The name of the alphabet symbol.

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The frequency of the alphabet symbol as defined by the background model.

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CentriMo outputs a tab-separated values (TSV) file ('centrimo.tsv') that contains one line for each region found to be significantly enriched for a motif. The lines are sorted in order of decreasing statistical significance. The first line in the file contains the (tab-separated) names of the fields. Your command line is given at the end of the file in a comment line starting with the character '#'. The names and meanings of each of the fields, which depend on whether or not you provide control sequences to CentriMo, are described in the table below.

field name contents
1 db_index The index of the motif file that contains the motif. Motif files are numbered in the order the appeared in the command line.
2 motif_id The name of the motif, which is unique in the motif database file. If more than one motif has the same ID, CentriMo uses only the first such motif. The name is single-quoted and preceded with '+' or '-' if you scanned separately with the reverse complement motif (using the --sep option).
3 motif_alt_id An alternate name for the motif that may be provided in the motif database file.
4 consensus A consensus sequence computed from the motif (as described below).
5 E-value The expected number motifs that would have at least one region as enriched for best matches to the motif as the reported region (or would have optimal average distance to the sequence center as low as observed, if you used the --cd option). The E-value is the adjusted p-value multiplied by the number of motifs in the input files(s).
6 adj_p-value The statistical significance of the enrichment of the motif, adjusted for multiple tests. By default, a p-value is calculated by using the one-tailed binomial test on the number of sequences with a match to the motif that have their best match in the reported region; if you provided control sequences, the p-value of Fisher's exact test on the enrichment of best matches in the positive sequences relative to the negative sequences is computed instead; if you used the --cd option, the p-value is the probability that the average distance between the best site and the sequence center would be as low or lower than observed, computed using the cumulative Bates distribution, optimized over different score thresholds. In all cases, the reported p-value has been adjusted for the number of regions and/or score thresholds tested.
7 log_adj_p-value Log of adjusted p-value.
8 bin_location Location of the center of the most enriched region, or 0 if you used the --cd option.
9 bin_width The width (in sequence positions) of the most enriched region (default), or two times the average distance between the center of the best site and the sequence center if you used the option --cd. A best match to the motif is counted as being in the region if the center of the motif falls in the region.
10 total_width The maximum number of regions possible for this motif
   round(sequence_length - motif_length + 1)/2,
or the number of places the motif will fit if you used the --cd option.
11 sites_in_bin The number of (positive) sequences whose best match to the motif falls in the reported region (default) or anywhere in the sequence (if you used the option --cd).
Note: This number may be less than the number of (positive) sequences that have a best match in the region. The reason for this is that a sequence may have many matches that score equally best. If n matches have the best score in a sequence, 1/n is added to the appropriate bin for each match.
12 total_sites The number of sequences containing a match to the motif above the score threshold.
13 p_success The probability of a random match falling into the enriched region:
   bin_width / total_width
14 p-value The uncorrected p-value before it gets adjusted for the number of multiple tests to give the adjusted p-value.
15 mult_tests This is the number of multiple tests (n) done for this motif. It was used to adjust the p-value of a region for multiple tests using the formula:
   p' = 1 - (1-p)n where p is the unadjusted p-value.
The number of multiple tests is the number of regions considered times the number of score thresholds considered. It depends on the motif length, sequence length, and the type of optimizations being done (central enrichment, local enrichment, central distance or score optimization).
The following additional columns are present when you provide control sequences to CentriMo (using the --neg option).
16 neg_sites_in_bin The number of negative sequences where the best match to the motif falls in the reported region. This value is rounded but the underlying value may contain fractional counts. Note: This number may be less than the number of negative have a best match in the region. The reason for this is that a sequence may have many matches that score equally best. If n matches have the best score in a sequence, 1/n is added to the appropriate bin for each match.
17 neg_sites The number of negative sequences containing a match to the motif above the minimum score threshold. When score optimization is enabled the score threshold may be raised higher than the minimum.
18 neg_adj_pvalue The probability that any tested region in the negative sequences would be as enriched for best matches to this motif according to the Binomial test.
19 log_neg_adj_pvalue Log of negative adjusted p-value.
20 fisher_adj_pvalue Fisher adjusted p-value before it gets adjusted for the number of motifs in the input files(s).
21 log_fisher_adj_pvalue Log of Fisher adjusted p-value.

