Query         046153
Match_columns 81
No_of_seqs    102 out of 206
Neff          4.1 
Searched_HMMs 46136
Date          Fri Mar 29 09:13:06 2013
Command       hhsearch -i /work/01045/syshi/csienesis_hhblits_a3m/046153.a3m -d /work/01045/syshi/HHdatabase/Cdd.hhm -o /work/01045/syshi/hhsearch_cdd/046153hhsearch_cdd -cpu 12 -v 0 

 No Hit                             Prob E-value P-value  Score    SS Cols Query HMM  Template HMM
  1 PF01439 Metallothio_2:  Metall 100.0 2.1E-34 4.5E-39  185.3   5.4   67    1-78      1-69  (74)
  2 PF01439 Metallothio_2:  Metall  92.4   0.078 1.7E-06   34.3   1.5   14   11-24      2-15  (74)
  3 KOG4738 Predicted metallothion  91.4    0.22 4.8E-06   30.3   2.5   25    8-32      7-32  (51)
  4 PF02067 Metallothio_5:  Metall  85.3    0.51 1.1E-05   27.6   1.2   14    8-21     17-30  (41)
  5 PF05522 Metallothio_6:  Metall  84.8    0.46   1E-05   30.2   1.0   19    9-28     41-59  (65)
  6 PF03940 MSSP:  Male specific s  34.5      45 0.00098   19.9   2.3   19   10-28      8-26  (48)
  7 TIGR03601 B_an_ocin probable h  27.8      60  0.0013   21.2   2.2   21    7-27     44-65  (79)
  8 PF02068 Metallothio_PEC:  Plan  24.3      56  0.0012   21.3   1.6   22    8-30      2-23  (76)
  9 PF15193 FAM24:  FAM24 family    22.9      32 0.00069   22.1   0.3   12   23-34     45-56  (69)
 10 PF09791 Oxidored-like:  Oxidor  21.2      44 0.00095   19.7   0.6    8   20-27     19-26  (48)
 11 PF01754 zf-A20:  A20-like zinc  21.1      45 0.00097   17.3   0.6   11   71-81      3-13  (25)

No 1  
>PF01439 Metallothio_2:  Metallothionein;  InterPro: IPR000347 Members of this family are metallothioneins. These proteins are cysteine rich proteins that bind to heavy metals. Members of this family appear to be closest to Class II metallothioneins.; GO: 0046872 metal ion binding
Probab=100.00  E-value=2.1e-34  Score=185.34  Aligned_cols=67  Identities=60%  Similarity=1.065  Sum_probs=61.3

Q ss_pred             CCc-cCCCCCCCccCCCCCCcCCCCCCCCcCCCCCCCcCCCcccceEEEeecCCccchhhhhcccC-CCCCCCCCCCCcc
Q 046153            1 MSC-CGRNCGRNCGCGSSCKCGSDYNVCRMYPDLSYSENPTTTIDILVLGDAYAKMNYEVSEMGFG-AEGDCKCKFYKNF   78 (81)
Q Consensus         1 MSc-cg~~~~gnCgCGs~C~CGsgC~gCkMyPDl~~~E~ttt~~~tlVlGVAP~K~~~egse~~~~-~e~GCKCGsnc~~   78 (81)
                      ||| ||    +||+|||+|+||+     ||||||+|+|++||  +||||||||+|.+||++||+++ +++|||||+||+=
T Consensus         1 MsC~Cg----gnCgCGs~C~Cg~-----kmypdl~~~~~ttt--~t~V~GVAP~k~~~eg~E~~~~~~~~GCKCGsnC~C   69 (74)
T PF01439_consen    1 MSCGCG----GNCGCGSGCKCGS-----KMYPDLEESETTTT--ETLVLGVAPQKGHFEGSEMGAGAGGNGCKCGSNCTC   69 (74)
T ss_pred             CCCcCC----CcCCCCCCCCcCC-----ccccchhccccccc--eeEEEeeCCCcchhhhhhhhhcccCCCCCCCCCCcc
Confidence            899 99    9999999999998     99999998887766  9999999999999999999877 5579999999973


