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Agricultura, sociedad y desarrollo

versão impressa ISSN 1870-5472

agric. soc. desarro vol.14 no.4 Texcoco Out./Dez. 2017

 

Articles

Stratification of dairy producers in the Jalisco highlands

Valentina Mariscal-Aguayo1  * 

Adriana Pacheco-Cervantes2 

Heriberto Estrella-Quintero1 

Maximino Huerta-Bravo1 

Raymundo Rangel-Santos1 

Rafael Núñez-Domínguez1 

1 Universidad Autónoma Chapingo. Km 38.5 Carretera México-Texcoco, Estado México. 56230. México. (valmara@hotmail.com), (ac4251@chapingo.mx), (maximinohuerta@yahoo.com), (rangelsr@correo.chapingo.mx) (rafael.nunez@correo.chapingo.mx).

2 Asesora privada.


Abstract:

Agribusinesses of dairy cattle in the country are quite heterogeneous, which is why it is necessary to classify them for their analysis and adequate improvement. The objective of this study was to stratify family dairy producers in the Jalisco Highlands that used technological development advice and consulting by CHAPINGO-AGROPEC Star with the methodology proposed by FAO to identify differences in the productive characteristics of dairy agribusinesses within each stratum. The components of the grouping were: Schooling (ES), Equivalent Irrigation Surface (SER), Bovine Equivalent (BE) and Technological Level; the latter was broken down into Indexes of Genetic Quality (ICG), Dietary Management (IMA), Reproductive Management (IMR), Sanitary Management (IMS) and Infrastructure and Equipment (IIE) (all abbreviations for initials in Spanish). Two types of producers were identified: transition (88 %), and entrepreneurial (12 %). The transition producers had an average of 87 BE, basic education, and a SER of 12 ha; 67 % of them carried out artificial insemination (IA) in addition to mounting, and the diet offered to their cattle was quite diverse. The entrepreneurial producers had in average 190 BE, professional education and a SER of six ha, 100 % applied IA, and balanced meals was supplied to the livestock. The stratification of agribusinesses was appropriate and useful.

Key words: bovines; agribusinesses; typification; production; transition; entrepreneurial

Resumen:

Las agroempresas de bovinos lecheros en el país son muy heterogéneas, por lo que es necesario clasificarlas para su análisis y mejora adecuada. El objetivo del trabajo fue estratificar productores de lechería familiar de Los Altos de Jalisco que utilizaron el desarrollo tecnológico de asesoría y consultoría CHAPINGO-AGROPEC Star con la metodología propuesta por la FAO para identificar diferencias en las características productivas de agroempresas lecheras dentro de cada estrato. Los componentes de agrupación fueron: Escolaridad (ES), Superficie Equivalente de Riego (SER), Bovino Equivalente (BE) y Nivel Tecnológico; este último se desglosó en Índices de Calidad Genética (ICG), Manejo Alimenticio (IMA), Manejo Reproductivo (IMR), Manejo Sanitario (IMS) e Infraestructura y Equipo (IIE). Se identificaron dos tipos de productores: de transición (88 %) y empresariales (12 %). Los productores de transición tuvieron en promedio 87 BE, educación básica, y una SER de 12 ha; 67 % de ellos realizó inseminación artificial (IA) más monta, y la alimentación ofrecida a su ganado fue muy variada. Los empresariales tuvieron en promedio 190 BE, educación profesional y una SER de seis ha, 100 % aplicó IA, y se proporcionó alimento balanceado al ganado. La estratificación de las agroempresas fue apropiada y útil.

Palabras clave: bovinos; agroempresas; tipificación; producción; transición; empresariales

Introduction

Milk is one of the most complete foods; it contains a large amount of essential amino acids for the diet and because of this, FAO and UNESCO have recommended it as an indispensable food for human nutrition, primarily for children (Barrera and Sánchez, 2003).