A consensus sequence is constructed from each column in a motif's frequency matrix using the "50% rule" as follows:

  1. The letter frequencies in the column are sorted in decreasing order.
  2. Letters with frequency less 50% of the maximum are discarded.
  3. The letter used in this position in the consensus sequence is determined by the first rule below that applies:
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CentriMo outputs a text file ('site_counts.txt') that contains, for each motif, pairs of values (bin_position, site_count), or triples of values (bin_position, site_count, neg_site_count) if you provided control sequences to CentriMo. This data can be used to plot the density of motif best matches (sites) along the input sequences. Fractional counts are possible if multiple (n) bins contain the best match for a given sequence, with each bin receiving an incremental count of 1/n.

The data for each motif begins with a header line with the format:
   DB <db_number> MOTIF <id> <alt>
where <id> and <alt> are as described above. The following lines (up to the next header line) each contain a single value-pair or value-triple for the motif named in the header line.

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Each "motif probability curve" shows the (estimated) probability of the best match to a given motif occurring at a given position in the input sequences. This estimated probability is based only on sequences that contain at least one match with score above than the score threshold defined for this motif, and is the maximum likelihood estimate of the conditional probability shown below.

Points (X,Y) on the plot are:
  Y = Pr(best match occurs at position X | sequence contains a match)

Note: The plots are smoothed according to the function selected from the "Smoothing" menu on the right. Setting the smoothing window size to 1 turns off smoothing.

If a negative dataset has been supplied then two curves are drawn for each motif, one for each dataset. The distribution of the motif in the primary dataset is plotted with a single unbroken curve, whereas the distribution in the negative dataset is plotted with a dashed curve.

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This shows a listing of all motifs currently plotted on the graph.

The color used to plot a motif can be changed by clicking on the color swatch next to the motif you want to change, followed by clicking on the color swatch you wish to swap it with.

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These are extra colors you may use for plotting motifs.

Click on the color swatch next to one of the above motifs, then click on one of these "unused color" swatches to change the color of the motif's plot.

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These options change the display of the graph.

Smoothing:

Allows selection of the smoothing function applied to the graph.

The weighted moving average option uses weights shaped as an isosceles triangle where the central point (or points in an even sized window) get the maximum weight.

The moving average simply weights all points in the smoothing window equally.

Note: Setting the smoothing window size to 1 turns off smoothing.

Window

The window size used to smooth the graph. The larger the smoothing window size, the smoother the graph, at the cost of hiding detail.

Below a smoothing window size of 10, thinner lines are used on the graph to allow more detail to be visible.

Note: Remember to press "return" or "enter" after changing the number in the input box in order to see the effect of the new smoothing window size.

Legend

Choose to display/disable the on-graph legend. The legend can be moved by clicking on the graph.

Negative Sequences

Choose whether to plot the motif probability curve(s) for the negative sequences (if provided). The curve(s) are plotted as dashed lines, using the same color as the corresponding curve for the positive sequences.

Zoom
Drag a range on the graph to zoom into that section. Clicking "Undo Zoom" will return the view to the previously displayed part of the graph and clicking "Center on 0" will move the view so 0 is in the center.
Download EPS

Download the graph that you are currently viewing as an encapsulated postscript (EPS) image. EPS images are scalable making them suitable for publication.

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List only enriched motifs that meet the selected filter criteria below.

Selected motifs are always listed; deselect all motifs first by clicking on the "X" above the color swatches if you wish to filter all motifs.

To filter on "ID" or "Name", you can enter any Javascript regular expression pattern. See here for documentation on Javascript regular expression patterns.

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Sorting is applied after filtering where possible (the exception being the "Top" filter) so the filters applied will affect the sort. You can choose the motif sorting feature using the "Motifs:" menu.

If CentriMo is searching for locally enriched regions (not just centrally enriched regions), then multiple regions may be found per motif, and the "Regions:" menu will also be displayed. In this case, CentriMo first sorts all regions using the feature shown in the "Regions:" menu, and then it sorts the highest-ranked region of each motif according to the feature shown in the "Motifs:" menu.

Unless you check the box next to the "Regions:" menu, it will automatically show the same feature as the "Motifs:" menu (or "E-value" if a motif-only feature is chosen in the "Motifs:" menu).

Note:The motif p-value shown in the plot legend will always be for the region with the lowest p-value, and therefore may not match the value shown in the table "p-value" column when the "Regions:" menu is not set to "p-value".

