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. 2021 Dec 7;20:26–39. doi: 10.1016/j.csbj.2021.12.001

Table 1.

Read alignment and Data visualization Tools.

S.No Tools Advantages Disadvantages References
1 BatMeth2 Indel-sensitive mapping Removes some parts of reads (soft-clipping) [129]
2 BSMAP Good performance and flexibility due to seeding and hashing Can detect indels with length less than 3 nucleotides only [130]
3 Bismark Flexible, easy to use and interpret Increased run time [131]
4 BS-Seeker2 Supports both local and gapped alignments Local alignment leads to longer CPU times [132]
5 BWA-meth Direct useable output, less storage requirements doesn’t facilitate data visualization, only supports 3-letter alignment mode [133]
6 BSmooth Ability to handle low coverage experimental data Assumes methylation profiles to be smooth, not able to detect single CpG sites [134]
7 MethylCoder Allows fast and sensitive mapping in both color and nucleotide space Uses only short read aligners [135]
8 Segemehl Efficiently handles 3’ and 5’ contaminants along with mismatches and indels Large memory requirements [136]
9 GSNAP SNP tolerant alignment, splicing and multiple mismatches can be detected Might be slow for long positions [137]
10 BRAT-BW Runs faster on longer reads Allows at most one mismatch in user defined reads [138]
11 ERNE-BS5 Analysis of methylation pattern at repeats, skillfully handles multiple mapping reads Chances of false positives are higher [139]
12 GEM3 Exhaustive search model, fast, scalable, and gapped matches can also be found some pruning methods are sensitive to mismatches [140]
13 Last High sensitivity and speed Requires removal of poor quality bases [141]
14 Msuite supports bisulfite-free techniques,4-letter mode of alignment and computationally less expensive analysis on irregular CpG sites needs additional validation [142]
15 TAMeBS Filters ambiguous read alignments and reduces bias in context of methylated cytosines Memory requirements and running time are high [143]