Skip to main content

Perceptions of livestock value chain actors (VCAs) on the risk of acquiring zoonotic diseases from their livestock in the central dry zone of Myanmar



The Central Dry Zone (CDZ) is one of the most important livestock production areas of Myanmar. However, there is an eminent lack of information on the attitudes and traditional beliefs of local farmers and livestock supply chain actors in CDZ of Myanmar on the public health implications. A modified data collection instrument of the Health Belief model was developed to investigate attitudes, beliefs and barriers to the application of recommended zoonotic disease prevention.

Study design

Cross-sectional study.


Data analyses were conducted considering a two-phase multilevel mixed effect binomial generalized linear models modelling approach.


The availability of information about zoonosis to supply chain actors influenced their confidence to implement preventive actions (OR = 1.5, p = 0.045 for cattle diseases; OR = 1.5, p = 0.022 for village chicken diseases). Supply chain actors were more likely aware of zoonosis transmitted by cattle compared to livestock farmers (OR = 0.3, p = 0.005 for cattle farmers), while people not rearing or trading small ruminants and/or poultry were less likely to be aware of the zoonotic risk associated with these animals (p < 0.005). Information on zoonosis transmitted from small ruminants was mainly promoted through farmers (p = 0.032), while information on zoonotic diseases that can be obtained from chickens was disseminated through farmers, local authorities and the media. Nevertheless, appropriate hand hygiene measures (i.e. cleaning of hands after touching, cutting, cooking meat) (OR = 7.7, p < 0.001 for zoonotic small ruminant diseases; OR = 1.6, p = 0.073 for zoonotic village chicken diseases) and treating of sick animals (OR = 7.3, p < 0.001 for small ruminant zoonotic diseases; OR = 2.2, p = 0.031 for village chicken zoonotic diseases) increased the confidence of small ruminant and village chicken owners to prevent these zoonotic infections.


The findings from this study indicate that while gender and the availability of information on zoonotic risks play an important role on the perceived threat of zoonoses, the practice of prevention methods influenced the confidence of value chain actors (VCAs) on zoonoses prevention.

Peer Review reports


Approximately 60% of all human infectious diseases originate from animals [1,2,3]. Zoonotic diseases such as anthrax, brucellosis, rabies, Japanese encephalitis, Q fever, Trichinella spp., tuberculosis, salmonellosis and avian influenza are significant threats to global population by affecting general population health, food security, food safety, economic and social development [4].

Zoonotic infection has been threatening the world population with wide spread geographical distribution. Due to its negative impact, zoonoses remain a public health challenge in the regions with limited resources [5]. The population of Myanmar has experienced a number of zoonotic disease outbreaks including anthrax [6,7,8], brucellosis [9, 10], highly pathogenic avian influenza (HPAI) and avian salmonellosis [9, 10]. As in many developing nations with limited veterinary services and poor health management, zoonotic parasitic infections [11, 12] including ascariasis, coccidiosis, fascioliasis, oesophagostomiasis, haemonchus infection, strongyloid nematode infection, have been reported in Myanmar [9, 10, 12]. These reports reflect the potential for zoonoses sharing between animals and humans within the region, and it could be the major threat to local farmers and livestock supply chain actors, who work closely with animals. However, the knowledge and perception of local farmers and supply chain actors on the risk of zoonotic diseases has not been widely observed.

A number of factors promoting human-animal interactions and triggering the introduction of zoonoses includes social and traditional behaviours (e.g. food habit, lack of adequate health care, and farming practice, living close to animals), demographic factors (e.g. sex, age, experience), environmental factors (e.g. global climate changes), pathogenic factors (e.g. genetic changes in pathogens) [13,14,15,16,17] and management factors (e.g. poor sanitary regulations, poor health management and inadequate veterinary services) [18,19,20,21,22]. Furthermore, a lack of knowledge on disease prevention methods, poor biosecurity practices and diseases dynamics are a matter of concern to developing countries [5, 23]. Therefore, it is crucial to raise the awareness of zoonotic threats, and thereby promote the self-efficacy of farmers and supply chain actors (SCAs) on zoonotic disease prevention (i.e. ability to prevent the zoonotic diseases being transmitted from livestock species to humans). Additionally, animal movement has been notorious for being one of the important factors favouring the spread of both livestock and zoonotic diseases [24, 25] which may further lead to cause public health problems. This raises our interest in exploring the perception of stakeholders (i.e. farmers and supply chain actors) on zoonoses and their prevention practices. The communication and knowledge sharing among different levels of stakeholders in trade routes might promote the accessibility to zoonoses information and this might compound awareness of zoonoses threats.

To improve the control of zoonoses by livestock value chain actors (VCAs) or stakeholders in the CDZ, we need to understand the limitations and opportunities for improving the attitude and practice of these stakeholders relating to the threat of zoonoses. The Health Belief model was firstly introduced to the health educational research in the 1950s by social psychologists Hochbaum, Rosenstock, and Kegels, who worked with the U.S. Public Health Service [26, 27] to look at the relationship between human cognitive behaviour, and practice of health preventive measures. It has been widely used among health psychology researchers. The Health Belief framework has been successfully used in determination of the psychological influence on taking preventive action in many human health researches [28,29,30]. However, the use of the Health Belief framework for disease prevention practice has not been widely seen in veterinary medicine.

The aim of this study is to assess the zoonoses belief and practice among selected livestock value chain actors (VCAs) in the Central Dry Zone (CDZ) of Myanmar in the CDZ. This will help to support the development of strategies to overcome constraints on zoonoses control and promoting the health status of VCAs in the CDZ of Myanmar under the one-health paradigm.


