Schema for Multiz 470-way - Multiz Alignment & Conservation (470 mammals)
|
|
Database: hg38 Primary Table: multiz470way Data last updated: 2022-08-19
Big Bed File Download: https://hgdownload.soe.ucsc.edu/goldenPath/hg38/multiz470way/multiz470way.bigMaf Item Count: 102,907,975
Format description: Bed3 with MAF block
field | example | description |
chrom | chr1 | Reference sequence chromosome or scaffold | chromStart | 165970931 | Start position in chromosome | chromEnd | 165970968 | End position in chromosome | mafBlock | a score=148232.000000;s hg38.chr1 165970931 37 + 248956422 gtatacatgtgccatgctggtgcgct--------gcaccc---------------------actaa;s HLhydIne1.SPDZ01001325 1517334 66 + 2050673 atccttctgggtcatcccagtgcaccagccccgagcaccctgtttcatgcatagaacctggactgg;i HLhydIne1.SPDZ01001325 C 0 I 5;s HLodoHem1.RCHL01007928 458526 66 + 475209 atccctctgggtcatcccagtgcaccagccttgagcaccctgtctcatgcatcgaacctagactgg;i HLodoHem1.RCHL01007928 I 142 I 5;s HLodoVir2.HiC_scaffold_5 106618418 66 - 108704129 atccctctgggtcatcccagtgcaccagccttgagcaccctgtctcatgcatcgaacctagactgg;i HLodoVir2.HiC_scaffold_5 I 142 I 5;s HLodoVir1.KZ101641 467952 66 + 485674 atccctctgggtcatcccagtgcaccagccttgagcaccctgtctcatgcatcgaacctagactgg;i HLodoVir1.KZ101641 I 142 I 5;s HLprzAlb1.SJXR01009206 34566 59 - 280119 -------tgggtcatcccagtgcaccagccccgagcaccctgtctcatgcatcgaacctggactgg;i HLprzAlb1.SJXR01009206 I 104 I 5;s HLaxiPor1.QQTR01012195 30542682 60 + 31895343 ------ctgggtcatcccagtgcaccagccccgagcaccctgtctcatgcatcaaacctggactgg;i HLaxiPor1.QQTR01012195 I 103 I 5;s HLalcAlc1.ML664832 1964659 23 + 1976280 -------------------------------------------ctcatgcatcgaacctggactgg;i HLalcAlc1.ML664832 I 188 I 5;s HLranTar1.PVIN010030589 13093 59 - 13447 -------tgggtcatcccagtgcaccagccctgagcaccttgtctcatgcatcgaacctagactgg;i HLranTar1.PVIN010030589 I 46 I 5;s HLranTarGra2.JACGUM010000225 4744051 59 + 5312034 -------tgggtcatcccagtgcaccagccctgagcaccttgtctcatgcatcgaacctagactgg;i HLranTarGra2.JACGUM010000225 I 104 I 5;e HLrapCam1.SJYW01029707 9143 15306 + 114583 I;e HLeidDup1.HiC_scaffold_17 1394624 0 + 41795121 C;e ptePar1.KE877502 3644 0 - 5637 C;e HLpteRuf1.HiC_scaffold_17 1867972 2096 - 47012030 I;e HLphiMax1.SJYS01016416 583843 12261 + 673455 I;e HLgulGul1.CYRY02002561 50736 1810 + 54642 I;e dasNov3.JH565955 435018 6213 - 499413 I;e HLmicHir1.PVJI01018860 13429 1717 + 32329 I;e HLnocLep1.PVIW01000294 103674 34 + 600511 I;e echTel2.JH980318 5514444 2496 - 39178583 I;e HLmicTal1.PVJH01023340 23176 352 + 34994 I;e speTri2.JH393291 2019313 1914 - 21495731 I;e HLtonSau1.PVIA01019905 1878 0 - 9615 C;e HLuroGra1.PVHY01060040 1508 114 - 2933 I;e HLuroPar1.QVIC01000428 1414839 1663 + 1775762 I;e HLcynGun1.WBRW01005482 97909 2305 + 298219 I;e HLspeDau1.KZ294332 1727565 2173 - 2136720 I;e HLmarMon2.WJEC01008620 264436 1302 - 414331 I;e HLmarMon1.CABDUW010002448 126856 1303 - 270978 I;e HLmarMar1.CZRN01000030 6205165 1250 - 30016984 I;e HLmarHim1.RAQP01000159 1853773 1478 - 2522713 I;e nanGal1.KL203549 3066758 1078 + 4310872 I;e HLonyTor1.LR877198 27590373 193 + 93020901 I;e HLpipPip1.PVIQ01030547 13865 0 - 15696 C;e HLpipKuh2.scaffold_m20_p_18 901351 0 + 26733270 C;e HLmarVan1.ML556011 219767 11068 + 585000 I;e HLmarFla1.ML561967 1940556 1301 - 4347674 I;e HLperCal2.VALE02034099 27844020 161 - 92652276 I;e HLperEre1.CACRXM010000011 30392609 980 - 98732353 I;e HLratRat7.CM021557 48468099 862 - 94975465 I;e rn6.chr13 28698230 890 - 114033958 I;e HLratNor7.CM026986 27464568 890 - 106807694 I;e HLtapInd2.HiC_scaffold_12 62071951 56 + 129325843 I;e HLmusAve1.PVJB01001313 83331 3658 - 164667 I;e HLlasBor1.PVJN01044231 7890 686 - 17355 I;e HLeulFul1.PVJU010037642 6049 0 - 17140 C;e HLcteSoc1.PVKA01015164 21430 2295 - 50891 I;e HLaeoCin1.JAAGEH010000042 2741757 514 + 32091567 I;e HLparHer1.PITB01010594 52908 11 + 61198 I;e HLpetTyp1.PVIR01038140 7601 1884 - 14169 I;e HLapoSyl1.LIPJ01022906 30375 3229 + 41181 I;e HLrhiSin1.LVEH01000252 1744597 2 + 2149339 I;e HLperLeu1.NMRJ01000025 3861690 1005 + 10235075 I;e HLacoCah1.PVKX01030354 15568 878 + 20787 I;e HLacoRus1.LR877217 26319212 809 - 89442464 I;e HLhysCri1.PVJO010014334 20713 2148 - 48630 I;e conCri1.JH655901 24411939 551 - 35080050 I;e HLdesRot2.ScWXtkA_1015 2135459 0 - 21003457 C;e