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Article

Determinants of Farmers’ Level of Interaction with Agricultural Extension Agencies in Northwest Ethiopia

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Department of Agricultural Economics, Ghent University, 9000 Ghent, Belgium
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Department of Rural Development and Agricultural Extension, Bahir Dar University, P.O. Box 5501 Bahir Dar, Ethiopia
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Institute for Anthropological Research in Africa, KU Leuven, 3000 Leuven, Belgium
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Department of Natural Resource Management, Bahir Dar University, P.O. Box 5501 Bahir Dar, Ethiopia
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Department of Agricultural Economics, Bahir Dar University, P.O. Box 5501 Bahir Dar, Ethiopia
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Department of Geography and Environmental Studies, Bahir Dar University, P.O. Box 79 Bahir Dar, Ethiopia
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Department of Geography, Ghent University, 9000 Ghent, Belgium
*
Author to whom correspondence should be addressed.
Sustainability 2021, 13(6), 3447; https://doi.org/10.3390/su13063447
Submission received: 17 February 2021 / Revised: 16 March 2021 / Accepted: 17 March 2021 / Published: 20 March 2021
(This article belongs to the Section Sustainable Agriculture)

Abstract

:
This research identifies critical determinants for interactions between farmers and extension agencies. Cross-sectional farm household-level data from three hundred household heads were collected between September 2019 and March 2020 and triangulated with data from workshops with farmers and extension agents. The data were analyzed using Spearman’s correlation coefficient, Kruskal–Wallis analysis of variance and the ordered probit model. Farmers’ socio-economic characteristics significantly affect their degree of interaction with extension agencies. Recognition of the determinants of the level of farmers’ interactions can inform policymakers about how to formulate and improve the effectiveness of extension programs, enhance information and knowledge dissemination and facilitate development in collaboration with local communities by focusing on a better interaction between farmers and extension agencies. The level of a farmer’s interactions is based on a systematic decision-making process. Although personal and demographic characteristics are important, farmers’ interaction levels require conducive institutional and household assets, groups/social capital and access to extension agents’ contexts. These contexts will differ by household, country and region. Therefore, extension agencies should create and design contextually appropriate strategies for substantial interactions with farmers for the dissemination of farm information. This research is original and valuable in identifying the factors associated with the level of farmers’ interactions with extension agencies in the Amhara region, Ethiopia. It also provides a new pathway for operationalizing farmer-oriented agricultural extension policies and strategies and to help agricultural policymakers formulate extension service programs.

1. Introduction

Farmers require timely, adequate and appropriate information to help them increase production and their incomes and market their products effectively [1]. Extension services play a vital role in these aspects. These services provide a tool to lessen extreme poverty and reduce hunger in developing countries [2]. Agricultural extension is also expected to respond to emerging issues such as crop infestations. Extension services need to be demand-driven, relevant to farmers and responsive to their needs [3]. As farmers are one of the key stakeholders at the grassroots level, their participation in developing and disseminating technology contributes to the efficiency and effectiveness of any planned changes.
Farmers are exposed to many sources of farm-related information from public and private organizations. In many developing economies, their interactions with various stakeholders in extension services, which cover topics that include improving the sustainability of their farming systems, marketing strategies, environmental sustainability, pest diagnostics and risk management, have increased [4]. Farmers’ access to information and knowledge is an essential component of sustainable agriculture and farmers need to be motivated to take responsibility for public agencies’ extension programs.
Previous studies have shown that extension service providers create valuable information, knowledge and technology dissemination, usually adapted to the specific context of the country or region in which they work [5]. Barrett, et al. [6] argued that access to transparent sources of information and knowledge is an indicator of community empowerment and is essential to improving rural livelihoods. Amankwah, et al. [7] and Charles, et al. [8] also showed that interactions with extension agents and other actors in the agricultural sector increase smallholder farmers’ access to information, knowledge and farming inputs, thus contributing to agricultural innovation. Access to information supports farmers in deciding whether or not to adopt agricultural technologies [9]. A study carried out in Namibia by Kumba [10] asserted that farmers access and utilize information more effectively if they have built interactions with the institutions and arrangements that impart the knowledge and information. This leads farmers to develop a sense of ownership in the endeavors of extension activities and programs. Interaction is essential to smoothen the development processes that explicitly deliver desired, technology-related outcomes for participants [11]. Previous research has also shown that interactions encourage implementing the latest technologies and best practices, thus improving farmers’ productivity and incomes [12].
Farmers’ level of interaction with extension services is inevitably affected by socio-economic and demographic factors. Since these interactions take place at the grassroots level, they are inherently dependent on the specificities of this grassroots context. Determining these influences on the level of interaction at the grassroots level can provide an important contribution to formulating policies and strategies that can enhance the dissemination of information and knowledge and facilitate development in collaboration with local communities. Based on research in Vietnam, Hoang, et al. [13] noted that factors such as ethnicity, gender and power relations determine farmers’ interactions with public extension services. Research from the Democratic Republic of Congo [14] and Malawi [15] reported a dearth of interaction between extension agencies and farmers with the former failing to deliver knowledge and technologies to farmers. Here, farmers’ socio-economic characteristics were not considered, and extension agents were unable to develop and recommend appropriate technologies that were compatible with farmers’ expectations and needs. For northwest Ethiopia, little is known about socio-economic factors determining farmers’ interactions with public extension services [16,17,18,19,20].
The agricultural sector in Ethiopia contributes to the livelihood of most of the country’s households. It remains the keystone of the Ethiopian economy both in terms of employment and income generation. The reduction in poverty in Ethiopia will not be possible without rapid agricultural development, ignited by an effective extension system [21]. However, as Belay [22] noted, the country suffers from insufficient agricultural technology, inadequate natural resource management, a minimal use of farm inputs and insufficient knowledge of agriculture. Such problems are exacerbated by a weak extension system, poor interactions between farmers and public extension agencies, land fragmentation, a weak financial market and poor rural infrastructure [23]. Despite the enormous investment in agricultural extension programs, the services have been widely criticized for their inadequate targeting, restricted scope and the immense administrative costs of information delivery [22,24,25,26]. This has led Ethiopia’s government to devise and pursue agricultural extension policies and approaches aimed at alleviating these problems, minimizing dependence on rain-fed agriculture and ensuring food security.
This paragraph explains the organization of the Ethiopian extension apparatus in order to sketch some specificities of the grassroots context of this study. At the district level, the local agricultural offices’ main tasks are to promote crop and animal production, facilitate credit and marketing services and introduce modern agricultural technologies, thereby intensifying agricultural growth. They also support and supervise the frontline extension agents who work in promoting agricultural activities at the sub-district level. These extension agents play a central role in agriculture and rural development initiatives. After the launch of the first Growth and Transformation Plan (GTP-I) in 2010, the Ministry of Agriculture (MoA) adopted a Participatory Extension System (PES) [27]. This system organizes local farmers into “development groups”, “1 to 5 farmers’ groups” and other networks. Under PES, each sub-district is subdivided into three villages (ketena), working though development groups, consisting of 20 to 30 farmers, each headed by a model farmer [28]. Each village has 6 to 10 development groups. Extension agents (EAs) mentor and assist the development group leaders and train model farmers who, in turn, do the same to the members of their respective farmers’ group. The development group leaders regularly evaluate the farmers’ performance, based on the quality of the work conducted and the farm tools used. The sub-district cabinet assigns one EA to each village on a rotational basis, according to their specialization. The arrangement is intended to enhance learning among farmers and encourage them to adopt best practices [24]. Extension agents and farmers are also supposed to participate in Farmers’ Training Centers (FTCs), where technologies are demonstrated for them to evaluate and where they can plan the coming year’s campaign. Despite these efforts to make the extension system efficient and effective, the system has not produced the desired outcomes [28].
Non-governmental actors also provide extension services. Cooperatives are expected to play a role in mobilizing farmers and to provide different extension services, such as access to agricultural inputs, such as fertilizer and improved seed [29]. Farmers have also organized themselves into water users’ associations (WUAs) to address irrigation and other water-related problems [30], since irrigation needs proactive and organized community participation [31].
Interactions between these extension agencies and farmers is critical, yet much of the literature is one-sided, solely focusing on the factors that affect farmers’ participation in extension activities while paying little attention to the socio-economic factors that influence their level of interaction with extension agencies. Some research has covered watershed programs [16], entry and intensity in informal rental land markets [17], soil and water conservation intervention [18], the supply of off-farm labor [19] and the use of information communication technologies [20]. This study aims to fill the gaps in this research by identifying the critical socio-economic determinants of the interactions between farmers and extension agencies. Insights in these context-related specificities will lead to improved partnership, collaboration and linkages in such interactions, thereby improving the extension system at large. This study will also inform policymakers on ways of improving the effectiveness of extension programs by focusing on how to improve interactions between farmers and extension agencies. To this end, the key research questions of this paper are as follows: What are the determinants of the level of farmers’ interactions with extension agencies? How do these determinants explain the level of farmers’ interaction with the extension agencies?
The research was conducted in two districts near Lake Tana, northwest Ethiopia. North Mecha is recognized for its irrigation potential and is home to the international vegetable company Koga Veg (a Belgian-based enterprise that exports fresh fruit and vegetables). Fogera district is well known for its rain-fed rice and irrigated vegetable production. The extension services in the two districts are provided by a range of different public extension agencies located in the area.
The rest of this paper is organized as follows. Section 2 explains the sampling techniques, sample size, data sources and types and analysis. Section 3 first describes and then discusses the descriptive statistics, tests and results of the econometric model. The final section provides some conclusions and recommendations.

