发酵玉米青贮和苜蓿青贮中微量元素含量的研究

L. Mitiohlo, S. Merzlov, H. Merzlova, S. P. Babenko
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引用次数: 1

摘要

玉米青贮和苜蓿干草在多汁粗饲料中占有重要地位。由于违反了这些饲料的采购、储存或使用技术,其中很大一部分已经腐烂,不再适合动物饲养。将这种饲料添加到反刍动物的饮食中会导致各种负面后果。因此,如何有效处理变质的玉米青贮和苜蓿干草的问题就出现了。利用微生物制剂—生物破坏者进行堆肥是将植物源性变质饲料加工成有机肥的有效方法之一。堆肥加速矿化,增加植物对微量元素的吸收。然而,不同剂量的btu - center生物杀灭剂对发酵玉米青贮和苜蓿干草中微量元素含量的影响尚未见研究。在研究中,选择了变质饲料样品,在不引入生物破坏者(对照)的情况下,以5.0,10.0和20.0 cm3/t的剂量引入生物破坏者进行发酵。测定了堆肥后干草和青贮饲料中铁、锌、锰、铜和钴的含量。腐坏苜蓿干草在堆肥过程中,其铁含量相对发酵前饲料有所增加。在对照版中,金属含量增加了40.0%。在生物灭菌剂(使用剂量为10.0 cm3/t)的参与下发酵饲料,堆肥生物质中Ferum的含量较对照组提高了35.7%。在堆肥过程中,添加20.0 cm3/t的生物灭菌剂,苜蓿干草中铁含量相对发酵前的金属含量提高了2.1倍。在秸秆堆肥过程中,添加生物灭菌剂可加速矿化过程,提高单位发酵体锌含量。以20.0 cm3/t剂量使用微生物制剂的实验组金属含量最高。与对照指标的差异为49.6%。未加生物灭害剂的苜蓿干草发酵导致锰含量在各研究组中最低。以20.0 cm3/t发酵生物质生物破坏剂差异最大,占23.3%。用生物灭菌剂发酵苜蓿干草后,其铜含量显著提高。研究表明,在苜蓿干草堆肥过程中,生物灭菌剂用量越大,发酵液中金属含量越高。在最高剂量下,发酵干草中金属生物制剂的含量显著增加。与对照组的差异为50.3%。初始原料中添加的BTU CENTR生物破坏剂剂量越大,堆肥干草中钴含量越高。施用20.0 cm3/t生物灭菌剂处理苜蓿干草,堆肥后金属生物含量比对照组高26.7%。玉米青贮堆肥后生物金属含量的变化也有类似的规律。未添加生物灭菌剂的青贮发酵过程中,堆肥生物质中铁、锌、锰、铜和钴的含量相对发酵前均有所增加。在玉米青贮料中添加越多的生物破坏者,发酵对矿化度的贡献越大,从而提高了青贮料中生物金属的含量。生物灭菌剂用量最大时,发酵饲料中铁、锌、锰、铜、钴含量分别增加了37.2个百分点;41.3;46.4;与对照组相比分别为21.6%和30.0%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
THE CONTENT OF MICRO-ELEMENTS IN FERMENTED CORN SILAGE AND ALFALFA SAYAGE
Corn silage and alfalfa hay occupy an important place among juicy and coarse fodder for cattle. Due to violation of the technology of procurement, storage or use of these fodders, a large part of them decays and becomes unsuitable for animals feeding. Getting such feed into the diet of ruminants can cause various negative consequences. Therefore, the problem of effective disposal of spoiled corn silage and alfalfa hay arises. One of the effective methods of spoiled feed of plant origin processing into organic fertilizer is composting using microbiological preparations - biodestructors. Composting accelerates mineralization and increases the assimilation of trace elements by plants. However, the problem of the influence of different doses of the BTU-CENTR biodestructor on the content of microelements in fermented corn silage and alfalfa hay has not been studied. For the study, samples of spoiled fodder had been selected, which were fermented without the introduction of a biodestructor (control) and with the introduction of a biodestructor in doses of 5.0, 10.0 and 20.0 cm3/t. The content of Ferrum, Zinc, Manganese, Copper and Cobalt was determined in hay and silage after composting. During composting of spoiled alfalfa hay, the Ferrum content in it increases relatively to feed before fermentation. In the control version, the increase in metal content was at the level of 40.0%. Fermentation of fodder with the participation of a biodestructor (use dose of 10.0 cm3/t) led to an increase in the content of Ferum in the composted biomass by 35.7% compared to the control group. During composting with the addition of a biodestructor in the amount of 20.0 cm3/t, the Ferrum content increases by 2.1 times relatively to the metal content in alfalfa hay before fermentation. During the composting of hay with the addition of a biodestructor, the mineralization process accelerated and the content of Zinc per unit of the fermented mass increased. The highest metal content was found in the experimental group where the microbiological preparation was used at a dose of 20.0 cm3/t. The difference with the control indicator was 49.6%. Fermentation of alfalfa hay without a biodestructor led to the fact that the content of Manganese was the lowest in relation to the research groups. The biggest difference was with fermented biomass biodestructor at a dose of 20.0 cm3/t and constituted 23.3%. The content of Copper in alfalfa hay after fermentation with a biodestructor increases significantly. It has been proven that the more biodestructor was used during composting of alfalfa hay, the higher was the metal content in the fermented mass. At the highest dose of the biodestructor, the content of metal-biotics in the fermented hay increased by a statistically significant value. The difference with the control group constituted 50.3%. The higher dose of the BTU CENTR biodestructor was added to the starting material, the higher was the Cobalt content in the composted hay. When a biodestructor was applied to alfalfa hay at a dose of 20.0 cm3/t, the metal-biotic content after composting was 26.7% higher than in the control group. A similar regularity was revealed regarding the change in the content of biotic metals in corn silage after its composting with a biodestructor. Fermentation of silage without the addition of a biodestructor was accompanied by an increase in the content of Ferrum, Zinc, Manganese, Copper and Cobalt in the composted biomass relatively to the feed before fermentation. The more the biodestructor was added to the corn silage, the more fermentation contributed to the increase in mineralization, and accordingly, the content of biotic metals in it. With the use of the largest dose of biodestructor, the content of Ferrum, Zinc, Manganese, Copper and Cobalt in fermented feed increases by 37.2, respectively; 41.3; 46.4; 21.6 and 30.0% relatively to the control group.
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