CRISPRimmunity

Overview of predicted results

Overview of the results

Contig_ID	Contig_def	CRISPR array number	Contig Signature genes	Self targeting spacer number	Target MGE spacer number	Prophage number	Anti-CRISPR protein number
LR134489	Capnocytophaga sputigena strain NCTC11097 genome assembly, chromosome: 1	4 crisprs	DEDDh,cas3,RT,cas9,PD-DExK,WYL	6	8	4	0

1. LR134489

CRISPR-Cas detection and classification

Crispr_ID: LR134489_3

• CRISPR_ID: LR134489_3
• CRISPR_location: 1387714-1387884
• CRISPR_type: Orphan
• Repeat_type: NA
• Spacer_info: 3 spacers

Consensus repeat of LR134489_3

Consensus_repeat	Method
TCGTGGGCNAAACCCCATCAGCGCAAGN	CRT

spacers of LR134489_3

>3.1|1387741|18|LR134489|CRT
CTGAAATATTCGTGCAAT
>3.2|1387786|27|LR134489|CRT
TGAAACATTCGTGTCAATTCGTGTAAT
>3.3|1387840|18|LR134489|CRT
CTGAAACATTCGTGAAAT

CRISPR arrays and Neighbor proteins around LR134489_3

CRISPR arrays

The CRISPR arrays of LR134489_3

>merge|LR134489|3|1387714-1387884|CRT
TCGTGGGCAAAACCCCATCAGCGCAAGCTGAAATATTCGTGCAATTCGTGGGCAAACCCCATCAACGCAAGCTGAAACATTCGTGTCAATTCGTGTAATTCGTGGGCGAGAAACCATCAGCGCAAGCTGAAACATTCGTGAAATTCGTGGGCAAAACCCCATCAGCGCAAG

>LR134489|3|1|1387714-1387884|CRT
TCGTGGGCAAAACCCCATCAGCGCAAG	CTGAAATATTCGTGCAAT
TCGTGGGCAAACCCCATCAACGCAAGC	TGAAACATTCGTGTCAATTCGTGTAAT
TCGTGGGCGAGAAACCATCAGCGCAAG	CTGAAACATTCGTGAAAT
TCGTGGGCAAAACCCCATCAGCGCAAG

Neighbor Proteins Overview

Protein	Signature genes	Signature genes Name	Protein_function
LR134489.1|VEI54055.1|1370198_1371599_+|Endo-beta-mannanase	unknown	unknown	unknown
LR134489.1|VEI54051.1|1366746_1367532_+|Beta-glucanase-precursor	unknown	unknown	gnl|CDD|185683
LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO	unknown	unknown	gnl|CDD|273453
LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase	unknown	unknown	gnl|CDD|340838
LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase	unknown	unknown	gnl|CDD|224786
LR134489.1|VEI54059.1|1374700_1378744_+|Sensor-protein-evgS-precursor	unknown	unknown	gnl|CDD|223715
LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1	unknown	unknown	gnl|CDD|340825
LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)	unknown	unknown	gnl|CDD|238865
LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase	unknown	unknown	gnl|CDD|237960
LR134489.1|VEI54057.1|1371623_1374680_+|Beta-galactosidase	unknown	unknown	gnl|CDD|236548
LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase	unknown	unknown	gnl|CDD|131672
LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase	unknown	unknown	gnl|CDD|187563
LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B	unknown	unknown	gnl|CDD|240533
LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase	unknown	unknown	gnl|CDD|181058
LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase	unknown	unknown	gnl|CDD|187566
LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD	unknown	unknown	gnl|CDD|223936
LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase	unknown	unknown	gnl|CDD|366597
LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1	unknown	unknown	gnl|CDD|132152
LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase	unknown	unknown	gnl|CDD|187562
LR134489.1|VEI54053.1|1367532_1369998_+|Beta-galactosidase	unknown	unknown	gnl|CDD|225789

rpsblast for functional proteins

Protein	Function_ID	Function_description	E-value
LR134489.1|VEI54051.1|1366746_1367532_+|Beta-glucanase-precursor	gnl|CDD|185683	cd00413, Glyco_hydrolase_16, glycosyl hydrolase family 16. The O-Glycosyl hydrolases are a widespread group of enzymes that hydrolyse the glycosidic bond between two or more carbohydrates, or between a carbohydrate and a non-carbohydrate moiety. A glycosyl hydrolase classification system based on sequence similarity has led to the definition of more than 95 different families inlcuding glycosyl hydrolase family 16. Family 16 includes lichenase, xyloglucan endotransglycosylase (XET), beta-agarase, kappa-carrageenase, endo-beta-1,3-glucanase, endo-beta-1,3-1,4-glucanase, and endo-beta-galactosidase, all of which have a conserved jelly roll fold with a deep active site channel harboring the catalytic residues.	6.79507e-29
LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO	gnl|CDD|273453	TIGR01125, Ribosomal_protein_S12_methylthiotransferase_RimO, ribosomal protein S12 methylthiotransferase RimO. Members of this protein are the methylthiotransferase RimO, which modifies a conserved Asp residue in ribosomal protein S12. This clade of radical SAM family proteins is closely related to the tRNA modification bifunctional enzyme MiaB (see TIGR01574), and it catalyzes the same two types of reactions: a radical-mechanism sulfur insertion, and a methylation of the inserted sulfur. This clade spans alpha and gamma proteobacteria, cyano bacteria, Deinococcus, Porphyromonas, Aquifex, Helicobacter, Campylobacter, Thermotoga, Chlamydia, Streptococcus coelicolor and Clostridium, but does not include most other gram positive bacteria, archaea or eukaryotes. [Protein synthesis, Ribosomal proteins: synthesis and modification].	2.19899e-164
LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase	gnl|CDD|340838	cd03809, GT4_MtfB-like, glycosyltransferases MtfB, WbpX, and similar proteins. This family is most closely related to the GT4 family of glycosyltransferases. MtfB (mannosyltransferase B) in E. coli has been shown to direct the growth of the O9-specific polysaccharide chain. It transfers two mannoses into the position 3 of the previously synthesized polysaccharide.	1.70184e-94
LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase	gnl|CDD|224786	COG1874, LacA, Beta-galactosidase [Carbohydrate transport and metabolism].	9.52238e-09
LR134489.1|VEI54059.1|1374700_1378744_+|Sensor-protein-evgS-precursor	gnl|CDD|223715	COG0642, BaeS, Signal transduction histidine kinase [Signal transduction mechanisms].	2.25075e-46
LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1	gnl|CDD|340825	cd03794, GT4_WbuB-like, Escherichia coli WbuB and similar proteins. This family is most closely related to the GT1 family of glycosyltransferases. WbuB in E. coli is involved in the biosynthesis of the O26 O-antigen. It has been proposed to function as an N-acetyl-L-fucosamine (L-FucNAc) transferase.	1.69268e-15
LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)	gnl|CDD|238865	cd01827, sialate_O-acetylesterase_like1, sialate O-acetylesterase_like family of the SGNH hydrolases, a diverse family of lipases and esterases. The tertiary fold of the enzyme is substantially different from that of the alpha/beta hydrolase family and unique among all known hydrolases; its active site closely resembles the Ser-His-Asp(Glu) triad found in other serine hydrolases.	8.64477e-84
LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase	gnl|CDD|237960	PRK15407, PRK15407, lipopolysaccharide biosynthesis protein RfbH; Provisional.	0
LR134489.1|VEI54057.1|1371623_1374680_+|Beta-galactosidase	gnl|CDD|236548	PRK09525, lacZ, beta-galactosidase.	0
LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase	gnl|CDD|131672	TIGR02623, Glucose-1-phosphate_cytidylyltransferase, glucose-1-phosphate cytidylyltransferase. Members of this family are the enzyme glucose-1-phosphate cytidylyltransferase, also called CDP-glucose pyrophosphorylase, the product of the rfbF gene. [Cell envelope, Biosynthesis and degradation of surface polysaccharides and lipopolysaccharides].	2.82607e-173
LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase	gnl|CDD|187563	cd05253, UDP_GE_SDE_e, UDP glucuronic acid epimerase, extended (e) SDRs. This subgroup contains UDP-D-glucuronic acid 4-epimerase, an extended SDR, which catalyzes the conversion of UDP-alpha-D-glucuronic acid to UDP-alpha-D-galacturonic acid. This group has the SDR's canonical catalytic tetrad and the TGxxGxxG NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	0
LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B	gnl|CDD|240533	cd13128, MATE_Wzx_like, Wzx, a subfamily of the multidrug and toxic compound extrusion (MATE)-like proteins. Escherichia coli Wzx and related proteins from other gram-negative bacteria are thought to act as flippases, assisting in the membrane translocation of lipopolysaccharides including those containing O-antigens. Proteins from the MATE family are involved in exporting metabolites across the cell membrane and are often responsible for multidrug resistance (MDR).	1.31997e-28
LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase	gnl|CDD|181058	PRK07609, PRK07609, CDP-6-deoxy-delta-3,4-glucoseen reductase; Validated.	2.70494e-110
LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase	gnl|CDD|187566	cd05256, UDP_AE_SDR_e, UDP-N-acetylglucosamine 4-epimerase, extended (e) SDRs. This subgroup contains UDP-N-acetylglucosamine 4-epimerase of Pseudomonas aeruginosa, WbpP, an extended SDR, that catalyzes the NAD+ dependent conversion of UDP-GlcNAc and UDPGalNA to UDP-Glc and UDP-Gal. This subgroup has the characteristic active site tetrad and NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	4.14844e-59
LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD	gnl|CDD|223936	COG1004, Ugd, Predicted UDP-glucose 6-dehydrogenase [Cell envelope biogenesis, outer membrane].	0
LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase	gnl|CDD|366597	pfam01370, Epimerase, NAD dependent epimerase/dehydratase family. This family of proteins utilize NAD as a cofactor. The proteins in this family use nucleotide-sugar substrates for a variety of chemical reactions.	1.76725e-39
LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1	gnl|CDD|132152	TIGR03108, eps_aminotran_1, exosortase A system-associated amidotransferase 1. The predicted protein-sorting transpeptidase that we call exosortase (see TIGR02602) has distinct subclasses that associated with different types of exopolysaccharide production loci. This model represents a distinct clade among a set of amidotransferases largely annotated (not necessarily accurately) as glutatime-hydrolyzing asparagine synthases. Members of this clade are essentially restricted to the characteristic exopolysaccharide (EPS) regions that contain the exosortase 1 genome (xrtA), in genomes that also have numbers of PEP-CTERM domain (TIGR02595) proteins.	3.27076e-137
LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase	gnl|CDD|187562	cd05252, CDP_GD_SDR_e, CDP-D-glucose 4,6-dehydratase, extended (e) SDRs. This subgroup contains CDP-D-glucose 4,6-dehydratase, an extended SDR, which catalyzes the conversion of CDP-D-glucose to CDP-4-keto-6-deoxy-D-glucose. This subgroup has the characteristic active site tetrad and NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	0
LR134489.1|VEI54053.1|1367532_1369998_+|Beta-galactosidase	gnl|CDD|225789	COG3250, LacZ, Beta-galactosidase/beta-glucuronidase [Carbohydrate transport and metabolism].	1.64097e-52

Protein sequences

>LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD
MKIAVIGTGYVGLVSGTCFAEMGNKVTCVDVNTEKIAKLKQGIIPIYEPGLEEMVLSNVAHQTLFFTTDIAEAIKDAEVAFIAVGTPMGDDGSADLQYVLSVAQAIGETMQGELIVVDKSTVPVGTADKVRATVQAALDKRGVNYKFHVVSNPEFLKEGKAIEDFMKPDRVVIGADNEHAFKKMKELYSPFYMQNERMITMDIRSAEMTKYAANTMLATKISFMNEIANICERVGADVNKVRIGIGSDSRIGYSFIYPGCGYGGSCFPKDVLALKKLAEEVDYKAELIESVDKVNNRQKYVIAQKVVAKYGEDLSGKTFAVWGLSFKPETDDMREAPAIYIIKELVKRGAKVQAYDPKAVHEAKVCYLKDVEVTYVESKYEALKGADALLLLTEWKEFRVPDFDEIAKLLNQKVIFDGRNQYNAFELPQKGWEYIQIGV
>LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO
MVTLGCSKNVYDSEVLMGQLKAGGKEVVHEKEGNIVVINTCGFINNAKEESINTILDYVQQKEAGLVDKVFVMGCLSERYKPDLEKEIPDVDQYFGTSELPALLKVLGADYKHELIGERLTTTPKNYAYLKISEGCDRPCSFCAIPLMRGAHISTPIEDLVTEAEKLAAKGVKELILIAQDITYYGLDLYKKRALADLLRALVKVEGIEWIRIHYAFPTGFPIDVLEVMKTEPKICNYLDIPLQHISDKILTSMKRGTTQEKTTKLLNKFREAVPEMAIRTTLIVGYPGETEEDFQALKDFVKAMRFDRLGCFTYSHEENTTAYDLADDVPEEVKLQRANEIMELQSQISWELNQAKVGKVFRCLIDRKEGNYFVGRTEYDSPDVDNEVLIDAKKHYVKIGDFTDVKITEAADYDLYGEPITNC
>LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase
MNIAFDAKRAFHNFRGLGNYSRDLIRMLQEHKVGHLYLFNPQKRKFLGVKIDENTTEIIPQSFFWRTLKSLWRSVKITDIAKKLPIDIYHGLSGEIPKGIAQHLPTVVTIHDLIFMRYPQWYSYFDRKIHYKKFLYAAQNAQHIIAISEQTKRDIITYLGVPEEKITVVYQGCHKAFKNTYTSEEKTAIRQKYRLPERFVLNVGAIESRKNALEIVKAIEPLEDMSLVLVGKPTQYYEEIKRYCELHNLNERVQLLSGVSMEELAIIYQLATVFCYPSVFEGFGIPIIEALFSKTPVITSKGSCFPEAGGVHSIYVNLDRAATEIREAIVNITTDEALRTTMITEGYHYAQRFTDEAVFQELMKVYDQVRDKR
>LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)
MKKQLLFISALVLGSLGWGQQKTIKVACVGNSITYGYGIENREQNSYPSVLQRLLGKGYKVGNFGHSGATLLSKGHRPYIQQEEYKKALAFAGDIVVIHLGINDTDPRNWPNHRNDFVKDYLTLISSFKKANPKARIVIARMSPLSHRHHRFESGTRDWHAEIQQAIALVAQQTNAQLIDFHEPLYHFPQMLPDAVHPNAQGAAILAQVVFGAITGNYGGLQLPEIYSDNMVLQHGQPLPLHGIANAGTKITVTIGKQQLNTTADSNGKWQVTLAPLAAKETYTLQITAGKEKRIFKNVVAGEVWLCSGQSNMEFEMFQASTGERDIPQAENPNIRLFDMEARWRTDNANAWELSALDSINVLQYYKPAQWEVCTPKTVRAFSAVAYYFGRTLQKDLDMPIGLICNAVGGSPTESWVDRRTLEYEFPRILNNWRENDFIMDWVRQRAGENIAKATDKLQRHPYEPAYLFEAGILPLAKYPIKGVIWYQGESNAHNKDAHSKLFPLLVKSWRTEFNNSQLPFYYVQLSSINRPSWGWFRESQRRLMKVVPHSGMAVSYDYGHSTDVHPKNKQPIGERLAQWALADTYGRKVLPSGPLFRSATFNGKVATVAFDYAQGMHSADGKTLRGFELSDGNGIFYPATAEVVGEAIKVTSEEVSTPKMVRYGFSPVTDGNLVNEANLPASTFTSEP
>LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase
MDKCFITLPLHHKMYHQKSICMFLKNCIYLLCLGIASITTTVKAQPYVSPIGAQVFIEPGQTDEEINTWFKLLSEHQMNCCRIRMFENYMKRPDGTWDFSLFDKAFKAAERYNVKIVGTLFPAAPDNSLGGFKHPYSQSHLQEIAAYIKQVVTHFKTSPALYGWVLMNEPGTGGWVPNDAFANTQKSEWLKTLQPTAYNSKGYPQIVDFTPQQFLLHYNTWYLQWIANEVKKYDPNAYLHVNSHQIFSNIAEYNFPAWRNFLSSLGASAHPSWHYTMLHRNQYATALGANCAIIRSGAGELPFWVTELQGGNNTYSGYKAFCPTKEEITQWLWTSIGNGAEHILFWCLNPRAVGDEAGEWALVDFQNQPTDRLTAASEVAKTLQKINSSKFKPVVANIHILYTRETLWVEKKAQLNDNTNNDYEGRNTGGAMKSAFAMYETLLENGINSQFQCFDEFNWNKPSYKGETIILSGQVSLPSRYWEPLRNFVRNGGKLIMEGLSAFYDENMFALHHTGFPLQDVLGGALKEVKCLPTDFSINYQNAPLPAHLWKGSIYNTQGQIVVQEGNNVLATRHRFVRGETFWLPSLLGLGALRSGKGEALSHLLLAEVQAAVPFQFETYQKGVQMYTMQKGNQYLTILINKRPQATTVALRCPKGVNPSVVFADKGGSATANTARLSSEETLVILWK
>LR134489.1|VEI54059.1|1374700_1378744_+|Sensor-protein-evgS-precursor
MRKLLYIIWALLPALLSAQDWAYLSKITTHNGLVSNEVTSMLQDSKGFIWIGTDDGLHKFDGYDITVYKHNSTQKNSLAGNSIRCLFEDSQHNLWIGLKGEGLSKLNLRTGIFTTYKHQKGSNSLSYNDVAGIVEDEAGMIWIAVDRGGLDMLNPKTGVFTHYDVREKGTSQPLNNALTGMVATNGTLILSSWGGGVYRFNRKEKQFELHPYWHTNDTDEKVCKHIFNLYKDPEGTVWVSSAHGGLYSLNEKTKNYQRYAVCGATHCTHNVNVLSVADDGQHNIWIETNEGIKLLNKNTHSITDLQNPQLSNESVNHIYRDKSQLMWVSTASGIYYFSPTPAQFKWVRYKNFLSEKQVRAIFKDSKSNLWIGGLNHIDKLNPDRKTLTAFSNQSYNPNTQLYQAFCEDAEGNIWIGNYANFLIKYNPSSNSFSQVPIPVPTGTNYTYRNIYQITKDWDNSFWLATELGAINYQPATGVFTPLFESKNIIYPEDKTHVIHRDQDLLLWIGTEKGLRCYTRDLKLKHTYTALKNNTHALSNDFITAIHESKDGTLWIGTKGGLHKFDKKTERFELIRRKGTDYGDPIFGLAEDNSGNLWMSTPSAVLKYTPKSQQFQVFNEYDGLQNSGFQLGAFAQAKDGELLIGGKDGFNTFYPQQLTLNQTQPKVVISDFQIFNKSVRPEEDGVLTEVIDETQSIHLKHWQSVISFRFSALNYRASFKNQYAYMLEGFDSDWIYDASERIATYTNLNPGTYIFKVKATNNDGVWSEKPTTIKIIVAPPLWRTTWAYILYALLGVGLLVLIVKYYTIKERDKQNLRISQLEAQRMYEINEMKTNFFSNISHEFKTPLSLIVGPLNQMVDDENSPKQHKEIYTMMLRNAQKLMRLINQLLDFRKLEKNKLELNLQYDDVVKFVKGVSETFAYLALEKQIQYTIKSTMPSLWMPFDADKLDKILYNLIGNAFQYTPEKGAITVLIATVVQNQQKFLQIKIADTGIGISKEEQKQLFTAFLQGKRQKEIHNEGAGLGLAFTKDLVDLHQGHIEVESEEKQGATFTVLLPILDVPQLHDEASITLQQIDTTQAVKEITPQENATDKEETILVVEDNDDMRDYIQHILSEHFHVLLARDGEEGLELAIAHIPDLIVSDIMMPKRDGISMVKELRANEKTNHIPIILLTALDKESQVVEGYSLGVEDYITKPFSAKILSKRIENILLSRKKLWEQYSSSPNLNVYREKLIGQPWKKEFVDKVNNIVMEHLSDPEFGIDALADALNMSTNQLFKKVKAIMNTTPYNVIVQIRMTAAAQLMKQGNLNISEVAYKVGYQELSNFSRSFKKFYNVSPREYLKGESEK
>LR134489.1|VEI54057.1|1371623_1374680_+|Beta-galactosidase
MRIQHTLFLFIFALASSLSTAQTHNWENLAVSSINTEKSHSHYEPAGKVLLNGNWQFAYFKHPSQVPADFFLGKGISQWDAIKVPSNWQLQSNRYDPPVFTNIKYPFEMNPPYTPKDYNPTGVYRTQFTLPNKWKGEQVFIHFAGVQSAMELFINGKQVGYHEDAMLPAEFNITPYLKKGKNELYVKVLNWSDGSYIEDQDFWRLSGIYRDVYLFATPELRMRDFSVYPQLDAQYRDATLQVQVEVQNLGEKVSDALVVQTTLKDNKGNVIGTEKASIADIAAGKEATISAQIAVKNPLKWTAETPNLYKVELSLLTAKGKVLQSFTQNVGFRKVELNNGLLLVNGKPVKFKGVNRHEFDPYNGRTITRQSMIDDIILMKTHNINAVRTSHYPNLPEWYTLCDEYGLYVVDEANIESHGLWESGYYIGERPEWQKDIVERNVNMVARDKNHPCIIYWSMGNESGWGKNFDAAYEAIKALDPQKRPVHYESKNPAYAGVLSHYDIISNMYTELNHLNNLFTEDPKRPVIICEYAHSMGNSLGNFRKYWELFATNERYQGGFTWDWKDQALRCKDKNGKEYWNIINHIDKANVNDGLVNATGVPQPEMHELKKVYQYFNVKDIDINTGLVLISNSNYFVNSDEVYLQWELIENGKPIANGVINDLNIAPQSQRALQIPFDTKLVQNGKEYFMNFRFKNKKATTWTSKDFEVAKEQLAFPNYFVREIAKPSDKKLTFTDEATNFTVKGDDFTAVFSKKTGGLSQFTHKGKNLLSEAMVPSFWRVPTDNDEGGFEHSYASAWRKAGLKEVAVTATEMKATQIGETQVKIVAHNRIETKAGNISQQVTYLINGEGRIDISTNVEVPASVPPLARVGMLLTLDKSFNKVEWYGKGPYETYADRKESAFVGIHNGAVKDMHFPYVMPSENGNHTDTRWLKLLSGTTELYISAPKLFNFNVQDYSDDALNQSKETQELRRGDHTYLHIDEAQMGVGGDDSWSPRVHKEFLLNQPYYHYEFSIQVRN
>LR134489.1|VEI54055.1|1370198_1371599_+|Endo-beta-mannanase
MFNIKLSKILLWLLCLCGALGFSQANITVSKTHPRYFEKNGATWIPISTNYLPIQNFEEAEKYFKHFAENGGNAMRIWVSTDFLEIEDQKEGKYNPEKLVRIEQLLQLAEKYHIYIKFTLHHLRTISKNISPEASWCNSYSLATKFKNVSEYISSKKGKKSYLKRLSAIAKKCANHPYFYGWELWNEMDSAVPEAEWLPFTKEMLGKVKKLCPEQLVTQTLGSMHAPYMDDYYKKLAAIPNNDFLSIHRYLDEGDKWQQYPVVKGAIDSLVSNAVNIGLEFTKENPKPIVINEIGAVQPNHAGPSALYPKDTEGILLHDFIFAPFFCGSAGSGNTWHWDHYIEPNQLWYHFGRFKNAIEGIDPIKEAMQPFSFSSMNVNCYGLQGKTKTILWCRDLANNWKTELHDGHPAEIKRNFEIPLSHINNKYTHYSIYDPWTDKWKRHIPIESNKALIPAFKRSIVVILEE
>LR134489.1|VEI54053.1|1367532_1369998_+|Beta-galactosidase
MTHLNKLLFILICMSLWLALPIYGQATREHILLDNHWKFTLGHATDPSKDLYYRVYNDFSKTLSKGINFSSIDYDDSSWQTVDLPHDWAITLPFSEKGDWSHGYKALGNAFPERSIGWYRKTFDLSKAEAGKRIELQFDGIFRDSRCWVNGIYVGQHLSGYTGVKYDITDLVHFGKPNVITVRVDATQNEGWFYEGAGIYRHVWLNTYSPVHSSPEEVFIYTKSIGKQAEMHAEATVYNRETSLQTFQVEWTVLNREKKVIATHKSANATFAPNEKLTVKSNFNIPNVQLWDTEHPYLYTLITKITANGKTTDLIHTRFGVRTFSYKPDGFYLNNKKMKIKGVCVHQDHAGVGTALLDELQYYRVGLLKAMGANAYRTAHHPHSPVVLQACDSLGVLMMDETRLLNSGREYRQQFEDLIKRDRNHASVFMWCIGNEEEKIQSTETGERIARTLVNLQQHLDPSRVSTYGANVGNESEGVSAAIPVRGFNYNLYGLTDYEKAHPNQPIIGTEVASTVGTRGVYLPETVLDKAGGYSGHFVADTLRAYLIDQDKSYPSWASQAQQWYSTTANDPRFMGGFVWTGFDYRGEPTPFAWPNISSHFGVMDVCGFPKNVYYYYKAQWGEMPVLHIAPHWNLNLPQGTVVKVLVYGNTEEVELFLNGKSLGKQKTPTFGHLNWDVPYEKGTLKAVGTKNGKRVTTEVTTTENPYAIVLTPHKTQLKAGKQDVVVVNVSVVDKKGREVPDAQNLIQFELIGDATIAGVGNGDPSSHEKDAFAKEERVERKLFNGKCQVIIRSGEKGGKLQLRATAKGLKEAQIIVKSEK
>LR134489.1|VEI54051.1|1366746_1367532_+|Beta-glucanase-precursor
MNTLKLFSFLSIFLCGITACNKSGGDTPIEENPMPETPTEWVLDFQENFDGNALNTDNWAVYDNEYLEKEGKLKPENTRRTYAIEVKDGFLNCLIDKDPKRNGWFMTGGIAHKKNYKYGKFEFRIRMDEDPHKSSSGLGLTWPESEKWPDDGENDIYETAHENNTWNTNIHYAVSGKDQKYQQTFQYNKSDWHIIAMEWTPEYIKIYIDNKLVWNLKDPVAIAKAPHHLCFQTEKDINKPFTKALKLQVDWAKVYKYVPKK
>LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase
MKILVTGGAGFVGSNLCEALAKDPQNDVYSLDNYFTGSRDNHVPNVTYIEGSTEHIFELINFTPDLIYHLGEYSRVEQSFEDIDKVLLFNKIGTLKVLEFCRKHACKLIYAGSSTKFGDGGMGKDQSPYAWSKSSNTELIINYGNWYNLNYAIVYFYNVYGKREIRTGKYATLIALFTEKMKKGEPLTVVSPGTQQRNFTHIDDIVDGLLLVGQKGNGDGYGIGSPETYTVLEIAQLFGGKIQMLPERKGNRMTAEVITQKTEELGWKSKRHIKEFIEKSTN
>LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase
MKILVTGAAGFIGAFVCKALLEKGHQVVGIDNLNNYYDVNLKYGRLAILGIEKEQCIDHTPVNSELYPAFQFAKIDVTDKQQLESLFNKEKFEVVCNLAAQAGVRYSIENPDTYIQSNIVGFANLLECCRHFSVKHLVYASSSSVYGMNAKIPFSETDKVDAPVSLYAATKKSNELMAHTYTHLYKFASTGLRFFTVYGPWGRPDMSPILFANAIAKNEPIKVFNNGDMERDFTYIDDIVAGVVTIIEKPITDFRPLYKIYNIGNNNSVKLMDFIATIEKYMGREAKKDMYPMQMGDVQRTWADVSELIKDYNYKPSTTIDEGIKEFVNWYKNFYK
>LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase
MKYTIHLKNSKTYTCEENTSLLQAALDSGITLEYSCLNARCSSCRVKILEGEVENLQDEQVLTAEEKAAGYVLSCNVVPRSEVVLDVEDLGITLPKPQVTPCKINSITAVAPHIAEVVLRLPPKVDFQFLAGQYIDIIRNGQKRSYSINHSQCEGNELRLFIRNYEGGLFSQYWFSEAKTNDLLRMEGPLGTFFYRNNPACEEIVLLATGTGIAPIKAILDQWQQQPEQVKGKKIWLLWGGRKKEDLFWQLETTLPNFTYIPVLTREDEWQGAKGYVQEIALQQPIHWQKAQVYACGSEVMIQSAQKLLSQQGLKEENFFADAFV
>LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase
MKAVILAGGLGTRLSEETVVKPKPMVEIGGMPILWHILKIYSHYGINEFIICCGYKGYIIKEYFANYFMHQSDITFDMANNEMHVHQKRAEPWKITLVDTGEHSMTGGRLKRILPYIDKEDAFCFTYGDGVADIDIAKLVAFHKAHGKQATLTAVYPPGRFGALDIVDNQVLQFQEKPRGDGALVNGGFFVLSPKVIERIKDDNTIWEQEPLKGLAANGQLMSYKHEGFWQPMDTLRDKMLLEELWQNDKAPWKVWQ
>LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase
MAIGKVNPQFWKGKRVFVTGHTGFKGSWLSLWLQLMGAEVKGFSLTPPTQPALFDVAKVGDNMQTEIGDIRNLQQLSQSIRAFNPDVLLHLAAQPLVRLSYKEPVDTYSTNVMGTVNVLEAARHTPNLKSVVIITTDKCYENHEWEWGYRENEPMGGHDPYSNSKGCAELVVSAYRRSFFYTNDTAAVASARAGNVIGGGDWADDRLIPDILRAFEKQQPVIIRNPLSTRPWQHVLEPLSGYLVLAERLYNEGNAFAEGWNFGPKDDDCQSVQWILEKMVQFWGEGARYEWDKSEQPHEANFLKLDCSKAATRLKWHPQWRLADTLEKIVHWHRSWLQGADMQTRCLYEIKGYMES
>LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase
MSLETIREEIAKLVTQYAQEAYKPKPFEAGKTIIPPSGKVIGEQELQNMVAASLDAWLTTGRFNAAFEQKLAAFLGVKYCITVNSGSSANLVAFSALTSPKLGDRAIKKGDEVIGVAAGFPTTVNPIVQFGAVPVFVDVDLHTHNINADLIEQAITPKTKAIMLAHTLGNPFNLEKIKALCEKYNLWLVEDCCDALGATYNGQKVGTFGDIATLSFYPAHHITMGEGGAVFTNNAELKTIAESFRDWGRDCYCAPGKDNTCNCRFSQQHGDLPFGYDHKYVYSHIGYNLKISDMQAACGLAQLDRVEEFIEKRRKNFAYLKERLQTLTDFLYLPEATPNSNPSWFGFPITLKEEAGTARVDLLRFLDQHKIGTRLLFAGNLTKQPYFKGVEYRVVGDLTNTDITMNQTFWVGIYPALGEQELDYIAEQLEEYFGVNF
>LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase
MTVLLTGATGFLGSHLLKALVSKGYKVVALKRTTSDMWRLKGFENTFKSYDIDQVPLQKVFEEQPIDTVIHTACVYGRKGESIEKILETNLMFGIELLNTAINFNTRTFFNTGTLLDRQINAYALSKNQFEEWLQVASDKIQVINLKLEHMFGEQDGNDKFTTWILNELKQEKPIIPLTAGTQKRDFIYIDDVVNAYLTCLEQVPQLKAFNDIEVGTGVLTPVKTFVTLVKSTLEKLKGSPIQTQLNFGALPYREGEIMEPQVDNNVLCSLGWQPKRSLEENV
>LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1
MTEIGKILYFCNENAFITYKRRILPLKRQFKDIKIEEFDPKKPNCADVLILQAIPNDTDIFNNIINKKYSKYVVYDRSDDLGGVINPPFIRKTIWQLLSFIKNKTHPSILHKELIKKCDLIVCGSKMQAETAKSINHNTSHIVDCVPEEEYPLLYDLSIQKSYNEVPTIVWEGTNASMHQIKVVLDALKALQELHNFTFIILSNRYNKKDEDFISYLKNKGLNFTFEEWTKENFKKTLTEADIAIAPIDVTKKFNRAKPYNKIISYWAYKLPVVASSIQSYKEIVEQGADGFICENQGEWIASLSALLTDISLRKRMGENGWMKAKECSEENFAKKYLEILNENFCKNS
>LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B
MKIFVKILSYIKNPTYLYQVFGQLSSQLLGFLLGMFLVRIAGVEVSGGYNSLLAIMNMSIGMIYSGILTNYLRNAIVKDYFLALITFITATFVLFLLLLPVFLFLGYNFINLVYIYIITLFINFIQISVYSLRLRRMDNKVFLPNVLPVGLLIIALFAFKPTSLIQFLYLALVSWGVSLFFVWNNLRHISLGKITTNKIWNYIKDSKILMLTMLMTLLYGNLDTILIKYLMGDSLVGYYKIAMSLTMFVMPAIGIFCFIYLSEIKNYIENNDYKALLQKRKQQLFLILFITVLFSLFCLCFNRYIIPFLYGVTSDKTVWASVILSFSVMFNALSMVNSYTLVGMGKEHKILKITFIAGGVNVVGNLLLIPYIDILGAALASVLTQIFIFVYNSYVVRKELESV
>LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1
MCGIYVTNIPYLEEEVENKLRSIHFRGPNNMGIEKIDEVTLGHLRLSILDLEKRSNQPYNFGKYTIVYNGEIYNYKQIQSELVSEGYYFETTSDTEVLIKGFDCWGKEILKKLNGMFAFAIYNTESKQLFCARDRVGVKPFYYFWKEGKFEICSQLRPLFSKELTVSKEAIAIYLDCGYIPSPYTIFEEVYKLSPGHYMLIDTIEKTKVIETYWDLQPVTLTNMSYAEAKDKLHELIKDAVKIRMQSDVPLGSFLSGGIDSALVSAIAAKISDKPINTFTIASEDPQYDESKVARQYAELIGSYHKETTCKPEEFLEMLADFRRAYDEPFADSSALPSLLLNKITKQEVTVALSGDGGDESFIGYSHFVIIDKFRKLSWIPYPIRNLLSKVPFHWITGSMPHTIREILNSKDENELAVKFYISLDTINKKRDLRWLDKHYSSFKHLSKDAVQRAADLNIKLWLENDSNVKVDRASMAFSVESRSPFLDYRIIEFARKLPISYRYKDGITKRILRDILEEYIPREVFTQPKKGFSIPLEKWLRNELKADVLQKLNDAFLYSVPNLDVEKFKKELYLHLQGKRNYVFNIWKVYVLALWCEEFGISLQK

Crispr_ID: LR134489_4

• CRISPR_ID: LR134489_4
• CRISPR_location: 1393579-1394164
• CRISPR_type: Orphan
• Repeat_type: NA
• Spacer_info: 11 spacers

Consensus repeat of LR134489_4

Consensus_repeat	Method
NCATCAGCGCAAGCTGAAAN	CRT

spacers of LR134489_4

>4.1|1393598|27|LR134489|CRT
ACATTCGTGAAATTCGTAGGCGAAAAC
>4.2|1393644|38|LR134489|CRT
ACATTCGTGTTAATTCGTGAAATTCGTGGGCGAAAAAC
>4.3|1393701|27|LR134489|CRT
ACATTCGTGAAATTCGTAGGCGAAAAC
>4.4|1393747|37|LR134489|CRT
CATTCGTGTCAATTCGTGAAATTCGTGGGCGAAAAAA
>4.5|1393803|28|LR134489|CRT
AACATTCGTGCAATTCGTGGGCAAACCT
>4.6|1393850|27|LR134489|CRT
CATTCGTGCAAATTCGTGGGCAAACCC
>4.7|1393896|36|LR134489|CRT
CATTCGTGCCAATTCGTGCAATCCGTGGGCAAACCC
>4.8|1393951|36|LR134489|CRT
ATTCGTGCCAATTCGTGAAATTCGTGGGCGAACCCC
>4.9|1394006|36|LR134489|CRT
ATTCGTGCCAATTCGTGTAATTCGTGGGCGAAAAAC
>4.10|1394061|27|LR134489|CRT
CATTCGTGCAATCCGTGGGCAAAACCC
>4.11|1394107|39|LR134489|CRT
AACATTCGTGTAAATTCGTGTAATTCGTGGGCAAACCCT

CRISPR arrays and Neighbor proteins around LR134489_4

CRISPR arrays

The CRISPR arrays of LR134489_4

>merge|LR134489|4|1393579-1394164|CRT
TCATCAGCGCAAGCTGAAAACATTCGTGAAATTCGTAGGCGAAAACCCATCAGCGCAAGCTGAAAACATTCGTGTTAATTCGTGAAATTCGTGGGCGAAAAACCCATCAGCGCAAGCTGAAAACATTCGTGAAATTCGTAGGCGAAAACCCATCAGCGCAAGCTGAAACATTCGTGTCAATTCGTGAAATTCGTGGGCGAAAAAATTATCAGCGTAAGCTGAAAAACATTCGTGCAATTCGTGGGCAAACCTCCATCAGTGCAAGCTGAAACATTCGTGCAAATTCGTGGGCAAACCCCATCAGCGCAAGCTGAAAACATTCGTGCCAATTCGTGCAATCCGTGGGCAAACCCCATCAGCGCAAGCTGAAACATTCGTGCCAATTCGTGAAATTCGTGGGCGAACCCCCATCAGCGCAAGCTGAAACATTCGTGCCAATTCGTGTAATTCGTGGGCGAAAAACCATCAGCGCAAGCTGAAAACATTCGTGCAATCCGTGGGCAAAACCCCATCAGCGCAAGGCTGAAAAACATTCGTGTAAATTCGTGTAATTCGTGGGCAAACCCTCATCAGCGCAAGCTGAAAA

>LR134489|4|2|1393579-1394164|CRT
TCATCAGCGCAAGCTGAAA	ACATTCGTGAAATTCGTAGGCGAAAAC
CCATCAGCGCAAGCTGAAA	ACATTCGTGTTAATTCGTGAAATTCGTGGGCGAAAAAC
CCATCAGCGCAAGCTGAAA	ACATTCGTGAAATTCGTAGGCGAAAAC
CCATCAGCGCAAGCTGAAA	CATTCGTGTCAATTCGTGAAATTCGTGGGCGAAAAAA
TTATCAGCGTAAGCTGAAA	AACATTCGTGCAATTCGTGGGCAAACCT
CCATCAGTGCAAGCTGAAA	CATTCGTGCAAATTCGTGGGCAAACCC
CATCAGCGCAAGCTGAAAA	CATTCGTGCCAATTCGTGCAATCCGTGGGCAAACCC
CATCAGCGCAAGCTGAAAC	ATTCGTGCCAATTCGTGAAATTCGTGGGCGAACCCC
CATCAGCGCAAGCTGAAAC	ATTCGTGCCAATTCGTGTAATTCGTGGGCGAAAAAC
CATCAGCGCAAGCTGAAAA	CATTCGTGCAATCCGTGGGCAAAACCC
CATCAGCGCAAGGCTGAAA	AACATTCGTGTAAATTCGTGTAATTCGTGGGCAAACCCT
CATCAGCGCAAGCTGAAAA

