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Improving the Efficiency of Organic Fertilizer and Nitrogen Use via Air Plasma and Distributed Renewable Energy

机译:通过空气等离子体和分布式可再生能源提高有机肥和氮气使用的效率

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Synthesis of reactive forms of nitrogen such as ammonia is important in modern agricultural productivity, but present agricultural technology uses reactive nitrogen inefficiently, leading to numerous and growing environmental problems. Animal, human, and food waste all contain significant quantities of organic nitrogen that are transformed into ammonia (NH3) by bacterial degradation of organic waste. If not captured, this volatile form of reactive nitrogen is lost to the environment, reducing N content and thus the agricultural value of organic waste. Furthermore, ammonia loss to the environment initiates a cascade of environmental problems. Nonequilibrium air plasma technology creates reactive nitrogen that can be readily converted to dilute aqueous nitric acid solutions. If mixed with decaying organic waste, NH3 loss is greatly reduced via the formation of involatile ammonium nitrate, a potent nitrogen fertilizer. Air plasma technology for fixed nitrogen manufacture is currently limited only by the availability of electricity and the energy efficiency of the process. The price of electricity via distributed renewable routes such as solar photovoltaic or wind turbines is rapidly decreasing. Increasingly, inexpensive wind and solar power sources, coupled with recent advances in air plasma energy efficiency, suggest that this technology could have a significant role in improving nitrogen use efficiency and reducing environmental and other threats associated with the current system.
机译:氨等活性态氮的合成在现代农业生产力中具有重要意义,但目前的农业技术对活性氮的利用效率低下,导致了大量且日益严重的环境问题。动物、人类和食物垃圾都含有大量的有机氮,这些有机氮通过有机垃圾的细菌降解转化为氨(NH3)。如果不捕获,这种挥发性形式的活性氮就会流失到环境中,降低氮含量,从而降低有机废物的农业价值。此外,氨流失到环境中会引发一连串的环境问题。非平衡空气等离子体技术产生的活性氮可以很容易地转化为稀硝酸水溶液。如果与腐烂的有机废物混合,NH3的损失会通过形成不挥发的硝酸铵(一种有效的氮肥)而大大减少。目前,用于制造固定氮的空气等离子体技术仅受到电力供应和工艺能效的限制。太阳能光伏发电或风力涡轮机等分布式可再生能源线路的电价正在迅速下降。越来越多地,廉价的风能和太阳能,加上空气等离子体能源效率的最新进展,表明这项技术可以在提高氮利用效率和减少与当前系统相关的环境和其他威胁方面发挥重要作用。

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