RPS-BLAST 2.2.26 [Sep-21-2011]

Database: CDD.v3.10 
           44,354 sequences; 10,937,602 total letters

Searching..................................................done

Query= psy2324
         (170 letters)



>gnl|CDD|205516 pfam13336, AcetylCoA_hyd_C, Acetyl-CoA hydrolase/transferase
           C-terminal domain.  This family contains several enzymes
           which take part in pathways involving acetyl-CoA.
           Acetyl-CoA hydrolase EC:3.1.2.1 catalyzes the formation
           of acetate from acetyl-CoA, CoA transferase (CAT1)
           EC:2.8.3.- produces succinyl-CoA, and acetate-CoA
           transferase EC:2.8.3.8 utilises acyl-CoA and acetate to
           form acetyl-CoA.
          Length = 152

 Score =  134 bits (339), Expect = 7e-41
 Identities = 41/81 (50%), Positives = 56/81 (69%)

Query: 55  GDKPLYDFVHNNELVQMKRGTYSNDPAIIRQNHRMTAINTCLEIDITGQVVSDSLGTRIY 114
           G + LYDF+ +N  ++M+   Y NDP +I QN  M +IN+ LE+D+TGQV S+S+G R Y
Sbjct: 1   GSQRLYDFLDDNPKIEMRPVDYVNDPEVIAQNDNMVSINSALEVDLTGQVNSESIGGRQY 60

Query: 115 SGFGGQVDFMRGALTGLDGKG 135
           SG GGQ+DF+RGA     GK 
Sbjct: 61  SGVGGQLDFVRGAYLSKGGKS 81


>gnl|CDD|223504 COG0427, ACH1, Acetyl-CoA hydrolase [Energy production and
           conversion].
          Length = 501

 Score =  113 bits (285), Expect = 5e-30
 Identities = 46/129 (35%), Positives = 75/129 (58%), Gaps = 8/129 (6%)

Query: 2   IPEAILSNIKHQI--NLGVHTELLTPGVIKLFNSGVINNSKKSIDRGQITATLLLGDKPL 59
           IP A++  +K     +LGVHTE+L  G++ L   G + N+ K+        +  +G + L
Sbjct: 269 IPNAVMGGLKESPFKDLGVHTEVLQDGLVDLIEEGKVTNASKT----SFVLSFAMGSRKL 324

Query: 60  YDFVHNNELVQMKRGTYSNDPAIIRQNHRMTAINTCLEIDITGQVVSDSL-GTRIYSGFG 118
           YD+++ N  + ++   YSN+P IIR+   + AIN+ LE+D+ G V S  + G+R  +G G
Sbjct: 325 YDYLNYNPRIVLRPQDYSNNPEIIRRLG-VIAINSALEVDLYGAVNSTHVGGSRQMNGIG 383

Query: 119 GQVDFMRGA 127
           G  DF+R A
Sbjct: 384 GSGDFVRNA 392


>gnl|CDD|188463 TIGR03948, butyr_acet_CoA, butyryl-CoA:acetate CoA-transferase.
           This enzyme represents one of at least two mechanisms
           for reclaiming CoA from butyryl-CoA at the end of
           butyrate biosynthesis (an important process performed by
           some colonic bacteria), namely transfer of CoA to
           acetate. An alternate mechanism transfers the butyrate
           onto inorganic phosphate, after which butyrate kinase
           transfers the phosphate onto ADP, creating ATP [Energy
           metabolism, Fermentation].
          Length = 445

 Score = 94.1 bits (234), Expect = 4e-23
 Identities = 45/120 (37%), Positives = 66/120 (55%)

Query: 15  NLGVHTELLTPGVIKLFNSGVINNSKKSIDRGQITATLLLGDKPLYDFVHNNELVQMKRG 74
           +LGVHTE+     + +  +G IN SKK+IDRG+       G K +YD++ +N        
Sbjct: 238 DLGVHTEMYVDAFVDIAKAGKINGSKKNIDRGRQVYAFGAGTKKMYDYLDDNPECMSAPV 297

