data_11172

#######################
#  Entry information  #
#######################

save_entry_information
   _Saveframe_category      entry_information

   _Entry_title
;
13C and 15N chemical shifts of the membrane-reconstituted subunit c-ring of
E. coli H+-ATP synthase
;
   _BMRB_accession_number   11172
   _BMRB_flat_file_name     bmr11172.str
   _Entry_type              original
   _Submission_date         2010-05-14
   _Accession_date          2010-05-14
   _Entry_origination       author
   _NMR_STAR_version        2.1.1
   _Experimental_method     NMR
   _Details                 .

   loop_
      _Author_ordinal
      _Author_family_name
      _Author_given_name
      _Author_middle_initials
      _Author_family_title

      1 Todokoro  Yasuto     . .
      2 Kobayashi Masatoshi  . .
      3 Sato      Takeshi    . .
      4 Kawakami  Toru       . .
      5 Yumen     Ikuko      . .
      6 Aimoto    Saburo     . .
      7 Fujiwara  Toshimichi . .
      8 Akutsu    Hideo      . .

   stop_

   loop_
      _Saveframe_category_type
      _Saveframe_category_type_count

      assigned_chemical_shifts 1

   stop_

   loop_
      _Data_type
      _Data_type_count

      "13C chemical shifts" 127
      "15N chemical shifts"  35

   stop_

   loop_
      _Revision_date
      _Revision_keyword
      _Revision_author
      _Revision_detail

      2017-08-03 original BMRB .

   stop_

   _Original_release_date   2010-05-14

save_


#############################
#  Citation for this entry  #
#############################

save_citation_1
   _Saveframe_category           entry_citation

   _Citation_full                .
   _Citation_title
;
Structural analysis of the membrane-reconstituted subunit c-ring of E. coli
H+-ATP synthase by solid-state NMR
;
   _Citation_status              published
   _Citation_type                journal
   _CAS_abstract_code            .
   _MEDLINE_UI_code              .
   _PubMed_ID                    20596883

   loop_
      _Author_ordinal
      _Author_family_name
      _Author_given_name
      _Author_middle_initials
      _Author_family_title

      1 Todokoro  Yasuto     . .
      2 Kobayashi Masatoshi  . .
      3 Sato      Takeshi    . .
      4 Kawakami  Toru       . .
      5 Yumen     Ikuko      . .
      6 Aimoto    Saburo     . .
      7 Fujiwara  Toshimichi . .
      8 Akutsu    Hideo      . .

   stop_

   _Journal_abbreviation        'J. Biomol. NMR'
   _Journal_name_full           'Journal of Biomolecular NMR'
   _Journal_volume               48
   _Journal_issue                1
   _Journal_ISSN                 0925-2738
   _Journal_CSD                  .
   _Book_chapter_title           .
   _Book_volume                  .
   _Book_series                  .
   _Book_ISBN                    .
   _Conference_state_province    .
   _Conference_abstract_number   .
   _Page_first                   1
   _Page_last                    11
   _Year                         2010
   _Details                      .

save_


##################################
#  Molecular system description  #
##################################

save_assembly
   _Saveframe_category         molecular_system

   _Mol_system_name           'subunit c-ring of FoF1 ATP synthase (EFoc-ring)'
   _Enzyme_commission_number   .

   loop_
      _Mol_system_component_name
      _Mol_label

      'FoF1 ATP synthase subunit c (EFoc)' $entity_1

   stop_

   _System_molecular_weight    .
   _System_physical_state      native
   _System_oligomer_state      ?
   _System_paramagnetic        no
   _System_thiol_state         .
   _Database_query_date        .
   _Details                   'From E. coli. The EFoc oligomer takes on a ring structure.'

save_


    ########################
    #  Monomeric polymers  #
    ########################

save_entity_1
   _Saveframe_category                          monomeric_polymer

   _Mol_type                                    polymer
   _Mol_polymer_class                           protein
   _Name_common                                'FoF1 ATP synthase subunit c (EFoc)'
   _Molecular_mass                              .
   _Mol_thiol_state                            'not present'
   _Details                                     .