No 2  
>PF01439 Metallothio_2:  Metallothionein;  InterPro: IPR000347 Members of this family are metallothioneins. These proteins are cysteine rich proteins that bind to heavy metals. Members of this family appear to be closest to Class II metallothioneins.; GO: 0046872 metal ion binding
Probab=92.44  E-value=0.078  Score=34.28  Aligned_cols=14  Identities=57%  Similarity=1.633  Sum_probs=13.0

Q ss_pred             CccCCCCCCcCCCC
Q 046153           11 NCGCGSSCKCGSDY   24 (81)
Q Consensus        11 nCgCGs~C~CGsgC   24 (81)
                      +|+||++|+|||+|
T Consensus         2 sC~CggnCgCGs~C   15 (74)
T PF01439_consen    2 SCGCGGNCGCGSGC   15 (74)
T ss_pred             CCcCCCcCCCCCCC
Confidence            58999999999998


No 3  
>KOG4738 consensus Predicted metallothionein [Inorganic ion transport and metabolism]
Probab=91.36  E-value=0.22  Score=30.28  Aligned_cols=25  Identities=40%  Similarity=0.854  Sum_probs=19.8

Q ss_pred             CCCCccCCCCCCcCCC-CCCCCcCCC
Q 046153            8 CGRNCGCGSSCKCGSD-YNVCRMYPD   32 (81)
Q Consensus         8 ~~gnCgCGs~C~CGsg-C~gCkMyPD   32 (81)
                      .+++|.||++|+|... |..|+.+.+
T Consensus         7 ~g~~C~Cgs~CkC~~~kC~sC~k~~~   32 (51)
T KOG4738|consen    7 KGGSCTCGSSCKCSDCKCTSCKKSCC   32 (51)
T ss_pred             CCCccccCCccccCCCccCCcCCccc
Confidence            3499999999999877 766776643


No 4  
>PF02067 Metallothio_5:  Metallothionein family 5;  InterPro: IPR000966 Metallothioneins (MT) are small proteins that bind heavy metals, such as zinc, copper, cadmium, and nickel. They have a high content of cysteine residues that bind the metal ions through clusters of thiolate bonds [, , ] species, including sea urchins, fungi, insects and cyanobacteria. Class III MTs are atypical polypeptides composed of gamma-glutamylcysteinyl units. This original classification system has been found to be limited, in the sense that it does not allow clear differentiation of patterns of structural similarities, either between or within classes. Consequently, all class I and class I MTs (the proteinaceous sequences) have now been grouped into families of phylogenetically-related and thus alignable sequences. Diptera (Drosophila, family 5) MTs are 40-43 residue proteins that contain 10 conserved cysteines arranged in five Cys-X-Cys groups. In particular, the consensus pattern C-G-x(2)-C-x-C-x(2)-Q-x(5)-C-x-C-x(2)-D-C-x-C has been found to be diagnostic of family 5 MTs. The protein is found primarily in the alimentary canal, and its induction is stimulated by ingestion of cadmium or copper []. Mercury, silver and zinc induce the protein to a lesser extent. Family 5 includes subfamilies: d1, d2. Only one d2 is known until now. Subfamilies hit the same entry.; GO: 0046872 metal ion binding
Probab=85.34  E-value=0.51  Score=27.64  Aligned_cols=14  Identities=57%  Similarity=1.626  Sum_probs=10.2

Q ss_pred             CCCCccCCCCCCcC
Q 046153            8 CGRNCGCGSSCKCG   21 (81)
Q Consensus         8 ~~gnCgCGs~C~CG   21 (81)
                      |++||+|++.|+|+
T Consensus        17 cg~~C~C~~dC~C~   30 (41)
T PF02067_consen   17 CGGNCACNQDCKCV   30 (41)
T ss_pred             cCCCccCCCCcccc
Confidence            44778888887775