Query: 75  TYSNDPAIIRQNHRMTAINTCLEIDITGQVVSDSLGTRIYSGFGGQVDFMRGALTGLDGK 134
            Y+ND   I       +IN  ++ID+ GQV ++S G +  SG GGQ+DF+ GA     GK
Sbjct: 298 DYTNDIRSISALDNFISINNAVDIDLFGQVNAESAGIKQISGAGGQLDFVLGAYLSKGGK 357


>gnl|CDD|234217 TIGR03458, YgfH_subfam, succinate CoA transferase.  This family of
           CoA transferases includes enzymes catalyzing at least
           two related but distinct activities. The E. coli YgfH
           protein has been characterized as a
           propionyl-CoA:succinate CoA transferase where it appears
           to be involved in a pathway for the decarboxylation of
           succinate to propionate. The Clostridium kluyveri CAT1
           protein has been characterized as a acetyl-CoA:succinate
           CoA transferase and is believed to be involved in
           anaerobic succinate degradation. The
           propionate:succinate transferase activity has been
           reported in the propionic acid fermentation of
           propionibacterium species where it is distinct from the
           coupled activities of distinct nucleotide-triphosphate
           dependent succinate and propionate/acetate CoA
           transferases (as inferred from activity in the absence
           of NTPs). The family represented by this model includes
           a member from Propionibacterium acnes KPA171202 which is
           likely to be responsible for this activity. A closely
           related clade not included in this family are the Ach1p
           proteins of fungi which are acetyl-CoA hydrolases. This
           name has been applied to many of the proteins modeled by
           This model, possibly erroneously.
          Length = 485

 Score = 45.3 bits (108), Expect = 5e-06
 Identities = 26/55 (47%), Positives = 32/55 (58%), Gaps = 6/55 (10%)

Query: 76  YSNDPAIIRQNHRM--TAINTCLEIDITGQVVSDS-LGTRIYSGFGGQVDFMRGA 127
            SN P IIR   R+   AINT +E DI G V S   +GT++ +G GG  DF R A
Sbjct: 331 ISNHPEIIR---RLGVIAINTAIEADIYGNVNSTHVMGTKMMNGIGGSGDFARNA 382


>gnl|CDD|143621 cd07470, CYTH-like_mRNA_RTPase, CYTH-like mRNA triphosphatase
           (RTPase) component of the mRNA capping apparatus.  This
           subgroup includes fungal and protozoal RTPases. RTPase
           catalyzes the first step in the mRNA cap formation
           process, the removal of the gamma-phosphate of
           triphosphate terminated pre-mRNA. This activity is
           metal-dependent. The 5'-end of the resulting mRNA
           diphosphate is subsequently capped with GMP by RNA
           guanylytransferase, and then further modified by one or
           more methyltransferases. The mRNA cap-forming activity
           is an essential step in mRNA processing. The RTPases are
           not conserved among eukarya. The structure and mechanism
           of this fungal RTPase domain group is different from
           that of higher eukaryotes. This subgroup belongs to the
           CYTH/triphosphate tunnel metalloenzyme (TTM)-like
           superfamily, whose enzymes have a unique active site
           located within an eight-stranded beta barrel. The RTPase
           domain of the mimivirus RTPase-GTase fusion mRNA capping
           enzyme also belongs to this subgroup.
          Length = 243

 Score = 29.3 bits (66), Expect = 0.89
 Identities = 9/29 (31%), Positives = 16/29 (55%), Gaps = 1/29 (3%)

Query: 78  NDPAIIRQNHRMTAINTCLEIDITGQVVS 106
           N P + R+  R++  +    ID+T +V S
Sbjct: 166 NGPILTRRKDRLSYTHNAFRIDLT-KVTS 193


>gnl|CDD|217708 pfam03743, TrbI, Bacterial conjugation TrbI-like protein.  Although
           not essential for conjugation, the TrbI protein greatly
           increase the conjugational efficiency.
          Length = 186

 Score = 28.3 bits (64), Expect = 1.5
 Identities = 10/25 (40%), Positives = 14/25 (56%), Gaps = 3/25 (12%)

