The effect of introducing Brachiaria brizanta cv. Marandú for forage upon milk production and economic results was evaluated on Tayabito buffalo dairy farm affiliated to Maraguán Livestock Center in Camagüey municipality, Cuba. To this purpose, a two-hectare B. brizanta grazing ground was introduced and its effect on milk production and quality was estimated by a Switch Back design with two treatments and six replicas each. Initially, female buffaloes lactation span was 122 ± 5,7 days. Forage balances were performed on native pastures and half the area with B. brizanta &nbsp;grassland. &nbsp;This new species &nbsp;proved its suitability &nbsp;by spreading &nbsp;over 80 % of the 2 ha area after being planted. Concerning milk production during dry and rainy seasons, a significant increase was registered for B. brizanta compared to native pastures (over 0,54 and 0,83 l/animal/day for each season, respectively). Milk quality was not affected in either case. This farm forage production could supply current herd feeding needs by introducing 50 % grazing grounds of B. brizanta; besides, productive indexes could significantly improve

Curbelo Rodríguez, Lino M.

Díaz Gaspar, Iliana

Guevara Viera, Guillermo E.

Guevara Viera, Raúl V.

Rivero Rodríguez, Mirtha

English

Portal de Revistas - Universidad de Camagüey

Rev. prod. anim., 25 (2): 2013 I S S N  2 2 2 4 - 7 9 2 0  Introduction of Brachiaria brizantha cv. Marandú for Milk Production, and Economic Results of a Buffalo Dairy Mirtha Rivero Rodríguez*, Lino M. Curbelo Rodríguez**, Iliana Díaz Gaspar***, Raúl V. Guevara Viera**, Guillermo E. Guevara Viera** * Maraguán Cattle Farm, Ministry of Agriculture, Camagüey, Cuba ** Center for Animal Production Studies, Faculty of Agricultural Sciences, University of Ca-magüey, Cuba *** FINTUR, Camagüey Branch, Cuba ABSTRACT The effect of introducing Brachiaria brizanta cv. Marandú for forage upon milk production and economic results was evaluated on Tayabito buffalo dairy farm affiliated to Maraguán Livestock Center in Camagüey municipality, Cuba. To this purpose, a two-hectare B. brizanta grazing ground was introduced and its effect on milk production and quality was estimated by a Switch Back design with two treatments and six replicas each. Initially, female buffa-loes lactation span was 122 ± 5,7 days. Forage balances were performed on native pastures and half the area with B. brizanta grassland. This new species proved its suitability by spreading over 80 % of the 2 ha area after being planted. Concerning milk production during dry and rainy seasons, a significant increase was registered for B. bri-zanta compared to native pastures (over 0,54 and 0,83 l/animal/day for each season, respectively). Milk quality was not affected in either case. This farm forage production could supply current herd feeding needs by introducing 50 % grazing grounds of B. brizanta; besides, productive indexes could significantly improve. Key Words: cultivated pastures, Brachiaria brizanta cv. Marandú, buffalo milk production  INTRODUCTION Buffalo raising is a viable alternative to ease the pressing situation of cattle raising in many tropi-cal countries in Latinamerica, Asia and Africa. It would also increase meat and milk production, with a high nutritional and therapeutic value, at competitive costs (Fundora and González, 2001; García and Planas, 2002; Anón, 2004). Pulido (2001) reported that the knowledge on this species and the results achieved corroborate the development and true potential as a source of employment and food access. However, there are still technological deficiencies that could be over-come. In 1990 several buffalo farms were set up in the province of Camagüey, with the ensuing spread of the species, still with rudimentary techniques. Ex-ploitation was taken to less fertile lands, with low-yielding, poor-quality native pastures (MINAGRI, 2008). The results achieved then are a far cry from the real potentialities for the species. As-sessment of pastures cultivated is essential to