Study design

A cross-sectional questionnaire survey was conducted among small-scale farming households owning different livestock species in two administrative areas (townships), Myingyan and Meikhtila, in the CDZ of Myanmar. These two CDZ townships were key research sites for a larger livestock project (DAHAT PAN project), funded by the Australian Centre for International Agriculture Research (ACIAR), and been previously identified as representative of livestock production systems and practices performed throughout the wider CDZ [31].

Sample size calculation and selection of sampling units


For the selection of farmers, a two-stage sampling approach was used to identify villages and households in the survey, with primary sampling units (PSU) being villages and secondary sampling units (SSU) being households. Sample size calculation was done by using Epi Tools [32]. The proportion of farm income generated from livestock production was used as the outcome of interest for the sample size calculations, conservatively assumed to be 50%, with within- and between-cluster variances of ±10 and ± 2.5%, respectively. The low between-cluster variance reflected very similar ecological conditions resulting in similar income generation from livestock production across villages in the CDZ. Assuming that the proportion of farmers in a village deriving at least half of their income from livestock production was 0.7, a population of 400 villages per township and approximately 200 households per village (based on livestock statistics data compiled (LBVD 2014)), a precision of the estimate of ±5% with a 95% confidence interval, the estimated sample size was 20 households per village and 38 villages across the two townships. Lists of villages were provided by Livestock Breeding and Veterinary Department (LBVD), Myanmar. In order to select villages, a probability-proportional-to-size sampling strategy was used (, giving larger villages a greater probability of being selected. A total of 40 villages were selected in each township (20 villages to be selected and 20 potential replacement villages). Within selected villages, lists of households for each of the three major livestock species (cattle, small ruminants and village chickens) were provided by village headmen. Selected villages were replaced if they had insufficient households with the three livestock species of interest or if farmers were not willing to participate in the study. Overall, seven households from each livestock ownership list were randomly selected, providing a total of 21 households per village. Sample size calculations and random sampling were performed using the Survey Toolbox modules Sample size for 2-stage prevalence survey, Random sampling from a sampling frame ( and Random sampling of animals, respectively ( A total of 20 cattle farmers, 45 small ruminant farmers, and 54 village chicken farmers refused to participate in the survey and replacement households were randomly selected from the sampling frame. According to the calculations, we collected data from 21 livestock household in each of 40 villages, which lead to collect 280 households per species. Due of the overlapping among the different livestock ownership households, the data were collected from 328 cattle raising households, 303 small-ruminant raising households, and 327 village chicken raising households.

Supply chain actors

Stakeholders involved in livestock marketing network were identified using various approaches: a) they were identified by farmers in the household survey by specifying the trader’s phone number or/and living locations, b) they were identified on livestock markets and c) they were identified by asking interviewed supply chain actors about other supply chain actors they are knowing. The following marking locations were visited: two cattle markets, three bazaars, 10 village markets and 28 households where traders and middlemen were trading. Stakeholders involved in livestock marketing network were classified as follows:

  • Middlemen: These are people involved in the trading network, who buy livestock (i.e. cattle or small ruminants or village chickens) from the farmers and sell them to traders or main collectors.

  • Branch collectors: These are people involved in the trading network, who purchase livestock in the villages with the money provided to them by the main collector/traders. The branch collectors are employees of the main collectors.

  • Main collector/Traders: These are people involved in the trading network, who buy the livestock from the middlemen or who employ the branch collectors. This group of people keep and trade a large number of animals and invest a large amount of money to set up the trading hubs.

  • Hawkers: These people are selling goods, typically advertising them by shouting. They sell livestock products such as meat (not live animals), vegetables and food in the markets or in villages, to which they travel by motorbike or bicycle.

  • Slaughterman: The people who hold license for slaughtering animals and also own abattoir. They usually collect livestock for slaughter from farmers, middlemen, branch collectors, and main collectors.

Data were collected from the different stakeholder groups involved in the livestock marketing network (i.e. farmers, hawkers, middlemen, branch collectors, and to describe the cross-species marketing network originating from small-scale livestock households in villages of the CDZ of Myanmar. Data collection were conducted over 1–2 days in each market location. Data were collected from all the main livestock supply chain actors (especially for small ruminants and village chickens) identified by farmers, livestock market managers, local veterinary authorities and members of local livestock federations whereas convenient sampling was undertaken with other supply chain actors (i.e. hawkers, middlemen, branch collector) in that locality. Interviews were conducted with a total of 31 middlemen, 19 traders, 11 hawkers, 1 cattle market managers, and 1 slaughterman. In data analyses, all levels of people mainly involved in trading including traders, middlemen, branch collectors, hawkers, and slaughtermen were categorised into one group, named “supply chain actors”. In this study, we named all the levels of stakeholders including both “farmers” and “supply chain actors” as “value chain actors (VCAs)”. The questions in the questionnaire were constructed by means of Health Belief modelling framework (Fig. 1).

Fig. 1
figure 1

Data collection to understand the factors affecting the zoonoses control by VCAs

Data collection

Questionnaire survey

Questionnaires were developed in the English language. The questionnaire contained the following sections: demographic information, and perceptions on the impact of animal production on human health, and public health implications. The questions in the questionnaire were constructed by means of Health Belief modelling framework (Table 1).