2. Materials and Methods

2.1. Site Information

The study was conducted in two districts of the Amhara region, Fogera and North Mecha (Figure 1). These districts have been subject to extension activities implemented by the government, supported by various non-governmental organizations (NGOs) who have conducted and supported these extension endeavors. The detailed area description is found in Table 1.

2.2. Sampling Technique and Sample Size

A multi-stage sampling technique that involved three stages of random sampling, based on the structure of natural clusters in the population, was used to obtain a representative sample for the analysis [34]. In the first stage, the two districts were purposively selected, based on the long-term provision of intensive public agricultural extension services, various agro-ecologies and their recognition as “development corridors” (i.e., with a large potential for agriculture and agro-processing) by the government. Given this context, it was assumed that farmers were aware of extension activities and could answer the research questions. In the second stage, eight villages were selected purposely from each selected district. Thirdly, systematic random sampling was employed to select respondents from a list of farmers residing in each sub-district, proportionate to the districts’ size, resulting in a sample of 300 households (Table 2).

2.3. Data Types and Sources

This study followed a cross-sectional research design. The receivers of agricultural extension services in the districts were the focus of the study. A structured questionnaire was developed based on the study’s objectives, literature review and the researchers’ long-term experience in the area.
These quantitative results were complemented with qualitative data collected through focus group discussions (29 farmers and 23 extension agents from Fogera and North Mecha districts), allowing for a triangulation of the results of the survey with the reflections and observations of farmers, extension experts and district-level office heads. The focus group discussions helped the researchers get a clear idea and new insights concerning the determinant variables and how these can be related to the literature.

2.4. Data Analysis

Cross-sectional farm household-level data were collected between September 2019 and March 2020. The data were coded and filed in STATA software. The household questionnaire was administered to a group of 300 systematically selected household heads. Descriptive statistics were used to capture the socio-economic profile of respondents. Spearman’s correlation coefficient and Kruskal–Wallis analysis of variance tests were used to determine statistically significant differences between two or more groups of independent variables. An ordered probit model allowed us to identify the determinant variables that influence farmers’ levels of interaction with extension services, as discussed below.

2.4.1. Specification of the Econometric Model

Ordered probit and logit models are used when the dependent variable “y” has the discrete ordered nature of the response. In an ordered probit model, the values of the response dependent variable are not arbitrary [35]. However, in the case of multinomial probit or logit models, the dependent variable is not in a certain order and therefore the categories of the values of the dependent variable have no meaning [36]. In this research, the ordered dependent variable is “level of interaction of farmers”, which is categorized as “very weak”, “weak”, “strong” and “very strong”, and valued as 1, 2, 3 and 4, respectively. Therefore, the effects of different determinant factors are estimated on the probability of each level of interaction. Although ordered probit and logit models yield similar inferences, they assume standard normal and logistic distributions of the error terms, respectively. An ordered probit model was used in this research as it is a commonly used tool in other related research such as [37,38,39,40,41,42].
Following Borooah [43], the interaction of individuals with extension services is affected by interdependent variables, as shown in Equation (1):
y * i = x i β + ε i
where y * i = interactions with public extension agencies, with four levels of increasing interaction, coded as 1 = very weak, 2 = weak, 3 = strong, and 4 = very strong; x i = vector of observed random explanatory variables assessing the attributes of farmers’ interaction; and ε i = a random error term to mean 0 and a variance, 1. The observed y is related to y * as specified in Equation (2):
y i {   1 v e r y   w e a k =   y i < * τ 1 2 w e a k i f   τ 1 y 1 * < τ 1 3 s t r o n g i f   τ 2 y i * < τ 3 4 v e r y   s t r o n g i f   τ 3 y i * < τ 4
It follows that the equations for the probabilities with four observed outcomes for the ordered probit model are
{ P τ y i = 1 x i = ( τ 2 α β x i ) P τ ( y i = 2 / x i ) = ( τ 2 α β x i ) ( τ 1 α β x i ) P τ ( y i = 3 / x i ) = ( τ 3 α β x i ) ( τ 2 α β x i ) P τ ( y i = 4 / x i ) = ( τ 4 α β x i ) ( τ 3 α β x i )
The parameters of the model specified in Equation (3) are estimated using the maximum likelihood method. However, there is a lack of clarity in interpreting the model’s coefficient [44]. For example, there are four categories of farmers’ interaction with extension agents. At the same time, the model has only one unknown threshold parameter. This necessitates the partial change in the marginal effect, which can reveal the individual effects of independent variables on the probability of the four different levels of interaction. A partial change in the predicted probability of the outcome m, for a continuous variable, in the interval τ m 1 to τ m for a change in the explanatory variable x k at the mean value is specified as in Equation (4):
δ p τ ( y = m / x ¯ ) δ x k = β k [ f ( τ m 1 x ¯ β ) f ( τ m x ¯ β ) ]
The change in the predicted probability that y = m given x, stating a particular value for x k from the initial value x s to the end value x ϵ (e.g., a change from x = 0 to x = 1), is given by Equation (5):
δ p τ ( y = m | x ¯ ) δ x k =   p τ ( y = m | x ,   x k = X E ) p τ ( y m | x , x k = x s )  
where p τ ( y = m | x ,   x k ) states the probability that y =   m given   x , given a particular value for x k . Thus, when x k changes from x s to x E , the predicted probability of the outcome m changes by Δ p τ ( y = m | x ) / Δ x k , keeping all other variables at   x .