im-prove the nutritional base at the buffalo dairies, for higher production and economic results. The aim of this paper is to assess the effect of Brachiaria brizantha cv Marandú on milk pro-duction at a buffalo dairy from Maraguán Catle Raising Farm in Camagüey. MATERIALS AND METHODS Location The research took place at the Tayabito Buffalo Dairy, from the Maraguán Cattle Raising Farm, km 6, Carretera Central East, municipality of Ca-magüey (map scale 1.25000 Guanabaquilla, coor-denates 394,336 North and 297,811 South, Cuban coordenate system). Soil and Weather The predominant soil is brown with typical car-bonate, on soft carbonated limestone, moderately deep and humidified, with clay-like texture, and a proven depth of 20.0 cm. The topography is lightly undulatory (Hernández et al., 1999). The weather falls within humid tropical, with seasonal humidifying and annual mean rainfall of 1 180 mm; relative humidity was 84 % from May to October, and top temperatures range between 24 and 29 °C . Dairy Features and Handling The dairy comprises 67.1 ha, allotted as fol-lows: • Area for facilities and homes: 4.5 ha • Area for buffalo calves: 9 ha, split into 18 enclosures (0.5 ha/enclosures) Introduction of Brachiaria brizantha cv. Marandú for Milk Production, and Economic Results of a Buffalo Dairy Rev. prod. anim., 25 (2): 2013 • B. brizantha cv. Marandú breeding area: 2 ha • Area for night stay: 1 ha • Area for sugar cane and king grass: 4.6 ha • Pasturing area for adult animals: 46 ha in 4 enclosures The farm has two workers, and includes a windmill and a Texan tank with a capacity of 1 500 l of water The animals are milked by hand (calf support), at 5:00 am, starting from day ten after delivery. In both the rainy and dry seasons the buffalo cows are allowed to pasture for 16 h; the remaining time they are kept in stalls with a supply of forage and water. The farm´s main income comes from milk sales (CUP $ 3.69, approximately), cheese and weaned animals. Experimental procedure The introduction of B. brizantha cv. Marandú in two hectares was implemented in November 2006. The soil was prepared using conventional methods, with plows and harrows, with shallow furrowing, at a distance of 60 cm . Sowing was by hand spreading, at a rate of 10 kg of gamic seed/ha; then the area was left unused for five months. Grazing was started in April 2007, when the grass reached over 90 cm high; no fertilizer or irrigation was applied at the setting phase. Shoots were observed at 15, 30 and 45 days af-ter sowing; then coverage was assessed for 180 days, until the plants were fully grown. Yielding was determined on the first day of grazing, by weighing five 0.25 m2 frames at random. To eva-luate the effect of brachiaria on milk production two tests were conducted in the rainy and dry sea-sons, in 2010. Switch Back was used in the two treatments, with six replicas each. The first treat-ment was grazing in bracharia fields; the second was grazing in native pasture. Each grazing period included 7 days for adapta-tion and 15 days for assessment. The three last as-sessments in each period were calculated. The 12 buffalo cows selected weighed 488 ± 21.5 kg/day, and milk production of 4.6 l/animal/day. Milk samples were analyzed in the pasteuriza-tion lab of the province. Chemical and physical determinations were carried out with the follow-ing techniques: • Density by Quevene lacto densitometry, at a temperature of 15 ºC, according to NC (Cuban Standard) 119 (2006). • Fat by Gerber butirometry, according to NCISO 1211 (2001). • Non-fatty solids (NFS), according to the equation: NFS = density / 4 + fat / 5 + 0.14 • pH (acidity) = ml * 0.1 * 0.09 * 100 / 9 Where: ml: sodium hydroxide mililiters used 0.1: sodium hydroxide normality 0.09: equivalent  9 ml: sample volume B. Brizantha cv. Marandu effects on milk pro-duction and forage balance were estimated as well in 50 % of the grazing areas; and the partial budg-et was analyzed to evaluate economic feasibility. Bracharia introduction costs in 50 % of the grazing areas were determined (soil preparation, enclosing, purchase of supplies, pasture sowing), and the income was determined by additional milk production increase and sales of products that can be created during the initial period of ma-turation. The main assessing indicator is CNU in the formula,  CNU = (income from technology + income from additional benefits) – technology costs + un-perceived income), (Luening, 1996). RESULTS AND DISCUSSION Table 1 shows the number of plants per m2 after sowing and development, from day 90 to 180. As observed, the number of plants increased up to 45 days after sowing, concurring with favorable en-vironmental conditions and good seed quality, and leading to appropriate germination. According to Padilla (2000), these are decisive factors to achieve success in sowing and maturation of pas-tures, Cruz (2010) reported good species behavior during development, compared to other pratense graminaceae. Species development also increased considera-bly up to day 180, which indicates its aggressive-ness and competitive advantages over weeds in the study conditions. Reports (Cruz, 2010) also refer to these attributes in several species of Bra-chiaria, especially in B. brizantha. Milk production based on Bracharia and native pasture showed significantly higher results Mirtha Rivero, L. M. Curbelo, Iliana Díaz, R. V. Guevara, G. E. Guevara Rev. prod. anim., 25 (2): 2013 (P ≤ 0.05) in the rainy and dry seasons (tables 2 and 3), with a difference of 0.54 l in the rainy sea-son and 0.83 l in the dry one. Hence, pasture qual-ity plays a key role. This effect is more striking during the low-rain season, as the productive bal-ance of the cultivated species is better than in the native pasture lands. Campo and Hincapié (2003), Campo et al. (2005), Fundora et al. (2001), Curbelo (2004) and Guevara (2005) reported the positive effect of in-troducing the cultivated graminaceae on milk production, mainly due to an increase in the avail-ability of biomass and better balance between the rainy and dry seasons. This effect favors greater consumption and grazing animal selection, and therefore, higher pasture quality (Senra, 2005). Tables 4 and 5 show the milk quality parameters in the two treatments, where no differences are observed for both seasons. Pasture species or va-riety, especially graminaceae, used has been pre-viously reported to have no adverse effect on the composition of the milk produced, perhaps due to the pasture´s chemical composition inducing simi-lar rumen fermenting patterns. Besides, the effect of seasons on milk composi-tion has been reported in Colombia, on Bufalipso (Hurtado et al., 2004) and Cuba (Capdevila et al., 2001); however, in Argentina, Patiño (2004) found no significant differences for these parame-ters in the seasons studied. It seems that seasons are linked to feeding conditions, which may vary in terms of availability and quality of feed. Estimation of the productive effect of bracharia in 50 % of the grazing area of the dairy shows a remarkable increase in milk production (table 6), both individually and as a whole in the year, chiefly associated to biomass availability in the grazing lands. It prevents dry matter deficits pro-duced in the low-rainy season, as indicated in the forage balances (table 7). Graminaceae introduction in dairies has been reported to have a positive effect on milk produc-tion, due to an increase in the availability and quality of the grazing lands when compared to the native pasture areas (Martín, 1999). To achieve positive increases it is important to consider the inclusion of crawling and arborescent legume species, which significantly raise the quality of the matter consumed by animals (Iglesias, 2003; Sánchez, 2007 y Loyola, 2011). In terms of economic feasibility, the analysis of partial budget for the introduction of B. brizantha cv. Marandú in 50 % of the farm lands, produced favorable CNU (table 9), mainly due to an in-crease in profits from milk sales increases, which