   	##############################
   	#  Polymer residue sequence  #
   	##############################

      _Residue_count                               79
   _Mol_residue_sequence
;
MENLNMDLLYMAAAVMMGLA
AIGAAIGIGILGGKFLEGAA
RQPDLIPLLRTQFFIVMGLV
DAIPMIAVGLGLYVMFAVA
;

   loop_
      _Residue_seq_code
      _Residue_label

       1 MET   2 GLU   3 ASN   4 LEU   5 ASN
       6 MET   7 ASP   8 LEU   9 LEU  10 TYR
      11 MET  12 ALA  13 ALA  14 ALA  15 VAL
      16 MET  17 MET  18 GLY  19 LEU  20 ALA
      21 ALA  22 ILE  23 GLY  24 ALA  25 ALA
      26 ILE  27 GLY  28 ILE  29 GLY  30 ILE
      31 LEU  32 GLY  33 GLY  34 LYS  35 PHE
      36 LEU  37 GLU  38 GLY  39 ALA  40 ALA
      41 ARG  42 GLN  43 PRO  44 ASP  45 LEU
      46 ILE  47 PRO  48 LEU  49 LEU  50 ARG
      51 THR  52 GLN  53 PHE  54 PHE  55 ILE
      56 VAL  57 MET  58 GLY  59 LEU  60 VAL
      61 ASP  62 ALA  63 ILE  64 PRO  65 MET
      66 ILE  67 ALA  68 VAL  69 GLY  70 LEU
      71 GLY  72 LEU  73 TYR  74 VAL  75 MET
      76 PHE  77 ALA  78 VAL  79 ALA

   stop_

   _Sequence_homology_query_date                .
   _Sequence_homology_query_revised_last_date   .

save_


    ####################
    #  Natural source  #
    ####################

save_natural_source
   _Saveframe_category   natural_source


   loop_
      _Mol_label
      _Organism_name_common
      _NCBI_taxonomy_ID
      _Superkingdom
      _Kingdom
      _Genus
      _Species
      _Strain

      $entity_1 'E. coli' 562 Eubacteria . Escherichia coli MEG119

   stop_

save_


    #########################
    #  Experimental source  #
    #########################

save_experimental_source
   _Saveframe_category   experimental_source


   loop_
      _Mol_label
      _Production_method
      _Host_organism_name_common
      _Genus
      _Species
      _Strain
      _Vector_name

      $entity_1 'recombinant technology' . Escherichia coli . pCP35

   stop_

save_


#####################################
#  Sample contents and methodology  #
#####################################

    ########################
    #  Sample description  #
    ########################

save_sample_1
   _Saveframe_category   sample

   _Sample_type          membrane
   _Details
;
The EFoc is in DMPC-d54 bilayers. Protein/lipid molar ratio is 1:40.
The sample is hydrated. De-ionized water/total ratio is 10-50%.
;

   loop_
      _Mol_label
      _Concentration_value
      _Concentration_value_units
      _Concentration_min_value
      _Concentration_max_value
      _Isotopic_labeling

      $entity_1  6   mg   .   . '[U-13C; U-15N]'
       DMPC-d54 21.3 mg   .   . '2H-hydrocarbon chain'
       H2O        .  %  10 50 'natural abundance'
       NaN3      1   mM   .   . 'natural abundance'
       Tris-HCl 10   mM   .   . 'natural abundance'

   stop_

save_


save_sample_2
   _Saveframe_category   sample

   _Sample_type          membrane
   _Details             'The EFoc is in DMPC-d54 bilayers. Protein/lipid molar ratio is 1:40.'

   loop_
      _Mol_label
      _Concentration_value
      _Concentration_value_units
      _Isotopic_labeling

      $entity_1   6   mg '[3-13C]-Ala24, [4-13C]-Asp61'
       H2O      100   %  'natural abundance'
       DMPC-d54  21.3 mg '2H-hydrocarbon chain'
       NaN3       1   mM 'natural abundance'
       Tris-HCl  10   mM 'natural abundance'

   stop_

save_


############################
#  Computer software used  #
############################

save_FELIX
   _Saveframe_category   software

   _Name                 FELIX
   _Version              2007

   loop_
      _Vendor
      _Address
      _Electronic_address

      'Felix NMR Inc., San Diego, CA' . .

