The phrase "carbon reduction potential" is correct and usable in written English.
You can use it when discussing the capacity or ability to decrease carbon emissions in various contexts, such as environmental policy, sustainability initiatives, or energy efficiency.
Example: "The study highlights the carbon reduction potential of renewable energy sources compared to fossil fuels."
Alternatives: "carbon emission reduction capacity" or "potential for reducing carbon emissions."
The current results made it possible to establish a general trend for Fischer-type W-containingmplexes contanning arylryl substituent, namely (largest metal oxidation and largest carbene carbon reduction potential) [(L)(CO 4WC OEt)(2-thienyl)] > [(L)(CO 4WC OEt)(2-furyl)] > [(L)(CO 4WC OEt)(2- N-methyl pyrrolyl)] (L = CO, PPh3 or AsPh3).
The local carbon reduction potential will depend on a number of factors.
Bioenergy is often considered controversial due to issues surrounding direct and indirect land use change [ 13, 35], real carbon reduction potential, social acceptability and other environmental impacts.
Therefore, this study assesses the annual and monthly carbon-reduction potential of rooftops equipped with solar panels occupying 30% of their area.
The annual carbon-reduction potential for the four areas was 4.5 31.1 kg CO2 m−2 yr−1, and the solar energy replacement rate is higher in winter than in summer.
In summary, this study presents carbon budgets in high-resolution grids, quantifies the carbon-reduction potential of rooftops with solar panels, and proposes a reduction strategy for reducing CO2 emissions from urban activities to improve the sustainability of urban areas and their environs and inform urban planning and climate change adaptation.
But this would be felt more in terms of bioenergy's "expensive" production costs than its carbon emissions reduction potential, which is disputed inside and outside the commission.
Results of an application to a practical example show a carbon emissions reduction potential of 23%.
The applicability of hybrid energy systems in coal-rich countries, especially China and the United States, is analyzed as well as the carbon emission reduction potential and economic feasibility.
The hybrid energy system is feasible in most coal-intensive countries and will lead to significant carbon emission reduction potential in the coming 5 15 years.
Therefore, a thermochemical process for biomass conversion into synthetic chemicals and fuels is being developed at the Karlsruhe Institute of Technology (KIT) by producing process energy to achieve a desirable high carbon dioxide reduction potential.