National milk production in 2015 was 11 million 395 thousand liters, with a value of 66 970 million pesos. Milk production contributed 54 % of the total value of livestock production, with Jalisco as the dairy leader, with a contribution of 16.8 % of the domestic value. The consumption of fluid milk in México is significantly lower than that in the United States; however, the per capita consumption of skimmed powdered milk is two or three times higher, so that national milk production does not satisfy the domestic demand. This fact is reflected in the large milk imports, which in 2015 reached a value of 141 million liters (SIAP-SAGARPA, 2016). This situation generates negative effects on the trade balance and in Mexican agrifood security (Mata and Sepúlveda, 2000). According to Gottret et al. (2000), globalization and free trade made national producers face international competition, forcing them to carry out the necessary technological adjustments to achieve their permanence within the productive sector. In addition to this, the productivity of national cows is quite below the corresponding one in the northern neighboring countries. This divergence in productivity is a reflection of the disadvantages that consist primarily in the difference in the costs structure and the degree of genetic quality with which their livestock herds are constituted; also, the size of the production units and finally the trade organization, which allows the United States and Canada to be more efficient.

On the other hand, at the national level there are great agroecological, socioeconomic and technological differences between systems, making dairy production quite heterogeneous (Hernández et al., 2013). The participation in dairy production per type of system was 50.6 % for the specialized system, 21.3 % for the semi-specialized, 18.3 % for the double-purpose, and 9.8 % for the family system (SIAP-SAGARPA, 2007).

Jalisco is the biggest milk producer at the national level and within it, the Highlands region contributes approximately 19 % of the national dairy production, which is why it is considered one of the most important dairy regions in the country (SIAP-SAGARPA, 2016); it stands out for its family type production, since the workforce, land, water and capital come from the household (Cervantes and Álvarez, 2001); however, although milk production is a generalized activity, only the specialized and semi-specialized systems are competitive, but not so the family dairy production, since it is not competitive because of the tendency toward technical change for greater specialization, which implies a higher production cost that is compensated with a better price for the product (Lara et al., 2003). In the state, the average production in the family type businesses is 6.5 L/cow/day. In the Highlands zone the average production is 10 L/cow/day, the size of the herds range between 10 and 45 producing cows, they have a surface that ranges from 5 to 33 ha, and 46 % of the producers are very profitable, and 40 % are classified as not profitable (Cervantes and Álvarez, 2001).

In agreement with opinions stated by Cabrera et al. (2004), even within the family production system there is a high degree of heterogeneity between farms, which makes transversal decision making difficult. In this sense, the typification of producers becomes necessary.

The stratification or typology studies of producers seek classifying the different production units according to pre-established criteria to obtain both qualitative and quantitative indicators, which allow establishing the levels of differentiation of the producers (Fraire, 2006).

Together with the Inter-American Institute for Cooperation on Agriculture (IICA), Herrera (1998) elaborated a work proposal called participative approach, which seeks the collaboration of actors that allows a very clear understanding in terms of the difficulties and “bottle necks” that most affect their competitive capacity. It is made up of three stages: 1) identification of activities and actors; 2) typification of actors or their classification into homogeneous categories; and 3) quantification of the categories based on measurements and indicators.

Cervantes (2001) studied the modernization of family dairy production in the Jalisco Highlands, establishing four main criteria to carry out the producer typology: use or not of artificial insemination, use or not of alfalfa for the cattle diet, type of milking, and organization form for milk trading. These four classification variables allowed defining six categories of producers.

García-Muñíz et al. (2007) point out that in the characterization of family dairy agribusinesses in México, most of the studies consider mainly the use of resources, the production costs, and the analysis of the factors that influence the competitiveness and profitability of the businesses, so that family dairy agribusinesses have variants with different characteristics within the system, so they can be subdivided according to the technological level they present (high, medium and low).

Ovando and Córdova (2004) developed a methodological proposal for a territorially differentiated agricultural and livestock policy, which consists in three main elements: 1) typology of agricultural and livestock activity; 2) regional analysis; and 3) producer strata. This has the objective of outlining various scenarios on which it is possible to formulate agricultural policies of differentiated treatment to induce their transformation into producers with a competitive agricultural and livestock activity.

Cabrera et al. (2004) proposed a methodology for the characterization and typification of livestock systems, based on the problematic that transversal decision making generates derived from the high degree of heterogeneity there is between livestock exploitations.

Carrillo (2005) developed a peasant typology for the identification of policies and incentives, which establishes three types of producers: survival, stable and surplus. In it, aspects such as the organization of producers, the migration factor, equipment and infrastructure they have, terrestrial surface, number of animals, workforce, technological dominion, markets, collectivity in purchases and sales, and access to credit are taken into account, among others.