compensate for fencing costs, soil preparation and sowing. Fencing and soil preparation are costly, but profitable in the mid-term, as land can be ex-ploited sooner and the cultivated species remain in the area for years; a goal Cuban productive sys-tems should meet (Padilla, 2000, Cino et al., 2005 and Guevara, 2005). Moreover, the economic and practical advan-tages of sowing agamic pasture seed are known, compared with vegetative seeds (Padilla, 2000), which is favorable, considering that quality seeds are produced in our conditions (Cruz, 2010). CONCLUSIONS The introduction of B. brizantha cv. Marandú in buffalo dairy was satisfactory, and grazing had a positive effect on milk production, without changes in quality. The graminaceae used in 50 % of the farm grazing lands could be economically feasible and significantly improved farm produc-tivity indicators. REFERENCES ANÓNIMO (2004). Crías de búfalos (Bubalus bubalis) . Extraído el 14 de marzo de 2007, desde http://es.wikipedia.org/wiki. CAMPO, E. y HINCAPIE, J. H. (2003). Búfalos de agua la especie del tercer milenio. Cuba: UNAH. CAMPO, E.; HERRERA, E.; HINCAPIE, J. J.; QUESADA, M. S. y FUNDORA, O. (2005). Estacionalidad de los par-tos, reproducción y  producción láctea en búfalas de río y  mestizas. REDVET, Revista Electrónica de Veterinaria, IV (4). Extraído el 15 de abril de 2007, desde http://www.veterinaria.org.revistas.redvetn040405.html. CAPDEVILA, J.; ZALDÍVAR, V.; PONCE, P. y MARTÍNEZ, I. (2001). Caracterización fisico-química de la le-che de búfala proveniente de mezclas en Cuba. Efecto del mes y la época del año. VI World Buffa-lo Congress, Maracaibo, Venezuela. CINO, M. D.; FUNDORA, O. y GONZÁLEZ, M. E. (2005). Evaluación económica preliminar en una unidad experimental de búfalos (Bufalipso). Revis-ta Cubana de Ciencia Agrícola, 39 (2), 141-146 CRUZ, M. (2010). Evaluación de variedades de pastos en Camagüey. Tesis de maestría en Producción Introduction of Brachiaria brizantha cv. Marandú for Milk Production, and Economic Results of a Buffalo Dairy Rev. prod. anim., 25 (2): 2013 Animal Sostenible, Universidad de Camagüey, Cu-ba. CURBELO, L. (2004). Alternativas forraje-ganadería para las sabanas infértiles del norte de Camagüey. Tesis de doctorado en Ciencias Veterinarias, Uni-versidad de Camagüey, Camagüey, Cuba. FUNDORA, O. y GONZÁLEZ, M. E. (2001). Perfor-mance of Primiparous Buffaloes and their Progeny. Proceedings of VI World Buffalo Congress, Mara-caibo, Venezuela. GARCÍA, S y PLANAS, TERESA (2002). Manual de Crianza del Búfalo. La Habana, Cuba: Sociedad Cubana de Criadores de Búfalos ACPA. GUEVARA, G. (2005). Evaluación de sistemas lecheros de la cuenca lechera de Camagüey. Tesis de docto-rado en Ciencias Veterinarias, Instituto de Ciencia Animal, La Habana, Cuba. HERNÁNDEZ, A.; PÉREZ, J. M.; BOSCH, D.; RIVERO, L.; CAMACHO, E.; RUIZ, J. et al. (1999). Clasificación genética de los suelos de Cuba. Ciudad de la Haba-na, Cuba: Instituto de Suelos, Ministerio de Agri-cultura. HURTADO-LUGO, M. F.; CERÓN-MUÑOZ, M. I.; LOPERA, A.; BERNAL, CIFUENTES, T. (2004). De-terminación de parámetros físico-químicos de leche bufalina en un sistema de producción orgánica. Medellín, Colombia: Grupo de Investigación en Ciencias Agrarias, Facultad de Ciencias Agrarias, Universidad de Antioquía. Extraído el 24 de enero de 2007, desde nhurtado@universia.net.co. IGLESIAS, J. (2003). Los sistemas silvopastoriles, una alternativa para la crianza de bovinos jóvenes en condiciones de bajos insumos. Tesis de doctorado en Ciencias Veterinarias, Instituto de Ciencia Ani-mal, La Habana. Cuba. LOYOLA, O. (2011). Integración de leguminosas nati-vas y árboles frutales a sistemas de producción va-cuna en sabanas ultramáficas del centro norte de Camagüey. Tesis de doctorado en Ciencias Veteri-narias, Universidad de Camagüey. Cuba. LUENING, R. (1996). Manual de Administración de Empresas Lecheras. Wisconsin, USA: Univ. Wis-consin. MARTÍN, P.C. (1999). Valor nutritivo de gramíneas tropicales. Revista Cubana de Ciencias Agrícolas, 32 (1), 