Development and evaluation of three sorghum varieties under different fermentation period for silage production
Paper Details
Development and evaluation of three sorghum varieties under different fermentation period for silage production
Abstract
Silage is a crucial source of nourishment for livestock, especially during dry periods or poor-quality grass. The simple random and ranking technique was used, and it was conducted at Cagayan State -University at Piat Campus to investigate the nutritional value of three sorghum cultivars when turned into silage with varying fermentation durations. Generally, the study aimed to determine the most suitable sorghum variety for optimal silage production based on nutritional quality. The results showed that all three sorghum varieties exhibited an increase in crude protein content from 14 to 21 days of fermentation. Additionally, higher fiber content was observed after 28 days of fermentation. Extended fermentation led to a reduction in moisture content due to microbial activity during the ensiling process. The presence of calcium and phosphorus in the fermentation substrate influenced the proliferation and activity of fermentative microorganisms. Based on the study, the 21-day fermentation period for sorghum silage is recommended for local livestock farmers. Furthermore, considering their nutritional content, the SV2 and SV3 sorghum varieties are suitable for silage production. It is recommended that a wider range of sorghum cultivars and varying fermentation durations be considered to identify the best options for high-quality silage production.
Arnon DI. 1995. Criteria of essentiality of inorganic micro-nutrients for plants with reference to molybdenum in trace elements in plant physiology, Chronica Botanical Company,Waltham mass. Pp 120.
Brocke KV, Trouche G, Weltzien E, Barro CPK, Sidibé A, Zougmoré R. 2014. Helping farmers adapt to climate and cropping system change through increased access to sorghum genetic resources adapted to prevalent sorghum cropping systems in burkina faso. Experimental Agriculture 50, 284–305.
Gupta RK, Gangoliya SS, Singh NK. 2015. Reduction of phytic acid and enhancement of bioavailable micronutrients in food grains. Journal of Food Science and Technology 52(2), 676-684.
Kung Jr, L, Shaver RD. 2001. Interpretation and use of silage fermentation analysis reports. Focus on Forage 3(13), 1-6.
Kung Jr, L, Shaver RD. 2018. Silage Fermentation and Silage Additives, Journal of Dairy Science 101, 4020–4033.
McDonald. 1991. titled “The Biochemistry of Silage” Chalcombe Publications, 340 p.
Sanchez AC, Subudhi PK, Rosenow DT, Nguyen HT. 2002. Mapping QTLs associated with drought resistance in sorghum (Sorghum bicolor L. Moench). Plant Molecular Biology 48, 713–726.
Sankarapandian R, Audilakshmi S, Sharma V, Ganesamurthy K, Talwar HS, Patil JV. 2013. Effect of morpho-physiological traits on grain yield of sorghum grown under stress at different growth stages, and stability analysis. The Journal of Agricultural Science 151, 630–647.
Santos EM, Silva TC, Macedo CHO, Campos F. S. 2013. “Lactic acid bacteria in tropical grass silages,” in Lactic Acid Bacteria: R, D for Food, Health and Livestock Purposes, ed M. Kongo (Rijeka: InTech), 335–362.
Santos MM, Galvão JCC, Silva IR, Miranda GV, Finger FL. 2010. Application times nitrogen in top dressing in corn crops in direct planting, and allocation of nitrogen (15n) in the plant. Brazilian Journal of Soil Science 34(4), 1185-1194.
Michael M. Uy (2024), Development and evaluation of three sorghum varieties under different fermentation period for silage production; IJB, V24, N6, June, P31-36
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