HLlepYer1.Scaffold_198 1531173 0 + 3723489 C;e HLanoCau1.PVKU01002956 87248 2155 - 200592 I;e HLphyDis3.scaffold_m19_p_15 26372382 0 + 53102546 C;e HLmacCal1.VMDR010000015 695972 69 + 750106 I;e HLmorBla1.PVJD01007933 6363 2102 + 78103 I;e HLartJam2.VSFN01041186 1000945 2100 - 6238299 I;e HLstuHon1.VSFL01023575 2025660 0 + 15824623 C;e HLptePse1.BMBI01007204 212338 2097 - 1248589 I;e HLpteVam2.KN525958 163418 12049 - 1384543 I;e HLpteGig1.CACVBW010008835 1175648 2085 - 16648658 I;e HLsigHis1.PVIH01000948 231829 158 + 277295 I;e HLmusPah1.LT608292 27362018 955 - 167013402 I;e HLmusSpr1.CM004094 29514996 933 - 198846266 I;e HLarvNil1.CM022260 29050512 937 - 82689117 I;e HLcerHanYar1.CM021211 113892252 208 - 114290256 I;e HLtalOcc1.talOcc4_12 68510407 0 + 103479730 C;e HLcriGam1.PVKD010002854 3919 870 - 171351 I;e HLmyoGla2.LR761923 31517065 409 - 44647458 I;e HLmicAgr2.CADCXT010001961 5075495 1019 + 5137483 I;e proCoq1.NW_012138303v1 5365978 10 - 5416924 I;e HLcraTho1.PVKE010030094 18881 16 - 19836 I;e HLhipGal1.PVLB01058469 749 1 - 6858 I;e HLhipArm1.JXIK01000007 319322 1 + 8818463 I;e HLrhiFer5.scaffold_m29_p_21 2480568 2 + 53373475 I;e HLeidHel2.HiC_scaffold_5715 2552 0 - 13416 C;e HLeonSpe1.PUFA01000112 1761445 3661 - 6229622 I;e HLelaDav1.JRFZ01148360 2040709 168 - 2287170 I;e HLgraSur1.SRMG01000038 14575126 943 - 26868684 I;e HLmicArv1.VIIT010000291 292443 1145 - 297478 I;e HLmasCou1.VSBT01000001 28106936 1307 - 92586314 I;e HLondZib1.PVIU01001080 37112 1004 + 239226 I;e HLarvAmp1.LR862392 54532702 1013 + 115364413 I;e micOch1.chrUn_JH996500 175061 1346 + 2038552 I;e HLellLut1.LOEQ01001205 504956 178 + 691100 I;e HLneoLep1.LZPO01066370 146484 1037 - 267579 I;e HLgliGli1.PVJS01001058 82022 4653 + 106494 I;e HLmicFor1.NMRL01000092 1672807 245 - 6970285 I;e HLmicOec1.VIIU01001532 179773 225 - 229987 I;e HLperManBai2.CM010889 29418450 166 - 94517625 I;e mm39.chr1 28150693 1082 - 195154279 I;e mm10.chr1 28295954 1082 - 195471971 I;e HLmusSpi1.QGOO01036776 315176 1141 - 842199 I;e HLmusCar1.LT608242 27958617 939 - 185492789 I;e HLscaAqu1.PVIJ01001714 90528 438 + 187422 I;e cavApe1.AVPZ01000333v1 3257474 1306 + 19215827 I;e HLcasCan3.HiC_scaffold_15 44065258 7052 + 133442268 I;e HLsciVul1.LR738623 2540058 263 - 115298656 I;e HLxerIna1.PVHX01006948 71714 1604 - 95641 I;e HLdelLeu2.ML702083 574736 1172 + 6510507 I;e HLmonMon1.SIHG01006960 118901834 1172 - 179923342 I;e HLneoAsi1.KZ688176 158766 1136 - 820219 I;e HLphoSin1.CM018156 123270529 1136 + 185845356 I;e HLponBla1.PGGH01043597 1947 1164 - 24886 I;e ochPri3.JH802097 16426714 22332 + 20254952 I;e HLoryCun3.VIYN01000117 655892 10077 - 1120843 I;e oryCun2.chr13 116436830 10086 - 143360832 I;e HLoryCunCun4.CM023784 134753082 10094 + 163730721 I;e HLlepAme1.PVJM010030879 2197 9200 - 22830 I;e HLindInd1.RJWJ010007441 2972 2603 + 57695 I;e HLmirCoq1.PVHQ01015596 38647 0 - 41665 C;e HLmirZaz1.VSMD01121381 11503 1636 - 217702 I;e micMur3.chr2 128147606 3 + 141296404 I;e HLmicTav1.VSME01190269 43746 3 - 57336 I;e HLlemCat1.PVHV01001902 243660 1986 - 289509 I;e HLproSim1.MPIZ01128154 3557 2484 + 14633 I;e eulMac1.LGHX01002599v1 64280 3 - 87410 I;e HLphoPho1.RJWQ010002658 28698 1136 - 197028 I;e HLphoPho2.HiC_scaffold_13 112264256 2 + 168974331 I;e lipVex1.KE558978 162462 1173 + 5032892 I;e HLcatWag1.PVHT021183515 4042302 6 - 4602472 I;e canFam5.chr38 6342647 0 - 23826045 C;e HLcanLupDin1.QKWQ01001603 6455137 0 + 24034524 C;e canFam4.chr38 6674498 0 - 24803098 C;e HLlycPic3.HiC_scaffold_12 6084671 3 - 23682867 I;e HLlycPic2.SIDF01000129 3668775 3 + 5091347 I;e HLvulLag1.PISU010005175 24430 1 + 125717 I;e HLvulVul1.NBDQ01000009 3785623 1 + 32237033 I;e HLmusFur2.JAADYL010000150 2609957 0 - 23802291 C;e HLmusPut1.CABPTA010000809 3554052 0 + 27577820 C;e HLmusErm1.CM020584 9363567 0 - 70820203 C;e HLneoVis1.FNWR01000064 2692318 0 + 16237510 C;e enhLutKen1.chrUn_NW_019154109v1 3635701 0 - 27759331 C;e enhLutNer1.QQQE01000081v1 3473966 0 - 28056131 C;e HLlutLut1.LR738417 9483495 0 - 69992071 C;e HLlonCan1.ML974415 1129425 0 - 15535745 C;e HLpteBra1.PJEN01017298 11173 0 + 35883 C;e HLpteBra2.HiC_scaffold_5 8817857 0 + 65145824 C;e HLmarZib1.RDFD01009813 1245376 782 - 8926314 I;e HLtaxTax1.RCUC01112533 9335 1064 + 