Table 1 Health Belief Model on the impact of rearing different types of animals on human health

According to the framework, data were collected on demographic information, livestock trade information, perception of farmers on risk of zoonoses from livestock species, the availability of information on risk of zoonoses, preventive actions, main barriers to disease prevention, and the level of confidence on zoonoses control (Fig. 1). Pilot testing of the questionnaire was conducted in three households within two villages in Meikhtila Township. The selection of these villages was conducted by analysing the score on wealth and development (1 = very poor, 2 = poor, 3 = moderate, 4 = good, 5 = very good). Scoring of the villages in Meikhtila Township was conducted by seven members of the local authority, three animal health workers and two junior scientists. Based on this ranking, one village with the highest score and one village with lowest score were chosen. In each village, three households with cattle production, sheep or goat production, and village chicken production, were surveyed. From the trading survey, the pilot test was conducted with three local traders in Bago region. After the pilot testing, a total number of six questions were modified. Questions on attitude, and practices to prevent transmissible zoonoses from livestock were adjusted and modified to be more relevant to the local conditions and improved to ensure that interviewees better understood the questions asked. The open-ended question for both farmers and supply chain actors (SCAs) were used to explore their perception and disease prevention practice without any clue. The perceptions and disease prevention practices described in this research were based on the report of VCAs.

After the questionnaire was finalized, a survey team was organized by seven enumerators. Enumerators were two students from the University of Yezin, four staff from LBVD and the author of this paper. Team members were trained in interviewing techniques and they familiarized themselves with the questionnaire before the survey commenced. Questionnaire interview was conducted with both supply chain actors groups and farmer groups. The duration of each interview was approximately 20 minutes.

Data analysis framework

Conceptual framework for the analysis

We adapted the Health Belief Model (HBM) to collected information on the health-belief components, such as perceived threat, perceived severity, perceived benefit, perceived barrier, cue to action and self-efficacy of farmers and supply chain actors towards the control of zoonotic diseases [33]. Our analyses were conducted in two phases: firstly, to understand the factors affecting any perceived threat and secondly, to understand the factors affecting self-efficacy of farmers on zoonoses control across different livestock species. To fulfil these objectives, we developed two interlinked models, one to model perceived threats of zoonoses and another to model self-efficacy (Fig. 2). In the first model, we assumed that awareness of potential zoonotic risk from livestock species (i.e. perceived threat) to be influenced by modifying factors (i.e. age, gender, experience in livestock rearing/trading, livestock trading density, type of career), information availability (i.e. cue to action) and awareness of VCAs on severity of transmissible zoonotic disease from livestock. Furthermore, in the second model, we assumed that self-efficacy (i.e. confidence in disease prevention) was influenced by awareness of the potential zoonotic risk from livestock species, disease prevention practices and barriers to practising disease prevention. In this study, we observed the disease prevention practice that could be effectively prevent the disease transmission from animals (including meat/carcass) to human and also ask them how much they are confidence in disease prevention by practicing these measures. In addition, we also assessed the influence of unidentified factors from Model 1 on self-efficacy by taking into account the residuals from the first model (Fig. 2).

Fig. 2
figure 2

Causal diagram for health belief modelling framework on perception of zoonotic diseases by value chain actors (VCAs)

Descriptive statistical analysis

The data were analysed by cross-tabulation and descriptive analysis. Confidence intervals, standard errors, proportion and p-value were provided. Even though the outcome variables (i.e. perceived zoonoses threat and self-efficacy) were originally categorized into three: “Yes”, “No” and “Unsure”, the final outcome was categorised into only two categories which are “Yes” and “No”, with “No” being the combination of the two categories “No” and “Unsure”.

Social network analysis of livestock movements

Firstly, data on livestock trade connectivity between VCAs (i.e. farmers and supply chain actors) and locations of trade was collected from a total of 676 respondents. For the data analysis, two separated 2-mode networks each, for farmers-location network and supply chain actors-location network, were created by using social network analysis (SNA) to visualize the links and relationships (ties) between VCAs (nodes) of interest [34, 35]. Graph theory in SNA was used to estimate the connectivity between trading locations and each VCAs [36]. Second, to understand the livestock market chain via the VCAs in the CDZ of Myanmar, we created the 1-mode location-location network by identifying the network of trading location via VCAs.

In this study, we hypothesized that the higher connectivity in the livestock trade may contribute to information flow on zoonoses from different sources which in turn would lead to promote more awareness of VCAs on zoonoses threats. For the analysis, k-core of VCAs in livestock trading network were used as independent variables to examine the impact of connectivity on perception and awareness of VCAs on zoonoses risk and disease prevention practice. In addition, the trading locations that connected to highly connected subgroup trading locations were also identified in this study. K-core of location nodes were investigated to understand the location specific information in trading. The value of k-core in this study explained that the quantity of networks of each node in the subgroup is adjacent to the other nodes in the subgroup, thereby identifying the most influential nodes [37, 38]. The value of k-core in this study described the quantity of network of nodes (VCAs) adjacent to (i.e. traded with) each node (each VCAs) in livestock trading. Furthermore, livestock trading network mapping was also developed by using social network information from geographical livestock trading network connectivity. The software Ucinet 6 and Netdraw were used in all analyses.

Two stages modelling approach

Two stages multilevel mixed-effects generalized linear model was developed to identify factors associated with two dependent variables and predictors based on hypothesized causal diagram (Fig. 2). In the first stage, “perceived threat of zoonoses” was set as dependent variables and factors associated with perceived threat of zoonoses was identified. In the second stage, factors associated with the confidence in ability of VCAs to prevent zoonotic disease transmission from their animals were observed. For second stage, we used the residuals extracted from the first model (i.e. perceived threat model) as a fixed effect for association with self-efficacy for prevention of the disease. To identify the missing effect of factors not included in our model, we used the residuals extracted from the first model, which represented the factors not included in the model. Using the residuals from the first model allowed us to identify whether factors not included in the first model (i.e. residual) showed significant effect on self-efficacy [39].