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The name of a file of motifs ("motif database file") that contains motif.

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The name of the motif, which is unique in the motif database file.

If more than one motif has the same ID, CentriMo uses only the first such motif.

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An alternate name for the motif that may be provided in the motif database file.

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A consensus sequence is constructed from each column in a motif's frequency matrix using the "50% rule" as follows:

  1. The letter frequencies in the column are sorted in decreasing order.
  2. Letters with frequency less 50% of the maximum are discarded.
  3. The letter used in this position in the consensus sequence is determined by the first rule below that applies:
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The expected number motifs that would have least one region as comparatively enriched for best matches to the motif as the reported region in the positive sequences compared with the negative sequences.

The Fisher E-value is the (one-sided) p-value of the one-sided Fisher's exact test that at least as many best matches in the region in the positive sequences that contain at least one match, multiplied by the number of motifs in the input database(s). The Fisher's exact test p-value is corrected for the number of regions and score thresholds tested ("Multiple Tests").

Fisher's exact test assumes that the probability that the best match (if any) falls into a given region is the same for all positive and negative sequences.

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The statistical significance of the enrichment of the motif, adjusted for multiple tests.

The enrichment p-value of a motif is calculated by using the one-tailed binomial test on the number of sequences with a match to the motif ("Sequence Matches") that have their best match in the reported region ("Region Matches"), corrected for the number of regions and score thresholds tested ("Multiple Tests"). The test assumes that the probability that the best match in a sequence falls in the region is the region width divided by the number of places a motif can align in the sequence (sequence length minus motif width plus 1).

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The expected number motifs that would have at least one region as enriched for best matches to the motif as the reported region. The E-value is the adjusted p-value multiplied by the number of motifs in the input files(s).

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The Matthew's Correlation Coefficient (MCC) gives a measure of the ability of the motif to discriminate the positive sequences from the negative sequences:

MCC = [TP*TN - FP*FN] / [(TP + FP) * (TP + FN) * (TN + FP) * (TN + FN)]
where
TP is the number of positive sequences with a best match in the reported region,
FP is the number of negative sequences with a best match in the reported region,
TN is the number of negative sequences without a best match in the reported region, and
FN is the number of positive sequences without a best match in the reported region.

MCC ranges from -1 to +1, where a +1 result indicates that the occurrence of the best match to the motif in the reported region perfectly discriminates positive sequences from negative sequences.

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The width (in sequence positions) of the most enriched region (default), or two times the average distance between the center of the best site and the sequence center if you used the option --cd. A best match to the motif is counted as being in the region if the center of the motif falls in the region.

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The number of (positive) sequences whose best match to the motif is in the reported region.
Note: This number may be less than the number of (positive) sequences that have a best match in the region. The reason for this is that a sequence may have many matches that score equally best. If n matches have the best score in a sequence, 1/n is added to the appropriate bin for each match.

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The number of negative sequences where the best match to the motif falls in the reported region. This value is rounded but the underlying value may contain fractional counts.

Note: This number may be less than the number of negative have a best match in the region. The reason for this is that a sequence may have many matches that score equally best. If n matches have the best score in a sequence, 1/n is added to the appropriate bin for each match.

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The number of sequences containing a match to the motif above the score threshold ("Score Threshold").

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This is the score threshold (bits) for determining if a sequence contains a match to this motif.

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The number of negative sequences containing a match to the motif above the score threshold. When score optimization is enabled the score threshold may be raised higher than the minimum.

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The probability that any tested region in the negative sequences would be as enriched for best matches to this motif according to the Binomial test.

Use the filter to display only motifs differentially enriched in both datasets (low p-value and high negative p-value).

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The maximum probability that the best match occurs at any single sequence position. If the smoothing window size ("Window:", to right of graph) is set to "1", then this is value is the maximum value of the match-probability curve.

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Concentration is defined as the total probability of all the positions in the central region whose width is the same as the size of the "smoothing window". You can change the size of the smoothing window using the "Window:" input field in the Graph options section, above. (A value of "NaN" indicates that the smoothing window size is too large for the motif.)

The "concentration" of the motif sites in the central window can somtimes be more informative than the E-value. For example, in some ChIP-seq datasets, motifs for cofactors show more significant enrichment overall (smaller E-value), but are less concentrated in a small (20 to 50bp) window than the motif for the ChIP-ed transcription factor. In such cases, you may wish to sort the motifs by Concentration, using the Sort menu, below.