3-9. MINAGRI (2008). Boletín Integral de Ganadería. Camagüey, Cuba: MINAGRI. NC (2001). Leche: determinación del contenido de ma-teria grasa. Método de referencia. NC. ISO: 1211: 2001. NC (2006). Leche determinación de densidad. NC. 119: 2006. PADILLA, C. (2000). Renovación, recuperación y vida útil de los pastizales. Taller 35 Aniversario del Ins-tituto de Ciencia Animal, La Habana, Cuba. PATIÑO, M. (2004). Factores que afectan la composi-ción físico-química de la leche de búfalas (Bubalus bubalis) en Corrientes, Argentina. Comunicaciones Científicas y Tecnológicas, Universidad Nacional del Nordeste. PULIDO, C. C. J. (2001). Búfalo asiático: un recurso inexplorado para producir proteína animal (2da ed.). Venezuela. SÁNCHEZ, T. (2007). Evaluación de L. leucocephala para la producción de leche con vacas Mambí de Cuba. Tesis de doctor en Ciencias Veterinarias, Universidad de Camagüey, Cuba. SENRA, A. F. (2005). Índices para controlar la eficien-cia y sostenibilidad del ecosistema del pastizal en la explotación bovina. Revista Cubana de Ciencia Agrícola, 39 (1), 13-20. . Recibido: 20-1-2013 Aceptado: 1-2-2013  Table 1. Number of plants/m2 and B. brizantha spreading during development No. plants/m2 Days Spreading (%) Days 14 15 67 90 22 30 75 120 25 45 93 180       Table 2. B. brizantha grazing effects on milk production in the rainy season (June 2010) Treatments Milk production (l/buffalo cow/day) Native pasture 5.17 ± 0.032 a B. brizantha 5.71 ± 0.034 b Significace ** Different letters mean significant differences P < 0.01   Table 3. B. brizantha grazing effect on milk production in the low-rain sea-son (December 2010) Treatments Milk production (l/buffalo cow day) Native pasture 3.19 ± 0.022 a B. brizantha 4.02 ± 0.022 b Significance ** Different letters mean significant differences P < 0.01   Table 4. B. brizantha grazing effect on milk quality in the rainy season (June 2010) Indicators Treatments Native pasture B. brizantha Sign. Specific weight (kg/l) 1.0360 ± 0.0022 1.0351 ± 0.002 NS Non-fat solids (kg) 11.37 ± 0.032 11.04 ± 0.043 NS Fat (%) 6.90 ± 0.031 6.70 ± 0.020 NS Acidity (%) 0.13 ± 0.0019 0.13 ± 0.0021 NS   Table 5. B. brizantha grazing effect on milk quality in the low-rain season (december 2010) Indicators Treatments Native pasture B. brizantha Sign. Specific weight (kg/l) 1.0360 ± 0.022 1.0351 ± 0.022 NS Non-fat solids (kg) 11.37 ± 0.047 11.04 ± 0.035 NS Fat (%) 6.90 ± 0.033 6.70 ± 0.041 NS Acidity (%) 0.13 ± 0.0016 0.13 ± 0.0018 NS   Table 6. Current productive indicators of the farm, with 50 % of lands covered with B. brizan-tha cv. Marandú Indicator UM Current 50 % Brachiaria Overal milk production l/year 9.2 14.5 Milking buffalo cows heads 242 336 Milk production per buffalo cow l 3.2 3.4 Cheese production kg 4.5 7.6       Table 7. Current balances of forage and B. brizantha cv. Marandú 50 % coverage  Current 50 % Brachiaria Area (ha) PLL t ms PS t ms Area (ha) PLL t ms PS t ms Native pasture 46.0 156.0 73.6 23.0 78.2 36.8 Brachiaria 2.0 10.0 4.0 23.0 115.0 46.0 Sugar cane 3.4 - 57.6 3.4 - 57.6 kg CT169 1.4 11.2 2.8 1.4 11.2 2.8 Total  177.6 138.0  204.4 143.2 Herd needs  123.0 123.0  123.0 123.0 Differences  54.6 -28.3  81.4 20.2   Table 8. Economic feasibility of B. brizantha cv. Marandú introduction in 50 % of grazing lands at the buffalo dairy (CNU in CUP) Indicators Values Overal costs 35 468.65 Soil preparation costs 6 605.08 Brachiaria sowing costs 30 595.04 Fencing costs 7 641.57 Extra diet (Norgold) costs 1 976.00 Overal income  56 073.00 Female calf sales income 15 120.00 Male calf sales income 6 624.00 Additional milk production income  34 329.00 CNU = (56 073,00 CUP) - (35 468,65 CUP) CNU = 20 604,35 CUP          

Introduction of Brachiaria brizantha cv. Marandú for Milk Production, and Economic Results of a Buffalo Dairy

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Introduction of Brachiaria brizantha cv. Marandú for Milk Production, and Economic Results of a Buffalo Dairy

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