verdv-g2x1l1

Verticillium dahliae (strain VdLs.17 / ATCC MYA-4575 / FGSC 10137) (Verticillium wilt) Axe2

Comment

Relationship

Family : Acetylxylan_esterase

Block : X

Position in NCBI Life Tree : Verticillium dahliae

Molecular evidence

No mutation

No structure

No kinetic

No disease

No substrate

No inhibitor

Database

DS572700

G2X1L1

Sequence

Peptide

MRTLLTPWAL ALALPQALAQ QACAPVNIIV ARGSTEQPGV GLMGSISSAA AQQIPGAVVT PLDYPAQLNP YPPSVAAGVV SMTDLLTQQT AACPQTRLVV MGYSQGAHVA LDTLCGSSLN GFTPSAAQAS AVGASIAAVI LAGDPTFVPG LPSNRGTSQD AGIFQTRDMT QCGDVPAKTL SFCDTNDRFC AGGDSIPVHL SYFGNAAYVA EAVEFVVASV GAGASNGTTG AAVRRRWARE AARLPRD

References

Title : Comparative genomics yields insights into niche adaptation of plant vascular wilt pathogens - Klosterman_2011_PLoS.Pathog_7_e1002137

Author(s) : Klosterman SJ , Subbarao KV , Kang S , Veronese P , Gold SE , Thomma BP , Chen Z , Henrissat B , Lee YH , Park J , Garcia-Pedrajas MD , Barbara DJ , Anchieta A , de Jonge R , Santhanam P , Maruthachalam K , Atallah Z , Amyotte SG , Paz Z , Inderbitzin P , Hayes RJ , Heiman DI , Young S , Zeng Q , Engels R , Galagan J , Cuomo CA , Dobinson KF , Ma LJ

Ref : PLoS Pathog , 7 :e1002137 , 2011

Abstract : Klosterman_2011_PLoS.Pathog_7_e1002137

ESTHER : Klosterman_2011_PLoS.Pathog_7_e1002137

PubMedSearch : Klosterman_2011_PLoS.Pathog_7_e1002137

PubMedID: 21829347

Gene_locus related to this paper: vera1-c9srn2 , vera1-c9sn46 , verdv-g2wq49 , verdv-g2xca2 , vera1-c9sea3 , verdv-g2wzn4 , vera1-c9sek2 , verdv-g2wym5 , verdv-g2x5f3 , vera1-c9sx20 , vera1-c9sw01 , verdv-g2x1l1 , verdv-g2wuv4 , verdv-g2xaw5 , verdv-g2wsb2 , verdv-g2wty6 , vera1-c9si59 , verdv-g2xdu9 , vera1-c9s818 , verdv-g2xdr1 , verdv-g2wsw7 , verdv-g2wvq8 , 9pezi-a0a0g4li73 , vera1-kex1 , verdv-g2x8m5

verdv-g2x1l1

Comment

Relationship

Molecular evidence

Mutation (0)

Structure (0)

Kinetic (0)

Disease (0)

Substrate (0)

Inhibitor (0)

Database

Genbank (1)

Interpro (1)

Pfam (1)

UniProt (1)

PIRSF (1)

SUPERFAM (1)

Sequence

Peptide

References

Comparative genomics yields insights into niche adaptation of plant vascular wilt pathogens