data_25534

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

save_entry_information
   _Saveframe_category      entry_information

   _Entry_title
;
RNA structure determination by solid-state NMR spectroscopy
;
   _BMRB_accession_number   25534
   _BMRB_flat_file_name     bmr25534.str
   _Entry_type              original
   _Submission_date         2015-03-12
   _Accession_date          2015-03-12
   _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 Marchanka      Alexander . .
      2 Simon          Bernd     . .
      3 Althoff-Ospelt Gerhard   . .
      4 Carlomagno     Teresa    . .

   stop_

   loop_
      _Saveframe_category_type
      _Saveframe_category_type_count

      assigned_chemical_shifts 1

   stop_

   loop_
      _Data_type
      _Data_type_count

      "13C chemical shifts" 173
      "15N chemical shifts"  49
      "31P chemical shifts"   9

   stop_

   loop_
      _Revision_date
      _Revision_keyword
      _Revision_author
      _Revision_detail

      2016-08-29 update   BMRB   'update entry citation'
      2015-05-08 original author 'original release'

   stop_

   _Original_release_date   2015-05-08

save_


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

save_citations
   _Saveframe_category           entry_citation

   _Citation_full                .
   _Citation_title
;
RNA structure determination by solid-state NMR spectroscopy
;
   _Citation_status              published
   _Citation_type                journal
   _CAS_abstract_code            .
   _MEDLINE_UI_code              .
   _PubMed_ID                    25960310

   loop_
      _Author_ordinal
      _Author_family_name
      _Author_given_name
      _Author_middle_initials
      _Author_family_title

      1 Marchanka      Alexander . .
      2 Simon          Bernd     . .
      3 Althoff-Ospelt Gerhard   . .
      4 Carlomagno     Teresa    . .

   stop_

   _Journal_abbreviation        'Nat. Commun.'
   _Journal_volume               6
   _Journal_issue                .
   _Journal_CSD                  .
   _Book_chapter_title           .
   _Book_volume                  .
   _Book_series                  .
   _Book_ISBN                    .
   _Conference_state_province    .
   _Conference_abstract_number   .
   _Page_first                   7024
   _Page_last                    7024
   _Year                         2015
   _Details                      .

save_


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

save_assembly
   _Saveframe_category         molecular_system

   _Mol_system_name           "26mer Box C/D RNA (5'-R(P*CP*UP*GP*AP*GP*CP*UP*CP*GP*AP*AP*AP*GP*AP*GP*CP*AP*AP*UP*GP*AP*UP*G)-3')"
   _Enzyme_commission_number   .

   loop_
      _Mol_system_component_name
      _Mol_label

      entity $entity

   stop_

   _System_molecular_weight    .
   _System_physical_state      native
   _System_oligomer_state      ?
   _System_paramagnetic        no
   _System_thiol_state         .
   _Database_query_date        .
   _Details                    .

save_


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

save_entity
   _Saveframe_category                          monomeric_polymer

   _Mol_type                                    polymer
   _Mol_polymer_class                           RNA
   _Name_common                                '26mer Box C/D RNA'
   _Molecular_mass                              7450.573
   _Mol_thiol_state                            'not present'
   _Details                                     .

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

      _Residue_count                               26
   _Mol_residue_sequence
;
GCUGAGCUCGAAAGAGCAAU
GAUGUC
;

   loop_
      _Residue_seq_code
      _Residue_label

       1 G   2 C   3 U   4 G   5 A
       6 G   7 C   8 U   9 C  10 G
      11 A  12 A  13 A  14 G  15 A
      16 G  17 C  18 A  19 A  20 U
      21 G  22 A  23 U  24 G  25 U
      26 C

   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

      $entity 'E. coli' 562 Bacteria . Escherichia coli

   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 'enzymatic semisynthesis' . . . . .

   stop_

save_


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

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

save_sample_1
   _Saveframe_category   sample

   _Sample_type          microcrystalline
   _Details              .

   loop_
      _Mol_label
      _Concentration_value
      _Concentration_value_units
      _Isotopic_labeling

      $entity  20 mg/mL 'nucleotide-type-selective [U-99% 13C; U-99% 15N]'
       H2O    100 %     'natural abundance'

   stop_

save_


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

save_CNS
   _Saveframe_category   software

   _Name                 CNS
   _Version              1.2

   loop_
      _Task

      'data analysis'

   stop_

   _Details              .

save_


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

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

save_spectrometer_1
   _Saveframe_category   NMR_spectrometer

   _Manufacturer         Bruker
   _Model                Avance
   _Field_strength       700
   _Details              .

save_


save_spectrometer_2
   _Saveframe_category   NMR_spectrometer

   _Manufacturer         Bruker
   _Model                Avance
   _Field_strength       600
   _Details              .