92602 I;e HLailMel2.CM022826 9362221 346 - 129245720 I;e HLeumJub1.ML137751 3753953 0 - 18344174 C;e HLzalCal1.CM019811 9823191 0 + 114255764 C;e HLarcGaz2.CAAAJK010002441 9396521 147 - 107010620 I;e HLcalUrs1.KZ836341 3796465 0 + 7414974 C;e HLodoRos1.HiC_scaffold_13 9618263 0 - 109853409 C;e odoRosDiv1.KB229247 851040 0 + 2539058 C;e HLmirLeo1.JAAMPH010000040 9344127 736 + 65650358 I;e HLmirAng2.HiC_scaffold_4 8729185 737 + 144390866 I;e lepWed1.KB717885 72044 14737 + 275771 I;e neoSch1.NW_018734376v1 3725243 736 - 12230506 I;e HLphoVit1.ML169415 3673256 426 + 27234606 I;e HLhalGry1.JAAXOB010000869 190187 427 + 2698223 I;e HLeriBar1.HiC_scaffold_7 8344455 427 - 140587879 I;e HLailFul2.HiC_scaffold_10 9087011 420 - 66873842 I;e HLspiGra1.PITA01022164 18502 97 + 30997 I;e HLmegLyr2.PVJL010002327 30255 27 + 204431 I;e HLursThi1.WEIE01000042 3498940 0 - 16730547 C;e HLursAme1.LZNR01000932 35050 0 + 122032 C;e HLursAme2.HiC_scaffold_3 49283639 0 + 107380712 C;e ursMar1.KK498545 3554891 0 - 16823045 C;e HLursArc1.KZ986311 3559594 0 + 16798251 C;e HLnasNar1.HiC_scaffold_18 9835337 0 + 59119919 C;e HLproLot1.HiC_scaffold_16 48441826 0 - 55297138 C;e HLbasSum1.HiC_scaffold_16 8091073 324 + 60924294 I;e HLpotFla1.HiC_scaffold_11 7572674 166 - 58894732 I;e HLantAme1.ML660219 4336372 3150 + 6317509 I;e HLmadKir1.SJYC01126094 14437 0 + 27235 C;e oryAfe1.JH863762 7410776 519 - 16276492 I;e chrAsi1.JH823605 494579 5568 + 2631008 I;e HLeleMax1.HiC_scaffold_13 165163276 2353 - 174872996 I;e triMan1.JH594751 5599665 12512 + 7231261 I;e HLdauMad1.PVJZ01001202 12898 3 + 500971 I;e HLgalVar2.PVJT020007402 4094716 3954 + 19745951 I;e HLcavTsc1.PVKK010018254 29468 2036 - 38324 I;e HLhydHyd1.PVLA01000902 430147 1947 - 434447 I;e HLdasPun1.RJWM01001394 15342 7 - 157635 I;e HLcoePre1.HiC_scaffold_31 22602310 0 + 35917382 C;e HLereDor1.ML655443 3974136 0 - 7466630 C;e dipOrd2.NW_012267273v1 11847607 846 + 13896254 I;e HLdipSte1.PVHN010017154 31385 627 - 36621 I;e HLperLonPac1.RJWR010029699 8231 486 + 18425 I;e HLperPol1.CM010913 27195188 164 - 97236207 I;e HLperCri1.HiC_scaffold_18 27174411 207 + 85546760 I;e HLperNas1.HiC_scaffold_10 25674387 177 + 82796891 I;e mesAur1.KB708154 3801319 1497 - 19452151 I;e HLrhoOpi1.REGO01000049 5326406 1017 + 7058760 I;e HLmerUng1.NHTI01000359 730264 1041 - 1006220 I;e HLpsaObe1.NESX02000374 1983204 1047 + 4230596 I;e tupChi1.KB320477 5447096 1276 + 6237175 I;e balAcu1.KI537437 190628 0 + 4583377 C;e HLequAsiAsi2.PSZQ01002953 2677180 204 + 3109186 I;e HLequAsi1.JREZ01000181 2863285 204 - 3804267 I;e HLequQuaBoe1.HiC_scaffold_13 30083311 28 + 99195765 I;e equCab3.chr5 68028625 28 - 96759418 I;e equPrz1.KK950764 178669 28 - 629914 I;e HLcerSimCot1.PVLE01025336 13357 2 + 27354 I;e cerSim1.JH767737 4050666 2 + 34426505 I;e HLdicBic1.PVJY020001475 3085743 2 - 3444273 I;e HLrhiUni1.HiC_scaffold_36 64037472 56 - 90415327 I;e HLtapTer1.PVID01016587 7501 56 + 18558 I;e HLpanLeo1.CM018477 48590150 1 + 63417951 I;e HLpanOnc2.HiC_scaffold_7 8508052 1 - 64254052 I;e HLpanOnc1.PISV01004510 90262 1 + 141822 I;e HLpanPar1.KV860319 4020871 1 - 19501849 I;e panTig1.KE721704 713641 1 + 2945509 I;e HLneoNeb1.HiC_scaffold_16 9483100 1 - 68542452 I;e HLaciJub2.QURD01000034 3706554 1 - 47062725 I;e HLpumCon1.QAVW01000547 3794512 853 + 19044873 I;e HLlynCan1.CM017345 9379332 1 - 69073222 I;e HLlynPar1.CAAGRJ010004009 1979079 1 - 5537880 I;e HLfelNig1.PISY01059390 1624 1 - 12053 I;e felCat9.chrF1 9657055 1 - 71664243 I;e HLpriBen1.BIMV01060370 16212 719 - 37398 I;e HLhelPar1.PJEM01001164 338711 1 - 340947 I;e HLsurSur1.CM016973 9404613 12 - 175818673 I;e HLsurSur2.PITD01006612 11689 12 - 106962 I;e HLcryFer2.HiC_scaffold_4 8890645 3 - 65496510 I;e HLpumYag1.JACEOH010000099 3793203 1 - 10574618 I;e HLhipAmp1.NKPW01001019 3273 6583 - 183982 I;e HLhipAmp3.PVJP02910765 2064836 4584 + 2465704 I;e HLmesBid1.PVJJ010000429 69030 1164 + 170128 I;e HLtraJav1.PVHZ021082378 1616656 14128 - 24678612 I;e HLgirCam2.HiC_scaffold_5 108287733 608 - 186479617 I;e HLgirTip1.LVKQ01S001580 170905 0 + 236403 C;e HLgirCam1.SJXV01002699 329358 0 + 2933752 C;e HLokaJoh2.HiC_scaffold_7 52962511 13 - 118624614 I;e HLcerEla1.CM008027 146045921 8288 - 149338601 I;e HLmunMun1.CM018501 213139284 