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This is the number of multiple tests (n) done for this motif. It was used to adjust the p-value of a region for multiple tests using the formula:
   p' = 1 - (1-p)n where p is the unadjusted p-value.
The number of multiple tests is the number of regions considered times the number of score thresholds considered. It depends on the motif length, sequence length, and the type of optimizations being done (central enrichment, local enrichment, central distance or score optimization).

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Location of the center of the most enriched region.

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The text box lists the sequence identifiers for sequences that have at least one of their best matches in the most significant region of all the selected motifs.

The "Intersection" subheading gives the number of identifiers in the text box and their percentage out of the total number of input sequences.

The "Union" subheading lists the number and percentage of sequences that have at least one of their best matches in the most significant region of any of the selected motifs and their percentage out of the total number of input sequences.

Note that the number of sequences with a match to a given motif in its best region may be larger than the value of "Region Matches". This is because a sequence may have multiple equally best matches and in that case a fractional match count is assigned to each of them when "Region Matches" is computed.

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When more than one significant, non-overlapping region is found, they can be shown (and hidden again) by clicking the arrow.

By default the regions are sorted by E-value, but this can be changed by the menu on the right of the page.

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Sequence position where the (unsmoothed) match-probability curve for this motif attains its maximum. Set the smoothing window size ("Window:", to right of graph) to "1" to see the unsmoothed match probability curve.

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For further information on how to interpret these results please access https://meme-suite.org/meme/doc/centrimo-output-format.html.
To get a copy of the MEME software please access https://meme-suite.org.

If you use CentriMo in your research, please cite the following paper:
Timothy L. Bailey and Philip Machanick, "Inferring direct DNA binding from ChIP-seq", Nucleic Acids Research, 40:e128, 2012. [Full Text]

Motif Probability Graph   |   Enriched Motifs   |   Input Files   |   Program information   |   Results in TSV Format 
  |   Sequence position vs. number of matches for each motif 

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Results

Motif Probability Graph (motif score ≥ 5

Options

Plotting 
MA0764.3
Unused Colors 
Graph 

Enriched motifs (E-value ≤ 10 using the binomial test )