save_


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

save_(13C,15N-TEDOR)-13C,13C_PDSD_1
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     '(13C,15N-TEDOR)-13C,13C PDSD'
   _Sample_label        $sample_1

save_


save_13C-31P_TEDOR_2
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name     '13C-31P TEDOR'
   _Sample_label        $sample_1

save_


save_CHHC_3
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name      CHHC
   _Sample_label        $sample_1

save_


save_NHHC_4
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name      NHHC
   _Sample_label        $sample_1

save_


save_CN-TEDOR_5
   _Saveframe_category   NMR_applied_experiment

   _Experiment_name      CN-TEDOR
   _Sample_label        $sample_1

save_


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

save_sample_conditions_1
   _Saveframe_category   sample_conditions

   _Details              .

   loop_
      _Variable_type
      _Variable_value
      _Variable_value_error
      _Variable_value_units

      pH            7.5 . pH
      temperature 260   . K

   stop_

save_


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

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

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

save_chemical_shift_reference_1
   _Saveframe_category   chemical_shift_reference

   _Details              .

   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 'methyl carbons' ppm 38.48 external direct   . . . 1
      adamantane N 15 'methyl carbons' ppm 38.48 na       indirect . . . 0.402980
      adamantane P 31 'methyl carbons' ppm 38.48 na       indirect . . . 1.609894

   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_assigned_chem_shift_list_1
   _Saveframe_category               assigned_chemical_shifts

   _Details                          .

   loop_
      _Experiment_label

      '(13C,15N-TEDOR)-13C,13C PDSD'
      '13C-31P TEDOR'