No 5  
>PF05522 Metallothio_6:  Metallothionein;  InterPro: IPR017980 Metallothioneins (MT) are small proteins that bind heavy metals, such as zinc, copper, cadmium, nickel, etc. They have a high content of cysteine residues that bind the metal ions through clusters of thiolate bonds [, ]. An empirical classification into three classes has been proposed by Fowler and coworkers [] and Kojima []. Members of class I are defined to include polypeptides related in the positions of their cysteines to equine MT-1B, and include mammalian MTs as well as from crustaceans and molluscs. Class II groups MTs from a variety of species, including sea urchins, fungi, insects and cyanobacteria. Class III MTs are atypical polypeptides composed of gamma-glutamylcysteinyl units []. This original classification system has been found to be limited, in the sense that it does not allow clear differentiation of patterns of structural similarities, either between or within classes. Consequently, all class I and class II MTs (the proteinaceous sequences) have now been grouped into families of phylogenetically-related and thus alignable sequences. This system subdivides the MT superfamily into families, subfamilies, subgroups, and isolated isoforms and alleles.  The metallothionein superfamily comprises all polypeptides that resemble equine renal metallothionein in several respects []: e.g., low molecular weight; high metal content; amino acid composition with high Cys and low aromatic residue content; unique sequence with characteristic distribution of cysteines, and spectroscopic manifestations indicative of metal thiolate clusters. A MT family subsumes MTs that share particular sequence-specific features and are thought to be evolutionarily related. The inclusion of a MT within a family presupposes that its amino acid sequence is alignable with that of all members. Fifteen MT families have been characterised, each family being identified by its number and its taxonomic range: e.g., Family 1: vertebrate MTs [see http://www.bioc.unizh.ch/mtpage/protali.html].  Echinoidea (sea urchin, family 4) MTs are 64-67 residue proteins. Members of this family are recognised by the sequence pattern P-D-x-K-C-[V,F]-C-C-x(5)-C-x-C-x(4)-C-C-x(4)-C-C-x(4,6)-C-C located near the N terminus. The taxonomic range of the members extends to sea urchins (echinodea). The protein sequence is divided into two structural domains, each containing 9 and 11 Cys residues binding 3 and 4 bivalent metal ions, respectively. Family 4 includes subfamilies: e1, e2, they are separate phylogenetic groups.  This entry includes the sea urchin proteins, and related sequences from worms.; PDB: 1QJK_A 1QJL_A.
Probab=84.84  E-value=0.46  Score=30.22  Aligned_cols=19  Identities=42%  Similarity=1.232  Sum_probs=6.7

Q ss_pred             CCCccCCCCCCcCCCCCCCC
Q 046153            9 GRNCGCGSSCKCGSDYNVCR   28 (81)
Q Consensus         9 ~gnCgCGs~C~CGsgC~gCk   28 (81)
                      +.+|.||.+|||+.++ +|+
T Consensus        41 NA~CKCga~CKC~~G~-~Ct   59 (65)
T PF05522_consen   41 NAACKCGAGCKCGGGC-GCT   59 (65)
T ss_dssp             -TT----TT--TTS-----B
T ss_pred             cccccccCCceeCCCC-ccc
Confidence            4789999999999987 564


No 6  
>PF03940 MSSP:  Male specific sperm protein;  InterPro: IPR005634 This is a family of Drosophila proteins, that are typified by the repetitive motif C-G-P.
Probab=34.46  E-value=45  Score=19.91  Aligned_cols=19  Identities=32%  Similarity=0.725  Sum_probs=11.0

Q ss_pred             CCccCCCCCCcCCCCCCCC
Q 046153           10 RNCGCGSSCKCGSDYNVCR   28 (81)
Q Consensus        10 gnCgCGs~C~CGsgC~gCk   28 (81)
                      --.+|++-..||+-||.|.
T Consensus         8 pcg~cgpc~~cgpccg~cg   26 (48)
T PF03940_consen    8 PCGGCGPCGGCGPCCGPCG   26 (48)
T ss_pred             cccCccCcccCcCcccCcC
Confidence            3345565556676666663


No 7  
>TIGR03601 B_an_ocin probable heterocycle-containing bacteriocin, BA_2677 family. Numerous bacteria encode systems for producing bacteriocins by extensive modification of ribosomally produced precursors. These proteins are recognizable in part by proximity to the modification proteins, and in part by small size, with leader peptide-like N-terminal sequence followed by low-complexity sequence rich in Cys, Gly, and/or Ser. This protein family represents a probable member of the class, though previously unrecognized because it is not encoded adjacent to its modification proteins.
Probab=27.85  E-value=60  Score=21.25  Aligned_cols=21  Identities=29%  Similarity=0.743  Sum_probs=9.3