168 + 1107743563 I;e HLmunRee1.CM018478 214036328 168 + 273513585 I;e HLcapPyg1.SNSB01003342 2335995 192 - 2841016 I;e HLmosChr1.SPDY01033332 20396 0 - 32595 C;e HLmosBer1.SGQJ01003839 1130899 0 + 1283815 C;e HLmosMos1.PVHU020001479 1728959 0 - 4852204 C;e HLtraScr1.SJXY01000607 3507328 0 + 5286092 C;e HLtraStr1.SJYU01001142 339115 0 + 646828 C;e HLtraImb1.SJYM01005787 74543 0 - 331680 C;e HLbosFro1.RBVW01000736 536435 0 + 1135252 C;e HLbosGau1.CM024437 34362283 0 + 123584006 C;e HLbosGru1.CM016692 15189269 0 + 132314468 C;e HLbosMut2.VBQZ03000147 1474507 0 + 4315505 C;e bosTau9.chr3 118094192 9 - 121005158 I;e HLbosInd2.CM009493 118448254 0 - 121419504 C;e bisBis1.KN265020v1 2077419 0 + 2538162 C;e HLsynCaf1.CABVSG010000014 5127381 0 - 38815046 C;e HLbubBub2.CM009845 117865222 13 - 120641659 I;e HLaepMel1.SJXQ01005896 126734 0 + 193975 C;e HLsylGri1.SJYH01007200 134320 0 - 190719 C;e HLcepHar1.SJYT01032414 63629 0 - 389927 C;e HLneoPyg1.SJYV01042474 11697 0 - 596184 C;e HLlitWal1.SJYG01000072 1226982 0 - 5226324 C;e HLeudTho1.SJYE01001021 1578885 0 - 2591050 C;e HLnanGra1.SJYD01049045 80301 0 + 424512 C;e HLproPrz1.SJYF01000241 3296179 0 + 6136367 C;e HLkobLecLec1.JACEGT010021558 677743 0 + 1037357 C;e HLkobEll1.SJYR01004004 150496 0 - 240495 C;e HLredRed1.SJYQ01000747 277024 0 + 832408 C;e HLhipEqu1.JAEFBM010000580 824548 601 - 3610040 I;e HLhipNig1.VHQK01014450 1078049 0 - 2122238 C;e HLoryDam1.HiC_scaffold_28 115609363 601 - 118425367 I;e HLoryGaz1.RAWW01012053 10346 0 - 333784 C;e HLdamLun1.SJXP01001784 464969 605 - 520974 I;e HLconTau2.HiC_scaffold_5 113955382 605 - 116815795 I;e HLcapAeg1.HG918828 1041708 0 + 1396922 C;e HLcapSib1.NIYN02032368 941806 0 - 10976654 C;e HLoreAme1.WJNR01003196 4992601 0 + 13368709 C;e HLammLer1.NIVO01059520 507659 0 - 1017214 C;e HLoviOri1.CM025414 119698617 0 + 282184360 C;e HLoviAri5.CM022019 123638200 616 + 287420779 I;e HLoviNivLyd1.CAFBRR010000269 1604090 0 - 2217174 C;e HLoviCan2.PVIS010022639 22471 0 + 35429 C;e HLhemHyl1.PVJR01003873 124112 0 - 137057 C;e HLoviCan1.CP011886 116265238 0 + 275920749 C;e panHod1.KE114483 288359 615 - 2993699 I;e HLchoHof3.HiC_scaffold_23 142922172 12121 + 236409553 I;e HLtapInd1.PVIE01006867 51061 56 + 92744 I;e HLdicSum1.PEKH010002845 229904 0 - 407674 C;e susScr11.chr4 46131228 6 - 130910915 I;e HLbalMys1.scaffold_1926 171157 1153 + 408032 I;e HLeubJap1.RJWP010015473 2151 1152 + 44747 I;e HLeubGla1.HiC_scaffold_16 112058948 0 + 169365006 C;e HLescRob1.RJWN010026536 14993 1156 - 18061 I;e HLbalEde1.HiC_scaffold_1 112951950 2 - 170613263 I;e HLbalMus1.VNFC01000001 122455876 1157 + 185157308 I;e HLmegNov1.RYZJ01001334 144759 1152 + 3217437 I;e HLbalPhy1.SGJD01001325 142581 1156 + 1196967 I;e HLbalBon1.DF525476 1940 1161 + 28296 I;e HLphyCat2.CM014788 58842576 0 + 147307960 C;e phyCat1.KI405086 143363 1167 + 219424 I;e HLkogBre1.RJWL010003049 70750 1394 - 84685 I;e HLzipCav1.RJWS010013356 2311 1818 + 19499 I;e HLsouChi1.RWJT01014841 217283 1172 - 875240 I;e HLlagObl1.ML065043 155482 1180 - 14203554 I;e HLgloMel1.ML658818 387653 1172 - 13166451 I;e HLpepEle1.HiC_scaffold_7 114680148 2 + 172691866 I;e HLturTru3.MRVK01002016 12295511 1172 + 13003681 I;e turTru2.JH481649 9572 1172 - 123971 I;e HLturTru4.CM022274 121121543 1172 - 183742880 I;e HLturAdu1.NCQN01002657 25888 1172 + 108004 I;e HLturAdu2.HiC_scaffold_19 123392854 1172 - 186145090 I;e orcOrc1.NW_004438446v1 180375 6 + 15399534 I;e HLlniGeo1.RJWO010000461 27053 1163 + 202818 I;e HLplaMin1.RJWK010025458 17003 1164 + 27673 I;e HLodoVir3.JAAVWD010002387 9923054 168 - 12267205 I;e HLantMar1.SJYB01000836 47345 0 + 69628 C;e HLcapHir2.CM004564 117252564 0 + 120038259 C;e HLdolPat1.PVJX010012056 1906 690 - 51541 I;e cavPor3.scaffold_39 3260379 1254 + 19227914 I;e tarSyr2.KE944892v1 72687 2194 + 342334 I;e HLchoDid1.PVKG010020056 1285 12072 + 20487 I;e HLchoDid2.NC_051308 149401467 12074 - 248084734 I;e HLmunMug1.PISW01003653 139876 75 - 197631 I;e HLphaTri2.HiC_scaffold_39 26205625 11 + 29901713 I;e HLmanTri1.SOZM010030527 13838 11 - 23408 I;e HLcroCro1.VOAJ01002537 5968850 1 - 6090100 I;e HLhyaHya1.PEQU01001221 184013 1 - 496542 I;e HLsciCar1.LR738602 2277538 280 - 118645147 I;e HLfukDam2.JAAHWF010000019 26415041 6036 - 68974913 