Modelling perceived threat of zoonoses

In the first stage, multilevel mixed-effects generalized linear model was developed to identify factors associated with perceived threat of zoonoses, i.e. the knowledge of farmers on the risk and the threat of zoonoses transmitted from livestock species. Initially, we estimated the intraclass correlation coefficient (ICC) to identify whether the clustering effect of village needs to be considered for further analyses. Theoretically, ICC should be the value of > 0.05 for representing the individuals within the groups resembling each other. From the results from ICC, the perceived threat of cattle, poultry and self-efficacy in prevention of disease transmitted from cattle and small ruminants was greater than 0.05. Even though the rest of the dependent variables for this study (i.e. perceived threat of small ruminants, self-efficacy on prevention of diseases transmitted through poultry) were less than 0.05, we account villages as a random affect to be constant across all models. In the mixed linear model, response variables were fixed as family ‘binomial’ and set ‘logit’ as link function. The perceived threat was set as the dependent variable and the factors such as demographic information (e.g. age, gender, experience), k-core of livestock trading (see estimation procedures below), perceived severity, cue to action and village size were set as independent variables by accounting the random effect of village in the data analysis.

Modelling self-efficacy for zoonotic disease prevention

In the second stage, multilevel mixed-effects generalized linear modelling approach was conducted to identify the factors associated with the confidence in ability of VCAs to prevent zoonotic disease transmission from their animals. In the mixed linear model, response variables were fixed as family ‘binomial’ and set ‘logit’ as link function. The self-efficacy was set as dependent variables and the factors such as preventive measures, perceived barriers and residuals from first models were set as independent variables by accounting the random effect of village in the data analysis (Fig. 2).

The data was entered into a Microsoft Excel 2013 spreadsheet. Using Stata 14.0 (Stata Statistical Software, College Station, Stata Corporation, 2015), we used the survey-analysis approaches accounting for sampling weights, variance estimation (VCE), strata set up clustering effect (“Townships” as strata for primary sampling units PSUs (i.e. villages) and “Villages” as strata for secondary sampling units SSUs (i.e. households) [40,41,42,43].


Demographic information of VCAs

The questionnaire interview was conducted to a total of 613 farmers and 63 supply chain actors in the study areas of CDZ. Of all the respondents, the proportion of female and male was not much different in farmer groups while the proportion of gender seemed to be quite different in supply chain actor group (Chi-square = 16.8, p < 0.001) (Table 2) with the median age of 46. A similar situation was also seen between farmer groups and supply chain actors groups (p < 0.05) in duration of rearing/trading cattle, goat, village chickens and type of livestock species reared or traded (Table 2). More than half of the cattle and village chicken farmers had more than 5-years experience of rearing while the majority of small ruminant farmers had less than 5-years experience. The majority of the supply chain actors across all different livestock species had more than 5-years experience. For the ownership groups of farmers, the proportion of farmers across all different groups was quite parallel. The majority of supply chain actors in this study practised village chicken trading (45.2% of total supply chain actors in this study) followed by cattle trading (29%), small ruminant trading (23%). Interestingly, trading small ruminants along with village chickens by a small proportion of supply chain actors (3.2%) is also noted. Regarding the interconnection in trading of two different groups (i.e. farmers and supply chain actors), the highly significance between the two groups was noted (Chi-square = 336.3, p < 0.001) (Table 2).

Table 2 Characteristics of livestock stakeholders (farmers and supply chain actors) in the CDZ of Myanmar (*p < 0.05; **p < 0.01; **p < 0.001)

Social network of VCAs on livestock trading

The K-core of the livestock farmers ranged from 0 to 2 whereas the trading connectivity of supply chain actors (K-core) was ranging from 1 to 3. Our result also showed that the higher K-core was seen in the livestock supply chain actors whereas the majority of farmers had K-core of ‘zero’ which means they do not belong to a highly connected subgroup. The network showing the connectivity between farmers and trading sites is highly fragmented compared to supply chain actors. It is interesting to see that the social networking link among farmers comprised of many components. The largest giant weak component (i.e. the largest component/cluster in which each node is connected to the component by at least one direction, which mean each VCA is connected to the location by trade-in or trade-out but not both) included 201 farmer nodes and 29 location nodes, the second largest components included 72 farmer nodes and 11 location nodes, and many small components (1–22 nodes in each components). However, for the supply chain actors social network connectivity, the supply chain actors seem to practise common trading location by finding only one giant weak component composed of 63 supply chain actor nodes and 220 location nodes in total from our results (Figs. 3 and 4).

Fig. 3
figure 3

Visual social networking of livestock trading among value chain actors (i.e. farmers and supply chain actors) and the trading sites

Fig. 4
figure 4

Distribution of K core for the VCAs of livestock trading in the CDZ of Myanmar indicating CTL = cattle; SR = Small ruminant; CHK = village chicken

Our study highlighted that livestock trade is practised not only within townships of the study areas but also outside of the study townships (Fig. 5). Among the total of 355 trading sites included in this study, a total of 59 trading sites (i.e. towns and villages) subgroup belonged to the highly connected subgroup (k-core = 4–5) (Table 3).

