Query         003233
Match_columns 837
No_of_seqs    12 out of 14
Neff          1.8 
Searched_HMMs 46136
Date          Thu Mar 28 19:35:41 2013
Command       hhsearch -i /work/01045/syshi/csienesis_hhblits_a3m/003233.a3m -d /work/01045/syshi/HHdatabase/Cdd.hhm -o /work/01045/syshi/hhsearch_cdd/003233hhsearch_cdd -cpu 12 -v 0 

 No Hit                             Prob E-value P-value  Score    SS Cols Query HMM  Template HMM
  1 PF10470 AKAP7_RIRII_bdg:  PKA-  19.4      91   0.002   27.4   2.3   41  120-171     2-45  (61)
  2 PF13007 LZ_Tnp_IS66:  Transpos   7.9 2.2E+02  0.0049   23.5   1.4   21  812-832     2-22  (78)
  3 PF10446 DUF2457:  Protein of u   7.3 1.7E+02  0.0037   33.6   0.5   34  710-748    20-53  (458)
  4 PF03533 SPO11_like:  SPO11 hom   5.4 3.6E+02  0.0079   22.6   1.3   23  710-732     3-25  (43)
  5 PF12537 DUF3735:  Protein of u   4.9   2E+02  0.0043   24.7  -0.6    8  804-811    22-29  (72)
  6 cd04757 Commd9 COMM_Domain con   4.6 3.7E+02   0.008   25.6   1.0   32  779-820    75-106 (108)
  7 PF07440 Caerin_1:  Caerin 1 pr   4.3 2.2E+02  0.0049   21.3  -0.5   21  804-824     1-21  (24)
  8 PTZ00227 variable surface prot   3.7 4.7E+02    0.01   29.8   1.1   20  807-826   348-367 (418)
  9 PF02075 RuvC:  Crossover junct   3.1 5.5E+02   0.012   24.4   0.7   17  816-832   101-117 (149)
 10 PF00633 HHH:  Helix-hairpin-he   2.7 6.4E+02   0.014   18.9   0.6   13  806-818    16-28  (30)

No 1  
>PF10470 AKAP7_RIRII_bdg:  PKA-RI-RII subunit binding domain of A-kinase anchor protein;  InterPro: IPR019511 This entry represents the RI-RII subunit-binding domain found at the C-terminal of the cyclic AMP-dependent protein kinase A (PKA) anchor protein, AKAP7. This protein anchors PKA, for its role in regulating PKA-mediated gene transcription in both somatic cells and oocytes, by binding to its regulatory subunits, RI and RII, hence being known as a dual-specific AKAP []. The 25 crucial amino acids of RII-binding domains in general form structurally conserved amphipathic helices with unrelated sequences; hydrophobic amino acid residues form the backbone of the interaction and hydrogen bond- and salt-bridge-forming amino acid residues increase the affinity of the interaction []. The nuclear localisation signal-containing domain is found at the N terminus. 
Probab=19.39  E-value=91  Score=27.42  Aligned_cols=41  Identities=37%  Similarity=0.454  Sum_probs=33.5

Q ss_pred             CCCcHHHHHhhhhcccCCchhhhhhhhccccchhhhhhhHHhh---hcCcccccc
Q 003233          120 GDNDDAERQRATLENTGSDEAEETKIVSNAVDETKDQVSKETA---ENGASSTVE  171 (837)
Q Consensus       120 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~---~~~~~~~~~  171 (837)
                      +..|||+-+|+.           ..||-|||-..-.|++.||-   .+|.+|+|-
T Consensus         2 ~epDdaeL~~lS-----------KrlVenAVlkAvQQy~eEtq~k~~~~~gs~~k   45 (61)
T PF10470_consen    2 SEPDDAELVRLS-----------KRLVENAVLKAVQQYLEETQNKEQPGDGSPVK   45 (61)
T ss_pred             CChhHHHHHHHH-----------HHHHHHHHHHHHHHHHHHHHhhccCCCCCCcc
Confidence            456788888764           57999999999999999998   788887764