I;e hetGla2.JH602139 4278495 2635 + 8736462 I;e octDeg1.JH651631 8848062 2629 - 9441191 I;e HLmyoCoy1.PVJA010008441 44865 1178 - 64165 I;e chiLan1.JH721922 3975298 925 - 14742515 I;e HLdinBra1.PVLD010022658 9953 244 + 28898 I;e HLrhiPru1.VZQC01002755 640468 8151 + 5675952 I;e HLzapHud1.PVHP010010534 25374 1197 - 47410 I;e jacJac1.JH725442 1975962 1705 - 52350410 I;e HLallBul1.PVKW010050289 2799 2848 + 13517 I;e HLeulFla1.HiC_scaffold_1 2573087 3 + 121055598 I;e eulFla1.LGHW01002624v1 65550 3 - 88687 I;e HLeulMon1.HiC_scaffold_8 1711927 0 - 110213302 C;e HLcheMed1.VBSM01000662 3813434 3 + 15443601 I;e HLcalPym1.HiC_scaffold_22 15821138 5 + 39273693 I;e HLcalJac4.CM021932 17648203 5 - 47063576 I;e HLsagImp1.PVHO010012111 46145 5 + 69038 I;e cebCap1.NW_016107399v1 2759826 0 + 7184330 C;e HLsapApe1.ML771924 3972028 4983 - 26995591 I;e saiBol1.JH378132 896044 5 + 23605852 I;e HLsaiBol1.HiC_scaffold_17 11254565 5 - 36116915 I;e HLateGeo1.PVHS01000350 83241 0 - 302544 C;e HLpleDon1.PVKP010013225 55724 0 - 56092 C;e HLpitPit1.PVIP01002163 147217 0 + 181692 C;e rhiBie1.NW_016811785v1 637335 1569 - 762331 I;e HLrhiRox2.CM017358 116082935 1565 + 145729886 I;e nasLar1.chr1 184764871 8813 + 215897965 I;e HLtraFra1.VVIV01001011 22962425 1569 + 149663456 I;e HLsemEnt1.PVII010018490 27289 1565 - 38648 I;e colAng1.NW_012113808v1 6498279 1575 + 9738959 I;e HLpilTep2.CM019240 22948366 1567 + 221045333 I;e chlSab2.chr25 22872125 0 - 85787240 C;e HLeryPat1.PVJV010033313 25319 0 - 25681 C;e HLallNig1.HiC_scaffold_21 21535504 678 - 203016725 I;e HLcerNeg1.PVKI010086321 8187 0 - 8638 C;e HLcerMon1.JABBCR010000853 3463377 0 + 44144928 C;e rheMac10.chr1 23463618 0 + 223616942 C;e HLmacFus1.HiC_scaffold_8800 1381 0 - 1729 C;e HLmacFas6.BLPH01000001 23381694 0 + 222129363 C;e macNem1.NW_012011511v1 3145307 0 + 7430828 C;e manLeu1.NW_012102110v1 340522 0 + 5196377 C;e HLmanSph1.SRPC01002599 756 0 + 4314964 C;e cerAty1.NW_012002257v1 3103391 31 + 3986814 I;e HLtheGel1.CM009950 23569040 0 - 222973213 C;e HLpapAnu5.CM018180 23142724 0 - 218172882 C;e HLnomLeu4.CM016956 70981979 0 - 106591116 C;e HLhylMol2.WKKJ02000008 60273597 0 - 127976207 C;e ponAbe3.chr1 143417763 0 - 227913704 C;e gorGor6.chr1 136698176 0 + 219763114 C;e panTro6.chr1 141009309 0 + 224244399 C;e panPan3.chr1 141402250 0 + 224621958 C; | MAF block |
|
| |
|
|
Sample Rows
|
|
chrom | chromStart | chromEnd | mafBlock |
chr1 | 165970931 | 165970968 | a score=148232.000000;s hg38.chr1 165970931 37 + 248956422 gtatacatgtgccatgctggtgcgct--------gcaccc------ ... |
chr1 | 165970968 | 165971096 | a score=1435904.000000;s hg38.chr1 165970968 128 + 248956422 tgtgtcatctagcattaggtatatctcccaatgctatccctccc ... |
chr1 | 165971096 | 165971231 | a score=1221112.000000;s hg38.chr1 165971096 135 + 248956422 tgagtgagaatatgcggtgtttggttttttgttcttgcgatagt ... |
chr1 | 165971231 | 165971526 | a score=2577550.000000;s hg38.chr1 165971231 295 + 248956422 atatgtgcca---cattttcttaatccagtctatcattgttgga ... |
chr1 | 165971526 | 165971574 | a score=245313.000000;s hg38.chr1 165971526 48 + 248956422 gttgtt--------------t--cctgactttttaatgattgccat ... |
chr1 | 165971574 | 165971669 | a score=491469.000000;s hg38.chr1 165971574 95 + 248956422 atatctcatagtggttttgatttgcatttctctgatggccagtgat ... |
chr1 | 165971669 | 165971885 | a score=942592.000000;s hg38.chr1 165971669 216 + 248956422 agaagtgtctgttcatgtccttcgccca-ctttttgatggggttg ... |
chr1 | 165971885 | 165972153 | a score=951114.000000;s hg38.chr1 165971885 268 + 248956422 caattttggcttttgttgccattgcttttggtgttttggacatga ... |
chr1 | 165972153 | 165972571 | a score=1585864.000000;s hg38.chr1 165972153 418 + 248956422 tttgtcaaagatcagatagttgtaggtatgcggcgttatttctg ... |
chr1 | 165972571 | 165972779 | a score=777599.000000;s hg38.chr1 165972571 208 + 248956422 aggtccttcacatcccttgtaagttggattcc--taggtat-ttt ... |
|
| |
|
|
Multiz 470-way (cons470way) Track Description
|
|
Data Access
Downloads for data in this track are available:
Description
This track shows multiple alignments of 470 mammal
assemblies and measurements of evolutionary conservation
from the Michael Hiller Lab. There is some duplication of different assemblies for the
same species, hence there are 431 distinct species in this collection.