   stop_

   loop_
      _Task

      processing

   stop_

   _Details              .

save_


save_SPARKY
   _Saveframe_category   software

   _Name                 SPARKY
   _Version              .

   loop_
      _Vendor
      _Address
      _Electronic_address

      Goddard . .

   stop_

   loop_
      _Task

      'chemical shift assignment'

   stop_

   _Details              .

save_


#########################
#  Experimental detail  #
#########################

    ##################################
    #  NMR Spectrometer definitions  #
    ##################################

save_spectrometer_1
   _Saveframe_category   NMR_spectrometer

   _Manufacturer         Varian
   _Model                Infinity-plus
   _Field_strength       600
   _Details              .

save_


save_spectrometer_2
   _Saveframe_category   NMR_spectrometer

   _Manufacturer         Varian
   _Model                Infinity-plus
   _Field_strength       500
   _Details              .

save_


    #############################
    #  NMR applied experiments  #
    #############################

save_Intra-residue_2D_13C-13C_DARR_1
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Intra-residue 2D 13C-13C DARR'
   _Sample_label        $sample_1

save_


save_Inter-residue_2D_CACA_2
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Inter-residue 2D CACA'
   _Sample_label        $sample_1

save_


save_Intra-residue_2D_NCACB_3
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Intra-residue 2D NCACB'
   _Sample_label        $sample_1

save_


save_Inter-residue_2D_N(CO)CACB_4
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Inter-residue 2D N(CO)CACB'
   _Sample_label        $sample_1

save_


save_Inter-residue_3D_N(CO)CA_5
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Inter-residue 3D N(CO)CA'
   _Sample_label        $sample_1

save_


save_Intra-residue_3D_NCACO_6
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     'Intra-residue 3D NCACO'
   _Sample_label        $sample_1

save_


save_2H-selective_1H-depolarization_13C-NMR(CODSHD)_7
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     '2H-selective 1H-depolarization 13C-NMR(CODSHD)'
   _Sample_label        $sample_1

save_


save_13C_rotational_resonance_8
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     '13C rotational resonance'
   _Sample_label        $sample_2

save_


#######################
#  Sample conditions  #
#######################

save_condition_233K
   _Saveframe_category   sample_conditions

   _Details              .

   loop_
      _Variable_type
      _Variable_value
      _Variable_value_error
      _Variable_value_units

      pH            8.0 . pH
      temperature 233   . K

   stop_

save_


save_condition_223K
   _Saveframe_category   sample_conditions

   _Details              .

   loop_
      _Variable_type
      _Variable_value
      _Variable_value_error
      _Variable_value_units

      pH            8.0 . pH
      temperature 223   . K

   stop_

save_


save_condition_193K
   _Saveframe_category   sample_conditions

   _Details              .

   loop_
      _Variable_type
      _Variable_value
      _Variable_value_error
      _Variable_value_units

      pH            8.0 . pH
      temperature 193   . K

   stop_

save_


####################
#  NMR parameters  #
####################

    ##############################
    #  Assigned chemical shifts  #
    ##############################

	################################
	#  Chemical shift referencing  #
	################################

save_reference_1
   _Saveframe_category   chemical_shift_reference

   _Details
;
The 13C chemical shift was referenced to DSS by using the methine carbon signal
of adamantane under MAS at 40.5 ppm relative to DSS.
The 15N chemical shift was referenced to that of liquid NH3 deduced from the 13C
chemical shift using the 15N/13C ratio following the IUPAC recommendation.
;

   loop_
      _Mol_common_name
      _Atom_type
      _Atom_isotope_number
      _Atom_group
      _Chem_shift_units
      _Chem_shift_value
      _Reference_method
      _Reference_type
      _External_reference_sample_geometry
      _External_reference_location
      _External_reference_axis
      _Indirect_shift_ratio

      adamantane C 13 'methine carbon' ppm 40.5  external direct   . . . 1.0
      DSS        N 15 'methyl carbon'  ppm  0.00 na       indirect . . . 0.402979946

   stop_

save_


	###################################
	#  Assigned chemical shift lists  #
	###################################