2.4.2. Description of Variables and Hypotheses

In this study, a farmer’s level of interaction was considered to be the dependent variable. Farmers were asked to rate their level of interaction with formal actors in the extension system as very weak (meet once per cropping season), weak (meet once per month), strong (meet every two weeks) and very strong (meet weekly). The independent variables concerned the socio-economic attributes of farmers, based on the assumption that farmers’ interactions are influenced by a number of variables (Table A1), which are explained in the following paragraphs.
The sex of a household head may have a positive or negative effect on interactions. According to Mudege, et al. [45], men have more freedom and influence in household decision making than women, including opportunities for interaction with different extension agencies to learn about new practices and technologies and to participate in different events, such as meetings, demonstrations and training sessions. Due to the negative stereotypical views about women, their husbands and extension agents inhibit their access to training and knowledge. However, some studies [16,46,47] revealed that women are better networked in social groups, such as “program groups”, and are actively involved in household and smallholding decision making.
A farmer’s age is an important determinant of the level of interactions and is expressed as a continuous variable in this model. Since interaction in extension is mainly for the purposes of seeking information and knowledge, we surmise that young farmers are more likely to participate due to their higher education, enthusiasm and desire to learn and to access a range of different information sources. This is particularly the case in soil and water conservation works that require considerably more investment in technologies [48,49].
A household head’s farm experience is defined as the number of years spent in farming by the household head [50]. The experience will enable farmers to have better knowledge, which may be the basis for interaction [31]. Hence, farming experience was hypothesized to affect farmers’ interaction positively. Participation in agricultural extension programs and activities requires that a household has a sufficient agricultural labor force [51]. The family is the major supplier of the labor needed for undertaking the farming operations [52]. Accordingly, we hypothesize that the agricultural active labor force in the household will be positively correlated with a farmer’s decision to interact with public extension agencies while delegating their responsibility to another family member.
Dependents are defined as persons living in the household who make little or no contribution to agricultural activities in terms of labor but consume household resources (i.e., those of less than 15 years or older than 64) [53,54]. A farm household with more dependents is assumed to be less likely to interact with extension agencies as they cannot delegate labor while interacting with extension agents. Therefore, a higher number of dependents is expected to negatively influence the interaction with extension agencies.
The level of education of the household head, measured as a categorical variable, is expected to positively influence farmers’ interaction with different extension agencies. Several studies have revealed the positive effect of education levels on farmers’ participation in extension programs and technology adoption [51,55]. Many farmers are also involved in non-farm activities in order to support their income and livelihood. This is an indication that income from the farm enterprise alone is inadequate [56]. Therefore, it is hypothesized that involvement in non-farm activities is negatively correlated with the farmers’ interaction with extension agencies.
Farmers who have access to agricultural credit are under pressure to pay back, especially when confronted with challenges such as a failed harvest. Consequently, farmers with agricultural credits are more likely to interact with various agencies, in order to obtain adequate information and know-how to improve their production, ensure their income and pay back their debts in time. Farmers who join cooperatives and informal organizations such as Iddirs (An Iddir is an association made up by a group of people united by ties of family and/or friendship, living in the same district, etc., that has an objective of providing mutual aid and financial assistance when needed [57]) and Mahibers (A Mahiber is a self-help religious organization established by the common interest of members [58] may have more interest in communicating with public extension agencies [53]. Household membership of cooperatives and informal organizations is hypothesized to positively influence interaction with extension agencies.
The interaction of household heads with extension agencies is also affected by the time required for the interaction [51]. The distance (measured in minutes) from a farmer’s house to the nearest extension agent’s office will influence the probability of interacting, and greater distances are hypothesized to influence interactions negatively.
Farmers who attend more annual training and field days are likely to have more opportunities to interact with different public extension agencies [59]. Therefore, farmers’ participation in extension training sessions and field days is likely to have a positive effect on their interactions and increase the probability of these occurring.
Oxen ownership is an essential component of developing countries’ agricultural economies [58,60,61]. It is also closely linked to the social and cultural lives of farmers [62]. Adopting the technologies promoted by extension agencies requires farmers to have means and to be relatively wealthy. As wealth is expressed in oxen ownership in the research area, oxen ownership is expected to be positively associated with interactions with extension agencies.
Agricultural land is a fundamental base of rural livelihoods [63]. Household landholding size (be it irrigated or leased) has been reported to be strongly associated with farmers’ interaction with extension agencies [64]. In this study, we hypothesize that farm size (size of leased and irrigated land) will be positively associated with respondents’ interactions with extension services.
Farmers can obtain information from different sources [65] including the mass media, particularly the radio [25]. We expect such exposure to positively influence farmers’ interactions with extension services.
Farmers use mobile phones for accessing market information, arranging meetings with extension services, reporting an emergency, organizing meetings and communicating with extension agents [66]. Ownership of a mobile phone is assumed to help farmers interact with extension personnel and is hypothesized to positively influence farmers’ interactions.
Finally, the rural households in the study areas were classified into three wealth ranks (poor, medium and better off) by the extension agents, based on their overall physical assets. We use the term wealth status and hypothesize that the better-off farmers will have better interactions with extension agencies.

3. Results and Discussion

3.1. Descriptive Statistics

3.1.1. Statistical Summary for the Continuous Variables of the Study

Table 3 presents the summary statistics of the variables. The mean age of a farm household head is around 43 years. The mean numbers of dependents and economically active family members are 2.3 and 3.3, respectively. On average, farmers participate in 3.5 days of agricultural training and 1.1 field days per year. While the extension agencies organize formal training and field day sessions for farmers, farmers in the focus group discussions (FGDs) complained that priority for participating in these events was given to “model farmers” as it was assumed that they would disseminate information and knowledge through peer-to-peer learning. A similar observation was recently made by [67].
The average journey time (on foot) for farmers to their nearest extension agent is a little over 25.6 min. This relative proximity does not suggest an impediment to interacting with extension agencies. Oxen, commonly used in Ethiopia for plowing, are generally considered as an asset that can be used either in the production process or sold in times of hardship [68]. The average number of oxen per household among our respondents was 2.2. This implies that farmers in the study areas have good opportunities to cultivate their land and have some “back-up savings”.
On average, household heads cultivate 0.2 hectares of leased land and 0.3 hectares of self-owned irrigated land. This indicates that farmers who do not own (enough) land can rent land in kind or for cash. However, the focus groups revealed that leased lands are expensive and usually not irrigated and are thus far less productive than owned (and irrigated) land.
Mobile phones are used as a medium for sharing and accessing information. With an average of 1.3 numbers of cell phones in the households in our sample, a large proportion of farmers can easily access agricultural information from extension agencies.