The multiple alignments were generated using multiz and
other tools in the UCSC/Penn State Bioinformatics
comparative genomics alignment pipeline.
Conserved elements identified by phastCons are also displayed in
this track.
The base-wise conservation scores are computed using two methods
phastCons and phyloP from the
PHAST package,
for all species.
PhastCons (which has been used in previous Conservation tracks) is a hidden
Markov model-based method that estimates the probability that each
nucleotide belongs to a conserved element, based on the multiple alignment.
It considers not just each individual alignment column, but also its
flanking columns. By contrast, phyloP separately measures conservation at
individual columns, ignoring the effects of their neighbors. As a
consequence, the phyloP plots have a less smooth appearance than the
phastCons plots, with more "texture" at individual sites. The two methods
have different strengths and weaknesses. PhastCons is sensitive to "runs"
of conserved sites, and is therefore effective for picking out conserved
elements. PhyloP, on the other hand, is more appropriate for evaluating
signatures of selection at particular nucleotides or classes of nucleotides
(e.g., third codon positions, or first positions of miRNA target sites).
The genome assemblies are from a variety of sources. Some are equivalent
to UCSC genome browser assemblies, some are from NCBI Genbank assemblies,
and some are from the DNA Zoo.
When available in the UCSC browser system, links are provided in the table
below. Otherwise, links are provided to source locations for the assemblies.
Table 1. Genome assemblies included in the 470-way Conservation track.
Display Conventions and Configuration
In full and pack display modes, conservation scores are displayed as a
wiggle track (histogram) in which the height reflects the
size of the score.
The conservation wiggles can be configured in a variety of ways to
highlight different aspects of the displayed information.
Click the Graph configuration help link for an explanation
of the configuration options.
Pairwise alignments of each species to the human genome are
displayed below the conservation histogram as a grayscale density plot (in
pack mode) or as a wiggle (in full mode) that indicates alignment quality.
In dense display mode, conservation is shown in grayscale using
darker values to indicate higher levels of overall conservation
as scored by phastCons.
Checkboxes on the track configuration page allow selection of the
species to include in the pairwise display.
Note that excluding species from the pairwise display does not alter the
the conservation score display.
To view detailed information about the alignments at a specific
position, zoom the display in to 30,000 or fewer bases, then click on
the alignment.
Gap Annotation
The Display chains between alignments configuration option
enables display of gaps between alignment blocks in the pairwise alignments in
a manner similar to the Chain track display. Missing sequence in any
assembly is highlighted in the track display by regions of yellow when zoomed
out and by Ns when displayed at base level. The following conventions are used:
- Single line: No bases in the aligned species. Possibly due to a
lineage-specific insertion between the aligned blocks in the human genome
or a lineage-specific deletion between the aligned blocks in the aligning
species.
- Double line: Aligning species has one or more unalignable bases in
the gap region. Possibly due to excessive evolutionary distance between
species or independent indels in the region between the aligned blocks in both
species.
- Pale yellow coloring: Aligning species has Ns in the gap region.
Reflects uncertainty in the relationship between the DNA of both species, due
to lack of sequence in relevant portions of the aligning species.
Genomic Breaks
Discontinuities in the genomic context (chromosome, scaffold or region) of the
aligned DNA in the aligning species are shown as follows:
-
Vertical blue bar: Represents a discontinuity that persists indefinitely
on either side, e.g. a large region of DNA on either side of the bar
comes from a different chromosome in the aligned species due to a large scale
rearrangement.
-
Green square brackets: Enclose shorter alignments consisting of DNA from
one genomic context in the aligned species nested inside a larger chain of
alignments from a different genomic context. The alignment within the
brackets may represent a short misalignment, a lineage-specific insertion of a
transposon in the human genome that aligns to a paralogous copy somewhere
else in the aligned species, or other similar occurrence.
Base Level
When zoomed-in to the base-level display, the track shows the base
composition of each alignment. The numbers and symbols on the Gaps
line indicate the lengths of gaps in the human sequence at those
alignment positions relative to the longest non-human sequence.
If there is sufficient space in the display, the size of the gap is shown.
If the space is insufficient and the gap size is a multiple of 3, a
"*" is displayed; other gap sizes are indicated by "+".
Codon translation is available in base-level display mode if the
displayed region is identified as a coding segment. To display this annotation,
select the species for translation from the pull-down menu in the Codon
Translation configuration section at the top of the page. Then, select one of
the following modes:
-
No codon translation: The gene annotation is not used; the bases are
displayed without translation.
-
Use default species reading frames for translation: The annotations from
the genome displayed in the Default species to establish reading frame
pull-down menu are used to translate all the aligned species present in the
alignment.
-
Use reading frames for species if available, otherwise no translation:
Codon translation is performed only for those species where the region is
annotated as protein coding.
- Use reading frames for species if available, otherwise use default species:
Codon translation is done on those species that are annotated as being protein
coding over the aligned region using species-specific annotation; the remaining
species are translated using the default species annotation.
