4.8 Article

ClampFISH 2.0 enables rapid, scalable amplified RNA detection in situ

Journal

NATURE METHODS
Volume 19, Issue 11, Pages 1403-+

Publisher

NATURE PORTFOLIO
DOI: 10.1038/s41592-022-01653-6

Keywords

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Funding

  1. National Institutes of Health (NIH) [P30 AR069619, P30 CA010815, F30 CA236129, T32 GM007170, T32 HG000046, F30 HG010822, T32 DK007780, K00-CA-212437-02, 4DN U01 HL129998, 4DN U01DK127405]
  2. Career Award at the Scientific Interface from BWF
  3. Schmidt Science Fellowship
  4. Rhodes Trust
  5. Chan Zuckerberg Initiative
  6. Dr Miriam and Sheldon G. Adelson Medical Research Foundation
  7. NIH Center for Photogenomics [RM1 HG007743]
  8. Penn Epigenetics Institute
  9. Melanoma Research Alliance
  10. NIH Director's Transformative Research Award [R01 GM137425]
  11. [R01CA174746]
  12. [R01CA207935]
  13. [P01 CA114046]
  14. [5-U2C-CA-233285-04]

Ask authors/readers for more resources

clampFISH 2.0 is an efficient method for detecting multiple RNA species and amplifying signals simultaneously, enabling the detection of 10 different RNA species in over 1 million cells and also applicable to tissue sections.
RNA labeling in situ has enormous potential to visualize transcripts and quantify their levels in single cells, but it remains challenging to produce high levels of signal while also enabling multiplexed detection of multiple RNA species simultaneously. Here, we describe clampFISH 2.0, a method that uses an inverted padlock design to efficiently detect many RNA species and exponentially amplify their signals at once, while also reducing the time and cost compared with the prior clampFISH method. We leverage the increased throughput afforded by multiplexed signal amplification and sequential detection to detect 10 different RNA species in more than 1 million cells. We also show that clampFISH 2.0 works in tissue sections. We expect that the advantages offered by clampFISH 2.0 will enable many applications in spatial transcriptomics. ClampFISH 2.0 enables highly specific multiplexed signal amplification in RNA FISH. The approach was used to detect 10 RNA species that ranged in abundance in more than 1 million cells and is also applicable to tissue sections.

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