3.1.2. Statistical Summary for Discrete Variables of the Study

The statistical analysis of the discrete variables of the study is given in Table 4 and Table 5.
Of all households, 95% are male-headed, and 5% are female-headed (Female-headed households are characterized as single women, married women whose husbands are absent or widows). In the FGDs, farmers confirmed that male-headed households have more access to extension services and better representation in local and governmental organizations.
According to Table 4, 4% attended secondary school, while 38% can read and write. These household heads in the study area have a relatively better educational position that helps their interactions with public extension agencies.
The majority of the households (67%) are classified as middle-income groups. Almost one fifth, 19%, of the farmers are engaged in non-farm activities, indicating that the vast majority of farmers are not involved in additional income-generating activities to diversify their livelihoods. This might be because farmers prefer not to be involved in such activities or have limited opportunities to do so.
Just over a third (39%) of the respondents have access to credit. According to the focus group participants, the micro-finance provider, The Amhara Credit and Saving Institution (ACSI), asks for a too high interest rate and also imposes a group collateral system arrangement that obliges farmers to organize in groups to share a mutual loan repayment guarantee [69]. Recent research on ACSI recommended that it “devise operations and marketing strategies that focus on the dominant service quality dimensions to enhance customer satisfaction and, in turn, foster positive customer loyalty’’ [70].
Social relations and social networks, such as Iddirs and Mahibers, are essential for the creation and sharing of knowledge among farmers and offer a more pluralistic approach to extension as well as smoothing farmers’ access to extension agencies. Similar patterns can be found in many other countries in the Global South [71]. The survey showed that 87% of the respondents are members of an Iddir and 73% are affiliated with a Mahiber.
Many rural areas in Ethiopia are home to multi-purpose cooperatives that play a crucial role in improving their communities’ socio-economic situation [72]. This study found that almost three quarters (74%) of farmers are members of multi-purpose cooperatives, which also enhances their opportunities to interact with extension service providers.
Several rivers (including the Gumara, Ribb and Koga) flow through the study areas, so many North Mecha and Fogera farmers are engaged in small-scale irrigation farming [73]. More than two thirds (71%) of respondents reported having access to irrigation, which tended to enhance interactions with various extension agencies. These farmers obtain training on cultivation methods, knowledge about local irrigation methods, help in preparing and implementing an irrigation schedule for supplying water to the fields and assistance in repairing and maintaining the irrigation canals.
Table 5 portrays the different sources of information that farmers use. Farmers were asked about their most important information source from the public extension agencies; 62% of the households met extension agents weekly which shows a very strong level of interaction. Public extension agencies were, by far, the most frequently used source of information. See Table 5 below for the rest of the analysis on information sources and the level of farmers’ use.

3.1.3. Analysis of Spearman Rank Correlation and Kruskal–Wallis Variance

A Spearman rank correlation was used as a measure of a monotonic association, and a Kruskal–Wallis analysis of variance test was used to determine if there are statistically significant differences between two or more groups of independent variables such as educational status (illiterate, literate, primary school and secondary school) and wealth status (poor, middle-income and better off). Details of these analyses are in Appendix A (Table A2 and Table A3).

3.2. Determinants of Farmers’ Interactions with Extension Agencies: Econometric Results

This section presents the econometric estimation results of the determinants of farmers’ interaction levels with different formal actors in the extension system. The parameter estimates of the ordered probit model are presented in Table A4. The variables found to be statistically significant in determining the level of farmers’ interaction include the age of the household head, the farming experience of the head, the numbers of active family members and dependents, membership to Iddirs and Mahibers, physical distance to the extension agent’s office, annual participation in agricultural training and field days, access to irrigation, oxen ownership, the amount of leased and irrigated land cultivated by the household, ownership of a radio and the wealth status of the household.

3.2.1. Personal and Demographic Characteristics

Sex of the household head: Various studies have shown that farmers’ interaction with extension agencies is influenced by the sex of the household head [4,74]. In our study, male-headed households are also more likely to interact with cooperatives. Male-headed households are 35% more likely to have interactions with local cooperatives. The results from the FGDs suggest that this could be because there is an active male-headed household interaction due to their household decision-making power. Males are also more strongly represented in decision-making and leadership positions in the cooperative structure than females.
Moreover, female-headed households face obstacles in accessing resources, particularly land, and ownership of land is often a precondition for being able to join a cooperative. This aligns with the results obtained by [75], who investigated factors influencing women’s participation in agricultural cooperatives in Ethiopia and concluded that their lower socio-economic status plays a key role.
Age of the household head: Older farmers are less likely to interact with cooperatives. Interaction with cooperatives decreases by 4% for each additional year of a household head’s age. This might be because farmers reduce their participation in cooperatives as they get older and become less willing to take on responsibilities and obligations. This result is consistent with other findings [76,77], both of which investigated the negative association between age and farmers’ willingness to engage in natural resource management programs.
Number of active family members: Having more active family members decreases the level of farmers’ interaction with water users’ associations by about 5%. This result is unexpected as active family members can alleviate any labor shortage and a large family size implies a high availability of labor [78] that exists within a household. The water users’ associations are supposed to support farmers in any endeavors related to irrigation facilities, with the farmers expected to clean the irrigation canals themselves. However, as we understood through our FGDs, the associations often do not meet the farmers’ needs, making membership and active participation less attractive. Similar findings have been found in earlier studies [79,80] in which farmers without sufficient support for work from their active family members have to hire labor at peak times (e.g., for planting teff). This has a negative impact on farmers’ incomes because of higher costs for land preparations, planting, weeding or harvesting activities [81].
Number of dependents in the family: This variable has a positive relationship with farmers’ interactions with cooperatives and was statistically significant at 6%. It may be that households with a large number of dependents wish to interact with cooperatives as the cooperatives are the sole providers of consumable goods (sugar, soap and edible oil) at a fair price for members and the allocation of these items is based on household size. Our results contradict some earlier results that farmers with a large number of dependents interact less with cooperatives. The contrary results can be explained by households with fewer children having a larger impact on the cooperative membership of smallholder wellbeing [82]. This is consistent with the study conducted by Priscilla, et al. [83] on dairy farmers’ participation in dairy cooperative societies in Manipur (India), which showed that farmers with a larger dependent family size were more likely to participate in a dairy cooperative society, as they could leave their dependents to manage the dairy cattle when they attended cooperative activities and meetings.
The educational level of the household head: The result shows that household heads who can read and write, but did not complete their primary or secondary education, were positively and significantly more likely (9%) to interact with a 1 to 5 farmers’ group than other farmers. A probable explanation is that these farmers are recruited to be leaders of the 1 to 5 farmers’ groups and play a role in interpreting and directing the public extension issues that cascade from various actors, and that those who complete their primary and secondary education consider themselves (or are considered) overqualified for these tasks. Moreover, farmers of this group are often promoted to become chairs of the 1 to 5 farmers’ groups and obtain some incentives for regularly sending written reports to government officials. This implies that accessibility of agricultural information for farmers who can read and write increased through their role in the 1 to 5 farmers’ groups, which allows them to obtain a better position in the society. These results are consistent with Pratiwi and Suzuki [84], who found a significant positive relation between farmers’ education level and their engagement in social networks aimed at knowledge acquisition in rural Indonesia.
Farm experience of the household head: The result shows that each additional year of farming experience results in a 1% reduction in the probability of interacting with the district office of agriculture but increases the probability of interacting with cooperatives by 1.82%. This implies that people with more experience are more likely to be members of a cooperative. The FGD results suggested that this could be because the more experienced household heads are more likely to dedicate their time to interactions with related agricultural cooperatives for different agricultural and non-agricultural services, especially as agricultural cooperatives are the major end of line distributors of fertilizers and seed. The finding confirms a recent study elsewhere in Ethiopia by [85,86].

3.2.2. Institutional Characteristics

Access to irrigation: Access to irrigation had a positive and significant effect (1%) on the level of farmers’ interactions with 1 to 5 farmers’ groups and development groups. Farmers with access to irrigation were 14% more likely to interact with 1 to 5 farmers’ groups and 14.78% more likely to interact with development groups. This could be because irrigation farming requires facilities, technologies, knowledge and skills, leading these farmers to interact with these user groups at the local level. As a consequence, irrigation in the study areas leads to an increase in yield and hence increases in income, consumption and food security. There are also other stakeholders in the area, such as NGOs and private sector actors, which are committed to supporting irrigation users to address low levels of skills that have hitherto constrained farmers’ productivity in irrigation schemes. It has been shown elsewhere that farmers who have access to irrigation are more likely to obtain information, complementary inputs and incentives from government agencies. The results are consistent with the finding of [87] on the impact of small-scale irrigation on household food security in the case of the Filtino and Godino irrigation schemes in Ethiopia.

