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Sustainable, localised Farm-based microalgal fermentation to transform protein supplements for animal feedstock

Sustainable, localised Farm-based microalgal fermentation to transform protein supplements for animal feedstock
可持续、本地化的农场微藻发酵可转化为动物饲料的蛋白质补充剂
批准号:
10052883
负责人:
金额:
$52.73万
依托单位:
依托单位国家:
英国
项目类别:
Collaborative R&D
财政年份:
2023
资助国家:
英国
项目状态:
未结题
起止时间:
2023 至 --

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中文摘要
翻译
17Cicada预计将开发一种革命性的过程,使各个农场能够以可持续、具有成本效益和对环境影响最小的方式独立生产自己的动物饲料。17蝉的目标是产生一种强大和创新的废水利用方式,以支持营养微藻的生长,这些微藻可以转化为高质量的动物饲料。预计到2050年,全球人口将达到98亿,到2100年将达到112亿,这将显著增加粮食生产的压力。全球事件,如乌克兰战争,对动物小麦饲料成本产生了重大影响,去年动物小麦饲料成本上涨了26.5%。这对食品通胀产生了影响,英国的食品通胀已升至13%,加剧了当前的生活成本危机。为了为世界不断增长的人口提供粮食,必须大幅增加作物产量,以支持畜牧业生产。不幸的是,可耕地和淡水资源有限。预计到2030年,气候变化还将影响玉米和小麦的产量,玉米产量将减少24%,小麦产量将减少17%。微藻是解决这一问题的令人兴奋的方案。微藻的蛋白质含量很高(75%),对氮和磷的利用效率很高。这与传统的农业蛋白质生产不同,传统的农业蛋白质生产会导致氮和磷流失,导致湖泊和河流污染以及海洋酸化。随着微藻蛋白质的生产,几乎所有的氮和磷酸盐都被转化为蛋白质,对环境的影响最小。**我们的愿景是以微藻为基础的动物饲料的可持续生产**这将极大地帮助养殖业提高产量和降低成本。我们设想了一场革命,我们的简单但创新的光生物反应器由农场操作,产生很少或根本不产生废物,修复农业废水,并消耗二氧化碳生产动物饲料用微藻。**我们的主要目标**涉及分离快速生长的微藻菌株,这些菌株具有良好的营养特征,能够利用废水生长。我们还将专注于优化我们的光生物反应器技术,以与现有的农场基础设施无缝集成,并进行强有力的技术经济分析。**我们的创新**是第一次尝试利用农业废水生产预先优化生长的工业微藻菌株,以可持续和具有成本效益的方式生产高质量的动物饲料。
英文摘要
17Cicada anticipates the development of a revolutionary process that will allow individual farms to independently produce their own animal feed in a way that is sustainable, cost effective and with minimal environmental impact. 17Cicada aims to generate a robust and innovative way of utilising wastewater to support the growth of nutritional microalgae that can be converted into high quality animal feed.The global population is predicted to reach 9.8 billion by 2050 and 11.2 billion in 2100 (UN), significantly increasing the pressure on food production. Global events, such as the war in Ukraine, have had a significant impact on the cost of animal wheat feed, which has increased by 26.5 % over the last year. This has impacted on food inflation, which has risen to 13 % in the UK, compounding the current cost-of-living crisis. To provide food for the world's growing population, a significant increase in crop production is necessary to support livestock production. Unfortunately, the availability of arable land and fresh water is limited. Climate change is also predicted to affect the production of both maize and wheat by 2030, reducing maize crops by 24 % and wheat crops declining by 17 %.Microalgae are an exciting solution to this problem. Microalgae have a high protein content (\>75 %) and are highly efficient in their utilisation of nitrogen and phosphate. This contrasts with conventional agricultural protein production, which results in nitrogen and phosphate run off, leading to pollution of lakes and rivers as well as ocean acidification. With microalgae protein production almost all the nitrogen and phosphates are converted to protein with minimal environmental impact.**Our vision is the sustainable production of microalgae-based animal feed** which will significantly help the farming industry to increase production and reduce costs. We envisage a revolution where our simple but innovative photobioreactors are operated by the farm, producing little or no waste, remediating agricultural wastewater and consuming carbon dioxide to produce microalgae for animal feed.**Our key objectives** involve the isolation of fast-growing microalgae strains with excellent nutritional profiles capable of growth using wastewater. We will also focus on optimising our photobioreactor technology to integrate seamlessly with existing farm infrastructure, coupled with robust techno-economic analyses.**Our innovation** is a first-of-a-kind attempt to produce industrial microalgae strains pre-optimised for growth using agricultural wastewater to produce high-quality animal feed in a way that is sustainable and cost effective.
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