Neighbor Proteins Overview

Protein	Signature genes	Signature genes Name	Protein_function
LR134489.1|VEI54097.1|1404320_1405448_+|glycosyltransferase,-MSMEG_0565-family	unknown	unknown	gnl|CDD|340838
LR134489.1|VEI54091.1|1400891_1401953_+|Uncharacterized-protein-conserved-in-bacteria	unknown	unknown	gnl|CDD|379238
LR134489.1|VEI54093.1|1401960_1402977_+|putative-glycosyl-transferase	unknown	unknown	gnl|CDD|366154
LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase	unknown	unknown	gnl|CDD|237960
LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase	unknown	unknown	gnl|CDD|340838
LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase	unknown	unknown	gnl|CDD|224786
LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO	unknown	unknown	gnl|CDD|273453
LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1	unknown	unknown	gnl|CDD|340825
LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)	unknown	unknown	gnl|CDD|238865
LR134489.1|VEI54099.1|1405431_1406457_+|UDP-glucose-4-epimerase	unknown	unknown	gnl|CDD|275003
LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase	unknown	unknown	gnl|CDD|131672
LR134489.1|VEI54095.1|1403023_1404340_+|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase	unknown	unknown	gnl|CDD|187563
LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B	unknown	unknown	gnl|CDD|240533
LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase	unknown	unknown	gnl|CDD|181058
LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase	unknown	unknown	gnl|CDD|187566
LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD	unknown	unknown	gnl|CDD|223936
LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase	unknown	unknown	gnl|CDD|366597
LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase	unknown	unknown	gnl|CDD|187562
LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1	unknown	unknown	gnl|CDD|132152

rpsblast for functional proteins

Protein	Function_ID	Function_description	E-value
LR134489.1|VEI54097.1|1404320_1405448_+|glycosyltransferase,-MSMEG_0565-family	gnl|CDD|340838	cd03809, GT4_MtfB-like, glycosyltransferases MtfB, WbpX, and similar proteins. This family is most closely related to the GT4 family of glycosyltransferases. MtfB (mannosyltransferase B) in E. coli has been shown to direct the growth of the O9-specific polysaccharide chain. It transfers two mannoses into the position 3 of the previously synthesized polysaccharide.	9.74247e-27
LR134489.1|VEI54091.1|1400891_1401953_+|Uncharacterized-protein-conserved-in-bacteria	gnl|CDD|379238	pfam13524, Glyco_trans_1_2, Glycosyl transferases group 1.	5.16317e-13
LR134489.1|VEI54093.1|1401960_1402977_+|putative-glycosyl-transferase	gnl|CDD|366154	pfam00535, Glycos_transf_2, Glycosyl transferase family 2. Diverse family, transferring sugar from UDP-glucose, UDP-N-acetyl- galactosamine, GDP-mannose or CDP-abequose, to a range of substrates including cellulose, dolichol phosphate and teichoic acids.	1.52029e-15
LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase	gnl|CDD|237960	PRK15407, PRK15407, lipopolysaccharide biosynthesis protein RfbH; Provisional.	0
LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase	gnl|CDD|340838	cd03809, GT4_MtfB-like, glycosyltransferases MtfB, WbpX, and similar proteins. This family is most closely related to the GT4 family of glycosyltransferases. MtfB (mannosyltransferase B) in E. coli has been shown to direct the growth of the O9-specific polysaccharide chain. It transfers two mannoses into the position 3 of the previously synthesized polysaccharide.	1.70184e-94
LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase	gnl|CDD|224786	COG1874, LacA, Beta-galactosidase [Carbohydrate transport and metabolism].	9.52238e-09
LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO	gnl|CDD|273453	TIGR01125, Ribosomal_protein_S12_methylthiotransferase_RimO, ribosomal protein S12 methylthiotransferase RimO. Members of this protein are the methylthiotransferase RimO, which modifies a conserved Asp residue in ribosomal protein S12. This clade of radical SAM family proteins is closely related to the tRNA modification bifunctional enzyme MiaB (see TIGR01574), and it catalyzes the same two types of reactions: a radical-mechanism sulfur insertion, and a methylation of the inserted sulfur. This clade spans alpha and gamma proteobacteria, cyano bacteria, Deinococcus, Porphyromonas, Aquifex, Helicobacter, Campylobacter, Thermotoga, Chlamydia, Streptococcus coelicolor and Clostridium, but does not include most other gram positive bacteria, archaea or eukaryotes. [Protein synthesis, Ribosomal proteins: synthesis and modification].	2.19899e-164
LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1	gnl|CDD|340825	cd03794, GT4_WbuB-like, Escherichia coli WbuB and similar proteins. This family is most closely related to the GT1 family of glycosyltransferases. WbuB in E. coli is involved in the biosynthesis of the O26 O-antigen. It has been proposed to function as an N-acetyl-L-fucosamine (L-FucNAc) transferase.	1.69268e-15
LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)	gnl|CDD|238865	cd01827, sialate_O-acetylesterase_like1, sialate O-acetylesterase_like family of the SGNH hydrolases, a diverse family of lipases and esterases. The tertiary fold of the enzyme is substantially different from that of the alpha/beta hydrolase family and unique among all known hydrolases; its active site closely resembles the Ser-His-Asp(Glu) triad found in other serine hydrolases.	8.64477e-84
LR134489.1|VEI54099.1|1405431_1406457_+|UDP-glucose-4-epimerase	gnl|CDD|275003	TIGR04130, L-fucosamine_synthetase, UDP-N-acetylglucosamine 4,6-dehydratase/5-epimerase. The FnlA enzyme is the first step in the biosynthesis of UDP-FucNAc from UDP-GlcNAc in E. coli (along with FnlB and FnlC). The proteins identified by this model include FnlA homologs in the O-antigen clusters of O4, O25, O26, O29 (Shigella D11), O118, O145 and O172 serotype strains, all of which produce O-antigens containing FucNAc (or the further modified FucNAm). A homolog from Pseudomonas aerugiosa serotype O11, WbjB, also involved in the biosynthesis of UDP-FucNAc has been characterized and is now believed to carry out both the initial 4,6-dehydratase reaction and the subsequent epimerization of the resulting methyl group at C-5. A phylogenetic tree of related sequences shows a distinct clade of enzymes involved in the biosynthesis of UDP-QuiNAc (Qui=qinovosamine). This clade appears to be descendant from the common ancestor of the Pseudomonas and E. coli fucose-biosynthesis enzymes. It has been hypothesized that the first step in the biosynthesis of these two compounds may be the same, and thus that these enzymes all have the same function. At present, lacking sufficient confirmation of this, the current model trusted cutoff only covers the tree segment surrounding the E. coli genes. The clades containing the Pseudomonas and QuiNAc biosynthesis enzymes score above the noise cutoff. Immediately below the noise cutoff are enzymes involved in the biosynthesis of UDP-RhaNAc (Rha=rhamnose), which again may or may not produce the same product.	5.58004e-173
LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase	gnl|CDD|131672	TIGR02623, Glucose-1-phosphate_cytidylyltransferase, glucose-1-phosphate cytidylyltransferase. Members of this family are the enzyme glucose-1-phosphate cytidylyltransferase, also called CDP-glucose pyrophosphorylase, the product of the rfbF gene. [Cell envelope, Biosynthesis and degradation of surface polysaccharides and lipopolysaccharides].	2.82607e-173
LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase	gnl|CDD|187563	cd05253, UDP_GE_SDE_e, UDP glucuronic acid epimerase, extended (e) SDRs. This subgroup contains UDP-D-glucuronic acid 4-epimerase, an extended SDR, which catalyzes the conversion of UDP-alpha-D-glucuronic acid to UDP-alpha-D-galacturonic acid. This group has the SDR's canonical catalytic tetrad and the TGxxGxxG NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	0
LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B	gnl|CDD|240533	cd13128, MATE_Wzx_like, Wzx, a subfamily of the multidrug and toxic compound extrusion (MATE)-like proteins. Escherichia coli Wzx and related proteins from other gram-negative bacteria are thought to act as flippases, assisting in the membrane translocation of lipopolysaccharides including those containing O-antigens. Proteins from the MATE family are involved in exporting metabolites across the cell membrane and are often responsible for multidrug resistance (MDR).	1.31997e-28
LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase	gnl|CDD|181058	PRK07609, PRK07609, CDP-6-deoxy-delta-3,4-glucoseen reductase; Validated.	2.70494e-110
LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase	gnl|CDD|187566	cd05256, UDP_AE_SDR_e, UDP-N-acetylglucosamine 4-epimerase, extended (e) SDRs. This subgroup contains UDP-N-acetylglucosamine 4-epimerase of Pseudomonas aeruginosa, WbpP, an extended SDR, that catalyzes the NAD+ dependent conversion of UDP-GlcNAc and UDPGalNA to UDP-Glc and UDP-Gal. This subgroup has the characteristic active site tetrad and NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	4.14844e-59
LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD	gnl|CDD|223936	COG1004, Ugd, Predicted UDP-glucose 6-dehydrogenase [Cell envelope biogenesis, outer membrane].	0
LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase	gnl|CDD|366597	pfam01370, Epimerase, NAD dependent epimerase/dehydratase family. This family of proteins utilize NAD as a cofactor. The proteins in this family use nucleotide-sugar substrates for a variety of chemical reactions.	1.76725e-39
LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase	gnl|CDD|187562	cd05252, CDP_GD_SDR_e, CDP-D-glucose 4,6-dehydratase, extended (e) SDRs. This subgroup contains CDP-D-glucose 4,6-dehydratase, an extended SDR, which catalyzes the conversion of CDP-D-glucose to CDP-4-keto-6-deoxy-D-glucose. This subgroup has the characteristic active site tetrad and NAD-binding motif of the extended SDRs. Extended SDRs are distinct from classical SDRs. In addition to the Rossmann fold (alpha/beta folding pattern with a central beta-sheet) core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids. Extended SDRs are a diverse collection of proteins, and include isomerases, epimerases, oxidoreductases, and lyases; they typically have a TGXXGXXG cofactor binding motif. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	0
LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1	gnl|CDD|132152	TIGR03108, eps_aminotran_1, exosortase A system-associated amidotransferase 1. The predicted protein-sorting transpeptidase that we call exosortase (see TIGR02602) has distinct subclasses that associated with different types of exopolysaccharide production loci. This model represents a distinct clade among a set of amidotransferases largely annotated (not necessarily accurately) as glutatime-hydrolyzing asparagine synthases. Members of this clade are essentially restricted to the characteristic exopolysaccharide (EPS) regions that contain the exosortase 1 genome (xrtA), in genomes that also have numbers of PEP-CTERM domain (TIGR02595) proteins.	3.27076e-137

Protein sequences

>LR134489.1|VEI54079.1|1392505_1393576_+|CDP-glucose-4,6-dehydratase
MAIGKVNPQFWKGKRVFVTGHTGFKGSWLSLWLQLMGAEVKGFSLTPPTQPALFDVAKVGDNMQTEIGDIRNLQQLSQSIRAFNPDVLLHLAAQPLVRLSYKEPVDTYSTNVMGTVNVLEAARHTPNLKSVVIITTDKCYENHEWEWGYRENEPMGGHDPYSNSKGCAELVVSAYRRSFFYTNDTAAVASARAGNVIGGGDWADDRLIPDILRAFEKQQPVIIRNPLSTRPWQHVLEPLSGYLVLAERLYNEGNAFAEGWNFGPKDDDCQSVQWILEKMVQFWGEGARYEWDKSEQPHEANFLKLDCSKAATRLKWHPQWRLADTLEKIVHWHRSWLQGADMQTRCLYEIKGYMES
>LR134489.1|VEI54077.1|1391741_1392515_+|Glucose-1-phosphate-cytidylyltransferase
MKAVILAGGLGTRLSEETVVKPKPMVEIGGMPILWHILKIYSHYGINEFIICCGYKGYIIKEYFANYFMHQSDITFDMANNEMHVHQKRAEPWKITLVDTGEHSMTGGRLKRILPYIDKEDAFCFTYGDGVADIDIAKLVAFHKAHGKQATLTAVYPPGRFGALDIVDNQVLQFQEKPRGDGALVNGGFFVLSPKVIERIKDDNTIWEQEPLKGLAANGQLMSYKHEGFWQPMDTLRDKMLLEELWQNDKAPWKVWQ
>LR134489.1|VEI54075.1|1389928_1390906_+|CDP-6-deoxy-L-threo-D-glycero-4-hexulose-3--dehydrase-reductase
MKYTIHLKNSKTYTCEENTSLLQAALDSGITLEYSCLNARCSSCRVKILEGEVENLQDEQVLTAEEKAAGYVLSCNVVPRSEVVLDVEDLGITLPKPQVTPCKINSITAVAPHIAEVVLRLPPKVDFQFLAGQYIDIIRNGQKRSYSINHSQCEGNELRLFIRNYEGGLFSQYWFSEAKTNDLLRMEGPLGTFFYRNNPACEEIVLLATGTGIAPIKAILDQWQQQPEQVKGKKIWLLWGGRKKEDLFWQLETTLPNFTYIPVLTREDEWQGAKGYVQEIALQQPIHWQKAQVYACGSEVMIQSAQKLLSQQGLKEENFFADAFV
>LR134489.1|VEI54073.1|1388918_1389929_+|UDP-glucose-4-epimerase
MKILVTGAAGFIGAFVCKALLEKGHQVVGIDNLNNYYDVNLKYGRLAILGIEKEQCIDHTPVNSELYPAFQFAKIDVTDKQQLESLFNKEKFEVVCNLAAQAGVRYSIENPDTYIQSNIVGFANLLECCRHFSVKHLVYASSSSVYGMNAKIPFSETDKVDAPVSLYAATKKSNELMAHTYTHLYKFASTGLRFFTVYGPWGRPDMSPILFANAIAKNEPIKVFNNGDMERDFTYIDDIVAGVVTIIEKPITDFRPLYKIYNIGNNNSVKLMDFIATIEKYMGREAKKDMYPMQMGDVQRTWADVSELIKDYNYKPSTTIDEGIKEFVNWYKNFYK
>LR134489.1|VEI54071.1|1388066_1388915_+|dTDP-glucose-4,6-dehydratase
MKILVTGGAGFVGSNLCEALAKDPQNDVYSLDNYFTGSRDNHVPNVTYIEGSTEHIFELINFTPDLIYHLGEYSRVEQSFEDIDKVLLFNKIGTLKVLEFCRKHACKLIYAGSSTKFGDGGMGKDQSPYAWSKSSNTELIINYGNWYNLNYAIVYFYNVYGKREIRTGKYATLIALFTEKMKKGEPLTVVSPGTQQRNFTHIDDIVDGLLLVGQKGNGDGYGIGSPETYTVLEIAQLFGGKIQMLPERKGNRMTAEVITQKTEELGWKSKRHIKEFIEKSTN
>LR134489.1|VEI54069.1|1386339_1387659_+|UDP-glucose-6-dehydrogenase-tuaD
MKIAVIGTGYVGLVSGTCFAEMGNKVTCVDVNTEKIAKLKQGIIPIYEPGLEEMVLSNVAHQTLFFTTDIAEAIKDAEVAFIAVGTPMGDDGSADLQYVLSVAQAIGETMQGELIVVDKSTVPVGTADKVRATVQAALDKRGVNYKFHVVSNPEFLKEGKAIEDFMKPDRVVIGADNEHAFKKMKELYSPFYMQNERMITMDIRSAEMTKYAANTMLATKISFMNEIANICERVGADVNKVRIGIGSDSRIGYSFIYPGCGYGGSCFPKDVLALKKLAEEVDYKAELIESVDKVNNRQKYVIAQKVVAKYGEDLSGKTFAVWGLSFKPETDDMREAPAIYIIKELVKRGAKVQAYDPKAVHEAKVCYLKDVEVTYVESKYEALKGADALLLLTEWKEFRVPDFDEIAKLLNQKVIFDGRNQYNAFELPQKGWEYIQIGV
>LR134489.1|VEI54067.1|1385002_1386277_+|Ribosomal-protein-S12-methylthiotransferase-RimO
MVTLGCSKNVYDSEVLMGQLKAGGKEVVHEKEGNIVVINTCGFINNAKEESINTILDYVQQKEAGLVDKVFVMGCLSERYKPDLEKEIPDVDQYFGTSELPALLKVLGADYKHELIGERLTTTPKNYAYLKISEGCDRPCSFCAIPLMRGAHISTPIEDLVTEAEKLAAKGVKELILIAQDITYYGLDLYKKRALADLLRALVKVEGIEWIRIHYAFPTGFPIDVLEVMKTEPKICNYLDIPLQHISDKILTSMKRGTTQEKTTKLLNKFREAVPEMAIRTTLIVGYPGETEEDFQALKDFVKAMRFDRLGCFTYSHEENTTAYDLADDVPEEVKLQRANEIMELQSQISWELNQAKVGKVFRCLIDRKEGNYFVGRTEYDSPDVDNEVLIDAKKHYVKIGDFTDVKITEAADYDLYGEPITNC
>LR134489.1|VEI54065.1|1383282_1384404_-|D-inositol-3-phosphate-glycosyltransferase
MNIAFDAKRAFHNFRGLGNYSRDLIRMLQEHKVGHLYLFNPQKRKFLGVKIDENTTEIIPQSFFWRTLKSLWRSVKITDIAKKLPIDIYHGLSGEIPKGIAQHLPTVVTIHDLIFMRYPQWYSYFDRKIHYKKFLYAAQNAQHIIAISEQTKRDIITYLGVPEEKITVVYQGCHKAFKNTYTSEEKTAIRQKYRLPERFVLNVGAIESRKNALEIVKAIEPLEDMSLVLVGKPTQYYEEIKRYCELHNLNERVQLLSGVSMEELAIIYQLATVFCYPSVFEGFGIPIIEALFSKTPVITSKGSCFPEAGGVHSIYVNLDRAATEIREAIVNITTDEALRTTMITEGYHYAQRFTDEAVFQELMKVYDQVRDKR
>LR134489.1|VEI54063.1|1381193_1383263_+|Domain-of-uncharacterised-function-(DUF303)
MKKQLLFISALVLGSLGWGQQKTIKVACVGNSITYGYGIENREQNSYPSVLQRLLGKGYKVGNFGHSGATLLSKGHRPYIQQEEYKKALAFAGDIVVIHLGINDTDPRNWPNHRNDFVKDYLTLISSFKKANPKARIVIARMSPLSHRHHRFESGTRDWHAEIQQAIALVAQQTNAQLIDFHEPLYHFPQMLPDAVHPNAQGAAILAQVVFGAITGNYGGLQLPEIYSDNMVLQHGQPLPLHGIANAGTKITVTIGKQQLNTTADSNGKWQVTLAPLAAKETYTLQITAGKEKRIFKNVVAGEVWLCSGQSNMEFEMFQASTGERDIPQAENPNIRLFDMEARWRTDNANAWELSALDSINVLQYYKPAQWEVCTPKTVRAFSAVAYYFGRTLQKDLDMPIGLICNAVGGSPTESWVDRRTLEYEFPRILNNWRENDFIMDWVRQRAGENIAKATDKLQRHPYEPAYLFEAGILPLAKYPIKGVIWYQGESNAHNKDAHSKLFPLLVKSWRTEFNNSQLPFYYVQLSSINRPSWGWFRESQRRLMKVVPHSGMAVSYDYGHSTDVHPKNKQPIGERLAQWALADTYGRKVLPSGPLFRSATFNGKVATVAFDYAQGMHSADGKTLRGFELSDGNGIFYPATAEVVGEAIKVTSEEVSTPKMVRYGFSPVTDGNLVNEANLPASTFTSEP
>LR134489.1|VEI54061.1|1378787_1380854_+|Endo-beta-mannanase
MDKCFITLPLHHKMYHQKSICMFLKNCIYLLCLGIASITTTVKAQPYVSPIGAQVFIEPGQTDEEINTWFKLLSEHQMNCCRIRMFENYMKRPDGTWDFSLFDKAFKAAERYNVKIVGTLFPAAPDNSLGGFKHPYSQSHLQEIAAYIKQVVTHFKTSPALYGWVLMNEPGTGGWVPNDAFANTQKSEWLKTLQPTAYNSKGYPQIVDFTPQQFLLHYNTWYLQWIANEVKKYDPNAYLHVNSHQIFSNIAEYNFPAWRNFLSSLGASAHPSWHYTMLHRNQYATALGANCAIIRSGAGELPFWVTELQGGNNTYSGYKAFCPTKEEITQWLWTSIGNGAEHILFWCLNPRAVGDEAGEWALVDFQNQPTDRLTAASEVAKTLQKINSSKFKPVVANIHILYTRETLWVEKKAQLNDNTNNDYEGRNTGGAMKSAFAMYETLLENGINSQFQCFDEFNWNKPSYKGETIILSGQVSLPSRYWEPLRNFVRNGGKLIMEGLSAFYDENMFALHHTGFPLQDVLGGALKEVKCLPTDFSINYQNAPLPAHLWKGSIYNTQGQIVVQEGNNVLATRHRFVRGETFWLPSLLGLGALRSGKGEALSHLLLAEVQAAVPFQFETYQKGVQMYTMQKGNQYLTILINKRPQATTVALRCPKGVNPSVVFADKGGSATANTARLSSEETLVILWK
>LR134489.1|VEI54081.1|1394187_1395501_+|UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate-aminotransferase
MSLETIREEIAKLVTQYAQEAYKPKPFEAGKTIIPPSGKVIGEQELQNMVAASLDAWLTTGRFNAAFEQKLAAFLGVKYCITVNSGSSANLVAFSALTSPKLGDRAIKKGDEVIGVAAGFPTTVNPIVQFGAVPVFVDVDLHTHNINADLIEQAITPKTKAIMLAHTLGNPFNLEKIKALCEKYNLWLVEDCCDALGATYNGQKVGTFGDIATLSFYPAHHITMGEGGAVFTNNAELKTIAESFRDWGRDCYCAPGKDNTCNCRFSQQHGDLPFGYDHKYVYSHIGYNLKISDMQAACGLAQLDRVEEFIEKRRKNFAYLKERLQTLTDFLYLPEATPNSNPSWFGFPITLKEEAGTARVDLLRFLDQHKIGTRLLFAGNLTKQPYFKGVEYRVVGDLTNTDITMNQTFWVGIYPALGEQELDYIAEQLEEYFGVNF
>LR134489.1|VEI54083.1|1395941_1396793_+|UDP-glucose-4-epimerase
MTVLLTGATGFLGSHLLKALVSKGYKVVALKRTTSDMWRLKGFENTFKSYDIDQVPLQKVFEEQPIDTVIHTACVYGRKGESIEKILETNLMFGIELLNTAINFNTRTFFNTGTLLDRQINAYALSKNQFEEWLQVASDKIQVINLKLEHMFGEQDGNDKFTTWILNELKQEKPIIPLTAGTQKRDFIYIDDVVNAYLTCLEQVPQLKAFNDIEVGTGVLTPVKTFVTLVKSTLEKLKGSPIQTQLNFGALPYREGEIMEPQVDNNVLCSLGWQPKRSLEENV
>LR134489.1|VEI54085.1|1396815_1397865_+|Glycosyl-transferases-group-1
MTEIGKILYFCNENAFITYKRRILPLKRQFKDIKIEEFDPKKPNCADVLILQAIPNDTDIFNNIINKKYSKYVVYDRSDDLGGVINPPFIRKTIWQLLSFIKNKTHPSILHKELIKKCDLIVCGSKMQAETAKSINHNTSHIVDCVPEEEYPLLYDLSIQKSYNEVPTIVWEGTNASMHQIKVVLDALKALQELHNFTFIILSNRYNKKDEDFISYLKNKGLNFTFEEWTKENFKKTLTEADIAIAPIDVTKKFNRAKPYNKIISYWAYKLPVVASSIQSYKEIVEQGADGFICENQGEWIASLSALLTDISLRKRMGENGWMKAKECSEENFAKKYLEILNENFCKNS
>LR134489.1|VEI54087.1|1397839_1399051_+|stage-V-sporulation-protein-B
MKIFVKILSYIKNPTYLYQVFGQLSSQLLGFLLGMFLVRIAGVEVSGGYNSLLAIMNMSIGMIYSGILTNYLRNAIVKDYFLALITFITATFVLFLLLLPVFLFLGYNFINLVYIYIITLFINFIQISVYSLRLRRMDNKVFLPNVLPVGLLIIALFAFKPTSLIQFLYLALVSWGVSLFFVWNNLRHISLGKITTNKIWNYIKDSKILMLTMLMTLLYGNLDTILIKYLMGDSLVGYYKIAMSLTMFVMPAIGIFCFIYLSEIKNYIENNDYKALLQKRKQQLFLILFITVLFSLFCLCFNRYIIPFLYGVTSDKTVWASVILSFSVMFNALSMVNSYTLVGMGKEHKILKITFIAGGVNVVGNLLLIPYIDILGAALASVLTQIFIFVYNSYVVRKELESV
>LR134489.1|VEI54089.1|1399064_1400885_+|Asparagine-synthetase-[glutamine-hydrolyzing]-1
MCGIYVTNIPYLEEEVENKLRSIHFRGPNNMGIEKIDEVTLGHLRLSILDLEKRSNQPYNFGKYTIVYNGEIYNYKQIQSELVSEGYYFETTSDTEVLIKGFDCWGKEILKKLNGMFAFAIYNTESKQLFCARDRVGVKPFYYFWKEGKFEICSQLRPLFSKELTVSKEAIAIYLDCGYIPSPYTIFEEVYKLSPGHYMLIDTIEKTKVIETYWDLQPVTLTNMSYAEAKDKLHELIKDAVKIRMQSDVPLGSFLSGGIDSALVSAIAAKISDKPINTFTIASEDPQYDESKVARQYAELIGSYHKETTCKPEEFLEMLADFRRAYDEPFADSSALPSLLLNKITKQEVTVALSGDGGDESFIGYSHFVIIDKFRKLSWIPYPIRNLLSKVPFHWITGSMPHTIREILNSKDENELAVKFYISLDTINKKRDLRWLDKHYSSFKHLSKDAVQRAADLNIKLWLENDSNVKVDRASMAFSVESRSPFLDYRIIEFARKLPISYRYKDGITKRILRDILEEYIPREVFTQPKKGFSIPLEKWLRNELKADVLQKLNDAFLYSVPNLDVEKFKKELYLHLQGKRNYVFNIWKVYVLALWCEEFGISLQK
>LR134489.1|VEI54091.1|1400891_1401953_+|Uncharacterized-protein-conserved-in-bacteria
MKILVIGSFKWSQYAPAIYNGFIQVSEEYKNLGNNWEVEKIDYEDFLCTDKNKLTAFLNKVQNRFHIGINILKYNRAIFKKVEIFNPDFIFLYRCYSVYTSTLKKIKEKTNCKFFSYNNDDAFSGVPSKKYYKHFIKNAFLCDINFVYRKKNIEDFKKIGITNTKILLPHYLSSFNYRLEEVEKDIPIAFIGHFENDGRDFLIKNLLDANIPVVVYGDDAWKKAPLYNEIKESIFPARRGEYYNRTLNRLKIALVFFSKINSDTYTRRCFEIPITKAVMLSEYTDDMNEMFPEGEAALYFRNPTELVTKAKYLLDNPEKVAQLAENACERLKILGGSENDRAKQIVEEYYKLK
>LR134489.1|VEI54093.1|1401960_1402977_+|putative-glycosyl-transferase
MEKLLFSICIPSYNRPQELKNLLQSIDFSKPEIMEIVICEDNSPQREEIRKIVEQFKSTTHYKVVYVENIENLGYDRNLRALINTAQGNFVIFMGDDDTFIPNVLDSYAPFLKERLEYGYILRSYRNVYKNGQIEYFQYFPENKDFTPSADTYITLFDKSVFISGFTINRKFAKEFENTIFDGSLLYQLYLLAEVTQKYPSAYFHQPLTQATEGGTPFFGSSETEKKLYTPGTITTQNSLNFMSWYLKIINYISDKYKNGTADKILLNMSKYSYPVLAIQRNKGRKQFKMYARELAKLGFNKSAYFYIYYWSLFLFGTRFNDSLIRTLKKIIGRRPKL
>LR134489.1|VEI54095.1|1403023_1404340_+|Uncharacterised-protein
MSYSHLLSIFIRLLIYIVVILYSSFEESPEMLLSLAIVANLSIIFKTYRSLPILLMFLFFLTYIVNLIPFFFAGEYIFPYRPTKGFYETLQIHTIFLCILDTFLRPIKKRLYINEKIPQTENVFLYLSLCVLFVFFLIFGIRGDTVLDTGGYGQKGDTTGLGGLGEYFLILIPLLYMYSGKSYVMKKVVHILMLLMGIKLLLYGGRIGVLMMGLLYLIFYYDTRKNHISLFKILCYAIPVLYIFVLIGAIRGNIALALTSSWGELLLLPFRGDLLKTHIEFFGNQIDIFYSSTILNQAALSDTLSIYTRLEMFFYNVLSLFVPYSWLPEKAAVVSYIQKNIASTGGGALISAYSFFFLSYPGIILIGYYIASLINKLQKSKNLHFILYCIIVLATYPRWFGYNIIGLFKIPFYIVILYAIIKRFSKIKITLFNANTHR
>LR134489.1|VEI54097.1|1404320_1405448_+|glycosyltransferase,-MSMEG_0565-family
MRILIDNSNLFAGGGIQVATSFLNDLKTFNKEHLYWVLQSPHSTKTIDTATFPKNFVFYDIPEKIYTAKLKRSKFVKKIEEEIKPNVIFTTFGPSYHKSNFPKIVGFAFGQMLYTNSPFYKQLSLLQQLKYKLLIFLKKKAFINNADALVFETENARLIFKQKTEYKKDTFTVHNTLNAVFSKREEWQTLPIEKTQLDILCLTANYPHKNLQIIPKLINEIQNIDPELNFKVHISLKKEDLNFNDKYDSYINYLGNVPLNQLPSLYQQMDVLLMPSLLETFSTTYLEAMAMKVPIVASDMPFSRDICAEAALYCSPLKADEYAEKILLLHNNISVKNELIQKGEQNLKRFGTSMDRTKKYIEIIEQIATNNGNKK
>LR134489.1|VEI54099.1|1405431_1406457_+|UDP-glucose-4-epimerase
MEIKNKTLLITGGTGSFGNAVLQRFLPTDYFKEIRIFSRDEKKQDDMRHALQNPKVKFYIGDVRDRSSVDIAMTGVDYVFHAAALKQVPSCEFFPLEAVKTNVLGTENVLNSAIAHQVKNVVVLSTDKACYPINAMGISKAMMEKVAIAKGRQLGENAVTTISCTRYGNVMASRGSVIPLWIEQMKENKVITLTDPNMTRFMMTLADAVDLVLYAFENGHNGDLFVQKAPAATLTVLAEALKQLYNKNTEVKIIGTRHGEKLYETLVAREEMARAEDMGNYFRIPCDTRDLNYDKYFKDGQEKVSLIEDYHSHNTTRLSVEEMKSLLLKLEEIQNDIQCLK

Crispr_ID: LR134489_5

• CRISPR_ID: LR134489_5
• CRISPR_location: 1440460-1441342
• CRISPR_type: TypeII
• Repeat_type: NA
• Spacer_info: 11 spacers
• Cas_protein_info: cas9

Consensus repeat of LR134489_5

Consensus_repeat	Method
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CRISPRCasFinder
GTTGTGAATTGCTTNTCAAATTTTGTAGTTTTG	CRT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	PILER-CR

spacers of LR134489_5

>5.1|1440506|31|LR134489|CRISPRCasFinder
TTTTGAGGTAGGTTACTCCGATAACCAACAG
>5.2|1440583|30|LR134489|CRISPRCasFinder
CCTGAACCCTGATGACGATGCAAAATTATT
>5.3|1440659|30|LR134489|CRISPRCasFinder
CGCCTCTGCCTAATAAGCAACTATGGGTTA
>5.4|1440735|30|LR134489|CRISPRCasFinder
TAGGTAGAAAAAACAATAAAAAGAATATGA
>5.5|1440811|30|LR134489|CRISPRCasFinder,PILER-CR
AAGGCGATATGATAGGTGTGATAATGGATG
>5.6|1440887|30|LR134489|CRISPRCasFinder,PILER-CR
CTCTCCGAGATATGAGTTTCCTTGAAATTA
>5.7|1440963|30|LR134489|CRISPRCasFinder,PILER-CR
TAAGAGAGTTTTCCAAAGCAGTCCAACGCT
>5.8|1441039|30|LR134489|CRISPRCasFinder,PILER-CR
TAGCCGAGTTCGGTTTTAGAGTATTGCAAT
>5.9|1441115|30|LR134489|CRISPRCasFinder,PILER-CR
ATAATACAGTCGTATCTTACAGCAGACTAC
>5.10|1441191|30|LR134489|CRISPRCasFinder,PILER-CR
CACTGTAGTTCTAAGGTGTTGGGGTCGTAG
>5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR
GAAAAGGCAAAATTATTAACGGAAAATTTA
>5.12|1440492|45|LR134489|CRT
CGATTGATAACAACTTTTGAGGTAGGTTACTCCGATAACCAACAG
>5.13|1440569|44|LR134489|CRT
CGATTGATAACAACCCTGAACCCTGATGACGATGCAAAATTATT
>5.14|1440645|44|LR134489|CRT
TGATTGATAACAACCGCCTCTGCCTAATAAGCAACTATGGGTTA
>5.15|1440721|44|LR134489|CRT
TGATTGATAACAACTAGGTAGAAAAAACAATAAAAAGAATATGA
>5.16|1440797|44|LR134489|CRT
TGATTGATAACAACAAGGCGATATGATAGGTGTGATAATGGATG
>5.17|1440873|44|LR134489|CRT
TGATTGATAACAACCTCTCCGAGATATGAGTTTCCTTGAAATTA
>5.18|1440949|44|LR134489|CRT
TGATTGATAACAACTAAGAGAGTTTTCCAAAGCAGTCCAACGCT
>5.19|1441025|44|LR134489|CRT
TGATTGATAACAACTAGCCGAGTTCGGTTTTAGAGTATTGCAAT
>5.20|1441101|44|LR134489|CRT
TGATTGATAACAACATAATACAGTCGTATCTTACAGCAGACTAC
>5.21|1441177|44|LR134489|CRT
TGATTGATAACAACCACTGTAGTTCTAAGGTGTTGGGGTCGTAG
>5.22|1441253|44|LR134489|CRT
TGATTGATAACAACGAAAAGGCAAAATTATTAACGGAAAATTTA

CRISPR arrays and Neighbor proteins around LR134489_5

CRISPR arrays

The CRISPR arrays of LR134489_5

>merge|LR134489|5|1440460-1441342|CRISPRCasFinder,CRT,PILER-CR
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGCGATTGATAACAACTTTTGAGGTAGGTTACTCCGATAACCAACAGTTGTGAATTGCTTTTCAAATTTTGTAGTTTTGCGATTGATAACAACCCTGAACCCTGATGACGATGCAAAATTATTGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACCGCCTCTGCCTAATAAGCAACTATGGGTTAGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACTAGGTAGAAAAAACAATAAAAAGAATATGAGTTGTGAATTGCTTTCAAATCTTGTAGTTTTGTGATTGATAACAACAAGGCGATATGATAGGTGTGATAATGGATGGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACCTCTCCGAGATATGAGTTTCCTTGAAATTAGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACTAAGAGAGTTTTCCAAAGCAGTCCAACGCTGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACTAGCCGAGTTCGGTTTTAGAGTATTGCAATGTTGTGAATTGCTTTCAAATTTCGTAGTTTTGTGATTGATAACAACATAATACAGTCGTATCTTACAGCAGACTACGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACCACTGTAGTTCTAAGGTGTTGGGGTCGTAGGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAACGAAAAGGCAAAATTATTAACGGAAAATTTAGTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC

>LR134489|5|3|1440460-1441342|CRISPRCasFinder
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGCGATTGATAACAAC	TTTTGAGGTAGGTTACTCCGATAACCAACAG
TTGTGAATTGCTTTTCAAATTTTGTAGTTTTGCGATTGATAACAAC	CCTGAACCCTGATGACGATGCAAAATTATT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CGCCTCTGCCTAATAAGCAACTATGGGTTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	TAGGTAGAAAAAACAATAAAAAGAATATGA
GTTGTGAATTGCTTTCAAATCTTGTAGTTTTGTGATTGATAACAAC	AAGGCGATATGATAGGTGTGATAATGGATG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CTCTCCGAGATATGAGTTTCCTTGAAATTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	TAAGAGAGTTTTCCAAAGCAGTCCAACGCT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	TAGCCGAGTTCGGTTTTAGAGTATTGCAAT
GTTGTGAATTGCTTTCAAATTTCGTAGTTTTGTGATTGATAACAAC	ATAATACAGTCGTATCTTACAGCAGACTAC
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CACTGTAGTTCTAAGGTGTTGGGGTCGTAG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	GAAAAGGCAAAATTATTAACGGAAAATTTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC

>LR134489|5|3|1440460-1441328|CRT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	CGATTGATAACAACTTTTGAGGTAGGTTACTCCGATAACCAACAG
TTGTGAATTGCTTTTCAAATTTTGTAGTTTTG	CGATTGATAACAACCCTGAACCCTGATGACGATGCAAAATTATT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACCGCCTCTGCCTAATAAGCAACTATGGGTTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACTAGGTAGAAAAAACAATAAAAAGAATATGA
GTTGTGAATTGCTTTCAAATCTTGTAGTTTTG	TGATTGATAACAACAAGGCGATATGATAGGTGTGATAATGGATG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACCTCTCCGAGATATGAGTTTCCTTGAAATTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACTAAGAGAGTTTTCCAAAGCAGTCCAACGCT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACTAGCCGAGTTCGGTTTTAGAGTATTGCAAT
GTTGTGAATTGCTTTCAAATTTCGTAGTTTTG	TGATTGATAACAACATAATACAGTCGTATCTTACAGCAGACTAC
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACCACTGTAGTTCTAAGGTGTTGGGGTCGTAG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG	TGATTGATAACAACGAAAAGGCAAAATTATTAACGGAAAATTTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTG

>LR134489|5|1|1440765-1441342|PILER-CR
GTTGTGAATTGCTTTCAAATCTTGTAGTTTTGTGATTGATAACAAC	AAGGCGATATGATAGGTGTGATAATGGATG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CTCTCCGAGATATGAGTTTCCTTGAAATTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	TAAGAGAGTTTTCCAAAGCAGTCCAACGCT
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	TAGCCGAGTTCGGTTTTAGAGTATTGCAAT
GTTGTGAATTGCTTTCAAATTTCGTAGTTTTGTGATTGATAACAAC	ATAATACAGTCGTATCTTACAGCAGACTAC
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	CACTGTAGTTCTAAGGTGTTGGGGTCGTAG
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC	GAAAAGGCAAAATTATTAACGGAAAATTTA
GTTGTGAATTGCTTTCAAATTTTGTAGTTTTGTGATTGATAACAAC

Neighbor Proteins Overview

Protein	Signature genes	Signature genes Name	Protein_function
LR134489.1|VEI54183.1|1453607_1454297_-|Internalin-J-precursor	unknown	unknown	gnl|CDD|380191
LR134489.1|VEI54181.1|1451729_1453556_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI54195.1|1459669_1460632_-|Elongation-factor-Ts	unknown	unknown	gnl|CDD|236491
LR134489.1|VEI54185.1|1454345_1457063_-|Outer-membrane-receptor-for-ferrienterochelin-and-colicins	unknown	unknown	gnl|CDD|366183
LR134489.1|VEI54175.1|1439186_1439729_+|Uncharacterised-protein	unknown	unknown	gnl|CDD|339723
LR134489.1|VEI54159.1|1435117_1435555_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI54187.1|1457379_1459551_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|316139
LR134489.1|VEI54169.1|1438001_1438250_+|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI54179.1|1441472_1445846_-|Uncharacterized-protein-conserved-in-bacteria	cas9	cd09643_cas9_CAS-II-A:CAS-II-B:CAS-II-C	gnl|CDD|375967
LR134489.1|VEI54173.1|1438830_1439109_-|Transglycosylase-associated-protein	unknown	unknown	gnl|CDD|225170
LR134489.1|VEI54161.1|1435734_1436373_-|Leucyl/phenylalanyl-tRNA--protein-transferase	unknown	unknown	gnl|CDD|234720
LR134489.1|VEI54201.1|1462063_1462519_-|50S-ribosomal-protein-L13	unknown	unknown	gnl|CDD|181703
LR134489.1|VEI54197.1|1460755_1461481_-|Vegetative-protein-209	unknown	unknown	gnl|CDD|235396
LR134489.1|VEI54203.1|1462817_1463768_-|PhoH-like-protein	unknown	unknown	gnl|CDD|376820
LR134489.1|VEI54165.1|1437303_1437630_+|Gas-vesicle-protein	unknown	unknown	gnl|CDD|378938
LR134489.1|VEI54163.1|1436375_1436927_-|Domain-of-uncharacterised-function-(DUF3127)	unknown	unknown	gnl|CDD|378639
LR134489.1|VEI54199.1|1461677_1462064_-|RRP-S9	unknown	unknown	gnl|CDD|178888
LR134489.1|VEI54177.1|1439890_1440328_+|Uncharacterised-protein	unknown	unknown	gnl|CDD|234827
LR134489.1|VEI54167.1|1437634_1438012_+|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI54171.1|1438379_1438757_+|Uncharacterised-protein	unknown	unknown	unknown

