Additional file 4: Fig. 4. Motif analysis in Can peaks. Top three motifs found by DREME [24] in Can binding sites are shown. Below is the analysis of the top-most motif identified by TomTom software [40]. This motif perfectly matches the motifs of Achi and Vis
Additional file 5: Table 1. The lists of testis- and ovary-specifically expressed genes used in this...
A key step in understanding gene regulation is to identify the repertoire of transcription factor bi...
Additional file 3: Fig. 3. DamID of Comr in mip40 mutants. Comr is unable to bind the chromosomes in...
Additional file 19: Fig. 15. Motif analysis in shared peaks of Mip40 and Mip130. Top three motifs fo...
Additional file 2: Fig. 2 Coincidence of peaks of Can, Comr, and Mip40. Euler diagram represents the...
Additional file 1: Fig. 1. Can, Mip40, Comr, and CG9879 tend to co-localize in the genome. A Can pea...
Additional file 22: Fig. 18. Example of Can DamID data. Red profile—raw reads from Dam-Can sample. B...
Additional file 6: Fig. 5. Averaged DamID profiles of Can, Comr, and Mip40 at the TSS of genes. The ...
Additional file 10: Fig. 8. Overlap between direct gene targets of Comr, Can, and Mip40
Additional file 9: Fig. 7. Binding of Can, Comr, and Mip40 to model genes referenced in earlier repo...
Additional file 8: Fig. 6. DamID signal at the TSSs of genes regulated by Comr, Can, and Mip40. Usin...
Additional file 21: Fig. 17. Performance of peak calling algorithm illustrated by Can DamID data. A ...
Additional file 13: Fig. 10. Averaged DamID profile of CG9879 at the TSS of genes. The genes having ...
Additional file 16: Fig. 12. Overlap of Mip40 peak sets in bam, aly, and can mutants. Euler diagram ...
Additional file 18: Fig. 14. Coincidence of peaks of Mip130, Comr, and Mip40. Euler diagram represen...
Additional file 5: Table 1. The lists of testis- and ovary-specifically expressed genes used in this...
A key step in understanding gene regulation is to identify the repertoire of transcription factor bi...
Additional file 3: Fig. 3. DamID of Comr in mip40 mutants. Comr is unable to bind the chromosomes in...
Additional file 19: Fig. 15. Motif analysis in shared peaks of Mip40 and Mip130. Top three motifs fo...
Additional file 2: Fig. 2 Coincidence of peaks of Can, Comr, and Mip40. Euler diagram represents the...
Additional file 1: Fig. 1. Can, Mip40, Comr, and CG9879 tend to co-localize in the genome. A Can pea...
Additional file 22: Fig. 18. Example of Can DamID data. Red profile—raw reads from Dam-Can sample. B...
Additional file 6: Fig. 5. Averaged DamID profiles of Can, Comr, and Mip40 at the TSS of genes. The ...
Additional file 10: Fig. 8. Overlap between direct gene targets of Comr, Can, and Mip40
Additional file 9: Fig. 7. Binding of Can, Comr, and Mip40 to model genes referenced in earlier repo...
Additional file 8: Fig. 6. DamID signal at the TSSs of genes regulated by Comr, Can, and Mip40. Usin...
Additional file 21: Fig. 17. Performance of peak calling algorithm illustrated by Can DamID data. A ...
Additional file 13: Fig. 10. Averaged DamID profile of CG9879 at the TSS of genes. The genes having ...
Additional file 16: Fig. 12. Overlap of Mip40 peak sets in bam, aly, and can mutants. Euler diagram ...
Additional file 18: Fig. 14. Coincidence of peaks of Mip130, Comr, and Mip40. Euler diagram represen...
Additional file 5: Table 1. The lists of testis- and ovary-specifically expressed genes used in this...
A key step in understanding gene regulation is to identify the repertoire of transcription factor bi...
Additional file 3: Fig. 3. DamID of Comr in mip40 mutants. Comr is unable to bind the chromosomes in...