In the diagnosis of the dairy productive chain in the state of Hidalgo, Cuevas et al. (2007) elaborated a typology of producers in which they considered four technological variables: reproduction, sanitation, milking method and diet. They found three technological variables: low technology producers, those that milk manually, use natural mounting, do not participate in sanitary campaigns, and do not provide ensilage; medium technology producers, those that carry out at least one technological practice; and high technology producers, those that inseminate, participate in sanitation campaigns, milk mechanically, and provide ensilage. They also found that the greatest percentage of milk producers in the state of Hidalgo had medium technology.

The ways of classifying mentioned before allow differentiating some particularities present among the producers; however, it is considered that in order to identify producers with similar attributes and to differentiate focal groups they must include both concepts of educational, technological level and productive, so that the objective of the study was to stratify dairy cattle producers from the Jalisco Highlands to understand the productive characteristics of the agribusinesses.

Materials and Methods

A sample of 17 dairy producers from the Jalisco Highlands region was considered, who had information and maintained the digitalized record of their production units within the Chapingo-AGROPEC Star platform (Mariscal and Estrella, 2008). For the stratification, the methodology used by FAO (2005) was used, which consists in the application of a survey, which includes modifications carried out based on a study of the diagnosis of dairy production in Oaxaca by López et al. (2007) and, in addition, adjustments according to the region, taking into account the work carried out with dairy producers in the Highlands zone by García et al. (2007). The survey included quantitative and qualitative variables grouped into five sections, which are: schooling, irrigation surface equivalent, equivalent bovines, technological level, and value of productive assets. A weighting factor was applied for each variable and type weighting factor, which is the average of the prior, according to the criteria established and recognized by FAO (2005). Based on this, three strata were defined: entrepreneurial, transition and subsistence.

The characteristics and weighting factors on the variables are described next.

Variables used

  • Schooling (ES): impacts the vision of the producers and of the assimilation of technical changes.

  • Irrigation surface equivalent (SE): scale of operation of the producer, based on the transformation of the production unit surface into irrigation-based agricultural hectares.

  • Equivalent bovines (BE): scale of the producer’s operation in relation with bovine animal units.

  • Technological level (NT): expresses the level of incorporation of technical elements and innovations in the management of the productive activity.

  • Productive asset value (VA): economic magnitude of the producer based on the value of the land and animals owned.

Calculation of weighting factors

Type weighting factor

This weighting factor eased the homogenization of producers in different classes. The equation used to estimate the type weighting factor (PT, for initials in Spanish) is shown next:

PT=[PES*0.2+PSE*0.2+PBE*0.2+ PNT*0.2+PVA*0.2]

where: PES, PSE, PBE, PNT and PVA are weighting factors for schooling, irrigation surface equivalent, equivalent bovines, technological level, and value of the productive assets, respectively. When the specifications and ranges defined by López et al. (2007) were not taken into account, but rather the adjustments according to the region, then the calculation of the weighting factors are described in the document.

Weighting factor for schooling (PES)

It was determined considering the data from the survey applied to producers as specified in Table 1.

Table 1 Weighting factor for schooling (PES). 

Escolaridad (años) PES
1-6 (con estudios de primaria) 0.25
7-9 (con estudios de secundaria) 0.50
10-12 (con estudios de preparatoria) 0.75
13-16 (con estudios de licenciatura) 1.00

Weighting factor for irrigation surface equivalent (PSE) and weighting factor for equivalent bovines (PBE)

The weighting factors considered for PSE and PBE were those used by López et al. (2007). According to COTECOCA (2002), the pasturelands in the Highlands region are classified as of good quality because they have pasturage of 8.26 ha/UA. For PBE the ranges of equivalent bovines are included, as well as the corresponding weighting according to the different stages of development or types of bovines in the animal units.

