Align NAD-specific glutamate dehydrogenase; NAD-GDH; NAD(+)-dependent glutamate dehydrogenase; EC 1.4.1.2 (characterized)
to candidate AO353_22820 AO353_22820 NAD-glutamate dehydrogenase
Query= SwissProt::Q9HZE0 (1620 letters) >FitnessBrowser__pseudo3_N2E3:AO353_22820 Length = 1633 Score = 2727 bits (7070), Expect = 0.0 Identities = 1351/1616 (83%), Positives = 1473/1616 (91%), Gaps = 2/1616 (0%) Query: 1 MAFFTAASKADFQHQLQTALAQHLGDKALPQVTLFAEQFFSLISLDELTQRRLSDLVGCT 60 MAFFTAASKADFQ QLQ ALAQH+ +++LPQV LFAEQFF +ISLDELTQRRLSDL GCT Sbjct: 1 MAFFTAASKADFQQQLQAALAQHISEQSLPQVALFAEQFFGIISLDELTQRRLSDLAGCT 60 Query: 61 LSAWRLLERFDRDQPEVRVYNPDYEKHGWQSTHTAVEVLHPDLPFLVDSVRMELNRRGYS 120 LSAWRLLERFD QP+VRVYNPDYE+HGWQSTHTAVEVLH DLPFLVDSVR ELNRRGYS Sbjct: 61 LSAWRLLERFDHAQPQVRVYNPDYERHGWQSTHTAVEVLHHDLPFLVDSVRTELNRRGYS 120 Query: 121 IHTLQTNVLSVRRSAKGELKEILPKGSQGKDVSQESLMYLEIDRCAHAGELRALEKAILE 180 IHTLQT VLSVRR AKGEL EILPKGSQG+ + QESLMYLEIDRCAH EL L K + + Sbjct: 121 IHTLQTTVLSVRRGAKGELLEILPKGSQGEGILQESLMYLEIDRCAHTAELNVLSKELEQ 180 Query: 181 VLGEVRVTVADFEPMKAKARELLTWLGKAKLKVPAEELKEVRSYLEWLLDNHFTFLGYEE 240 VL EVRV VADFEPMKAK +EL+ + K+K V AEE E++ +LEWL+ NHFTFLGYEE Sbjct: 181 VLSEVRVAVADFEPMKAKVQELIEGIDKSKFAVDAEEKSEIKGFLEWLVGNHFTFLGYEE 240 Query: 241 FSVADEADGGRMVYDEKSFLGLTRLLRAGLSKDDLHIEDYAVAYLREPVLLSFAKAAHPS 300 F V D+ DGG + YD+ SFLGLTRLLRAGL+ DDL IEDYAV YLREP LSFAKAAHPS Sbjct: 241 FVVRDDKDGGHIEYDQSSFLGLTRLLRAGLTADDLRIEDYAVNYLREPTPLSFAKAAHPS 300 Query: 301 RVHRPAYPDYVSIRELDGKGRVIRECRFMGLFTSSVYNESVNDIPFIRGKVAEVMRRSGF 360 RVHRPAYPDYVSIR++D G+VI+ECRFMGL+TSSVY ESV IP+IR KV + +RSGF Sbjct: 301 RVHRPAYPDYVSIRQIDANGKVIKECRFMGLYTSSVYGESVRVIPYIRRKVDVIEQRSGF 360 Query: 361 DTKAHLGKELAQVLEVLPRDDLFQTPVDELFSTALAIVRIQERNKIRVFLRKDPYGRFCY 420 +KAHLGKELAQVLEVLPRDDLFQTPVDELFST ++IV+IQERNKIRVFLRKDPYGRFCY Sbjct: 361 QSKAHLGKELAQVLEVLPRDDLFQTPVDELFSTVMSIVQIQERNKIRVFLRKDPYGRFCY 420 Query: 421 CLAYVPRDVYSTETRLKIQQVLMERLQASDCEFWTFFSESVLARVQFILRVDPKSRIDID 480 CLAYVPRD+YSTE R KIQQVLM+RL+ASDCEFWTFFSESVLARVQ ILRVDPK+R+DID Sbjct: 421 CLAYVPRDIYSTEVRQKIQQVLMDRLKASDCEFWTFFSESVLARVQLILRVDPKNRLDID 480 Query: 481 PARLEEEVIQACRSWQDDYSSLVVENLGEAKGTNVLADFPKGFPAGYRERFAPHFAVVDL 