   stop_

   loop_
      _Sample_label

      $sample_1

   stop_

   _Sample_conditions_label         $sample_conditions_1
   _Chem_shift_reference_set_label  $chemical_shift_reference_1
   _Mol_system_component_name        entity
   _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  2  2 C C2  C 158.1 0 1
        2  3  3 U C1' C  93.7 0 1
        3  3  3 U C2  C 154.1 0 1
        4  3  3 U C2' C  75.6 0 1
        5  3  3 U C3' C  71.9 0 1
        6  3  3 U C4  C 165.7 0 1
        7  3  3 U C4' C  82.9 0 1
        8  3  3 U C5  C 104.7 0 1
        9  3  3 U C5' C  64.0 0 1
       10  3  3 U C6  C 139.3 0 1
       11  3  3 U N1  N 145.5 0 1
       12  3  3 U N3  N 157.1 0 1
       13  4  4 G C1' C  90.1 0 1
       14  4  4 G C2  C 156.6 0 1
       15  4  4 G C2' C  76.0 0 1
       16  4  4 G C3' C  79.6 0 1
       17  4  4 G C4  C 155.3 0 1
       18  4  4 G C4' C  88.3 0 1
       19  4  4 G C5  C 116.7 0 1
       20  4  4 G C5' C  67.8 0 1
       21  4  4 G C6  C 160.3 0 1
       22  4  4 G C8  C 139.0 0 1
       23  4  4 G N1  N 145.0 0 1
       24  4  4 G N2  N  81.4 0 1
       25  4  4 G N9  N 167.0 0 1
       26  4  4 G P   P  -3.8 0 1
       27  5  5 A C1' C  88.1 0 1
       28  5  5 A C2  C 156.0 0 1
       29  5  5 A C2' C  78.4 0 1
       30  5  5 A C3' C  80.0 0 1
       31  5  5 A C4  C 150.9 0 1
       32  5  5 A C4' C  83.4 0 1
       33  5  5 A C5  C 118.8 0 1
       34  5  5 A C5' C  70.3 0 1
       35  5  5 A C6  C 156.6 0 1
       36  5  5 A C8  C 139.8 0 1
       37  5  5 A N6  N  81.4 0 1
       38  5  5 A N9  N 166.9 0 1
       39  5  5 A P   P  -0.7 0 1
       40  6  6 G C1' C  92.6 0 1
       41  6  6 G C2  C 158.2 0 1
       42  6  6 G C2' C  75.8 0 1
       43  6  6 G C3' C  77.3 0 1
       44  6  6 G C4  C 152.2 0 1
       45  6  6 G C4' C  83.4 0 1
       46  6  6 G C5  C 119.5 0 1
       47  6  6 G C5' C  70.9 0 1
       48  6  6 G C6  C 157.9 0 1
       49  6  6 G C8  C 139.0 0 1
       50  6  6 G N1  N 148.9 0 1
       51  6  6 G N2  N  75.8 0 1
       52  6  6 G N9  N 171.1 0 1
       53  6  6 G P   P  -3.8 0 1
       54  7  7 C C1' C  93.9 0 1
       55  7  7 C C2  C 159.3 0 1
       56  7  7 C C2' C  75.4 0 1
       57  7  7 C C3' C  72.1 0 1
       58  7  7 C C4  C 168.1 0 1
       59  7  7 C C4' C  82.0 0 1
       60  7  7 C C5  C  97.1 0 1
       61  7  7 C C5' C  64.3 0 1
       62  7  7 C C6  C 142.2 0 1
       63  7  7 C N1  N 152.2 0 1
       64  7  7 C N3  N 196.3 0 1
       65  7  7 C N4  N 100.1 0 1
       66  8  8 U C1' C  93.7 0 1
       67  8  8 U C2  C 152.8 0 1
       68  8  8 U C2' C  75.5 0 1
       69  8  8 U C3' C  72.1 0 1
       70  8  8 U C4  C 169.4 0 1
       71  8  8 U C4' C  82.1 0 1
       72  8  8 U C5  C 103.2 0 1
       73  8  8 U C5' C  64.3 0 1
       74  8  8 U C6  C 142.3 0 1
       75  8  8 U N1  N 145.5 0 1
       76  8  8 U N3  N 163.6 0 1
       77  9  9 C C1' C  93.2 0 1
       78  9  9 C C2  C 158.2 0 1
       79  9  9 C C2' C  75.9 0 1
       80  9  9 C C3' C  71.4 0 1
       81  9  9 C C4  C 168.1 0 1
       82  9  9 C C4' C  81.2 0 1
       83  9  9 C C5  C  98.2 0 1
       84  9  9 C C5' C  64.2 0 1
       85  9  9 C C6  C 140.2 0 1
       86  9  9 C N1  N 151.7 0 1
       87  9  9 C N3  N 197.7 0 1
       88  9  9 C N4  N  99.1 0 1
       89 10 10 G C1' C  94.0 0 1
       90 10 10 G C2' C  75.7 0 1
       91 10 10 G C3' C  71.5 0 1
       92 10 10 G C4  C 155.5 0 1
       93 10 10 G C4' C  81.8 0 1
       94 10 10 G C5' C  64.4 0 1
       95 10 10 G C6  C 161.7 0 1
       96 10 10 G C8  C 136.3 0 1
       97 10 10 G N1  N 146.2 0 1
       98 10 10 G N2  N  75.5 0 1
       99 10 10 G N9  N 171.3 0 1
      100 14 14 G C1' C  92.6 0 1
      101 14 14 G C2  C 157.5 0 1
      102 14 14 G C2' C  74.6 0 1
      103 14 14 G C4  C 151.9 0 1
      104 14 14 G C5  C 119.2 0 1
      105 14 14 G C5' C  69.5 0 1
      106 14 14 G C8  C 137.4 0 1
      107 14 14 G N1  N 148.2 0 1
      108 14 14 G N2  N  75.4 0 1
      109 14 14 G N9  N 170.1 0 1
      110 15 15 A C1' C  92.9 0 1
      111 15 15 A C2  C 153.0 0 1
      112 15 15 A C2' C  75.5 0 1