3.2.3. Household Assets

Irrigated land size cultivated by the household: Public extension interactions with local people in the community enhances their knowledge of various irrigation issues [88] and helps improve their use of irrigation water by providing them with the requisite knowledge, skills, commitment and understanding. However, farmers with more than one hectare of irrigated land were less likely to interact with extension agents, the district office of agriculture, 1 to 5 farmers’ groups, farmers’ development groups and water user associations, by factors of 2%, 17%, 11%, 18% and 20%, respectively. This negative correlation results from the distrust between farmers and the government: farmers assume that the government is eager to hand over irrigated land to private investors and this leads them to resist disclosing the amount of irrigated land they possess. Compensation for any land taken by the government from the farmers is not based on the amount of irrigated land. Similar findings were reported by [89] on irrigation governance in developing countries elsewhere.
Leased land size cultivated by the household: It was not common practice to lease land to individuals in the research areas. However, there are a few individuals who practiced it on a crop sharing basis, although some leasers will agree on cash terms if the owner of the land needs the money urgently, even if this is not a common practice. Farmers who lease one or more hectares of land are more likely to interact with cooperatives (by 21%), as they require more inputs to intensify their farming activity. Shifa [90] also found that leased land enhances farmers’ communication with cooperatives. However, a one-hectare increase in leased land is likely to reduce households’ interaction with water users’ associations by 25 percent as farmers leasing land are not supposed to be supported in water management and infrastructure maintenance. Such a negative correlation is rare, although it has been reported in Tajikistan [91].
Oxen ownership: In Africa, oxen (cattle) are mostly kept for plowing [61]. Jaleta et al. (2013) showed that households in Ethiopia with more oxen are more likely to adopt new technologies. Our analysis shows that a one-unit increase in oxen ownership reduces the probability of farmers’ interaction with the district office of agriculture by 7%. The FGDs with farmers revealed that better-off farmers (with two or more oxen) were dissatisfied with the quality of the agriculture-related information and the overload of party political ideology. This result is consistent with [92], who found that farmers with more cattle had less contact with the local office of agriculture. With a certain degree of autonomy, wealthy farmers can avoid spending their time interacting with the local agricultural office as they can access farm inputs from private shops and obtain better market information through their networks.
Ownership of a radio: The extension system aims to improve farmers’ decision-making skills. Doing so by means of mass media methods requires highly developed infrastructure facilities as well as content preparation, refining and delivery to make the information relevant and useful [93]. Our results show that households with more than one radio have lower levels of interaction with extension agents, district offices of agriculture, 1 to 5 farmers’ groups, development groups and water users’ associations (by 2%, 10%, 8%, 9% and 13%, respectively). This implies that possession of a radio does not encourage, and indeed actually discourages, farmers from seeking information from agencies. At the same time, for the reasons mentioned above, public extension agencies lack the financial resources to produce radio broadcasts that are relevant to farmers. In addition, we noted that radio coverage in the study areas is generally poor. Our findings are supported by [23,92].
Wealth status of the household: The result shows that poorer households are much more likely (+15%) to interact with water users’ associations than medium or wealthy households. This implies that poor households articulate their needs and problems better and take more initiatives to meet water users’ associations. This is in line with other studies [53] that show that a poor wealth status significantly and positively has an impact on farmers seeking extension advice and suggests that poor farmers are enthusiastic to access agricultural advice from water users’ associations in order to escape poverty.

3.2.4. Groups/Social Capital of the Household Head

Participation in an Iddir: Negera, et al. [94] described an Iddir as a form of informal insurance in which both men and women participate. Its primary function is to help members cope with shocks (at the death of a family member, following the occurrence of hazards or hard times). The level of interaction of household heads with the district offices of agriculture, cooperatives and water users’ associations is strongly influenced by membership to an Iddir, although in different ways.
Farmers’ membership to an Iddir increases the probability of interactions with the district office of agriculture (DoA) by 14%. This confirms information from the DoA that evidence of Iddir membership is sometimes needed to obtain support (such as for labor, materials and cash) during hard and risky times. The author [57] also confirmed that membership to an Iddir is associated with improved interactions between farmers and the office of agriculture.
Participation in a Mahiber: Table A4 shows that membership to a Mahiber decreases the probability of interaction with extension agents and the 1 to 5 farmers’ groups (by 1% and 13%, respectively). The FGDs with farmers revealed that the strength of the social network of a Mahiber resolved issues related to shortage of grazing land by regulating access to communal grazing land. Members of a Mahiber were, by default, supposed to join 1 to 5 farmers’ groups, but nearly half of them were unhappy with the arrangement. Farmers said that the 1 to 5 farmers’ group meetings were tedious and time-consuming and only discussed issues which were not a priority for them, such as political dialogue and the natural resources conservation campaign. A study by Jang, et al. [95] found that members of informal institutions in Ethiopia less often have recourse to extension agencies to resolve agricultural constraints.
Annual participation in agricultural training: Agricultural training is a potentially successful way of disseminating appropriate new technologies to increase farm productivity and reduce rural poverty in sub-Saharan Africa [96]. In many countries, farmers are encouraged to participate in these training sessions to increase technology transfer and improve interaction with extension agencies. However, our results show that household heads who attend more agricultural training sessions per annum are less likely to interact with extension agents, cooperatives and water users’ associations. The results indicate that a one-unit increase in annual participation in agricultural training decreases the probability of interaction with extension agents, cooperatives and water users’ associations by 0.4%, 3% and 2%, respectively. This result is unexpected and departs from observations in other contexts [16,47].
In the FGDs, we discussed why agricultural training does not increase interactions with extension agents, cooperatives and water users’ associations. The participants replied that this has to do with the nature and types of training provided to farmers. Much training is focused more on politics than on agriculture and addresses model and party member farmers rather than ordinary farmers. This finding is supported by [97], who found that most governmental training programs in Ethiopia have political motives and are primarily aimed at fulfilling political objectives rather than improving farmers’ incomes. There are no mechanisms in place to evaluate the training sessions. Farmers in the FGDs confirmed that the training sessions did little to help them solve their agricultural problems. Moreover, since they were trained to use inputs that they cannot afford to buy, many farmers are discouraged from attending training programs and focus on local production methods [98].
Annual participation in field days: Attending field days enables farmers to obtain more information and to improve their interaction with extension actors. Most field days in the research area are organized by extension agents. Our results indicate that a one-unit increase in annual participation in a field day decreases the probability of interaction with extension agents, 1 to 5 farmers’ groups, development groups and cooperatives by 1%, 5%, 4% and 9%, respectively. Farmers said that there are not enough field days and they are often poorly coordinated and implemented. Farmers were also disappointed in the way that participants for field days are selected. The extension agencies select farmers based on their closeness and nepotism. Farmers also complained that their participation in field days did not help them learn about new topics that could substantially alter their farming system. This finding concurs with a study by [99] in western Kenya, which concluded that in most cases, extension agents’ capacity to organize field days is limited.