540 P LE+EV+QACRSWQDDY+SLVVE+ GEA+GTNVL+DFPKGFPAGYRERFA H AVVD+ Sbjct: 481 PLLLEKEVVQACRSWQDDYASLVVESFGEAQGTNVLSDFPKGFPAGYRERFAAHSAVVDM 540 Query: 541 QHLLSLSEQRPLVMSFYQPLAQ--GEQQLHCKLYHADTPLALSDVLPILENLGLRVLGEF 598 QHLLSLSE+ PLVMSFYQPL Q G+++LHCKLYHADTPLALSDVLPILENLGLRVLGEF Sbjct: 541 QHLLSLSEKNPLVMSFYQPLGQVSGQRELHCKLYHADTPLALSDVLPILENLGLRVLGEF 600 Query: 599 PYRLRHQNGREYWIHDFAFTYAEGLDVDIQQLNEILQDAFVHIVSGDAENDAFNRLVLTA 658 PYRLRH NGRE+WIHDFAFT AEGL++DIQQLN+ LQDAFVHIV GDAENDAFNRLVLTA Sbjct: 601 PYRLRHSNGREFWIHDFAFTAAEGLELDIQQLNDTLQDAFVHIVRGDAENDAFNRLVLTA 660 Query: 659 NLPWRDVALLRAYARYLKQIRLGFDLGYIASALNAHTDIARELVRLFKTRFYLARKLTAE 718 LPWRDVALLRAYARYLKQIRLGFDLGYIAS LN HTDIAREL RLFKTRFYLARKLT++ Sbjct: 661 GLPWRDVALLRAYARYLKQIRLGFDLGYIASTLNNHTDIARELTRLFKTRFYLARKLTSD 720 Query: 719 DLEDKQQKLEQAILGALDEVQVLNEDRILRRYLDLIKATLRTNFYQPDGNGQNKSYFSFK 778 DL+DKQ +LEQAIL ALD+VQVLNEDRILRRYLDLIKATLRTNFYQ D NGQNKSYFSFK Sbjct: 721 DLDDKQLRLEQAILSALDDVQVLNEDRILRRYLDLIKATLRTNFYQTDANGQNKSYFSFK 780 Query: 779 FNPKAIPELPRPVPKYEIFVYSPRVEGVHLRGGKVARGGLRWSDREEDFRTEVLGLVKAQ 838 FNP AIPELP+PVPK+EIFVYSPRVEGVHLR G VARGGLRWSDREEDFRTEVLGLVKAQ Sbjct: 781 FNPHAIPELPKPVPKFEIFVYSPRVEGVHLRFGNVARGGLRWSDREEDFRTEVLGLVKAQ 840 Query: 839 QVKNAVIVPVGAKGGFVPRRLPLGGSRDEIQAEAIACYRIFISGLLDITDNLKEGEVVPP 898 QVKN+VIVPVGAKGGF+PRRLPLGGSRDEI AE IACYRIFISGLLDITDNLK+G +VPP Sbjct: 841 QVKNSVIVPVGAKGGFLPRRLPLGGSRDEIAAEGIACYRIFISGLLDITDNLKDGALVPP 900 Query: 899 ANVVRHDEDDPYLVVAADKGTATFSDIANGIAAEYGFWLGDAFASGGSAGYDHKGMGITA 958 ANVVRHD+DDPYLVVAADKGTATFSDIANGIA +YGFWLGDAFASGGSAGYDHK MGITA Sbjct: 901 ANVVRHDDDDPYLVVAADKGTATFSDIANGIAIDYGFWLGDAFASGGSAGYDHKKMGITA 960 Query: 959 KGAWVSVQRHFRERGIDVQKDNISVIGIGDMAGDVFGNGLLMSDKLQLVAAFNHMHIFID 1018 KGAWV VQRHFRERGI+VQ+D+I+V+G+GDMAGDVFGNGLLMSDKLQLVAAFNH+HIFID Sbjct: 961 KGAWVGVQRHFRERGINVQEDSITVVGVGDMAGDVFGNGLLMSDKLQLVAAFNHLHIFID 1020 Query: 1019 PNPDAASSFVERQRLFNLPRSSWADYDAKLISAGGGIFLRSAKSIAITPEMKARFDIQAD 1078 PNP A+SF ERQRLF+LPRS+W+DYD ++S GGGIF RSAKSIAI+P+MK RFDIQAD Sbjct: 1021 PNPQPANSFAERQRLFDLPRSAWSDYDTSIMSEGGGIFSRSAKSIAISPQMKERFDIQAD 1080 Query: 1079 RLAPTELIHALLKAPVDLLWNGGIGTYVKSSKETHADVGDKANDGLRVDGRELRAKVVGE 