Cosmix-plexing®: a novel recombinatorial approach for evolutionary selection from combinatorial libraries

John Collins , Nathalie Horn , Johan Wadenbäck , Michael Szardenings
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引用次数: 18

Abstract

The efficiency of existing combinatorial biological library methods has been moderate in terms of the success rates, the affinities of the ligands selected and the time and effort involved in trying to optimize the initial leads. Although mimicking natural evolution, existing strategies take little notice of the importance of recombination within a selected population to generate increased diversity. We present an overview of our recent progress which has resulted in the successful development of such a strategy, which we designate cosmix-plexing®. We incorporate recombination as a central feature in obtaining high success rates and high affinities, even for short monomer peptides, in a very short time. The method uses type II restriction enzymes to re-assort small hypervariable DNA cassettes from an intermediate pre-selected population (e.g. from a phagemid display library), while maintaining the original open-reading frame. Since, in the naive library, each cassette contains all possible combinations of the polypeptide sequences it encodes, much longer regions can be optimized than was possible with methods which depend on a simple selection from the naive library. Short peptides can now be rapidly selected, which exhibit the same, or higher, specificity and affinity for a defined target molecule, than (say) an antibody or even the natural ligand.

Cosmix-plexing®:一种新的重组方法,用于组合文库的进化选择
现有组合生物文库方法的效率在成功率、所选配体的亲和力以及试图优化初始导联所涉及的时间和精力方面一直是中等的。虽然模仿自然进化,但现有的策略很少注意到在选定的种群中重组以产生增加的多样性的重要性。我们概述了我们最近取得的进展,这些进展导致了这种策略的成功发展,我们将其命名为cosmix-plexing®。我们将重组作为在很短的时间内获得高成功率和高亲和力的核心特征,即使是短单体肽。该方法使用II型限制性内切酶对来自中间预先选择的群体(例如来自噬菌体展示库)的小的高变DNA盒进行重新排序,同时保持原始的开放阅读框。由于在原始文库中,每个卡带包含它所编码的多肽序列的所有可能组合,因此与依赖于从原始文库中简单选择的方法相比,可以优化更长的区域。短肽现在可以被快速选择,与抗体甚至天然配体相比,它们对特定目标分子具有相同或更高的特异性和亲和力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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