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10 simple rules for teaching wet-lab experimentation to computational biology students, i.e., turning computer mice into lab rats

机译:10卫生实验室实验到计算生物学学生的简单规则,即将计算机小鼠转向实验室大鼠

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Graduate students in computational biology have strong quantitative backgrounds but areoften quite limited in their understanding of the theory, approach, and practice of biologicalexperimentation. A strong grasp of the provenance of relevant biological data is essential forcomputational biologists to effectively critique and incorporate data into their research effortsor to generate the data themselves, the latter of which is becoming more and more prevalent[1,2]. To give students this knowledge, insight, and experience, the joint Carnegie Mellon–University of Pittsburgh PhD program in Computational Biology (CPCB) has developed theLaboratory Methods for Computational Biologists (LMCB) course as a core course in theCPCB curriculum to provide a hands-on, research-oriented laboratory experience in fourmajor areas: genomics, microscopy and bioimaging, high content screening, and X-ray crystal-lography. For each area, we have designed course modules covering general topics such asexperimental design, limitations of common methods, cutting-edge and high throughput tech-niques, potential sources of error in data, and the preservation, analysis, and presentation ofdata. To provide the students with a more immersive research experience, we have designedthe modules to cover one common research topic giving the students experience in usingresults from previous modules to inform the design of experiments for the next. The LMCBcourse provides foundational and experiential wet-lab training for the benefit of nascentcomputational scientists. Here, we provide some of the guiding principles and approaches thatwe’ve used to establish, evolve, and shape our course. While we use our course as the frame-work for the presented rules, they are broadly applicable and adaptable to similar graduate andundergraduate programs. Therefore, this article will appeal to anyone interested in approachesfor providing hands-on training in experimental techniques to computational trainees, partic-ularly to faculty and program directors of computational biology and related graduate orundergraduate programs that want to provide this foundational course-based research trainingto their students.
机译:计算生物学的研究生具有强烈的定量背景,但在他们对生物学的理论,方法和实践的理解中,大量有限。强大的掌握相关生物数据的出处是必须有效的批评和将数据纳入他们的研究工作,以产生数据本身,后者变得越来越普遍[1,2]。为了让学生这种知识,洞察力和经验,Carnegie Mellon-大学的匹兹堡博士计划在计算生物学(CPCB)中开发了对计算生物学家(LMCB)课程的核心课程,作为ThecPCB课程的核心课程,以提供一种手 - ON,以四态区域为导向的实验室经验:基因组学,显微镜和生物体,高含量筛选和X射线晶体造影。对于每个区域,我们设计了课程模块,涵盖了一般话题这种无氧化设计,常见方法的限制,尖端和高吞吐量技术,数据中的潜在误差源,以及ofdata的保存,分析和呈现。为了为学生提供更加沉浸的研究经验,我们设计了涵盖一个常见研究主题的模块,使学生在先前模块中使用的服务经历,以告知下一个实验的实验。 LMCBCOURSE提供了基于新兴计算机科学家的基础和经验湿实验室培训。在这里,我们提供了一些指导原则和方法,即用于建立,发展和塑造我们的课程。虽然我们使用我们的课程作为所提出的规则的帧工作,但它们广泛适用,适应类似的毕业生和未遂课程。因此,本文将呼吁任何对涉及方法的人提供实验技术,以计算学员,拟议到要提供这一基于基于基于课程的研究培训的计算生物学和相关毕业生课程的教师和程序董事。他们的学生。

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