Weighting factor for technological level (PNT)

For the technological level, five main aspects were considered and a different weighting factor was given according to their relative importance: 10 % index of genetic quality (ICG), 25 % index of dietary management (IMA), 25 % index of reproductive management (IMR), 25 % index of sanitary management (IMS), and 15 % index of infrastructure and equipment (IIE) (all abbreviations for initials in Spanish). The formula used to calculate it was:

PNT=[ICG*0.10+IMA*0.25+IMR*0.25+ IMS*0.25+IIE*0.15]

The range of levels (0 to 1) for NT, racial types for ICG (two types), and the facilities and equipment that each producer had for the IIE were determined based on the specifications by López et al. (2007) for those indexes.

Index of dietary sources (IMA)

The IMA indicates the source of food for the cattle which was associated to a weighting factor. The lowest technological level was considered, which is when the livestock fed on native grasses or agricultural residues without a supplement being offered, and ranging to the case when balanced meal was offered for each group of ages and physiological states of the bovines, as shown in Table 2.

Table 2 Weighting factor for dietary sources. 

Fuentes de alimentación Ponderación
Pastoreo de praderas cultivadas con rotación, ensilado o henificado y con suplementación 0.25
Además de pastoreo en agostadero reciben ensilado o henificado, alimentación balanceada o suplemento mineral en un sistema semiestabulado 0.50
Alimentación con forraje de corte y alimentación balanceada bajo estabulación 0.75
Dieta integral balanceada a nivel de nutrientes generales (proteína, minerales, etcétera) por estado fisiológico y nivel de producción) 1.00

Index of reproductive management (IMR)

The breeding method and control of important reproductive events was taken into account, such as the gestation diagnosis. The weighting factor for these characteristics is shown in Table 3.

Table 3 Weighting factor for reproductive management. 

Manejo reproductivo Sí / No (bi) Ponderador (ai) Producto (Pi=ai*bi)
Monta e inseminación 1 o 0 0.20
Inseminación 1 o 0 0.60
Diagnóstico de gestación por palpación 1 o 0 0.40
Total S*Pi

The calculation of this index was carried out with the following equation:

IMR=S*Pi

Index of sanitary management (IMS)

Management activities for the prevention of diseases and general hygiene measures in the facilities were taken into account, as described in Table 4.

Table 4 Weighting factor for sanitary management. 

Actividad sanitaria Sí / No (bi) Ponderador (ai) Producto (Pi=ai*bi)
Aplicación de sellador 1 o 0 0.05
Aplicación de presellador y sellador 1 o 0 0.10
Aplica tratamiento preventivo al secado 1 o 0 0.05
Desparasitación mixta y vacunación 1 o 0 0.20
Limpieza de la ubre antes del ordeño 1 o 0 0.05
Limpieza de equipo de ordeño con detergentes ácido y alcalino 1 o 0 0.20
Limpieza semanal de corrales 1 o 0 0.05
Prueba de mastitis esporádicamente 1 o 0 0.05
Prueba mensual de mastitis 1 o 0 0.20
Utilización de agua potable para lavar ubre y equipo de ordeño 1 o 0 0.05
Total S*Pi

The calculation of this index is carried out with the following equation:

IMS=S*Pi

Once the general weighting factors are calculated, assigning the classes contemplated three types of producers, as presented in Table 5.

Table 5 Classification of producers according to the value of the type weighting factor (PT). 

Rango del ponderador tipo Tipo de productor Clasificación
0.0≤PT≤0.4 I Subsistencia
0.4<PT≤0.8 II Transición
0.8<PT≤1.0 III Empresarial

The classification performed proposes three types of producers which are presented in Table 6, where the values corresponding to each one of the variables used are shown.

Table 6 Maximum value of the grouping components according to type of producer. 

Variable Tipo I Tipo II Tipo III
Escolaridad Primaria o secundaria (0 a 9 años) Preparatoria (10 a 12 años) Licenciatura o postgrado (13 o más años)
Superficie equivalente (ha) Hasta 10 >10≤100 >100
Bovinos equivalentes (cabezas) Hasta 25 >25≤150 >150
Valor de los activos productivos (miles) Hasta $150 >$150≤$1,000 >$1,000
Nivel tecnológico Hasta 0.4 >0.4≤0.8 >0.8≤1.0

To compare the averages of the variables studied between the types of producers found, the t-Student test was used, approximating the degrees of freedom through the method suggested by Satterthwaite (1964, cited by Damon and Harvey, 1987).

