Changes between Version 8 and Version 9 of UTGBManual
- Timestamp:
- 08/15/07 15:55:11 (18 years ago)
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UTGBManual
v8 v9 84 84 End:: Select the end point from your targeted sequence to display. The number should be 1-origin. If the ending point is greater than the starting point then the display will be normal. Otherwise, the display will be reverse. In both cases, the ending base will be included in the displaying sequence. 85 85 86 ü Width: Input the width in terms of pixels for output track display. Input the value that is suitable for your vision. Normally, it is assumed that width is equal to the screen width. It is also possible to input the width as 10 times bigger than the screen width. In that case, it seems to be convenient to use the scroll of the browser.86 Width:: Input the width in terms of pixels for output track display. Input the value that is suitable for your vision. Normally, it is assumed that width is equal to the screen width. It is also possible to input the width as 10 times bigger than the screen width. In that case, it seems to be convenient to use the scroll of the browser. 87 87 88 88 After manipulating the previous items, press the “Apply” button to shifting to the desired position of the sequence. 89 89 90 90 91 Using shifting button method 92 93 browser_moves.png 91 === Using shifting button method === 92 93 [[Image(browser_moves.png)]] 94 94 95 95 Moreover, there is another method by using the button (like above image). Normally, the input box method is useful only when it is important to have the correct position of the sequence. As number must be supplied in this method, sometime this process is quit cumbersome. So we provide more intuitive methods for your convenience. So the buttons related to these methods are as follows, 96 96 97 ü Shifting (rr.png,r.png,f.png,ff.png): rr.png,r.png,f.png,ff.pngare buttons to shifting the sequence. Therr.png button scrolls sequence up to one screen size where the r.png button scrolls half screen to the left. The inverse buttons are for shifting to the right.98 99 üScaling (zoomout.png, zoomin.png, zoom10x.png, zoom1x.png, zoom01x.png, zoom001x.png, zoom0001x.png): The zoomout.png button does scaling down and the display will be half of the present size where zoomin.png button does scaling up and the display will be 2 times bigger than present size. The fractional form button specifies the scale directly. The scaling unit is 1bp/pixel. For example, zoom1x.png means 1 bp is displayed by 1 pixel, whereas zoom01x.png means 10 bp is displayed by 1 pixel. So zoom10x.png means the scale that enlarges the display up to the base level. zoom0001x.png is a scale ratio useful in displaying 1M bps on the screen. At the time of scaling up or down the view points of the present display will be remained unchanged.100 101 102 Using overview, ruler and zooming track method 97 Shifting ([[Image(rr.png)]],[[Image(r.png)]], [[Image(f.png)]],[[Image(ff.png)]]:: [[Image(rr.png), [[Image(r.png)]], [[Image(f.png)]],[[Image(ff.png)]] are buttons to shifting the sequence. Therr.png button scrolls sequence up to one screen size where the r.png button scrolls half screen to the left. The inverse buttons are for shifting to the right. 98 99 Scaling (zoomout.png, zoomin.png, zoom10x.png, zoom1x.png, zoom01x.png, zoom001x.png, zoom0001x.png): The zoomout.png button does scaling down and the display will be half of the present size where zoomin.png button does scaling up and the display will be 2 times bigger than present size. The fractional form button specifies the scale directly. The scaling unit is 1bp/pixel. For example, zoom1x.png means 1 bp is displayed by 1 pixel, whereas zoom01x.png means 10 bp is displayed by 1 pixel. So zoom10x.png means the scale that enlarges the display up to the base level. zoom0001x.png is a scale ratio useful in displaying 1M bps on the screen. At the time of scaling up or down the view points of the present display will be remained unchanged. 100 101 102 === Using overview, ruler and zooming track method === 103 103 104 104 In addition, there are some methods to shifting. These are overview, ruler, zooming trucks. You can shift the viewpoint by clicking any position of these tracks. For details, please refer to the respective details about the each track. 105 105 106 106 107 4.2. Functions of buttons 108 109 ü (rev) You can display the sequence in reverse mode by UT Genome Browser. Normally a sequence is displayed from left to right but you can reverse it with the (rev) button. An alternative way to display in reverse way is to input “start” value greater than “end” value in the Input Box. The same task can be done easily by clicking the (rev) button. As the (rev) button reverses start and end points of the present displayed sequence so this can change the display mode from normal to reverse or vice versa. If you press the (fasta) button on reverse mode, then the complementary strand of displayed strand will be retrieved. 110 111 ü (top) By pressing this button you can return to the main screen. Information about present displayed range, track and each track setting etc. will be preserved. 