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. Author manuscript; available in PMC: 2023 Dec 27.
Published in final edited form as: Compr Physiol. 2016 Sep 15;6(4):1851–1872. doi: 10.1002/cphy.c160003

Table 1.

Techniques for Measuring the Transcriptome, Proteome, Transcription, and Translation

Technique Pros

RNA abundance Microarray Inexpensive standardized
RNA-seq Measure unknown RNAs absolute quantitation
SAGE RNA-seq for 3′-UTR
CAGE RNA-seq for 5′-UTR
Single-cell RNA-seq Capture intercellular heterogeneity
RNA splicing RNA-Pet
TIF-seq
Identify splice-junctions and allele differences
Long-read single-molecule Real-time sequencing Capture splicing and allele data
MapSplice
SpliceMap
Identify splice junctions from RNA-seq data
HMMsplicer
MISO
MATS
Quantify alternatively spliced genes
SpliceR
Transcription GRO-seq Quantify nascent RNAs
PAR-CLIP
iCUP
Snapshot of transcribed RNAs (protein bound)
Translation Ribo-seq Snapshot of translated RNAs (ribosome bound)
Protein species and abundance 2D-PAGE Provide visual display
Shotgun, bottom-up LC/MS/MS Easy to implement Measure many proteins
MRM Quantify known subset of proteins
SWATH Combine accurate quantitation with depth
SILAC Precise quantitation
iTRAQ Isobaric label Greater multiplexing
Dimethyl-labeling Least expensive, most amenable label
Label-free quantitation Amenable to many experimental workflows