiotou和Fisher [7])。这样的主题在于越来越重要,并且提供支持的核心和选修课程的特征学生们 关于集中轨迹的多个选项。

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