112 113 ü (clear) By pressing this button you can return to the main screen. Information about present displayed range, track and each track setting etc. will be initialized. 114 115 ü (Track) Addition, deletion, and rearranging can be performed by this button. Details description will be given later. 116 117 ü (fasta) Present displaying sequence can be retrieved with this button in fasta format. You will be instructed to save as a file name. For example, Medaka-200406-scaffold429 (64587-66612). fasta 118 119 120 4.3. Addition, Deletion, and Rearrangement of Tracks 121 122 browser_track.png 123 124 107 == Functions of buttons == 108 109 (rev):: You can display the sequence in reverse mode by UT Genome Browser. Normally a sequence is displayed from left to right but you can reverse it with the (rev) button. An alternative way to display in reverse way is to input “start” value greater than “end” value in the Input Box. The same task can be done easily by clicking the (rev) button. As the (rev) button reverses start and end points of the present displayed sequence so this can change the display mode from normal to reverse or vice versa. If you press the (fasta) button on reverse mode, then the complementary strand of displayed strand will be retrieved. 110 111 (top):: By pressing this button you can return to the main screen. Information about present displayed range, track and each track setting etc. will be preserved. 112 113 (clear):: By pressing this button you can return to the main screen. Information about present displayed range, track and each track setting etc. will be initialized. 114 115 (Track):: Addition, deletion, and rearranging can be performed by this button. Details description will be given later. 116 117 (fasta):: Present displaying sequence can be retrieved with this button in fasta format. You will be instructed to save as a file name. For example, Medaka-200406-scaffold429 (64587-66612). fasta 118 119 120 == Addition, Deletion, and Rearrangement of Tracks == 121 122 [[Image(browser_track.png)]] 125 123 126 124 When the (track) button of the main screen is pressed, the above track-editing screen will pop up. Here you can do addition, deletion and rearrangement of the tracks. This editing screen can be divided into three parts - displaying tracks, removed tracks, and adding new track. 127 125 128 ü Displaying track: Here, tracks’ deletion and rearrangement can be done to the present displayed screen. The deleted tracks will be replaced to next removed track.129 130 ü Removed track: This is the list of all tracks, which are deleted at Displaying Tracks. It is something like garbage bin. Undo-processing is possible for the tracks that are displayed here.131 132 ü Add new track: New tracks, which are not available at present display, can be added by this track. By setting the URL of the new tracks, push add button. If the new tracks’ URL is read properly, the new tracks will be added after the present displayed tracks.133 134 135 4.4. Setting for Tracks 126 Displaying track:: Here, tracks’ deletion and rearrangement can be done to the present displayed screen. The deleted tracks will be replaced to next removed track. 127 128 Removed track:: This is the list of all tracks, which are deleted at Displaying Tracks. It is something like garbage bin. Undo-processing is possible for the tracks that are displayed here. 129 130 Add new track:: New tracks, which are not available at present display, can be added by this track. By setting the URL of the new tracks, push add button. If the new tracks’ URL is read properly, the new tracks will be added after the present displayed tracks. 131 132 133 === Setting for Tracks === 136 134 137 135 On main screen, when the cfg.png button, beside the track name, is pressed, the display of that track can be customized as above image. The customizing contents of the tracks differ from each other. On the other hand, there are some tracks which contents cannot be customized at all. For details, please refer to the individual tracks information. 138 136 139 137 140 5. Pre-defined Tracks 141 5.1. Overview Track 142 143 track_overview.png 144 145 138 == Pre-defined Tracks == 139 === Overview Track === 140 141 [[Image(track_overview.png)]] 146 142 147 143 This track shows the range of present displayed window in the total genome. In above image, for instance, the blue-colored viewpoint shows the range from 125kb to 145kb. Clicking on any position of this overview track moves the viewpoint the middle position. For example, when you click on around 100k positions, the viewpoint will move to 90k-110k. 148 144 149 145 150 5.2. Ruler and Zooming Tracks 146 === Ruler and Zooming Tracks === 151 147 152 148 Both the ruler track and the zooming track are displaying same contents with different color. These two show the base position number of the present displayed content with respect to the total sequence. If you click any position of the ruler track, the viewpoint will move to the middle position. For example, if the rightmost end of the ruler track is clicked then the same effect will be happed as the ff.png button of main screen is pressed. Before using the zoom button on main screen, it is better to have the required region on middle position by using the ruler track to smoothing future enlarge processing. … … 155 151 156 152 157 5.3. Base Color Track 158 159 153 === Base Color Track === 160 154 161 155 Base color track changes the sequence to color mode. All four ATGC bases are displayed by converting to the individual color. It is natural to display each base pair by one pixel. By zooming in, you can see any specific region of the sequence in alphabet symbol (above bottom image). … … 164 158 165 159 166 5.4. Gap Track 167 168 160 === Gap Track === 169 161 170 162 Gap Track is a track that displays gaps in a scaffold. By clicking any place except the gap, we can get the whole contig sequence in FASTA format. It is different from the (fasta) button in the main window, because it does not retrieve the displayed sequence only, but saves the whole contig sequence. 