No 2  
>PF13007 LZ_Tnp_IS66:  Transposase C of IS166 homeodomain;  InterPro: IPR024463 This entry represents a leucine-zipper-like, or homeodomain-like, region of the transposase TnpC from insertion element IS66 [].
Probab=7.93  E-value=2.2e+02  Score=23.53  Aligned_cols=21  Identities=19%  Similarity=0.419  Sum_probs=18.0

Q ss_pred             hhhhhHHhhhhhhcCCCCCCC
Q 003233          812 KVKHSISKVKKAITGKSSHPK  832 (837)
Q Consensus       812 KVKhsiaKVKKai~GK~~h~K  832 (837)
                      .++++|+.+++.+.|++|=..
T Consensus         2 ~L~~~l~~l~r~~FG~kSEk~   22 (78)
T PF13007_consen    2 QLKEQLALLKRQLFGRKSEKL   22 (78)
T ss_pred             hHHHHHHHHHHHHhccccccc
Confidence            468999999999999998653


No 3  
>PF10446 DUF2457:  Protein of unknown function (DUF2457);  InterPro: IPR018853  This entry represents a family of uncharacterised proteins. 
Probab=7.33  E-value=1.7e+02  Score=33.60  Aligned_cols=34  Identities=24%  Similarity=0.355  Sum_probs=26.6

Q ss_pred             ccccccccccchhhhhhHhHhhhhhhhcCCCCcCCcchh
Q 003233          710 LMDSATASLTDPLQSSRIETTKVAEQVGEGGEPKGRTEE  748 (837)
Q Consensus       710 ~~~sa~~SL~D~mQ~S~rEt~~~a~~~ge~~e~~~~tE~  748 (837)
                      +.+..++.|.|.|..   |  .+-+.||++-++++..|+
T Consensus        20 ~~~~~KlTi~DtlkK---E--~~IRkLgeEaEEEA~~EE   53 (458)
T PF10446_consen   20 TDYKRKLTINDTLKK---E--NAIRKLGEEAEEEAEEEE   53 (458)
T ss_pred             ccccccccHHHHHHH---H--HHHhhhhHHHHHHHhhcc
Confidence            556788999999864   3  345889999999888886


No 4  
>PF03533 SPO11_like:  SPO11 homologue;  InterPro: IPR004084 Spo11 is a meiosis-specific protein in yeast that covalently binds to DNA double-strand breaks (DSBs) during the early stages of meiosis []. These DSBs initiate homologous recombination, which is required for chromosomal segregation and generation of genetic diversity during meiosis. Mouse and human homologues of Spo11 have been cloned and characterised. The proteins are 82% identical and share ~25% identity with other family members. Mouse Spo11 has been localised to chromosome 2H4, and human SPO11 to chromosome 20q13.2-q13.3, a region amplified in some breast and ovarian tumours []. Similarity between SPO11 and archaebacterial TOP6A proteins points to evolutionary specialisation of a DNA-cleavage function for meiotic recombination []. Note that the yeast SPO11 protein shares far less similarity to other SPO11 proteins than the human and mouse homologues do to each other.; GO: 0003677 DNA binding, 0007131 reciprocal meiotic recombination
Probab=5.44  E-value=3.6e+02  Score=22.58  Aligned_cols=23  Identities=17%  Similarity=0.075  Sum_probs=18.4

Q ss_pred             ccccccccccchhhhhhHhHhhh
Q 003233          710 LMDSATASLTDPLQSSRIETTKV  732 (837)
Q Consensus       710 ~~~sa~~SL~D~mQ~S~rEt~~~  732 (837)
                      .+|++.+|+|+.|-|-+---+++
T Consensus         3 APmGPeASFf~vLdrHRasLlaa   25 (43)
T PF03533_consen    3 APMGPEASFFEVLDRHRASLLAA   25 (43)
T ss_pred             CCCCcchHHHHHHHHHHHHHHHH
Confidence            58999999999999876554444


No 5  
>PF12537 DUF3735:  Protein of unknown function (DUF3735);  InterPro: IPR022535  This conserved domain is found in a subunit of a voltage dependent anion channel required for acidification and functions of the Golgi apparatus; it may function in counter-ion conductance. It belongs to the Golgi pH regulator (1.A.38 from TC) family
Probab=4.88  E-value=2e+02  Score=24.74  Aligned_cols=8  Identities=63%  Similarity=1.012  Sum_probs=6.5