Database 
ID 
Alt ID 
Consensus 
Concentration 
E-value 
Fisher E-value 
p-value 
Negative p-value 
MCC 
Region Center 
Region Width 
Region Matches 
Sequence Matches 
Negative Region Matches 
Negative Sequence Matches 
Max Probability 
Max Probability Location 
Multiple Tests 
Score Threshold 
Other Regions 
streme1-AGATMGGAAGAGVGDSTREME-1AGATMGGAAGAGVGD0.32352.4e-1751.1e-17801631910180.2790-7.51925.00e+0-
memeCBCTCTTCCKMTCTNMEME-1CBCTCTTCCKMTCTN0.26431.3e-1566.2e-16001431112350.2154-6.51925.00e+0-
jolma2013ELK1_DBD_1ACCGGAAGTD0.16633.7e-391.8e-420151469620.1174-71955.00e+0-
jolma2013ETV5_DBDACCGGAWGYN0.13851.7e-348.0e-3801517213900.0846-71955.00e+0-
jolma2013Elk3_DBDACCGGAAGTD0.19921.2e-335.7e-37015995220.1667-71955.00e+0-
jolma2013FEV_DBDACCGGAAGTN0.14835.5e-322.6e-3501514510900.0978-71955.00e+0-
jolma2013ELK1_full_1ACCGGAAGTD0.19511.1e-315.2e-35015975280.1553-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0759.2ELK3ACCGGAAGTRV0.26351.3e-316.2e-35016752960.2230-7.51945.00e+0-
jolma2013ETV1_DBDACCGGAAGTD0.14332.3e-311.1e-3401515011690.0933-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0645.1ETV6MSCGGAAGTR0.13961.8e-308.7e-3401515011960.0886-71955.00e+0-
jolma2013ETV4_DBDACCGGAAGTR0.13857.5e-303.6e-3301515512750.0860-71955.00e+0-
jolma2013ETV6_full_2MSCGGAAGTR0.13611.1e-285.5e-3201514912270.0863-71955.00e+0-
jolma2013ELK3_DBDACCGGAAGTD0.14431.0e-264.9e-300151289910.0918-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0764.3ETV4ACCGGAAGTR0.14359.5e-264.6e-290151229340.0910-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1952.1FOXJ2::ELF1RTAAACMGGAAGTR0.10942.6e-251.3e-2801114316460.0668-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1935.1ERF::FOXI1RTAAACMGGAARTR0.10831.8e-248.8e-2801114717550.0513-51935.00e+0-
uniprobe mouseUP00015_2Ehf_secondaryWWVDABTTCCKAWSWW0.11692.3e-241.1e-2701517016340.0777-71925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1931.1ELK1::HOXA1ACCGGAAGTAATTA0.23753.5e-241.7e-27019753200.1781-91935.00e+0-
jolma2013ERF_DBDACCGGAAGTR0.14085.1e-242.5e-270151209410.0962-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1942.1ETV2::FOXI1BGTAAACAGGAAGYR0.11612.9e-231.4e-2601011813700.0620-4.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0750.2ZBTB7ANVCCGGAAGTGSV0.12212.9e-211.4e-2401816413920.0690-7.51935.00e+0-
jolma2013ELK4_DBDACCGGAARTV0.13541.4e-206.5e-240151129230.0910-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0474.3ErgNNACAGGAAGTGVN0.11592.2e-201.1e-2301516216580.0600-71935.00e+0-
jolma2013GATA3_DBDWGATAASV0.08699.3e-194.5e-220912218380.0437-41965.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0062.3GABPANNCACTTCCTGTNN0.10921.2e-176.0e-2101516217630.0519-71935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1946.1ETV5::FOXI1GTAAACAGGAWGY0.11363.6e-171.7e-200109411180.0555-4.51935.00e+0-
jolma2013ETS1_DBD_1ACCGGAARTR0.12207.1e-173.4e-2001511310420.0788-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1642.1NEUROG2NNVACAGATGGNN0.08057.9e-163.8e-19046615430.0350-1.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0473.3ELF1RDVCAGGAAGTGVN0.10811.1e-155.1e-1901514816120.0583-71935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1708.1ETV7DGSCGGAAGTR0.10992.0e-159.6e-1901413815680.0565-6.51945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0761.2ETV1NNACAGGAAGTGNN0.10623.4e-151.7e-1801515216920.0505-71935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0037.4Gata3NHTCTTATCTNH0.08459.7e-154.6e-180911117630.0391-41945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1954.1FOXO1::ELK1RWMAACAGGAAGTD0.10251.6e-147.7e-180119611510.0591-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1725.1ZNF189NNTGCTGTTCCHB0.11424.1e-142.0e-1702419515720.0585-9.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0080.6Spi1RRAAAGAGGAAGTGGDD0.10321.0e-134.8e-1701413816240.0517-6.51915.00e+0-
jolma2013GATA5_DBDWGATAASR0.08222.1e-139.9e-170910918070.0391-41965.00e+0-
jolma2013ERG_DBD_1ACCGGAARTV0.11202.1e-139.9e-1701511011070.0650-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1992.1Ikzf3NNRCAGGAAGTGGVN0.10401.3e-126.2e-1601816316740.0490-7.51925.00e+0-
jolma2013FLI1_DBD_1ACCGGAARTV0.11063.5e-121.7e-1501510610800.0653-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1467.2Atoh1RVCAGATGGYN0.08173.8e-121.8e-15067314570.0398-2.51945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0081.2SPIBTYTCACTTCCTCTTTY0.10286.1e-122.9e-1501714515250.0518-71925.00e+0-