Fig. 5
figure 5

Geographical distributions of trading networks of different livestock species (cattle, small ruminant and village chicken) in the CDZ of Myanmar

Table 3 The list of locations (i.e. villages/towns) belonging to the highest k-core (i.e. k-core = 4–5) in livestock trading network

Perception of VCAs on zoonoses

Table 4 presents the results obtained from the analysis of the perceptions of the farmers and supply chain actors on risks from animal species for zoonotic disease transmission. From the data, it was seen that a greater proportion of supply chain actors thought cattle posed a moderate or high zoonotic disease risk than farmers, with the majority of the latter believing that cattle posed no zoonotic risk (p < 0.05). In addition to this, we found a significant difference between supply chain actors and farmers in the perception of level of zoonoses severity risk across different livestock species (p < 0.001).

Table 4 Health belief criteria of VCAs on the zoonotic diseases (*p < 0.05; **p < 0.01; **p < 0.001, a = % of a total survey population)

Overall, VCAs who responded for preventive measures highlighted practising a number of preventive measures including burying the suddenly dead animals, not eating contaminated meat, treating their own sick animals and keeping their animals away from humans. On the other hand, it was interesting to see that the majority of SCAs (> 85%) reported that they did not practise any preventive measures.

The majority of the VCAs [farmers (82.9, 95%CI: 79.7–85.7) and supply chain actors (98.4, 95%CI: 89.1–99.8)] mentioned that they had no barriers to implement preventive measures. However, respondents described a number of barriers to practising disease prevention measures which included financial constraint (i.e. no funds to conduct prevention practices, not able to avoid eating infected carcass with low price due to poverty), limited knowledge (i.e. no knowledge about zoonotic diseases and how to prevent the disease being transmitted from livestock to humans) and limited resources (i.e. no separate shelter to keep livestock, limited veterinary service to treat sick animal, limited resources such as disinfection, medicine, feed containers for sanitation and poor biosecurity practices). Limited knowledge of preventive measures stood out as the most common problem across VCAs: farmers (9.0, 95%CI: 6.9–11.5) and supply chain actors (1.6, 95%CI: 0.2–10.9). Interestingly, it was seen that the barriers which occurred across different cattle VCAs were significantly different (Chi-square = 10.5; p < 0.05) while there is no difference across different stakeholder groups of other livestock species (Table 4).

Respondents from this study reported a number of sources of information for the awareness of the risk of zoonoses and prevention measures which are the farmers, media and local authorities. 54, 73 and 74% of cattle, small ruminant and village chicken farmers and 89% each of cattle, small ruminant and village chicken supply chain actors, respectively, reported they had obtained no information about zoonotic disease prevention from any source. On the other hand, it was noted that the main sources for public awareness of zoonoses risk were local authorities and farmers across different livestock species groups while the role of the media in public awareness was low (< 5%). However, the availability of knowledge on zoonoses was different between farmers and supply chain actors indicating from the data that showed that a higher proportion of farmers reported the availability of knowledge than trader groups (p < 0.001). In addition, our findings indicate that the source of information for zoonoses prevention was significantly different across livestock stakeholders (p < 0.001) (Table 4).

Regarding the disease prevention practices, the majority of farmers practiced the “not eating the carcass of infected cattle” (45.7% (41.8–49.7)) while the practice of treating sick animals seem to be fairly distributed in the prevention of zoonotic diseases from cattle, small ruminant and village chicken (Table 5). SCAs did not aware of the effectiveness of prevention or control methods for specific livestock diseases and they reported that “the way they practiced could prevent all the zoonotic diseases”. Among these, the proportion of SCAs practicing hand hygiene was fairly highly (9.5, 95%CI: 4.3–20.0)) compared to other practices such as bury dead animals, quarantine the sick animals, and cooking the meat well (4.8, 95%CI: 1.5–14.1) (Table 6).

Table 5 Zoonotic disease prevention measures practiced by farmers raising different livestock species (N = 613)
Table 6 Zoonotic disease prevention measures practiced by supply chain actors (N = 63)

Factors affecting the perceived threat on zoonoses by livestock VCAs

In our first model we examined factors including demographic information, perceived severity, cue to action, associated with the perceived zoonoses threat transmitted from three livestock species (i.e. cattle, small ruminants and poultry) (Table 7). After initial descriptive analysis the variable Perceived Severity was excluded from further analysis due to the fact that there was no variation in responses between VCAs. Perceived threat differed between the gender of VCAs, with males 1.5 times more likely to be aware of the threat of zoonoses transmitted from cattle and poultry than females (p < 0.05). Furthermore, the type of VCAs was also associated with the perceived threat of zoonoses by different livestock species. More supply chain actors than farmers were aware of zoonoses transmitted by cattle (p < 0.05) while farmers not working with small ruminants and poultry were less likely to be aware of the risk of zoonoses from these animals than farmers working with these livestock species. Our results also indicate that the availability of information on zoonoses was associated with perceived threat of zoonoses. Farmers were the major source that promoted the awareness of VCAs on zoonoses transmitted from small ruminants (OR = 2.2, p < 0.05). However, the awareness of VCAs on zoonoses transmitted from poultry was promoted by three different sources of information (i.e. media: OR = 5.4, p < 0.01; other farmers: OR = 2.0, p < 0.05; local authorities: OR = 2.5, p < 0.01) (Table 7).