HMMScan for Signature genes

Protein	Cas_name	Cas_description	E-value	Identity	Coverage
LR134489.1|VEI54179.1|1441472_1445846_-|Uncharacterized-protein-conserved-in-bacteria	cas9	cd09643_cas9_CAS-II-A:CAS-II-B:CAS-II-C	3.6e-69	228.8	55.9

rpsblast for functional proteins

Protein	Function_ID	Function_description	E-value
LR134489.1|VEI54183.1|1453607_1454297_-|Internalin-J-precursor	gnl|CDD|380191	NF033187, internalin_J, class 1 internalin InlJ. Internalins, as found in the intracellular human pathogen Listeria monocytogenes, are paralogous surface-anchored proteins with an N-terminal signal peptide, leucine-rich repeats, and a C-terminal LPXTG processing and cell surface anchoring site. See PMID:17764999 for a general discussion of internalins. Members of this family are internalin J (InlJ).	1.95064e-06
LR134489.1|VEI54195.1|1459669_1460632_-|Elongation-factor-Ts	gnl|CDD|236491	PRK09377, tsf, elongation factor Ts; Provisional.	1.08644e-103
LR134489.1|VEI54175.1|1439186_1439729_+|Uncharacterised-protein	gnl|CDD|339723	pfam16385, DUF4994, Domain of unknown function. This family around 100 residues locates in the C-terminal of some uncharacterized proteins in various Bacteroides and Prevotella species. The function of this family remains unknown.	5.8044e-26
LR134489.1|VEI54187.1|1457379_1459551_-|Uncharacterised-protein	gnl|CDD|316139	pfam13583, Reprolysin_4, Metallo-peptidase family M12B Reprolysin-like. This zinc-binding metallo-peptidase has the characteristic binding motif HExxGHxxGxxH of Reprolysin-like peptidases of family M12B.	2.1157e-20
LR134489.1|VEI54185.1|1454345_1457063_-|Outer-membrane-receptor-for-ferrienterochelin-and-colicins	gnl|CDD|366183	pfam00593, TonB_dep_Rec, TonB dependent receptor. This model now only covers the conserved part of the barrel structure.	1.8855e-11
LR134489.1|VEI54173.1|1438830_1439109_-|Transglycosylase-associated-protein	gnl|CDD|225170	COG2261, COG2261, Predicted membrane protein [Function unknown].	1.70229e-07
LR134489.1|VEI54161.1|1435734_1436373_-|Leucyl/phenylalanyl-tRNA--protein-transferase	gnl|CDD|234720	PRK00301, aat, leucyl/phenylalanyl-tRNA--protein transferase; Reviewed.	4.61865e-120
LR134489.1|VEI54201.1|1462063_1462519_-|50S-ribosomal-protein-L13	gnl|CDD|181703	PRK09216, rplM, 50S ribosomal protein L13; Reviewed.	3.03295e-92
LR134489.1|VEI54197.1|1460755_1461481_-|Vegetative-protein-209	gnl|CDD|235396	PRK05299, rpsB, 30S ribosomal protein S2; Provisional.	1.05616e-135
LR134489.1|VEI54203.1|1462817_1463768_-|PhoH-like-protein	gnl|CDD|376820	pfam02562, PhoH, PhoH-like protein. PhoH is a cytoplasmic protein and predicted ATPase that is induced by phosphate starvation.	8.74709e-130
LR134489.1|VEI54165.1|1437303_1437630_+|Gas-vesicle-protein	gnl|CDD|378938	pfam12732, YtxH, YtxH-like protein. This family of proteins is found in bacteria. Proteins in this family are typically between 100 and 143 amino acids in length. The N-terminal region is the most conserved. Proteins is this family are functionally uncharacterized.	2.17727e-13
LR134489.1|VEI54163.1|1436375_1436927_-|Domain-of-uncharacterised-function-(DUF3127)	gnl|CDD|378639	pfam11325, DUF3127, Domain of unknown function (DUF3127). This bacterial family of proteins has no known function. However, it does show distant similarity to pfam00436, with proteins such as Prevotella buccalis HMPREF0650_0099 being similar to both families. This suggests that this family may have a DNA-binding function.	3.91298e-37
LR134489.1|VEI54199.1|1461677_1462064_-|RRP-S9	gnl|CDD|178888	PRK00132, rpsI, 30S ribosomal protein S9; Reviewed.	6.36941e-74
LR134489.1|VEI54177.1|1439890_1440328_+|Uncharacterised-protein	gnl|CDD|234827	PRK00733, hppA, membrane-bound proton-translocating pyrophosphatase; Validated.	0.00115513
LR134489.1|VEI54179.1|1441472_1445846_-|Uncharacterized-protein-conserved-in-bacteria	gnl|CDD|375967	pfam18541, RuvC_III, RuvC endonuclease subdomain 3. Cas9 proteins are abundant across the bacterial kingdom, but vary widely in both sequence and size. All known Cas9 enzymes contain an HNH domain that cleaves the DNA strand complementary to the guide RNA sequence (target strand), and a RuvC nuclease domain required for cleaving the noncomplementary strand (non-target strand), yielding double-strand DNA breaks (DSBs). The crystal structures of type II-A and II-C Cas9 proteins highlight the features in Cas9 enzymes that support their function as RNA-guided endonucleases. Cas9 enzymes adopt a bilobed architecture composed of a nuclease lobe containing juxtaposed RuvC and HNH nuclease domains and a variable alpha-helical lobe likely to be involved in nucleic acid binding. The RuvC domain forms the structural core of the nuclease lobe, a six-stranded beta sheet surrounded by four alpha helices, with all three conserved subdomains (I, II, III) contributing catalytic residues to the active site.	9.27231e-55

Protein sequences

>LR134489.1|VEI54177.1|1439890_1440328_+|Uncharacterised-protein
MKKSVQIFLELISAITLYLFINSIAYGDHLVTLPLYLTGVVIMSYLFVRERPQECLQSALRIVLPFTGLMLIAGSLPDAHFSLALIYIVSTGAAFLLGMLIATVSKTYQKIGLSALTFLLVVAIRLSFSAEFQYLIGVHWYTLGS
>LR134489.1|VEI54175.1|1439186_1439729_+|Uncharacterised-protein
MIDNNDAFALIPARYQTVATIFKKAGCAMAAIGKWHLGLGDRSGIDWNKPIPHTPNDIGFDESFIMPATSDRVPYEVAPARDTQPHWTSWVGKDKKGRTYAVQEGLRNVLAVLKGKYKYIEPTAQTMKRAWETGIETGFEGAPQLYDLSVDPAKRHNIAGRQPALVKEFEAVIRGERGRH
>LR134489.1|VEI54173.1|1438830_1439109_-|Transglycosylase-associated-protein
MYPNLNFKIMGIIATLIIGAIAGWLGGTIYKGSGLGLIGNIIIGILGSGVGYWLLGSVFHISLGEGWIGAILTGAIGAIVILFLINLVFKKK
>LR134489.1|VEI54171.1|1438379_1438757_+|Uncharacterised-protein
MKKIIALVSVICLSLVAFSCSKNDDPADNDLFVGTYKGSISYLNGQEKKAVDNGSVTVVKTGNDYYFRFSDGIEDLKGVSFKKEGDNTLINVDLQDGLKVIRINASSLYILYTTDGKTWTANAKR
>LR134489.1|VEI54169.1|1438001_1438250_+|Uncharacterised-protein
MNNKTYSSFEEIDNEIRLLRLEKEIDRLSLTQQVSASAESLSPKNLLANTWVSLLFNNKRWINIALEYGMQLLAKRYLNKNR
>LR134489.1|VEI54167.1|1437634_1438012_+|Uncharacterised-protein
MAIYSIKETFVEVPTKANSAFNSQFAYYKLVVFRFIAKSSYGLITFFVYAFASLLILFFLSLAGAYAIGEALGSNGLGFAIVGAFYILLSLVVLLFRKKLIERSLLRKLSEIYFKTDPEEEENEQ
>LR134489.1|VEI54165.1|1437303_1437630_+|Gas-vesicle-protein
MSKTANAVLGLAVGTAIGVGLGILFAPDEGKNTRKKIKDTLRDKSDDLKEQLDNLTESVREKSLELKGSLEEKVDRLFSKASNKSEDIISLLEKKLASLKEEAAKVKK
>LR134489.1|VEI54163.1|1436375_1436927_-|Domain-of-uncharacterised-function-(DUF3127)
MEIQGRIIKINPTQTVGQNGFQRRDVVIMTEEQYPQYIPFDFVQEKCVLLDNFQEGQTVRISFNIRGREWVNPQGETKYIVNLQGWRIENAEIAQNYPPQGQPYPQGYGQPAYPPQGYAQPQYQQAPPQYQQAAPQYQQQVPPQYPPQMPQQQFQSTPQQAFGTPPVQNTPVAPAEPEDDLPF
>LR134489.1|VEI54161.1|1435734_1436373_-|Leucyl/phenylalanyl-tRNA--protein-transferase
MIYLINDETPFPSPETASEEGIVAFGGNLNPARLVEAYSQGIFPWYNEGDPVLWWCPDPRFVLFPEKLHISKNMRKLLSKAPYRVTYNRCFTEVMQQCATVSRKDQHGTWIHPELIEAYTTLHQQGIAHSVEVWQDETLVGGLYGLQMGKIFCGESMFSKQPNASQYGFITFLQAHPHIALVDCQIHSEYLESLGAEEIPRATFLKLLTINR
>LR134489.1|VEI54159.1|1435117_1435555_-|Uncharacterised-protein
MVITAIIIARIIISNYYENQKVELSKKCFNDSNIGFYHKEFSFYFPEELELQGAQILQIHNQDTIVIDYRILGHNIVINSPKNLKSEDIIKIILKDAVFTLRDFRNGPRFGGGRVFLGCFLQECVINNRKKICDDAGIFMFFSTL
>LR134489.1|VEI54179.1|1441472_1445846_-|Uncharacterized-protein-conserved-in-bacteria
MKHILGLDLGSNSIGWAFVQQDFENKQGKIIATGSRIIPMDQGILGDFEKGNTVSQTAERTTYRSMRRLRERHLLRRERLHRVLHILGFLPPHYDAQIDFTKRFGKFIDNAEPKIAYNNGNFIFMNSFNEMIEDFKKYKPQLFYKKSNGEESKIPYDWTIYYLRKKALSQKITQQELAWLILHFNQKRGYYQLRGEEETENPNKEVAFHSLKVVEVEAEAPNKKGEIWYTIRLENGWIYRRTSKIPLDDWKGKTRDFIVTTDLNDDGTIKVDKEGKEKRSFRAPEENDWNLLKKKTEHDIDFSGKTVGAYIYDHLLQDPNQKIKGKLVRTIERKYYKNELKGILTKQIALQPELFTETLLADCIRELYRKNETQQQNLLSKDFLHLFVEDIIFYQRPLRSKKSTIANCTLEKRSYIDKETNERKDAPIKVCAKSNPYYQEFRALQWLQNLRIYEIETDREVTAEFIETPQDYEALFNFLMSQKEIDNESLLKYFLHAKNPQIKDKAAKSELKKWLTTYRWNYVYDVADNSSKKYPMNETGYDLQRYLQKVEGLPANFLTFDTTYRLWHLLYSVKDKVEFEKALKRFAKKKQLNETSFVESFKNFKPYPNEYGSFSEKAIKKLLPLMRFGNYWDFNRIDVSTQKRIDDLINGVANEDIRTIIREKAEKYQLNSESCFQGLPLWLAQYIVYNRHAEATDIEKWTSVSDLETYLEDFKQHSLRNPIVEQVVTETLRVVRDIWQQYGGGQANFFDEIHIELGRELKKTAEERKQLSNRNQENENTNLRIKKLLAELKEDASIQNVLPYSPVQQELLKIYEEGVFSSTDEIEEDIQKIRKKTEPSKADLQRYKLWLEQKYKSPYTGEVISLTKLFTEEYEIEHIIPQSRYYDDSFSNKVICESAVNKLKTNLLGLEFIQKHHGEKVRVAGNKEVTIFTEEQYKDFVKKHYANNLAKQQKLLLNEIPEKMVARQLNDTRYISKYISEILSKIVRSDEKDEGVNSKNVIPCTGKITTALKQDWGLNDVWNELILPRFERMNQLTQTQLFTSYNDRLQKNLPTVPIEYSQGFQKKRIDHRHHAMDALVIACATREHINYMNNQHALDKNKDKKEKQQSRIDLRTILCEKKNNNWQFKKPWATFTQEAKESLEHIVVSFKQNLRVINKATNYYEKWEEKNGVLVKKKVKQEGTNWAIRKPLHKETVSGKIILDRKISKDKILTATRKTVDITFTEKIISSITDTGIQKILLNYLKYKGSPEVAFSAEGLEELNKNIAQYNEGKKHQPIYKVRIFEEGSKFPLGETGAKATKFVEAAKGTNLFFGVYQGKEKRSYTTIPFNKVIERQKQGLPSVPEHNEKGEPLLFILSPNDLVYVPMEGEIAETIDFNNLSKEQKERIYKTVSFTGNECHFVKSTIASLIKSYDAKSKIGELGSLNKLEVTISGDSRIKEVCIKLKVDRLGNITKA
>LR134489.1|VEI54181.1|1451729_1453556_-|Uncharacterised-protein
MKLNLLKPTAIALLSLFAITSCVKDDDYDIPNPNGEKTLPSFSGQVVGFDTAIGKAATNVTTYGADEAIEGYVISSDEAGNFYQKIYIQNEDKTKGVTVAINKTGLYTDFPLGAKVQLRLKGLTSQINNGGVDFGSGIFQANNGRTSVGRMSEAIAKNHLFDKGGVRKTLAELAKADTSINTLKVEANVNQLITLKGVHFKTADVGKEMHQKTNDARQGTDYTLTDAQGNTIPFRTSRYAKFKDEKVPAGTLDITGVLTKFGQNWQFMISNYADIVVVNGGTSTGTQTNTQTSTTVETVEASTATAANFVEGKKVKLHGNLTVEGTKAYILFSDGTKIQLYTRNFKNISNENKTNLKENGKEVTVTGTFGKFNDTLQISYEQDSDLVWGASNNNPNPPATVETVEASTATAASFVEGKKVKLHGNLTVEGTKSYIVFSDGTKIQLYIKNFKNLSKESKDNLKINGKEVTVTGTFGKFNNTLQIAYEQDSDLVWGASNNNPNPQPPATVTELDASTATAADFQLNKVVKLTGTIKMINNRSTIVFTTDNTEIQLTTKGYGSLPDDFKTKISTEGKKVIVKGTFIEFKDKKKGTVTKQLKYDSIDDVQFP
>LR134489.1|VEI54183.1|1453607_1454297_-|Internalin-J-precursor
MMNKLSIFRKGALALLLATTALVGCSKSNESNSDTEFQGVPYMLLTTNKPVGSNISLTIVAKEADKKDVWIDLNNNGVFDTGSDVRLTAATTTYKLQGNTVRVYGKVTTFKCDRNEVTSLDVTRNVVLERLDMSHNKIKEVNLHNNTQLTYLKVSNLPLVGLDLTNNKKLTELRFNLTFSGEKLKKCASTMHENGGGTVYMNPRITDDPAEKQTMQTLTNKKWKIGNCQ
>LR134489.1|VEI54185.1|1454345_1457063_-|Outer-membrane-receptor-for-ferrienterochelin-and-colicins
MFKKFYLFILLLMSASAFAQWRVEGTVVDELSKKPLEGVKVHVNASAWQVTTNGKGKYALSLPEGEYLIIYSLNGYTRQEQLVSVGGEKITQELPVVSLTADVVQESEQMAVINESELEDDESTADAMSGLLQSSQDVFMRRAAFDFSSAFFKPRGYDSKDVTVLINGIPMNRFENGRAQWNNWGGLNDVTRNQEYSNGLSKSDYTFGGLMGSTYINIRPSLNRAGLRITSSASNRSYTGRLMATYNSGVLRNGLSFMVSASRRFAPQGSWVDGTLYNAYAFSAAVEYQLDDHSSFNLLGMFSPVKRGKSSPLTREALDLFGYQYNPYWGRQVGDKRNSRNRIISEPIFVFSYNYLKNDTRLNIDLGYQFGEIGNTRIAYANAQNPEPNYYKNMPSYYLNQNAGPDFAAAENQKNYILENPQLNWEKLYYANYNNTDKHSTFIVSNDINRERTFSANVNFAMPIHDFIKWTSGLVYRNISSDNFAEIDDLLGGQYFVNYDYFENKPYDANEADMKKQKGDKWNYFYSLKSNVGEAFSQLEFTFKKAELFIAGRYHYTDVQREGKYNYPLYSDSYGKGAMQVQNGVSTKAGITYALTGRHLLQLNVGYFNTPQSLRNIYPNVRNSNRVLPNLKNELAYTADASYIFRMPYLKGRLTGFFTEIENTAETNFFYTETALTDEIDKDFVAQTIDGIKKRHFGLEFGAEAQLHPTVKITAAAAIGQYTYINNPSLYISAGDVNKAIDEVKMKNYHVPSGPQQAYSLGLEYRNPKYWWVGATANFLAQNYVSLSALSRTSQFFIDPATKATYSNIDLDKARQLLKQERLDDVFLVNLVGGKSWRVKKTYINLMASVNNLFNTKFLSGGFEQSRTANYGRMLQDNAQGVPSFGNRYFVGYGRTYMLNLAVSL
>LR134489.1|VEI54187.1|1457379_1459551_-|Uncharacterised-protein
MKHIIYLFLYLSFTTAQAQWNISLPNGETLNLEWQERENSQQNKGIHTFVGYSQNQFVATLVVHPNKEASGSLQWGGITYQLTGSQRAKLSAKELRHHNPNARCGTDTEQHTSHFPSPQNSPTARPITTTTSLMPNDPEGILYLYRLAVLVDYHDFAHTFGSDITQVKNFLLNLETFLNEVYVRDIGLKFSIVDDNRLIIQEAAKQLYNQKSRRDIIENSTEKINELIGDKQYDIGIVIATGTDATLSGLAFFSGGFRLVRKGGASAIAENATIAHEIGHLFGADHTFKNVYSGNSLYTEPRYGQSLMGYSNNFPDGAFFSLPTAYQIRSGIVNRSYFKDSQRTQLVDRNGNDVSNFNYVYGIKTESSFPTIDRTKLQETYTIPKDTYFQFRIKATSPNNLPIYYTAQLTSRAGVNDPKFLTRKGKTEGNPIIFQTQYSDLGGFIEYTRPNVKGEHLFWVATSNPAPQHFVNYDMVAVKVNIADGKTFAITNGMNDEYQGGDKITLHWQVDPNFFDSNSKVRILLSDDFGKTFKYTLVENTENDGTCEITLPNIEIGTVEWGKQPKIQLPAGVIKVEVIDHIAFAITNVAPYKISNGKSVPNGGFKIKKKTETPSPAEDSKPQQEPEKNIVIYNGVSTENTNNYFMVEGADDNSPIHLLIFDEMGLKVYENEHYGKNGDYFRGNANAKGFIGNNKALHGTYFYIVRYSKRGKEEQQKGFLYVR
>LR134489.1|VEI54195.1|1459669_1460632_-|Elongation-factor-Ts
MANITAADVNKLRQATGAGMMDCKAALIEAEGDFDKAIEVLRKKGQKVAAKRADRDSKEGAAIAQVNANHTVGAIISLNCETDFVAKNADFVALAKDLADLALTVNSKDELLTLNYKGITVAEKLIEQTGVIGEKIELGAFEKVEAPFVGSYIHHGNKIAAIVGLSAAIADAAEVGKNLAMQIAAMGAETLSYKDFSPEYIAKETEARIAIIEKENEELHRLGKPLKHVPQYVSQAQLTPEVLAKAEADAKAELKAEGKPEQIWDKILPGKIQRFISDNTTLDQEKALLDQVYIYDESKKVSEFVKSKNIEITAFKRVAL
>LR134489.1|VEI54197.1|1460755_1461481_-|Vegetative-protein-209
MANNIEIKDLLDAGVHFGHLTRKWNPNMAPYIYMERNGIHVINLYKTAAKIEEAAEALKKIVASGKKVLFVATKKQAKDVVAEKATSVKMPYITERWPGGMLTNFVTIRKAVKKMSSIDKMKKDGTFDTLSKREKLHVERMREKLEKNLGSIADMSRLPGALFVVDTLREHIAVKEAQKLNIPIFAMVDTNSDPREVDFAIPANDDASKAIEKVLSYITEAVNEGLSSRTADANKEAEATE
>LR134489.1|VEI54199.1|1461677_1462064_-|RRP-S9
MEVIHTIGRRKTAVARIYLKAGNGTITVNKRELNNYFTTPTLQYKVKQALSLVGAEDAYDVKVNVYGGGITGQAEAVRLAIARALCELNAENRAVLKPEGLLTRDPRMVERKKFGQKKARKRFQFSKR
>LR134489.1|VEI54201.1|1462063_1462519_-|50S-ribosomal-protein-L13
MDTLSYKTISANKTTANKKWVLVDADGQTLGRLASKVAKLLRGKYKPDFTPHVDCGDNVIVINAEKINLTGNKWEDKTYLRHTGYPGGQRTTGVKQLLEKHPERIIEKAVKGMLPKTKLGAAVLRNLKVYAGTEHKQEAQQPVTINLNDLK
>LR134489.1|VEI54203.1|1462817_1463768_-|PhoH-like-protein
MNELTLELTEVSPQVFCGEDESNIKYIKTLFPKLKIVARGSKLIVFGEEHLLKDFQEQMEKLISYTSKYNRLDERTIDNILSASSPETTEKVREEDVIVHGVNGKVIRPQTQNQVKLVEMMRKNDMVFAVGPAGTGKTYVGVALAVKALKEKQVRRIILTRPAVEAGENLGFLPGDLKEKLDPYMQPLYDALRDMIPHEKLNAFIEAGIIEIAPLAFMRGRTLDNAFVILDEAQNTTHAQMKMFLTRMGRNAKFMITGDPGQIDLPRKVSSGLKEAMLILQNVQGIAFLHLDDKDVVRHPLVRSIIEAYKTIENNE

Crispr_ID: LR134489_6

• CRISPR_ID: LR134489_6
• CRISPR_location: 2087203-2087341
• CRISPR_type: Orphan
• Repeat_type: NA
• Spacer_info: 1 spacers
• Cas_protein_info: DEDDh

Consensus repeat of LR134489_6

Consensus_repeat	Method
AGTTATGAGAAACTCTGAGAAGCTCAGGGCTTTCAGGGAATCTC	CRISPRCasFinder

spacers of LR134489_6

>6.1|2087247|51|LR134489|CRISPRCasFinder
CGATTGTTAATTATTCATTGTTAATTGTTCATTATTTAATTATGATTCCTG

CRISPR arrays and Neighbor proteins around LR134489_6

CRISPR arrays

The CRISPR arrays of LR134489_6

>merge|LR134489|6|2087203-2087341|CRISPRCasFinder
AGTTATGAGAAACTCTGAGAAGCTCAGGGCTTTCAGGGAATCTCCGATTGTTAATTATTCATTGTTAATTGTTCATTATTTAATTATGATTCCTGAGTTATGAGAAACTCTGAGAAGTTCAGGGCTTTCAGGGAATCTC

>LR134489|6|4|2087203-2087341|CRISPRCasFinder
AGTTATGAGAAACTCTGAGAAGCTCAGGGCTTTCAGGGAATCTC	CGATTGTTAATTATTCATTGTTAATTGTTCATTATTTAATTATGATTCCTG
AGTTATGAGAAACTCTGAGAAGTTCAGGGCTTTCAGGGAATCTC

Neighbor Proteins Overview

Protein	Signature genes	Signature genes Name	Protein_function
LR134489.1|VEI55342.1|2082270_2082963_-|Sensory-transduction-protein-lytR	unknown	unknown	gnl|CDD|225818
LR134489.1|VEI55336.1|2073088_2073583_-|DNA-polymerase-III-polC-type	DEDDh	cd06127_DEDDh_CAS-I	gnl|CDD|99834
LR134489.1|VEI55358.1|2089350_2089989_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|187560
LR134489.1|VEI55356.1|2088051_2088987_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI55352.1|2086594_2087185_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372635
LR134489.1|VEI55344.1|2082959_2084039_-|Inner-membrane-protein-ypdA	unknown	unknown	gnl|CDD|225814
LR134489.1|VEI55348.1|2084740_2085376_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372635
LR134489.1|VEI55372.1|2095151_2095826_-|Predicted-ATPase	unknown	unknown	gnl|CDD|276809
LR134489.1|VEI55366.1|2092903_2093944_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI55340.1|2081765_2082215_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI55364.1|2092341_2092878_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372922
LR134489.1|VEI55350.1|2085636_2086227_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372635
LR134489.1|VEI55354.1|2087368_2087959_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372635
LR134489.1|VEI55370.1|2094077_2095130_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI55346.1|2084059_2084647_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372635
LR134489.1|VEI55338.1|2073738_2081493_-|Uncharacterised-protein	unknown	unknown	gnl|CDD|372639
LR134489.1|VEI55362.1|2091685_2092249_-|Uncharacterised-protein	unknown	unknown	unknown
LR134489.1|VEI55360.1|2090087_2091659_+|Sodium,-potassium,-lithium-and-rubidium/H(+)-antiporter	unknown	unknown	gnl|CDD|129911
LR134489.1|VEI55334.1|2072229_2072979_-|Helix-turn-helix-domain	unknown	unknown	gnl|CDD|378964
LR134489.1|VEI55368.1|2093956_2094055_-|Uncharacterised-protein	unknown	unknown	unknown

HMMScan for Signature genes

Protein	Cas_name	Cas_description	E-value	Identity	Coverage
LR134489.1|VEI55336.1|2073088_2073583_-|DNA-polymerase-III-polC-type	DEDDh	cd06127_DEDDh_CAS-I	5e-35	115.7	0.0

rpsblast for functional proteins

Protein	Function_ID	Function_description	E-value
LR134489.1|VEI55342.1|2082270_2082963_-|Sensory-transduction-protein-lytR	gnl|CDD|225818	COG3279, LytT, Response regulator of the LytR/AlgR family [Transcription / Signal transduction mechanisms].	7.44899e-47
LR134489.1|VEI55336.1|2073088_2073583_-|DNA-polymerase-III-polC-type	gnl|CDD|99834	cd06130, DNA_pol_III_epsilon_like, an uncharacterized bacterial subgroup of the DEDDh 3'-5' exonuclease domain family with similarity to the epsilon subunit of DNA polymerase III. This subfamily is composed of uncharacterized bacterial proteins with similarity to the epsilon subunit of DNA polymerase III (Pol III), a multisubunit polymerase which is the main DNA replicating enzyme in bacteria, functioning as the chromosomal replicase. The Pol III holoenzyme is a complex of ten different subunits, three of which (alpha, epsilon, and theta) compose the catalytic core. The Pol III epsilon subunit, encoded by the dnaQ gene, is a DEDDh-type 3'-5' exonuclease which is responsible for the proofreading activity of the polymerase, increasing the fidelity of DNA synthesis. It contains three conserved sequence motifs termed ExoI, ExoII and ExoIII, with a specific Hx(4)D conserved pattern at ExoIII. These motifs are clustered around the active site and contain four conserved acidic residues that serve as ligands for the two metal ions required for catalysis. The epsilon subunit of Pol III also functions as a stabilizer of the holoenzyme complex.	1.61749e-77
LR134489.1|VEI55358.1|2089350_2089989_-|Uncharacterised-protein	gnl|CDD|187560	cd05250, CC3_like_SDR_a, CC3(TIP30)-like, atypical (a) SDRs. Atypical SDRs in this subgroup include CC3 (also known as TIP30) which is implicated in tumor suppression. Atypical SDRs are distinct from classical SDRs. Members of this subgroup have a glycine rich NAD(P)-binding motif that resembles the extended SDRs, and have an active site triad of the SDRs (YXXXK and upstream Ser), although the upstream Asn of the usual SDR active site is substituted with Asp. For CC3, the Tyr of the triad is displaced compared to the usual SDRs and the protein is monomeric, both these observations suggest that the usual SDR catalytic activity is not present. NADP appears to serve an important role as a ligand, and may be important in the interaction with other macromolecules. Atypical SDRs generally lack the catalytic residues characteristic of the SDRs, and their glycine-rich NAD(P)-binding motif is often different from the forms normally seen in classical or extended SDRs. Atypical SDRs include biliverdin IX beta reductase (BVR-B,aka flavin reductase), NMRa (a negative transcriptional regulator of various fungi), progesterone 5-beta-reductase like proteins, phenylcoumaran benzylic ether and pinoresinol-lariciresinol reductases, phenylpropene synthases, eugenol synthase, triphenylmethane reductase, isoflavone reductases, and others. SDRs are a functionally diverse family of oxidoreductases that have a single domain with a structurally conserved Rossmann fold, an NAD(P)(H)-binding region, and a structurally diverse C-terminal region. Sequence identity between different SDR enzymes is typically in the 15-30% range; they catalyze a wide range of activities including the metabolism of steroids, cofactors, carbohydrates, lipids, aromatic compounds, and amino acids, and act in redox sensing. Classical SDRs have an TGXXX[AG]XG cofactor binding motif and a YXXXK active site motif, with the Tyr residue of the active site motif serving as a critical catalytic residue (Tyr-151, human 15-hydroxyprostaglandin dehydrogenase numbering). In addition to the Tyr and Lys, there is often an upstream Ser and/or an Asn, contributing to the active site; while substrate binding is in the C-terminal region, which determines specificity. The standard reaction mechanism is a 4-pro-S hydride transfer and proton relay involving the conserved Tyr and Lys, a water molecule stabilized by Asn, and nicotinamide. In addition to the Rossmann fold core region typical of all SDRs, extended SDRs have a less conserved C-terminal extension of approximately 100 amino acids, and typically have a TGXXGXXG cofactor binding motif. Complex (multidomain) SDRs such as ketoreductase domains of fatty acid synthase have a GGXGXXG NAD(P)-binding motif and an altered active site motif (YXXXN). Fungal type ketoacyl reductases have a TGXXXGX(1-2)G NAD(P)-binding motif.	4.96988e-60
LR134489.1|VEI55352.1|2086594_2087185_-|Uncharacterised-protein	gnl|CDD|372635	pfam13568, OMP_b-brl_2, Outer membrane protein beta-barrel domain. This domain is found in a wide range of outer membrane proteins. This domain assumes a membrane bound beta-barrel fold.	1.01258e-10
LR134489.1|VEI55344.1|2082959_2084039_-|Inner-membrane-protein-ypdA	gnl|CDD|225814	COG3275, LytS, Putative regulator of cell autolysis [Signal transduction mechanisms].	3.07648e-34
LR134489.1|VEI55348.1|2084740_2085376_-|Uncharacterised-protein	gnl|CDD|372635	pfam13568, OMP_b-brl_2, Outer membrane protein beta-barrel domain. This domain is found in a wide range of outer membrane proteins. This domain assumes a membrane bound beta-barrel fold.	1.51907e-18
LR134489.1|VEI55372.1|2095151_2095826_-|Predicted-ATPase	gnl|CDD|276809	sd00006, TPR, Tetratricopeptide repeat. The Tetratricopeptide repeat (TPR) typically contains 34 amino acids and is found in a variety of organisms including bacteria, cyanobacteria, yeast, fungi, plants, and humans. It is present in a variety of proteins including those involved in chaperone, cell-cycle, transcription, and protein transport complexes. The number of TPR motifs varies among proteins. Those containing 5-6 tandem repeats generate a right-handed helical structure with an amphipathic channel that is thought to accommodate an alpha-helix of a target protein. It has been proposed that TPR proteins preferentially interact with WD-40 repeat proteins, but in many instances several TPR-proteins seem to aggregate to multi-protein complexes.	1.24562e-05
LR134489.1|VEI55364.1|2092341_2092878_-|Uncharacterised-protein	gnl|CDD|372922	pfam14136, DUF4303, Domain of unknown function (DUF4303). This family of proteins is functionally uncharacterized. This family of proteins is found in bacteria. Proteins in this family are typically between 169 and 192 amino acids in length.	7.57413e-39
LR134489.1|VEI55350.1|2085636_2086227_-|Uncharacterised-protein	gnl|CDD|372635	pfam13568, OMP_b-brl_2, Outer membrane protein beta-barrel domain. This domain is found in a wide range of outer membrane proteins. This domain assumes a membrane bound beta-barrel fold.	1.5725e-11
LR134489.1|VEI55354.1|2087368_2087959_-|Uncharacterised-protein	gnl|CDD|372635	pfam13568, OMP_b-brl_2, Outer membrane protein beta-barrel domain. This domain is found in a wide range of outer membrane proteins. This domain assumes a membrane bound beta-barrel fold.	5.1439e-08
LR134489.1|VEI55346.1|2084059_2084647_-|Uncharacterised-protein	gnl|CDD|372635	pfam13568, OMP_b-brl_2, Outer membrane protein beta-barrel domain. This domain is found in a wide range of outer membrane proteins. This domain assumes a membrane bound beta-barrel fold.	4.60149e-08
LR134489.1|VEI55338.1|2073738_2081493_-|Uncharacterised-protein	gnl|CDD|372639	pfam13585, CHU_C, C-terminal domain of CHU protein family. The function of this C-terminal domain is not known; there are several conserved tryptophan and asparagine residues.	1.0702e-30
LR134489.1|VEI55360.1|2090087_2091659_+|Sodium,-potassium,-lithium-and-rubidium/H(+)-antiporter	gnl|CDD|129911	TIGR00831, Putative_Na+/H+_exchanger_Rv2287/MT2345/Mb2309., Na+/H+ antiporter, bacterial form. The Monovalent Cation:Proton Antiporter-1 (CPA1) Family (TC 2.A.36) The CPA1 family is a large family of proteins derived from Gram-positive and Gram-negative bacteria, blue green bacteria, yeast, plants and animals. Transporters from eukaryotes have been functionally characterized, and all of these catalyze Na+:H+ exchange. Their primary physiological functions may be in (1) cytoplasmic pH regulation, extruding the H+ generated during metabolism, and (2) salt tolerance (in plants), due to Na+ uptake into vacuoles. This model is specific for the bacterial members of this family. [Transport and binding proteins, Cations and iron carrying compounds].	3.47434e-84
LR134489.1|VEI55334.1|2072229_2072979_-|Helix-turn-helix-domain	gnl|CDD|378964	pfam12833, HTH_18, Helix-turn-helix domain.	4.945e-07