1138 +L PTEL++ALLKAPVDLLWNGGIGTYVK+S E+HADVGDKAND LRV+G ELR KVVGE Sbjct: 1081 KLTPTELLNALLKAPVDLLWNGGIGTYVKASSESHADVGDKANDALRVNGNELRCKVVGE 1140 Query: 1139 GGNLGMTQLARVEFGLHGGANNTDFIDNAGGVDCSDHEVNIKILLNEVVQAGDMTEKQRN 1198 GGNLGMTQL RVEFGL+GG +NTDFIDNAGGVDCSDHEVNIKILLNEVVQAGDMTEKQRN Sbjct: 1141 GGNLGMTQLGRVEFGLNGGGSNTDFIDNAGGVDCSDHEVNIKILLNEVVQAGDMTEKQRN 1200 Query: 1199 ALLVKMTDAVGALVLGNNYKQTQALSLAQRRARERIAEYKRLMGDLEARGKLDRALEFLP 1258 LL MTD VG LVLGNNYKQTQALSLA RRA RIAEYKRLM DLE RGKLDRA+EFLP Sbjct: 1201 QLLGSMTDEVGGLVLGNNYKQTQALSLAARRAYVRIAEYKRLMNDLEGRGKLDRAIEFLP 1260 Query: 1259 SDEELAERISAGQGLTRAELSVLISYSKIDLKESLLKSLVPDDDYLTRDMETAFPALLAE 1318 ++++L ER++AG GLTRAELSVLISYSKIDLKE LL SLVPDDDYLTRDMETAFP +L Sbjct: 1261 TEDQLNERVAAGHGLTRAELSVLISYSKIDLKEQLLNSLVPDDDYLTRDMETAFPPMLVS 1320 Query: 1319 KFGDAMRRHRLKREIVSTQIANDLVNHMGITFVQRLKESTGMSAANVAGAYVIVRDVFHL 1378 KF +AMRRHRLKREIVSTQIANDLVNHMGITFVQRLKESTGMS ANVAGAYVIVRD+FHL Sbjct: 1321 KFSEAMRRHRLKREIVSTQIANDLVNHMGITFVQRLKESTGMSPANVAGAYVIVRDIFHL 1380 Query: 1379 PHWFRQIENLDYQVPADIQLTLMDELMRLGRRATRWFLRSRRNELDAARDVAHFGPRIAA 1438 PHWFRQIE LDYQV AD+QL LMDELMRLGRRATRWFLRSRRNE +AARDVAHFGP +AA Sbjct: 1381 PHWFRQIEALDYQVSADVQLELMDELMRLGRRATRWFLRSRRNEQNAARDVAHFGPHLAA 1440 Query: 1439 LGLKLNELLEGPTRELWQARYQTYVDAGVPELLARMVAGTSHLYTLLPIIEASDVTGQDT 1498 LGLKL+ELLEGPTRE WQ RYQ YV AGVPELLARMVAGTSHLYTLLPIIEA+DVTGQ+ Sbjct: 1441 LGLKLDELLEGPTREGWQTRYQAYVAAGVPELLARMVAGTSHLYTLLPIIEAADVTGQNA 1500 Query: 1499 AEVAKAYFAVGSALDLTWYLQQITNLPVENNWQALAREAFRDDLDWQQRAITVSVLQMQD 1558 A+VAKAYFAVGSALDLTWYLQQI+ LPVENNWQALAREAFRDD+DWQQRAIT+SVLQM + Sbjct: 1501 ADVAKAYFAVGSALDLTWYLQQISALPVENNWQALAREAFRDDIDWQQRAITISVLQMGN 1560 Query: 1559 GPKEVEARVGLWLEQHLPLVERWRAMLVELRAASGTDYAMYAVANRELMDLAQSSQ 1614 G ++VE R+ LW++Q+ +VERWRAMLV++RAASGTDYAMYAVANREL+DLA S Q Sbjct: 1561 GKQDVETRLALWMDQNQTMVERWRAMLVDIRAASGTDYAMYAVANRELLDLALSGQ 1616 Lambda K H 0.321 0.137 0.403 Gapped Lambda K H 0.267 0.0410 0.140 Matrix: BLOSUM62 Gap Penalties: Existence: 11, Extension: 1 Number of Sequences: 1 Number of Hits to DB: 6601 Number of extensions: 253 Number of successful extensions: 4 Number of sequences better