School of Civil Engineering, The University of Queensland , Brisbane, Queensland 4072, Australia.
Center for Microbial Ecology and Technology (CMET), Ghent University , Coupure Links 653, 9000 Gent, Belgium.
Environ Sci Technol. 2017 Jul 5;51(13):7297-7303. doi: 10.1021/acs.est.7b00916. Epub 2017 Jun 7.
The Haber Bosch process is among the greatest inventions of the 20th century. It provided agriculture with reactive nitrogen and ultimately mankind with nourishment for a population of 7 billion people. However, the present agricultural practice of growing crops for animal production and human food constitutes a major threat to the sustainability of the planet in terms of reactive nitrogen pollution. In view of the shortage of directly feasible and cost-effective measures to avoid these planetary nitrogen burdens and the necessity to remediate this problem, we foresee the absolute need for and expect a revolution in the use of microbes as a source of protein. Bypassing land-based agriculture through direct use of Haber Bosch produced nitrogen for reactor-based production of microbial protein can be an inspiring concept for the production of high quality animal feed and even straightforward supply of proteinaceous products for human food, without significant nitrogen losses to the environment and without the need for genetic engineering to safeguard feed and food supply for the generations to come.
哈伯-博施法是 20 世纪最伟大的发明之一。它为农业提供了活性氮,最终为 70 亿人口提供了营养。然而,目前为了生产动物饲料和人类食品而种植作物的农业做法,对地球的可持续性构成了重大威胁,因为这会造成活性氮污染。鉴于缺乏直接可行且具有成本效益的措施来避免这些行星氮负担,以及解决这个问题的必要性,我们预计绝对需要并期望在利用微生物作为蛋白质来源方面进行一场革命。通过直接利用哈伯-博施法生产的氮气,在反应堆中生产微生物蛋白,可以为生产高质量的动物饲料提供一个有启发性的概念,甚至可以直接为人类食品提供蛋白质产品,而不会向环境中排放大量氮,也不需要基因工程来保障未来几代人的饲料和食品供应。