Table 3.
“De Novo” A>I(G)-RNA-Edited Sites | ||
---|---|---|
Method | Observations | Ref. |
Sanger sequencing | Accurate, but very tedious to compare DNA and RNA. | [89] |
Comparative genomics | - | [91] |
Biochemical method (Inosine) | - | [92] |
Inosine Chemical Erasing (ICE) sequencing | Many false positives. | [93,94] |
eEndoV and hEndoV | To isolate and enrich edited transcripts in RNA before sequencing, optimizing the coverage of editing sites with low expression levels. | [95,96] |
Slic-seq | RNase T1 + hEndoV + EndoVIPER-seq. | [97] |
NGS and RNA-seq | Identification with high throughput. Requires meticulous methods to separate authentic from false results. | [98,99,100] |
mmPCR-seq | Measures RNA-editing levels in samples with low expression levels. Complements RNA-seq. | [101] |
Third-generation sequencing (L-GIREMI, PacBio, and ONT) |
Identifies RNA-editing sites in long-read RNA-seq data. | [105,107] |
Specific A>I(G)-RNA-edited sites | ||
Method | Observations | Ref. |
RESSq-PCR | Rapid and cost-effective method and compatible with qRT-PCR SYBR. Requires highly sensitive primer design strategies. |
[102] |
Padlock Probe + RCA | PCR and in situ hybridization. Requires the design of a panel of barcoded padlock probes to examine specifics editing RNA sites changes. Allows spatiotemporal resolution on cells or tissues. |
[103,104] |