Protein sequences

>LR134489.1|VEI55352.1|2086594_2087185_-|Uncharacterised-protein
MKKIIILTALIAFTATATAQVKFGVRGGYTLSPVSKSIHTDRYENQAHSESASSCGSAYAGLTAEVSASEKWFLDIGLIYINQVTIGEGSTMLHNINLPIAVKYDISGFRPKVGIYASYIPGVTSFEDEHRSLTKNDLKKFDYGATFGLEYNFTEKFFIEANFNLGLANLLKEDPRHSSDYLRNRTLFLGVGYRFN
>LR134489.1|VEI55350.1|2085636_2086227_-|Uncharacterised-protein
MKKIIILTALIAFTATATAQVKFGVRGGYTLSPVSKSIHTDRYENQAHSESASSCGSAYAGLTAEVSASEKWFLDIGLIYINQITIGEGSTMLHNINLPIAVKYDISGFRPKVGIYASYIPGVTSFEDEHRSLTKNDLKKFDYGATFGLEYNFFDRFFIEANFNLGLANLLKEDPRHSSDYLRTRSILVGVGYRFN
>LR134489.1|VEI55348.1|2084740_2085376_-|Uncharacterised-protein
MKKIITFVALIALTATATAQNESMGFGIRGGGSITGYNGKTEANYTNVKYKAGYYVGIFSDSQLLPFLDLRTELLFSSYGAKWEFTQGNEKYSNTLHTQYINLPILARLKIGNLGILAGVQGGILVNKPSLENTFNGRTVKLDRSDFAKFDFGAVVGAEFNVTDHFLIDIRFNQGLVNALNSSNSSVRNLNISSNNNFLNVSYTLGVGYRF
>LR134489.1|VEI55346.1|2084059_2084647_-|Uncharacterised-protein
MKKIITIIALIALTATATAQVKFGVHAGAGIGLMSKDVHDDRYEGQNKTDKEPFSTSSYGGFFVEIPASEKLLLDLGAMYTNYSTIGKGKTMLHRIDVPLAIKYDISGLRPKVGGYVSYIPGVTSFENKYRSLTRKDIEKFDYGALFGLEYNFNEKLFIETNFYLGLANLLTKDPRHSSDYLRTRSILIGVGYRF
>LR134489.1|VEI55344.1|2082959_2084039_-|Inner-membrane-protein-ypdA
MNENPYIFLKNNLFLQFLIADRFRIYRHIVACSSLLLFFILGRQWGDYEGMIDYWDWIEKWLGITATFYLNMYVLIPRFFFKGKLATYIILLTLWVLFMLGSTYYLNFVLWKDYMIGKEIKIASEIPVSVAIFSSMVYIVPFIMTSTLIKIFQVWVKDSERMQELERQATESELQALRSQIQPHFLFNMLNSINTLLYIDPEKASYTITKLSDFLRHLLYQTHEEQVFLSSELRFLNDYLSLEAMRRDDFTYELTYSEKNVQGIQIPPNILLILAENAVKHSVDTLSPTYIYMKCEEKEGLLHFSVRNSVPLEPHRKHKCSGIGLPNLNRRLELLYGERFSLSQERLPQEYIVTLTLPL
>LR134489.1|VEI55342.1|2082270_2082963_-|Sensory-transduction-protein-lytR
MNCLIIDDEPLARIGMERLIRQYSNLKVVGTFKNAVGVTDFLKKNEVHLLFLDIEMPGINGLELAKILPEQTLVIFTTAYSQYALESYEVDALDYLVKPITPERFKKAIAKAESYHQLLSEQKTDLEATDAQYISIRANRRNYRIAHSDILYIEALKDYVIIHTFTDRYITWINLKNIHSQLPESVFVRVNKSYVVNTQHITSYTHQFVYIGDTEIPIGRTYEVIDKFGN
>LR134489.1|VEI55340.1|2081765_2082215_-|Uncharacterised-protein
MKKFFLFCLALVGFVATAQTYEFKVVTAVESVVPSGMGRSRLISANDERNYKDFTTTRSEEGDERNKSDRDEIRVKGFDETKLLNFFNLGGIRFQNIAANDALITSKLNAMSEEGWELAFVSSGVESNSGKDDSTGLFITRFVFKRLKK
>LR134489.1|VEI55338.1|2073738_2081493_-|Uncharacterised-protein
MQSLKEQWVKCCTLFLLLFTGMVKGQVVSVLTESPVHIANTADFSAGVVTITFNMPAGKTSGELEVTLPAGIEYAQGLTATGGTVTWKAGSAANKPIFTISGAGTVVTVSFKRKVTKAVLSNPNLGDGLHDSAILKIDGKSSPAKQNETAYQLVRPTLAVQFAGGVTSEDVGTHTRTFDIRNTGNGIVKDVYFSVDYPADVAGNGFWHNNTKLTPMTINGKTVYKVPDVHLANNQYITITENYTISKCGNAMQNVYYAHWGTNSEIFDTTSKARNIQVKTGTPSIELDEDKNSTYFTWEDGLMGNTLGTFTLKYKNNGKGENPTAYDIVLDLLERWNGQTFVSFKPTNIRLVAADGTELTIPQTAISRPNGTNGKLAIDFSKITALKTNDATYSSKDFGFTDENGDGFRAELKKDAAFTLRFDYIRNQPINCLMSSANKDLSISPFTYLHTKNVCGTTITPKEAPVHSYTFTRLLSSVGDGSKFPIQLFHNVATAGYVIAAYNTTGFAATERIKGNNNKNNDNRFKYQIKLPAGVALKNIKFYKANAYGTSSKAPIDLGNATAGSTFNYTTADTEFGYITFDIVLETCLGNNVNFEYYAWFLDKSEKTNTYSEVPLVCVTNKSIMTICSSPCGLNGPEMLSTKVERADNSYGWTDHNMTTRTQRSQVSELQRQRALYLDDIEVISTGKQLNVTTKNLYYHASFAKGAGVTPKSIIFNTATHSITLQASNSIVTKTTVGERDYFLWNLTSALPSAGIPANGTFTTVATYQLTNGEEKYSNSKDIESGGDSFYYRLNDPTTDTAINAQGFHTAEIHCGAKLYATFYFAGLYSTVATNDYNLSGCEIKDIGGWQVHTARRFNTGGTYFTDEFRPARLVKKVTFTVPSSVNYVDKVTYMYRTKYPNATQIDIPISNFILESDNGTYKVYSYTNPPKGQPGHLPVGEISVDNYYDSYFRPWMQATCKTKVVKNLNEAKAANMLVTSKLEYEDFYYHYAARGGQKITSGEIPEHKTPLYFKEVPSIDITAQTALSVKASKREQILEFKLSNNSFSDAPYSWVSIPNIAGVDILSLTEISSTKAHVYTYTAQSNISGEQMFFLSDKGGNGTIAKGENRYFRVIYRITNCEAPLHTLKLYAGWNCNSNPTSGYQSTCSDKSLTFNITVAKSRKEIEPDANNPGQNKPDKVGTIPMCTATPYSYIINSASEGDIYDAKLVVTQGAGISFSDIEVEYPLNSGIKYNETTGAKRLVHTTVGNVHTFDISSILPGGSLPGSISEPTNAENRKFKLTFKVTPDCDFTAGSSFDIDIEGNNLCGKPAAGDKTRAIIAGITGVNISEYSINLDNLTYVNGNGSACDMGVTYRTRVTVNASNPAFEIGDNARLRFRIPKGYEFVSGAIQSRSSGTSWTDPARKTAEDKDVRNEREISVTVPKGMKNGHTFEYNVTIKQKDNATIDCATPKELSAFTTDTVTGVTCATAQGGKCGTFTVNSSPRRSIVIKNERPSLSFSNVAVSSKAENNKEKITVTYKITNGATASATLTARPVVASLYYDANNNGEVDANDTKLTTYTSTETLAKGATSAERSFTHLVDADKVCRLLLALKNEDNVCLCGDVISALPAPTTIEGLTQSFTTCATSSITLAYPAAAAIYTGYTWSAVSPANALGYLSANNVATPTFLYNGANITSPLVVTYKLTLKRYNGCEAVQTVTVQVSPQGINLTTPAPLVVNCKNATASITQWLNAASAADTCGNAASVTHNYDTVKPADLCNNSGIVTVTFVGKDALGNTATQTRTITLVNIDAVDDDFTFTDGSVSTTSTRTVLVNDKVGNQTATIGTVSLTVITPAVGAAGSATPTLNANGTVTVPAGTKSGTYYIGYRICSTVASISVCDTATATVVVGNPTITADPDTFTITTGTSTKSVLDNDKIGTATATTNTVSISVVTGATPKQAGTNTPTLDSDGKVTVPNNTPAGTYTIVYQICDKLNSGNCATTTATVVVGTPTITADPDTFTITTGTSTKSVLDNDKIGTATATTNTVSISVVTGATPKQPGTNTPTLDSDGKVTVPNNTPAGTYTIVYQICDKLNSGNCATTTATVVVGNPTITADPDTFTITTGTSTKSVLDNDKIGTATATTNTVSISVVTGATPKQSGTNTPTLDSDGKVTVPNNTPAGTYTIVYQICDKLNSGNCATTTATVVVDTPTITADPDTFTITTGTSTKSVLDNDKIGTATATTNTVSISVVTGATPKQPGTNTPTLDSDGKVTVPNNTPAGTYTIVYQICDKLNSGNCATTTATIIVGTPTITADPDTFTITTGTSTKSVLDNDKIGTATATTNTVSISVVTGATPKQAGTNTPTLDSDGKVTVPNNTPAGTYTIVYQICDKLNSGNCATTTATVVVGTTTPTAPVPVAVDDRATTPLNTPVTINVLGNDTPEGATPNVTTNPANGSVSVNSDGSIEYRPHTDFAGTDTFVYELCNASGCATATVTVEVIKSIVVYNAISLSSDKNDHFHIAGIESYPNNVVRIYNRWGVKVWEAEHYDNIRNVFKGISNGRVTVEAPNKLPQGTYYYVIEYTDERNQQQSKTGWLYIKK
>LR134489.1|VEI55336.1|2073088_2073583_-|DNA-polymerase-III-polC-type
MNSFVALDFETANQYRSSVCSIGLVFVENNEIVDTYYQLIKPAPNYYSPFCTQVHGLSQRDTEKAPLFPEVWTEILPKIKDLPLVAHNSMFDEGCLREVLAYYALPQHTNPFFCTLRAARKSLPQLVNHKLDTVSAYFGFDLKQHHHALADAEACAHIALELFK
>LR134489.1|VEI55334.1|2072229_2072979_-|Helix-turn-helix-domain
MQSVIPAEEKEVTYTEFFPCEALRPFIYCYWELKSPPRNTPFFYRVVADGCIDLFFDCNAPQMSSVMGYCNTYVEFPITGAFHYVGVRFLPSAFPLLFGQDAFEISAQEIPLREVVPALATFIAQQLETPLSLATIAQHLDNYFLRYLSQRSLQMDKRFFSALLQILQSKGTMHISQLDTGISARQLRRLFDYYIGDSPKTFSNIVRFQHILSAKAYHNHSFLDTYYDQAHFIKSFKTFYGDTPSKVLG
>LR134489.1|VEI55354.1|2087368_2087959_-|Uncharacterised-protein
MKKIITIIALIAFTATATAQVKFGARLGGGVGLVSKDIHTDRYEGQTKTQEPPFGSPFYGGFFVEIPASEKLLLDLGAMYTNHSTTGEGKVMLHRIDVPLAIKYDISGFRPKVGGYVSYIPAVISHSGNYYSLTKKDIEKFDYGALFGLEYNFNEKLFIETNFYLGLANLLTKDPRHSSDYLRTRSILVGVGYRFN
>LR134489.1|VEI55356.1|2088051_2088987_-|Uncharacterised-protein
MKEIFTFIILFLGVNSFAQISVKTEYISNSKFYDAVSDSNTGDGSAMIYSVGALVPLSMKAPEEDDPYQRPTLWGVGLNGSFVQMYNHHFPVGKELPSQVMNLGATFLHLRPLKERWSMLMALGAGSYTPENRLSSIHIGENVVANGAFVLVWHWRPNIEIGGGVALNNTFGYPMVFPAFYFKYNGAFSDKFTIEVGSIDGLKVALGYNYRENLDFKLIANMGGYSAYLRRNGEKEIFSQQTFVVGLQPEFKIGKHVSIPLTVGGSFIRSGRYRERKLSAMFASEAKNEDGTSRSSQFNPALYFAAGVTIK
>LR134489.1|VEI55358.1|2089350_2089989_-|Uncharacterised-protein
MKGLIIGATGATGKDLVTQLLADDTYSEVHCFVRKPLALTHPKLHAHVVNFDTPEAWADLLHGDVAFSCLGTTLAVAGSKEAQWRVDYDYQYAFALQCKANGVPTFVLISAAGATAQSKLFYNRMKGQLEDAIKALDFPSLLIFQPSVLIRSNSDRSGENFTVKAFKFLNKLGILKRYRPMPTQILAEKILSAVYNFRKGTFTFALNKIFEI
>LR134489.1|VEI55360.1|2090087_2091659_+|Sodium,-potassium,-lithium-and-rubidium/H(+)-antiporter
MVQYFPYLLLLMVAIMLLIMFANRLKVAYPILLVLGGLAISFIPNVPTITLNPDLVLIIFLPPLLYADVFSLSLKEMWKWRRIIFSFAFIVVFITAAAVAWVANMVFPGFSLALGFLLGGVIGSTDAVSASTIMKFVKVPKRISTIIESESLLNDASSLIVFRFAALVVTTGQLVWTDMALNFLWVVIGGTLIGLGVAWVMRKLHKYLPTDANMDVILTFIVPYIMYIVANEVGASGVLAVVAGGMYMSFHLTSILAASTSNKGWAVWDILGFVLNGLAFMLIGLALPEVLIGIEAEGMSLATATNYGLLITGVVVGVRLLSSYGALLITQVMKHFITVADRRNPGFRLPLVLGWAGMRGVLSLAVALSIPLTLENGEPFPHRNLILYITFIVILVTLLVQGLSLPALIRWANFPDYEDHIPEAEAESLIRKSLAQAALDYMQEHYKEGITDSFLLQNQKDIWQYQLDLSKSNTTPEERKKYIAILHHQRELLHQLNKNPRIDEEQIRNFHRQLNLEEEKWEE
>LR134489.1|VEI55362.1|2091685_2092249_-|Uncharacterised-protein
MLSSNKLNYIEGVQKHAKRVATTTIVLSVIVLTILIVIHTIINHRKLTDIIYNPFFLVIVLILSFFFFILYRGKQRALKLQKLIEQMSEEEFLFLLQIQSSLSFHYKHAPTFVLCCEQLYLFTPFKIKNIDPKKVEKVRWHYARGGSLLIEIQSPETTKFEVYNSIYPYFASLIGWYNPNADIENYK
>LR134489.1|VEI55364.1|2092341_2092878_-|Uncharacterised-protein
MTPELQPLGDAIFEATQKAFLKLFENGEHYYYCVLLTTGEALPPCIAAWSVEALERFVNENAIPQEEIPYYKYSFADSPYYAFGYDEYFQQVKQLFEQRDSLIDYNNKEQWNEEYNLRLAAMVYAMKKLDETGIFALNQPREQVYINVELMPPDDTDIERALSFNNPDNIEEWLSIFG
>LR134489.1|VEI55366.1|2092903_2093944_-|Uncharacterised-protein
MNEQVRKLYDQAQANYPALKAQIEAQVVRWFWAAGGVGYFSLEPFYFEQNRFPKSKILKEAPKDTDNKYQYGVNGKDEIIVAHSYIGCEGDYYEEFYFREKNQIISYHFDFASKKKCINTKIFIYKDGLLQSIYSAFNNNTWSERTMYYEGNKLIRQEKKGIDYIDNTLLYTYDMSGKLNSITNETGYVYYQKKDKKISYKALSEKAAERYYALLVPTIKAYPVKEPLYCINLSFDYQNILPTRIGFGTESERQEYQKYGKEAKHYLWNTAEYAHTIDIEPNEEDATLFDLFNQETEMQEKSSAATKLLVACAKRLKEECASLGIPSTNDFVIVVGDEEEFFFKKV
>LR134489.1|VEI55368.1|2093956_2094055_-|Uncharacterised-protein
MNPIFEQLAPLAETQNHITLLKDLYKKVNKIK
>LR134489.1|VEI55370.1|2094077_2095130_-|Uncharacterised-protein
MNEQARKLYDQAQANYPALKAQIEAQVVRWFWASGGVGYFSLEPFYFEQNRFSKSKILKDAPEDSDNKYQYGVNANDEIIVERSYTEFKGQCYETFYFREDSQIISYRFEYSEEKECDNVKIFIYKDGLLQYIYSAFEEHYLEETMYYEGNKLIRRKTKGLDYYSNPIDNTLLYTYDMLGKLNSITNETGYVYYQKKDKKVSYKKLSERVAERFYALLIPAIKAYPIPEPLYCLNIAFDYQYIMPPTIGFGTENKRIEWKESYGKRADSLLWNTADYAHTVEIETDNEDTALFELFNQETEMQERESAATKLLVACAKRLKEEWASLGIPSTDDFVVVVSDIEDSFLKKV
>LR134489.1|VEI55372.1|2095151_2095826_-|Predicted-ATPase
MNPIIKQWDTAKSLKRCQYKEALAIYETLCPKVETDLSDTFDRAMFFGDYFGVLADVAQYDKAEAMAAKALKYITENEYTTLNYIFYNYGNMYLHQAKWEEAIPWLEKALNRNSDGWINEKQRAYYGTALGGALFHLGRIEEAEEELLKAVEAGKATVANKDWEPFFYLKELYKQKGDEKLMAKYENMYLTRLKKLKEEELIYPLSEHRANKQALEDWKKLNNP

Self-targeting detection

CRISPR_ID	Spacer_Info	Spacer_region	Spacer_length	Hit_ID	Protospacer_location	Mismatch	Identity
LR134489_3	3.2|1387786|27|LR134489|CRT	1387786-1387812	27	LR134489.1	1391533-1391559	1	0.963
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	LR134489.1	1407541-1407559	2	0.895
LR134489_3	3.1|1387741|18|LR134489|CRT	1387741-1387758	18	LR134489.1	1395569-1395586	2	0.889
LR134489_3	3.2|1387786|27|LR134489|CRT	1387786-1387812	27	LR134489.1	1411841-1411867	2	0.926
LR134489_3	3.2|1387786|27|LR134489|CRT	1387786-1387812	27	LR134489.1	1412454-1412480	2	0.926
LR134489_3	3.2|1387786|27|LR134489|CRT	1387786-1387812	27	LR134489.1	1412509-1412535	2	0.926
LR134489_3	3.3|1387840|18|LR134489|CRT	1387840-1387857	18	LR134489.1	1395569-1395586	2	0.889
LR134489_4	4.8|1393951|36|LR134489|CRT	1393951-1393986	36	LR134489.1	1391539-1391574	2	0.944
LR134489_4	4.10|1394061|27|LR134489|CRT	1394061-1394087	27	LR134489.1	1395575-1395601	2	0.926

1. spacer 3.2|1387786|27|LR134489|CRT matches to position: 1391533-1391559, mismatch: 1, identity: 0.963

tgaaacattcgtgtcaattcgtgtaat	CRISPR spacer
tgaaacattcgtgtcaattcgtgaaat	Protospacer
*********************** ***

2. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to position: 1407541-1407559, mismatch: 2, identity: 0.895

atttctcttttctctaaat	CRISPR spacer
atttcacctttctctaaat	Protospacer
***** *.***********

3. spacer 3.1|1387741|18|LR134489|CRT matches to position: 1395569-1395586, mismatch: 2, identity: 0.889

ctgaaatattcgtgcaat	CRISPR spacer
ctgatacattcgtgcaat	Protospacer
**** *.***********

4. spacer 3.2|1387786|27|LR134489|CRT matches to position: 1411841-1411867, mismatch: 2, identity: 0.926

tgaaacattcgtgtcaattcgtgtaat	CRISPR spacer
tgaaacattcgtgcaaattcgtgtaat	Protospacer
*************. ************

5. spacer 3.2|1387786|27|LR134489|CRT matches to position: 1412454-1412480, mismatch: 2, identity: 0.926

tgaaacattcgtgtcaattcgtgtaat	CRISPR spacer
tgaaacattcgtgtcaattcgtacaat	Protospacer
**********************..***

6. spacer 3.2|1387786|27|LR134489|CRT matches to position: 1412509-1412535, mismatch: 2, identity: 0.926

tgaaacattcgtgtcaattcgtgtaat	CRISPR spacer
tgaaacattcgtgtcaattcgtacaat	Protospacer
**********************..***

7. spacer 3.3|1387840|18|LR134489|CRT matches to position: 1395569-1395586, mismatch: 2, identity: 0.889

ctgaaacattcgtgaaat	CRISPR spacer
ctgatacattcgtgcaat	Protospacer
**** ********* ***

8. spacer 4.8|1393951|36|LR134489|CRT matches to position: 1391539-1391574, mismatch: 2, identity: 0.944

attcgtgccaattcgtgaaattcgtgggcgaacccc	CRISPR spacer
attcgtgtcaattcgtgaaattcgtgggcgaaaccc	Protospacer
*******.************************ ***

9. spacer 4.10|1394061|27|LR134489|CRT matches to position: 1395575-1395601, mismatch: 2, identity: 0.926

cattcgtgcaatccgtgggcaaaaccc	CRISPR spacer
cattcgtgcaattcgtgggcgaaaccc	Protospacer
************.*******.******

MGE targeting detection<

CRISPR_ID	Spacer_Info	Spacer_region	Spacer_length	Hit_phage_ID	Hit_phage_def	Protospacer_location	Mismatch	Identity
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024320	Borrelia miyamotoi strain Yekat-6 plasmid pYkt6-lp41, complete sequence	17553-17571	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024354	Borrelia miyamotoi strain Izh-16 plasmid pIzh16-lp41-1, complete sequence	29201-29219	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024374	Borrelia miyamotoi strain Izh-14 plasmid pIzh14-lp41, complete sequence	33384-33402	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024393	Borrelia miyamotoi strain Izh-4 plasmid pIzh4-lp41, complete sequence	14629-14647	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024208	Borrelia miyamotoi strain Izh-5 plasmid pIzh5-lp41, complete sequence	14667-14685	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024336	Borrelia miyamotoi strain Yekat-1 plasmid pYkt1-lp41, complete sequence	14814-14832	0	1.0
LR134489_2	2.3|320831|19|LR134489|CRISPRCasFinder	320831-320849	19	NZ_CP024355	Borrelia miyamotoi strain Izh-16 plasmid pIzh16-lp41-2, complete sequence	14667-14685	0	1.0
LR134489_5	5.9|1441115|30|LR134489|CRISPRCasFinder,PILER-CR	1441115-1441144	30	NZ_CP027230	Capnocytophaga sp. oral taxon 878 strain F0545 plasmid unnamed1, complete sequence	9473-9502	2	0.933
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_CP054613	Paenibacillus cellulosilyticus strain KACC 14175 plasmid unnamed4, complete sequence	2477749-2477778	5	0.833
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_CP020744	Bacillus mycoides strain Gnyt1 plasmid unnamed1, complete sequence	372839-372868	5	0.833
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_CP028164	Staphylococcus aureus strain CFSAN064038 plasmid pGMI17-006, complete sequence	9512-9541	6	0.8
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_KU521355	Staphylococcus aureus subsp. aureus strain M12/0145 plasmid pSAM12-0145 clone ST22, complete sequence	21881-21910	6	0.8
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_021076	Staphylococcus aureus strain 004-737X plasmid pSA737, complete sequence	19577-19606	6	0.8
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_014023	Bacillus megaterium QM B1551 plasmid pBM700, complete sequence	151881-151910	6	0.8
LR134489_5	5.2|1440583|30|LR134489|CRISPRCasFinder	1440583-1440612	30	NZ_CP010024	Paraburkholderia fungorum strain ATCC BAA-463 plasmid pBIL, complete sequence	390217-390246	7	0.767
LR134489_5	5.2|1440583|30|LR134489|CRISPRCasFinder	1440583-1440612	30	NC_013793	Bacillus pseudofirmus OF4 plasmid pBpOF4-02, complete sequence	92077-92106	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MF448557	Lactococcus phage 37201, complete genome	27995-28024	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_048010	Salmonella phage S132, complete genome	59232-59261	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_041832	Campylobacter phage vB_CcoM-IBB_35 clone Contig4, complete sequence	9630-9659	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MK408758	Campylobacter phage CP20, complete genome	131997-132026	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	FN667789	Campylobacter phage CPt10, complete genome	132191-132220	7	0.767
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	AP018320	Nostoc sp. HK-01 plasmid plasmid2 DNA, complete genome	40465-40494	7	0.767
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	NZ_CP035229	Bacillus licheniformis strain SRCM103529 plasmid unnamed1, complete sequence	20250-20279	7	0.767
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	NZ_CP022288	Bacillus subtilis strain SX01705 plasmid pSX01705-1, complete sequence	65075-65104	7	0.767
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	MT773555	Myoviridae sp. isolate BML_3 genomic sequence	138253-138282	7	0.767
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MN694566	Marine virus AFVG_250M779, complete genome	30167-30196	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_014633	Ilyobacter polytropus DSM 2926 plasmid pILYOP01, complete sequence	469225-469254	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_AP018408	Lactobacillus plantarum strain SN35N plasmid pSN35N-3, complete sequence	12366-12395	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_002111	Riemerella anatipestifer 10 plasmid pCFC1, complete sequence	2625-2654	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NZ_CP009317	Bacillus cereus 03BB102 plasmid unnamed, complete sequence	61030-61059	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	KY806579	Riemerella anatipestifer strain RA-JX plasmid JX, complete sequence	5375-5404	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	KF669663	Bacillus phage Staley, complete genome	79889-79918	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MK504443	Lactobacillus phage 521B, complete genome	9655-9684	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MK504446	Lactobacillus phage SAC12B, complete genome	7838-7867	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	MN693940	Marine virus AFVG_250M588, complete genome	37227-37256	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_012473	Bacillus cereus 03BB102 plasmid p03BB102_179, complete sequence	75864-75893	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	KC465899	Pelagibacter phage HTVC008M, complete genome	54887-54916	8	0.733
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	KU878088	Bacillus phage AR9, complete genome	20357-20386	8	0.733
LR134489_5	5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR	1441267-1441296	30	MF360957	Bacillus virus PBS1, complete genome	180905-180934	8	0.733
LR134489_5	5.4|1440735|30|LR134489|CRISPRCasFinder	1440735-1440764	30	NC_014633	Ilyobacter polytropus DSM 2926 plasmid pILYOP01, complete sequence	672247-672276	9	0.7
LR134489_5	5.6|1440887|30|LR134489|CRISPRCasFinder,PILER-CR	1440887-1440916	30	NZ_CP019362	Borrelia turicatae 91E135 isolate Oz1 plasmid cp31, complete sequence	1177-1206	9	0.7
LR134489_5	5.6|1440887|30|LR134489|CRISPRCasFinder,PILER-CR	1440887-1440916	30	NZ_CP019369	Borrelia turicatae 91E135 isolate Oz1 plasmid lpU43, complete sequence	35293-35322	9	0.7
LR134489_5	5.7|1440963|30|LR134489|CRISPRCasFinder,PILER-CR	1440963-1440992	30	NZ_LN614828	Legionella fallonii LLAP-10 plasmid II, complete sequence	153638-153667	9	0.7
LR134489_5	5.20|1441101|44|LR134489|CRT	1441101-1441144	44	NZ_CP027230	Capnocytophaga sp. oral taxon 878 strain F0545 plasmid unnamed1, complete sequence	9459-9502	10	0.773

1. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024320 (Borrelia miyamotoi strain Yekat-6 plasmid pYkt6-lp41, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

2. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024354 (Borrelia miyamotoi strain Izh-16 plasmid pIzh16-lp41-1, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

3. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024374 (Borrelia miyamotoi strain Izh-14 plasmid pIzh14-lp41, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

4. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024393 (Borrelia miyamotoi strain Izh-4 plasmid pIzh4-lp41, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

5. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024208 (Borrelia miyamotoi strain Izh-5 plasmid pIzh5-lp41, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

6. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024336 (Borrelia miyamotoi strain Yekat-1 plasmid pYkt1-lp41, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

7. spacer 2.3|320831|19|LR134489|CRISPRCasFinder matches to NZ_CP024355 (Borrelia miyamotoi strain Izh-16 plasmid pIzh16-lp41-2, complete sequence) position: , mismatch: 0, identity: 1.0

atttctcttttctctaaat	CRISPR spacer
atttctcttttctctaaat	Protospacer
*******************

8. spacer 5.9|1441115|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_CP027230 (Capnocytophaga sp. oral taxon 878 strain F0545 plasmid unnamed1, complete sequence) position: , mismatch: 2, identity: 0.933

ataatacagtcgtatcttacagcagactac	CRISPR spacer
ataatacagtcgtatcttacggctgactac	Protospacer
********************.** ******

9. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_CP054613 (Paenibacillus cellulosilyticus strain KACC 14175 plasmid unnamed4, complete sequence) position: , mismatch: 5, identity: 0.833

taggtagaaaaaacaataaaaaga-atatga	CRISPR spacer
taggtagaaaacacagtaaaaagatgtacg-	Protospacer
*********** ***.******** .**.* 

10. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_CP020744 (Bacillus mycoides strain Gnyt1 plasmid unnamed1, complete sequence) position: , mismatch: 5, identity: 0.833

taggtagaaaaaacaataaa--aagaatatga	CRISPR spacer
taggtacaaaaaacaataaaacaggagtat--	Protospacer
****** *************  *.**.***  

11. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_CP028164 (Staphylococcus aureus strain CFSAN064038 plasmid pGMI17-006, complete sequence) position: , mismatch: 6, identity: 0.8

taggtag-aaaaaacaataaaaagaatatga	CRISPR spacer
-acataataaaagacaataaaaagaatatgt	Protospacer
 * .**. ****.***************** 

12. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_KU521355 (Staphylococcus aureus subsp. aureus strain M12/0145 plasmid pSAM12-0145 clone ST22, complete sequence) position: , mismatch: 6, identity: 0.8

taggtag-aaaaaacaataaaaagaatatga	CRISPR spacer
-acataataaaagacaataaaaagaatatgt	Protospacer
 * .**. ****.***************** 

13. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_021076 (Staphylococcus aureus strain 004-737X plasmid pSA737, complete sequence) position: , mismatch: 6, identity: 0.8

taggtag-aaaaaacaataaaaagaatatga	CRISPR spacer
-acataataaaagacaataaaaagaatatgt	Protospacer
 * .**. ****.***************** 

14. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_014023 (Bacillus megaterium QM B1551 plasmid pBM700, complete sequence) position: , mismatch: 6, identity: 0.8

-taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
gtagatgaagaaaa-aataaaaagaatatgc	Protospacer
 ***.*..*.**** *************** 

15. spacer 5.2|1440583|30|LR134489|CRISPRCasFinder matches to NZ_CP010024 (Paraburkholderia fungorum strain ATCC BAA-463 plasmid pBIL, complete sequence) position: , mismatch: 7, identity: 0.767

cctgaaccctgatgacgatgcaaaattatt	CRISPR spacer
cctgaaccttgatgacgatgcagcagatgt	Protospacer
********.*************. *    *

16. spacer 5.2|1440583|30|LR134489|CRISPRCasFinder matches to NC_013793 (Bacillus pseudofirmus OF4 plasmid pBpOF4-02, complete sequence) position: , mismatch: 7, identity: 0.767

cctgaaccctgatgacgatgcaaaattatt	CRISPR spacer
attgaaccctgatgacgatgaaagtgaatt	Protospacer
 .****************** **.   ***

17. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MF448557 (Lactococcus phage 37201, complete genome) position: , mismatch: 7, identity: 0.767

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
atgaaagaaaaaaaaataaaaagaataaaa	Protospacer
  *. ******** ************* .*

18. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_048010 (Salmonella phage S132, complete genome) position: , mismatch: 7, identity: 0.767

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aaaatagaaaaaccaataaaaacaatatat	Protospacer
 *..******** ********* *****. 

19. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_041832 (Campylobacter phage vB_CcoM-IBB_35 clone Contig4, complete sequence) position: , mismatch: 7, identity: 0.767

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aagtcaattaaaacaattaaaagaatatga	Protospacer
 ** .*.  ******** ************

20. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MK408758 (Campylobacter phage CP20, complete genome) position: , mismatch: 7, identity: 0.767

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aagtcaattaaaacaattaaaagaatatga	Protospacer
 ** .*.  ******** ************

21. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to FN667789 (Campylobacter phage CPt10, complete genome) position: , mismatch: 7, identity: 0.767

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aagtcaattaaaacaattaaaagaatatga	Protospacer
 ** .*.  ******** ************

22. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to AP018320 (Nostoc sp. HK-01 plasmid plasmid2 DNA, complete genome) position: , mismatch: 7, identity: 0.767

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
acaaaggcaaaattattaactgaaaaaggt	Protospacer
. ****************** *****    

23. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_CP035229 (Bacillus licheniformis strain SRCM103529 plasmid unnamed1, complete sequence) position: , mismatch: 7, identity: 0.767

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
ttagaggcaaaattattaaaggaaaagaaa	Protospacer
  *.*************** ******   *

24. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_CP022288 (Bacillus subtilis strain SX01705 plasmid pSX01705-1, complete sequence) position: , mismatch: 7, identity: 0.767

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
ttagaggcaaaattattaaaggaaaagaaa	Protospacer
  *.*************** ******   *

25. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to MT773555 (Myoviridae sp. isolate BML_3 genomic sequence) position: , mismatch: 7, identity: 0.767

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
gtaaaggaaaagttattaacggaaaaggag	Protospacer
* ***** ***.**************   .

26. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MN694566 (Marine virus AFVG_250M779, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
ataataaaaaaaaaaataaaaagaatatat	Protospacer
  ..**.****** **************. 

27. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_014633 (Ilyobacter polytropus DSM 2926 plasmid pILYOP01, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
gaggtagaaaaaagaataaaaagttcagat	Protospacer
 ************ *********  .* . 

28. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_AP018408 (Lactobacillus plantarum strain SN35N plasmid pSN35N-3, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
actttagaaaaagcaataaaaagaattcca	Protospacer
    ********.************* . *

29. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_002111 (Riemerella anatipestifer 10 plasmid pCFC1, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aatccagaaagaaccataaaaagaatatct	Protospacer
 *  .*****.*** *************  

30. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NZ_CP009317 (Bacillus cereus 03BB102 plasmid unnamed, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aaaacggaaagaaaaataaaaagaatatgc	Protospacer
 *....****.** *************** 

31. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to KY806579 (Riemerella anatipestifer strain RA-JX plasmid JX, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aatccagaaagaaccataaaaagaatatct	Protospacer
 *  .*****.*** *************  

32. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to KF669663 (Bacillus phage Staley, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
tagttagaaaaaaccataaaaagggagttt	Protospacer
*** ********** ********.. .*  

33. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MK504443 (Lactobacillus phage 521B, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
ttattagaaaaaataataaaaataatagtg	Protospacer
* . *********.******** ****  .

34. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MK504446 (Lactobacillus phage SAC12B, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
ttattagaaaaaataataaaaataatagtg	Protospacer
* . *********.******** ****  .

35. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to MN693940 (Marine virus AFVG_250M588, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
tttcaagaaaaaacaataaaataaatatat	Protospacer
*    **************** .*****. 

36. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_012473 (Bacillus cereus 03BB102 plasmid p03BB102_179, complete sequence) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aaaacggaaagaaaaataaaaagaatatgc	Protospacer
 *....****.** *************** 

37. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to KC465899 (Pelagibacter phage HTVC008M, complete genome) position: , mismatch: 8, identity: 0.733

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
attaaagaaaaaacaataaggagaatataa	Protospacer
   . **************..*******.*

38. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to KU878088 (Bacillus phage AR9, complete genome) position: , mismatch: 8, identity: 0.733

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
agtacagcaaaattattaaaggaaaattat	Protospacer
.. * .************* ********  

39. spacer 5.11|1441267|30|LR134489|CRISPRCasFinder,PILER-CR matches to MF360957 (Bacillus virus PBS1, complete genome) position: , mismatch: 8, identity: 0.733

gaaaaggcaaaattattaacggaaaattta	CRISPR spacer
agtacagcaaaattattaaaggaaaattat	Protospacer
.. * .************* ********  

40. spacer 5.4|1440735|30|LR134489|CRISPRCasFinder matches to NC_014633 (Ilyobacter polytropus DSM 2926 plasmid pILYOP01, complete sequence) position: , mismatch: 9, identity: 0.7

taggtagaaaaaacaataaaaagaatatga	CRISPR spacer
aaaaatatgaaaataataaaaagaatatga	Protospacer
 *..  . .****.****************

41. spacer 5.6|1440887|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_CP019362 (Borrelia turicatae 91E135 isolate Oz1 plasmid cp31, complete sequence) position: , mismatch: 9, identity: 0.7

ctctccgagatatgagtttccttgaaatta	CRISPR spacer
tagagcgagatatgagattacttgaaatgt	Protospacer
.    *********** ** ********  

42. spacer 5.6|1440887|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_CP019369 (Borrelia turicatae 91E135 isolate Oz1 plasmid lpU43, complete sequence) position: , mismatch: 9, identity: 0.7

ctctccgagatatgagtttccttgaaatta	CRISPR spacer
tagagcgagatatgagattacttgaaatgt	Protospacer
.    *********** ** ********  

43. spacer 5.7|1440963|30|LR134489|CRISPRCasFinder,PILER-CR matches to NZ_LN614828 (Legionella fallonii LLAP-10 plasmid II, complete sequence) position: , mismatch: 9, identity: 0.7

taagagagttttccaaagcagtccaacgct	CRISPR spacer
ccccttggtttaccaaagcagtccaaggct	Protospacer
.     .**** ************** ***

44. spacer 5.20|1441101|44|LR134489|CRT matches to NZ_CP027230 (Capnocytophaga sp. oral taxon 878 strain F0545 plasmid unnamed1, complete sequence) position: , mismatch: 10, identity: 0.773

tgattgataacaacataatacagtcgtatcttacagcagactac	CRISPR spacer
gtatgaaaagatacataatacagtcgtatcttacggctgactac	Protospacer
  ** .* *.  **********************.** ******

Prophage detection

Region	Region Position	Protein_number	Hit_taxonomy	Key_proteins	Att_site
DBSCAN-SWA_1	254523 : 261908	10	Riemerella_phage(33.33%)	NA	NA
DBSCAN-SWA_2	1264014 : 1292758	34	Riemerella_phage(64.71%)	portal,terminase,holin	NA
DBSCAN-SWA_3	1295941 : 1305357	14	Riemerella_phage(25.0%)	NA	NA
DBSCAN-SWA_4	1422012 : 1429098	9	Only_Syngen_Nebraska_virus(33.33%)	NA	NA