jolma2013GATA4_DBDWGATAASV0.07841.7e-118.0e-150910618310.0361-41965.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1955.1FOXO1::ELK3RWMAACAGGAAGTN0.10641.7e-118.2e-15011758610.0581-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1109.1NEUROD1NRACAGATGGYNN0.07561.4e-106.8e-14066914150.0332-2.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0668.2Neurod2NNGRACAGATGGYNN0.07021.3e-96.1e-13045313970.0308-1.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1968.1TFCP2AAACCGGTTY0.07219.7e-94.7e-1201218490.024701955.00e+0-
jolma2013TFCP2_full_1AAACCGGTTY0.07131.6e-87.8e-1201218720.024101955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1982.1ZNF574VGSCTAGAGMGGCCS0.12532.4e-81.2e-1106447260.0399-2.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0765.3ETV5ACCGGAAGTR0.15086.6e-83.1e-11015453250.1046-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0098.3ETS1ACCGGAARTR0.10301.4e-76.8e-11015889770.0595-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1970.1TRPS1NHTCTTATCTNH0.07591.6e-77.6e-11099217130.0298-41945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0076.2ELK4BCRCTTCCGGB0.10921.9e-79.3e-11018878060.0571-7.51945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1638.1HAND2NVCAGATGNN0.09562.3e-71.1e-1005407900.0418-21955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0028.2ELK1ACCGGAAGTR0.14792.7e-71.3e-10015453380.1006-71955.00e+0-
uniprobe mouseUP00085_1Sfpi1_primaryNDAWGVGGAAGTDN0.08414.1e-72.0e-1001513217410.0370-61935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0760.1ERFACCGGAAGTR0.10518.2e-74.0e-10015808750.0629-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0156.3FEVVACCGGAAGTVV0.13981.6e-67.6e-10015453540.1017-71945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1950.1FLI1::FOXI1RTAAACAGGAARYN0.08283.9e-61.9e-90118613460.0409-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0056.2MZF1NNAATCCCCANNN0.06924.6e-62.2e-9023415900.01510.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0598.3EHFNNCACTTCCTGTTNN0.08936.6e-63.2e-901613116900.0337-6.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1655.1ZNF341NRGAACAGCCNN0.09337.2e-63.4e-902316416070.0423-101945.00e+0-
jolma2013GATA3_fullWGATAASV0.07638.6e-64.2e-9099218640.0276-41965.00e+0-
uniprobe mouseUP00013_1Gabpa_primaryMNWWACCGGAAGTDNNN0.10838.7e-64.2e-9014636740.0668-6.51915.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1944.1ETV5::DRGXRSMGGAAGYAATTA0.10241.2e-55.6e-901910610870.0451-91935.00e+0-
jolma2013ELK1_DBD_2ACCGGAAGTR0.12931.7e-58.3e-9015474100.0878-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0111.1Spz1AGGGTWWCAGC0.08782.3e-51.1e-801611714860.0330-7.51945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1713.1ZNF610SSCGCCGCTCCSSS0.05931.1e-45.1e-80431236240.0449-121935.00e+0-
jolma2013SPIB_DBDRAAAAGMGGAAGTD0.09581.2e-45.6e-8013576680.0449-51935.00e+0-
uniprobe mouseUP00232_1Dobox4_3956.2HWAWTAGATACCCYWTD0.07571.3e-46.2e-808559980.0200-1.51915.00e+0-
jolma2013HSFY2_DBD_3TTCGAAHSRTTCGAA0.07832.9e-41.4e-704297020.0128-0.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1104.2GATA6HWWTCTTATCTNH0.07191.1e-35.3e-70108416130.0242-4.51935.00e+0-
jolma2013GABPA_fullACCGGAAGTR0.10091.4e-36.5e-7015616940.0533-71955.00e+0-
jolma2013ETV3_DBDACCGGAAGTR0.08372.5e-31.2e-60159212480.0377-71955.00e+0-
uniprobe mouseUP00032_1Gata3_primaryBDWDDAKAGATAAGARWTDARD0.08022.6e-31.2e-6095710230.0362-41895.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0092.1Hand1::Tcf3BRTCTGGMWT0.06592.6e-31.2e-6012218480.011901955.00e+0-
uniprobe mouseUP00190_1Nkx2-3_3435.1YYTTAAGTACTTAAHR0.06072.8e-31.3e-601169390.0181171925.00e+0-
jolma2013ERG_full_1ACCGGAARTR0.09203.0e-31.4e-6015739080.0474-71955.00e+0-
jolma2013ETS1_full_1ACCGGAARYV0.08834.5e-32.2e-60158411160.0417-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0869.2Sox11NRGAACAAAGVV0.08626.9e-33.3e-602115317720.012461945.00e+0-
uniprobe mouseUP00153_1Pitx1_2312.1HKRRRGGGATTAAMDAN0.07497.4e-33.5e-604319080.0220-1.51915.00e+0-
uniprobe mouseUP00089_2Tcf1_secondaryNBRYCBGGATTADD0.06867.7e-33.7e-6033615690.012811935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1953.1FOXO1::ELF1RTMAACAGGAAGTN0.07831.1e-25.2e-60117914180.0303-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1936.1ERF::FOXO1RTMAACAGGAARBS0.08211.8e-28.4e-60138413230.0166-51935.00e+0-
uniprobe mouseUP00088_1Plagl1_primaryBNGGGGGSSCCCCNVN0.06442.7e-21.3e-503237610.013111925.00e+0-
