esis on this total change," remarked lead author Elliott Campbell a former Carnegie postdoctoral researcher, currently at UC Merced. "Our approach, based on the relation of carbonyl sulfide to photosynthesis, gives us this unique ability."
With the new inputs, the researchers ran their simulations, which consider plant uptake, soil and ocean absorption, human-made emissions and how the gases flow through these systems. The simulations showed that the magnitude of the plant uptake was much larger than other sources and sinks at a continental scale during the growing season, which is important for using the compound to trace photosynthesis.
"The intriguing outcome of this study is that an inverse analysis of the atmospheric carbonyl sulfide measurements may be used to quantify the carbon released during plant respiration," remarked Berry. "That key missing piece has been a thorn in the side of carbon-cycle research for years."
'/>"/>
Page: 1 2 Related biology news :1.
New study warns limited carbon market puts 20 percent of tropical forest at risk2.
Mice use specialized neurons to detect carbon dioxide in the air3.
Researchers find new taste in fruit flies: carbonated water4.
Studying component parts of living cells with carbon nanotube cellular probes5.
New membrane strips carbon dioxide from natural gas faster and better6.
Green alga genome project catalogs carbon capture machinery7.
Hungry microbes share out the carbon in the roots of plants8.
Decline in uptake of carbon emissions confirmed9.
Study reveals that nitrogen fertilizers deplete soil organic carbon10.
US fires release large amounts of carbon dioxide11.
Wildfire drives carbon levels in northern forests