Q ss_pred             CCCCCccCCCCCCcC-CCCCCC
Q 046153            7 NCGRNCGCGSSCKCG-SDYNVC   27 (81)
Q Consensus         7 ~~~gnCgCGs~C~CG-sgC~gC   27 (81)
                      +|++-.+||-.|.++ -.|+||
T Consensus        44 gCGgcggcgG~c~~~g~rCgGC   65 (79)
T TIGR03601        44 GCGGGGCCGGRCGGCGGRCGGC   65 (79)
T ss_pred             CCCCCCCCCCCcCCcCccccCc
Confidence            344444555555433 224444


No 8  
>PF02068 Metallothio_PEC:  Plant PEC family metallothionein;  InterPro: IPR000316 Metallothioneins (MT) are small proteins that bind heavy metals, such as zinc, copper, cadmium, nickel, etc. They have a high content of cysteine residues that bind the metal ions through clusters of thiolate bonds [, , , ]. An empirical classification into three classes has been proposed by Fowler and coworkers [] and Kojima []. Members of class I are defined to include polypeptides related in the positions of their cysteines to equine MT-1B, and include mammalian MTs as well as MTs from crustaceans and molluscs. Class II groups MTs from a variety of species, including sea urchins, fungi, insects and cyanobacteria. Class III MTs are atypical polypeptides composed of gamma-glutamylcysteinyl units []. This original classification system has been found to be limited, in the sense that it does not allow clear differentiation of patterns of structural similarities, either between or within classes. Consequently, all class I and class II MTs (the proteinaceous sequences) have now been grouped into families of phylogenetically-related and thus alignable sequences. This system subdivides the MT superfamily into families, subfamilies, subgroups, and isolated isoforms and alleles. The metallothionein superfamily comprises all polypeptides that resemble equine renal metallothionein in several respects []: e.g., low molecular weight; high metal content; amino acid composition with high Cys and low aromatic residue content; unique sequence with characteristic distribution of cysteines, and spectroscopic manifestations indicative of metal thiolate clusters. A MT family subsumes MTs that share particular sequence-specific features and are thought to be evolutionarily related. The inclusion of a MT within a family presupposes that its amino acid sequence is alignable with that of all members. Fifteen MT families have been characterised, each family being identified by its number and its taxonomic range: e.g., Family 1: vertebrate MTs. Family 15 consists of planta MTs. Its members are recognised by the sequence pattern [YFH]-x(5,25)-C-[SKD]-C-[GA]-[SDPAT]-x(0,1)-C-x-[CYF] which yields all plant sequences, but also MTCU_HELPO and the non-MT ITB3_HUMAN. The taxonomic range of the members extends to planta. Planta MTs are 45-84 residue proteins, containing 17 conserved cysteines that bind 5 zinc ions. Generally, there are two Cys-rich regions (domain 1 and domain 3) separated by a Cys-poor region (domain 2) and only the domain 2 contains unusual residues. It is believed that the proteins may have a role in Zn2+ homeostasis during embryogenesis. Family 15 includes the following subfamilies: p1, p2, p2v, p3, pec, p21. ; GO: 0008270 zinc ion binding; PDB: 2L62_A 2KAK_A 2L61_A.
Probab=24.34  E-value=56  Score=21.34  Aligned_cols=22  Identities=32%  Similarity=0.927  Sum_probs=14.6

Q ss_pred             CCCCccCCCCCCcCCCCCCCCcC
Q 046153            8 CGRNCGCGSSCKCGSDYNVCRMY   30 (81)
Q Consensus         8 ~~gnCgCGs~C~CGsgC~gCkMy   30 (81)
                      |+..|||..=|-.|+.| .|.|-
T Consensus         2 Cdd~CGC~vPCpgG~~C-rC~~~   23 (76)
T PF02068_consen    2 CDDRCGCPVPCPGGTAC-RCTSS   23 (76)
T ss_dssp             --GGGSS-SS-SSSTTS-CCCS-
T ss_pred             CcCCcCCCccCCCCCcc-ccccc
Confidence            66889999999999999 67665