Results and Discussion

It was found that 88 % of the total (n=15) of the producers are transition and 12 % (n=2), entrepreneurial producers. In contrast to a study carried out by García et al. (2007), in this study no subsistence producers were found. However, it is important to point out that the purpose of the study is the classification of the producers, but in a certain way the fact that no subsistence producers were identified can be considered as a tendency, which agrees with what is reported by Vázquez-Valencia and Aguilar-Benitez (2010) in the Southern Highlands zone, and in addition they point out that NAFTA had a direct negative effect on the sector in the country, due to the entry of powdered milk and other dairy derivatives at low prices compared to the domestic ones, which is why small-scale producers suffer strong competitive pressure due to imports of powdered milk, which is a factor that influences the disappearance of those production units with a technological level of subsistence (Dobson, 2003).

Weighting factors

In average, the value of the total weighting factor obtained by the producers in transition was 0.66, while for the entrepreneurial type it was 0.86, with variability between producers as shown in Table 7.

Table 7 Descriptive statistics of the values obtained by weighting factor according to the type of producer. 

Variablez Transición Empresarial
Prom. Desv. est. Mín. Máx. Prom. Desv. est. Mín. Máx.
PES 0.37 0.27 0.25 1.00 1.00 0.00 1.00 1.00
PSE 0.47 0.25 0.25 1.00 0.38 0.18 0.25 0.50
PBE 0.71 0.15 0.60 1.00 0.90 0.14 0.80 1.00
PNT 0.77 0.10 0.60 1.00 1.00 0.00 1.00 1.00
PVA 0.97 0.07 0.80 1.00 1.00 0.100 1.00 1.00
Promedio 0.66 0.09 0.50 0.78 0.86 0.06 0.81 0.90

zPES: weighting factor for schooling, PSE: weighting factor for irrigation surface equivalent, PBE: weighting factor for equivalent bovines, PNT: weighting factor for technological level, PVA: weighting factor for productive assets.

When differentiating the type of producers found in the study region, it was observed that the average of schooling of the producers in transition was seven years (secondary school), while for the producers of entrepreneurial type it was 16 years, which does not coincide with what was reported by SAGARPA-SDR (2005a) for the intermediate producers in Jalisco, for they identified that these producers have an educational level of high school. This can be because the study was carried out in a single region (Highlands), while SAGARPA established it for the whole state. Allub (2001) mentions that a higher educational level of the farmer contributes to reducing the level of uncertainty associated with innovation, which translates into a reduction in the degree of risk aversion, thus explaining the differences in the rates of technology adoption. Pacheco (2006) points out that the higher educational level can make a producer have a better willingness to apply technical recommendations that require a certain degree of instruction. This explains why the entrepreneurial producers have a higher technological weighting factor and make greater use of technology.

In terms of irrigation surface equivalent, 100 % of the producers own land; of these, 73 % of the ones who are in transition had a surface of agricultural use or rainfed grassland, 13 % agricultural surface or irrigation grassland, and 53 % pastureland of good quality; meanwhile, the entrepreneurial ones only had agricultural surface or rainfed grassland and 50 % of them only have pastureland surface. Galindo (2001) points out that in studies carried out in México and abroad it has been determined that among the factors that influence positively the adoption of innovations, the surface cultivated stands out. Cervantes et al. (2001) indicate that in the region of the Jalisco Highlands, 90 % of the family dairy producers own cultivation lands, which are destined primarily to the production of fodders, revealing that agriculture and livestock production are closely interwoven in this production system. This is adjusted to the transition producers; however, the entrepreneurial ranches keep their animals confined and use basically balanced meals to feed their animals; the pastureland is used for replacement breeding, but not for feeding production cows. Table 8 presents data for schooling, irrigation surface equivalent, and equivalent bovines per type of producer.

Table 8 Descriptive statistics of three main components in grouping per type of producer. 

Variablez Transicióny Empresarialy
Prom. Desv. est. Mín. Máx. Prom. Desv. est. Mín. Máx.
ES (años) 7a 4 3 16 16b 0 16 16
SER (ha) 12a 19 1 70 6b 4 3 8
BE (cabezas) 87a 63 35 265 190b 121 104 275

zES: schooling, SER: irrigation surface equivalent, BE: equivalent bovines. yAverage in the same row and effect, with different letter are different (p≤0.05).

