生物
核糖核酸
寡核苷酸
基因
计算生物学
原位
基因表达
原位杂交
引导RNA
分子生物学
DNA微阵列
管家基因
遗传学
信使核糖核酸
核酸
多路复用
非编码RNA
RNA编辑
DNA
长非编码RNA
核酸热力学
互补DNA
低聚物限制
核糖体RNA
多路复用
小RNA
细胞生物学
基因表达谱
细胞
分子探针
亚细胞定位
微阵列
深度测序
杂交探针
作者
Songlei Liu,Sukanya Punthambaker,Eswar Prasad R. Iyer,Thomas C. Ferrante,Daniel Goodwin,Daniel Fürth,A Pawłowski,Kunal Jindal,Jenny M. Tam,Lauren Mifflin,Shahar Alon,Anubhav Sinha,Asmamaw T. Wassie,Fei Chen,A. H. Cheng,Valerie Willocq,Katharina Meyer,King‐Hwa Ling,Conor K. Camplisson,Richie E. Kohman
摘要
Abstract We present barcoded oligonucleotides ligated on RNA amplified for multiplexed and parallel insitu analyses (BOLORAMIS), a reverse transcription-free method for spatially-resolved, targeted, in situ RNA identification of single or multiple targets. BOLORAMIS was demonstrated on a range of cell types and human cerebral organoids. Singleplex experiments to detect coding and non-coding RNAs in human iPSCs showed a stem-cell signature pattern. Specificity of BOLORAMIS was found to be 92% as illustrated by a clear distinction between human and mouse housekeeping genes in a co-culture system, as well as by recapitulation of subcellular localization of lncRNA MALAT1. Sensitivity of BOLORAMIS was quantified by comparing with single molecule FISH experiments and found to be 11%, 12% and 35% for GAPDH, TFRC and POLR2A, respectively. To demonstrate BOLORAMIS for multiplexed gene analysis, we targeted 96 mRNAs within a co-culture of iNGN neurons and HMC3 human microglial cells. We used fluorescence in situ sequencing to detect error-robust 8-base barcodes associated with each of these genes. We then used this data to uncover the spatial relationship among cells and transcripts by performing single-cell clustering and gene–gene proximity analyses. We anticipate the BOLORAMIS technology for in situ RNA detection to find applications in basic and translational research.
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