<?xml version="1.0" encoding="ASCII"?>
<biogps><data><item><item key="slug">comparison-of-bone-marrow-mesenchymal-stromal-cell</item><item key="factor_count">4</item><item key="sample_count">7</item><item key="tags"><item>bone</item><item>bone marrow</item><item>cell</item><item>fibronectin</item><item>genome</item><item>interleukin</item><item>interleukin-6</item><item>multiple myeloma</item><item>myeloma</item><item>syndecan</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-36474</item><item key="id">2500</item><item key="name">Comparison of bone-marrow mesenchymal stromal cells from multiple myeloma patients and healthy donors</item></item><item><item key="slug">expression-data-from-treatment-of-human-melanocyte</item><item key="factor_count">2</item><item key="sample_count">7</item><item key="tags"><item>interleukin</item><item>interleukin-6</item><item>melanocyte</item><item>skin</item><item>vitiligo</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-31641</item><item key="id">4215</item><item key="name">Expression data from treatment of human melanocytes with phenolic compounds</item></item><item><item key="slug">expression-data-from-human-alternatively-activated</item><item key="factor_count">2</item><item key="sample_count">8</item><item key="tags"><item>interleukin</item><item>interleukin-4</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-16386</item><item key="id">3300</item><item key="name">Expression data from human alternatively activated macrophages</item></item><item><item key="slug">expression-data-from-human-macrophages</item><item key="factor_count">5</item><item key="sample_count">38</item><item key="tags"><item>interleukin</item><item>interleukin-4</item><item>left</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-16385</item><item key="id">3299</item><item key="name">Expression data from human macrophages</item></item><item><item key="slug">effects-of-tocilizumab-versus-methotrexate-therapy</item><item key="factor_count">3</item><item key="sample_count">40</item><item key="tags"><item>arthritis</item><item>cell</item><item>disease</item><item>genome</item><item>interleukin</item><item>interleukin-6</item><item>knee</item><item>rheumatoid arthritis</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-45867</item><item key="id">2178</item><item key="name">Effects of tocilizumab versus methotrexate therapy on gene expression profiles in the early rheumatoid arthrtis synovium</item></item><item><item key="slug">exogenous-interleukin-10-versus-glucocorticoids-ef</item><item key="factor_count">1</item><item key="sample_count">30</item><item key="tags"><item>bronchopulmonary dysplasia</item><item>cell</item><item>cytokine</item><item>interleukin</item><item>interleukin-10</item><item>interleukin-8</item><item>leukocyte</item><item>lung</item><item>monocyte</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-35683</item><item key="id">4412</item><item key="name">Exogenous Interleukin-10 versus Glucocorticoids: Effect on Gene Expression and Pro-inflammatory Cytokine Release in Polymorphonuclear Leukocytes and Monocytes of the Newborn</item></item><item><item key="slug">acute-venous-hypertension-induces-local-release-of</item><item key="factor_count">2</item><item key="sample_count">24</item><item key="tags"><item>arm</item><item>cell</item><item>cell adhesion molecule</item><item>chemokine</item><item>endothelial cell</item><item>heart</item><item>hypertension</item><item>interleukin</item><item>interleukin-6</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-38783</item><item key="id">2197</item><item key="name">Acute venous hypertension induces local release of inflammatory cytokines and endothelial activation in humans</item></item><item><item key="slug">aerobic-training-modulation-of-the-host-systemic-m</item><item key="factor_count">1</item><item key="sample_count">6</item><item key="tags"><item>body</item><item>breast</item><item>breast cancer</item><item>cancer</item><item>cell</item><item>cell phenotype</item><item>estrogen</item><item>genome</item><item>hepatocyte</item><item>interleukin</item><item>left</item><item>leukocyte</item><item>macrophage</item><item>protein</item><item>serum</item><item>solid</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-46925</item><item key="id">2336</item><item key="name">Aerobic training modulation of the host systemic milieu directly alters breast cancer cell phenotype in vitro.</item></item><item><item key="slug">altered-immune-phenotype-in-peripheral-blood-cells</item><item key="factor_count">1</item><item key="sample_count">38</item><item key="tags"><item>artery</item><item>chemokine</item><item>disease</item><item>hypertension</item><item>il-7r</item><item>interleukin</item><item>interleukin-7</item><item>peripheral</item><item>pulmonary artery</item><item>pulmonary hypertension</item><item>scleroderma</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-22356</item><item key="id">3701</item><item key="name">Altered immune phenotype in peripheral blood cells of patients with scleroderma-associated pulmonary hypertension</item></item><item><item key="slug">human-keratinocytes-have-a-response-to-injury-that</item><item key="factor_count">2</item><item key="sample_count">30</item><item key="tags"><item>cell</item><item>epidermis</item><item>interleukin</item><item>interleukin-1</item><item>interleukin-8</item><item>kcs</item><item>neutrophil</item><item>psoriasis</item><item>skin</item></item><item key="species">human</item><item key="is_default">False</item><item key="geo_gse_id">E-GEOD-30355</item><item key="id">4152</item><item key="name">Human keratinocytes have a response to injury that upregulates CCL20 and other genes linking innate and adaptive immunity</item></item></data></biogps>