The entrepreneurial producers were statistically different (p≤0.05) in schooling and heads of livestock, surpassing the transition producers; not so in terms of the equivalent irrigation surface, since in that case the transition producers stood out compared to the entrepreneurial producers.

With regard to the constitution of the livestock herd, within the transition producers, 33 % had a stud to be used on females that are not expectant through artificial insemination; another 33 % had young bulls for fattening and 13 % steers, while the producers of entrepreneurial type sell the male offspring as soon as possible, conserving only replacement cows. These results agree with those presented by Cervantes (2001), who points out that in the Jalisco Highlands region there is scarce livestock for meat, which reflects that the herds in the region are destined mainly to milk production.

The entrepreneurial producers had in average 123 more heads of livestock, 77 more production cows, 13 more heifers, and 39 more yearlings than the transition producers (p≤0.05).

Forming indexes of technological level

The PNT was made up by indexes directly related to the innovations that producers adopt. Table 9 presents the descriptive statistics of the forming indexes for the PNT.

Table 9 Descriptive statistics of the component indexes of the weighting factor for technological level. 

Variablez Transicióny Empresarialy
Prom. Desv. est. Mín. Máx. Prom. Desv. est. Mín. Máx.
ICG 0.72ª 0.04 0.60 0.75 0.74ª 0.00 0.74 0.74
IMA 0.58ª 0.15 0.25 0.75 0.88ª 0.18 0.75 1.00
IMR 0.84ª 0.20 0.60 1.00 1.00b 0.00 1.00 1.00
IMS 0.71ª 0.12 0.50 0.90 0.78ª 0.18 0.65 0.90
IIE 0.52ª 0.18 0.23 0.83 0.64a 0.11 0.56 0.71

zICG: index of genetic quality, IMA: index of dietary management, IMR: index of reproductive management, IMS: index of sanitary management, IIE: index of infrastructure and equipment. yAverage in the same row and effect, with different letter are different (p≤0.05).

When it comes to the technological level, only statistical differences were found (p≤0.05) corresponding to the index of reproductive management, which was lower in the transition producers than in those of entrepreneurial type.

Genetic quality

The genetic composition of the cattle that belongs to entrepreneurial producers was constituted by 98 % of animals of Holstein breed and the rest were crossbred animals, while 33 % of the transition producers had pure cattle herds; the herds or the remaining 67 % were constituted by 90 % of animals of Holstein breed and 10 % of crossbred animals. The prevailing animal crosses in the ranches of the producers interviewed were constituted by F1 animals of maternal Holstein breed crossed with some of the following paternal breeds: American Swiss, Jersey, Belgian Blue, Zebu and Hereford. SAGARPA-SDRb (2005) reported only animals of Holstein breed in the municipality of Acatic.

Diet

Within the transition producers, 60 % have semi-stabled systems, of which 7 % carried out grazing in grasslands cultivated during the rainy season, providing ensilage or tedded hay in dry times plus mineral supplementation throughout the year; 53 % carried out grazing on pastureland, offering their livestock ensilage or tedded fodders, balanced meal and mineral supplementation in a semi-stabled system; and 40 % with a stabled system, offering their livestock cut fodder and balanced meal. Half of the entrepreneurial producers offered their livestock cut fodder and balanced meal, and the rest an integral diet balanced by physiological state and production level, all of them under a completely stabled system.

Reproductive management

The producers of entrepreneurial type used artificial insemination for mating; 33 % of the transition producers also resort to artificial insemination and the others (67 %), in addition to this method, used a stud for mounting females that were not expectant after artificial insemination. SAGARPA-SDR (2005a) report that in the municipality of Acatic, Jalisco, 37.9 % of the rural enterprises perform insemination at 100 %. The mating plan is made by a consulting technician of a recognized semen distributing company, together with the technician from each production unit. Those from the producers’ organization are the ones in charge of performing the insemination and in some cases it is the producers themselves who fulfill this function. Both groups performed the gestation diagnosis through rectal palpation.