3.2.5. Access to Extension Agents

Physical distance to the nearest extension agent’s office: The proximity of farmers to extension agents is important for timely interactions with public extension agencies. We hypothesized that a greater distance will have a negative relationship with farmers’ level of interaction. This turned out not to be the case and the correlation was positive, significantly so in the case of interactions with water users’ associations. Our result indicates that each increase of one walking minute’s distance to the agricultural office increased farmers’ interactions with water users’ associations to obtain technical information. According to the FGDs with experts, some water users’ association offices are located in the same compound as the agricultural extension office, which can also function as an alternative office to access services from water users’ associations [100]. Our result is out of line with the literature which normally finds that distance serves as an obstacle for interaction. It is also likely that farmers depend more on other sources, such as 1 to 5 farmers’ and farmers’ development groups, for their information on irrigation and water use than on agricultural extension agents, especially when they are not accessible to farmers. The authors of [47] found that farmers attending animal health service clinics in Nepal were located nearer to the clinic sites and these farmers had less frequent contact with other extension people.

4. Conclusions

This study, which used an ordered probit model, ratifies the importance of the personal and household attributes, farm/plot characteristics and socio-economic and institutional factors in interacting with the range of public extension agencies. These findings demonstrate that poor farmers are more likely to interact with the formal extension system, which is excessively politicized. They cannot afford to evade the surveillance of their political behavior for which the extension system is instrumentalized. Evasion of surveillance is a luxury that only those who are better off can afford, as the above suggests. Even so, this contains an ironic paradox. Although it can be objectively concluded that the packages and technical advice propagated through the extension service are appropriate, firstly, for better-off farmers who have the means to afford the inputs, etc., these results suggest that these better-off farmers will more likely evade the formal extension system, whereas the poorer farmers, to whom the extension packages are not well suited, are, so to speak, forced to engage with the extension system and to undergo the state’s political surveillance.
The study suggests that for better farmers’ interaction, farmers should obtain the services and support that they need from the relevant authorities, with a focus on capacity building. There is also a need to revitalize the training program, enhancing its accessibility, making it demand-driven and reviewing the content of the training program. Formal and informal cooperatives should be empowered to contribute more to the development endeavor, and extension agents should recognize them as contributors to development. These cooperatives also need to provide real and practical extension services, minimize their orientation on distributing consumer goods and improve their trustworthiness in the eyes of both members and non-members. Better-off farmers can lease land and be encouraged to boost production and productivity. The regional bureau of agriculture needs to launch radio programs in collaboration with the regional mass media agencies, which should be attractive and targeted and have an orientation towards problem solving. Water users’ associations need to adopt their byelaws and modus operandi so they are customized to local conditions, rather than adopting the regional blueprint for their operational activities. We strongly advise them to consider the local conditions and play a stronger role in disseminating information and knowledge on irrigation-related issues.
Our study only considers farmers’ interaction with government agencies. However, the contribution of private and non-governmental actors is indispensable. Therefore, future research should take into account the interaction of farmers with these entities, as well as the interplay between the governmental agencies and non-state actors. Finally, future studies should carefully consider the factors that promote and constrain smallholders’ interaction with public extension agencies. There is a need to design contextually appropriate and pro-poor development strategies that enable poor farmers to engage more with extension activities and to encourage them to rely more on their family labor rather than on capital-intensive extension packages.

Author Contributions

Conceptualization, Y.A.G., B.A.W., J.D., M.B. and L.L.; data collection, Y.A.G.; B.A.W. and Z.A; formal analysis, Y.A.G. and B.A.W.; funding acquisition, J.D., B.A.W., A.S.M., Z.A., E.A. and J.N; investigation, Y.A.G.; methodology, Y.A.G., B.A.W. and J.D.; project administration, E.A. and J.N.; resources, Y.A.G., J.D. and A.S.M.; software, Y.A.G. and B.A; supervision, Y.A.G., B.A.W., J.D. and M.B.; validation, Y.A.G. and B.A; writing—original draft, Y.A.G. and B.A.W.; writing—review and editing, Y.A.G., B.A.W., J.D., M.B., L.L., Z.A., A.S.M., E.A. and J.N. All authors have read and agreed to the published version of the manuscript.

Funding

The authors would like to thank the VLIR-UOS project for funding this research through the Bahir Dar University-Institutional University Cooperation (BDU-IUC) program.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

The data presented in this study are available on request from the corresponding author.

