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Teaching Synthetic Biology Bioinformatics and Engineering to Undergraduates: The Interdisciplinary Build-a-Genome Course

机译:向大学生教授合成生物学生物信息学和工程学:跨学科的基因组构建课程

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摘要

A major challenge in undergraduate life science curricula is the continual evaluation and development of courses that reflect the constantly shifting face of contemporary biological research. Synthetic biology offers an excellent framework within which students may participate in cutting-edge interdisciplinary research and is therefore an attractive addition to the undergraduate biology curriculum. This new discipline offers the promise of a deeper understanding of gene function, gene order, and chromosome structure through the de novo synthesis of genetic information, much as synthetic approaches informed organic chemistry. While considerable progress has been achieved in the synthesis of entire viral and prokaryotic genomes, fabrication of eukaryotic genomes requires synthesis on a scale that is orders of magnitude higher. These high-throughput but labor-intensive projects serve as an ideal way to introduce undergraduates to hands-on synthetic biology research. We are pursuing synthesis of Saccharomyces cerevisiae chromosomes in an undergraduate laboratory setting, the Build-a-Genome course, thereby exposing students to the engineering of biology on a genomewide scale while focusing on a limited region of the genome. A synthetic chromosome III sequence was designed, ordered from commercial suppliers in the form of oligonucleotides, and subsequently assembled by students into ∼750-bp fragments. Once trained in assembly of such DNA “building blocks” by PCR, the students accomplish high-yield gene synthesis, becoming not only technically proficient but also constructively critical and capable of adapting their protocols as independent researchers. Regular “lab meeting” sessions help prepare them for future roles in laboratory science.
机译:本科生命科学课程的一个主要挑战是对课程的不断评估和发展,以反映当代生物学研究不断变化的面貌。合成生物学提供了一个极好的框架,学生可以在其中参与前沿的跨学科研究,因此是本科生物学课程的一个有吸引力的补充。这一新学科有望通过对遗传信息的从头合成来更深入地了解基因功能,基因有序性和染色体结构,就像合成方法可以帮助有机化学一样。尽管在整个病毒和原核基因组的合成中已取得了相当大的进步,但真核基因组的制备需要以更高数量级的规模进行合成。这些高通量但劳动强度大的项目是向大学生介绍动手合成生物学研究的理想方法。我们正在大学实验室环境中建立酿酒酵母染色体,即建立基因组课程,从而使学生在全基因组范围内接触生物学工程,同时关注基因组的有限区域。设计了一条合成的III号染色体序列,该序列以寡核苷酸的形式从商业供应商处订购,然后由学生组装成约750 bp的片段。一旦接受了通过PCR组装此类DNA“构件”的培训,学生即可完成高产量的基因合成,不仅在技术上精通,而且在结构上至关重要,并且能够适应作为独立研究人员的方案。定期的“实验室会议”会议有助于他们为将来在实验室科学中的作用做好准备。

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