Query: 98  IDITGQVVSDSLGTRIYSGFGGQVD 122
           ID+ G   +D LG    +G  G+VD
Sbjct: 79  IDLPGSPGADELG---RAGIRGRVD 100


>gnl|CDD|238682 cd01386, MYSc_type_XVIII, Myosin motor domain, type XVIII myosins.
           This catalytic (head) domain has ATPase activity and
           belongs to the larger group of P-loop NTPases. Myosins
           are actin-dependent molecular motors that play important
           roles in muscle contraction, cell motility, and
           organelle transport. The head domain is a molecular
           motor, which utilizes ATP hydrolysis to generate
           directed movement toward the plus end along actin
           filaments. A cyclical interaction between myosin and
           actin provides the driving force. Rates of ATP
           hydrolysis and consequently the speed of movement along
           actin filaments vary widely, from about 0.04 micrometer
           per second for myosin I to 4.5 micrometer per second for
           myosin II in skeletal muscle. Myosin II moves in
           discrete steps about 5-10 nm long and generates 1-5
           piconewtons of force. Upon ATP binding, the myosin head
           dissociates from an actin filament. ATP hydrolysis
           causes the head to pivot and associate with a new actin
           subunit. The release of Pi causes the head to pivot and
           move the filament (power stroke). Release of ADP
           completes the cycle.
          Length = 767

 Score = 28.3 bits (63), Expect = 2.6
 Identities = 29/101 (28%), Positives = 45/101 (44%), Gaps = 15/101 (14%)

Query: 76  YSNDPAIIRQNH-RMTAINTCLEIDITGQVVSDSLGT------RIYSGFGGQVDF--MRG 126
           + N    +  N  R T I + L+ D TGQ+ S SL T      R+     G+ +F     
Sbjct: 136 FGNVSTALNGNATRFTQILS-LDFDQTGQIASASLQTMLLERSRVARRPNGETNFVVFSQ 194

Query: 127 ALTGLDGKGLKYQILVH---EDNSMPLLGSNPGPPDYQASA 164
            L G+DG  L+ ++ +    E +S   +G    P D Q +A
Sbjct: 195 LLAGVDGD-LRTELHLEQMAESSSFG-MGGLSKPEDKQKAA 233


>gnl|CDD|225982 COG3451, VirB4, Type IV secretory pathway, VirB4 components
           [Intracellular trafficking and secretion].
          Length = 796

 Score = 28.1 bits (63), Expect = 3.1
 Identities = 13/64 (20%), Positives = 25/64 (39%), Gaps = 3/64 (4%)

Query: 31  FNSGVINNSKKSIDRGQITATLLLGDKPLYDFVHNNELVQMKRGTYSNDPAIIRQNHRMT 90
            +  V    K+++D        +L +K    FV   E + ++    S  P  I  N R  
Sbjct: 329 LSILVFAKDKEALDEKLAMVLNILTNK---GFVAVRETINIEPAFLSQLPGNIYYNVRKR 385

Query: 91  AINT 94
            +++
Sbjct: 386 LLSS 389


>gnl|CDD|173857 cd08492, PBP2_NikA_DppA_OppA_like_15, The substrate-binding
           component of an uncharacterized ABC-type
           nickel/dipeptide/oligopeptide-like import system
           contains the type 2 periplasmic binding fold.  This CD
           represents the substrate-binding domain of an
           uncharacterized ATP-binding cassette (ABC) type
           nickel/dipeptide/oligopeptide-like transporter. The
           oligopeptide-binding protein OppA and the
           dipeptide-binding protein DppA show significant sequence
           similarity to NikA, the initial nickel receptor. The
           DppA binds dipeptides and some tripeptides and is
           involved in chemotaxis toward dipeptides, whereas the
           OppA binds peptides of a wide range of lengths (2-35
           amino acid residues) and plays a role in recycling of
           cell wall peptides, which precludes any involvement in
           chemotaxis. Most of other periplasmic binding proteins
           are comprised of only two globular subdomains
           corresponding to domains I and III of the
           dipeptide/oligopeptide binding proteins. The structural
           topology of these domains is most similar to that of the
           type 2 periplasmic binding proteins (PBP2), which are
           responsible for the uptake of a variety of substrates
           such as phosphate, sulfate, polysaccharides,
           lysine/arginine/ornithine, and histidine.  The PBP2 bind
           their ligand in the cleft between these domains in a
           manner resembling a Venus flytrap. After binding their
           specific ligand with high affinity, they can interact
           with a cognate membrane transport complex comprised of
           two integral membrane domains and two cytoplasmically
           located ATPase domains. This interaction triggers the
           ligand translocation across the cytoplasmic membrane
           energized by ATP hydrolysis.  Besides transport
           proteins, the PBP2 superfamily includes the
           ligand-binding domains from ionotropic glutamate
           receptors, LysR-type transcriptional regulators,  and
           unorthodox sensor proteins involved in signal
           transduction.
          Length = 484