Acknowledgments

We want to thank the Bahir Dar University-Institutional University Cooperation (BDU-IUC) VLIR UOS for providing funding to complete the study. The authors thank the farmers for their willingness to devote time and answer the questions. We would also like to thank the agricultural experts of the districts of Fogera and Mecha. The authors acknowledge the local experts (Yousef Ejigu and Ato Setie Abdi) and data collection participants (Birara Endalew, Mekuanent Lewye, Mekuanent Worku and Bzuayehu Telelaw) for their commitments. Special thanks go to Hanibal Lemma for helping us map the study areas. Finally, the authors thank Nicholas Parrott of TextualHealing.eu for his help in improving the readability and quality of English of this chapter.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Summary of the definition of variables used in the ordered probit model.
Table A1. Summary of the definition of variables used in the ordered probit model.
VariablesCodeDescriptionUnit/Rating
Dependent variable INF-EAS
INF-DIO
INF-FGS
INF-DGS
INF-COOP
INF-WUAS
Farmer’s rating of information and the level of interaction with
 extension agents;
 the district office of agriculture;
 1 to 5 farmers’ groups;
 farmers’ development groups;
 cooperatives;
 water users’ associations in the extension system
1 = very weak
2 = weak
3 = strong
4 = very strong
Independent variables SEXSex of the household head1 = if male-headed,
2 = if female-headed
AGE Age of the household headYear
FREXPFarming experience of the headYear
ACTIVENumber of active family member/sNumbers
DEPENDNTNumber of dependent/s in the family Numbers
HH-LITERARCYIf the household head is illiterate or not (reference category)
HH-READWRITEIf the household head can read and writeJust read and write =1; 0 = otherwise
HH-PRIMEDUIf the household head completed primary education Primary school = 1; 0 = otherwise
HH-SECEDUIf the household head completed secondary educationSecondary school = 1; 0 = otherwise
NONFARMEngagement in non-farm activities1 = No 2 = Yes
ACCESSCREDITAccess to credit1 = No 2 = Yes
IDDIR Membership to Iddir1 = No 2 = Yes
MAHIBERMembership to Mahiber 1 = No 2 = Yes
DIST-OFFPhysical distance to extension agent’s officeIn minutes
AGRTRAININGAnnual participation in agricultural trainingNumber of times in a year
FIELDDAYSAnnual participation in field day/sNumber of times in a year
MEMB-COOPMembership to a cooperative1 = No 2 = Yes
ACCESS-IRRIGAccess to irrigation1 = No 2 = Yes
OWNEROXENOxen ownershipNumber of oxen
LEASELANDLeased land size cultivated by the household In hectares
IRRIGLANDIrrigated land size cultivated by the household In hectares
RADIOOwnership of radioIn numbers
MOBILEPHONEOwnership of mobile phoneIn numbers
WEALTH-POORIf the wealth status of the household is poor 1 = poor; 0 = otherwise
WEALTH-MIDIf the wealth status of the household is middle (reference category)
WEALTH-BETTERIf the wealth status of the household is better off1 = better off; 0 = otherwise
Table A2. Spearman’s correlation coefficient for continuous variables.
Table A2. Spearman’s correlation coefficient for continuous variables.
VariabelINF-EASINF-DOINF-FGSINF-DGINF-COOPINF-WUAS
AGEΓ = 0.05 **Γ = −0.02Γ = 0.01Γ = −0.01Γ = 0.04Γ = −0.12
FREXPΓ = 0.04Γ = 0.01Γ = 0.03Γ = −0.02Γ = −0.04Γ = −0.12
ACTIVEΓ = 0.15 *Γ = −0.03Γ = −0.02Γ = −0.03Γ = −0.05Γ = 0.09
DEPENDNTΓ = 0.16 ***Γ = 0.12 **Γ = 0.01Γ = 0.04Γ = −0.15 **Γ = 0.05
DIST-OFFΓ = −0.02Γ = −0.04Γ = −0.04Γ = −0.08Γ = 0.01Γ = −0.11
AGRTRAININGΓ = 0.23 ***Γ = 0.02Γ = 0.07Γ = 0.11 *Γ = −0.14 **Γ = −0.21 **
FIELDDAYSΓ = 0.29 ***Γ = 0.08Γ = 0.22 ***Γ = 0.14 **Γ = 0.17 **Γ = −0.06
OWNEROXENΓ = 0.10 *Γ = 0.17 **Γ = 0.09Γ = 0.02Γ = −0.07Γ = −0.02
IRRIGLANDΓ = 0.15 *Γ = 0.22 ***Γ = 0.08Γ = 0.05Γ = 0.04Γ = 0.19 **
LEASELANDΓ = 0.09Γ = 0.12 **Γ = 0.07Γ = 0.05Γ = −0.12 *Γ = 0.26 ***
RADIOΓ = 0.21 ***Γ = 0.16 ***Γ = 0.13 **Γ = 0.14 **Γ = −0.09Γ = 0.14*
MOBILEPHONEΓ = 0.16 ***Γ = 0.11 *Γ = −0.01Γ = −0.01Γ = −0.11 *Γ = 0.12
p-Values * is significant at p < 0.1; ** is significant at p < 0.05 and *** is significant at p < 0.01.
Table A3. Kruskal–Wallis analysis of variance summary table.
Table A3. Kruskal–Wallis analysis of variance summary table.
VariablesINF-EASINF-DOINF-FGSINF-DGINF-COOPINF-WUAS
Rank Sumχ2Rank Sumχ2Rank Sumχ2Rank Sumχ2Rank Sumχ2Rank Sumχ2
SEXMale43,5062.85 *40,9941.2643,3190.8343,3000.7323,8102.93 *90520.02
Female16451784 183118501166265
HH-LITERAIlliterate13,5449.79 **13,4965.5613,9835.7414,0903.1667877.4826120.81
HH-READWRITELiterate17,60815,74818,54618,19710,9843931
HH-PRIMEDUPrimary school12,60812,32010,69211,01561442410
HH-SECEDUSecondary School11831107180016971003303
NONFARMNo36,1100.8235,1100.8036,6470.0236,1520.5720,4960.0074370.95
Yes904176688503899944801879
ACCESSCREDITNo27,4770.1225,7250.8527,8460.0527,3370.2615,1290.2764660.63
Yes17,67417,05417,30517,81398472850
IDDIRNo54181.0762652.1252761.5050452.96 **15997.01 ***8000.49
Yes39,73236,51439,87440,10623,3788516
MAHIBERNo10,9193.80 *11,7021.3510,2328.06 ***11,1731.9051292.6914881.74
Yes34,23131,07734,91833,97819,8487829
MEMB-COOPNo10,0047.79 ***10,9650.0011,0240.8110,9371.10 11670.20
Yes35,14631,81334,12734,2138150
ACCESS-IRRIGNo11,6587.19 ***11,590 13,8020.7214,0351.4979331.958250.26
Yes33,49331,18831,34831,11517,0448491
WEALTH-POORPoor44458.89 **47892.6144696.99 ***54050.7527441.036365.20 *
WEALTH-MIDMiddle-income31,30628,37830,81430,65516,5306966
WEALTH-BETTERBetter-off940096129867909157021715
p-Values: * is significant at p < 0.1; ** is significant at p < 0.05; and *** is significant at p < 0.01.
Table A4. Predicted probabilities and marginal effects from the estimated ordered probit model.
Table A4. Predicted probabilities and marginal effects from the estimated ordered probit model.
VariablesINF-EASINF-DOINF-FGSINF-DGINF-COOPINF-WUAS
Coef./seDy/dxCoef./seDy/dxCoef./seDy/dxCoef./seDy/dxCoef./seDy/dxCoef./seDy/dx
SEX−0.07 (0.38)0.00−0.25 (0.45)0.090.01 (0.31)−0.00−0.11 (0.34)0.040.87 (0.52) *−0.35−0.27 (0.59)0.08
AGE−0.01 (0.06)−0.00−0.00 (0.07)0.000.03 (0.05)−0.01−0.03 (0.05)0.010.10 (0.06) *−0.04−0.072 (0.09)0.02
AGESQ−0.00 (0.00)6.1 × 10−70.00 (0.00)0.00−0.00 (0.00)0.000.00 (0.00)−0.00−0.00 (0.00)0.000.00 (0.00)−0.00
FREXP0.01 (0.02)−0.000.03 (0.02) *−0.020.01 (0.02)−0.000.00 (0.02)−0.00−0.05 (0.02) **0.020.01 (0.03)−0.00
ACTIVE 0.07 (0.05)−0.00−0.05 (0.05)0.02−0.02 (0.04)0.01−0.02 (0.05)−0.01−0.02 (0.05)0.010.1629 (0.08) **−0.05
DEPENDNT0.09 (0.06)−0.000.08 (0. 07)−0. 03−0.06 (0.05)0.02−0.01 (0.06)0.00−0.14 (0.07) **0.060.09 (0.08)−0.03
HH-LITERACY0.28 (0.19)−0.01−0.01 (0.07)−0.010.29 (0.16) *0.090.22(0.17)0.070.26(0.22)−0.100.08 (0.27)−0.02
HH-READWRITE0.30 (0.22)−0.01−0.12 (0.08)−0.12−0.09 (0.20)−0.03−0.12(0.20)0.04−0.20 (0.25)0.08−0.08 (0.31)−0.02
HH-PRIMEDU−0.32 (0.41)0.020.10 (0.15)0.100.52 (0.46)−0.130.06 (0.45)−0.020.44 (0.39)−0.17−0.10 (0.50)0.03
NONFARM0.31 (0.24)−0.01−0. 03 (0.07)0.030.03 (0.18)−0.010.16 (0.19)−0.06−0.15 (0.22) 0.060.16 (0.32)−0.05
ACCESSCREDIT0.03 (0.16)−0.00−0.05 (0.05)−0.050.06 (0.14)−0.020.12 (0.14)−0.040.03 (0.18)−0.01−0.00 (0.22)0.00
IDDIR −0.16 (0.21)0.010.14 (0.07) *0.140.00 (0.19)−0.000.12 (0.20) −0.040.73 (0.46)−0.290.58 (0.37)−0.17
MAHIBER0.25 (0.17) *−0.01−0.04 (0.06)0.050.43(0.15) ***−0.130.17 (0.15)−0.060.27 (0.23)−0.110.44 (0.32)−0.13
DIST-OFF−0.00 (0.00)0.000.00 (0.00)0.000.00 (0.00)−0.00−0.00 (0.00) 0.00−0.00 (0.00)0.00−0.01 (0.01) **0.00
AGRTRAINING0.09 (0.03) ***−0.00−0.00 (0.00)−0.010.02 (0.02)−0.010.03 (0.02) −0.01−0.08 (0.03) ***−0.03−0.070 (0.03) **−0.02
FIELDDAYS0.18 (0.08) **−0.01−0.00 (0.02)−0.000.18 (0.05) ***−0.050.13 (0.06) ** −0.040.22 (0.07) ***−0.09−0.10 (0.08)0.03
MEMB-COOP0.19 (0.17)−0.01−0.02 (0.06)0.02−0.10 (0.17)0.03−0.01 (0.16)0.00--−0.35 (0.45)0.10
ACCESS-IRRIG0.18 (0.17)−0.01−0.05 (0.06)0.05−0.44 (0.16) ***0. 14−0.43 (0.16) ***0.15−0.27 (0.20)0.110.23 (0.41)−0.07
OWNEROXEN−0.05 (0.12)0.00−0.07 (0.04) *−0.070.09(0.09)−0.030.05(0.10)−0.02−0.06 (0.12)0.02−0.02 (0.17)0.01
IRRIGLAND0.50 (0.21) **−0.02−0.17(0. 07) **−0.170.35 (0.18) **−0.110.53 (0.19) ***−0.18−0.19 (0.24)0.080.70 (0.28) **−0.20
LEASELAND0.03 (0.25)−0.00−0.05 (0.08)−0.050.15 (0.22)−0. 050.03 (0.22) 0.01−0.41 (0.32) *0.160.86 (0.39) **−0.25
RADIO0.32 (0.15) **−0.020.10 (0.05) **−0.100.25 (0.14) *−0.080.27 (0.15) *−0.09−0.08 (0.19)0.030.46 (0.27) **−0.13
MOBILEPHONE0.07 (0.09)−0.00−0.01 (0.03)−0.01−0.10 (0.08)0.03−0.09 (0.08)0.03−0.07 (0.10)0.030.10 (0.11)−0.03
WEALTH-POOR−0.23 (0.24)0.01−0.00 (0.09)−0.00−0.44 (0.23)−0.15−0.10(0.21)0.030.22 (0.31)−0.09−0.65 (0.56) ***0.14
WEALTH-BETTER−0.03 (0.21)0.020.01 (0.07)0. 01−0.05 (0.18)0.02−0.23 (0. 18)0.080.23 (0.23)0.09−0.88 (0.31)0.29
/cut10.0799 −0.0975 0.0844 −0.9864 3.4130 −0.6281
/cut20.7893 1.1158 1.1145 0.1202 5.3507 0.6158
/cut31.7848 1.8258 2.0669 1.0349 5.7003 1.3479
Log pseudolikel.−260.250 −192.737 −373.517 −363.225 −165.341 −157.241
Wald chi268.68 43.46 52.80 35.25 57.89 84.61
Pseudo R20.1272 0.0893 0.0637 0.0468 0.1364 0.1369
Number of obs.300 292 300 300 223 136
***, **, * stand for values statistically significant at 0.01, 0.05 and 0.1 levels, respectively, and b = dy/dx is for discrete change of dummy variable from 0 to 1; robust standard errors are in parenthesis.

