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反刍动物营养策略的环境影响综述

A review on environmental impacts of nutritional strategies in ruminants.

作者信息

Tamminga S

机构信息

Department of Animal Nutrition, Wageningen Institute of Animal Sciences, WIAS, The Netherlands.

出版信息

J Anim Sci. 1996 Dec;74(12):3112-24. doi: 10.2527/1996.74123112x.

DOI:10.2527/1996.74123112x
PMID:8994925
Abstract

Primary (plant), secondary (animal), and tertiary (human) biological systems are driven by energy, either fossil or renewable energy in biomass. Their ratio shifts from about 10:90 in primary, via 25:75 in secondary, to 90:10 in tertiary systems. Energy input in ruminant production is mainly as plants and plant parts from primary production, and the amount needed per unit product (milk, meat) primarily depends on its digestibility. This is high in young, leafy, whole plants, in roots and tubers, and in reproductive organs (whole seeds) or organ parts (by-products) of mature plants. Use of fossil energy per kilogram of DM for primary production ranges from 1 to 3 MJ in forage to over 8 MJ in concentrate feeds, whereas input per kilogram of milk is 1 to 10 MJ. Biomass energy used in ruminant production contains nitrogen (N), phosphorus (P), and potassium (K), but in a ratio rarely balanced to the animals requirements. In secondary systems, energy is partitioned between foods of animal origin and waste. The latter contains OM, N, P, K, and gases (CO2, CH4), which may cause environmental problems. Losses per kilograms of milk vary and are 10 to 45 g for N, 0 to 3 g for P, and 2 to 20 g for K. Environmental impacts of animal production can be reduced by varying the use of inorganic fertilizer and changing the forage to concentrate ratio. Digestibilities can be improved by proper harvest management. Level and ratio of dietary N, P, and K can be adjusted to requirements by selecting proper ingredients, reducing their loss in waste. Limited scope exists to reduce losses in respiration and fermentation gases.

摘要

初级(植物)、次级(动物)和三级(人类)生物系统由能源驱动,能源可以是化石能源或生物质中的可再生能源。它们的比例从初级系统中约10:90,经次级系统中的25:75,转变为三级系统中的90:10。反刍动物生产中的能量输入主要是来自初级生产的植物和植物部分,单位产品(牛奶、肉类)所需的能量主要取决于其消化率。幼嫩、多叶的整株植物、根和块茎以及成熟植物的生殖器官(整粒种子)或器官部分(副产品)的消化率较高。每千克干物质用于初级生产的化石能源,在牧草中为1至3兆焦,在精饲料中超过8兆焦,而每千克牛奶的能源输入为1至10兆焦。反刍动物生产中使用的生物质能含有氮(N)、磷(P)和钾(K),但其比例很少能与动物需求平衡。在次级系统中,能量在动物源性食物和废物之间分配。后者含有有机物质、氮、磷、钾和气体(二氧化碳、甲烷),这可能会引发环境问题。每千克牛奶的损失量各不相同,氮为10至45克,磷为0至3克,钾为2至20克。通过改变无机肥料的使用和改变牧草与精饲料的比例,可以减少动物生产对环境的影响。通过适当的收获管理可以提高消化率。通过选择合适的成分、减少其在废物中的损失,可以将日粮中氮、磷和钾的水平和比例调整到需求水平。减少呼吸和发酵气体损失的空间有限。

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