Table 1.
Chromosome | Validated | Predicted | Found | Recall (%) | Precision (%) |
---|---|---|---|---|---|
Chromosome 1 | 41 Alu | 42 Alu | 40 | 88 | 95 |
4 NCAI | |||||
Chromosome 2 | 59 Alu | 57 Alu | 56 | 91 | 98 |
2 NCAI | |||||
Chromosome 3 | 42 Alu | 40 Alu | 40 | 90 | 100 |
1 NCAI | |||||
1 SVA | |||||
Chromosome 4 | 43 Alu | 41 Alu | 40 | 87 | 97 |
4 NCAI | 1 NCAI | 1 | |||
Chromosome 5 | 39 Alu | 44 Alu | 35 | 90 | 80 |
1 SVA | 1 SVA | 1 | |||
Chromosome 6 | 59 Alu | 55 Alu | 53 | 88 | 96 |
1 NCAI | |||||
1 SVA | 1 SVA | 1 | |||
Chromosome 7 | 24 Alu | 22 Alu | 20 | 83 | 91 |
Chromosome 8 | 34 Alu | 33 Alu | 33 | 92 | 100 |
2 NCAI | |||||
Chromosome 9 | 23 Alu | 23 Alu | 21 | 88 | 92 |
1 NCAI | 1 NCAI | 1 | |||
1 SVA | |||||
Chromosome 10 | 33 Alu | 32 Alu | 32 | 94 | 100 |
2 NCAI | 1 NCAI | 1 | |||
Chromosome 11 | 35 Alu | 32 Alu | 32 | 85 | 100 |
3 NCAI | 1 NCAI | 1 | |||
2 SVA | 1 SVA | 1 | |||
Chromosome 12 | 33 Alu | 34 Alu | 31 | 84 | 91 |
4 NCAI | |||||
Chromosome 13 | 34 Alu | 34 Alu | 34 | 90 | 100 |
3 NCAI | |||||
2 SVA | 1 SVA | 1 | |||
Chromosome 14 | 19 Alu | 20 Alu | 19 | 95 | 95 |
1 NCAI | |||||
2 SVA | 2 SVA | 2 | |||
Chromosome 15 | 24 Alu | 21 Alu | 20 | 83 | 95 |
Chromosome 16 | 12 Alu | 12 Alu | 12 | 80 | 100 |
3 NCAI | 1 NCAI | 1 | |||
Chromosome 17 | 9 Alu | 9 Alu | 9 | 77 | 100 |
2 NCAI | |||||
2 SVA | 1 SVA | 1 | |||
Chromosome 18 | 22 Alu | 21 Alu | 20 | 91 | 95 |
Chromosome 19 | 11 Alu | 11 Alu | 11 | 80 | 100 |
3 NCAI | 1 NCAI | 1 | |||
1 SVA | |||||
Chromosome 20 | 11 Alu | 13 Alu | 9 | 77 | 71 |
2 NCAI | 1 NCAI | 1 | |||
Chromosome 21 | 7 Alu | 7 Alu | 7 | 100 | 100 |
Chromosome 22 | 7 Alu | 5 Alu | 5 | 71 | 100 |
We show the precision and recall rates of our mobile element (Alu, NCAI and SVA) insertion discovery. We compare our mobile element insertion predictions with both (Xing et al., 2009) and the HuRef genome assembly (Levy et al., 2007). The results demonstrate that our algorithm has a high recall and precision rate.