171 163 172 164 173 5.5. GC Content Track 174 175 165 === GC Content Track === 176 166 177 167 This track displays the ratio of GC contents for 5 pixels. If the pixel number of a base pair is more than 5, the coloring will be done to tell whether it is GC or AT. 178 168 179 169 180 5.6. Mapped Gene Track 181 170 === Mapped Gene Track === 182 171 183 172 … … 185 174 186 175 187 Display setting 188 189 If the cfg.pngbutton on the left side of Mapped Gene Track is pressed, the display setting windows will pop up. There are three parts of this setting; namely, changing the total display style, alternating the mapping results if a gene will be displayed or not, and modifying the color of a gene. The setting, whether to show or not, will display all which fulfill the conditions. The color setting can be done by “use this color” button beside the track.190 191 Style select setting 176 === Display setting === 177 178 If the [[Image(cfg.png)]] button on the left side of Mapped Gene Track is pressed, the display setting windows will pop up. There are three parts of this setting; namely, changing the total display style, alternating the mapping results if a gene will be displayed or not, and modifying the color of a gene. The setting, whether to show or not, will display all which fulfill the conditions. The color setting can be done by “use this color” button beside the track. 179 180 === Style select setting === 192 181 193 182 Predicted genes’ display setting can be changed here. There are four kinds of display style. These styles are full, pack, small and dense. 194 183 195 ü Full: In full style, each gene’s position is displayed on one line. On left side the Genebank accession number or Ensemble Gene ID is written.196 197 ü Pack: By showing individual alignments together with the names (Genebank Acc or Ensemble Gene ID) of genes on left side in multiple on one line, the pack style is more compact than full style.198 199 ü Small: In small style, the up and down spaces for one gene are reduced to the minimum. Unlike the full style and the pack style, this does not display the names of the genes.200 201 ü Dense: In this style, only the positions of aligned exons are displayed on one line.184 Full:: In full style, each gene’s position is displayed on one line. On left side the Genebank accession number or Ensemble Gene ID is written. 185 186 Pack:: By showing individual alignments together with the names (Genebank Acc or Ensemble Gene ID) of genes on left side in multiple on one line, the pack style is more compact than full style. 187 188 Small:: In small style, the up and down spaces for one gene are reduced to the minimum. Unlike the full style and the pack style, this does not display the names of the genes. 189 190 Dense:: In this style, only the positions of aligned exons are displayed on one line. 202 191 203 192 At present except the full style, if the numbers of the mapped genes are more than 200 in a range of more than 50kbp, the graphical view of the genes will be displayed. 204 193 205 FormSpecies disp setting194 * FormSpecies disp setting 206 195 207 196 Here we can set which species among Medaka, Zebra fish, Fugu’s mapping results are displayed or not. On default, all species results will be displayed. Only the species, which are checked on the Checkbook, will be displayed. 208 197 209 FromSpecies color setting198 * FromSpecies color setting 210 199 211 200 The color distinguishing for Medaka, Zebra fish, Fugu’s can be done here. 212 201 213 MatchRatio gradation setting202 * MatchRatio gradation setting 214 203 215 204 Gene’s color can be changed with respect to its match ratio. Provided colors for the match ratios 0.7 and 1.0 respectively, the system automatically gradates the coloring of the alignments between the lower and upper match ratios. 216 205 217 MatchRatio ulbound setting206 * MatchRatio ulbound setting 218 207 219 208 You can specify the range of the mapping ratio by inputting the lower and upper bounds into the corresponding boxes. Alignments of match ratios within the range are only displayed. 220 209 221 CoverRatio gradation setting210 * CoverRatio gradation setting 222 211 223 212 Gene’s color can also be changed with respect to its cover ratio. Provided colors for the cover ratios 0.4 and 1.0 respectively, the system automatically gradates the coloring of the alignments between the lower and upper cover ratios. 