Codon translation uses the following gene tracks as the basis for translation:
Gene Track | Species |
RefSeq Genes | aardvark, American pika, Amur tiger, Angolan colobus, big brown bat, black flying fox, black snub-nosed monkey, Bolivian squirrel monkey, Brandt's bat, Cape elephant shrew, Cape golden mole, cattle, chimpanzee, Chinese tree shrew, Coquerel's sifaka, degu, dog, domestic cat, domestic guinea pig, drill, European shrew, Florida manatee, golden hamster, gray mouse lemur, green monkey, Hawaiian monk seal, horse, house mouse, house mouse, human, killer whale, lesser Egyptian jerboa, little brown bat, long-tailed chinchilla, Ma's night monkey, minke whale, naked mole-rat, nine-banded armadillo, Northern sea otter, Norway rat, Ord's kangaroo rat, Pacific walrus, Panamanian white-faced capuchin, Philippine tarsier, pig, pig-tailed macaque, polar bear, prairie vole, Przewalski's horse, pygmy chimpanzee, rabbit, Rhesus monkey, small Madagascar hedgehog, small-eared galago, sooty mangabey, southern white rhinoceros, star-nosed mole, Sumatran orangutan, thirteen-lined ground squirrel, Upper Galilee mountains blind mole rat, Vespertilio Davidii, Weddell seal, western European hedgehog, western lowland gorilla, Yangtze River dolphin |
Ensembl Genes | Bos bison bison, Brazilian guinea pig, dog, gray short-tailed opossum, northern tree shrew |
Xeno RefGene | alpaca, black lemur, Chinese pangolin, common bottlenose dolphin, proboscis monkey, Sclater's lemur, Southern sea otter, tammar wallaby |
no annotation | African buffalo, African grass rat, African hunting dog, African hunting dog, African savanna elephant, African woodland thicket rat, Agile Gracile Mouse Opossum, Allen's swamp monkey, Alpine ibex, Alpine marmot, alpine musk deer, American beaver, American black bear, American black bear, American mink, Amur leopard cat, antarctic fur seal, Antarctic minke whale, Antillean ghost-faced bat, aoudad, Arabian camel, Arctic fox, Arctic ground squirrel, argali, Asian black bear, Asian palm civet, Asiatic elephant, Asiatic mouflon, Asiatic tapir, Asiatic tapir, ass, Australian echidna, aye-aye, babakoto, Bactrian camel, banded mongoose, Bank vole, bearded seal, beluga whale, bighorn sheep, bighorn sheep, black muntjac, black rat, black rhinoceros, black-footed cat, black-handed spider monkey, Blue whale, Bohar reedbuck, Bolivian squirrel monkey, Bolivian titi, Bonin flying fox, boutu, bowhead whale, Brazilian free-tailed bat, Brazilian porcupine, Brazilian tapir, brindled gnu, brown lemur, brush rabbit, bush duiker, bushbuck, Cacomistle, cactus mouse, California big-eared bat, California sea lion, Canada lynx, Cantor's roundleaf bat, Cape rock hyrax, capybara, Central European red deer, Chacoan peccary, cheetah, Chinese forest musk deer, Chinese hamster, Chinese pangolin, Chinese rufous horseshoe bat, Chinese water deer, chiru, Clouded leopard, Cobus hunteri, common bottlenose dolphin, common bottlenose dolphin, common brushtail, common pipistrelle, common pipistrelle, common vampire bat, Common vole, common wombat, coppery ringtail possum, Coquerel's mouse lemur, crab-eating macaque, crested porcupine, Cuvier's beaked whale, Damara mole-rat, dassie-rat, Daurian ground squirrel, De Brazza's monkey, desert woodrat, dingo, domestic ferret, domestic yak, donkey, dugong, dwarf mongoose, eastern gray kangaroo, eastern mole, Eastern roe deer, Egyptian rousette, Egyptian spiny mouse, Equus burchelli boehmi, ermine, Eurasian elk, Eurasian red squirrel, Eurasian river otter, Eurasian water vole, European polecat, European rabbit, European woodmouse, evening bat, Fat dormouse, fat sand rat, Fin whale, fossa, franciscana, Francois's langur, Gambian giant pouched rat, gaur, gayal, gelada, gemsbok, gerenuk, giant anteater, giant otter, giant otter, giant panda, giraffe, giraffe, goat, Gobi jerboa, golden ringtail possum, golden snub-nosed monkey, golden spiny mouse, gracile shrew mole, Grant's gazelle, gray seal, gray squirrel, great gerbil, great roundleaf bat, greater bamboo lemur, greater bulldog bat, Greater cane rat, greater horseshoe bat, greater Indian rhinoceros, greater kudu, greater mouse-eared bat, grey whale, grizzly bear, ground cuscus, guanaco, Gunnison's prairie dog, Hanuman langur, harbor porpoise, harbor porpoise, harbor seal, Harvey's duiker, hazel dormouse, Hesperomys crinitus, Himalayan marmot, hippopotamus, hippopotamus, Hispaniolan solenodon, hispid cotton rat, hoary bamboo rat, hoary bat, Hoffmann's two-fingered sloth, Hog deer, hog-nosed bat, Honduran yellow-shouldered bat, humpback whale, Iberian mole, impala, Indian false vampire, Indian flying fox, Indo-pacific bottlenose dolphin, Indo-pacific bottlenose dolphin, Indo-pacific humpbacked dolphin, Indus River dolphin, jaguar, jaguar, jaguarundi, Jamaican fruit-eating bat, Jamaican fruit-eating bat, Japanese macaque, Java mouse-deer, kinkajou, Kirk's dik-dik, klipspringer, koala, Kuhl's pipistrelle, Lama pacos huacaya, large flying fox, Leadbeater's possum, lechwe, leopard, Leschenault's rousette, lesser dawn bat, Lesser dwarf lemur, lesser kudu, Lesser long-nosed bat, lesser mouse-deer, lesser panda, lesser short-nosed fruit bat, lion, little brown bat, llama, llama, long-finned pilot whale, long-tongued fruit bat, Madagascan rousette, Malagasy flying fox, Malagasy straw-colored fruit bat, Malayan pangolin, Malayan pangolin, mandrill, mantled howler monkey, Masai giraffe, Maxwell's duiker, meadow jumping mouse, meerkat, meerkat, melon-headed whale, Miniopterus schreibersii natalensis, Mona monkey, Mongolian gerbil, mongoose lemur, Montane guinea pig, mountain beaver, mountain goat, Mountain hare, mouse lemur, mule deer, muntjak, Murina feae, muskrat, narwhal, Nilgiri tahr, North American badger, North American opossum, North American porcupine, North Atlantic right whale, North Pacific right whale, Northern American river otter, Northern elephant seal, northern fur seal, Northern giant mouse lemur, northern gundi, Northern long-eared myotis, Northern mole vole, northern rock mouse, Northern rufous mouse lemur, northern white rhinoceros, northern white-cheeked gibbon, Norway