2 research outputs found
Additional file 1 of Immune cell infiltration and drug response in glioblastoma multiforme: insights from oxidative stress-related genes
Additional file 1: Figure 1. The flowchart for the study. Figure 2. Consensus clustering analysis of differentially expressed ORGs. A Consensus clustering identified three relevant isoforms of ORGs. B–D Heat maps display the normalized enrichment scores for ORGs across these subtypes. E–G PCA, tSNE and UAMP analyses. Figure 3. Analysis of drug sensitivity. A–I Relationship between sensitivity and risk score for nine drugs. Table S1. GBM Differential Gene List
Heterogeneous Variations on Historical and Future Trends of CO<sub>2</sub> and Multiple Air Pollutants from the Cement Production Process in China: Emission Inventory, Spatial–Temporal Characteristics, and Scenario Projections
Cement production is a major contributor to carbon dioxide
(CO2) and multiple hazardous air pollutant (HAP) emissions,
threatening
climate mitigation and urban/regional air quality improvement. In
this study, we established a comprehensive emission inventory by coupling
the unit-based bottom-up and mass balance methods, revealing that
emissions of most HAPs have been remarkably controlled. However, an
increasing 6.0% of atmospheric mercury emissions, as well as 14.1
and 23.7% of fuel-related and process-related CO2 emission
growth were witnessed unexpectedly. Industrial adjustment policies
have imposed a great impact on the spatiotemporal changes in emission
characteristics. Monthly emissions of CO2 and multiple
HAPs decreased from December to February due to the “staggered
peak production,” especially in northern China after implementing
the intensified action plan for air pollution control in winter. Upgrading
environmental technologies and adjusting capacity structures are identified
as dominant driving forces for reducing HAP emissions. Besides, energy
intensity improvement can help offset some of the impact caused by
the increase in clinker/cement production. Furthermore, scenario analysis
results show that ultra-low emission and low-carbon technology transformation
constitute the keys to achieve the synergic reduction of CO2 and multiple HAP emissions in the future