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. 2023 Feb 2;24(3):2943. doi: 10.3390/ijms24032943

Table 1.

Comparison of different ScRNA-Seq technology approaches.

Platform Name Separation Method Amplification Method Using UMI Amplification Range Advantages Disadvantages Release Date References
VASA-seq FANS PCR YES All transcripts Low cost and accurate dosing / 2022 [10]
Smart-seq3 Microfluidics PCR YES 5′ end High sensitivity Time-consuming 2020 [11,12]
DNBelabC4 Microfluidics PCR YES All transcripts Precise quantification / 2019 [13]
Seq-Well Microfluidics PCR YES 3′ end Low cost and precise quantification Unsuitable for variable splicing and allelic expression 2017 [14]
MATQ-seq FACS PCR YES All transcripts Precise quantification Low cell throughput 2017 [15]
10× Genomics Microfluidics PCR YES 3′ end High cell capture efficiency, fast cycle time, high cell suitability, and reproducibility Sequencing can be performed only for the 3′ end 2016 [16]
Cyto-Seq Microfluidics PCR YES 3′ end Low cost and high throughput Cross-contamination between RNAs 2015 [17]
SC3-seq Micromanipulation PCR YES 3′ end Good reproducibility and accurate quantification Recognize DNA at the 3′ end 2015 [18]
inDrop-seq Microfluidics IVT YES 3′ end Low cost and linear amplification Long operating time and high initial cell concentration 2015 [19]
Drop-seq Microfluidics PCR YES 3′ end Low cost and high throughput Low cell capture rate 2015 [20]
MARS-seq FACS IVT YES 3′ end High specificity Low amplification efficiency 2014 [21]
STRT-seq Microfluidics PCR NO All transcripts Accurate positioning of transcripts at the 5′ end to reduce amplification bias Low sensitivity, only available for identification of 5′ end DNA 2014 [22,23]
Quartz-seq FACS PCR YES 3′ end High sensitivity, reproducibility, and operational simplicity Higher noise levels 2013 [24]
Fluidigm C1 Microfluidics PCR NO All transcripts Simple process High cost and low throughput 2013 [25]
Smart-seq2 FACS PCR NO All transcripts Full-length cDNA detects structural and RNA shear variants High cost, low throughput, and time-consuming 2013 [13,26]
Smart-seq FACS PCR NO All transcripts High sensitivity to reduce the rates of nucleic acid loss Low throughput and the existence of transcript length bias 2012 [22]
CEL-seq FACS IVT YES 3′ end Good reproducibility and highly sensitive Low throughput and amplification efficiency, library biased toward the 3′ end of the gene 2012 [27]
Tang-2009 FACS PCR NO 3′ end Good reproducibility High cost and low throughput 2009 [9]