Sequences of DBSCAN-SWA_1

Nucleotide sequences of DBSCAN-SWA_1

>LR134489|254523:261908|DBSCAN-SWA
TTCATTGGGTAGTAATTTTTAATCTTTTTGCTATAAGTTCTACAATATCCACGGTTACGGCGTTGCCGATGAGTTTGTAACGTTGTGTTTTAGCAATAGGTTTTATTATGCCGTTATAGTCACCATATTGGGTGAAGTTGTCAGGAAACCCTTGCAGGCGTTCGCATTCTATTTCAGTGAGGCGACGTATGCCACACAGTAGGTTATTTTCTTGAAAGGCGTTGCTCGATATAGTAGGGCAAATAGTTAGGTCTGCGCCTTTATTTTTACCTCGTGGGAGTTGGCGTATTACCGTCATATCAGAGTGCAAGCCTCCAGAATGCCCGCCTCCTGTGAGGGTACTTGCAGTTTTAGGAATGATGTAGGTGTCATCAGCATTCATATTGCCATTGGCTTTGATTGTGGTACTAATTAGGGCTTGTGATTGACTTTGCGTTTTTGTTGTAGGCACAAAATCATTTTCTCCGATAGGAAATACTCCTGGCTGACTTCGTCCTGCAAGATGTCCGATAAGGTATATCCGCTCTCGATTTTGGGGTAAAAGCCAGCTTGTATTAAGCAATTGCCATTCAAGTCTATAACCCCCAATGTTGGCAAACGCTTTGATAATTGCCCAAAAGTCTGCGCCAGCGTTTGAGGAGAATGCTCCTTTAACATTTTCCCAGATAAAAATACTTGGTTTGACGCAAGCAATGAGGGCAATTGCGTACTCGATAAGGCTACTTTTGGCTCCTTTAAGCCCCTCTCTTCTTCCAGCAGTTGAGAAATTTTGACATGGCGAACCGAAAGTGATAATGTCAATTCCTGTAAAGTATCCTCCATGAACAGAGGTAATATCTCCGATGTATTTTGCATTTGGAAAGTTTTTTTTATAGTTTGCGATTGCGTGTTTGTCTATCTCTGAAAAATAGTGCTCTGTAAATTGGTAGCCTGCTCGTTGAAAGCCGAGCGAGAAGCCTCCAATTCCGCTGAATAGGTCTATGAGTTTCATTATTCTTTATACTTTTCGTTAATAACATCTAAGTGCTGATATATCATCTCTGTTAAGTCGTTAGAATACGACTCGAAAGCATCAATGAGCACTTTGTCGTCCTTCATTGTTTTTTTGAACTGCTTAACTGCCTCCCCGCTGTATAGTTTTAACCTGCGAAAAGCGAGTTTAAATTCTCTGCTGAATTTTGTATCGTCAATTCCGTACATAAGTTCGTTGAGGCTATCGGCATACGATAGAGCAAGGATAGCGTAATGGGCTATCTTCTCACGTTTGAGCACGGGCATTACTACTGCTTTATCGTGTTCGGCAATTGCGATATTCATTAGGTTTTGTGCTTCTTGAGGGGTTATATTTAGCCCTCTTGCACGGAGTTCTGTTATAAATCTGTTGTTGTTCATTTTTTCAATGTTTTTGAGTTAGCAATTCCGAAAGTTCTTTGCCTTGTGTAATGAGGTGATTGTAAAAGAATTTCAAAGTATCTTCTTTTTTGAACCTTCTTAATTTTCCGTCAGGGTCATTGGTGCTGTTTTGAAAATGCTCTATCAATGCCCTAATAGCACTATATTCCTGCTTATCCTTTGCCTTATTTTGCTCTTGTCGAAGTCGCTTCTCGGTTTCCGCTCGCATTAGTTGCTTGTCCTTTTCGGTAAGTGTAGCGAAGTAAGGTTGTAATATACCTCGCTGATAGAGTGTATCGTATACGGGTACAGACAACATAGGCAATTCTTTTGTTTCCTTGTACTCCTCAAAATGCTCATTGAGCCAACGTAGCACGTTTTTTTCTTTTTCCTCTTCTGTCATCGTGTTTTGATTTTCTGGTAATTGTGAAATGTTAATGTTATGCGCTCGCTGAGTGTCTTGCAGCCATTGGCGATATTTTCCTAAAACCGTACAGACGTAAGATACGTCAAAGAATTGAAAATGCTCTGTCGCATCGCCAAATTCTCCACTTCTATCCATCTGAAAGGCTTTGTATATCTCTTGAAAAGAAAGTCCTGAAAAACGGCTAAAAACAGCATTCCATATTTCCTGCTTTTGCAAAGGGTCGATTTCTCCTTTAAGTCCTACAAGAGTAGCAATGCGAGTAAATATCATTCCGAATGTTGGGGCTATTACTTCGCGGTTAAGGTCTCTAAGTCGTGGATATTGATGGAATGTTTTAGCTATCGCCAAAGGTGTGAGCTCCCCAGCCTTGCATATTATTTCTAATGTTATCGGCTGTTTGGCGACCGGCATAATACTGCTGTTTATCGCTTGTAGATTGCTGCTGTTGTCTGTTTGTAATGATCTTTCCATTTTCGTCTAAGAATATTTGATTGTTAGCGATTGGTTGAGGGGATTGTGTGTTATGTAGCCAATCAGCTTCAAAACCTTTCCATTGTTTTTGAACTATGATACTCAATACCGCGTTTATATCCTGATTTGTTAGCCGTACCTGATTGATGAAGTTATTAAACGCTCGTTCGGTATTAACAGCTTTCTTTGCCTTGCGTATTTTTAACCACTCATCTACAAGTTCTGGGGCAAAACCTTCCGCAAGCATTGCCTTTCTGAAATTGAAAGGAGGGGGGGCGGGCGCAACTTGGGGGGAGGTTTCTTTTTTAGCGTTTAAAGGCTGTTCTTTTTTTTCTCCCTCGCCAAATTCCACACACACGCTTTTCTGTTTCTCTTTTTCTAAAAGAGAAAAATCATTTACATTTACATTATCATTTACATTAAGGGGGCTTTTGCTTTTTTTGCTTTTTTCAAAAACCAATTGCTTTTTTTGCTTTTCTTTGCTTTCTTCTAATTCATTGGTTTTCAACGGTCTACCTCCTTTCGCTCCTGCCTCTTTTCTCTTTTCTTTAATTGATATATACTTTTGCGTATCCCTATCAATCGTTTGCTTTACAAATCCGAATGCTACTTTTGCAAGTGGTTTTAGTTCAATCAAGTTACCATATATGGCATATTCCGTAATAGCCTGATAAACTTCCAACTGAACCTCACTTGGCAAATCCCGAATAACATTCAACCAATCTTTGTAAAAAACAAATGTTTCTCTTTCCATAGTGTAGGTATTAAAAACTCCCCTTGCCCTTAACTTGCTCTCTGGACAATGGCACGCCAAATAATAACGCTCGCCAAAGACAAGGGGAGACAAATGAATGATGTATTGTTAGAATAGGGTCGTTTGATTAAGGTCGTCAATCATTCGCTGTAAATTCTTCTGCATTTGATGAAAGTATGAGGGTTTTAATTCTATCCCTATAAAGTTGCGTTTTAGCTTCAAACTCTCGTGTCCTTCACTTCCTATGCCTCCAAATGGACTTAATACTGTTTCGCCCTCGTTGCTCCATAAATGCAAGCAACGCCTGATCGTTTCGAGTTGTAATGGGCAAATATGCTTCTCATCTTTCTCATCACGAGCAGATGTGTATTGCAAGGTGTCGGAGTAGTTTATATCATACCACACTGGCTCTGCATACTTTTGCCATAAACTTACGGGGAGGTAATTCTCTTGTTTCTCATCAGTATCTTGGTGTGTAATAGGTACAAGATTATCACCTGCATTGCGAAACACTAAGATATAATCAGGAATACCCGTGCGAGACATACTACTGTCTTTTTTGATCGTTTTATGAAGCAATCCGATAGACTTGGTACGGGCCATCTCTACTACTGGGCTCTTCCAAATTGTTATTCTATCGTGGTAAATAAAACCCTCTTTTTGGAAGGACTGAATGATCATTCCTGAAAAGTCCTTAAGACCGATATACCCATCTTTGCCTTTCATTGCAGGTAAGTCCATACAATGCACTGCTACCAATCGTCCACTTTTAATTACCCTTGCTAATTCTTTCACGAGAAACTGAAAATGTACAAAAAACTCTTCATAATCTTGGCAGTTACCCATATCACGAATATCATCTGAATAGACATATAACTCGGCAAATGGGGGGCTAAATATTGAAAAATCTATACTATCAGTAGGGAGTTTAGCCACCTCCTCTACGCAATCGCCGTGTATGGCTCTGAATGTAGGTGTTTGCATATTTCTTGGTTTTTTATCATTAATTGTTGCATTTGTTTGAATTGTATTTCCTTTTCTTTTATGGTACTCATAACGTTCTGCATAGTGTCAGTAGTTATGATATTCACCGTTACATCTCCTTTCTTTCCGAAACGATGTGATCGTCTTACCGCTTGGTAAAACCCTTCAAAAGAGAAATCAGGGCTCATAAAGGTTTGATGTAGACAGTGCTGAAAATTTAGCCCGTACTTTGCTATCTGAGGTTTTGTTACTAATACTCTGTATTTGCCGTCTACAAAGTCTAATAGCTTTTGCGCCTTTTCCTCTGGCTCATCTTTTCCTGATACTTCTACCGCTCCACGAATACCAGCCGTAACCTCCTTGCTTTCATCATTGAGTTTTACCCACACAATATGAGGATCATCATCAGCATTAGCAATCTCAATAGCCTTAGCAATACGTTCTTTCTTAGTACGCCTTAACTCCTTATTAAAGTCAGTAGCCGATACTGCCATATCAGGGAATAACAAACCATTACTAAAATTGTTTTGTGTAATAATTTGATGCTCTTTGTAAATCACCTCTGATAAATCATACCCTTGCATTGGGTAACCTATATCAGCAGGGTTGGTAAGCATTATCGCCCAACTCGATACGAACTGGTAGAACTTCTCTACTGCGTGTCCTTTCAATCTCCATTTGCTTGTGTGGTCTTGGTCGTTAATAAAGTAAGTAGCGAGCATTCCTAACCTGCTTTGATAGCCTAAAAACTCCGAGTGATTAGCTAACTCCATAGGATCATTTGGCGATGGGGTAGCTGTAAAAGCAAACTTATAAGGGGTATTGTGAAAATACTCAAAAAGTTGCTTTTTGATTTGCCCCTCAAAGTTTTTCATTATCGAACTTTCGTCGACGATCAGCCCCGCATACTCTTGTGGGTTGATGTTGTGCAAATTCTCAAAATTGGTGATCGTTACCTTGTCGAGGTCAAACCCGAACTTTTCCGCTTCTCTTTTGGTTTGTGCAACCACTACCAATGGGGCAATGATTAACACGGGTTTATTAGCGTACCTTACGATTTGGGTAGCTGTTTCAAGTTCCATTACCGTCTTCCCAAGTCCGCAATCAGCAAATACAGCGTGTTTGCCTTTCATAACGTTTTGGGCAACAATATGCTGCTGAAAGGGGAATAGTTTAGGGTTCATCGGTAGTGGAGTAAATCCCTTATGCTCCTTTGCCCGTTGCTTTTGTTGCAAAAATTTCTGATACTCATTCATTTTGATTTGAAATTAGAGATTTGAATTAGATTGCCGCGCGCTCAATCTCCTTTCAAATCGGTTATTAATTGCTTGCAGGTGCTACCTGCTTAGCCCCCGCTCACGGCTCGAACGTGAGTGCTTGCCTATCGGGGTACACAATGGATAAAACTACAATTCTTTTTTACTTTTATCTATATACTCCTTGCAAAACTGGTGGTCTATTACCGCCTCTACATTTAGCGTTTTTGCCGATAGCAAGGTCATCGTATAAGGAGGTAATTCTTTATCCTCATCAGCCACACGCATATAAGTTTCATAAAACGCCTCGCTTAGTACTTTTGCTTCTTCTGCATTAGGTGCTTTCACTAAAAAGCGCATCGGGTAAGATTCTTTATTTACCATTATTTCTACCTCTATCTGATAGAACTTATTTTGCTCCTCATCGCTGTTTTTCTTTGCCAACGATACAAGGGTAAAATACTGCTGCTCTTTGAGCGATTTTATTTCATAAAAACCAATGTAATTTTGTTCTATGTAGTCAGTGATAATTATCCTCGCTACATCTATACTGTTAGCATATAGGTAGAATGTTCTTTTTTTTCGAGAGATTTCCACTACTGCTATCCATATAGTACTGTTGCCTAATACAGCATCTGCAGTGCGTTGTATTGAACTTAATCGTACATCTTCAATGTTAAGTTCCCCACTCTTGATAAAGAAGTCTATGGTTTGAAAATTCTCATCATTTAATTCTTCGCCCTTAGAAATAATGAGTTCTTTTCGTTCTATGGTTACGATTTCCCCAGTATCCTCGTCTGTAAAATCTTCTTCCCAACGTCTGTAAAGACTATTCATTAGATACTTAGATTCTTTGTCCTTCAATAATGAGAGGTCGTTGGAAGTCATTATTTTCTCATTAAATCGGCTTACTGTTTCTTTTTTCATTTTAATAATATTTTCCTTGTAAATTGTTCACTTGCTTTTCTATCTCATTGAGATACGCCAAATCGTCAGGCGTTGGCAGGTATATACCCGCTTCCTTGCTGGCGTAATCTCTGAAATTATCAATGGCAGTTGTCATTTCCTTTGTATTCAAACTCGCTGTACTTCGCCACGCATCTCGTATCTCACCCGTTTTGCGGTTAGCGTATTCAGTTCTGAATATCTGAGGGTTTACAATCTTCTTAAACATCTCTTGTTTCACGTATTCGGGAGTTTCTCCATATTCTAATGCGAACCACGCAAAGAGTAGGTGAATGTAATTGTTCTGTGAGTAGGTTCGTTTAGGCTTCTTTTCAGTGATTTCAAAGGTCTTTTTCTTTTCGATAAGAAACGCTAAACGCTCCTTTGCCCTCTGTATATCAAACTCATTGCTTGCATTGAAAATCATACTTTATTATATTTGAAAGCAAGGCAGGAATCGAACCTGCTACTATCCCGATTGATACTTGCTTTTTTGTTGTGTTAATTACCTAATATTAACAGTATTCAACATTCAGTTTCTTTGATTTTTCATACACAACCTCACCATTTTCAGTTACTTTACTAACGTGAAATGCGTGTCCTTGTACACTGTCAGGTTCTTCATCTTCAAGAAATTCAAATGGACTTTCTTCAAAAATATCCATTGCTTCTTCATAGCTTTCTGCTTCTACAATAGCCGTGTACTCACTTTCTTCCACGTGGCTAAATTTAATTACATACTTGTTCATTTTTTATTTATTTTAAATTGTTTTCTAAAAAGGCGTTCTGTCATCTTGTGCGGGTGCTTGTCCGTAACCTTGGGGAGGTTGCTGGTAACCTTGGGGGGCTTGCTGGTATTGAGGTTGCGCTACATTCGTGGTTTGAATGAGTTCTATTTTCCAACCTAATACCGTATTGAAGTACTTAACCTCACCTTGCGGACTTGTCCATTCTCGACCTTGCAAATTAAAATGTATCTTAACCATTTGCCCTACTTGTAGGTTGTCCAACAAAGCGCAATTGCCTTGCGTAAATTGAATAATAATATCTTGTGGATATTGCCCATCGGTGGAGATAACCAAATCACGCTTTTGAAAACCGTTTTGTCCTACTGTTTCAGTAGCGAATATTGTTTTAATTCGTCCTTGTATTTCCAT

Protein sequences of DBSCAN-SWA_1

>LR134489|254523:261908|255512_255914_-|VEI52649.1|DBSCAN-SWA
MNNNRFITELRARGLNITPQEAQNLMNIAIAEHDKAVVMPVLKREKIAHYAILALSYADSLNELMYGIDDTKFSREFKLAFRRLKLYSGEAVKQFKKTMKDDKVLIDAFESYSNDLTEMIYQHLDVINEKYKE
>LR134489|254523:261908|261524_261908_-|VEI52657.1|DBSCAN-SWA
MEIQGRIKTIFATETVGQNGFQKRDLVISTDGQYPQDIIIQFTQGNCALLDNLQVGQMVKIHFNLQGREWTSPQGEVKYFNTVLGWKIELIQTTNVAQPQYQQAPQGYQQPPQGYGQAPAQDDRTPF
>LR134489|254523:261908|257674_258550_-|VEI52652.1|DBSCAN-SWA
MQTPTFRAIHGDCVEEVAKLPTDSIDFSIFSPPFAELYVYSDDIRDMGNCQDYEEFFVHFQFLVKELARVIKSGRLVAVHCMDLPAMKGKDGYIGLKDFSGMIIQSFQKEGFIYHDRITIWKSPVVEMARTKSIGLLHKTIKKDSSMSRTGIPDYILVFRNAGDNLVPITHQDTDEKQENYLPVSLWQKYAEPVWYDINYSDTLQYTSARDEKDEKHICPLQLETIRRCLHLWSNEGETVLSPFGGIGSEGHESLKLKRNFIGIELKPSYFHQMQKNLQRMIDDLNQTTLF
>LR134489|254523:261908|260734_261178_-|VEI52655.1|DBSCAN-SWA
MIFNASNEFDIQRAKERLAFLIEKKKTFEITEKKPKRTYSQNNYIHLLFAWFALEYGETPEYVKQEMFKKIVNPQIFRTEYANRKTGEIRDAWRSTASLNTKEMTTAIDNFRDYASKEAGIYLPTPDDLAYLNEIEKQVNNLQGKYY
>LR134489|254523:261908|254523_255513_-|VEI52648.1|DBSCAN-SWA
MKLIDLFSGIGGFSLGFQRAGYQFTEHYFSEIDKHAIANYKKNFPNAKYIGDITSVHGGYFTGIDIITFGSPCQNFSTAGRREGLKGAKSSLIEYAIALIACVKPSIFIWENVKGAFSSNAGADFWAIIKAFANIGGYRLEWQLLNTSWLLPQNRERIYLIGHLAGRSQPGVFPIGENDFVPTTKTQSQSQALISTTIKANGNMNADDTYIIPKTASTLTGGGHSGGLHSDMTVIRQLPRGKNKGADLTICPTISSNAFQENNLLCGIRRLTEIECERLQGFPDNFTQYGDYNGIIKPIAKTQRYKLIGNAVTVDIVELIAKRLKITTQ
>LR134489|254523:261908|255918_256611_-|VEI52650.1|DBSCAN-SWA
MIFTRIATLVGLKGEIDPLQKQEIWNAVFSRFSGLSFQEIYKAFQMDRSGEFGDATEHFQFFDVSYVCTVLGKYRQWLQDTQRAHNINISQLPENQNTMTEEEKEKNVLRWLNEHFEEYKETKELPMLSVPVYDTLYQRGILQPYFATLTEKDKQLMRAETEKRLRQEQNKAKDKQEYSAIRALIEHFQNSTNDPDGKLRRFKKEDTLKFFYNHLITQGKELSELLTQKH
>LR134489|254523:261908|256675_257566_-|VEI52651.1|DBSCAN-SWA
MERETFVFYKDWLNVIRDLPSEVQLEVYQAITEYAIYGNLIELKPLAKVAFGFVKQTIDRDTQKYISIKEKRKEAGAKGGRPLKTNELEESKEKQKKQLVFEKSKKSKSPLNVNDNVNVNDFSLLEKEKQKSVCVEFGEGEKKEQPLNAKKETSPQVAPAPPPFNFRKAMLAEGFAPELVDEWLKIRKAKKAVNTERAFNNFINQVRLTNQDINAVLSIIVQKQWKGFEADWLHNTQSPQPIANNQIFLDENGKIITNRQQQQSTSDKQQYYAGRQTADNIRNNMQGWGAHTFGDS
>LR134489|254523:261908|259956_260733_-|VEI52654.1|DBSCAN-SWA
MKKETVSRFNEKIMTSNDLSLLKDKESKYLMNSLYRRWEEDFTDEDTGEIVTIERKELIISKGEELNDENFQTIDFFIKSGELNIEDVRLSSIQRTADAVLGNSTIWIAVVEISRKKRTFYLYANSIDVARIIITDYIEQNYIGFYEIKSLKEQQYFTLVSLAKKNSDEEQNKFYQIEVEIMVNKESYPMRFLVKAPNAEEAKVLSEAFYETYMRVADEDKELPPYTMTLLSAKTLNVEAVIDHQFCKEYIDKSKKEL
>LR134489|254523:261908|258507_259806_-|VEI52653.1|DBSCAN-SWA
MNEYQKFLQQKQRAKEHKGFTPLPMNPKLFPFQQHIVAQNVMKGKHAVFADCGLGKTVMELETATQIVRYANKPVLIIAPLVVVAQTKREAEKFGFDLDKVTITNFENLHNINPQEYAGLIVDESSIMKNFEGQIKKQLFEYFHNTPYKFAFTATPSPNDPMELANHSEFLGYQSRLGMLATYFINDQDHTSKWRLKGHAVEKFYQFVSSWAIMLTNPADIGYPMQGYDLSEVIYKEHQIITQNNFSNGLLFPDMAVSATDFNKELRRTKKERIAKAIEIANADDDPHIVWVKLNDESKEVTAGIRGAVEVSGKDEPEEKAQKLLDFVDGKYRVLVTKPQIAKYGLNFQHCLHQTFMSPDFSFEGFYQAVRRSHRFGKKGDVTVNIITTDTMQNVMSTIKEKEIQFKQMQQLMIKNQEICKHLHSEPYTAIA
>LR134489|254523:261908|261266_261500_-|VEI52656.1|DBSCAN-SWA
MNKYVIKFSHVEESEYTAIVEAESYEEAMDIFEESPFEFLEDEEPDSVQGHAFHVSKVTENGEVVYEKSKKLNVEYC

Homologous phage analysis in the prophage region

Protein_ID	Protein_Def	Hit_ID	Hit_Def	E-value	Identity
VEI52648.1|254523_255513_-	Modification methylase HaeIII	A0A1B1IVS4	uncultured_Mediterranean_phage	2.6e-11	41.1
VEI52649.1|255512_255914_-	Uncharacterised protein	NA	NA	NA	NA
VEI52650.1|255918_256611_-	Uncharacterised protein	NA	NA	NA	NA
VEI52651.1|256675_257566_-	Uncharacterised protein	F5A3F1	Riemerella_phage	1.4e-16	35.2
VEI52652.1|257674_258550_-	putative methyltransferase	A0A218M7A5	Flavobacterium_phage	4.3e-106	62.3
VEI52653.1|258507_259806_-	SNF2 family N-terminal domain	A0A218M7A5	Flavobacterium_phage	4.3e-94	45.0
VEI52654.1|259956_260733_-	Uncharacterised protein	NA	NA	NA	NA
VEI52655.1|260734_261178_-	Uncharacterised protein	F5A3F5	Riemerella_phage	2.5e-38	51.7
VEI52656.1|261266_261500_-	Uncharacterised protein	NA	NA	NA	NA
VEI52657.1|261524_261908_-	Domain of uncharacterised function (DUF3127)	S0A2Y4	Cellulophaga_phage	1.2e-25	53.8