uniprobe mouseUP00100_1Gata6_primaryWHNVDWGATAAGADTHN0.07133.3e-21.6e-5085511920.0268-3.51915.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0763.1ETV3ACCGGAAGTR0.08125.8e-22.8e-50158411940.0352-71955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0475.2FLI1ACCGGAARTR0.09665.9e-22.8e-5015566830.0556-71955.00e+0-
jolma2013FLI1_full_1ACCGGAARTR0.09496.6e-23.2e-5015597380.0556-71955.00e+0-
uniprobe mouseUP00109_1Obox6_3440.2ANAADCGGATTAWHG0.07377.7e-23.7e-504257060.01271.51925.00e+0-
uniprobe mouseUP00021_2Zfp281_secondaryDKKWDACCCCCAWTNDN0.05441.2e-15.6e-5043210850.017540.51915.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1524.2Msgn1VRRRACAAATGGTNNN0.07681.3e-16.1e-5011559110.0187-21925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1116.1RBPJBVTGGGAANN0.07631.5e-17.3e-50138514300.0420-61955.00e+0-
jolma2013RHOXF1_full_1GGMTWATCC0.08311.6e-17.9e-502012515380.0224-9.51955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1652.1ZKSCAN5NNRGGARGTGAGRR0.07661.7e-18.3e-5010343613310.0180-91935.00e+0-
uniprobe mouseUP00074_2Isgf3g_secondaryGVAAAACABDACYD0.06791.8e-18.5e-5033819580.009711935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0035.4GATA1NHCTAATCTDH0.07252.0e-19.7e-5086817220.0151-3.51945.00e+0-
jolma2013Spic_DBDAAAAAGMGGAAGTA0.09302.0e-19.7e-5013374410.0431-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0482.2GATA4NNCCTTATCTNH0.06932.2e-11.0e-4097417170.0221-41945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1991.1Hnf1ANBCCTTTGATSTBN0.07772.2e-11.0e-401310017640.0125-51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1483.2ELF2AAMCCGGAAGTR0.09012.4e-11.1e-4015668820.0346-61945.00e+0-
jolma2013Otx1_DBD_1NHTAATCCGATTADN0.08444.0e-11.9e-402113120.02560.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0036.3GATA2NBCTTATCTNH0.07535.5e-12.6e-4085914610.0212-3.51945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1933.1ELK1::SREBF2DCCGGAAGTSRCGTGA0.13396.9e-13.3e-4023332240.0670-101925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0694.1ZBTB7BRCGACCACCGAA0.05211.05.0e-401105570.018001945.00e+0-
streme5-GGTTAGTTCATAWTSTREME-5GGTTAGTTCATAWT0.04171.25.9e-409135720.2639-341935.00e+0-
jolma2013RHOXF1_full_2HTRATCCM0.06581.36.2e-4076419190.0083-21965.00e+0-
jolma2013OTX2_DBD_1DHTAATCCGATTADN0.08241.46.8e-402113560.02530.51925.00e+0-
uniprobe mouseUP00086_1Irf3_primaryNARAAHSGAAACYR0.07121.67.6e-40139517210.013411935.00e+0-
uniprobe mouseUP00013_2Gabpa_secondaryCYNKYWTCCSMYBNVN0.07831.67.6e-401310118670.0230-61925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1117.1RELBRDATTCCCCNN0.06152.09.7e-4043615080.0106-155.51945.00e+0-
jolma2013ETV2_DBDAACCGGAAATR0.08222.41.1e-3014456080.0428-6.51945.00e+0-
jolma2013ZBTB7B_fullRCGACCACCGAA0.04732.41.2e-301106130.016301945.00e+0-
uniprobe mouseUP00003_2E2F3_secondaryNNYWYGGCGCCAMDVBN0.08942.91.4e-3016567160.03077.51915.00e+0-
jolma2013ELF1_fullAACCCGGAAGTR0.11573.11.5e-3021393370.0475-61945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0139.1CTCFYGRCCASYAGRKGGCRSYR0.07733.11.5e-301202476210.0209-9.51905.00e+0-
jolma2013HSFY2_DBD_1TTCGAAHVRTTCGAA0.07603.31.6e-304237630.0105-0.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0508.3PRDM1YNCTTTCTCTH0.07003.31.6e-306234417370.0135-2.51945.00e+0-
jolma2013GRHL1_fullAAAACCGGTTTD0.07593.41.6e-30195030.017901945.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1123.2TWIST1NNDCCAGATGTBN0.05193.91.9e-3043716230.0191-1.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0149.1EWSR1-FLI1GGAAGGAAGGAAGGAAGG0.06074.92.4e-307931700.1133-141915.00e+0-
jolma2013NKX3-1_fullVCCACTTAA0.06535.12.5e-3065117070.0126-1.51955.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0122.3Nkx3-2WWAAMCACTTAAN0.05645.82.8e-3022113650.014779.51935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1723.1PRDM9RGDGGGVAGGGRGGVRRMARVARR0.06746.02.9e-3012341410690.0187-51885.00e+0-
uniprobe mouseUP00086_2Irf3_secondaryRKAGAAWGGDSCDN0.07276.33.0e-30118718980.0111-51935.00e+0-
uniprobe mouseUP00007_2Egr1_secondaryNKNBGAGTGGGAYWNN0.05617.33.5e-3033116920.0089-11925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1999.1Prdm5CBGTTCTCCATCTNN0.06228.24.0e-3022417250.01220.51925.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA0768.2Lef1NNBCCTTTGATSTN0.07758.54.1e-302315118010.0117481935.00e+0-
JASPAR2022 CORE vertebrates non-redundant v2MA1949.1FLI1::DRGXACCGGAAGTAATTAT0.09178.64.1e-3020718180.0330-9.51925.00e+0-
memeCCTBCCYCYSYCYCYMEME-2CCTBCCYCYSYCYCY0.07658.94.3e-3011251815290.0170-3.51925.00e+0-
uniprobe mouseUP00389_1Nkx3-1_2923.2DWHDAAGTACTTAAAWN0.06659.64.6e-3021810820.019416.51915.00e+0-

