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] |