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Figure 1. Map of the study area.
Figure 1. Map of the study area.
Sustainability 13 03447 g001
Table 1. Description of the study area.
Table 1. Description of the study area.
ParametersDistricts
FogeraNorth Mecha
Altitude (m a.s.l)1774–24101800–2500
Temperature in °C: range (mean) 12–28 (20)6–31 (18)
Annual rainfall in mm: range (mean) 1103–2400 (1216)1500–2200 (1700)
Total area (ha)117,414159,027
Cultivated crops in descending order of dominanceTeff, finger millet, maize, rice and noug (Guizatia abyssinica)Maize, finger millet, teff, barley, pulses and oil crops
Dominant livestockCattle, sheep, goatsCattle, sheep, goats
Cultivated land (ha)51,47272,178
Irrigated land (ha)13,8007200
Forest and bushland (ha)21906339
Source: [32,33]
Table 2. Distribution of sample size.
Table 2. Distribution of sample size.
Name of the DistrictsVillage NameTotal HHs (N)Sample Size (n)Number of Farmers and Extension Agents in Focus Group Discussions (FGDs)
FarmersExtension Agents
FogeraBebekes176522
Kuhar Michael133716
Woretazureya197924
TihuanZakena144518
Meneguzer1665201610
Kuhar Abo78410
KidestHana217526
Abunakokit117114
Total12,321150
North MechaAmbo Mesk138620
Kudmi188627
Anguti98314
Amarit6069
HuletTeleta119617
Bachima183026
Brakat1284181313
Kurt Bahir132019
Total10,491150
Grand total22,8123002923
Table 3. Characteristics of respondents.
Table 3. Characteristics of respondents.
Continuous VariablesMean (Std. Dev)
Age of farmer42.9 (±10.4)
Farming experience of the head24.1 (±10.4)
Economically active family members3.3 (±1.6)
Dependent family members2.3 (±1.4)
Average journey time (on foot) for farmers to their nearest extension agent25.6 (±18.9)
Days of agricultural training per year3.5 (±3.9)
Field days per year1.1 (±1.3)
Average number of oxen per household2.2 (±0.9)
Self-owned irrigated land0.3(±0.4)
Cultivated leased land0.2 (±0.3)
Ownership of radio0.4 (±0.5)
Ownership of mobile phone1.3 (±1.0)
Note: Number of observation is 300.
Table 4. Summary for categorical variables.
Table 4. Summary for categorical variables.
Dummy and Categorical VariablesResponsesFrequencyPercentage
SexMale28695
Female145
Literacy Illiterate9833
Literate (just read and write)11338
Primary school7726
Secondary school114
Engagement in non-farm activitiesNo24381
Yes5719
Access to creditNo18461
Yes11639
Membership to an IddirNo3913
Yes26187
Membership to a MahiberNo8027
Yes22073
Membership to a cooperativeNo7726
Yes22374
Access to irrigationNo8829
Yes21271
Income status of householdPoor households3813
Middle-income households20067
Better-off households6221
Table 5. Distribution of farmers across information sources.
Table 5. Distribution of farmers across information sources.
Information SourcesLevelFrequencyPercent
Extension agentsVery weak134
Weak269
Strong7625
Very strong18562
The district office of agricultureVery weak21471
Weak6522
Strong103
Very strong31
1 to 5 farmers’ groupsVery weak7726
Weak10635
Strong7926
Very strong3813
Development groupsVery weak9130
Weak11940
Strong6421
Very strong269
Multi-purpose cooperativesVery weak11639
Weak9833
Strong52
Very strong41
Water users’ associationsVery weak3512
Weak5117
Strong269
Very strong248
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Gebremariam, Y.A.; Dessein, J.; Wondimagegnhu, B.A.; Breusers, M.; Lenaerts, L.; Adgo, E.; Ayalew, Z.; Minale, A.S.; Nyssen, J. Determinants of Farmers’ Level of Interaction with Agricultural Extension Agencies in Northwest Ethiopia. Sustainability 2021, 13, 3447. https://doi.org/10.3390/su13063447

AMA Style

Gebremariam YA, Dessein J, Wondimagegnhu BA, Breusers M, Lenaerts L, Adgo E, Ayalew Z, Minale AS, Nyssen J. Determinants of Farmers’ Level of Interaction with Agricultural Extension Agencies in Northwest Ethiopia. Sustainability. 2021; 13(6):3447. https://doi.org/10.3390/su13063447

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Gebremariam, Yemane Asmelash, Joost Dessein, Beneberu Assefa Wondimagegnhu, Mark Breusers, Lutgart Lenaerts, Enyew Adgo, Zemen Ayalew, Amare Sewenet Minale, and Jan Nyssen. 2021. "Determinants of Farmers’ Level of Interaction with Agricultural Extension Agencies in Northwest Ethiopia" Sustainability 13, no. 6: 3447. https://doi.org/10.3390/su13063447

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