Matching sequences (out of 2000)

Union: 122 sequences (6%).
Intersection: 122 sequences (6%).

Filter & Sort

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Columns to display

Input Files

Alphabet

    Background source: the file 'GSM4160260-co-BTZ--ETO_WO_2h_meme-chip/background'

Name 
Bg. 
Bg. 
Name 
Adenine0.2922A~T0.2922Thymine
Cytosine0.2078C~G0.2078Guanine

Sequences

DatabaseSourceSequence Count
GSM4160260-co-BTZ--ETO WO 2h.mm10plusrDNA.summits 200 GSM4160260-co-BTZ--ETO_WO_2h_meme-chip/GSM4160260-co-BTZ--ETO_WO_2h.mm10plusrDNA.summits_200.fa 2000

Motifs

DatabaseSourceMotif Count
memeGSM4160260-co-BTZ--ETO_WO_2h_meme-chip/meme_out/meme.xml3
stremeGSM4160260-co-BTZ--ETO_WO_2h_meme-chip/streme_out/streme.xml8
uniprobe mouse/sibcb1/wuweilab1/liangyu/meme/motif_databases/MOUSE/uniprobe_mouse.meme386
JASPAR2022 CORE vertebrates non-redundant v2/sibcb1/wuweilab1/liangyu/meme/motif_databases/JASPAR/JASPAR2022_CORE_vertebrates_non-redundant_v2.meme841
jolma2013/sibcb1/wuweilab1/liangyu/meme/motif_databases/EUKARYOTE/jolma2013.meme843

Other Settings

Objective Function central region enrichment (CE)
Convert Motifs to Different Alphabet? No
Motif Pseudo-Counts 0.1
Required sequence length 400
Site Scoring Method log-odds scores
Score Threshold 5 (bits)
Optimize Score Threshold? No
Minimum Region Size 0
Maximum Region Size 0
Strand Handling scan both strands if alphabet is complementable
Plotting of Matches on Negative Strand same as for positive strand
Sequence IDs Included in Output? Yes
CentriMo version
5.5.2 (Release date: Sun Jan 29 10:33:12 2023 -0800)
Reference
Timothy L. Bailey and Philip Machanick, "Inferring direct DNA binding from ChIP-seq", Nucleic Acids Research, 40:e128, 2012.
[Full Text]
Command line summary