 Score = 27.6 bits (62), Expect = 3.5
 Identities = 10/43 (23%), Positives = 15/43 (34%), Gaps = 2/43 (4%)

Query: 41  KSIDRGQITATLLLGDKPLYDFVH--NNELVQMKRGTYSNDPA 81
            +IDR  I  T+  G  P    +        +     Y+ DP 
Sbjct: 275 LAIDREAIVETVFFGSYPAASSLLSSTTPYYKDLSDAYAYDPE 317


>gnl|CDD|215701 pfam00082, Peptidase_S8, Subtilase family.  Subtilases are a family
           of serine proteases. They appear to have independently
           and convergently evolved an Asp/Ser/His catalytic triad,
           like that found in the trypsin serine proteases (see
           pfam00089). Structure is an alpha/beta fold containing a
           7-stranded parallel beta sheet, order 2314567.
          Length = 277

 Score = 27.3 bits (61), Expect = 3.9
 Identities = 16/72 (22%), Positives = 24/72 (33%), Gaps = 6/72 (8%)

Query: 64  HNNELVQMKRGTYSNDPAIIRQNHRMTAINTCLEIDITGQVVSDSLGTRIYSGFGGQVDF 123
              E V++  G+   D  +        AI    E     +V++ SLG             
Sbjct: 72  AKLESVKVLPGSGGTDSELAG------AIEWAAERPNDIRVINMSLGPVDGPPSSWSSAI 125

Query: 124 MRGALTGLDGKG 135
              A+ G D KG
Sbjct: 126 DELAVNGADNKG 137


>gnl|CDD|184187 PRK13625, PRK13625, bis(5'-nucleosyl)-tetraphosphatase PrpE;
           Provisional.
          Length = 245

 Score = 26.6 bits (59), Expect = 7.2
 Identities = 15/50 (30%), Positives = 21/50 (42%), Gaps = 4/50 (8%)

Query: 58  PLYDFVHNNELVQMKRGTYSNDPAIIRQNHRMTAINTCLEIDITGQVVSD 107
           PLY  +    LV    G   +   I RQ+ ++      L  DITG+   D
Sbjct: 125 PLYHILDEGRLVVAHAGIRQDY--IGRQDKKVQTF--VLYGDITGEKHPD 170


  Database: CDD.v3.10
    Posted date:  Mar 20, 2013  7:55 AM
  Number of letters in database: 10,937,602
  Number of sequences in database:  44,354
  
Lambda     K      H
   0.318    0.138    0.404 

Gapped
Lambda     K      H
   0.267   0.0892    0.140 


Matrix: BLOSUM62
Gap Penalties: Existence: 11, Extension: 1
Number of Sequences: 44354
Number of Hits to DB: 8,683,067
Number of extensions: 784867
Number of successful extensions: 549
Number of sequences better than 10.0: 1
Number of HSP's gapped: 544
Number of HSP's successfully gapped: 17
Length of query: 170
Length of database: 10,937,602
Length adjustment: 90
Effective length of query: 80
Effective length of database: 6,945,742
Effective search space: 555659360
Effective search space used: 555659360
Neighboring words threshold: 11
Window for multiple hits: 40
X1: 16 ( 7.3 bits)
X2: 38 (14.6 bits)
X3: 64 (24.7 bits)
S1: 41 (21.6 bits)
S2: 55 (24.7 bits)