<HashMap><database>bioimages</database><scores/><additional><omics_type>Unknown</omics_type><submitter>Venizelos Papayannopoulos</submitter><journal>The Journal of Cell Biology</journal><full_dataset_link>https://www.ebi.ac.uk/biostudies/studies/S-JCBD-201006052</full_dataset_link><attach_to>JCB</attach_to><legend>NE, PR3, and MPO localization during NET formation.&lt;br />&lt;br />PMA-activated neutrophils (60 min) were fixed and immunolabeled for NE (red) and MPO (green). DNA was stained with DRAQ5 (blue). &lt;br />&lt;br />MPO associates with DNA before cell lysis but later than NE.</legend><legend>Figure 6.&lt;br />&lt;br />NE knockout mice fail to form NETs. &lt;br />&lt;br />(A) Representative fluorescence images of the lungs of WT (i) and NE knockout (ii) mice infected with K. pneumoniae, and stained with antibodies against MPO (green) and against a DNA/histone complex (red). The lungs of WT mice (i) contain decondensed web-like chromatin structures that stain for MPO (arrow). In contrast, in the lungs of NE knockout mice, all neutrophils appear naive, with condensed nuclei and granular MPO staining.</legend><legend>NE, PR3, and MPO localization during NET formation.&lt;br />&lt;br />PMA-activated neutrophils (60 min) were fixed and immunolabeled for NE (red) and MPO (green). DNA was stained with DRAQ5 (blue).&lt;br />&lt;br />MPO associates with DNA before cell lysis but later than NE.</legend><legend>NE, PR3, and MPO localization during NET formation. Naive and PMA-activated neutrophils in the presence or absence of NEi, fixed at the indicated time points and immunolabeled for NE (red) and MPO (green). DNA was stained with DRAQ5 (blue).  &lt;br />&lt;br />NEi prevents NE and MPO translocation to the nucleus, and chromatin decondensation.</legend><repository>bioimages</repository><figure_sub>Image 27029 (Figure 5 - C)</figure_sub><figure_sub>Image 27032 (Figure 5 - C)</figure_sub><figure_sub>Image 27056 (Figure 6 - Ai)</figure_sub><figure_sub>Image 27040 (Figure 5 - C)</figure_sub><figure_sub>Figure 5 - B upper</figure_sub><figure_sub>Image 27038 (Figure 5 - C)</figure_sub><figure_sub>Image 27055 (Figure 6 - Aii)</figure_sub><figure_sub>Image 27036 (Figure 5 - C)</figure_sub><figure_sub>Image 27051 (Figure 6 - Ai)</figure_sub><figure_sub>Image 27042 (Figure 5 - C)</figure_sub><figure_sub>Image 27045 (Figure 5 - B upper)</figure_sub><figure_sub>Figure 6 - Aii</figure_sub><figure_sub>Image 27033 (Figure 5 - C)</figure_sub><figure_sub>Image 27041 (Figure 5 - C)</figure_sub><figure_sub>Image 27048 (Figure 5 - B lower)</figure_sub><figure_sub>Image 27037 (Figure 5 - C)</figure_sub><figure_sub>Image 27046 (Figure 5 - B upper)</figure_sub><figure_sub>Image 27043 (Figure 5 - C)</figure_sub><figure_sub>Image 27047 (Figure 5 - B lower)</figure_sub><figure_sub>Image 27030 (Figure 5 - C)</figure_sub><figure_sub>Figure 5 - B lower</figure_sub><figure_sub>Image 27034 (Figure 5 - C)</figure_sub><figure_sub>Figure 5 - C</figure_sub><figure_sub>Figure 5</figure_sub><figure_sub>Image 27031 (Figure 5 - C)</figure_sub><figure_sub>Image 27044 (Figure 5 - B upper)</figure_sub><figure_sub>Figure 6</figure_sub><figure_sub>Image 27049 (Figure 5 - B lower)</figure_sub><figure_sub>Figure 6 - Ai</figure_sub><figure_sub>Image 27035 (Figure 5 - C)</figure_sub><figure_sub>Image 27054 (Figure 6 - Aii)</figure_sub><figure_sub>Image 27039 (Figure 5 - C)</figure_sub><pubmed_authors>Arturo Zychlinsky</pubmed_authors><pubmed_authors>Venizelos Papayannopoulos</pubmed_authors><pubmed_authors>Abdul Hakkim</pubmed_authors><pubmed_authors>Kathleen D. Metzler</pubmed_authors></additional><is_claimable>false</is_claimable><name>Neutrophil elastase and myeloperoxidase regulate the formation of neutrophil extracellular traps</name><description/><dates><release>2010-10-25T11:20:37Z</release><modification>2018-11-29T11:20:37Z</modification><creation>2018-11-29T11:20:37Z</creation></dates><accession>S-JCBD-201006052</accession><cross_references><doi>10.1083/jcb.201006052</doi></cross_references></HashMap>