Q ss_pred             cccccccc
Q 003233          804 NILSGVGS  811 (837)
Q Consensus       804 niLSGVGS  811 (837)
                      .||||+|+
T Consensus        22 AiLSG~ga   29 (72)
T PF12537_consen   22 AILSGFGA   29 (72)
T ss_pred             HHHhhhhH
Confidence            57899886


No 6  
>cd04757 Commd9 COMM_Domain containing protein 9. The COMM Domain is found at the C-terminus of a variety of proteins; presumably all COMM_Domain containing proteins are located in the nucleus and the COMM domain plays a role in protein-protein interactions. Several family members have been shown to bind and inhibit NF-kappaB.
Probab=4.62  E-value=3.7e+02  Score=25.64  Aligned_cols=32  Identities=22%  Similarity=0.575  Sum_probs=25.7

Q ss_pred             CCCCceeeecccchhhhhhhccccccccccccchhhhhHHhh
Q 003233          779 SSDAPVTIEAKRDAVDVKVAHKKSHNILSGVGSKVKHSISKV  820 (837)
Q Consensus       779 ~~da~v~vea~rd~v~~k~~~kKshniLSGVGSKVKhsiaKV  820 (837)
                      .+-.+|.+|-+++++         +++|+|.| |++.||++|
T Consensus        75 ~~~~~v~~ELsKe~l---------~tml~~L~-~i~~QL~~v  106 (108)
T cd04757          75 PPLSTLTMELSKETL---------DTMLDGLG-RIRDQLSAV  106 (108)
T ss_pred             CCcceEEEEcCHHHH---------HHHHHHHH-HHHHHHHHH
Confidence            445689999988884         57889998 789999887


No 7  
>PF07440 Caerin_1:  Caerin 1 protein;  InterPro: IPR010000 This family consists of several caerin 1 proteins from Litoria species, Australian tree frogs. The caerin 1 peptides are among the most powerful of the broad-spectrum antibiotic amphibian peptides []. These peptides are excreted from amphibian skin, and can interact with and disrupt bacterial membranes, leading to the permeabilisation of the cell membrane. Caerin 1.1 forms a helix-bend-helix sturcture, where both helices are required for activity, as well as the bend region for flexibility.; GO: 0005576 extracellular region
Probab=4.28  E-value=2.2e+02  Score=21.34  Aligned_cols=21  Identities=33%  Similarity=0.482  Sum_probs=16.6

Q ss_pred             cccccccchhhhhHHhhhhhh
Q 003233          804 NILSGVGSKVKHSISKVKKAI  824 (837)
Q Consensus       804 niLSGVGSKVKhsiaKVKKai  824 (837)
                      |+||-+||-.||-|-.|--.|
T Consensus         1 gl~~vlgsvakhvlphvvpvi   21 (24)
T PF07440_consen    1 GLFSVLGSVAKHVLPHVVPVI   21 (24)
T ss_pred             ChHHHHHHHHHHhccccchhh
Confidence            578889999999887776555


No 8  
>PTZ00227 variable surface protein Vir14; Provisional
Probab=3.74  E-value=4.7e+02  Score=29.78  Aligned_cols=20  Identities=35%  Similarity=0.536  Sum_probs=17.4

Q ss_pred             ccccchhhhhHHhhhhhhcC
Q 003233          807 SGVGSKVKHSISKVKKAITG  826 (837)
Q Consensus       807 SGVGSKVKhsiaKVKKai~G  826 (837)
                      +-|||-.||.++|+||-|-+
T Consensus       348 t~~~~~~~~~~~~~~~~~~~  367 (418)
T PTZ00227        348 TPLGKSFKHTRAKVRKRIRP  367 (418)
T ss_pred             CccchhhHHhHHHHhhhCCC
Confidence            56899999999999998843