than 1.0e-02: 1 Number of HSP's gapped: 1 Number of HSP's successfully gapped: 1 Length of query: 1620 Length of database: 1633 Length adjustment: 52 Effective length of query: 1568 Effective length of database: 1581 Effective search space: 2479008 Effective search space used: 2479008 Neighboring words threshold: 11 Window for multiple hits: 40 X1: 16 ( 7.4 bits) X2: 38 (14.6 bits) X3: 64 (24.7 bits) S1: 41 (21.9 bits) S2: 61 (28.1 bits)
This GapMind analysis is from Sep 17 2021. The underlying query database was built on Sep 17 2021.
Each pathway is defined by a set of rules based on individual steps or genes. Candidates for each step are identified by using ublast (a fast alternative to protein BLAST) against a database of manually-curated proteins (most of which are experimentally characterized) or by using HMMer with enzyme models (usually from TIGRFam). Ublast hits may be split across two different proteins.
A candidate for a step is "high confidence" if either:
Otherwise, a candidate is "medium confidence" if either:
Other blast hits with at least 50% coverage are "low confidence."
Steps with no high- or medium-confidence candidates may be considered "gaps." For the typical bacterium that can make all 20 amino acids, there are 1-2 gaps in amino acid biosynthesis pathways. For diverse bacteria and archaea that can utilize a carbon source, there is a complete high-confidence catabolic pathway (including a transporter) just 38% of the time, and there is a complete medium-confidence pathway 63% of the time. Gaps may be due to:
GapMind relies on the predicted proteins in the genome and does not search the six-frame translation. In most cases, you can search the six-frame translation by clicking on links to Curated BLAST for each step definition (in the per-step page).
For more information, see the paper from 2019 on GapMind for amino acid biosynthesis, the paper from 2022 on GapMind for carbon sources, or view the source code.
If you notice any errors or omissions in the step descriptions, or any questionable results, please let us know
by Morgan Price, Arkin group, Lawrence Berkeley National Laboratory