Arsenic (As) is ubiquitous in the natural environment [ 1] due to its natural and anthropogenic origins such as oil exploration, industrial emissions, the applications of insecticides and fertilizers, and sewage irrigation with As contaminated waste [ 2, 3].
It is noteworthy that the low cytotoxicity, the intrinsic aggregation-induced emission nature and near-infrared emissions enable the application of the probe in living cell imaging.
Despite the higher N2O emissions from the application of 32 Mg ha−1 of biochar, the emission factor was lower (0.81%) than the maximum recommended by the IPCC.
The main source of anthropogenic N2O emissions is the application of nitrogen fertilizer to agricultural soils.
An assistant was built to include the tracking of emissions through the application of algebra and rules similar to those used in thermoeconomic analysis.
One of the ways to decrease the global primary energy consumption and the corresponding greenhouse gas emissions is the application of the combined cooling, heating and power generation technologies, known as trigeneration system.
Recent advances in concrete technology offer lower embodied emission through the application of supplementary cementitious materials and recycled aggregates.
The aim of the study was to investigate the variation in soil properties, crop growth and methane emission under the application of an inorganic fertiliser as well as its mixtures with both inorganic and plant materials.
Due to the fact that N2O generation is calculated on the basis of the applied N, a higher transfer of digestate nitrogen into nitrous oxide after fertilization is calculated to be 2.98: 0.8 = 3.73, where 2.98 is the N2O emission after the application in kg of CO2 equivalents for both kinds of fertilizer.
Emissions generated during the application of synthetic fertilizers accounted for 13%% of agricultural emissions in 2011, and are the fastest growing emissions source in agriculture, having increased some 37%% since 2001.