Table 7 Final multilevel mixed effect generalized binomial linear modelling with a random effect of location (villages) to understand the factors affecting perceived threat of VCAs on zoonotic diseases transmission

Factors affecting self-efficacy on zoonoses by livestock VCAs

Our second model examined the factors influencing the self-efficacy of farmers for zoonoses prevention across different livestock species, including preventive practices for zoonoses transmitted from livestock (i.e. bury dead animals, not eating the carcass of infected animals, hand hygiene, treating sick animal, quarantine the sick animal), perceived barriers (i.e. financial constraints, limited knowledge, limited resources), and residual from the first model (i.e. the unidentified factors on perceived threat). From our model, the VCAs who would not eat meat from sick cattle were less likely to report that they were confidence managing zoonotic disease risk. Amongst VCAs working with small ruminants, other prevention practices such as zoonoses prevention practice of proper hand hygiene (i.e. cleansing the hand properly after touching, cutting, cooking the meat) and treating the sick animal were positively associated with confidence in prevention of zoonoses transmission (p < 0.05). The residuals from the first models seems to be highly significant among different livestock species which showed that the unidentified variables in the first model seems to affect the confidence in ability of zoonosis prevention of VCAs on zoonotic diseases transmission. Similarly, reported prevention practice of treating sick chickens was also positively associated with the self-efficacy of VCAs on prevention. Similar to self-efficacy on preventing transmissible zoonoses from cattle, limited knowledge was observed as the main factor negatively associated with the self-efficacy of preventing transmissible zoonoses from small ruminants. However, the other factors such as perceived barriers were not significantly different in self-efficacy on prevention of zoonoses transmitted from poultry (Table 8).

Table 8 Final multilevel mixed effect generalized binomial linear modelling with a random effect of location (villages) to understand the factors affecting confidence in ability of zoonosis prevention of VCAs on zoonotic diseases transmission


In this study we compared perceptions and practices between farmers and livestock supply chain actors in the CDZ with respect to zoonotic risks and investigated the factors associated with perceived threat and self-efficacy practices towards zoonotic risks from their livestock. The factors identified in this study can help support the development of disease prevention and health promotion strategies to enhance the health of farmers and supply chain actors under the One-Health paradigm in the CDZ of Myanmar.

Animal movement and trade has been highlighted as an important factor for disease spread [24, 25, 44, 45]. The interaction of farmers and supply chain actors through these livestock trade channels could potentially also contribute to the dissemination of information on disease prevention and control. Our results from the social network of livestock movement in the CDZ of Myanmar demonstrate that the livestock trading network in the CDZ is complex and different between stakeholders involved in the livestock trading network. Not surprisingly, our results indicate that the network of livestock movements was significantly more fragmented in the farmer group compared to the trader group. The majority of cattle and village chicken farmers had K-core = 0 which did not belong to the highly connected groups whereas the majority of small ruminant farmers (K-core = 1–2) and supply chain actors (K-core = 2–3) showed their contribution in highly connected groups of livestock trading. While supply chain actors of small ruminants also often traded village chicken, the connectivity of these supply chain actors was lower compared to supply chain actors who traded single species. This might be due to cattle farmers in CDZ raising cattle mainly for draught purpose (Chapter 4) and keeping cattle for longer compared to small ruminants. Even though the literature from Myanmar supporting this finding is not available, another possible reason might be the instability of market price, market demand, accessibility of market or traders, banning due to outbreak, and disease affecting livestock trading [9, 10, 46,47,48] Due to the high livestock density in CDZ, the livestock were widely traded from CDZ to other parts of the country and CDZ could be one of the potential areas for disease spread. Therefore, for the control of disease spread, promoting the awareness of the nodes (i.e. supply chain actors and locations) is of paramount importance for the control of regional zoonotic diseases spread through trading.

Previous studies indicated that social background of people (i.e. income, education, religion, race or ethnicity, region, and gender) influences beliefs and perception in many aspects [49,50,51]. Our results also highlight that social status and occupation are important determinants of the perceived threat of zoonosis for each livestock species. Similar to other studies from developing countries, our study also supports the idea of gender playing a considerable role in the awareness of zoonosis and the perception of risk for different livestock species [52,53,54] in that males were 1.5 times more likely to be aware of zoonotic threat than females (p < 0.05). The observed gender differences may be explained by difference in limiting factors for information access such as education and social status, and further studies are needed to investigate this in more detail. Since Asian countries have been loudly alerted by the threat of Highly Pathogenic Avian Influenza [55], the campaign on transmissible zoonoses from avian species seems to have successfully promoted the awareness of VCAs on the disease threat, with a greater proportion of farmers reporting a perceived disease threat from poultry than other livestock species examined in this study. However, the differences in threats perceived between different animal species was less consistent amongst supply chain actors, with a greater proportion perceiving threats from cattle or village poultry than from small ruminants. Another finding from our study highlighted that the VCAs not working with village chicken had less awareness of the zoonoses transmitted from poultry. This finding is consistent for farmers not raising small ruminant, who were less aware of the zoonosis transmitted from small ruminant. Except for cattle diseases, the type of career seems to influence the perception of zoonosis threat transmitted from cattle. Supply chain actors, regardless of the livestock species they were working with, were aware of zoonosis from cattle and poultry which may be due to public awareness campaign of veterinary authorities on anthrax and avian influenza (Personal communication with Dr. Kyaw Naing Oo and Dr. Win Myint Thein, Livestock Breeding and Veterinary Department). Other possible reasons might be gender, education, wealth, previous experience of diseases by the supply chain actors [53, 56, 57]. To explain in this case, a possible reason might be that VCAs gave more attention to the livestock species they were working with and tended to ignore the zoonotic diseases transmitted from other livestock species or the public awareness of zoonotic disease was not widely established to cover all livestock stakeholders regardless of the livestock species they are working with. The frequency of trading and communication with different stakeholders does not seem to promote VCAs’ awareness of the zoonosis risk transmitted from livestock. This might be another issue to consider which may lead to the spread of diseases by trading routes due to the lack of awareness of diseases and lack of disease prevention practices.

