OligoMiner provides a rapid, flexible environment for the design of genome-scale oligonucleotide in situ hybridization probes.
OligoMiner provides a rapid, flexible environment for the design of genome-scale oligonucleotide in situ hybridization probes.
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DOI:
10.1073/pnas.1714530115
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发表时间:
2018-03-06
影响因子:
11.1
通讯作者:
Yin P
中科院分区:
文献类型:
--
作者:
Beliveau BJ;Kishi JY;Nir G;Sasaki HM;Saka SK;Nguyen SC;Wu CT;Yin P
FISH enables researchers to visualize the subcellular distribution of RNA and DNA molecules in individual cells. The recent development of FISH methods employing probes composed of synthetic DNA oligonucleotides (oligos) allows researchers to tightly control aspects of probe design such as binding energy and genomic specificity. Although oligo FISH probes are central to many recently developed massively multiplexed and superresolution imaging methods, no dedicated computational utility exists to facilitate the design of such probes on the genome-wide scale. Here, we introduce a streamlined pipeline for the rapid, genome-scale design of oligo FISH probes and validate our approach by using conventional and superresolution imaging. Our method provides a framework with which to design oligo-based hybridization experiments. Oligonucleotide (oligo)-based FISH has emerged as an important tool for the study of chromosome organization and gene expression and has been empowered by the commercial availability of highly complex pools of oligos. However, a dedicated bioinformatic design utility has yet to be created specifically for the purpose of identifying optimal oligo FISH probe sequences on the genome-wide scale. Here, we introduce OligoMiner, a rapid and robust computational pipeline for the genome-scale design of oligo FISH probes that affords the scientist exact control over the parameters of each probe. Our streamlined method uses standard bioinformatic file formats, allowing users to seamlessly integrate new and existing utilities into the pipeline as desired, and introduces a method for evaluating the specificity of each probe molecule that connects simulated hybridization energetics to rapidly generated sequence alignments using supervised machine learning. We demonstrate the scalability of our approach by performing genome-scale probe discovery in numerous model organism genomes and showcase the performance of the resulting probes with diffraction-limited and single-molecule superresolution imaging of chromosomal and RNA targets. We anticipate that this pipeline will make the FISH probe design process much more accessible and will more broadly facilitate the design of pools of hybridization probes for a variety of applications.
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影响因子:
38.3
作者:
通讯作者:
--
影响因子:
12.3
作者:
Carpenter AE;Jones TR;Lamprecht MR;Clarke C;Kang IH;Friman O;Guertin DA;Chang JH;Lindquist RA;Moffat J;Golland P;Sabatini DM
通讯作者:
Sabatini DM
DOI:
10.1093/bioinformatics/btp163
发表时间:
2009-06-01
期刊:
Bioinformatics (Oxford, England)
影响因子:
--
作者:
Cock PJ;Antao T;Chang JT;Chapman BA;Cox CJ;Dalke A;Friedberg I;Hamelryck T;Kauff F;Wilczynski B;de Hoon MJ
通讯作者:
de Hoon MJ
影响因子:
48
作者:
Bienko, Magda;Crosetto, Nicola;Teytelman, Leonid;Klemm, Sandy;Itzkovitz, Shalev;van Oudenaarden, Alexander
通讯作者:
van Oudenaarden, Alexander
影响因子:
56.9
作者:
Femino, A;Fay, FS;Singer, RH
通讯作者:
Singer, RH