从鄂木斯克索列诺耶湖中培养沼泽褐飞虱

Q3 Economics, Econometrics and Finance
Elena Moliboga, Olga Bazhenova
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引用次数: 0

摘要

由于全球粮食短缺,有必要寻找替代性可再生生物资源。在西西伯利亚南部,丝状蓝藻菌 Limnospira fusiformis 引发了索列诺耶湖高硷碱性水域的季节性藻类大量繁殖。该物种具有宝贵的营养价值,其植物体是蛋白质和生物活性物质的潜在来源。鱼腥藻 O9.13F 菌株很有可能成为动物饲料中的生物添加剂。文章提供了一种从 Solenoye 湖中分离出的鱼腥藻 O9.13F 菌株的培养技术。研究目标是确定最佳培养条件、培养基和周期。 该研究以丝状蓝藻菌 L. fusiformis 的菌株 O9.13F 为对象。在藻类大量繁殖的末期,从俄罗斯鄂木斯克索列诺耶湖的水样中采用微量移液管法分离出了纯培养物。培养在UT-6070气候室中进行,光照强度为 10-30 μmol photons/m2s,12 小时光暗循环,温度为 20 ± 2°C,培养基有多种:自然栖息地--索伦诺耶湖水;矿物培养基--液体扎鲁克培养基;琼脂化扎鲁克培养基;复合变体,其中矿物培养基与水的比例从 1:9 到 9:1。 湖水抑制了培养物的生长:毛状体在第 10-15 天死亡并下沉。扎鲁克琼脂培养基最早在第 2 天就阻止了培养物的生长。在使用 Zarrouk 矿物液体培养基和 Zarrouk 培养基与灭菌水以 5:5 的比例混合的样品中,培养物的生长和发育最为旺盛。在没有搅拌的情况下,成熟的毛状体没有时间发育,植物体量的增加速度减慢。在培养温度为 20 ± 2°C 和光照强度为 10-30 μmol photons/m2s 的条件下,O9.13F 的植量增长率最高。Zarrouk 矿物液体培养基和 Zarrouk 培养基与灭菌水的复合培养基在 UT-6070 环境室中的效果最佳。在培养 20 天后,Europolitext KV-06 或机械搅拌可防止磷酸盐沉淀。最佳的重新培养频率是每 5-7 天一次。 新的栽培技术可以在短时间内获得大量的镰刀菌植物体,而且经济成本较低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cultivating Limnospira fusiformis from Lake Solenoye, Omsk
Global food shortages make it necessary to look for alternative renewable bioresources. In the south of Western Siberia, the filamentous cyanoprokaryote Limnospira fusiformis triggers seasonal algae bloom in hypergaline alkaline Lake Solenoye. The species has valuable nutritional properties, and its phytomass is a potential source of proteins and biologically active substances. The O9.13F strain of L. fusiformis has a good potential as a bioadditive in animal feeding. The article offers a technology for cultivating O9.13F of L. fusiformis, isolated from Lake Solenoye. The research objectives were to establish the optimal cultivation conditions, medium, and periodicity. The study featured strain O9.13F of filamentous cyanoprokaryote L. fusiformis. The micropipette method made it possible to isolate pure culture from water samples taken from Lake Solenoye, Omsk, Russia, at the end of algae bloom. The cultivation involved a UT-6070 climatic chamber under uniform illumination with light intensity 10–30 μmol photons/m2s and 12-h light-dark circle at 20 ± 2°C on various media: natural habitat – water from the Solenoye Lake; mineral medium – liquid Zarrouk’s medium; agarized Zarrouk’s medium; composite variants, where the ratio of mineral medium vs. water varied from 1:9 to 9:1. Lake water inhibited the culture growth: the trichomes died and sank on day 10–15. Zarrouk’s agarized medium stopped the culture growth as early as on day 2. The most intensive growth and development of the culture was observed in the samples with Zarrouk’s mineral liquid medium and a composite mix of Zarrouk’s medium and sterilized water at a ratio of 5:5. Without stirring, full-fledged trichomes had no time to develop, and the increase in phytomass volume slowed down. O9.13F showed the highest rate of phytomass growth at a cultivation temperature of 20 ± 2°C and a light intensity of 10–30 μmol photons/m2s. The recommended light-dark circle was12:12 h. Zarrouk’s mineral liquid medium and a composite medium of Zarrouk’s medium and sterilized water proved to be optimal in a UT-6070 environmental chamber. Europolitext KV-06 or mechanical mixing could prevent sedimentation of phosphates after 20 days of cultivation. The optimal recultivation frequency was once every 5–7 days. The new cultivation technology made it possible to obtain a significant volume of L. fusiformis phytomass in a short time and with low financial expenses.
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来源期刊
Food Processing: Techniques and Technology
Food Processing: Techniques and Technology Engineering-Industrial and Manufacturing Engineering
CiteScore
1.40
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0.00%
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82
审稿时长
12 weeks
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