Sequences of DBSCAN-SWA_2

Nucleotide sequences of DBSCAN-SWA_2

>LR134489|1264014:1292758|DBSCAN-SWA
TATGGTTACAAAAACACTCGATGGGTGTAGCTACTCCGAACTATGGGTGTCCCCTGCCAACTGGCAAAAAGCTACTAAAAAAGACTTGGATAAAGATTGGTACGTGCAATGCGTTTTCTTTGACCCTCGTTTTGAAAAAAAATACCCCAAAGGCTTCCCTTATAGAAAAAAGGCTAACAGACCTAATACTATAGAGGAACGAAAGGCGATGATTTCTTTTCTTCTTAAAAACATTCCTCATCAACTTAATAATGGTTTTAACCCTATATTAAAAAAGTACGTACAAGTTCACAAGGAGGGACTTTATCCTGAATTGCACTTTATTGAGGCTTTTAGGCGTGCATTGGAAATAAAAGTAGGTACTAAAAAGCATCTATACGAAATACAATGCGCTATTAATAGACTTGAAAAGGCGTGTGAAGCCCTCGATTTGCAGACGGTAAAAATAAAGGACTTGCGCAGGGTAGATTTGAAGCGAATGTTAGACTGGTTGCGACTATCCGACAAATATTACAATAGGTTCGTGATATACTTCTCCAGCTTATACCGTGAGTTGATAGAATATGAATGTTGCGAGGCTAATATTACCAGGGATATATACCCTAAAAAGGTGATTAAAGAAGTCCGCACTATACTTACTGCTGACGAACTCATAAAAGTAAAAAACCACGTGCGATTTATCAATCCTAATTTTTATAGGTATATGATGATATTCCTATATTCAGGGGCGCGTAATACCGAACTTTTTAGATTACAACACAAAGATGTAGATTTAGAAAAGCAGGAGTTTGTAATACTCCTTGAAAAGGGCGGGCAGTACAAACGATGTACAAAGGTGATATTATCCCCTGCATTAGAGTTTTGGAAAGAGATATGCAGTAAGTGTAAAAGTGATAACGACTACCTTTTTGCACTTGATTTTGTTCCTAATAAGAAAATGGGGCATACCGAGATTGTTACACGCTTTTGGAAGCGACACGTAAAGGATAAATTAGGTATTGAAGCTGATTTTTACGCCCTCAAACACTATATGCTTGATAATTTGGACAGCGATACGGCTATGCTTTTAGCTTCGCACACTAACCAAAATACAACGGCTATTTACCAAGTAAATAAAGCTAAAAAGGAGCGTGAGAGATTGAAACAATTAGAAATACAGATATAGAAAAAGCCCCTTAATTGGGGCTTTTTTAGTTTATGGTTAATTTTGGTTTTAAGAATAGATTTTGCTTTAATACATATCTCTGGATAACATCTTCAGGAAGATCAAAAGCATTTGCTAAATCATCATAAGTATACTCAAGTTCTTTTAAGTGTAATTTTACAGCCATATCAAACGTTATAGCCTCATCTATACTCACACTACCTTTTTCATTTTTCTTCTCTCCTACTCTGCTCAGTTCAATGTTGAAATATTTATATTTATTTTGATTAATAACCCCTAATGAGTATGCGCGCCTGATAATTGAAGCCTTTGAGGTTAGCCAATAGCTTTTTAATGCGCTTAGACTTGAAAGTTTGAGCCCCTCTAATGAGTTCCTTATCGCTCTTTCAGGCATTAGAAATTCAGAAGCAAAATTGTTAGCTTCTTGCTCTTTGTCTCTAATGTTTGGCACTGGGAAAGCTGTGTGCATTATCAAATGTCCTAATTCGTGGGCTAATGTAAAGCGTTTCCTATCATTAGGAAGTCTTTTATTCAACACTATTACTGGAAATCCTTTTTTAGTAAATAACGATATACCATCAAACTTTTCATTAGCATTTAGTTCATAAATGATAATTCCTTTATCCTCTATAATTCTAAAAATGTCCTCAATAGGTTCATTGTCGAATATTCTAAAATCCTTGCGTGTGAATTGAGCAATCTCTTCTGGAGTATATCCTTCTTCAATATCTAAGGTTTTAAGTGAGAAATCGGGATAATCAATAGAATTTGACATTTCGTCAATAATATAACCGATGAATGTACAAGATGTTTCAAAGTCTTGAATAATTGATTTTGGAATGGTGTTTTTTTTACGATAGTTAGCTGTTTCTAATTCTACTGATATTTTGCGTTCAAAAAAACCCTTTGGGAATTGCAACACGTTAAATATCTTTTCCAAAATCTCATCGGATAACCCACCAAGTCCTTTTTCAAACTTGGATAAATTAGATTGTGAAAGCCCTTGCACCGCTTTTGACAATTTTGTTTGCGTCAGCCCTCTGTATTCCCTTGCAAGGGTAAGCTGATTGTGATTAACTTTCATAGATGTTTTTTATATAATTACCATTCGTTTTTTTGTAAAAAAAGGTAGTAGGATTTGTAGGTTTAACAATAATACTAAATAGCCTTTTTACGTTTAGATTGCTCTTTAACTTTAGGTAGCAATCTTCCAGTTTTATTAGGCGTTAATATAGTAGGAGCATTTAACGATGTTAGTTCTTCTTTACGAAGCCCCCATTTTATTTTTCCCTCGTCTATATAAACAAAATGAGGATTTGTCAAATCACCTGATTTGCTTTTCTCCCAACCGAAAAATACGATAGGATTTTCGTAATCTGTAGGGTCAAAAAGTTGTGTCTGCATTTGATTTATAATTGACTGATTGGCATCTGTCCTTATATTCATAGGTATACCTTTCGTGTTTAACTTTTTAAACAAAAAAGAATACCCATCGGACGATATTACAAATCGTTTGTGTTTCCAAAACTTCCATTTTTCAGGAAAAACTTTTTGGAGTTCACCTAATAAACAAGTTTGAAAAACGCTTGCTTCAAAGCCTCTACTTCTTGATTGTGGAGGAAAAAGCTTCATAGTTGAACCGAACTTTTCTTTAGCGTTTTCAAAAGCATTAAAGAACTTAATAAGCCCTTTTTCAGTACATTCAATAATGAATGCATCTTTTTTTGCGAGCTTTCGCTTGCAGGATTGGACAAAAGTTTGTACCTTTGTCGCGTCTAAAAAATTATTTTTCATTTTTATATAAAAATTAAGACAAATCCCACTACCTAAAATATATCTGCTGCAACAGATATATTTTTTACGGTGCAAATATATAAAAAATAAATGAAATTGTATATAATTTTTTGATTTTTTTGTATTTTATTTTTGGGTGCACTTTTAATTTATTGATAATAAAAGCATTAAACTCTTCTTATCACTATCGTTTTTTCTTCAATGATTATTGATTTTAAATATATTCCTACTTTTGCCCAAAACAAAACTAATATACCAATGAAAAGAATAGTATTATTACTGATTGTCCTGCTCGCTGTGGGGTGCTCGAAAAGTGAGGATAAACAAGAAGATTTTAGCCAATATATACTGAATGTGCCTGAGTGGTTAGTCGGAGAATATAAATATTCAACTGGATTTACAACTCACGACTTCGGTTTTTCAAAAAATGATTATCTTCTTTCAAAAAATGGTAAAAGTTTTTTTGAATCTTTTTCGAGTCGTTTAGTCAAAGAAGGAGAATATTCCTATATGGATTATAAAGGATATTACTTTATAAGTTATGCAACATATACAAAAAAGTATTTCAAATATTCTTTTGAGATGAAAGAAAAAAAATGCTTTTTTGAATTTAATGGCACAACTTACAACCTTTGTAATGAAGAAAATAAAAATGATAGAGATATTAGGCGTATATATGAAGAAGTAACGGAGTATGGAGCTACAATTAAAAAAATATATGATGATGAGTATACTTATAAAAAAGTAAAATAAAAAAAGCCCCAATTAAGGGGCTTTTTTTTATGTACGCATTTTTATCCCTTTTGTTTCAATATTAGAAAGTATTGATTTCATTCCTGCAAGGTCTGTTTCCATTTTGTTTAACTTGTAAGTATTAGCTTCTATCCCCGCAAGGTGTCTTAGCTGTTGAGCGGCATTGTTTTGCATAGATTGGTGCATTTCCCTAATGAAGTTAGCAGTCTGTAAGGCAGCATTCTTTATTTCGGCACTTAACTGGGTTTGTAACCTAAATTGTCCATTCAATTCATCTGCGCTGTCTTGGCTCATTCGTGCAAAACCTTTTTCTACTGCTTGGCGTTTCTCATTCAGAAAGTCAAATCCCATACTACTACTCATATTGTTCCAATCTTTTAGAAACTGTTGCATTTCACCTATTTTCCCTTTCATAGTATTGCCAAATTCACCTACAATTTGAGATGTTTGTTTTGTAAAACCTCGACTATTGTCTTTGTTGTCCTCTGCTGCTTTCTTTATTTTATTTTGTAGATCTTTAAAATAATCTGCAACAAAAATCTCGTATACTAACTGTTTACCTAATTTACCTATTACATTCCCTACTGTTTTAGCAAAACTTTCAAAAGCATCTTCTCCTTTTTGAAGTGAGTTATAAACGCTATCAACAATTGAAACACCTAACTCTCCGAAAGTATTTTTCATATACTCTTCAAATTTTTTCATAGCCTCTTGTGCATTTTTGTGAGCATTGACCAATTCTTGCAAGGTTTGCCTCCCCTCGTCTCTGAATTCTCGTTCTTTTAAAATACTTTCAGCTAATTCAGCGTTAAACTCTCCTGATGATTTTATCAATTCAGGATACAAATTTAGTATAGGGGTGTAATTATCTTTACCTTTTCCCCATCCAAATAATCCCGTTTTTTCGTGTCCAGTTTTTACATTGATATTACGAAGTTTAGTACGATCATTTCCATTATAGTATGGTAATATTTTACCATTCATCATAGTATACTCTTGTTTAATAGAGTCACTAGTTTTTTTAATTTGTTGTCGATATGCTTCCAAATATTCTAAAGCATTCGCTATTTCCTTTACACCAAAAACAGAAGTATTTTTTTTCATTAACATCTGCTCTTGAAATAGAAGTTGATTATATGTTATTTGTTGATTGATTTTTTCTTGCGTAATTCTTGATAATGATTGTTGATGTCTTTCGTTTGCTCTTTGTGCCGCTCCAAACATTGCTGTACCGATACCTATTACAGCCCCTATAATTGCTCCCCAAGCATTTTTAGAAGCACCTCCTCCCATTTGTGCACCAGCTATAGCCTTATCAATCACATTGGCTACTTCATTAATTGTAGTTCCTATAAGTTTTAAACTATCATTACCCGTACTTTGTCCCAATCGCTCAAATTCGTCCCCTAATTGAGAGAATTGCCCAGTAATTGATTGCGCTGACGACAACATACCATTGAACGCTTCCTGCCATTCAGCGGTGTTGGGCTTGGCTTTGAATAGATTTTTGATATTTGTACCAAGTTTGCCGAATACAGTATCGCTCTTATCGGCGGTGTCTCTTGCTTGTTCGAGTTGCTGTTTGAGATTGGTTATAAACTCTACATTGGCGTTATCGTCCATATTGAGCACCTTTGCTAACTCGTCAATTTCAGCTTCTGCCTCTGCTATGGTTTGGCGTATTTCCTTGACAGTCTTTTTGCGTAGGTTGTCGAACAATTTAGCAATCGCTGTACCCTCTTTTTTGTAGAGTATATCTAACTTTTTGAGTTCTCTTGCTTTTTCGTCTTGTGCTTTTTTGACTTGTGGAGCATCAGCCCCTAATTTGGCTTGTAAGGCGGCTATATCGGCATTGTATTTCTCCTCAATAGCTTTGCGTTGGTCGGTATAGGTTTGATACTTTTCTAACAAGTCCTTATACACTTGTTCCTGCTGCATACGTTGGTACTCAGCATTATCAGCTAAAAGCACCTTTTCATTTTCAGCAAGGCGGGCTTTTTCAGCATTGATGGCTTCGGTATTGGTGTCAAAATCTTGTCCTTTTTTCCATTTGCCTTGTGCTTCGGCTTTTTGTTTTTCGGTTTCGATGAATGCGGCTAACTGGTCTTCTGAACGCCTTCTGATTTCCTCTTCTTGCTTGTCGTATTCCAATTGTATGATAGCAAGGCGTTTTTCCGCCCCGTCTTGCATTATCTTAATGCGGGATTCTTCACGTGCGAAAAGGTCGTCTTGGATTTGGCGGTTGTGGTCTCTTTGGGCTTTTTCGGTGTCAAACTCTGGGAGGGAGTTTTTGATGGTTTTAGCGGTTTTTGCGCCTGATTTTTTATATCCGAATTTGCTCTCAAGGATTTTGTCTACATCTTCTTTGGCTTTTACTTTTTGCTCTATATCGGCAAAATCTTTGTCGTCTTTAACATTTTTACTTTGAAGTGCTTTTATTTCTTTTTCGTATTTAGCACTCTCGGCAAGTAGTTTGTTTTTATCATAGAGTTGCTTATTCTCCTGTTGTTTGAGTTTGATTTGTCGTTCGGTAGCTTCATTGAACATTCCGAGTTCATTCCAGTCGTATTTTAAATAAGGGTTGTTGCTGTCTATTTTTGCAATAGAATGATTAGCGATCGATTCTTTCGCTTGTTTTTTCCTTAGATTATAGGCTTCTATGATTAATTTTTTTTCTGCTTGTATTTGCTCAAGGCTTTTGCCTGAAAGTGCGCTTTCATAGTTACTAACATCATTTTTAACTACTTCCCTTTTTTGTTTTTGCTTTAGAAGTTCATCTTGTTCAATACTTCTTCTAATGCTTGCTATATCCATTCTAAGAGCGGTACGGCGGTCGCTGCTGGCAGTTTGCTTAATCTCTTCTTCTAACTTCTTAATTTGTTCCTCTTTGGATTTAATTAAGTCGTTCGTTTTCTTAACGGCATCACGAGACATTTTTTCATTCATAGTCTCATAACGTCCATTAATATCTTTTAGAACCTGAGACATTTCACGTAACATCTGATTTAGCGTGCTATATTTATTCAAAACTCCATCTGTACTATTCCTAAGTGCTAAAAAAGCCTTATTTCTTTCGTTCCAAGATTTAGTTTCATCTTGAATAGTAGATATTAGTCCGCTAATTCTGTTTTTTTCGTCATCAATAATGTTGGCTTGTTCCTTACGTAATTGGTTGTGTCTTTCAGTTGCTTCGGCATTAGCATCGGTACTATCTTTCAATGACCATAATGCAACAGCCAACCCTACCAATGCAGCTGCTGCAAGAGCATAAGGATTAGCAAGAATTGTAAGATTAAGGAGTTTTTGCGCTTTTTCAACAAGCACCAACCACGTATAATGAGCCATTTCGGCAACAGTCATCCCTGCTGTACGCGCTGCCACTACTTGCTGCACAGCGGCTGTAGCGATGAGTGCGGCTCGATACGTTCCGTAAGAAACAATAAGCCCCGCAATGAGTTTTCCAATAGTCTCATAGTTTTCTACTAAGAAAGAAACGCCTTTTATCGCCCCAGATACAAGCCCCTCGCTTGATTTCCCTATCTCATTAAGCATTTGGTCAAAGTTGTCTTTGAGGTTGGATATTTGCCCGCCTAACGACTTGCTTTGCTCTGCCATTAGGTTATAGAATAGACCGCCCTCATTAGTCATATTCTTGATAACGGCTTGTATTTCGGTAAATCCTATTTTGCCCGCGCTAACCATATCTTTGATTTCGGTTTCGCTCTTACCTACTACCTTACTCAATTCAGCAATGATAGGAATACCTGCATTCATAAACTGGTATAGGTCATTGGTCATTAGCTTTCCTTGCGCTTTGACTTGTCCATATACGTGAATGAGTTGCCCCATAGGTACTCCTAATCCTGAAGCTACATCGCCCATACGGCGAAGTGTTTCGGTTACTTCTTCAGCGGGTACTTGAAAGGCTAATAGCTTTTTTGCTCCCTCAGATACTTCTTCCAATCCGAAAGGTGTTTTTGCAGCAAGGTCTGTCATTTGTGCCATTAGCGCATTAGCCTTTTCCTTACTTTTGAGCATAGTGCCAAAAGATATTTCGAGTTGCTGAAATTGTGATCGTACGGCTACCATTTGACTAATGAATGATTGCGCCCCTTGTAGTGTGAAATAGGCGGTTGCACCTTTGAGAAGGGTTTGCCATACATTAGCCTGCTTTTTGCCCTCTTCAACGGCTTTATTTGTCATTTGCTCGAATTGCTTTTTGATAGCCTCGACATCTTTTTGTATCTGTGATTGGTCGGCTCTTACTTGGAATAATAGAGCTCCGTCTTGTGGTTGCATAGTTAAATATTTGTGGATTTTATTTTTGATAGGAAATCACCATAATTGGTACGTTTTTCTGATTTCTGAGGTGCTTTTTTTGTGTCTTTACCCTTATCATAATCATAAGAGGGGATAACGGCACTATAAAGCATTACATTGGCATAACTCATTTTTTTCAGTACATAGTCAAAAGGTAGTCTGTACTGTTTAGCGAATGAGCCTACAAGTCCCCAGATGCTGTCATTTCGGTCTCCACTTCCTTCGTCGGCTTGGTTATCATCATTCCTTTGAGGGAAGTGGTAATGACGAAAAAAGCGCGTATATCCATTTGTCCTAACACTTTAAAGAAAGCTGTTGATACTTCATTAATGGGGGCTTTCATTAGCTTTTTAACGAGGTTTTCGCCTTTGGTTATATTCTTTTTTCTTTTCCAAAACTGCCATTTAGGATAAGTTTCTACTTCGGTAAAATTATCACCTAATACGATTGCTGATATAGCCCACGCTATATTTTCATACTCTTCAGCATTGTGTACGATTGAACCGAATATATTCCCCTCACTAATAGTGTCGGTAGGTATTTTGCTGATGTACTTTGAAGCCCTTACGAGGGTAAAAATAGAGGGCGGAGCGACTTTATACGCTTCGCCCCCAATGGTTACCGTTGTAGGTTCTTCAAGTAGGGTTTGTGCTACTTGTTCTTCCATAGGTTACGCTACTTTTTCTACATTGATAAATCCTTTACCACCATTAAGGATAGTGATTTCCACTTCTATGTTGTAGCCACTATCTTCTGCATAGGTAAGTGTACCACTTATAGAACAGTAAGGAATTTCCAATTTTTCTGCTCCACTGTTTTTAGGGGTGATAGATACGGAAAATTTCTTTGTAGACACAAAGGAATTGATTGTAAGTTTATCCCCAACTTCAGTGATGTCCCAAATTTCAGAAAGTAATGCCTTGTTAAGGTTTTTAACAGTACATTTCACTTTCAAGGTGGGTTCACCTTTCATTTGGTCTATGATTTTACCACCAATGGCTGTCCATTTTAGTTCTTTACCATCTTCTTTTTCAAAAGAAAAACTATCTTCTTTGACAATACCTAACGTTTTGAGTACTGTACCCATTGCCCCCGCTGTTCCAGGTGCACCAAACTTAAATTCTATTTCGCCCCAAGCGGTGGCGTTGTTATCTACGTATGCCATAATCTTTAATTATTAAATGTGTTATACCTAAATTTTACTTTTGCGTTGATGAAAAACTGTTTTATATCCGTGTCCTCAAAGGTTTGTATCATCTGATGAAGTTGTAACTTGTAATTGTGTAGGGCTGTTTTAGACTCCTCAATGATAGGCATTAAAGCCTGTTCAATAGCTTCACAACGTACAAAATTCTTCCTATACTGATTATCGTTATTTTTGACAGCAGGGACAAAGATATTGATGTTAATCACCCCCGTTTGATATTGACCGTCTAACCCAGTAAGGAATGATATTACACAATCCTCTTTTTGTGAGTTCAAAGGGCGTACACCACTACGGTATGTTTGCCCATTGATAAGGAGATTTATCTTATCCTTAAAGTACTTGTATATATCGGTTTCTATTTGTGAGGCTGTTTTTTTCATTGCGATAATGCTTTTAGGAGTTTAGGCACTTCTTTTTCAGCTAATAATTCAGCTGATGAAAGTACATTGTAATTGCGTGCTTCTACATAAGCAGCGTACTTCATTCCTGCCACTACTACCAATACAAAACCTTTTGAATATTGAGATATTACCTTATTGATGAACGTTTCGCCCTCTTTTTGTCCATTACCTCCTGACTTAGTGAGTTTTAAACCTCCTTTTTCAATAGCTTTGCCGTCTTGTAGTACTACATAGCCTATTGATGAACGGAGATTACCCGTTTGGTCTTGATAGCTACCATTTGTCCGTGCTTCGTTGATACACATTTCTCCTACATACTTCAATATACGTATTACTTTTTGGTGATATTTTTCTATTTTCTCACGCAATATACGTTCTATATCGTTGGAATTGAATTGTGGTGTTATCATACGAATATACGGCAATGGAAATAATCTCTTGAAAATCGTATTACTGGCTTTTCGAGGCGAATATTTCCCTCTACATCTACTACTTGCAAGGTAGTACCCGCTTCTATTTTTGGTGTATCTTTGGGAGCATAGACAGTAGCGGTACAATCAAAGATTTGACCGTCTACTTTAGTTATCTTTTGCCCCGCTCCTGCTATTTCATCACGGCATACGCCTATCTCTTGCCACTCGATAGGGTCGCTTGGATAGGTAGGTATACCATCATCGTTGATAGTAGGGTTTTGTGATACTTTCACCTTCAATAGGTACGGGTATATTTTCATTTCCTTGCAGTATTTTAGAATAAGTGGGTAATATCTCTTACAGTGGATTTTTCCTCCAACAAATTCACCCTACCGAGCTGCTTACAAAGCAAATTGTAAAAGGCAGTAATAGCCGATTTGTCGTAAGAAAAAGATAATCCACCTTCAGAAAAGGACACTGGGCGCAATAAGAGCTCAGGAATGAGATTGTAGAAAAACATTTTAGTCTTTCGTTCGTTCTCCTCATTGAACTCATCAGAAAGCCCCAATCCTACTCGTTGCATTTCGGCAATGAGTAGGGTGGTGGGGTATTCGACGTTCCATAGTTTCAGTTTCTCATCTATGTACGCTTGTGCGGTCATCATTAGCTTAATTTGGTTTTCAAAATTAGCTTTCGGCTTACATTGTTAAGTACTGGTGTAGCGAATGCTGTTGCCTTTGTTGAAAGCATTTCAGGGTCTTGCTCTGCCCAAGTACTCACCAAAATAAAGCTATCGGAAACTACCTTAGTAGTAGTTTCGTCTTTACGGCTAAATGTAGGTGTTATGGTGTAATATGTTTCACCGACTTGAGTGTTGTCAGTAAAATGAATGTTACCCAATTCCCAACCGCTGGTAGTGGTTTTAACACCTGACTTAGCTTCTTCACTTACATAGCTTTCCCAAATTATCACTTCAGGAAGTCCGTGTGCTCTTAATGTTTCATTAAGCTGTGCTAAAGTAGGCTCTTGTGCCACACTAAGGGCGTTTTGAGCAAAGGAAGCAGTGAATTTTACAACACTTGTAGATTTTACCATTTGGAAGAATGTAGGTCTATCCATAATAGCATAAGCATAACGGAATCCTTTCTTAACAGCTTCTTCTTGTACTTTTCTAAAGTCAGCAATAGGGTCAAAAGTTGCAGCATTAGCTGGTAAAAACCAATCTTTTGCAGTGTTTTCAGTACCTACTCCAAACTTCACTTTAGCACCTGCCATAAGTGTATATTCTCCTTTTGAAACGGCTTGTTTAGCAAGTAATTCCAAACGAGCGTTTACCCCATTGATACAGAAAATAGGGTCTTCATAAATAGATTTTAGAAGTTCTTTGTAAGCACTTGAGTCTTTACCTCCATAACGATTTGAAATCGCACGGATATTATCCAAACGGATAGTATCGCGCTCAGTCATATCACGGGCTACTTCAATTTTAGGTATTTCCCCTTTTACTTTTTCTACAAAGTCACGACTTTTACGTGGAGATTTTGAGCCAATAGCTACAATTTCAGCAGCAACCTTGTTATCGGTATTTTTCTCAATAGAAGCCCAATCTAATGTTGTATTGAACTTCAATGGGAAATAATTACGATACTGCAAGTCGCCTAACGGATTGTTGTTTACCACGAATTGCAAATCAGCTTCGCGAAATTCAGGCACGATGTTTACAGCATTAATTGTATTTGCCATTTTTTGTTGTTTTTAAAGGTTAATAAAAAGTGATACGAGGGAGTACTTTCTTAACGAATGCTATCCCTGCCTTTTCTTTGTCAGGCAATGCTTCAGTGCGAGCAGTACCCGATAAAACTACAGCTACCATAGGAAAATCGTCAATAGCAATGTCTTCAGCTGTAAGTCCTACGGCTGTAGCAATGTTAGTGTCTGAAAAAGTTTCATTCACTGGCTTGTAAGTCCCGTCAGTATGAGGAACAAGGAGCGTGCCTGCGGGTACTACGCCATCTGTAAAGCGTTTTTTAGCTTCAGTAGCGTTAATGTGTACCCCAGCTGGGAGGGTGGCTAATACTTGGTCAAAAACAACTATTTGCCTACCTGCGGTTTGTTTAGTTATCTGTTTCATTGTTTTTTAAATAATGCTTGTACTTCTGCGGAAGGTTCATTTTCTTTCAATCCACCTCCTATAATAGGTCTTGAGTGTGAAGAAAGCCATGCATTTGCTTGCGTCTGCAAAAATGCTTGTTCATCGGCTTTTAGTTCGCTGACAAAGGCGTTCATTTCTTCATCGTCTTTGAAAGTACGCCCTAAGTGGTGTTTGTAGAATGTTTCCGATACCCCCTGCGTTTTGAGTTGATTAAGGAAACGTTCTTTAGCACTTTGTTGTTGTTTTTCAGCTTGGAATGCTGCAATAGTTTCATTTTGTTTATTGACAACTTCCATAATGCTTTTTGCCCACTCTTGCATTTCATCGGGTTTAGGATCTGTGGGTGGAGTAGGATGTTTTTGAGGATTTGGATTAGATTTAGCCCTCATATCTTCGAGTTCTTTCTCTAATTTCTTGCGAGCCTCTTCAGCTTTGGAAAGGCTTGTGCGCCCTTCATCAGCAACGGACTGCAAGAGTTTAACTTCCTCTTCTACACTTTTTACAGCGTTTTCGATTTCCGTGTCGTCCTTAACCGTTGTAGCTAAACGAGTAGCGATAACTTTTAGAACGGATTCTTTCAACCCCAAGTGCGCATACTTGGTTTTGAGTAATTGTAATAATTTATCTACCATAGATGTACAATGTTTTTGTTTTTGCAAAGGTACGGAGGGGGATTGGAGGTTGTATATTTGTGTATTAGTAAAAAATTAGTAATTATTTAGTAATGCAAAAACGCCCCTATAAAGAGGCGTTTTCGGTGTTAAACTAAGAATATATTCACTTCAAAAAGCGTTTAAGTTTGTTTCGTATAAAGTAAAAGGCTATCAATAGTGCTACGATAATAGCTATAAGGTATAAATAGGAACTTTTTACGTTTTTTGTTTTATGAGAAAAAGCCGTTTCCGAGTGACTTTGCGCTATAAAATAAGTGTTAACCTTAGTTATATTATCAAGGGTAGTATTCGCCACTATTTGGCTATTAGATAGGCTGTTTTTAGTCGTAATCTTCACCTTTCCACCACTTACCCTTATAGTTTCATTATTGCCGTCTCTAATGCGATAATACACTAACTCTTTGCTATTACCCACGCTATCCTTATCGCTCTCTACTGTTACCTCGTACTCTTGTGAGGCGTATGTATCGAGTTGCAGGGTTTGAGTGTTTTGCTGAAAAAGATCCGTACTATCCTTGTACTTTATAATACGCTCTTTTTGCACCTGCTTTTGCTCGGTAGTAGCTACCTCTTTGCGTGTCCTGCAACCTATCAAGGTGAGGAACGCTAATAATGCAATGATTATTCTATTCATAGCTTTTTAACATTTTGATAATTTTCTTTAAACTATCTGCATAGTTAGTAGCGGTAGCATACCCTGCTTTTGCTACTTCTTCGGCAAACTTGTAAGGGTCAGTTTTCACCTCCAACGCTTTAGCATATCGCTTGTTTTTGAAAAAGAATTGTGCGTGGTCGGTAAAGCATTCTTCAGGCGTGTCGTACTTTCTAAACCAGTCTTTCACTTCATACTTGTATTTACCACTCGGTAACATATTCACCGATATAACCAACGGAAACAAGTGCTTTAAATTAGGGCTACTTAGTATCTCTGTTGTAGTTAGTAATTGCTTTTTGTTAGTAGGCGTGTCCTTGCCTGCTTTTACGCCAAAAAACATATTACCTAGGGACTTCTTGCCCCAAAAACTCTCCAACGCTGCTTGTGCCAAAATAAATAGGTGCGATATACCCGTTTTGCGCTCTGTTTCAAGAGCAAATGGTTTGTACTGTTTTATAAATTCTTTTGGTGTCATAATAATTAAGTATTAGTGTTTTCAGTTTCTTCTGTTAAGTCAAACATTTTAAAAAACTTCTTATTGATTATCTTAAGCAGCACTCTGGCAAAGCGAAATCCTAAGCAGTTTAAGTTCTCCAAAAGACTTACTATCAACTGCCATATAATAGCAATAAGCACAACCCAATACAACCAATGAAAGGGGTCAAATTCAAAATCACCTATCGCTGGGAATGTTATATTATCCTCGAATGTATGAAGTACGTATATAAGTACTAAGTAAGTAAGTATTTTAAGCATCATACGCCCGAATTTTCTGCTCTCGTGTTGCTCTCCTCGCTTCAACGATGCTAATACTCCAGTTAGCCATTCAAAGAAAATCAATACCACATAAGCGGTAAGGAATAAGTGATTAAAGCCAAATAAGAAGTGTATCATTCCTATAATTGCCGAAATAACGATATCCCAAGCGATAAAACTTAAAGAAAAAGTATGTCCAAAACTTGAATGAACAAAATCTTTCCATCCAGTAAATCCAAATCCTTGTAAAATATAATCTATCATCTTTTATTATTAATTTTCTTTACAATAGGATAAGGCGTTACACTCGCCACTATATCCCACCAATCAATAAAGGTGCGTTTGATGTACTTGTCGTACAACTCTTTTGCAAGCCCCGCTAATAATACCGCTGCTAACGCTAAAACAAAAGCAGTACCAACGCTCCAAAATTTAAAAAACAGTGCAAAAAATAGCACCAACATACAATTGCCTACCTTTGAATGCAGCAATTTGTCCTTACCTATTAAGTTTCGTTTAAAATTATTCATATTAATTACTTTATGTTAAAACAAGTAGCTTTTTCACTGCTTATTTTTTTTGTTTGTCTGTTTTTTCTGTGCCGTTGATGATAGCGGTACAATTTTCTTGAATTTGTTTGTATAGTTCAATGTCTGAGGGTTGGAAGTTTGAGTTTTGGACATTGAAGTCGTTGGGGGTAACAGTACCCTGCAAATAGGGATAACCACCTTGCTGGCGAGTTGCTGAAAATGCTACGGCAATAGGATTGGTTTCATTTTCAAATTCATAGGAGTACATAACAGTTACTCCTTGCACAATTTCTTGTGCAGTAATTCGGGTTGTTTTTTGAATGATTTGCATATTAATTGAATTATTAATGATTTATATTTTTTTTACTTTTATGATTGCTTAGCGATTCATAAATATTATCCTGTATATTCTATATTTGTAATTATGCCATTGACTATAGTTATTCTGTGATTGCTAATTTCGTGTGTATTAGAATATCCTTTTTGTCCATGCATTCTTATTTCACCATAGAAGTTTGTATTTCCTCTTATTTTAACATCTCCCTCTAACACATCAAGTGCTACAGATTCTTCTTGTCCCCATATTGCTTTTAATATAAGGGCAGTGCTTTTTCGCCCTCCTCTACTTTCTAACTTCATTGCGGAGTGGGTTGTATCATTATGCCCTGATGTATATACATCTATTGCTGATTTATCTACTGTTTTAAATATTTCAGGGTCATTTATTCGTACTTGTGTTGTACGGCTGTCTTTTCCATTCCCCAATGCTCTTATGAGTCCTTGTGAAGCTATATGAAGTCCGTTTGCTTTTAAAGAAGTTTCGCTTGCGCTTTCTATTTTAAAGTTCCCTATTTGTCCCTTTGAAGCATATATACTTCCATCATCTTGAACTCTAAAAGGGGCACTTTCTTTGTCTCTATAGTTAGCACCAGCAAAGAAACGAATAGACTCACCCGATAACCCCGCCCCATTAATACCAGCATTGCCTCCTAATGTATTTCCAACAGTTAGCGCACCCGTAGTAATTGTGTTTTTTACTATATCTGTACCATTGGTGTAGTCAGCACCTTTGCTAAACATACCATTGATAAATTTAACATTTGCTTTTTCTGCTTCTGTGAGGTACATTGCATTTTTGTCAATGATACCTAAATCTACCATTGTATCCCATACATCTTCAGGTGCAGGTGTCCAATCAGTGGGTTTGTTGCCTCTTTCAAGTTTGATTTTGCGAATCGTGTTTGTTTTTGTACTATTGCCATTTCCTACAATAAACACAGAAAATGAATCTCCTTTTTTTAAATCTAAATTCAAATTGTTTTTCCACACATTCACTCCTCTTTGTAAAGAACCATAATTTCCATTACCTCCTCCCGCTAATAATATAGGGAAACACCCATCTGCAAAATCACCGTCAATAGTTAGTGTTACAGTTTCACCTAATTTTATATCCTCTGTAACTTGATAAGAAGTTATATTATATTTATTATTAGTGATAACAACTCCGCTGTTTTTTAGTAAATTCCTTCCCCCAATATTCAACTCATTCACTTTTTGTTGGGCAAAGTTTTTAGCCTCTTGGAGTTTCAATTGGAGTTGTTGTATTTGTCTTTGCTCTGCTTCTGTAATTTTGCCGTCGGCTGTTGCAATGGCTTGTGCTTTGGTAAGTTCTGCTTGTGCCCGTGCGTATGCTTCGGTAGCTGTTTTAGCGGTTGATATTTGACTTTCTAAATCTTCAGGGGCTGGTGACCAATCTGTTGCGATGTTTCCTTTTTCGAGTTTTAACATCTCAACTGAAGATATAGGAGCTGGTAAAGCCCCTTTAACCTCGTGATAAACAGTAATACCCTTCCATTCTTTATTAGGTACTATTAAATTAGTAGTCTTTCCGCTTTTCAAATCTGTGTTTATATATTGTCTTGGCACACCTCCTAATTCATTTGAAAAGTAAACATGTGTAATTCCTTTTATATCCCCAATACAAGAAAATACATATTGTTCATTAGGATTCACAGGTTCTGAAAGTAAATAGAATGTACCTATGTAACCGTTCATTATGCGATTGTCTTTGGAACTGAGTACAAAATTCCTTCCCCCTACCTGAATATTACTAATACTTGACTTTAGCCTACTCTCCAACGACTGTAAATCAGGGTTAATGATTTGCTTTATCTCTGTTTTGTTTTCAGCAGTGATATTTAGTTTTGCTTTTATCTCTATATGGTCATCAAAGAGGTGTATATACTGCTGTCCGTTCCCCGATGTTATCTTGTCAGTTTTGATTTGTCCGCCTGTGATTTCAGTAAATCCATTGTGTTTAGATACACCTCTCTCACTTTCGTATTCAGAATTGACAGTGGCGTATAGGAAATGATAGAAGCCAGCTTCTTGTTCTATATCTATTTTGTTTTCGGATAAGATAAACTCACCAATTTCAGCGGTTTTACTTGCTTTGATATATAGGTAGTAGGTTTTAGCCTTATCGTCCAAACGCCCTGATACGAAAGTGGAGATATACCAATATTTATAGCTGTTAGCATCACGATTAGGGGTTATATCACTACTTCCTAATGTGAAATGTTTAAGCCAGCCGCTACCTGCATTGATTTGCTTGCTATTCTTATCAAAATAGAGCGTGTGAGGTGCTTTTATAGGGTTTGTTTTTGAGACTACAAAATCGAACTGGGTTGATTTGTTACCTATAAGAGCCATCATAGTTTGTACGGTGGCGGGGACGATGCTCTTAGTATATTCAGGAAAGGCTGCTTCTATTTGCTTGATAGTTTCTTGAGAATCACGCCAGCTTCTTTTGGTTAGTGATTGTGTGCGCTTGTTGAGCTCTCCAAAATATACCTCTTGGTTTTTGAGTTTGCGCATTTCAGAAGCAAAGGAATGTCCTTGTACTTTGTTAGATAACTCTATTTGTGGGCTGTAAGGGTTATTTACATATTCTTTTAGTCCTACAATGCGAATAGCTACGGGTGTGCGCTGAAATTCAGTGTCTGAAAAGTTGATATAAGCACCCATTTTTAAGCGACCTCCTACATTAGCCCAGTTCTTTTTAGCCCATATACCATCTAAATCACCAGTAAATGTGAAGAGGTCGGTGCGGTTTTCGTATAGGTATTTGCACGCTTCTTTCATCATCTCCCAGCTTGCGCCTGACTTTGTGGCGTTGTCGCTGATATAAGCGTTTGGCATTTGCATATTGTATACGGAATATTCATCACCTATATTAGGGCGGAATATATCGTTTGGCATTGTAACGCCGTCTTCTTCTTTAGGAACAAGTTGGAATCGTTTTTCGGCGTGGTTATATTTGGATACTTCAAACTCTCTACCTGACAGCATACCGCTTTCAAAGTAGATAAGCATTTTTTCGCCTTTGATTTGCATTGCATTGAAATCAAGGGCTTGTGGTATAGAGTCGTCAAATATGTCGTAGAAGTGTTTATCTATATCTACTGCAAAAAAACCTGATACAGTACCTTTGCGTTTGGGGTATATGTGTGATAAGTCAAGGCTTTGCTCATTTACAAATCCGTTGTTTTGTGCGTTCTTAATGGCTATTGATAGTCCTTTGTCGTCTGAAAGGAATGTTACCCCCTCATATACATATTCTTGTGATTTAGGTAGTAACAATTCTTTATTGCCGTATTTAGAGCGGTCGATATTACGCTCGCCTCCTTGTACATAGAGGCGAGTAATACGGCTTTGTTCAGTAGTACGACTTACGCCAGTCTTAAAGCCTTTCCCCTTGCCGTATTGTAATGGTAGAGGATTATTCTTGAAATACTCTACCTTATGCAAATGAATAGTTTTACCAATAATCTCATATTCAGTATCAAAGGCTTTGGCTATCATATCCAACGCTTCAAGGCAGTTGTTGTGATTATAAGAAACGAGTTTTTCGGAGGCTTCTATACAGTTACCTACTTGCCACCCGCTATCTATCATATTGAGGCAATCGACAAGGATTTGCACGTGGTAGCGAGGTGAGGCGGTGAAAGGGAATTTTAGGGTTTTATCGTTGGGATTTCTAAATTTGTAGTTTTTGAGGTTTGCGCCCTCGCTGTCCATAGTGAGGATATACTCAAAGTTTCGAGTGTTATGTTTTACGATTTTTGCAGGTTGGTTAAGGGTATAACGCTCATTAGCAAACTCACACCACGCACCAGTTGGAATGTCGGTATAGGTGGATAACGAAAAGTATAAGGTAAGCGTATGCTCGCCCATTATAGAGCGATAACGATAACTCTCATCAGTGGGGATAATGTCTATATATGTAGCGTTAAAATTGAGTTTCATTGGTACAATAATAATACAGTGCAAAGGTAAGAGGGACTTTCCTTTGCTCTGCTATAGTGGTTTAGTAAAAAATTAGTAAATATTTGGAATGGCATTAAGTGAGTACAAAAGTGATAATAAACGATACTTTGAGAGTGTTGCTGACAAGAAACACATCTTTAACACTTGCTTTTTGGTAGATAGCGTTAAGTCCTCCCCCTGCCCCTCCGAAAGAGGGGGGAATGTTAATGGTTCGTTCGCCTTGTTTGGTGAGATTGTACAACAAGGCTTCGTATAGTTGCCAAAAGGTGCTAACGGGTTGAGAAATGTAGCAATGTAGTTCAAGGGTGCGTTCTTTAAATACGTTAGAATGCTCTGCATATTGTACGCCACTAATGGCTGTACTATTGATAGTGAGGTGTTCTTTTACCTCGTAATCTTTTAGGAGTGTATTTTGGTTTTCTTCAAGTAGGTAAATGCCGTATTTGGATACATCTATGCCGTCTATAGTGAAGCCTGAAGTGGGTAGTGTAGCATTGGGGGCGGTATAGATATAGCCTTCCAAAGGAAAATCGGAAGCAAAAGTAATATCGTAGCTGATGTACGTTTGTTCTTTTTTGGCTTTTTTTACTGATACTAATCGAAGTTGAAATGTTTTATTGAGTTCTTCAAAGTGGAATGTATTGTAAGTTTGAGCAGTAAGAAAGTTGATGAATGGTTCGTACTGGTTTGCTTCACTAAAAAATGATAAAGTGATCTGAATGGTATCGAGTTTAGGACTATCGGTGTCGTACTCTTTGCCATAGTACTCAGCCCAATCGTTGGAAGATAGTTTTTTGAGAGGAGGAAAGCAAAGAACATCCTTGTAATTGCTATCTAACAAGTGAGTGCGGTAAGTGGTTTGTATGTTGATGTTGTTAATTTTCATATTTTTTTTGCTATTTAGAAATATTGTTGTATCTTTGCGGTGCAAAAGGGTATTAATAACTTTTGCCGCGAAGCGAGGGTTATAAAACTGTCAATTCGCTACCAGAGTAGAGCCTTAATAATCAGCGCAATGATTGTTAAGGCTTTGCTTATTTTAGGGTGTTTAGTTTTTTGATTACTTCTAAGTAGTTTGTTAGTAGTTCTTCTTTTGTAAAACTTATTGCTTTATTTTGATGTACAAAATATATTTCTTCTAACCAATTGTTATTTTTAAAGCTCATTATTTTTCCTTTTAGGTTTTTGGTAATATCTTGAGACTTCCAATCTTCAAAGTTGGTTATGTCAAAAACAACGCTTCCTTTTTGTGCATTAGCTCCATTTATTTGTTTTTTTACCTTGTCTAAATGGCTTTTAATGCTGGTATATGAACTCGCTTCTTTTCTATCGGCAACAAGTCCGTTTATTTCATATTCAGGGTTTTTGATTTGCACTATATTGCTATCTAGGTGAGGACGGATATTTACATTCTTTCCTAACTCATCGGCTATAATTTTAGCAGTTGCTATGTTCTTTTCTAAGTCTTTGTTATCGGCATAAGGACTTATTTGTACCATTGCCTTGTTTTTACCCTCATATATTTTTTTGTAGGGTGTATTGAGTTTTTGCAGCTCTTGTTCTTTTATTGAATTACTTATTACTAACCCTTTATTAGCTTCAATAAAATAGGGTTTTGTTTTCCAATTCTTGAACCTATCTTTATTGTCGGTTATCCATTGTTTATATTCTTTGGGTACATCACTTACATAATTAGATGAACTTTCGGGTGGTAATTCTTCATCAGAATTTAATTCCTTGATGAGTTCATCAGGCGTTTTGAGTATACTCACTATATGACACTTGCAGCCTACGTGCCAGCCGTGAAAATGGAAGGTTTTGGGGTATTTTCCTTTGAGCTCATCGCACATATCATAGACTTTGTGCTGTGGTGATAGGCGTACCTCGAAGCCTACAATATCGGGGTTTTGCTGTATGCGCAACCAATCGGCGGACTTATAGGCTACATTGATTTCGTTGCTGGTAAGACGCAAAGCGTTTTTATAGGCACTTCTATAAACTCCTTGACCAGGGTGATAGTTTTGAGCGTTTTTGCTTAGTGCGAGGTTTCCGTATTTGTCTCTAACTCTACGAAACAAGGCAGTAGGGTTGTTTAGTAGGTTACGTATCTCTCGGCTTAGTTGAACCGCGCTTTTACCCTCTTCTAATGATATGGATAGAGCGAGTTCTATTTCGCTTTGTGCTTTTTTAGCAATGTCCCATACACGGTCGGAAACGGTAAAATCTTTAATCTTACGTGTTTTGAATGTTTCGAGGGCTTCAAGGTTTTTGTATTTGGTTAGTCCTTCTCTTAGCAACTTATCCTGCTTGATGTTGGCAAAAGCCCATTCATTGGTGATACCTTGCTTTATGATTTGTTCTAATTGGTTGCTGAAATTAGCTAATTCCTTTTCAAAGGATTTACCTTTCTTTGTTTTTGCAAAAGCAAATAATGTACTTGCGATGAGTTCTTTATAATCGGTTTTGAGGGCTATAAATACAGCTGTACCTACAAGCTGATAAAACAATCGTTCTATCTGTTGTAGGTATGCCATTAGGTGCTTCCTATGTTGATCATCATAGTTCATTAGATACTTGCTTCATTGAGGTTGCTATTTTCCTCGTCTTTGATTTGCTGTAATTGGGCTTCGGGGTCAGTAATTCCGAAACGTTGCATAGCTTCTCGTTGAGATAATAAAGGCTTACCACCGTTAGCCTCCATAAGGGTACGTATCATTTCTGTATCATCGTCAATATCAAACGGGGTGATGATGGGAGTAATATCTATATCTTTCAGTTCCTTTTCAAATGGCAAATACATCTTTGAAAGGAAAGCTAAAATGATATTGATACGCCTTTGTAAAGCAGGTATAAATATAGCCTCATTATTTTTTACCTTGAGGTGTGCGGGTAACCACGCTAATTTACGCCCTACTCCTGAAAGCATATTACCCTTGCCAGCATAGAACTCATCGGATAGGTCGGGGGTATGAGTAAACTCGTGTATATCACGGCGGTTCATACTCATTTCTTTGTCGAAATTCTCATTAGCATTGGGAGGAACAACGAATTGAACATTACCCCCATCTGTTACCTCGAACACCTTGCCACCCGTGTTATTTCCTGACATTTTTCCCTCTACCTTTCCCGCTATCATTAGAATTGGTTCGCCAAATTTTTTATTACTTTCAGAAAAATTACTGCGCTGTTCTTCGGCTATTTCAATGAGGTGCTGCACATCTTCCCATTCAGGTTTGTCTTGCTGGTATAGTACTACTGGTATTTTGCCGATGATGTTGGGTTTTACTTCGGTAGTAGTTTGTCCGTTTTCTGTAGTGAAAGTATATACATTCTCATTGGTAAATGCTTGTAATATGGTACTTTTGTTATCCTTGCTAGTGCTTTCAATAGCGAATGATACAAGGTTATCGTTATCGTCAAAGCGTGGATATAGCTTGTACTTTTCAGGTGATAGCACCTTGTGGCGCAATAGGAATTGAGAGGATACCCCATATTGCTCGTTGGGTTGCTCTTCTAAGTACCACAACTCGGCTACTTGAGTGTAACGTTTTACCTCTGTACATAGCTTGCTGTCGGAAAAGTTCATTTTGTTTGCTTTGATGACTTCTTGAAAGGCGGCAAATAGCTTGCTATCTTCAGCGGTGTACTTGTAAGGTATGGCTGTTTGGAACATTGTGGCTATCTCTACAATACGCTTTTGGTAGGGTAGCCCTATACGATTGAGGTAGCGATAACGTTTTTCAAATCGTGGTTTGCCTTGACTATCTAAGAGGGGGTTACCTACTTCATCGGTGAGTGGTATCATTATCTCGGGGTCAGGATAGCGGTGTTTGTTGGTGAGTATTTCGTGCTTCTTAACATCGTATTGTCGTTGGAATTGCGAAATATCTATTGGAGTTACCCCTTGTTTAAAATCTTCTTGTGTTATAGTTTGTTCGTTCATATTGCTATATTTTTTTAAATCATTGAGGCGAGTTGATATAGGTTGTTGTTAGTGCCACTTAGCAGCTTCATAGTGATGTAGCGAATGGCATCTATAGCGTGGTTGTAGTTATCTATGGGGATACCTGCCTTTTTGTCGTTCCAAGCGTAATTTTTTAGCTCTTTCTTCACATTGAAACTGCGAGGTGTTACTACTAACTTATAATTGAGCATAGTAGTAATACCAGCCGATACGCTTCCTGCTCCTTTTTCGCAAGGCTCTATGTTTAGCCCTTTGTCTCTTAGGTCGGCAATGAGGCGAGGTTCGGCACTATCGGCTACGATAAGGTCGTCAGAGCGGTCTATTAAGGTGCTATTAAGTTGGTAAAGCCCATCAGAGGATAACTGCTTGTTGTTATAGTATTTTTCGTCTATGTATATAATCTTTCTTCTTTTATCGACTGCTACCTTGATGAGGGTATCAGGGTCAATACTGAAGCCGTAATCTTGTCCGTAACCATAAGGAAGTGAGGTATCAAACTCGCCCTCTTCCCAATCGGTGAATATGACCCCTTCGGATACATCAGCCCAACGACCTATGATTTTTTGTGCATATTTGGTTTTGTTAAACATAGATTGAGAGAAATTTCCTTGCTCATCAGTAGCTTGTGCGAGGCTTTGGGTTTTGATTTCATCAATCTGTTTAAAAAACTGCTCATTAAGGTTTTCTATATTATCAAAGTAGGTGGTGTGGATATGCAATACATCAGGGTGGGTGGATATTTGCACCTCAACACCGTCAATCTTTACCACCTTGTGCGTTTTTTCAATGTACTTCTTATAAATGAAATGCTCGGCATTGGAGGGGTTCAGAATAAGAATAACACGTAATTGCTTGCCTTTTTGACGGATTGATAGTATTAGTTTCTCATAGTCCTCTTCTGATAGCCATTCTTCCATTTCATCACCTACGAAAGTGGTAATACCGTGTAATGATTTAAGGTTGGCGGTTTGGTTACCAGAACTGGTTTTAATTCCTTTAAAGAGGATTTCAGAGCCTGAAAAGGTGTTTTTGATAGCTGTTTTAGTAATATTAAAATACGCCCCAGTACCCTCTGTTTCTATCTTTTCCTCAAACTCTGGTATAATAGAACTATGGGCTGATACCATAGTATAACGGCTAAATAGTATCTTATGCCCTGCTTCAAAAGATAAGCGTTCCAAAAAGGTAGAAGCGTTGTAAGATTTGCCACTGCCTCGACCTCCTGAAAGTATGATAATGAACTTATCTTTATTCAGATATAGGGGATTATATACAGGTTGTGTTTTAATCATTACTTTTACTATTGCTTTTGAGCCATTGGGCGATGTCTATGCTGCCTTGTACAGAAACTTCCTCTTTGATGCCGTCATCGGTTTTGAAAGTGGATAGTACAGTTTGCATTGCGGTCATTCGTGTTTTGTAGTCTACTGGCACTTCACGGAATTGGTTAGGTATTACTGTACCTTCTTCATCAGTGAGAGGTTCACGGATAACACCCATAATAGCAATAACAGATACCAAGTTAGATACATCATTAAAAGTACGTGCTCGATAGGCTTTTTGGACAATTTCCAATTCAGGGTTTTTACGAATACGCCCATATACAGATGGATAGGTAACGCCAAGTATTTCGGCTGCCTTAGTAGGTTGTCCGTTGGCTTTGATAAGGGCTTGTTTTAGTTCCTCATCAGTATATTTTTCATTATCTATCTTCTTACGTGGTTTCATATCAAATGTTATTAAATGTTATTAGTCTATGCGTTCTACCTTTGCCGATAGTGTTTCCCCTTTTATCATTTTAAATTCAGGGTCAAACCCCATACGGAGCATAAAAGCTTCTTTGTTTTTCCAGTTATCAAATGAAAGAGTTACGTAAGCATCTAAATTTTGAGCTTTTTCAATAGCTTGCTGTTTGATAGTTTCTTTTGCTTCTTTGACTTGTTGCTTTTTCTCTTCATTGGATATTTCTCGCTCAATGTCTTTTTCTTGCTTTATGGGAGCGTATGTATCTTCTATAGCTTGTGATAGGTCGGGTACTTCAAAGGAAGAGTAATCGACCGCATATAGATTGAGATCATAATCATCAAGCCCTGCATTGAGGTAATCAATATCAGGAATAAGTGACCTCATTAGTTCTTCGTCAAGTTCGGTACGCGAGCGTGTTTGAAATATATTTTGTTCCTTTTCTGTTTTAAGGTCAAAAGACACTTTTTCTACTTTGATTTTGTAGTCAGTTTCGGGCGTGCCATCGTACTTGTGGATAATATCAAGAGACATTACTCGCTTGTGCCCATCTACAAGGTTTGAGGTTTGCTCATTCCAAATAATACCACCTAAAAAACCTACATTTTTGATATTTTTACGCATTTGTGCTATTTGTTCGTCGGTATGCCTTTTAGGATTGAAAGGGGCAAAGTTTATTTGTGAACGGTTTATGGTGATGGTTTCACTTTGCTTGTATAGTTCCTTCGGTGTTTTTGTTTTTTTGGTCATAATCAAATAGTATTTTTTCAGATAATGGGTAAACATCTAATATTTTCTGCAAGTCATTAGGATAATGCTCGCGTAGGTATAGATATACATCAAGGTCAAAGGTTATTCCGTTGCTTTTTTTGTTGCTGTATTGTATGGGTTTGGGCAATCGGTTGTTGCTGATGTATCGCAATACATCTTTATCTTTCCATAGAGAAAAAGGATACACGAGTTTTGTAGGTGAAATGGCTTGCATTTCGTATTGTCGTAACATTATACGCCTATTCATACTATCGGACTGTTTCATTCCTAAGAATACGTACTCAATTTGTGTTTCGAGGCGTACTGATTGTATAATATCTGATAGTTTGAGTATGCGTGTATTTTGAGGGGTACAGAACAACCCTGATTTATTGATATAAGTAAGGGCGTAATGAGGTCTCTGTATAAATGAGATGTTAGGGTATTGCTTTTTTGAGAAGTTTATGAATTTATTGATATGTTCAAGGTCTTTTACAAAGTACATAAATACGCATACTACTTCATCGAAGTTTTGGGCGCACCAGTGTAGTAATGCAATACTATCCTTGCCGCAGGAATAAAATAGCAAAACACGGTTAGTTTTAGCCTTAACCGTGTCTATTACTTGCTGTGTGTGTTGGTAGATATTCATATATTAACCCGCTGAAAGTCCTGCTTGTTTTCTAACAGCAGCATATACATTTCGCCTACGTTGTTGTACTGACAACGCTTGACCTTTTTGATTTCTACCATATCGGGCTACTCTACTAATACCCGATGTTCTGTTGATTTGTTTTTGGATTTGTGTCTTTCTAACTCAGCTGAATGTTTTAAAGGATTATTAAATATTTTTCTTACTTATCACTTTGCCTAATGTATAAACCATTTGGGCTTCGATGTACTCTTGACCATCTTCTTCGTAGGTGATTTCTTCACCATTTTCATCGACAGATAGTTCTATTTCAGAGTTGGTGATTTCGATAAGTACTTCAGGGCGGTTGCTTGCATAACCATTGAAAAACCTAATAGCATCATAATTTACTGGTTGAAGCCACTGGTCTTCATCTTCTGCCTCTGGATTTTGGATAACATACTTATCGGCATTCTTTGGACGAATTTCACGATACTCTTTTGTTTTTACCCCTGATAGAATATCTTCTAAATAAGGGCGTTTGATTTGTAATGTTAATACTTTCATATTGTGATATTTTATTAGTTGCGGGGGCTGGACTCGAACCAGCGACCTCGTGCAAGTTAAACACGCAAGCTAGCCTACTGCTCTACCCCGCTGGTAGGGCAAAGGTACGGCGACTATTGCTATATAGTACTCTTCGTGTTTAGTAAAAAATTAGTAATTTTTTAGAGTAATGTTATTTGTTGCAAAGATAGTGATTTTATGCGATACTTACAAGGTTGAACTTCTTAAAACAGCGATACTCGTGGCATTCGGTGTCGAAATATACTTGTACAGTATTATTGCTTTTGCGTTGAGAGTGATCGGTTTGGGGTAGCAAATCAGGGCGTAATGTACCCCACGCTTCACGGGTTGAGCCGTCTACTTTCTGAAAGTAAAAGCGCACTATCTGGGTGCTCATTTTGCTTTTGAGTTTGATATTTGCCCACGCTTTTTTGAGGCATTCGCTAAATGATAACCCTGTTTGGCGTGCAAACTGCCAAGCGAGGGTAAAAACGTTCTTTTTGTCGGTATTTTTCATTTTGATATAGGTGTTAAGTTTATTACTAAGATATTGAGCCTTTTTGCGCCTTGCTCAGGGCGTTGCGATTAGTTATTTAACGAATGAACGTCGTAACGAGCGCAAGTGTATTTTTCTTCAAGTTTTTCAAGTGCTTTCGGTGTTACAAAATAAACACCTTCTGTATATTCTGATTTTTTTATACCACGCCCTTTGAGTTCTAACTCAGTGCGTACTTCATAATTATTATAGCACCATTCGTAATATACTTGTACCTCTTGTTGTTTGTTTAATGCTTTCATACTATTAATGTGTTTAATGTTATTACTTGTTCTTATTGATTGACGGTGCAAAGGTATATACATATTACAACACTTGCAAGTTTTTAATGTTAAAGTTTTGTTAAATGTGTAGATTAGTGTATATACATATAAAAATACATTGTACTTTTGCGTCGTAATCAATTATTTATAATTAAAATGGCAAGAGAAAGAATAAAAGGCAAAGCCTTAAATATTAGAGTATCAGATAGTTTTTTAACACTCCTCAAAGAATTAGCTGACAAAAAAGGAATGTCGCAAGCGAACCTTATTGAGTATCTCGTACGTAAGGAGGCTGATGGTGTGCAGCTGAAGGAACAATTTCAGCAGGAGGAAATAAAAGAGGATGATGAATAATTCTTTTTGTGTAGTAATGGAAATTATATAAAAAATCTACCGCCTCTAATTATAACATTAGAGATGGTAGCAAAACCAAGTGAAAAAAAGAATTATGACTGTTTGCAACGCTGAATAAGGTCGCTTTCTATTTTTTTGAAGATGTAATTATATCCTACATTTTTACTCAATATTGTATGTTGTTTGAGATAATAGGATATATTAGACAACGGCACTTGTAGATACTTAGCTATTTGACACTGCGGGACAGTTGTATCGTGTTTCCTTACCAATCCACAAAATAGTTTTTTGTTCTCAATGGTACTTAATGGCTGTCCAGTTATGGTTTCTACAGATTGATGTATTTCTTTTAATATCATAGTATTTTTTATTAGGGGTTATACATTATATTCTTCTTTTAAAGCCCTCAATCTTTGGGGCAAAATAATCGTGTATGCTAATGAAATCTTCTATCACTTTTTGAAATTCCTCAAAGGTGTAGCATACAACGTATGTATGTCCCAACGCAATGGATTTCTTCTGAAATTCTTTTTGGTTATCTGTTTGGCGGTTACCTTTTACTTTCATCTCGATATAAATGCTTTTACCTTGGGGGAGGAGTACTACCAAGTCGGCTACCCCTGCCAGTACGCCCTCTGCTTTGAGGCGTTGTGCTTCAAGCACGTTGCGACTGCCTCCGTTGGGGACGGCGTATATAACGAGGTGCGGATATTGGTATCTGAACCAACGTACGCAGGCGGTTTGGAGTGTGCTTTCTTGGTGTTTCAT