###################################################################
#       Chemical Shift Ambiguity Index Value Definitions          #
#                                                                 #
# The values other than 1 are used for those atoms with different #
# chemical shifts that cannot be assigned to stereospecific atoms #
# or to specific residues or chains.                              #
#                                                                 #
#   Index Value            Definition                             #
#                                                                 #
#      1             Unique (including isolated methyl protons,   #
#                         geminal atoms, and geminal methyl       #
#                         groups with identical chemical shifts)  #
#                         (e.g. ILE HD11, HD12, HD13 protons)     #
#      2             Ambiguity of geminal atoms or geminal methyl #
#                         proton groups (e.g. ASP HB2 and HB3     #
#                         protons, LEU CD1 and CD2 carbons, or    #
#                         LEU HD11, HD12, HD13 and HD21, HD22,    #
#                         HD23 methyl protons)                    #
#      3             Aromatic atoms on opposite sides of          #
#                         symmetrical rings (e.g. TYR HE1 and HE2 #
#                         protons)                                #
#      4             Intraresidue ambiguities (e.g. LYS HG and    #
#                         HD protons or TRP HZ2 and HZ3 protons)  #
#      5             Interresidue ambiguities (LYS 12 vs. LYS 27) #
#      6             Intermolecular ambiguities (e.g. ASP 31 CA   #
#                         in monomer 1 and ASP 31 CA in monomer 2 #
#                         of an asymmetrical homodimer, duplex    #
#                         DNA assignments, or other assignments   #
#                         that may apply to atoms in one or more  #
#                         molecule in the molecular assembly)     #
#      9             Ambiguous, specific ambiguity not defined    #
#                                                                 #
###################################################################
save_chemical_shift_1
   _Saveframe_category               assigned_chemical_shifts

   _Details                         'In the ring structure, the side chain of essential Asp61 takes on the COOH state.'

   loop_
      _Software_label

      $SPARKY

   stop_

   loop_
      _Experiment_label

      'Intra-residue 2D 13C-13C DARR'
      'Inter-residue 2D CACA'
      'Intra-residue 2D NCACB'
      'Inter-residue 2D N(CO)CACB'
      'Inter-residue 3D N(CO)CA'
      'Intra-residue 3D NCACO'
      '2H-selective 1H-depolarization 13C-NMR(CODSHD)'
      '13C rotational resonance'

   stop_

   loop_
      _Sample_label

      $sample_1
      $sample_2

   stop_

   _Sample_conditions_label         $condition_233K
   _Chem_shift_reference_set_label  $reference_1
   _Mol_system_component_name       'FoF1 ATP synthase subunit c (EFoc)'
   _Text_data_format                 .
   _Text_data                        .

   loop_
      _Atom_shift_assign_ID
      _Residue_author_seq_code
      _Residue_seq_code
      _Residue_label
      _Atom_name
      _Atom_type
      _Chem_shift_value
      _Chem_shift_value_error
      _Chem_shift_ambiguity_code