rat, nutria, okapi, oldfield mouse, olive baboon, pacarana, Pacific pocket mouse, Pacific white-sided dolphin, pale spear-nosed bat, Pallas's mastiff bat, pallid bat, Parnell's mustached bat, Patagonian cavy, Pere David's deer, Peromyscus californicus subsp. insignis, platypus, porcupine caribou, prairie deer mouse, pronghorn, Przewalski's gazelle, puma, punctate agouti, pygmy Bryde's whale, pygmy marmoset, pygmy sperm whale, rabbit, raccoon, ratel, red bat, red fox, red guenon, red kangaroo, Red shanked douc langur, reed vole, Reeves' muntjac, reindeer, Ring-tailed lemur, roan antelope, root vole, royal antelope, Ryukyu mouse, sable, sable antelope, saiga antelope, Schizostoma hirsutum, Schreibers' long-fingered bat, scimitar-horned oryx, Sclater's lemur, Seba's short-tailed bat, sheep, short-tailed field vole, shrew mouse, Siberian ibex, Siberian musk deer, silvery gibbon, slow loris, snow sheep, snowshoe hare, social tuco-tuco, South African ground squirrel, Southern elephant seal, southern grasshopper mouse, southern multimammate mouse, southern tamandua, Southern three-banded armadillo, southern two-toed sloth, southern two-toed sloth, Sowerby's beaked whale, Spanish lynx, sperm whale, sperm whale, spotted hyena, springbok, springhare, steenbok, Steller sea lion, Steller's sea cow, Stephens's kangaroo rat, steppe mouse, straw-colored fruit bat, stripe-headed round-eared bat, striped hyena, Sumatran rhinoceros, Sunda flying lemur, suni, tailed tailless bat, Talazac's shrew tenrec, tamarin, tammar wallaby, Tasmanian devil, Tasmanian wolf, Thomson's gazelle, topi, Transcaucasian mole vole, Tree pangolin, Tree pangolin, tufted capuchin, Ugandan red Colobus, Vancouver Island marmot, vaquita, Vicugna mensalis, walrus, water buffalo, waterbuck, western gray kangaroo, Western ringtail oppossum, western spotted skunk, western wild mouse, white-faced saki, white-footed mouse, white-fronted capuchin, white-lipped deer, White-nosed coati, white-tailed deer, white-tailed deer, white-tailed deer, white-tufted-ear marmoset, Wild Bactrian camel, wild goat, wild yak, wolverine, woodchuck, woodchuck, woodland dormouse, Yangtze finless porpoise, Yarkand deer, yellow-bellied marmot, yellow-footed antechinus, yellow-spotted hyrax, zebu cattle,
|
Table 2. Gene tracks used for codon translation.
Methods
Pairwise alignments with the human genome were generated for
each species using lastz from repeat-masked genomic sequence.
Pairwise alignments were then linked into chains using a dynamic programming
algorithm that finds maximally scoring chains of gapless subsections
of the alignments organized in a kd-tree.
The scoring matrix and parameters for pairwise alignment and chaining
were tuned for each species based on phylogenetic distance from the reference.
High-scoring chains were then placed along the genome, with
gaps filled by lower-scoring chains, to produce an alignment net.
Phylogenetic Tree Model
The phyloP are phylogenetic methods that rely
on a tree model containing the tree topology, branch lengths representing
evolutionary distance at neutrally evolving sites, the background distribution
of nucleotides, and a substitution rate matrix.
The
all-species tree model for this track was
generated using the phyloFit program from the PHAST package
(REV model, EM algorithm, medium precision) using multiple alignments of
4-fold degenerate sites extracted from the 470-way alignment
(msa_view). The 4d sites were derived from the RefSeq (Reviewed+Coding) gene
set, filtered to select single-coverage long transcripts.
This same tree model was used in the phyloP calculations; however, the
background frequencies were modified to maintain reversibility.
The resulting tree model:
all species.
PhyloP Conservation
The phyloP program supports several different methods for computing
p-values of conservation or acceleration, for individual nucleotides or
larger elements (
http://compgen.cshl.edu/phast/). Here it was used
to produce separate scores at each base (--wig-scores option), considering
all branches of the phylogeny rather than a particular subtree or lineage
(i.e., the --subtree option was not used). The scores were computed by
performing a likelihood ratio test at each alignment column (--method LRT),
and scores for both conservation and acceleration were produced (--mode
CONACC).
Credits
This track was created using the following programs:
- Alignment tools: lastz (formerly blastz) and multiz by Minmei Hou, Scott Schwartz and Webb
Miller of the Penn State Bioinformatics Group
- Chaining and Netting: axtChain, chainNet by Jim Kent at UCSC
- Conservation scoring: phastCons, phyloP, phyloFit, tree_doctor, msa_view and
other programs in PHAST by
Adam Siepel at Cold Spring Harbor Laboratory (original development
done at the Haussler lab at UCSC).
- MAF Annotation tools: mafAddIRows by Brian Raney, UCSC; mafAddQRows
by Richard Burhans, Penn State; genePredToMafFrames by Mark Diekhans, UCSC
- Tree image generator: phyloPng by Galt Barber, UCSC
- Conservation track display: Kate Rosenbloom, Hiram Clawson (wiggle
display), and Brian Raney (gap annotation and codon framing) at UCSC
References
Harris RS.
Improved pairwise alignment of genomic DNA.
Ph.D. Thesis. Pennsylvania State University, USA. 2007.
PhyloP:
Cooper GM, Stone EA, Asimenos G, NISC Comparative Sequencing Program., Green ED, Batzoglou S, Sidow
A.
Distribution and intensity of constraint in mammalian genomic sequence.
Genome Res. 2005 Jul;15(7):901-13.
PMID: 15965027;
PMC: PMC1172034;
DOI: 10.1101/gr.3577405
Pollard KS, Hubisz MJ, Rosenbloom KR, Siepel A.
Detection of nonneutral substitution rates on mammalian phylogenies.
Genome Res. 2010 Jan;20(1):110-21.
PMID: 19858363;
PMC: PMC2798823
Siepel A, Haussler D.
Phylogenetic Hidden Markov Models.
In: Nielsen R, editor. Statistical Methods in Molecular Evolution.
New York: Springer; 2005. pp. 325-351.
DOI: 10.1007/0-387-27733-1_12
Siepel A, Pollard KS, and Haussler D. New methods for detecting
lineage-specific selection. In Proceedings of the 10th International
Conference on Research in Computational Molecular Biology (RECOMB 2006), pp. 190-205.
DOI: 10.1007/11732990_17
| |
|
|
|