No 9  
>PF15193 FAM24:  FAM24 family
Probab=22.90  E-value=32  Score=22.09  Aligned_cols=12  Identities=33%  Similarity=0.764  Sum_probs=9.5

Q ss_pred             CCCCCCcCCCCC
Q 046153           23 DYNVCRMYPDLS   34 (81)
Q Consensus        23 gC~gCkMyPDl~   34 (81)
                      -|-.|+||.|+.
T Consensus        45 ccd~C~mYad~d   56 (69)
T PF15193_consen   45 CCDECSMYADFD   56 (69)
T ss_pred             hhhhhcccccCC
Confidence            367889999984


No 10 
>PF09791 Oxidored-like:  Oxidoreductase-like protein, N-terminal;  InterPro: IPR019180 This entry represents the N-terminal domain of various oxidoreductase-like proteins whose exact function is, as yet, unknown. 
Probab=21.21  E-value=44  Score=19.71  Aligned_cols=8  Identities=50%  Similarity=1.219  Sum_probs=5.7

Q ss_pred             cCCCCCCC
Q 046153           20 CGSDYNVC   27 (81)
Q Consensus        20 CGsgC~gC   27 (81)
                      |||||..|
T Consensus        19 CgSGC~~C   26 (48)
T PF09791_consen   19 CGSGCAPC   26 (48)
T ss_pred             cccCCccc
Confidence            66777766


No 11 
>PF01754 zf-A20:  A20-like zinc finger;  InterPro: IPR002653 Zinc finger (Znf) domains are relatively small protein motifs which contain multiple finger-like protrusions that make tandem contacts with their target molecule. Some of these domains bind zinc, but many do not; instead binding other metals such as iron, or no metal at all. For example, some family members form salt bridges to stabilise the finger-like folds. They were first identified as a DNA-binding motif in transcription factor TFIIIA from Xenopus laevis (African clawed frog), however they are now recognised to bind DNA, RNA, protein and/or lipid substrates [, , , , ]. Their binding properties depend on the amino acid sequence of the finger domains and of the linker between fingers, as well as on the higher-order structures and the number of fingers. Znf domains are often found in clusters, where fingers can have different binding specificities. There are many superfamilies of Znf motifs, varying in both sequence and structure. They display considerable versatility in binding modes, even between members of the same class (e.g. some bind DNA, others protein), suggesting that Znf motifs are stable scaffolds that have evolved specialised functions. For example, Znf-containing proteins function in gene transcription, translation, mRNA trafficking, cytoskeleton organisation, epithelial development, cell adhesion, protein folding, chromatin remodelling and zinc sensing, to name but a few []. Zinc-binding motifs are stable structures, and they rarely undergo conformational changes upon binding their target.  This entry represents the zinc finger domain found in A20. A20 is an inhibitor of cell death that inhibits NF-kappaB activation via the tumour necrosis factor receptor associated factor pathway []. The zinc finger domains appear to mediate self-association in A20. These fingers also mediate IL-1-induced NF-kappa B activation. More information about these proteins can be found at Protein of the Month: Zinc Fingers [].; GO: 0003677 DNA binding, 0008270 zinc ion binding; PDB: 2FIF_F 2FID_B 2C7N_C 2C7M_A 2L00_A 2KZY_A 2EQG_A 2EQE_A 3OJ3_J 3OJ4_C ....
Probab=21.05  E-value=45  Score=17.30  Aligned_cols=11  Identities=18%  Similarity=0.247  Sum_probs=6.9

Q ss_pred             CCCCCCccccC
Q 046153           71 KCKFYKNFFLN   81 (81)
Q Consensus        71 KCGsnc~~~~~   81 (81)
                      +|..+|.||.|
T Consensus         3 ~C~~gCgf~Gs   13 (25)
T PF01754_consen    3 LCANGCGFYGS   13 (25)
T ss_dssp             B-TTTSSSB-B
T ss_pred             cccCCCCCccc
Confidence            46788888864


Done!