Sanitary management

The main diseases that affected the livestock, according to their order of importance, are mastitis, uterine infections, tumors, respiratory diseases, diarrhea, eye problems, anaplasmosis, interdigital dermatitis and tuberculosis. The survey respondents mentioned that the milking cows are retired due to mastitis, reproductive and low production problems; dry cows from abortions and problems during birth; heifers with problems during birth; and bull calves and yearlings from diarrhea and pneumonia. With the purpose of preventing some of these problems, the producers carried out sanitary activities such as the ones shown in Table 10.

Table 10 Activities of sanitary management performed in the agribusinesses by type of producer. 

Actividad sanitaria Transición (%) Empresarial (%)
Desinfección de pezones con sello y presello 80 100
Tratamiento preventivo al secado 93 100
Desparasitación interna, externa y vacunación 100 100
Prelavado 80 50
Uso de detergente ácido y alcalino 93 100
Uso de agua potable 87 100
Limpieza semanal de corrales 53 100
Prueba mensual de mastitis 33 50
Prueba casual de mastitis 13

About the nipple disinfection referred in the previous table, 80 % of the transition producers carry it out with a seal and pre-seal; the remaining 20 % does it only with seal. The whole population surveyed performs mixed deparasitation and vaccination against infectious bovine rhinotracheitis (IBR), parainfluenza type 3 (PI3), bovine respiratory syncytial virus (BRSV), viral bovine diarrhea (VBD) type 1 and 2, lepstospirosis, blackleg, hemoglobinuria, malign edema, anthrax, E. coli, etc.

As can be appreciated, mastitis is the most important problem in the agribusinesses, which agrees with Correa et al. (2002) and Rabello et al. (2005), who point out that it is one of the main diseases present in dairy cattle globally affecting the dairy industry, for it causes large economic losses to milk producers and processors in the world, so it is considered the most expensive disease in the dairy stables. Rodríguez (2006) reported that mastitis can cause a reduction in the potential of milk production of the livestock of around 23 %, and that in addition, it could reach the extreme of having to eliminate the animal because of low production due to the grave damage suffered in the mammary gland. It has been identified that an adequate milking routine will be very useful to prevent clinical and subclinical mastitis, since it is one of the factors to take into account to have a better profitability from the ranch.

Infraestructure and equipment

The infrastructure that the transition producers have coincides with the type of production system; 7 % grazing, 53 % semi-stabled, and 40 % stabled, as well as the entrepreneurial producers whose production systems are completely stabled. In their stratification of agricultural and livestock producers, Cervantes et al. (2005) reported that the facilities that predominate in the livestock ranches were pen management and water tank, insofar as the most prevalent equipment was thermos for insemination and electrical fences.

The Productive Assets Weighting factor avoided for transition producers to be included in a lower technological level, since although their adoption of innovations was low, the value of their assets was high.

Main problematic considered by the producers

The general vision that producers have about the problems that limit the development of their production systems is described next, according to their order of importance: low milk prices, need for working capital, lack of infrastructure and equipment, bad conditions of the roads, high costs of inputs and medicines, commercialization problems, contamination of soil and water, insufficiency of water and fodder, administration problems, inefficient management techniques, recurring diseases, soil erosion, and loss of vegetation. As can be appreciated, most of the principal problems that producers consider are not related to more training for a better and efficient production, although they are related to threats that they cannot control, so improving the productivity of their enterprises through better management would be a relatively faster and more effective option.

Conclusions

In the group of participating producers, no subsistence agibusinesses were found, only transition and entrepreneurial.

The producers of entrepreneurial type had schooling at the professional level, in contrast to the transition producers, whose educational level was quite variable, reaching in average finished primary school.

In the companies analyzed classified as entrepreneurial, their availability for the adoption of innovations related to dietary, reproductive and sanitary management was higher; likewise, the amount and value of the productive assets that they have, given by equivalent bovines, was higher, and implicitly, by the infrastructure and equipment, although not by the irrigation surface equivalent.

In the transition agribusinesses, most have surface for agricultural use or rainfed grassland, so that they are characterized by having a stabled system, performing artificial insemination, but also two thirds of these have a bull for the females that were not expectant.

The methodology of stratification was adequate, since the components considered allowed the identification of different groups through the weighted and integral valuation of their productive characteristics.

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Received: April 2015; Accepted: November 2016

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