Influence of Different Treatments on Nutritive Values of Sugarcane Bagasse

Balgees AbuElgasim Atta Elmnan, Abdalla Alameen Hemeedan, Rwaa Ismaeel Ahmed

Abstract


The study aimed to enhance the nutritive value and digestibility of sugarcane bagasse (SCB) using different treatments. Firstly: SCB was exposed to physical treatment (ground or un-ground) served as control and secondly to: chemical (5% urea, and 3% ammonia) or biological (10% chicken manure and 5% fungi (Pleurotus floridans)) treatments. The effects of the different treatments on the chemical composition, in vitro dry matter digestibility (IVDMD), in vitro gas production and in situ dry matter degradability of bagasse were studied. The results showed that different treatments increased significantly (P<0.05) crude protein (CP), ash content and IVDMD, while decreased neutral detergent fiber (NDF), acid detergent fiber (ADF) and acid detergent lignin (ADL) content. The CP content was increased from 0.95 to 6.32, 6.84, 7.63, 7.86,% for un-ground SCB treated with ammonia, urea, fungi, chicken manure respectively and from 1.19 to 6.67, 7.37,  7.92, 8.08% for ground SCB treated with ammonia, urea, chicken manure and fungi respectively. The highest decrease in NDF, ADF and ADL were recorded by fungi treatment for un-ground and ground of SCB compared with the other treatments. The greatest values of IVDMD were obtained by fungi treatments (70.42, 67.38%) followed by urea (66.28, 65.48%), ammonia (64.62, 62.82%), chicken manure (61.19, 61.45%) and control (35.28, 34.42%) for ground and un-ground treatments respectively. Chemical and biological treatments had a highly positive impact on gas production, readily fermentable fraction (a) and potential production (a+b) which were high for urea treatments than other treatments, while slow degradable fraction (b) was high for fungi treatment. Combination between physical and chemical or biological treatments associated with the increment of in situ degradability for slow degradable fraction (b) for ground fungi, potential degradable fraction (a+b) for urea and fungi ground.


Keywords


physical, chemical, biological treatments, IVDMD, gas production, degradability

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