<emd xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" emdb_id="EMD-2562" version="3.0.1.1" xsi:schemaLocation="https://github.com/emdb-empiar/emdb-schemas/blob/master/v3/v3_0_1_1/emdb_relaxed.xsd">
   <admin>
      <current_status>
         <code>REL</code>
         <processing_site>PDBe</processing_site>
      </current_status>
      <sites>
         <deposition>PDBe</deposition>
         <last_processing>PDBe</last_processing>
      </sites>
      <key_dates>
         <deposition>2014-01-16</deposition>
         <header_release>2014-02-19</header_release>
         <map_release>2014-05-14</map_release>
         <update>2014-06-25</update>
      </key_dates>
      <title>Cryo electron microscopy of E. coli ClpB DWB mutant (BAP form bound to ClpP)</title>
      <authors_list>
         <author>Carroni M</author>
         <author>Kummer E</author>
         <author>Oguchi Y</author>
         <author>Clare DK</author>
         <author>Wendler P</author>
         <author>Sinning I</author>
         <author>Kopp J</author>
         <author>Mogk A</author>
         <author>Bukau B</author>
         <author>Saibil HR</author>
      </authors_list>
      <keywords>chaperone, disaggregase, ClpB, BAP, DWB (trap) mutant, coiled-coil domain</keywords>
   </admin>
   <crossreferences>
      <citation_list>
         <primary_citation>
            <journal_citation published="true">
               <author order="1">Carroni M</author>
               <author order="2">Kummer E</author>
               <author order="3">Oguchi Y</author>
               <author order="4">Clare DK</author>
               <author order="5">Wendler P</author>
               <author order="6">Sinning I</author>
               <author order="7">Kopp J</author>
               <author order="8">Mogk A</author>
               <author order="9">Bukau B</author>
               <author order="10">Saibil HR</author>
               <title>Head-to-tail interactions of the coiled-coil domains regulate ClpB activity and cooperation with Hsp70 in protein disaggregation</title>
               <journal>elife</journal>
               <volume>3</volume>
               <first_page>e02481</first_page>
               <year>2014</year>
               <external_references type="PUBMED">24843029</external_references>
               <external_references type="DOI">doi:10.7554/eLife.02481</external_references>
            </journal_citation>
         </primary_citation>
      </citation_list>
   </crossreferences>
   <sample>
      <name>ClpB DWB trap mutant with ATPgammaS. BAP variant bound to ClpP.</name>
      <supramolecule_list>
         <sample_supramolecule supramolecule_id="1000">
            <name>ClpB DWB trap mutant with ATPgammaS. BAP variant bound to ClpP.</name>
            <details>Only the ClpB part was reconstructed and the molecular weight only refers to this part.</details>
            <oligomeric_state>Homohexamer. (One homohexamer of BAP bound to one homoheptamer of ClpP)</oligomeric_state>
            <number_unique_components>2</number_unique_components>
            <molecular_weight>
               <theoretical units="MDa">0.5</theoretical>
            </molecular_weight>
         </sample_supramolecule>
      </supramolecule_list>
      <macromolecule_list>
         <protein_or_peptide macromolecule_id="1">
            <name>ClpB</name>
            <natural_source database="NCBI">
               <organism ncbi="562">Escherichia coli</organism>
               <cellular_location>cytoplasm</cellular_location>
            </natural_source>
            <molecular_weight>
               <experimental units="MDa">0.08</experimental>
               <theoretical units="MDa">0.08</theoretical>
            </molecular_weight>
            <details>The protein is engineered to bind to ClpP.</details>
            <number_of_copies>6</number_of_copies>
            <oligomeric_state>Hexamer</oligomeric_state>
            <recombinant_exp_flag>true</recombinant_exp_flag>
            <recombinant_expression database="NCBI">
               <recombinant_organism ncbi="562">Escherichia coli</recombinant_organism>
               <recombinant_strain>derivatives of MC4100</recombinant_strain>
               <recombinant_plasmid>pDS56</recombinant_plasmid>
            </recombinant_expression>
            <sequence>
               </sequence>
         </protein_or_peptide>
      </macromolecule_list>
   </sample>
   <structure_determination_list>
      <structure_determination structure_determination_id="1">
         <method>singleParticle</method>
         <aggregation_state>particle</aggregation_state>
         <specimen_preparation_list>
            <single_particle_preparation preparation_id="1">
               <concentration units="mg/mL">0.3</concentration>
               <buffer>
                  <ph>7.5</ph>
                  <details>20 mM Tris-HCl, pH 7.5, 20 mM KCl, 15 mM MgCl2, 1 mM DTT, 2 mM ATPgammaS</details>
               </buffer>
               <vitrification>
                  <cryogen_name>ETHANE</cryogen_name>
                  <chamber_humidity units="percentage">100</chamber_humidity>
                  <chamber_temperature units="K">77</chamber_temperature>
                  <instrument>FEI VITROBOT MARK II</instrument>
                  <method>A thin (~7nm) carbon layer was applied onto holey grids. A 0.01% polylysine solution was applied and blotted out. Protein sample was applied and blotted for 3 seconds before plunging.</method>
               </vitrification>
            </single_particle_preparation>
         </specimen_preparation_list>
         <microscopy_list>
            <single_particle_microscopy microscopy_id="1">
               <microscope>FEI TECNAI F20</microscope>
               <illumination_mode>FLOOD BEAM</illumination_mode>
               <imaging_mode>BRIGHT FIELD</imaging_mode>
               <electron_source>FIELD EMISSION GUN</electron_source>
               <acceleration_voltage units="kV">200</acceleration_voltage>
               <nominal_cs units="mm">2</nominal_cs>