Protein sequences of DBSCAN-SWA_2

>LR134489|1264014:1292758|1273215_1273632_-|VEI53848.1|DBSCAN-SWA
MKKTASQIETDIYKYFKDKINLLINGQTYRSGVRPLNSQKEDCVISFLTGLDGQYQTGVININIFVPAVKNNDNQYRKNFVRCEAIEQALMPIIEESKTALHNYKLQLHQMIQTFEDTDIKQFFINAKVKFRYNTFNN
>LR134489|1264014:1292758|1291762_1291990_+|VEI53894.1|DBSCAN-SWA
MRRNQLFIIKMARERIKGKALNIRVSDSFLTLLKELADKKGMSQANLIEYLVRKEADGVQLKEQFQQEEIKEDDE
>LR134489|1264014:1292758|1288875_1289619_-|VEI53884.1|DBSCAN-SWA
MTKKTKTPKELYKQSETITINRSQINFAPFNPKRHTDEQIAQMRKNIKNVGFLGGIIWNEQTSNLVDGHKRVMSLDIIHKYDGTPETDYKIKVEKVSFDLKTEKEQNIFQTRSRTELDEELMRSLIPDIDYLNAGLDDYDLNLYAVDYSSFEVPDLSQAIEDTYAPIKQEKDIEREISNEEKKQQVKEAKETIKQQAIEKAQNLDAYVTLSFDNWKNKEAFMLRMGFDPEFKMIKGETLSAKVERID
>LR134489|1264014:1292758|1284196_1285729_-|VEI53876.1|DBSCAN-SWA
MNYDDQHRKHLMAYLQQIERLFYQLVGTAVFIALKTDYKELIASTLFAFAKTKKGKSFEKELANFSNQLEQIIKQGITNEWAFANIKQDKLLREGLTKYKNLEALETFKTRKIKDFTVSDRVWDIAKKAQSEIELALSISLEEGKSAVQLSREIRNLLNNPTALFRRVRDKYGNLALSKNAQNYHPGQGVYRSAYKNALRLTSNEINVAYKSADWLRIQQNPDIVGFEVRLSPQHKVYDMCDELKGKYPKTFHFHGWHVGCKCHIVSILKTPDELIKELNSDEELPPESSSNYVSDVPKEYKQWITDNKDRFKNWKTKPYFIEANKGLVISNSIKEQELQKLNTPYKKIYEGKNKAMVQISPYADNKDLEKNIATAKIIADELGKNVNIRPHLDSNIVQIKNPEYEINGLVADRKEASSYTSIKSHLDKVKKQINGANAQKGSVVFDITNFEDWKSQDITKNLKGKIMSFKNNNWLEEIYFVHQNKAISFTKEELLTNYLEVIKKLNTLK
>LR134489|1264014:1292758|1285728_1287105_-|VEI53878.1|portal|DBSCAN-SWA
MNEQTITQEDFKQGVTPIDISQFQRQYDVKKHEILTNKHRYPDPEIMIPLTDEVGNPLLDSQGKPRFEKRYRYLNRIGLPYQKRIVEIATMFQTAIPYKYTAEDSKLFAAFQEVIKANKMNFSDSKLCTEVKRYTQVAELWYLEEQPNEQYGVSSQFLLRHKVLSPEKYKLYPRFDDNDNLVSFAIESTSKDNKSTILQAFTNENVYTFTTENGQTTTEVKPNIIGKIPVVLYQQDKPEWEDVQHLIEIAEEQRSNFSESNKKFGEPILMIAGKVEGKMSGNNTGGKVFEVTDGGNVQFVVPPNANENFDKEMSMNRRDIHEFTHTPDLSDEFYAGKGNMLSGVGRKLAWLPAHLKVKNNEAIFIPALQRRINIILAFLSKMYLPFEKELKDIDITPIITPFDIDDDTEMIRTLMEANGGKPLLSQREAMQRFGITDPEAQLQQIKDEENSNLNEASI
>LR134489|1264014:1292758|1278027_1278567_-|VEI53866.1|holin|DBSCAN-SWA
MIDYILQGFGFTGWKDFVHSSFGHTFSLSFIAWDIVISAIIGMIHFLFGFNHLFLTAYVVLIFFEWLTGVLASLKRGEQHESRKFGRMMLKILTYLVLIYVLHTFEDNITFPAIGDFEFDPFHWLYWVVLIAIIWQLIVSLLENLNCLGFRFARVLLKIINKKFFKMFDLTEETENTNT
>LR134489|1264014:1292758|1274729_1275809_-|VEI53856.1|DBSCAN-SWA
MANTINAVNIVPEFREADLQFVVNNNPLGDLQYRNYFPLKFNTTLDWASIEKNTDNKVAAEIVAIGSKSPRKSRDFVEKVKGEIPKIEVARDMTERDTIRLDNIRAISNRYGGKDSSAYKELLKSIYEDPIFCINGVNARLELLAKQAVSKGEYTLMAGAKVKFGVGTENTAKDWFLPANAATFDPIADFRKVQEEAVKKGFRYAYAIMDRPTFFQMVKSTSVVKFTASFAQNALSVAQEPTLAQLNETLRAHGLPEVIIWESYVSEEAKSGVKTTTSGWELGNIHFTDNTQVGETYYTITPTFSRKDETTTKVVSDSFILVSTWAEQDPEMLSTKATAFATPVLNNVSRKLILKTKLS
>LR134489|1264014:1292758|1278563_1278833_-|VEI53868.1|DBSCAN-SWA
MNNFKRNLIGKDKLLHSKVGNCMLVLFFALFFKFWSVGTAFVLALAAVLLAGLAKELYDKYIKRTFIDWWDIVASVTPYPIVKKINNKR
>LR134489|1264014:1292758|1273628_1274063_-|VEI53850.1|DBSCAN-SWA
MITPQFNSNDIERILREKIEKYHQKVIRILKYVGEMCINEARTNGSYQDQTGNLRSSIGYVVLQDGKAIEKGGLKLTKSGGNGQKEGETFINKVISQYSKGFVLVVVAGMKYAAYVEARNYNVLSSAELLAEKEVPKLLKALSQ
>LR134489|1264014:1292758|1267752_1272024_-|VEI53840.1|DBSCAN-SWA
MQPQDGALLFQVRADQSQIQKDVEAIKKQFEQMTNKAVEEGKKQANVWQTLLKGATAYFTLQGAQSFISQMVAVRSQFQQLEISFGTMLKSKEKANALMAQMTDLAAKTPFGLEEVSEGAKKLLAFQVPAEEVTETLRRMGDVASGLGVPMGQLIHVYGQVKAQGKLMTNDLYQFMNAGIPIIAELSKVVGKSETEIKDMVSAGKIGFTEIQAVIKNMTNEGGLFYNLMAEQSKSLGGQISNLKDNFDQMLNEIGKSSEGLVSGAIKGVSFLVENYETIGKLIAGLIVSYGTYRAALIATAAVQQVVAARTAGMTVAEMAHYTWLVLVEKAQKLLNLTILANPYALAAAALVGLAVALWSLKDSTDANAEATERHNQLRKEQANIIDDEKNRISGLISTIQDETKSWNERNKAFLALRNSTDGVLNKYSTLNQMLREMSQVLKDINGRYETMNEKMSRDAVKKTNDLIKSKEEQIKKLEEEIKQTASSDRRTALRMDIASIRRSIEQDELLKQKQKREVVKNDVSNYESALSGKSLEQIQAEKKLIIEAYNLRKKQAKESIANHSIAKIDSNNPYLKYDWNELGMFNEATERQIKLKQQENKQLYDKNKLLAESAKYEKEIKALQSKNVKDDKDFADIEQKVKAKEDVDKILESKFGYKKSGAKTAKTIKNSLPEFDTEKAQRDHNRQIQDDLFAREESRIKIMQDGAEKRLAIIQLEYDKQEEEIRRRSEDQLAAFIETEKQKAEAQGKWKKGQDFDTNTEAINAEKARLAENEKVLLADNAEYQRMQQEQVYKDLLEKYQTYTDQRKAIEEKYNADIAALQAKLGADAPQVKKAQDEKARELKKLDILYKKEGTAIAKLFDNLRKKTVKEIRQTIAEAEAEIDELAKVLNMDDNANVEFITNLKQQLEQARDTADKSDTVFGKLGTNIKNLFKAKPNTAEWQEAFNGMLSSAQSITGQFSQLGDEFERLGQSTGNDSLKLIGTTINEVANVIDKAIAGAQMGGGASKNAWGAIIGAVIGIGTAMFGAAQRANERHQQSLSRITQEKINQQITYNQLLFQEQMLMKKNTSVFGVKEIANALEYLEAYRQQIKKTSDSIKQEYTMMNGKILPYYNGNDRTKLRNINVKTGHEKTGLFGWGKGKDNYTPILNLYPELIKSSGEFNAELAESILKEREFRDEGRQTLQELVNAHKNAQEAMKKFEEYMKNTFGELGVSIVDSVYNSLQKGEDAFESFAKTVGNVIGKLGKQLVYEIFVADYFKDLQNKIKKAAEDNKDNSRGFTKQTSQIVGEFGNTMKGKIGEMQQFLKDWNNMSSSMGFDFLNEKRQAVEKGFARMSQDSADELNGQFRLQTQLSAEIKNAALQTANFIREMHQSMQNNAAQQLRHLAGIEANTYKLNKMETDLAGMKSILSNIETKGIKMRT
>LR134489|1264014:1292758|1291013_1291334_-|VEI53890.1|DBSCAN-SWA
MKNTDKKNVFTLAWQFARQTGLSFSECLKKAWANIKLKSKMSTQIVRFYFQKVDGSTREAWGTLRPDLLPQTDHSQRKSNNTVQVYFDTECHEYRCFKKFNLVSIA
>LR134489|1264014:1292758|1291402_1291615_-|VEI53892.1|DBSCAN-SWA
MKALNKQQEVQVYYEWCYNNYEVRTELELKGRGIKKSEYTEGVYFVTPKALEKLEEKYTCARYDVHSLNN
>LR134489|1264014:1292758|1267173_1267725_+|VEI53838.1|DBSCAN-SWA
MIIDFKYIPTFAQNKTNIPMKRIVLLLIVLLAVGCSKSEDKQEDFSQYILNVPEWLVGEYKYSTGFTTHDFGFSKNDYLLSKNGKSFFESFSSRLVKEGEYSYMDYKGYYFISYATYTKKYFKYSFEMKEKKCFFEFNGTTYNLCNEENKNDRDIRRIYEEVTEYGATIKKIYDDEYTYKKVK
>LR134489|1264014:1292758|1279229_1283141_-|VEI53872.1|DBSCAN-SWA
MKLNFNATYIDIIPTDESYRYRSIMGEHTLTLYFSLSTYTDIPTGAWCEFANERYTLNQPAKIVKHNTRNFEYILTMDSEGANLKNYKFRNPNDKTLKFPFTASPRYHVQILVDCLNMIDSGWQVGNCIEASEKLVSYNHNNCLEALDMIAKAFDTEYEIIGKTIHLHKVEYFKNNPLPLQYGKGKGFKTGVSRTTEQSRITRLYVQGGERNIDRSKYGNKELLLPKSQEYVYEGVTFLSDDKGLSIAIKNAQNNGFVNEQSLDLSHIYPKRKGTVSGFFAVDIDKHFYDIFDDSIPQALDFNAMQIKGEKMLIYFESGMLSGREFEVSKYNHAEKRFQLVPKEEDGVTMPNDIFRPNIGDEYSVYNMQMPNAYISDNATKSGASWEMMKEACKYLYENRTDLFTFTGDLDGIWAKKNWANVGGRLKMGAYINFSDTEFQRTPVAIRIVGLKEYVNNPYSPQIELSNKVQGHSFASEMRKLKNQEVYFGELNKRTQSLTKRSWRDSQETIKQIEAAFPEYTKSIVPATVQTMMALIGNKSTQFDFVVSKTNPIKAPHTLYFDKNSKQINAGSGWLKHFTLGSSDITPNRDANSYKYWYISTFVSGRLDDKAKTYYLYIKASKTAEIGEFILSENKIDIEQEAGFYHFLYATVNSEYESERGVSKHNGFTEITGGQIKTDKITSGNGQQYIHLFDDHIEIKAKLNITAENKTEIKQIINPDLQSLESRLKSSISNIQVGGRNFVLSSKDNRIMNGYIGTFYLLSEPVNPNEQYVFSCIGDIKGITHVYFSNELGGVPRQYINTDLKSGKTTNLIVPNKEWKGITVYHEVKGALPAPISSVEMLKLEKGNIATDWSPAPEDLESQISTAKTATEAYARAQAELTKAQAIATADGKITEAEQRQIQQLQLKLQEAKNFAQQKVNELNIGGRNLLKNSGVVITNNKYNITSYQVTEDIKLGETVTLTIDGDFADGCFPILLAGGGNGNYGSLQRGVNVWKNNLNLDLKKGDSFSVFIVGNGNSTKTNTIRKIKLERGNKPTDWTPAPEDVWDTMVDLGIIDKNAMYLTEAEKANVKFINGMFSKGADYTNGTDIVKNTITTGALTVGNTLGGNAGINGAGLSGESIRFFAGANYRDKESAPFRVQDDGSIYASKGQIGNFKIESASETSLKANGLHIASQGLIRALGNGKDSRTTQVRINDPEIFKTVDKSAIDVYTSGHNDTTHSAMKLESRGGRKSTALILKAIWGQEESVALDVLEGDVKIRGNTNFYGEIRMHGQKGYSNTHEISNHRITIVNGIITNIEYTG
>LR134489|1264014:1292758|1292082_1292349_-|VEI53896.1|DBSCAN-SWA
MILKEIHQSVETITGQPLSTIENKKLFCGLVRKHDTTVPQCQIAKYLQVPLSNISYYLKQHTILSKNVGYNYIFKKIESDLIQRCKQS
>LR134489|1264014:1292758|1275828_1276197_-|VEI53858.1|DBSCAN-SWA
MKQITKQTAGRQIVVFDQVLATLPAGVHINATEAKKRFTDGVVPAGTLLVPHTDGTYKPVNETFSDTNIATAVGLTAEDIAIDDFPMVAVVLSGTARTEALPDKEKAGIAFVKKVLPRITFY
>LR134489|1264014:1292758|1264014_1265178_+|VEI53833.1|DBSCAN-SWA
MVTKTLDGCSYSELWVSPANWQKATKKDLDKDWYVQCVFFDPRFEKKYPKGFPYRKKANRPNTIEERKAMISFLLKNIPHQLNNGFNPILKKYVQVHKEGLYPELHFIEAFRRALEIKVGTKKHLYEIQCAINRLEKACEALDLQTVKIKDLRRVDLKRMLDWLRLSDKYYNRFVIYFSSLYRELIEYECCEANITRDIYPKKVIKEVRTILTADELIKVKNHVRFINPNFYRYMMIFLYSGARNTELFRLQHKDVDLEKQEFVILLEKGGQYKRCTKVILSPALEFWKEICSKCKSDNDYLFALDFVPNKKMGHTEIVTRFWKRHVKDKLGIEADFYALKHYMLDNLDSDTAMLLASHTNQNTTAIYQVNKAKKERERLKQLEIQI
>LR134489|1264014:1292758|1274059_1274386_-|VEI53852.1|DBSCAN-SWA
MKIYPYLLKVKVSQNPTINDDGIPTYPSDPIEWQEIGVCRDEIAGAGQKITKVDGQIFDCTATVYAPKDTPKIEAGTTLQVVDVEGNIRLEKPVIRFSRDYFHCRIFV
>LR134489|1264014:1292758|1272715_1273210_-|VEI53846.1|DBSCAN-SWA
MAYVDNNATAWGEIEFKFGAPGTAGAMGTVLKTLGIVKEDSFSFEKEDGKELKWTAIGGKIIDQMKGEPTLKVKCTVKNLNKALLSEIWDITEVGDKLTINSFVSTKKFSVSITPKNSGAEKLEIPYCSISGTLTYAEDSGYNIEVEITILNGGKGFINVEKVA
>LR134489|1264014:1292758|1289572_1290271_-|VEI53886.1|DBSCAN-SWA
MNIYQHTQQVIDTVKAKTNRVLLFYSCGKDSIALLHWCAQNFDEVVCVFMYFVKDLEHINKFINFSKKQYPNISFIQRPHYALTYINKSGLFCTPQNTRILKLSDIIQSVRLETQIEYVFLGMKQSDSMNRRIMLRQYEMQAISPTKLVYPFSLWKDKDVLRYISNNRLPKPIQYSNKKSNGITFDLDVYLYLREHYPNDLQKILDVYPLSEKILFDYDQKNKNTEGTIQAK
>LR134489|1264014:1292758|1290460_1290817_-|VEI53888.1|DBSCAN-SWA
MKVLTLQIKRPYLEDILSGVKTKEYREIRPKNADKYVIQNPEAEDEDQWLQPVNYDAIRFFNGYASNRPEVLIEITNSEIELSVDENGEEITYEEDGQEYIEAQMVYTLGKVISKKNI
>LR134489|1264014:1292758|1288410_1288854_-|VEI53882.1|DBSCAN-SWA
MKPRKKIDNEKYTDEELKQALIKANGQPTKAAEILGVTYPSVYGRIRKNPELEIVQKAYRARTFNDVSNLVSVIAIMGVIREPLTDEEGTVIPNQFREVPVDYKTRMTAMQTVLSTFKTDDGIKEEVSVQGSIDIAQWLKSNSKSND
>LR134489|1264014:1292758|1265203_1266262_-|VEI53835.1|DBSCAN-SWA
MKVNHNQLTLAREYRGLTQTKLSKAVQGLSQSNLSKFEKGLGGLSDEILEKIFNVLQFPKGFFERKISVELETANYRKKNTIPKSIIQDFETSCTFIGYIIDEMSNSIDYPDFSLKTLDIEEGYTPEEIAQFTRKDFRIFDNEPIEDIFRIIEDKGIIIYELNANEKFDGISLFTKKGFPVIVLNKRLPNDRKRFTLAHELGHLIMHTAFPVPNIRDKEQEANNFASEFLMPERAIRNSLEGLKLSSLSALKSYWLTSKASIIRRAYSLGVINQNKYKYFNIELSRVGEKKNEKGSVSIDEAITFDMAVKLHLKELEYTYDDLANAFDLPEDVIQRYVLKQNLFLKPKLTIN
>LR134489|1264014:1292758|1276193_1276850_-|VEI53860.1|DBSCAN-SWA
MVDKLLQLLKTKYAHLGLKESVLKVIATRLATTVKDDTEIENAVKSVEEEVKLLQSVADEGRTSLSKAEEARKKLEKELEDMRAKSNPNPQKHPTPPTDPKPDEMQEWAKSIMEVVNKQNETIAAFQAEKQQQSAKERFLNQLKTQGVSETFYKHHLGRTFKDDEEMNAFVSELKADEQAFLQTQANAWLSSHSRPIIGGGLKENEPSAEVQALFKKQ
>LR134489|1264014:1292758|1283235_1284048_-|VEI53874.1|DBSCAN-SWA
MKINNINIQTTYRTHLLDSNYKDVLCFPPLKKLSSNDWAEYYGKEYDTDSPKLDTIQITLSFFSEANQYEPFINFLTAQTYNTFHFEELNKTFQLRLVSVKKAKKEQTYISYDITFASDFPLEGYIYTAPNATLPTSGFTIDGIDVSKYGIYLLEENQNTLLKDYEVKEHLTINSTAISGVQYAEHSNVFKERTLELHCYISQPVSTFWQLYEALLYNLTKQGERTINIPPSFGGAGGGLNAIYQKASVKDVFLVSNTLKVSFIITFVLT
>LR134489|1264014:1292758|1277518_1278022_-|VEI53864.1|DBSCAN-SWA
MTPKEFIKQYKPFALETERKTGISHLFILAQAALESFWGKKSLGNMFFGVKAGKDTPTNKKQLLTTTEILSSPNLKHLFPLVISVNMLPSGKYKYEVKDWFRKYDTPEECFTDHAQFFFKNKRYAKALEVKTDPYKFAEEVAKAGYATATNYADSLKKIIKMLKSYE
>LR134489|1264014:1292758|1266336_1266972_-|VEI53836.1|DBSCAN-SWA
MKNNFLDATKVQTFVQSCKRKLAKKDAFIIECTEKGLIKFFNAFENAKEKFGSTMKLFPPQSRSRGFEASVFQTCLLGELQKVFPEKWKFWKHKRFVISSDGYSFLFKKLNTKGIPMNIRTDANQSIINQMQTQLFDPTDYENPIVFFGWEKSKSGDLTNPHFVYIDEGKIKWGLRKEELTSLNAPTILTPNKTGRLLPKVKEQSKRKKAI
>LR134489|1264014:1292758|1274400_1274730_-|VEI53854.1|DBSCAN-SWA
MMTAQAYIDEKLKLWNVEYPTTLLIAEMQRVGLGLSDEFNEENERKTKMFFYNLIPELLLRPVSFSEGGLSFSYDKSAITAFYNLLCKQLGRVNLLEEKSTVRDITHLF
>LR134489|1264014:1292758|1276995_1277526_-|VEI53862.1|DBSCAN-SWA
MNRIIIALLAFLTLIGCRTRKEVATTEQKQVQKERIIKYKDSTDLFQQNTQTLQLDTYASQEYEVTVESDKDSVGNSKELVYYRIRDGNNETIRVSGGKVKITTKNSLSNSQIVANTTLDNITKVNTYFIAQSHSETAFSHKTKNVKSSYLYLIAIIVALLIAFYFIRNKLKRFLK
>LR134489|1264014:1292758|1287119_1288418_-|VEI53880.1|terminase|DBSCAN-SWA
MIKTQPVYNPLYLNKDKFIIILSGGRGSGKSYNASTFLERLSFEAGHKILFSRYTMVSAHSSIIPEFEEKIETEGTGAYFNITKTAIKNTFSGSEILFKGIKTSSGNQTANLKSLHGITTFVGDEMEEWLSEEDYEKLILSIRQKGKQLRVILILNPSNAEHFIYKKYIEKTHKVVKIDGVEVQISTHPDVLHIHTTYFDNIENLNEQFFKQIDEIKTQSLAQATDEQGNFSQSMFNKTKYAQKIIGRWADVSEGVIFTDWEEGEFDTSLPYGYGQDYGFSIDPDTLIKVAVDKRRKIIYIDEKYYNNKQLSSDGLYQLNSTLIDRSDDLIVADSAEPRLIADLRDKGLNIEPCEKGAGSVSAGITTMLNYKLVVTPRSFNVKKELKNYAWNDKKAGIPIDNYNHAIDAIRYITMKLLSGTNNNLYQLASMI
>LR134489|1264014:1292758|1292374_1292758_-|VEI53898.1|DBSCAN-SWA
MKHQESTLQTACVRWFRYQYPHLVIYAVPNGGSRNVLEAQRLKAEGVLAGVADLVVLLPQGKSIYIEMKVKGNRQTDNQKEFQKKSIALGHTYVVCYTFEEFQKVIEDFISIHDYFAPKIEGFKRRI
>LR134489|1264014:1292758|1278873_1279164_-|VEI53870.1|DBSCAN-SWA
MQIIQKTTRITAQEIVQGVTVMYSYEFENETNPIAVAFSATRQQGGYPYLQGTVTPNDFNVQNSNFQPSDIELYKQIQENCTAIINGTEKTDKQKK
>LR134489|1264014:1292758|1272026_1272176_-|VEI53842.1|DBSCAN-SWA
MSYANVMLYSAVIPSYDYDKGKDTKKAPQKSEKRTNYGDFLSKIKSTNI
>LR134489|1264014:1292758|1272226_1272712_-|VEI53844.1|DBSCAN-SWA
MEEQVAQTLLEEPTTVTIGGEAYKVAPPSIFTLVRASKYISKIPTDTISEGNIFGSIVHNAEEYENIAWAISAIVLGDNFTEVETYPKWQFWKRKKNITKGENLVKKLMKAPINEVSTAFFKVLGQMDIRAFFVITTSLKGMMITKPTKEVETEMTASGDL

Homologous phage analysis in the prophage region

Protein_ID	Protein_Def	Hit_ID	Hit_Def	E-value	Identity
VEI53833.1|1264014_1265178_+	site-specific tyrosine recombinase XerD	R9ZX51	Cellulophaga_phage	6.0e-39	29.9
VEI53835.1|1265203_1266262_-	Domain of uncharacterised function (DUF955)	A0A0U4JD08	Gordonia_phage	6.1e-22	35.8
VEI53836.1|1266336_1266972_-	Uncharacterised protein	NA	NA	NA	NA
VEI53838.1|1267173_1267725_+	Uncharacterised protein	NA	NA	NA	NA
VEI53840.1|1267752_1272024_-	Uncharacterised protein	F5A3A4	Riemerella_phage	3.5e-100	49.5
VEI53842.1|1272026_1272176_-	Uncharacterised protein	NA	NA	NA	NA
VEI53844.1|1272226_1272712_-	Uncharacterised protein	NA	NA	NA	NA
VEI53846.1|1272715_1273210_-	Uncharacterised protein	NA	NA	NA	NA
VEI53848.1|1273215_1273632_-	Uncharacterised protein	NA	NA	NA	NA
VEI53850.1|1273628_1274063_-	Uncharacterised protein	F5A3B3	Riemerella_phage	1.8e-28	48.6
VEI53852.1|1274059_1274386_-	Uncharacterised protein	NA	NA	NA	NA
VEI53854.1|1274400_1274730_-	Uncharacterised protein	F5A3B5	Riemerella_phage	6.5e-23	47.2
VEI53856.1|1274729_1275809_-	Uncharacterised protein	F5A3B6	Riemerella_phage	8.2e-75	44.5
VEI53858.1|1275828_1276197_-	Uncharacterised protein	F5A3B7	Riemerella_phage	3.0e-37	63.1
VEI53860.1|1276193_1276850_-	Uncharacterised protein	NA	NA	NA	NA
VEI53862.1|1276995_1277526_-	Uncharacterised protein	NA	NA	NA	NA
VEI53864.1|1277518_1278022_-	Peptidoglycan hydrolase flgJ	A0A1P8VWC2	Flavobacterium_phage	2.3e-40	55.8
VEI53866.1|1278027_1278567_-|holin	Phage-related holin (Lysis protein)	NA	NA	NA	NA
VEI53868.1|1278563_1278833_-	Uncharacterised protein	NA	NA	NA	NA
VEI53870.1|1278873_1279164_-	Uncharacterised protein	NA	NA	NA	NA
VEI53872.1|1279229_1283141_-	Uncharacterised protein	S5MSK9	Bacillus_phage	5.4e-07	26.2
VEI53874.1|1283235_1284048_-	Uncharacterised protein	NA	NA	NA	NA
VEI53876.1|1284196_1285729_-	Uncharacterised protein	F5A3C5	Riemerella_phage	1.1e-83	46.0
VEI53878.1|1285728_1287105_-|portal	phage portal protein, SPP1 family	F5A3C6	Riemerella_phage	9.8e-97	44.7
VEI53880.1|1287119_1288418_-|terminase	phage terminase, large subunit, PBSX family	F5A3C7	Riemerella_phage	6.0e-181	72.6
VEI53882.1|1288410_1288854_-	Uncharacterised protein	NA	NA	NA	NA
VEI53884.1|1288875_1289619_-	Uncharacterised protein	F5A3C9	Riemerella_phage	2.3e-31	38.1
VEI53886.1|1289572_1290271_-	sulfate adenylyltransferase subunit 2	F5A3D0	Riemerella_phage	4.4e-45	44.6
VEI53888.1|1290460_1290817_-	Uncharacterised protein	R9ZXS4	Cellulophaga_phage	1.3e-05	36.6
VEI53890.1|1291013_1291334_-	Uncharacterised protein	F5A3D3	Riemerella_phage	1.1e-35	69.9
VEI53892.1|1291402_1291615_-	Uncharacterised protein	NA	NA	NA	NA
VEI53894.1|1291762_1291990_+	Uncharacterised protein	NA	NA	NA	NA
VEI53896.1|1292082_1292349_-	Uncharacterised protein	NA	NA	NA	NA
VEI53898.1|1292374_1292758_-	VRR-NUC domain	H9YPW9	environmental_Halophage	4.0e-08	35.4

Sequences of DBSCAN-SWA_3

Nucleotide sequences of DBSCAN-SWA_3

>LR134489|1295941:1305357|DBSCAN-SWA
GTTATTTTTCATTTTTGATAAATTTTCCATTAATGATTTTACCAGTTCTGTTTTTGATTTCGTTGTAGGCAATGTTTAGGCACTCATCAAGGGTGGTGTTTCCTAAAAATGCTATATCATCTAAATAACCAATTATAGAAGTTATTTCATAAAAATACAAAAAGGGCGTTTCTCCACCTATCCCTAATAATCTAAAATTAGCGTGCATTAGACGATTTAAACTATCTTGAATGTTTAATGCTAACTGTACTTTGATATATCCTCGCTTACTTTCAAAATTCAAAACATCATTGATTTGCTCTAATACATCTATTCTTTCCTTATAGCAGTAGTTGATGAGCGTTACCATTACATCGCCAATAGCGTCCTGAATAGCGGGTTTGTCGTTGTCATAACACGCTTTGATAAGTTCGCCCACCTCCTCGTGTGTTTTGAGGAGCTGGTTAAAACGTGTTATTTTCTCATAGATTTCTCTTTCTTTTGCCCACTCTTGTATAAGAGGAACGAGTTCTTGAATTGTTTTCATTTGTTTGATTTTTTAGTTTTTAATTCCTCTCTCATTCCCATACAATAGGAGCGGTAATTAATATTAGACTCGTGTGTTAGTACATAGTCGTACCATTGCAGTATCTTGCCATTTGGCTTGTCGTTCTTCATATCGTAGTATATATCCTCGATATTGAAAAAATAGTCTGATAAACATATAATACCTATACCTACATCGTAATTGTCAAATTCAAATTGTAGGTCTTGCTTGTGGCAAAATTCCTTGATGAGGTTGCGTGCAGCATACTCGAATAACTCTACTGCTTCTCGTTCTTGTGATGATTGTTTTTTCATTGGGTAGTAATTTTTAATCTTTTTGCTATAAGTTCTACAATATCCACGGTTACGGCGTTGCCGATGAGTTTGTAACGTTGTGTTTTAGCAATGGGCTTTATCGTGCCATCGTAGTTGCCGTATTGTGTCCAATTATCGGGAAATCCTTGCAGGCGTTCGCATTCTATTTCGGTTAATCTACGTATGCCACCCAATAAGTTATTCTCTTGAAAGGCATTGCTCGATATGGTTGGGCAAATAGTGAGGTCTGCACCTTTATTTTTACCTCGCGGACGTTGTTTAATAATAAAATCAGAATTATTTCTTGTTAGGGCAGGTGATACTCCTCTTTCATCATATACTCTATTTTGTTGGTAAGGTTGTCTCCCATTTGATTCAGTAGATGGATTTATTTGTATAACGGTCATATCAGAGTGCAAGCCTCCTGACTTTCCGCCACCTGTTAGTGTCCCCGCTTTTTTTGGAATAATGTAAGTATCATCTTGGTTCATATTGCCATTGGATTTAATTGTTCCACTAATTTGGGTTTGTGATTGACTTTTCGATTTTGTTGTAGGCACAAAATCATTTTCTCCGATAGGAAATACTCTTGGGACACTTCGTCCTGCAAGATGTCCAATAAGGTAAATCCGCTCTCTATTTTGGGGTAAAAGCCAGCTTGTATTAAGCAATTGCCATTCGATTGTATAACCCCCAATGTTGGCAAACGCTTGGAGAATTGCCCAAAAGTCTGCGCGAGCATTTGAGGAGAATGTTCCTTTAACGTTCTCCCAGATAAAAAGACCTGGTCGGATGTGAGCAATGAGGGCAATTGCGTGTTCGATAAGGCTACTTTTGGCTCCCGCGAGCCCTGCACGCTTTCCAGCAAGCGAGAAATCTTGGCAAGGCGATCCGAAAGTGATAATGTCAATGTCTGTAAAGTCTCCTCCGTGAATAGAGGTAATGTCTCCGATGTATTTTGCATGAGGAAAATTGTTTTTATAGTTTGCTATTGCGTGTTTGTCTATCTCTGAAAAATAGTGTTCGGTAAATTGGTAGCCAGCTCGTTGAAAGCCGAGTGAAAAGCCCCCAATTCCGCTGAATAGGTCTATGATTTTCATTATTCTTTATACTTTTCGTTAATAACATCTAAGTGCTGATATATCATTTCCGATAAGTCGTTAGAATACGACTCAAAGGCATCAATTAGTACTTTGTCGTCTTTCATTGTTTTCTTAAACTGCTTCACAGCTTCTCCGCTGAAGTGTTTAAGCTGCCTGAATGAACGTTTAAATTCGTGACTGAACTTTGTATCGTCAATTCCGTACATAAGTTCATTGAGGCTATCGGCATACGATAAGGCAAGGATAGCATAGTGGGCTATTTTTTCACGTTTTAGCACGGGCATTACTACTGCTTTATCGTGTTCGGCAATTGCGATATTCATTAGGTTTCGCGCTTCTTGAGGTGTAACTTGCAATCCTCTCGCACGGAGTTCTGTTATAAATTTATTGTTATTACTTTTGTTCATTTTTTTAGTGTTTTTTTTGTTTATTTCGACGTCAGTAATTCCGAAAGTTCTTTGCCTTGTGTAATGAGGTGGTTGTAAAAGAATTTCAAAGTATCTTCTTTTTTAAATCTCCTTATCTTTCCGTCAGGGTCATTGGTACTATTTTGGAAATGCTCTATCAATGCCCTAATAGCACTATATTCTTGCTTATCTTTTGCCTTATTTTGCTCTTGTCGAAGTCGCTTCTCGGTTTCCGCTCGCATTAGTTGCTTGTCCTTTTCGGTGAGAGTAGCAAAATAAGGTTGTAATATACCTCGCTGATAGAGTGTATCATAAATAGGCACGGATAGCATAGGCAATTCCTTTTTTTCCTTATACCCCTCGAAATGCTCATTGAGCCAACGAATCACGTTATTTTCTTTTTCCTCTTCTGTCATCGTGTTTTTTTTCTCTGGTAATTGTGAAATGTTAATGTTATGCATTCGCTGAGTGTCTTGCAGCCATTGGCGATATTTTCCTAAAACCGTACAGACGTAAGATACGTCAAAGAATTGAATATGCTCTGTTGTGTTGCCAAATTCCCCGCTTCTATCCATCTGAAAGGCTTTGTATATCTCTTGAAAAGAAAGTCCTGAAAAACGGTTAAAAACAGCATTCCATATTTCATTCTTTTGCAAAGGGTCGATTTCTCCCTTAAGCCCTACAAAAGTAGCAATGTGTGCAAAGAGATAACCGAATGCTTCTTGTATTCTTACCTCCTTACGGTTGTAGTCTCTAATTCGTAGATATTGGTGTCCTATTTTAGCTATCTCCAATGATGTGAGTTCCCCAACCTTGACTATTGTTTCTAATATTTTCAATGGTTTGTCTTCCTGCAAAATAAGGAGGTTTGCCGACTGTGGACTGTTGTCCGTACGACTCAGCGTTTGTAATGATGTTTCCATTTTCGTCTAAGAATATTTGATTGTTAGATGTTTGATGAGGGGCTTGTGTGTTATGTAGCCAATCCGCCTCAAAACCTTTCCACTGTTTTTGAACTACGATATTCAGTACCGCATTTATATCCTGCCTTGTTAGCCGTACCTGATTGATGAAGTTATTAAACGCTCGTTCGGTATTGACGGCTTTCTTTGCTTTGCGTATCTTTAACCACTCATCTACAAGTTCAGGCGCAAAGCCTTCTGATAGCATTGCCTTTCTGAAATTGAAAGGAGGGGGGGCGGGCGCAACTTGGAGGGAGGTTTCTTTTTTAGCGTTTAAAGGCTGTTCTTTTTTTTCTCCCTCGCCAAATTCCACACACACGCTTTTCTGTTTCTCTTTTTCTAAAAGAGAAAAATCATTTACATTTACATTATCATTTACATTTACATTAAGGGGGCTTTTGCTTTTTTTGCTTTTTTCAAAAACCAATTGCTTTTTTTGCTTTTCTTTGCTTTCTTCTAATTCATTGATTTTCAACGGTCTTCCTCCTTTTGCTCCTGCTTCTTTTCTCTTTTCTTTGATTGATATATACTTTTGCGTATCCCTATCAATCGTTTGCTTTACAAATCCGAATGCTACTTTTGCAAGTGGTTTTAGTTCAATCAAGTTACCATATATGGCATATTCCGTAATAGCCTGATAAACTTCCAACTGAACCTCACTTGGCAAATCCCGAATAACATTCAACCAATCTTTGTAAAAAACAAATGTTTCTCTTTCCATAGTGTAGGTATTAAAAACTCCCCTTGCCCTTAACTTGCTCTCTGGACAATGGCACGCCAAATAATAACGCTCGCCAAAGACAAGGGGAGACAAATGAATGATGTATTTAGAATAACGTTGTTTGATTGAGGTCGTCAATCATTCGTTGTAAGTTCTTTTGCATTTGGTTGTAATATGAGGGCTTTAACTCTATTCCTATAAAGTTGCGTTTTAACCTCAAACTCTCGTGACCCTCGCTGCCTATACCTCCAAATGGACTTAACACTGTTTCGCCCTCGTTGCTCCATAAATGCAAGCAACGCCTGATCGTTTCGAGTTGTAATGGGCAAATATGCTTCTCATCTTTCTCATCACGAGCAGATGTGTATTGCAAGGTATCGGAGTAATTGATGTCATACCATACTGGCTCGGCATACTTTTGCCACAAACTTACGGGGAGGTAATTCTCTTGTTTTTCATCAGTATCTTGGTGTGTGATCGGTACAAGATTATCACCTGCGTTGCGAAACACTAAGATATAATCAGGAATACCTGTGCGAGACATACTACTGTCTTTTTTGATCGTTTTATGCAGCAATCCGATAGACTTGGTACGGGTCATCTCTACTACTGGGCTCTTCCAAATTGTTATTCTATCGTGGTAAATAAACCCCTCTTTTTGGAAGGACTGAATGATCATTCCTGAAAAGTCTTTGAGCCCTATATATCCGTCTTTGCCTTTCATCGCTGGCAAGTCCATACAGTGTATGGCTATCAATCGCCCACTCTTCACTACTCTTGCTAATTCTTTTACAAGGAACTGAAAATGTACAAAGAACTCTTCATAATCTTGGCAGTTACCCATATCACGAATATCATCTGAATAAACGTATAACTCAGCAAATGGGGGGCTAAATATTGAGAAGTCTATACTATCAGTAGGGAGTTTAGCCACCTCCTCTACGCAATCGCCGTGTATGGCTCTGAATGTAGGTGTTTGCATATTTCTTGGTTTTTTATCATTAATTGTTGCATTTGTTTGAATTGTATTTCCTTTTCTTTTATGGTACTCATAACGTTCTGCATAGTGTCAGTAGTTATGATATTCACTGTTACATCTCCTTTCTTTCCGAAACGATGTGATCGTCTTACCGCTTGGTAAAATCCTTCAAAAGAGAAATCAGGGCTCATAAAGGTTTGATGTAGACAGTGCTGAAAATTTAGCCCGTACTTTGCTATCTGCGGTTTGGTTACTAATACTCTGTATTTGCCGTCCACAAAGTCTAATAGCTTTTGCGCCTTTTCCTCTGGCTCATCTTTTCCTGATACTTCTACCACTCCACGAATACCAGCCGTAACCTCCTTGCTTTCATCATTGAGTTTTACCCACACAATATGAGGTTCATCATCAGCATTAGCAATCTCAATAGCCTTAGCAATACGTTGTTCTTTGGTACGCCTCAATTCTTTGTTGAAATCAGTAGCCGATACAGCCATATCGGGGAATAACAAGCCATTACTAAAATCGTTTTGCGTGATGATTTGGTGCTCCTTATAAATTACTTCTGATAAGTCATACCCTTGCATTGGGTAACCTATATCAGCAGGATTGGTGAGCATTATTGCCCAGTCTGATACGAATTGATAGAACTTCTCTACTGCGTGCCCTTTCAATCTCCATTTGCTCGTGTGATCTTGATCGTTAATAAAGTAAGTAGCGAGCATTCCTAACCTGCTTTGATAGCCCAAAAACTCTGAATGGTTTGCCAACTCCATTGGGTCATTAGGGGAGGGAGTAGCTGTAAAAGCAAACTTATAGGGGGTATTGTGAAAATACTCAAAAAGTTGCTTTTTGATTTGCCCTTCAAAATTCTTCATTATCGAACTTTCATCGACGATCAACCCTGCATACTCTTGTGGGTTAATATTGTGCAAATTCTCAAAGTTAGTGATCGTTACCTTATCAAGGTCAAAACCAAACTTTTCTGCTTCTCTTTTGGTTTGTGCAACCACTACCAATGGGGCAATGATTAACACGGGTTTATTAGCGTACCTTACGATTTGGGTAGCTGTTTCAAGTTCCATTACCGTCTTCCCAAGTCCGCAATCAGCAAATACAGCGTGTTTGCCTTTCATAACGTTTTGGGCAACAATATGCTGCTGAAAGGGGAATAATTTAGGGTTCATCGGTAGTGGAGTAAATCCCTTATGCTCCTTTGCCTTTTGCTTTTGTTGCAAAAATTTCTGATACTCATTCATTTTGATTTGAAATTAGAGATTTGATAAAGATTTATGCGCACTCAATCTCCTTCAAATCGGTTATTAATTATTTTTGTAAGGTTTCAGTTTATAGTAATTTTCAAAGTCTATTAGCCATTGAGGCTTTTTTGTCTTTTTGTTTAAATAGTTTAGCAGTTCTGAATGATACTTCTTGAATATAGTTACCAGTTCAGTATTAGGTGTTTCTCCTGCTAATATATTCAGGCGTTTTTGCGCTATATGAATATCTTGATTAAGTTTGAAATTATGAGTACTTTCCTCTGTATAACCTCCTATCTCCAACACCCACGCTAATAACTGACAACATCGTGCATCTGAAAGTACTTTTATTCCCGCCTGCTCTGCGGTCTCTATGATTGATTTATATAGTGTTTTCATATAAAATCTTTTTTCAAACATTTATTTAATGGTATATCCCATATTCTTTCCATCCTTCTTGTTGACAATTTACAGGCGTATAAAGGTCTGTATATACGAGGTAACGATAGAAGGTTGTCTTTGATACTTTTAGTTTTTTGGCAATGATTTTTTTCTGCGTACCCTTTTCTAATTCTTTGACGATCCACTCGTGTTTATCGGTACATTTTTGGTTGAGCCTACAGCGGAAACCTCTTTGCCTACCAAGTACCATTCCCTCTGCTTTTTTGCGTGCAAGAGCTTCTTTGGTGCGCTGGCTGATAAGGTTGCGCTCAATCTCGGCTGATAGACCAAAAGCAAAAGCAAGCACTTTGCTCTGTATATCATCTCCTAATCGGTAATTGTCTTTAATAGTCCATACACGGCACTCTTTGGTCATACATATATTGAGAATTTCCATTATCATAAACAAGTTACGCCCTAATCGTGACAGTTCACTGCAGATAATAATATCATCTTTCTTTACTTTTTTTAGCAACTTGCCCAATTGGCGTTTGTTATAATTTTTGGTACCACTAATGGTTTCTTCAATCCAATCATCTATTAACAGACCTTTCTTCACGCAAAAGTTTGTAATTTCAAATCGCTGGTTCTCTATTGTTTGTTTATCGGAACTCACCCGAATATATCCGTATACCATAATTATCAATTCATTTGTTTTAGCCCCCGCTCACAGCTCGAACGTGAGTGCTTGCCAATCGGGGTGCACGATGGACAAAAATTACAACGTTTCTTTGCTTTTATCTATATATTCCTTGCAAAACTGGTGGTCTATTACCGCCTCTACATTCAGCGTTTTTGCCGATAGCAAGGTCATTGTATAAGGAGGTAATTCTTTATCCTCATCAGCTACACGGATATAAGTTTCATAAAACGCCTCGCTTAGTACTTTTGCCTCTTCAGCATTAGGTGCTTTCACTAAAAAACGCATTGGGTAAGACTCTTTATTTACCATTATTTCTACCTCTATCTGATAAAACTTATTTTGATCCTCATCGCTGTTTTTCTTTGCCAACGATACAAGGGTAAAATACTGCTGCTCTTTGAGCGATTTTATTTCATAAAAACCAATGTAATTTTGTTCTATGTAGTCAGTGATAATTATCCTCGCTACATCTATACTGTTAGCATATAGGTAGAATGTTCTTTTTTTTCGAGAGATTTCCACTACTGCTATCCATATAGTACTGTTGCCTAATACAGTATCTGCAGTGCGTTGTATTGAACTTAATCGTACATCTTCAATGTTAAGTTCCCCACTCTTGATAAAGAAGTCTATGGTTTGAAAATTCTCATCATTTAATTCTTCGCCCTTAGAAATAATGAGTTCTTTTCGTTCTATGGTTACGATTTCCCCAGTATCCTCGTCTGTAAAATCTTCTTCCCAACGTCTGTAAAGACTATTCATTAGATACTTAGATTCTTTGTCCTTCAATAATGAGAGGTCGTTGGAAGTCATTATTTTCTCATTAAATCGGCTTACTGTTTCTTTTTTCATTTTAATAATATTTTCCTTGTAAATTGTTCACTTGCTTTTCTATCTCATTGAGATACGCCAAATCGTCAGGCGTTGGCAGGTATATACCCGCTTCCTTGCTGGCGTAATCTCTGAAATTATCAATGGCGGTTGTCATTTCCTTTGTATTCAAACTCGCTGTACTTCGCCACGCATCTCGTATCTCACCCGTTTTGCGGTTAGCGTATTCAGTTCTGAATATCTGAGGGTTTACAATCTTCTTAAACATCTCTTGTTTCACGTATTCGGGAGTTTCTCCATATTCTAATGCGAACCACGCAAAGAGGAGGTGAATGTAATTGTTCTGTGAGTAGGTGCGTTTAGGCTTCTTTTCGGTAATTTCAAAAGTCTTTTTCTTTTCGATAAGAAACGCTAAACGCTCCTTTGCCCGCTGTATATCAAACTCGTTGCTTGCGTTGAAAATCATAGTTTATTATCTTTGAAAGCAAGGCAGGAATCGAACCTGCTACTATCCCGATTGATACTTGCTTTTTGTTGTGTTAATTACCTAACGTTCGCGAAACTCCGCTATTAATTCCTTTGTTTTTTCATACACAACCTCGCCGTTTTCCGTAACTTTACTAACGTAATAATCTATTCCATTTACACTGTCAGGTTCTTCATCTTCAAGATATTCAAACGGACTTTCTTCAAAAATATCCATTGCTTCTTCATAGCTTTCTGCTTCTACAACCGCTGTGTACTCACTTTCTTCCACGTGGCTAAATTTAATTACATACTTTTTCATTTTTTATTTATTTTAAATTGTTTTCTAAAAAGGCATTCCGTCATCTTCTTGAGCGGGTGCTTGTCCCATATTGTTAAACATTTGCCCCTGCTGATATTGTGGTTGCCCTTGTTGTGGTGGGTGTGCTTGCGCTTGTTGAGGCTGCTGCTGTTGCGCTACATTCGTGGTTTGAATGAGTTCAATTTTCCAACCCTCAATTGTGTTGAAGTACTTAACCTCGCCTTGCTGGTTTGTCCACTCTCTACTGCGTAAGTTAAAATGTACCCTTACATTCTGACCTACTTTCAAATTGTTGAGCAAATCACAACGCTGTTGCGTGAATTGTATGAGAATATCATTAGGATATTGCTCTTCTGTGGTGATTACCAAATCACGCTTTTGAAAGCCATTTTGCCCTACTGTTTCGGGGGCAAATATTACTTTAATTCGTCCTTGTATTTCCAT