224 213 225 CoverRatio ulbound setting214 * CoverRatio ulbound setting 226 215 227 216 You can specify the range of the cover ratio by inputting the lower and upper bounds into the corresponding boxes. Alignments of cover ratios within the range are only displayed. 228 217 229 Stage disp setting230 231 Here, you can fix which development stage’s expression EST should be displayed.232 233 Stage color setting218 * Stage disp setting 219 220 * Here, you can fix which development stage’s expression EST should be displayed. 221 222 * Stage color setting 234 223 235 224 Color distinguishing can be done with respect to development stage. 236 225 237 226 238 Linkage for each gene 227 * Linkage for each gene 239 228 240 229 In full, pack and small style, each gene can be clicked on. By clicking each gene, you can see the details of this gene. 241 230 242 231 243 5.7. Genscan Track 232 === Genscan Track === 244 233 245 234 This track displays the predicted genes by Genscan. The predicted genes are viewed on lines, where the exons parts are on rectangular shape. Arrow sign presents the strand of the genes. The above image shows the predicted genes in pack style. 246 235 247 Display settings236 * Display settings 248 237 249 238 If the cfg.png mark button on the left side of Genscan Track is clicked, the display setting will pop up. Here are the details of this setting. 250 239 251 Style selects setting240 * Style selects setting 252 241 253 242 Predicted genes’ display setting can be changed here. There are four kinds of display style. These styles are full, pack, small and dense, and they are similar to those styles in Mapped Gene Track. 254 243 255 Linkage of each gene244 * Linkage of each gene 256 245 257 246 In full, pack and small style each gene can be clicked on. After clicking each gene, the details of prediction by Genscan will be appeared. 258 247 259 248 260 5.8. Comparative Genomics Track 261 262 Fugu Scaffold track263 264 Description249 === Comparative Genomics Track === 250 251 * Fugu Scaffold track 252 253 * Description 265 254 266 255 This track shows Fugu/Medaka homologous scaffolds detected by ALPS alignment program. Fugu scaffolds are denoted by boxes connected by arrows. The boxes represent regions of high homology (match ratio > 60%) aligned by ALPS. The arrows represent low homology regions or gaps in Fugu scaffold. The direction of arrows indicates the orientation of Fugu/Medaka alignments. Clicking on a Fugu scaffold will open a new window to display its dotplot with Fugu scaffold sequence provided in the same page. The Fugu sequence (Fugu v.2.0) was downloaded from JGI. 267 256 268 Method257 * Method 269 258 270 259 Fugu scaffold sequences are split into non-overlapping 300mer sequences and these 300mer sequences are mapped to Medaka scaffolds with ALPS. ALPS alignments with match ratio less than 60% are discarded and remaining alignments are chained by longest monotone subsequence algorithm. Chains consist of more than 10 alignments are displayed in the track. Note that inversions or microrearrangements are not shown. Only the longest monotone subsequence is displayed for each Fugu scaffold. 271 260 272 Linkage of each scaffold261 * Linkage of each scaffold 273 262 274 263 In full, pack and small style each gene can be clicked on. After clicking each scaffold, the detailed alignments will be appeared as like dot plot. Dotplot shows homologous regions of Fugu/Medaka scaffolds as diagonal runs of dots. Each dot, plotted based on sequence similarity score, indicates that significantly many seed matches are found between corresponding regions. The sequence similarity score is defined in such a way that tandem repeats are not assigned high scores while unique sequences are assigned high scores. … … 278 267 279 268 280 Ramen Assembler / UT Genome Browser Team Members 269 = Ramen Assembler / UT Genome Browser Team Members = 281 270 282 271 283 272 Ramen Genome Assembler Development Team 284 273 285 üDevelopment of “Ramen” genome assembler and assembly of medaka genome:274 * Development of “Ramen” genome assembler and assembly of medaka genome: 286 275 Masahiro Kasahara and Shin Sasaki 287 276 288 üDevelopment of “Ramen Viewer” for genome assembly:277 * Development of “Ramen Viewer” for genome assembly: 289 278 Yukinobu Nagayasu 290 279 … … 292 281 UT Genome Browser Development Team 293 282 294 üDesign and development of UT Genome Browser, keyword search function, libraries for describing tracks:283 * Design and development of UT Genome Browser, keyword search function, libraries for describing tracks: 295 284 Yukinobu Nagayasu and Koichiro Doi 296 285 297 üOnline mapping function for query sequences:286 * Online mapping function for query sequences: 298 287 Tomoyuki Yamada 299 288 300 üComparative Genomics Track:289 * Comparative Genomics Track: 301 290 Yoichiro Nakatani and Wei Qu 302 291 303 üGene Prediction:292 * Gene Prediction: 304 293 Ahsan Budrul 305 294 306 üMapped Gene Track:295 * Mapped Gene Track: 307 296 Yasuhiro Kasai 308 297 309 üDatabase access accelerators:298 * Database access accelerators: 310 299 Takehiro Furudate and Atsushi Mori 311 300 312 üOverall management:301 * Overall management: 313 302 Koichiro Doi and Shinichi Morishita 314 303 315 304 316 305 317 Acknowledgements 318 306 = Acknowledgements = 319 307 320 308