               <nominal_defocus_min units="&#181;m">1.5</nominal_defocus_min>
               <nominal_defocus_max units="&#181;m">4.0</nominal_defocus_max>
               <nominal_magnification>80000.0</nominal_magnification>
               <specimen_holder_model>SIDE ENTRY, EUCENTRIC</specimen_holder_model>
               <temperature>
                  <temperature_min units="K">77</temperature_min>
                  <temperature_max units="K">88</temperature_max>
                  <temperature_average units="K">83</temperature_average>
               </temperature>
               <alignment_procedure>
                  <legacy>
                     <astigmatism>Objective lens astigmatism was corrected at 150,000 x magnification</astigmatism>
                  </legacy>
               </alignment_procedure>
               <date>2011-10-10</date>
               <image_recording_list>
                  <image_recording>
                     <film_or_detector_model category="CCD">GATAN ULTRASCAN 4000 (4k x 4k)</film_or_detector_model>
                     <number_real_images>150</number_real_images>
                     <average_electron_dose_per_image units="e/&#8491;^2">15</average_electron_dose_per_image>
                  </image_recording>
               </image_recording_list>
            </single_particle_microscopy>
         </microscopy_list>
         <singleparticle_processing image_processing_id="1">
            <ctf_correction>
               <details>phase flipping entire frame</details>
            </ctf_correction>
            <final_reconstruction>
               <applied_symmetry>
                  <point_group>C6</point_group>
               </applied_symmetry>
               <algorithm>OTHER</algorithm>
               <resolution res_type="BY AUTHOR" units="&#8491;">24.0</resolution>
               <resolution_method>OTHER</resolution_method>
               <software_list>
                  <software>
                     <name>IMAGIC, Spider</name>
                  </software>
               </software_list>
               <details>Starting models were generated by angular reconstitution and particle orientations were refined by projection matching in SPIDER. Only part of the molecule was refined in the alignment, but the final reconstruction includes the whole molecule.</details>
               <number_images_used>4592</number_images_used>
            </final_reconstruction>
            <final_angle_assignment>
               <details>Only side views used. Beta angles between 80 and 100 degrees (IMAGIC convention).</details>
            </final_angle_assignment>
         </singleparticle_processing>
      </structure_determination>
   </structure_determination_list>
   <map format="CCP4" size_kbytes="6751">
      <file>emd_2562.map.gz</file>
      <symmetry>
         <space_group>1</space_group>
      </symmetry>
      <data_type>IMAGE STORED AS FLOATING POINT NUMBER (4 BYTES)</data_type>
      <dimensions>
         <col>120</col>
         <row>120</row>
         <sec>120</sec>
      </dimensions>
      <origin>
         <col>-59</col>
         <row>-59</row>
         <sec>-59</sec>
      </origin>
      <spacing>
         <x>120</x>
         <y>120</y>
         <z>120</z>
      </spacing>
      <cell>
         <a units="&#8491;">240.0</a>
         <b units="&#8491;">240.0</b>
         <c units="&#8491;">240.0</c>
         <alpha units="deg">90.0</alpha>
         <beta units="deg">90.0</beta>
         <gamma units="deg">90.0</gamma>
      </cell>
      <axis_order>
         <fast>X</fast>
         <medium>Y</medium>
         <slow>Z</slow>
      </axis_order>
      <statistics>
         <minimum>-1.92316353</minimum>
         <maximum>3.16520667</maximum>
         <average>0.01380475</average>
         <std>0.17285551</std>
      </statistics>
      <pixel_spacing>
         <x units="&#8491;">2.0</x>
         <y units="&#8491;">2.0</y>
         <z units="&#8491;">2.0</z>
      </pixel_spacing>
      <contour_list>
         <contour primary="true">
            <level>0.161</level>
            <source>AUTHOR</source>
         </contour>
      </contour_list>
      <annotation_details>Cryo EM reconstruction of E.coli ClpB trap mutant (BAP form bund to ClpP). Six fold symmetry applied.</annotation_details>
      <details>::::EMDATABANK.org::::EMD-2562::::</details>
   </map>
   <interpretation>
      <modelling_list>
         <modelling>
            <initial_model>
               <access_code>1KHY</access_code>
               <chain>
                  <chain_id>A</chain_id>
               </chain>
            </initial_model>
            <refinement_protocol>RIGID BODY FIT</refinement_protocol>
            <software_list>
               <software>
                  <name>Chimera</name>
               </software>
            </software_list>
            <details>Fitting of separate domains was performed manually and locally optimised using Chimera. Known domain interfaces were used to guide the fit.</details>
            <refinement_space>REAL</refinement_space>
         </modelling>
         <modelling>
            <initial_model>
               <access_code>4CIU</access_code>
               <chain>
                  <chain_id>A</chain_id>
               </chain>
            </initial_model>
            <refinement_protocol>RIGID BODY FIT</refinement_protocol>
            <software_list>
               <software>
                  <name>Chimera</name>
               </software>
            </software_list>
            <details>Fitting of separate domains was performed manually and locally optimised using Chimera. Known domain interfaces were used to guide the fit.</details>
            <refinement_space>REAL</refinement_space>
         </modelling>
      </modelling_list>
      <figure_list>
         <figure>
            <file>emd_2562.tiff</file>
         </figure>
      </figure_list>
   </interpretation>
   <validation>
      <fsc_curve>
         <file>emd_2562_fsc.xml</file>
      </fsc_curve>
   </validation>
</emd>