No 9  
>PF02075 RuvC:  Crossover junction endodeoxyribonuclease RuvC;  InterPro: IPR002176 The Escherichia coli ruvC gene is involved in DNA repair and in the late step of RecE and RecF pathway recombination []. RuvC protein (3.1.22.4 from EC) cleaves cruciform junctions, which are formed by the extrusion of inverted repeat sequences from a super-coiled plasmid and which are structurally analogous to Holliday junctions, by introducing nicks into strands with the same polarity. The nicks leave a 5'terminal phosphate and a 3'terminal hydroxyl group which are ligated by E. coli or Bacteriophage T4 DNA ligases. Analysis of the cleavage sites suggests that DNA topology rather than a particular sequence determines the cleavage site. RuvC protein also cleaves Holliday junctions that are formed between gapped circular and linear duplex DNA by the function of RecA protein. The active form of RuvC protein is a dimer. This is mechanistically suited for an endonuclease involved in swapping DNA strands at the crossover junctions. It is inferred that RuvC protein is an endonuclease that resolves Holliday structures in vivo [].  RucC is a small protein of about 20 kD. It requires and binds a magnesium ion. The structure of E. coli ruvC is a 3-layer alpha-beta sandwich containing a 5-stranded beta-sheet sandwiched between 5 alpha-helices [].; GO: 0004520 endodeoxyribonuclease activity, 0006281 DNA repair, 0006310 DNA recombination; PDB: 1HJR_A.
Probab=3.07  E-value=5.5e+02  Score=24.41  Aligned_cols=17  Identities=47%  Similarity=0.599  Sum_probs=11.5

Q ss_pred             hHHhhhhhhcCCCCCCC
Q 003233          816 SISKVKKAITGKSSHPK  832 (837)
Q Consensus       816 siaKVKKai~GK~~h~K  832 (837)
                      +=..|||+|||+....|
T Consensus       101 ~P~~vKk~vtG~G~A~K  117 (149)
T PF02075_consen  101 TPSEVKKAVTGNGRASK  117 (149)
T ss_dssp             EHHHHHHHHTSSTT--H
T ss_pred             CHHHHHHHhhCCCccCH
Confidence            44679999999876544


No 10 
>PF00633 HHH:  Helix-hairpin-helix motif;  InterPro: IPR000445 The HhH motif is an around 20 amino acids domain present in prokaryotic and eukaryotic non-sequence-specific DNA binding proteins [, , ]. The HhH motif is similar to, but distinct from, the HtH motif. Both of these motifs have two helices connected by a short turn. In the HtH motif the second helix binds to DNA with the helix in the major groove. This allows the contact between specific base and residues throughout the protein. In the HhH motif the second helix does not protrude from the surface of the protein and therefore cannot lie in the major groove of the DNA. Crystallographic studies suggest that the interaction of the HhH domain with DNA is mediated by amino acids located in the strongly conserved loop (L-P-G-V) and at the N-terminal end of the second helix []. This interaction could involve the formation of hydrogen bonds between protein backbone nitrogens and DNA phosphate groups []. The structural difference between the HtH and HhH domains is reflected at the functional level: whereas the HtH domain, found primarily in gene regulatory proteins, binds DNA in a sequence specific manner, the HhH domain is rather found in proteins involved in enzymatic activities and binds DNA with no sequence specificity []. The HhH domain of DisA, a bacterial checkpoint control protein, is a DNA-binding domain [].; GO: 0003677 DNA binding; PDB: 3C1Z_A 3C23_A 3C1Y_A 3C21_A 1Z00_A 2A1J_B 1KEA_A 1VRL_A 1RRQ_A 3G0Q_A ....
Probab=2.72  E-value=6.4e+02  Score=18.90  Aligned_cols=13  Identities=38%  Similarity=0.721  Sum_probs=8.6

Q ss_pred             cccccchhhhhHH
Q 003233          806 LSGVGSKVKHSIS  818 (837)
Q Consensus       806 LSGVGSKVKhsia  818 (837)
                      |.|||.|.-+.|.
T Consensus        16 lpGIG~~tA~~I~   28 (30)
T PF00633_consen   16 LPGIGPKTANAIL   28 (30)
T ss_dssp             STT-SHHHHHHHH
T ss_pred             CCCcCHHHHHHHH
Confidence            6788888776653


Done!