Dani E Bergey, Kevin Brennan, D. Milkowski, Christine D. Young
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Fortunately, visual learning studies and multimedia design principles have established methods for improving comprehension of biomedical topics. Animation, in particular, has the benefit of pairing narration and dynamic visuals, which, when used together, benefit long-term memory more than the use of static images. Here, we employ visual design strategies (including content mapping, storyboarding, and user studies), multimedia learning principles, and 3D molecular animation to successfully improve the understanding of a complex genetic topic to an audience with a wide range of background knowledge. This study presents the first and most accurate animation of the complex interactions of transcription initiation and elongation on a molecular scale. The animation includes the initiation complex, the transcription elongation complex, MYC, Pol II, and the assortment of transcription factors that assist in modulating the rate of elongation of Pol II. 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引用次数: 0
摘要
环境因素可以在不改变遗传密码本身的情况下调节基因表达,这一过程被称为表观遗传学。目前遗传学和表观遗传学研究的一个活跃领域是对一种叫做mylococytomatosis (MYC)的肿瘤诱导基因的调控,MYC与许多类型的癌症有关。随着诸如MYC调控等基因发现引起医学界和公众越来越多的兴趣,创造有效的视觉效果变得越来越重要。然而,关于普通大众对遗传学的理解的研究表明,他们对遗传学概念的理解很差——这一发现也出现在对本科遗传学学生、医学院学生和执业医生的类似研究中。幸运的是,视觉学习研究和多媒体设计原则已经建立了提高对生物医学主题理解的方法。尤其是动画,它具有将叙事和动态视觉结合起来的好处,当它们一起使用时,比使用静态图像更有利于长期记忆。在这里,我们采用视觉设计策略(包括内容映射、故事板和用户研究)、多媒体学习原则和3D分子动画,成功地提高了具有广泛背景知识的受众对复杂遗传主题的理解。这项研究提出了转录起始和延伸在分子尺度上的复杂相互作用的第一个和最准确的动画。动画包括起始复合物,转录延伸复合物,MYC, Pol II,和各种转录因子,协助调节Pol II的延伸率。由此产生的产品是一个三分钟的动画,它使用音频,视觉效果和对多媒体原理的深刻理解,以显着增加个人对分子遗传学复杂主题的先验知识。
Using Multimedia Principles to Reduce Visual Complexity of Transcriptional Regulation in Cancer
Environmental factors can regulate gene expression without changing the genetic code itself, a process called epigenetics. One currently active area of genetic and epigenetic research is into the regulation of a tumor-inducing gene called Mylocytomatosis, or MYC, which is involved in many types of cancer. As genetic discoveries, such as the regulation of MYC, are generating more interest from the medical community and the public, creating effective visuals is of increasing importance. However, research studies on the general public's understanding of genetics have demonstrated a poor grasp of genetic concepts - a finding that also appears in similar studies of undergraduate genetics students, medical students, and practicing physicians. Fortunately, visual learning studies and multimedia design principles have established methods for improving comprehension of biomedical topics. Animation, in particular, has the benefit of pairing narration and dynamic visuals, which, when used together, benefit long-term memory more than the use of static images. Here, we employ visual design strategies (including content mapping, storyboarding, and user studies), multimedia learning principles, and 3D molecular animation to successfully improve the understanding of a complex genetic topic to an audience with a wide range of background knowledge. This study presents the first and most accurate animation of the complex interactions of transcription initiation and elongation on a molecular scale. The animation includes the initiation complex, the transcription elongation complex, MYC, Pol II, and the assortment of transcription factors that assist in modulating the rate of elongation of Pol II. The resulting product is a three-minute animation which uses audio, visuals, and a deep understanding of multimedia principles to significantly increase individuals' prior knowledge of a complex topic in molecular genetics.