        1 21 21 ALA C   C 179   1   1
        2 21 21 ALA CA  C  55.4 1   1
        3 21 21 ALA CB  C  18.3 2   1
        4 21 21 ALA N   N 120   3   1
        5 22 22 ILE C   C 178   1   1
        6 22 22 ILE CA  C  66.2 0.9 1
        7 22 22 ILE CB  C  38.0 1   1
        8 22 22 ILE CD1 C  14.7 1.3 1
        9 22 22 ILE CG1 C  29.2 1.5 1
       10 22 22 ILE CG2 C  17.2 1.4 1
       11 22 22 ILE N   N 118   2   1
       12 23 23 GLY C   C 175   1   1
       13 23 23 GLY CA  C  48.4 0.6 1
       14 23 23 GLY N   N 107   2   1
       15 24 24 ALA C   C 179   2   1
       16 24 24 ALA CA  C  55.3 0.7 1
       17 24 24 ALA CB  C  18.4 1   1
       18 24 24 ALA N   N 121   3   1
       19 25 25 ALA C   C 179   2   1
       20 25 25 ALA CA  C  55.7 1   1
       21 25 25 ALA CB  C  18.3 2   1
       22 25 25 ALA N   N 120   3   1
       23 26 26 ILE C   C 178   1   1
       24 26 26 ILE CA  C  66.6 0.9 1
       25 26 26 ILE CB  C  38.0 1   1
       26 26 26 ILE CD1 C  14.7 1.3 1
       27 26 26 ILE CG1 C  29.2 1.5 1
       28 26 26 ILE CG2 C  17.2 1.4 1
       29 26 26 ILE N   N 118   5   1
       30 27 27 GLY C   C 175   1   1
       31 27 27 GLY CA  C  47.7 0.7 1
       32 27 27 GLY N   N 107   2   1
       33 28 28 ILE C   C 178   1   1
       34 28 28 ILE CA  C  65.9 0.7 1
       35 28 28 ILE CB  C  38.0 1   1
       36 28 28 ILE CD1 C  14.7 1.3 1
       37 28 28 ILE CG1 C  29.2 1.5 1
       38 28 28 ILE CG2 C  17.2 1.4 1
       39 28 28 ILE N   N 119   2   1
       40 29 29 GLY C   C 175   1   1
       41 29 29 GLY CA  C  47.6 0.7 1
       42 29 29 GLY N   N 106   2   1
       43 30 30 ILE C   C 178   1   1
       44 30 30 ILE CA  C  65.9 0.7 1
       45 30 30 ILE CB  C  38.0 1   1
       46 30 30 ILE CD1 C  14.7 1.3 1
       47 30 30 ILE CG1 C  29.2 1.5 1
       48 30 30 ILE CG2 C  17.2 1.4 1
       49 30 30 ILE N   N 120   2   1
       50 31 31 LEU C   C 179   1   1
       51 31 31 LEU CA  C  58.5 0.7 1
       52 31 31 LEU CB  C  41.4 1.4 1
       53 31 31 LEU CD1 C  23.4 1.9 2
       54 31 31 LEU CD2 C  23.4 1.9 2
       55 31 31 LEU CG  C  26.8 1.4 1
       56 31 31 LEU N   N 119   1   1
       57 32 32 GLY C   C 175   1   1
       58 32 32 GLY CA  C  47.5 0.7 1
       59 32 32 GLY N   N 108   2   1
       60 33 33 GLY C   C 175   1   1
       61 33 33 GLY CA  C  47.5 0.7 1
       62 33 33 GLY N   N 108   1   1
       63 34 34 LYS C   C 179   1   1
       64 34 34 LYS CA  C  58.0 0.8 1
       65 34 34 LYS N   N 120   2   1
       66 37 37 GLU C   C 179   1   1
       67 37 37 GLU CA  C  59.8 0.7 1
       68 37 37 GLU N   N 120   2   1
       69 38 38 GLY C   C 175   1   1
       70 38 38 GLY CA  C  47.0 0.8 1
       71 38 38 GLY N   N 108   1   1
       72 39 39 ALA C   C 179   1   1
       73 39 39 ALA CA  C  53.6 0.7 1
       74 39 39 ALA CB  C  18.9 1.5 1
       75 39 39 ALA N   N 122   3   1
       76 42 42 GLN C   C 174   1   1
       77 42 42 GLN CA  C  55.3 0.7 1
       78 42 42 GLN N   N 120   3   1
       79 43 43 PRO CA  C  62.0 1   1
       80 43 43 PRO N   N 134   1   1
       81 51 51 THR C   C 178   1   1