To investigate determinants of self-efficacy of VCAs on zoonoses prevention, we considered the contribution of perceived threat of risk from each of the species in our study, disease prevention methods and barriers. The results of our study have important implications for the development of future disease control strategies and health promotion policies. First, our findings suggested that factors unaccounted by the perceived threat model are associated with the self-efficacy of VCAs towards zoonotic disease risk from their livestock. While the role of gender showed a significant effect on the perceived threat, we lacked other social factor data to consider in this study. The possible confounding factors such as social status, education and wealth could possibly be related to gender [58, 59]. Second, it is not surprising that limited knowledge on prevention was reported as a significant constraint in reducing the VCAs’ confidence on disease prevention in this region. The high proportion of VCAs reporting lack of information available can explain this finding. Together, these findings highlight a need for the development and testing of local, national effective public awareness campaigns on zoonoses and prevention methods based on the nature of occupations, including campaigns targeting the provision of information on zoonosis risk, better farm/market biosecurity, prevention methods. In addition, the easily accessible public awareness systems (i.e. mobile/ web application, social media, zoonotic disease information hotline) should be designed. Third, our findings suggested even though public awareness on zoonoses seems to be poor due to limited availability of information in the study area which reflected the small proportion of study population practised basic zoonosis prevention methods. We hypothesized the high k-core (which means the highly connected and interact with different value chain actors) could have more awareness on the zoonoses since they travelled and interacted with different areas and different stakeholders. According to the non-significance results from our findings, we do aware that it would be urgently needed to raise the public awareness since the interaction and networking did not show significant impact on public awareness of zoonoses and disease control. What is interesting in the above results is that even though VCAs reported a number of prevention methods to prevent disease transmission from cattle, none of them seemed to significantly promote self-efficacy. Nevertheless, the prevention practice to prevent diseases transmitted from small ruminant and poultry seem to effectively promote the self-efficacy of VCAs.

A number of study limitations need to be considered to assist the interpretation of our findings. Firstly, these findings are limited by the use of cross-sectional design and are not able to identify the perception on zoonosis of the livestock stakeholders over time. Secondly, the sample was aimed to be representative of the different livestock stakeholders in the CDZ of Myanmar but for trader groups, the data collection was able to be conducted only by means of targeted and convenience sampling so that we might have missed some of the people and selection bias was unavoidable. Thirdly, even though structural models implementing causal path-like relationships of the Health Belief framework with at least four levels of perception or awareness in each component has been used for most of the Health Belief model studies [60], we used an adapted structural Health Belief framework with two levels of perception or awareness in each Health Belief component in our study. Fourth, this study was unable to identify the effect of social factors such as wealth, education and social status. Despite these shortcomings the current findings add to a growing body of literature on the perceptions of different stakeholders in the CDZ of Myanmar on zoonotic disease.

Availability of data and materials

The questionnaire and data-sets used and/or analysed during the current study available from the corresponding author on reasonable request.



Central Dry Zone


The University of Queensland


Foot and Mouth Disease


Newcastle Disease


Health Belief Model


Australian Center for International Agriculture Research


Livestock Breeding and Veterinary Department


Primary sampling units


Secondary sampling units


Variance estimation


Finite population correction




Interquartile rate


Mean value


Confident interval




Artificial insemination


  1. WHO. A brief guide to emerging infectious diseases and zoonoese. India: WHO regional office for Southeast Asia; 2014.

  2. WHO. Asia Pacific strategy for emerging diseases: 2010. Manila: WHO Regional Office for the Western Pacific; 2011.

  3. Taylor LH, Latham SM, Mark E. Risk factors for human disease emergence. Philos Transact Royal Soc B Biol Sci. 2001;356:983–9.

    Article  CAS  Google Scholar 

  4. OIE. OIE-Listed diseases, infections and infestations in force in 2016. 2016 [cited 2016 3 June]; Available from:

  5. Cáceres SB. Blame apportioning and the emergence of Zoonoses over the last 25 years blame apportioning and the emergence of Zoonoses. Transbound Emerg Dis. 2009;56:375–9.

    Article  Google Scholar 

  6. Kunanusont C, Limpakarnjanarat K, Foy H. Outbreak of anthrax in Thailand. Ann Trop Med Parasitol. 1990;84:507–12.

    Article  CAS  Google Scholar 

  7. Narayan SK, Sreelakshmi M, Sujatha S, Dutta TK. Anthrax meningoencephalitis--declining trends in an uncommon but catastrophic CNS infection in rural Tamil Nadu, South India. J Neurol Sci. 2009;281:41–5.

    Article  Google Scholar 

  8. Samad MA, Hoque ME. Anthrax in man and cattle in Bangladesh. J Trop Med Hyg. 1986;89:43–5.

    CAS  Google Scholar 

  9. Oo KN. Animal diseases detected in diagnostic activities in the year 2011. Myanmar Vet J. 2013:15.

  10. Oo KN. Disease diagnosis in the year 2013. Myanmar Vet J. 2014;16.

  11. Irwin PJ, Jefferies R. Arthropod-transmitted diseases of companion animals in Southeast Asia. Trends Parasitol. 2004;20:27–34.