      113 15 15 A C3' C  72.3 0 1
      114 15 15 A C4  C 148.6 0 1
      115 15 15 A C4' C  81.8 0 1
      116 15 15 A C5  C 120.6 0 1
      117 15 15 A C5' C  65.2 0 1
      118 15 15 A C6  C 157.6 0 1
      119 15 15 A C8  C 139.5 0 1
      120 15 15 A N1  N 222.1 0 1
      121 15 15 A N9  N 171.5 0 1
      122 16 16 G C1' C  92.5 0 1
      123 16 16 G C2  C 157.0 0 1
      124 16 16 G C2' C  75.8 0 1
      125 16 16 G C3' C  72.0 0 1
      126 16 16 G C4  C 151.6 0 1
      127 16 16 G C4' C  81.7 0 1
      128 16 16 G C5  C 119.0 0 1
      129 16 16 G C5' C  64.3 0 1
      130 16 16 G C6  C 160.9 0 1
      131 16 16 G C8  C 135.6 0 1
      132 16 16 G N1  N 148.0 0 1
      133 16 16 G N2  N  74.6 0 1
      134 16 16 G N9  N 170.9 0 1
      135 17 17 C C1' C  93.6 0 1
      136 17 17 C C2  C 158.5 0 1
      137 17 17 C C2' C  75.7 0 1
      138 17 17 C C3' C  71.7 0 1
      139 17 17 C C4  C 167.6 0 1
      140 17 17 C C4' C  81.6 0 1
      141 17 17 C C5  C  97.9 0 1
      142 17 17 C C5' C  64.1 0 1
      143 17 17 C C6  C 139.0 0 1
      144 17 17 C N1  N 150.5 0 1
      145 17 17 C N3  N 195.9 0 1
      146 17 17 C N4  N  99.0 0 1
      147 18 18 A C1' C  94.1 0 1
      148 18 18 A C2  C 156.0 0 1
      149 18 18 A C2' C  76.6 0 1
      150 18 18 A C3' C  72.5 0 1
      151 18 18 A C4  C 150.6 0 1
      152 18 18 A C4' C  81.6 0 1
      153 18 18 A C5  C 121.6 0 1
      154 18 18 A C5' C  64.6 0 1
      155 18 18 A C6  C 157.7 0 1
      156 18 18 A C8  C 138.6 0 1
      157 18 18 A N6  N  80.7 0 1
      158 18 18 A N7  N 230.9 0 1
      159 18 18 A N9  N 173.2 0 1
      160 18 18 A P   P  -4.2 0 1
      161 19 19 A C1' C  89.7 0 1
      162 19 19 A C2  C 154.5 0 1
      163 19 19 A C2' C  72.2 0 1
      164 19 19 A C3' C  78.5 0 1
      165 19 19 A C4  C 150.5 0 1
      166 19 19 A C4' C  85.1 0 1
      167 19 19 A C5  C 121.8 0 1
      168 19 19 A C5' C  67.4 0 1
      169 19 19 A C6  C 156.4 0 1
      170 19 19 A C8  C 145.8 0 1
      171 19 19 A N6  N  76.3 0 1
      172 19 19 A N7  N 228.2 0 1
      173 19 19 A N9  N 164.7 0 1
      174 19 19 A P   P  -1.8 0 1
      175 20 20 U C1' C  89.4 0 1
      176 20 20 U C2  C 154.2 0 1
      177 20 20 U C2' C  75.4 0 1
      178 20 20 U C3' C  80.5 0 1
      179 20 20 U C4  C 167.9 0 1
      180 20 20 U C4' C  84.2 0 1
      181 20 20 U C5  C 105.7 0 1
      182 20 20 U C5' C  69.5 0 1
      183 20 20 U C6  C 146.8 0 1
      184 20 20 U N1  N 147.4 0 1
      185 20 20 U N3  N 158.5 0 1
      186 20 20 U P   P  -5.3 0 1
      187 21 21 G C1' C  87.5 0 1
      188 21 21 G C2' C  77.5 0 1
      189 21 21 G C3' C  80.0 0 1
      190 21 21 G C4  C 155.7 0 1
      191 21 21 G C4' C  87.5 0 1
      192 21 21 G C5  C 117.6 0 1
      193 21 21 G C5' C  68.3 0 1
      194 21 21 G C6  C 160.3 0 1
      195 21 21 G C8  C 139.1 0 1
      196 21 21 G N1  N 145.6 0 1
      197 21 21 G N2  N  81.0 0 1
      198 21 21 G N9  N 168.8 0 1
      199 21 21 G P   P  -6.0 0 1
      200 22 22 A C1' C  92.4 0 1
      201 22 22 A C2  C 156.0 0 1
      202 22 22 A C2' C  75.7 0 1
      203 22 22 A C3' C  72.4 0 1
      204 22 22 A C4  C 147.5 0 1
      205 22 22 A C4' C  82.9 0 1
      206 22 22 A C5  C 120.8 0 1
      207 22 22 A C5' C  65.8 0 1
      208 22 22 A C6  C 157.1 0 1
      209 22 22 A C8  C 140.0 0 1
      210 22 22 A N6  N  81.2 0 1
      211 22 22 A N9  N 170.2 0 1
      212 22 22 A P   P  -0.1 0 1
      213 23 23 U C1' C  93.0 0 1
      214 23 23 U C2  C 151.0 0 1
      215 23 23 U C2' C  74.6 0 1
      216 23 23 U C3' C  72.1 0 1
      217 23 23 U C4  C 167.6 0 1
      218 23 23 U C4' C  82.3 0 1
      219 23 23 U C5  C 103.8 0 1
      220 23 23 U C5' C  63.1 0 1
      221 23 23 U C6  C 140.0 0 1
      222 23 23 U N1  N 144.7 0 1
      223 23 23 U N3  N 155.7 0 1
      224 23 23 U P   P  -4.2 0 1
      225 24 24 G C1' C  92.6 0 1
      226 24 24 G C2  C 157.4 0 1
      227 24 24 G C4  C 152.9 0 1
      228 24 24 G C5  C 118.1 0 1
      229 24 24 G C8  C 136.2 0 1
      230 24 24 G N2  N  76.5 0 1
      231 24 24 G N9  N 172.4 0 1

   stop_

save_