44 research outputs found
Stakeholder Views on Financing Carbon Capture and Storage Demonstration Projects in China
Chinese stakeholders (131) from 68 key institutions in
27 provinces
were consulted in spring 2009 in an online survey of their perceptions
of the barriers and opportunities in financing large-scale carbon
dioxide capture and storage (CCS) demonstration projects in China.
The online survey was supplemented by 31 follow-up face-to-face interviews.
The National Development and Reform Commission (NDRC) was widely perceived
as the most important institution in authorizing the first commercial-scale
CCS demonstration project and authorization was viewed as more similar
to that for a power project than a chemicals project. There were disagreements,
however, on the appropriate size for a demonstration plant, the type
of capture, and the type of storage. Most stakeholders believed that
the international image of the Chinese Government could benefit from
demonstrating commercial CCS and that such a project could also create
advantages for Chinese companies investing in CCS technologies. In
more detailed interviews with 16 financial officials, we found striking
disagreements over the perceived risks of demonstrating CCS. The rate
of return seen as appropriate for financing demonstration projects
was split between stakeholders from development banks (who supported
a rate of 5–8%) and those from commercial banks (12–20%).
The divergence on rate alone could result in as much as a 40% difference
in the cost of CO<sub>2</sub> abatement and 56% higher levelized cost
of electricity based on a hypothetical case study of a typical 600-MW
new build ultrasupercritical pulverized coal-fired (USCPC) power plant.
To finance the extra operational costs, there were sharp divisions
over which institutions should bear the brunt of financing although,
overall, more than half of the support was expected to come from foreign
and Chinese governments
Correlations between Galectin-3 expression and chemotherapeutic resistance in breast cancers (n = 135).
<p>CR: complete response; PR: partial response; SD: stable disease; PD: progressive disease.</p><p>Correlations between Galectin-3 expression and chemotherapeutic resistance in breast cancers (n = 135).</p
Cell viability was reduced by combined galectin-3 knockdown and ATO treatment.
<p>Cell viability was reduced by combined galectin-3 knockdown and ATO treatment.</p
ATO treatment (2.5 µM) significantly increased endogenous galectin-3 expression in MDA-MB-231 cells.
<p>Cells were treated with ATO and anti-galectin-3 antibody (1∶1000) was used to detect endogenous galectin-3 proteins. GAPDH was used as loading control. The results shown are the mean of at least 3 independent experiments. *P<0.01.</p
Galectin-3 knockdown sensitized MDA-MB-231 cells to ATO-induced apoptosis.
<p>Cells were labeled with annexin V (x-axis) and PI (y-axis), and apoptosis was analyzed using a flow cytometer.</p
Immunohistochemical analysis revealed that galectin-3 was located in the cytoplasm and membrane of breast cancer cells (A). Galectin-3 protein is expressed at a significantly higher level in breast cancer tissues compared to paracancerous tissue (B).
<p>Immunohistochemical analysis revealed that galectin-3 was located in the cytoplasm and membrane of breast cancer cells (A). Galectin-3 protein is expressed at a significantly higher level in breast cancer tissues compared to paracancerous tissue (B).</p
The protein level of galectin-3 was reduced after shRNA treatment.
<p>Three independent shRNAs against galectin-3 were used to construct stable cell lines.</p
UMI-77 Modulates the Complement Cascade Pathway and Inhibits Inflammatory Factor Storm in Sepsis Based on TMT Proteomics and Inflammation Array Glass Chip
Sepsis is a systemic inflammatory response syndrome caused
by infection,
which has no specific drug at present. UMI-77 can significantly improve
the survival rate of septic mice; the detailed role of UMI-77 and
its underlying mechanisms in sepsis are not clear. Inflammation array
glass chip and proteomic analyses were performed to elucidate the
latent mechanism of UMI-77 in the treatment of sepsis. The results
showed that 7.0 mg/kg UMI-77 improved the 5 day survival rate in septic
mice compared to the LPS group (60.964 vs 9.779%) and ameliorated
the pathological conditions. Inflammation array glass chip analysis
showed that sepsis treatment with UMI-77 may eventually through the
suppression of the characteristic inflammatory storm-related cytokines
such as KC, RANTES, LIX, IL-6, eotaxin, TARC, IL-1β, and so
on. Proteomics analysis showed that 213 differential expression proteins
and complement and coagulation cascades were significantly associated
with the process for the UMI-77 treatment of sepsis. The top 10 proteins
including Apoa2, Tgfb1, Serpinc1, Vtn, Apoa4, Cat, Hp, Serpinf2, Fgb,
and Serpine1 were identified and verified, which play important roles
in the mechanism of UMI-77 in the treatment of sepsis. Our findings
indicate that UMI-77 exerts an antisepsis effect by modulating the
complement cascade pathway and inhibiting inflammatory storm factors
Multivariate analysis of the factors related to post-operative distant metastasis.
<p>CI = confidence interval.</p><p>Multivariate analysis of the factors related to post-operative distant metastasis.</p
UMI-77 Modulates the Complement Cascade Pathway and Inhibits Inflammatory Factor Storm in Sepsis Based on TMT Proteomics and Inflammation Array Glass Chip
Sepsis is a systemic inflammatory response syndrome caused
by infection,
which has no specific drug at present. UMI-77 can significantly improve
the survival rate of septic mice; the detailed role of UMI-77 and
its underlying mechanisms in sepsis are not clear. Inflammation array
glass chip and proteomic analyses were performed to elucidate the
latent mechanism of UMI-77 in the treatment of sepsis. The results
showed that 7.0 mg/kg UMI-77 improved the 5 day survival rate in septic
mice compared to the LPS group (60.964 vs 9.779%) and ameliorated
the pathological conditions. Inflammation array glass chip analysis
showed that sepsis treatment with UMI-77 may eventually through the
suppression of the characteristic inflammatory storm-related cytokines
such as KC, RANTES, LIX, IL-6, eotaxin, TARC, IL-1β, and so
on. Proteomics analysis showed that 213 differential expression proteins
and complement and coagulation cascades were significantly associated
with the process for the UMI-77 treatment of sepsis. The top 10 proteins
including Apoa2, Tgfb1, Serpinc1, Vtn, Apoa4, Cat, Hp, Serpinf2, Fgb,
and Serpine1 were identified and verified, which play important roles
in the mechanism of UMI-77 in the treatment of sepsis. Our findings
indicate that UMI-77 exerts an antisepsis effect by modulating the
complement cascade pathway and inhibiting inflammatory storm factors