Protein sequences of DBSCAN-SWA_3

>LR134489|1295941:1305357|1302635_1303289_-|VEI53930.1|DBSCAN-SWA
MVYGYIRVSSDKQTIENQRFEITNFCVKKGLLIDDWIEETISGTKNYNKRQLGKLLKKVKKDDIIICSELSRLGRNLFMIMEILNICMTKECRVWTIKDNYRLGDDIQSKVLAFAFGLSAEIERNLISQRTKEALARKKAEGMVLGRQRGFRCRLNQKCTDKHEWIVKELEKGTQKKIIAKKLKVSKTTFYRYLVYTDLYTPVNCQQEGWKEYGIYH
>LR134489|1295941:1305357|1295941_1296466_-|VEI53912.1|DBSCAN-SWA
MKTIQELVPLIQEWAKEREIYEKITRFNQLLKTHEEVGELIKACYDNDKPAIQDAIGDVMVTLINYCYKERIDVLEQINDVLNFESKRGYIKVQLALNIQDSLNRLMHANFRLLGIGGETPFLYFYEITSIIGYLDDIAFLGNTTLDECLNIAYNEIKNRTGKIINGKFIKNEK
>LR134489|1295941:1305357|1296776_1297880_-|VEI53916.1|DBSCAN-SWA
MKIIDLFSGIGGFSLGFQRAGYQFTEHYFSEIDKHAIANYKNNFPHAKYIGDITSIHGGDFTDIDIITFGSPCQDFSLAGKRAGLAGAKSSLIEHAIALIAHIRPGLFIWENVKGTFSSNARADFWAILQAFANIGGYTIEWQLLNTSWLLPQNRERIYLIGHLAGRSVPRVFPIGENDFVPTTKSKSQSQTQISGTIKSNGNMNQDDTYIIPKKAGTLTGGGKSGGLHSDMTVIQINPSTESNGRQPYQQNRVYDERGVSPALTRNNSDFIIKQRPRGKNKGADLTICPTISSNAFQENNLLGGIRRLTEIECERLQGFPDNWTQYGNYDGTIKPIAKTQRYKLIGNAVTVDIVELIAKRLKITTQ
>LR134489|1295941:1305357|1304673_1304913_-|VEI53936.1|DBSCAN-SWA
MKKYVIKFSHVEESEYTAVVEAESYEEAMDIFEESPFEYLEDEEPDSVNGIDYYVSKVTENGEVVYEKTKELIAEFRER
>LR134489|1295941:1305357|1303370_1304147_-|VEI53932.1|DBSCAN-SWA
MKKETVSRFNEKIMTSNDLSLLKDKESKYLMNSLYRRWEEDFTDEDTGEIVTIERKELIISKGEELNDENFQTIDFFIKSGELNIEDVRLSSIQRTADTVLGNSTIWIAVVEISRKKRTFYLYANSIDVARIIITDYIEQNYIGFYEIKSLKEQQYFTLVSLAKKNSDEDQNKFYQIEVEIMVNKESYPMRFLVKAPNAEEAKVLSEAFYETYIRVADEDKELPPYTMTLLSAKTLNVEAVIDHQFCKEYIDKSKETL
>LR134489|1295941:1305357|1304148_1304592_-|VEI53934.1|DBSCAN-SWA
MIFNASNEFDIQRAKERLAFLIEKKKTFEITEKKPKRTYSQNNYIHLLFAWFALEYGETPEYVKQEMFKKIVNPQIFRTEYANRKTGEIRDAWRSTASLNTKEMTTAIDNFRDYASKEAGIYLPTPDDLAYLNEIEKQVNNLQGKYY
>LR134489|1295941:1305357|1298310_1299129_-|VEI53920.1|DBSCAN-SWA
MKILETIVKVGELTSLEIAKIGHQYLRIRDYNRKEVRIQEAFGYLFAHIATFVGLKGEIDPLQKNEIWNAVFNRFSGLSFQEIYKAFQMDRSGEFGNTTEHIQFFDVSYVCTVLGKYRQWLQDTQRMHNINISQLPEKKNTMTEEEKENNVIRWLNEHFEGYKEKKELPMLSVPIYDTLYQRGILQPYFATLTEKDKQLMRAETEKRLRQEQNKAKDKQEYSAIRALIEHFQNSTNDPDGKIRRFKKEDTLKFFYNHLITQGKELSELLTSK
>LR134489|1295941:1305357|1300912_1302211_-|VEI53926.1|DBSCAN-SWA
MNEYQKFLQQKQKAKEHKGFTPLPMNPKLFPFQQHIVAQNVMKGKHAVFADCGLGKTVMELETATQIVRYANKPVLIIAPLVVVAQTKREAEKFGFDLDKVTITNFENLHNINPQEYAGLIVDESSIMKNFEGQIKKQLFEYFHNTPYKFAFTATPSPNDPMELANHSEFLGYQSRLGMLATYFINDQDHTSKWRLKGHAVEKFYQFVSDWAIMLTNPADIGYPMQGYDLSEVIYKEHQIITQNDFSNGLLFPDMAVSATDFNKELRRTKEQRIAKAIEIANADDEPHIVWVKLNDESKEVTAGIRGVVEVSGKDEPEEKAQKLLDFVDGKYRVLVTKPQIAKYGLNFQHCLHQTFMSPDFSFEGFYQAVRRSHRFGKKGDVTVNIITTDTMQNVMSTIKEKEIQFKQMQQLMIKNQEICKHLHSEPYTAIA
>LR134489|1295941:1305357|1299070_1299973_-|VEI53922.1|DBSCAN-SWA
MERETFVFYKDWLNVIRDLPSEVQLEVYQAITEYAIYGNLIELKPLAKVAFGFVKQTIDRDTQKYISIKEKRKEAGAKGGRPLKINELEESKEKQKKQLVFEKSKKSKSPLNVNVNDNVNVNDFSLLEKEKQKSVCVEFGEGEKKEQPLNAKKETSLQVAPAPPPFNFRKAMLSEGFAPELVDEWLKIRKAKKAVNTERAFNNFINQVRLTRQDINAVLNIVVQKQWKGFEADWLHNTQAPHQTSNNQIFLDENGNIITNAESYGQQSTVGKPPYFAGRQTIENIRNNSQGWGTHIIGDS
>LR134489|1295941:1305357|1300079_1300955_-|VEI53924.1|DBSCAN-SWA
MQTPTFRAIHGDCVEEVAKLPTDSIDFSIFSPPFAELYVYSDDIRDMGNCQDYEEFFVHFQFLVKELARVVKSGRLIAIHCMDLPAMKGKDGYIGLKDFSGMIIQSFQKEGFIYHDRITIWKSPVVEMTRTKSIGLLHKTIKKDSSMSRTGIPDYILVFRNAGDNLVPITHQDTDEKQENYLPVSLWQKYAEPVWYDINYSDTLQYTSARDEKDEKHICPLQLETIRRCLHLWSNEGETVLSPFGGIGSEGHESLRLKRNFIGIELKPSYYNQMQKNLQRMIDDLNQTTLF
>LR134489|1295941:1305357|1296462_1296780_-|VEI53914.1|DBSCAN-SWA
MKKQSSQEREAVELFEYAARNLIKEFCHKQDLQFEFDNYDVGIGIICLSDYFFNIEDIYYDMKNDKPNGKILQWYDYVLTHESNINYRSYCMGMREELKTKKSNK
>LR134489|1295941:1305357|1302274_1302631_-|VEI53928.1|DBSCAN-SWA
MFEKRFYMKTLYKSIIETAEQAGIKVLSDARCCQLLAWVLEIGGYTEESTHNFKLNQDIHIAQKRLNILAGETPNTELVTIFKKYHSELLNYLNKKTKKPQWLIDFENYYKLKPYKNN
>LR134489|1295941:1305357|1297879_1298290_-|VEI53918.1|DBSCAN-SWA
MNKSNNNKFITELRARGLQVTPQEARNLMNIAIAEHDKAVVMPVLKREKIAHYAILALSYADSLNELMYGIDDTKFSHEFKRSFRQLKHFSGEAVKQFKKTMKDDKVLIDAFESYSNDLSEMIYQHLDVINEKYKE
>LR134489|1295941:1305357|1304937_1305357_-|VEI53938.1|DBSCAN-SWA
MEIQGRIKVIFAPETVGQNGFQKRDLVITTEEQYPNDILIQFTQQRCDLLNNLKVGQNVRVHFNLRSREWTNQQGEVKYFNTIEGWKIELIQTTNVAQQQQPQQAQAHPPQQGQPQYQQGQMFNNMGQAPAQEDDGMPF

Homologous phage analysis in the prophage region

Protein_ID	Protein_Def	Hit_ID	Hit_Def	E-value	Identity
VEI53912.1|1295941_1296466_-	Uncharacterised protein	B3GVZ0	Streptococcus_phage	3.8e-09	29.7
VEI53914.1|1296462_1296780_-	Uncharacterised protein	NA	NA	NA	NA
VEI53916.1|1296776_1297880_-	Modification methylase HaeIII	A0A1B1IVS4	uncultured_Mediterranean_phage	4.1e-45	29.0
VEI53918.1|1297879_1298290_-	Uncharacterised protein	NA	NA	NA	NA
VEI53920.1|1298310_1299129_-	Uncharacterised protein	NA	NA	NA	NA
VEI53922.1|1299070_1299973_-	Uncharacterised protein	F5A3F1	Riemerella_phage	5.0e-17	50.0
VEI53924.1|1300079_1300955_-	putative methyltransferase	A0A218M7A5	Flavobacterium_phage	2.8e-105	62.0
VEI53926.1|1300912_1302211_-	SNF2 family N-terminal domain	A0A218M7A5	Flavobacterium_phage	3.6e-93	44.7
VEI53928.1|1302274_1302631_-	Uncharacterised protein	NA	NA	NA	NA
VEI53930.1|1302635_1303289_-	DNA-invertase hin	H2A0H0	Bacteroides_phage	8.2e-102	82.9
VEI53932.1|1303370_1304147_-	Uncharacterised protein	NA	NA	NA	NA
VEI53934.1|1304148_1304592_-	Uncharacterised protein	F5A3F5	Riemerella_phage	2.5e-38	51.7
VEI53936.1|1304673_1304913_-	Uncharacterised protein	NA	NA	NA	NA
VEI53938.1|1304937_1305357_-	Domain of uncharacterised function (DUF3127)	S0A2Y4	Cellulophaga_phage	2.5e-27	59.3

Sequences of DBSCAN-SWA_4

Nucleotide sequences of DBSCAN-SWA_4

>LR134489|1422012:1429098|DBSCAN-SWA
AATGACAAAAAGAGCTACAATTTTTCTAACTGGAGGCACTGGAATGGTTGGAAGTAATATCCAAGAACATCCTAAAAGCAATGAATATACATTGCTTGCTCCTACAAGCAAAGAAGTAGACCTCACCTCCTATGAGCAGGTGAATCATTACATAGCCAATAATCAACCTGATATTATTATTCACTCTGCTGGATTGGTAGGAGGTATTCAAGCTAATATCAAAAATCCTGTAAACTTCTTGGTAAAGAACTTACAAATGGGGCTTAATGTAATCCTTGCTGCTCAAGAAAACAATGTAAAACAACTCCTCAACTTAGCAAGTTCGTGTATGTACCCACGTAATATGGAAATAGGACTTACAGAAGATATGATCCTTAAAGGGGAATTAGAACCTACAAACGAAGGTTATGCTATCGCAAAAGTAGTAGCAACTCGCTTGTGTGAATATATGAATAGAGAGAGTCCTGAATGGCAATATAAAACAGCAATCCCTTGTAATCTCTATGGTAAATATGATAAATTCGATCCAGCTCATTCTCACATGGTACCTGCTGTAATTCGTAAAATATATGAAGCTAAACAAAAAGGCATAAAAGAAGTAGAAATTTGGGGAGATGGACTTTCTAGACGTGAGTTTATGTACGCTGGTGATTTAGCCGATTTCGTCTTCTATGCCTTAGAAAATTTTGATAAAATGCCTCAAAACCTCAACGTTGGCTTAGGAACTGATTATACCATCAATGAGTACTACCAAACTATTGCTAAAATTATAGGATATGAAGGCTCTTTCATTCACGATCTTTCTAAACCTATGGGAATGAAAAAGAAAATGGTTGATAATACTCTACTTACCGCTTTTGGTTGGAAACCTAAAACATCTTTAGAAAACGGACTCAAACAAACATTAGAATATTTTAAAAATACAATCCTATGATAAAATATCCATTAGCATCGTCTACTTGGGACGAAAAAGAAATTGAAGCAATTAATAGTGTGATTGCTAAAGATATGTACACTATGGGCGAAGGTGTAAAACAATTTGAAGACGACTTCTCAAAGTTTTTTGGCTCTAAATATAGTGTAATGGTCAACTCAGGATCCTCTGCAAACCTCATCGCTGTCGCAGCTTTGTTCTATACTAAAGAACCTAAGTTAAAAAGAGGAGATGAAGTAATTGTACCCGCCGTTTCTTGGTCTACTACTTTCTATCCTTTGTACCAATACGGATTAAAATTAAAGTTTATCGATGTAGATTTACACACCTTAAACTTCGATTTAGAGCAACTAAAAGCTGCTATCTCTGATAAAACTAAAATGATCTTAGCTGTAAACCTTTTAGGAAACCCTAATGATTTTGATGCTATTAAAGAAATCATAGGCAATAGAGATATATTGCTTATGGAAGACAACTGCGAATCTATGGGGGCTACTTACAATGGGAAATTTACTGGAACTTTCGGTATAATGGGTACCTTCTCAACTTTCTATTCTCATCACATGGCTACTATGGAAGGTGGGGTAGTTTGCACCGATGATGAAGAACTATACCATATCTTATTGTGCCTACGCGCTCACGGGTGGACTCGCCACTTACCTAAAGAAAATAAAATTTCTAACAAAAGTGATAATTGGTTTGAAGAATCCTTCCGTTTTTTACTACCTGGTTATAATGTACGCCCCGTAGAAATGAGCGGAGTGATTGGAATAGAACAACTCAAAAAACTACCTGCTTTTTTAGAACAACGCCGCAAAAATGCCGAACTTTTTGTTTCTCTGTTCAAAGATAATCCTACTTTCTACATACAAGAAGAAATAGGAAACAGCAGTTGGTTTGGTTTTAGCCTTATTATCAAGCCAAATGCTAATGTCAATAGACTCGCTATTGTTAAAAAATTAGAAGAGAATGGCATCGATTGTCGTCCTATTGTTACAGGCGATTTTACTAAAAATGAAGTGCTTAAATATTTTGACTACGAAATATTTGGCAAAGTGAAAAACGCTAATTATTTAGACACTAAAGGACTTTTCGTAGGTAATCACCAAATTGATTTAACTAAAGAAATTAAACACTTGTATAACGTTTTAAAAGAGTTTTAATAGCTATGAAAAAAGCACTTATTACAGGGATTACAGGACAAGACGGCGCTTACCTCGCTGAGTTCCTACTCAAAAAAGGATATGAGGTGCATGGTATGAAACGCCGTTCATCCCTCTTCAATACCGATAGAATTGATCACCTTTATCAAGACCCTCATGCAGAGGATTTGAAATTACTACTTCACTATGGTGACCTTACCGATAGTATGAATATCACACGCCTTATCCAAGAGGTACAACCCGATGAAATCTACAACCTCGCTGCGATGAGTCACGTACACGTGAGTTTCCAAACACCCGAATACGTAGGCAACGCCGATGGTCTGGGCACCTTGCGCATCCTCGAAGCTGTACGCCTCTTGGGACTTACGGAAAAAACGCGTATCTATCAGGCTTCTACTTCTGAACTTTACGGTTTGGTACAAGAAGTACCTCAAAGTGAACGTACTCCTTTCTATCCGCGTTCGCCTTATGCAGTCGCTAAATTGTATGCCTATTGGATTACTGTGAATTACCGCGAAGCCTATAATATGCATGCCTCTAATGGTATCCTCTTCAACCACGAATCTCCTATACGTGGGGAGACTTTCGTAACCCGCAAGGTAACCCGCGCTCTCAGCAGGGTAGCATTGGGTATGCAGGATAAGTTCTATATGGGTAACCTCAGCTCTCAACGCGATTGGGGGCATGCCAAAGACTATATCAAGGCGATGTACCTCATCTTGCAACAACCCGCCCCTAGTGATTATGTAATCGCTACAGGTATCACTACCGCCATCCGCGATTTTATCACAATGGCTGCCAGAGAAATAGGTCTCACTATCGAATTTAAAGGCGAAGGCGTAGACGAAAAAGGCTATATCACAGCAGTAGATACTTCTATTTTCAGCGAAAAAGTAGGTGAAAAGTACCTCAGTGCTATACGCGAACGTATTGCCAATAACCCCGAAGTAGTGAATGTAGACCCTCACTATTTCCGCCCTACCGAAGTAGATTTGCTCATTGGTGACCCTACCAAATCGCAAACTGTTTTAGGATGGAAACCTGAGTATGACCTCAAAGGATTAATTGAAGATATGATGCGCTCAGATATCAAACTCTTCAAACGCGATGCTTACCTCAAAGAAGGTGGCTTTACAATAATGAATTACTTTGAATAACAATGGATAAAAACGCTAAAATATATATTGCAGGACACAAAGGGTTAGTGGGTTCTGCTATTTGGAAGAATCTTTCTCAAAAAGGATATACCAATTTGATAGGCAGAACCAGTGCCGAACTCGACCTACGTGATGCACAAGCTGTCGCTCAATTCTTTAAAGATGAAAAACCTGAGTATGTCTTCTTGGCAGCAGCCAAAGTAGGCAGCATTATGGCTAACAACACCTATCGCGCCGATTTTATCTACGAAAACCTGATGATTCAAAACAATGTGATTCATTCGGCTTACGAAAATAAGGTGAAAAAATTACTGTTCTTAGGGAGTACTTGTATCTACCCAAAAGAAGCGCTTCAGCCTATGAAAGAAGACTGTTTGCTCACTTCTCCGCTGGAATACACCAATGAACCCTATGCTATTGCCAAGATTGCAGGTATCAAGTTATGCGAGAGTTACAACCTGCAATATGGCACTAATTATATTGCTGTAATGCCCACCAATCTCTATGGACCTAATGATAATTTTCACCTCGAAAATTCTCACGTATTGCCAGCAATGGTACGCAAAATACACTTAGCCAATGCCTTGCTTAAAAATGATTGGGAAGCAGTAAAAACAGACCTCAACAAACGCCCCGTAGAAGGTGGGTGTTACAGGTGAAAGTAGCAAAGAAGCTGTACAAACCATTTTAGCTAAATATGGCATCACCGATAAAAAAGTAACTTTATGGGGTACTGGCACGCCTTTGCGCGAGTTCTTGTGGAGTGAAGATATGGCAGATGCTTGTGTGTTTCTAATGGAACGCATCAATTTTAAAGATACTTACCCCACCAATACCAAAGAGGTGCGCAATACGCACATCAACATTGGTACGGGCAAAGAGATTTCTATCAAAGAGCTTGCTTATATGATAAAAGAGACCATTGCCTATCAAGGAGAAATAATATTCGATAGTACCAAACCCGATGGTACAATGCGTAAACTCACCGACCCAAGCAAACTACACCAACTCGGTTGGCAACACGCCATCGAACTACAACAAGGCATAAAACTGATGTACGAACATTATTGCAATTCTTAATAATTAACGTGAGTTCGACGTTCTGTTATATCGAACTCACGTTATTTATCAATTTTTGTTGTATTCTTAGGAACTAATACCTAAATTCCTCCCAACCATATTGCCAATATTGGGGTTTAGGGATAAAATCACCTACTCCTTCATCAAAATCATCTGAGCAAGGAATACGATATATTCCCCAAGAGGCTATAGAGGCTTTTTTAGTTTTATAGCTCGTCCAAGTGCCAAAAAATTGATAGTTTCTTTCACTATCCCTATTGAAGGGGAGAAAATAAACGGGTGCTGCATTTACCTTTTTGAGCCACATTACAATCATCTTTCCTTTAAAAACGCCAGTAGCTGTAAGATTTTCATCTTCTGCTAATTCATAAGAAAAAGTTGAATATCCTACTATTTCTCCCTTTTTAGGAAGAGGAACATCAACAGTATGTTCTGCAAATTTGTAATGAGACCGCAAAGAGAAAGTTCCTTTGAAAGTCCGTTTGTTTTGGTTCATCACAGTACTAAAGCCTTCTACCTCATATACATCCTTGTTTTCTTCACTCTTTTTTATGGAAGTGAAAGTGATACGTAACCTTTTATAATTAGTTCCTATAAATCCTAAAAAGTTGCTTTTTTCAGCATTTAATACTTTCTCCATATCAAGAGGAGCAGTATATTTTTTATAAGGGATATCATAAGTTGTTTCCTTTACAACATCCTCAAAAGTACAAGGTTGTGCATACATCGCGCTACATAGCAGCACTAATGTATAACAAAACCATCTGTTTAATAATTTCTTCATATTTTTCAGCTGCTTTTTTATTTGAAATTATTCCCGAAATCGATACTCTTCTACTAAACTATCGATATATCTATCCTGTAACCTATGGATTTCTTGCTCTATTTCATCTGTAACAGTATATGTTTTTCTTATTGACCATTTGCCATTTTCTAAAACATAAGCATCTTCCTTATAAGGATATTTAGGATTATAAGAAGTCTCTAAATCTGGTGTATATTCCAAATATTTTTTTGGAATAATAAAAACAACAGCATTGAAATGTTGGTTGAGTTCTTCTATTGATAATGACATTATTTCTTTTCTTATTTTATCTTTACACACTTCTTCACCATTACATTTAGATGCAATGATAAAAGTATCAAATCGATTTGTCTTAGGAATTAGAATAACATTCGCATTTCCTAATTCATTTTCTTCATAAGGACATCCATAGTATGGAATTTGATAGTAACCATCTCTGGGATAAAACTCATCACACTTAAAGATTTTATACAACTTTTTTTATTTATATGAATAGTGTCGTTTTTATTTTCTATAAATGCTTGGTAATCGTCATTTACTTTTTGAGTTTGCTCAGTAGGAATTTCATTTGAATTTTGTTTTCTCCTCTCCTTAAACATTCGTTGATTGGGTATGGTGTATAGAGAAAATTCACAAACAAAGCTTGTTAAATAAAGAATTAGCAATATTACAAGCCTTTTCCAACCCATTTTCATAAAGAACAAAGAAAACAGATAAACAAGAGGATAGACCAAGATTATCCAAAAAAAACAAGCGAACAATATTGTCATTATAGCTGAAAATAGATAATCAAAACAGAAACAAGAATTTTCATACCACATTCTATTGAAAAAGCGATGCGCCTGTGGATAATTGTAATATACAATAGTTAAAAATATAAATACCAGAAATAAGACTACTTGTACTTTGTATATATTGCGACTGTATTTTCTTAAAAACATAAATAAAGAGAGTTTGATGTGAGAAATATATAGTTAAACATTCATTAATCTCATAAACAGTTTCGCTATTTATTTAAGCCTCGTACTGATTACACGGATAAATCTGTATTATTGCACGGAGTAGCAGCTGGCGCTGCTGGATTTCACGGAATGGGTTGCAAATATGGTTGCAAGTTAGTGTTTTGTTATATAATGAGGTAAGTTCTTATGAAGTGTAGACATAAAAAAATACGCTCTAAGGCGTATTTTTATTAGGTTTTCCCTTTGGGGTGGAATATGGGGCTCGAACCCACGACCTTCGGAACCACAATCCGACGCTCTAACCAACTGAGCTAAAACCACCGTCTTTATTTTTTCGGGGGCAAAAGTAATACCTTTTTTTGAAACTACCAAACTTTTCATCAAACTTTTTTAGATAAGAAGCAAGAGATAAGAAGGTAAGAAAGTGTATTCTCTTAATTATCAATCGTTAATTGTGATAAGAGTGGGGCTTTTTCATCTTTTGCCGATAGGATAATATCTTTTTCGGGCAGCTGCCAATCTATCGCTATAGTAGGGTCGTTCCAACGTACGCTTCCCTCGCTCTGAGGGGCGTAGTAGTTGTCGCATTTGTACTGAAAAATAGCTTCTTCACTCAGTACGGCAAAACCGTGTGCAAAGCCTTGTGGGATAAAAAACTGTCGTTTGTTTTCCTCACTAAGCACTACCGATTCGTATTGTCCAAAAGTGGGTGAGCCTTTGCGCAAATCTACTGCTACATCTAATACTTTGCCTTTCACAACTCGTACTAATTTGGATTGTGCAAAAGGGGGCTTTTGGAAGTGCAAGCCACGCAATACACCATAACTGGATTTCGATTCGTTGTCCTGTACAAATGTGATGGGGGCTACTTGCTCGTTGAAACGCTGCTGTGAAAACGACTCGAAAAAATAACCTCTGTCGTCAAAAAATACTTGTGGCTCTATAATCACCACGCCTTCTAATTTAGTTTTGATTACTTTCAT

Protein sequences of DBSCAN-SWA_4

>LR134489|1422012:1429098|1428549_1429098_-|VEI54147.1|DBSCAN-SWA
MKVIKTKLEGVVIIEPQVFFDDRGYFFESFSQQRFNEQVAPITFVQDNESKSSYGVLRGLHFQKPPFAQSKLVRVVKGKVLDVAVDLRKGSPTFGQYESVVLSEENKRQFFIPQGFAHGFAVLSEEAIFQYKCDNYYAPQSEGSVRWNDPTIAIDWQLPEKDIILSAKDEKAPLLSQLTIDN
>LR134489|1422012:1429098|1422012_1422945_+|VEI54131.1|DBSCAN-SWA
MTKRATIFLTGGTGMVGSNIQEHPKSNEYTLLAPTSKEVDLTSYEQVNHYIANNQPDIIIHSAGLVGGIQANIKNPVNFLVKNLQMGLNVILAAQENNVKQLLNLASSCMYPRNMEIGLTEDMILKGELEPTNEGYAIAKVVATRLCEYMNRESPEWQYKTAIPCNLYGKYDKFDPAHSHMVPAVIRKIYEAKQKGIKEVEIWGDGLSRREFMYAGDLADFVFYALENFDKMPQNLNVGLGTDYTINEYYQTIAKIIGYEGSFIHDLSKPMGMKKKMVDNTLLTAFGWKPKTSLENGLKQTLEYFKNTIL
>LR134489|1422012:1429098|1422941_1424108_+|VEI54133.1|DBSCAN-SWA
MIKYPLASSTWDEKEIEAINSVIAKDMYTMGEGVKQFEDDFSKFFGSKYSVMVNSGSSANLIAVAALFYTKEPKLKRGDEVIVPAVSWSTTFYPLYQYGLKLKFIDVDLHTLNFDLEQLKAAISDKTKMILAVNLLGNPNDFDAIKEIIGNRDILLMEDNCESMGATYNGKFTGTFGIMGTFSTFYSHHMATMEGGVVCTDDEELYHILLCLRAHGWTRHLPKENKISNKSDNWFEESFRFLLPGYNVRPVEMSGVIGIEQLKKLPAFLEQRRKNAELFVSLFKDNPTFYIQEEIGNSSWFGFSLIIKPNANVNRLAIVKKLEENGIDCRPIVTGDFTKNEVLKYFDYEIFGKVKNANYLDTKGLFVGNHQIDLTKEIKHLYNVLKEF
>LR134489|1422012:1429098|1425270_1425927_+|VEI54137.1|DBSCAN-SWA
MDKNAKIYIAGHKGLVGSAIWKNLSQKGYTNLIGRTSAELDLRDAQAVAQFFKDEKPEYVFLAAAKVGSIMANNTYRADFIYENLMIQNNVIHSAYENKVKKLLFLGSTCIYPKEALQPMKEDCLLTSPLEYTNEPYAIAKIAGIKLCESYNLQYGTNYIAVMPTNLYGPNDNFHLENSHVLPAMVRKIHLANALLKNDWEAVKTDLNKRPVEGGCYR
>LR134489|1422012:1429098|1427159_1427423_-|VEI54143.1|DBSCAN-SWA
MSLSIEELNQHFNAVVFIIPKKYLEYTPDLETSYNPKYPYKEDAYVLENGKWSIRKTYTVTDEIEQEIHRLQDRYIDSLVEEYRFRE
>LR134489|1422012:1429098|1426421_1427132_-|VEI54141.1|DBSCAN-SWA
MKKLLNRWFCYTLVLLCSAMYAQPCTFEDVVKETTYDIPYKKYTAPLDMEKVLNAEKSNFLGFIGTNYKRLRITFTSIKKSEENKDVYEVEGFSTVMNQNKRTFKGTFSLRSHYKFAEHTVDVPLPKKGEIVGYSTFSYELAEDENLTATGVFKGKMIVMWLKKVNAAPVYFLPFNRDSERNYQFFGTWTSYKTKKASIASWGIYRIPCSDDFDEGVGDFIPKPQYWQYGWEEFRY
>LR134489|1422012:1429098|1427533_1428094_-|VEI54145.1|DBSCAN-SWA
MFLRKYSRNIYKVQVVLFLVFIFLTIVYYNYPQAHRFFNRMWYENSCFCFDYLFSAIMTILFACFFWIILVYPLVYLFSLFFMKMGWKRLVILLILYLTSFVCEFSLYTIPNQRMFKERRKQNSNEIPTEQTQKVNDDYQAFIENKNDTIHINKKSCIKSLSVMSFIPEMVTIKFHTMDVLMKKMN
>LR134489|1422012:1429098|1425910_1426348_+|VEI54139.1|DBSCAN-SWA
MGVTGESSKEAVQTILAKYGITDKKVTLWGTGTPLREFLWSEDMADACVFLMERINFKDTYPTNTKEVRNTHINIGTGKEISIKELAYMIKETIAYQGEIIFDSTKPDGTMRKLTDPSKLHQLGWQHAIELQQGIKLMYEHYCNS
>LR134489|1422012:1429098|1424113_1425268_+|VEI54135.1|DBSCAN-SWA
MKKALITGITGQDGAYLAEFLLKKGYEVHGMKRRSSLFNTDRIDHLYQDPHAEDLKLLLHYGDLTDSMNITRLIQEVQPDEIYNLAAMSHVHVSFQTPEYVGNADGLGTLRILEAVRLLGLTEKTRIYQASTSELYGLVQEVPQSERTPFYPRSPYAVAKLYAYWITVNYREAYNMHASNGILFNHESPIRGETFVTRKVTRALSRVALGMQDKFYMGNLSSQRDWGHAKDYIKAMYLILQQPAPSDYVIATGITTAIRDFITMAAREIGLTIEFKGEGVDEKGYITAVDTSIFSEKVGEKYLSAIRERIANNPEVVNVDPHYFRPTEVDLLIGDPTKSQTVLGWKPEYDLKGLIEDMMRSDIKLFKRDAYLKEGGFTIMNYFE

Homologous phage analysis in the prophage region

Protein_ID	Protein_Def	Hit_ID	Hit_Def	E-value	Identity
VEI54131.1|1422012_1422945_+	GDP-L-fucose synthase	A0A1J0F9I6	Only_Syngen_Nebraska_virus	2.5e-59	38.9
VEI54133.1|1422941_1424108_+	UDP-4-amino-4-deoxy-L-arabinose--oxoglutarate aminotransferase	E5ES46	Bathycoccus_sp._RCC1105_virus	5.8e-50	35.3
VEI54135.1|1424113_1425268_+	GDP-mannose 4,6-dehydratase	A0A0E3F1J3	Synechococcus_phage	1.6e-124	62.4
VEI54137.1|1425270_1425927_+	GDP-L-fucose synthase	A0A1J0F9I6	Only_Syngen_Nebraska_virus	4.4e-63	59.4
VEI54139.1|1425910_1426348_+	GDP-L-fucose synthase	A0A1D8KU05	Synechococcus_phage	3.3e-22	41.7
VEI54141.1|1426421_1427132_-	Uncharacterised protein	NA	NA	NA	NA
VEI54143.1|1427159_1427423_-	Uncharacterised protein	NA	NA	NA	NA
VEI54145.1|1427533_1428094_-	Uncharacterised protein	NA	NA	NA	NA
VEI54147.1|1428549_1429098_-	dTDP-4-dehydrorhamnose 3,5-epimerase	I7HJC4	Enterobacteria_phage	1.7e-47	55.3