       82 51 51 THR CA  C  65.5 1   1
       83 51 51 THR CB  C  67.3 1   1
       84 51 51 THR N   N 116   3   1
       85 55 55 ILE C   C 178   1   1
       86 55 55 ILE CA  C  65.9 0.6 1
       87 55 55 ILE CB  C  38.0 1   1
       88 55 55 ILE CD1 C  14.7 1.3 1
       89 55 55 ILE CG1 C  29.2 1.5 1
       90 55 55 ILE CG2 C  17.2 1.4 1
       91 55 55 ILE N   N 119   3   1
       92 56 56 VAL CA  C  66.2 0.6 1
       93 56 56 VAL CB  C  31.3 1   1
       94 56 56 VAL CG1 C  22.7 1.7 2
       95 56 56 VAL CG2 C  22.7 1.7 2
       96 57 57 MET C   C 179   1   1
       97 57 57 MET CA  C  58.7 0.7 1
       98 57 57 MET N   N 119   3   1
       99 58 58 GLY C   C 175   1   1
      100 58 58 GLY CA  C  47.8 0.8 1
      101 58 58 GLY N   N 107   2   1
      102 59 59 LEU C   C 179   2   1
      103 59 59 LEU CA  C  58.2 0.8 1
      104 59 59 LEU CB  C  41.4 1.4 1
      105 59 59 LEU CD1 C  23.4 1.9 2
      106 59 59 LEU CD2 C  23.4 1.9 2
      107 59 59 LEU CG  C  26.8 1.4 1
      108 59 59 LEU N   N 122   2   1
      109 61 61 ASP CG  C 179.6 1.2 1
      110 67 67 ALA C   C 179   2   1
      111 67 67 ALA CA  C  55.6 0.7 1
      112 67 67 ALA CB  C  18.3 2   1
      113 67 67 ALA N   N 119   2   1
      114 68 68 VAL C   C 178   1   1
      115 68 68 VAL CA  C  66.4 0.9 1
      116 68 68 VAL CB  C  31.3 1   1
      117 68 68 VAL CG1 C  22.7 1.7 2
      118 68 68 VAL CG2 C  22.7 1.7 2
      119 68 68 VAL N   N 119   3   1
      120 69 69 GLY C   C 175   1   1
      121 69 69 GLY CA  C  47.9 0.8 1
      122 69 69 GLY N   N 108   2   1
      123 70 70 LEU C   C 179   1   1
      124 70 70 LEU CA  C  58.2 0.8 1
      125 70 70 LEU CB  C  41.4 1.4 1
      126 70 70 LEU CD1 C  23.4 1.9 2
      127 70 70 LEU CD2 C  23.4 1.9 2
      128 70 70 LEU CG  C  26.8 1.4 1
      129 70 70 LEU N   N 122   2   1
      130 71 71 GLY C   C 175   1   1
      131 71 71 GLY CA  C  47.9 0.8 1
      132 71 71 GLY N   N 108   2   1
      133 72 72 LEU C   C 178   1   1
      134 72 72 LEU CA  C  58.2 0.8 1
      135 72 72 LEU CB  C  41.4 1.4 1
      136 72 72 LEU CD1 C  23.4 1.9 2
      137 72 72 LEU CD2 C  23.4 1.9 2
      138 72 72 LEU CG  C  26.8 1.4 1
      139 72 72 LEU N   N 122   2   1
      140 73 73 TYR C   C 178   1   1
      141 73 73 TYR CA  C  60.4 0.6 1
      142 73 73 TYR CB  C  41.1 0.6 1
      143 73 73 TYR N   N 119   3   1
      144 74 74 VAL C   C 178   1   1
      145 74 74 VAL CA  C  66.9 0.6 1
      146 74 74 VAL CB  C  31.3 1   1
      147 74 74 VAL CG1 C  22.7 1.7 2
      148 74 74 VAL CG2 C  22.7 1.7 2
      149 74 74 VAL N   N 118   3   1
      150 76 76 PHE C   C 174   1   1
      151 76 76 PHE CA  C  59.5 0.7 1
      152 76 76 PHE N   N 116   1   1
      153 77 77 ALA C   C 175   1   1
      154 77 77 ALA CA  C  50.7 0.7 1
      155 77 77 ALA CB  C  20.0 0.6 1
      156 77 77 ALA N   N 127   2   1
      157 78 78 VAL C   C 177   1   1
      158 78 78 VAL CA  C  61.7 0.7 1
      159 78 78 VAL CB  C  35.5 1.4 1
      160 78 78 VAL CG1 C  21.4 1.4 2
      161 78 78 VAL CG2 C  21.4 1.4 2
      162 78 78 VAL N   N 118   1   1

   stop_

save_