    Article  Google Scholar 

  12. McLeod R. Economic impact of worm infections in small ruminants in South East Asia, India and Australia. Canberra: ACIAR; 2004.

    Google Scholar 

  13. Oaks SC Jr, Shope RE, Lederberg S, eds. Emerging infections: microbial threats to health in the United States. 1992.

  14. Wilson ME. Travel and the emergence of infectious diseases. Emerg Infect Dis. 1995;1:39.

    Article  CAS  Google Scholar 

  15. Ebel G, Spielman A. Emerging infections: origins, ecology, costs and prevention. Parasitol Today. 1998;14:134–5.

    Article  CAS  Google Scholar 

  16. Binder S, Levitt AM, Sacks JJ, Hughes JM. Emerging infectious diseases: public health issues for the 21st century. Science. 1999;284:1311–3.

    Article  CAS  Google Scholar 

  17. Desselberger U. Emerging and re-emerging infectious diseases. J Infect. 2000;40:3–15.

    Article  CAS  Google Scholar 

  18. Bellaver C, Bellaver I. Livestock production and quality of societies’ life in transition economies. Livest Prod Sci. 1999;59:125–35.

    Article  Google Scholar 

  19. Chawatama S, Mutisi C, Mupawaenda A. The socio-economic status of smallholder livestock production in Zimbabwe: a diagnostic study. Livest Res Rural Dev. 2005;17:988–1003.

    Google Scholar 

  20. Maass BL, Katunga Musale D, Chiuri WL, Gassner A, Peters M. Challenges and opportunities for smallholder livestock production in post-conflict south Kivu, eastern DR Congo. Trop Anim Health Prod. 2012;44:1221–32.

    Article  Google Scholar 

  21. Thomas D, Zerbini E, Rao PP, Vaidyanathan A. Increasing animal productivity on small mixed farms in South Asia: a systems perspective. Agric Syst. 2002;71:41–57.

    Article  Google Scholar 

  22. Komba EV, Komba EV, Mkupasi EM, Mbyuzi AO, Mshamu S, Luwumba D, Busagwe Z, Mzula A. Sanitary practices and occurrence of zoonotic conditions in cattle at slaughter in Morogoro Municipality, Tanzania: implications for public health. Tanzan J Health Res. 2012;14(2):131–8.

  23. Conan A, Goutard FL, Sorn S, Vong S. Biosecurity measures for backyard poultry in developing countries: a systematic review. BMC Vet Res. 2012;8:240.

    Article  Google Scholar 

  24. Fèvre EM, Bronsvoort BMC, Hamilton KA, Cleaveland S. Animal movements and the spread of infectious diseases. Trends Microbiol. 2006;14:125–31.

    Article  Google Scholar 

  25. Balkhy HH, Memish ZA. Rift Valley fever: an uninvited zoonosis in the Arabian peninsula. Int J Antimicrob Agents. 2003;21:153–7.

    Article  CAS  Google Scholar 

  26. Becker MH. The health belief model and personal health behavior. Health Educ Monogr. 1974;2:324–473.

    Article  Google Scholar 

  27. Maiman LA, Becker MH. The health belief model: origins and correlates in psychological theory. Health Educ Monogr. 1974;2:336–53.

    Article  Google Scholar 

  28. D'Souza C, Zyngier S, Robinson P, Schlotterlein M, Sullivan-Mort G. Health belief model: evaluating marketing promotion in a public vaccination program. J Nonprofit Public Sector Market. 2011;23:134–57.

    Article  Google Scholar 

  29. Montanaro EA, Bryan AD. Comparing theory-based condom interventions: health belief model versus theory of planned behavior. Health Psychol. 2014;33:1251–60.

    Article  Google Scholar 

  30. Dodel M, Mesch G. Cyber-victimization preventive behavior: a health belief model approach. Comput Hum Behav. 2017;68:359–67.

    Article  Google Scholar 

  31. ACIAR. Improving livelihoods of small-scale livestock producers in the central dry zone through research on animal production and health in Burma. Dennis, P.; 2014 [27 July 2014]; Available from:

  32. Sergeant E. Random sampling of animals. AusVet animal health services and Australian Biosecurity Cooperative Research Centre for emerging infectious disease; 2014; Available from:

    Google Scholar 

  33. Green EC, Murphy E. Health belief model. Wiley online Library; 2014 [cited 2017 24 August]; Available from:

  34. Dubé C, Ribble C, Kelton D, McNab B. Introduction to network analysis and its implications for animal disease modelling. Revue Scientifique et Technique-OIE. 2011;30:425.

    Article  Google Scholar 

  35. O’malley AJ, Marsden PV. The analysis of social networks. Health Serv Outcomes Res Methodol. 2008;8:222–69.

    Article  Google Scholar 

  36. Scott J. What is social network analysis? New York; London: Bloomsbury Academic; 2012.

    Book  Google Scholar 

  37. Kitsak M, Gallos L, Havlin S, et al. Identification of influential spreaders in complex networks. Nature Phys. 2010;6:888–93.

  38. Radicchi F, Castellano C, Cecconi F, Loreto V, Parisi D. Defining and identifying communities in networks. Proc Natl Acad Sci U S A. 2004;101:2658–63.

    Article  CAS  Google Scholar 

  39. Santos Nobre J, da Motta SJ. Residual analysis for linear mixed models. Biom J. 2007;49:863–75.

    Article  Google Scholar 

  40. Cochran WG. Sampling techniques 3rd. New York: Wiley; 1977.

    Google Scholar 

  41. Deaton A. The analysis of household surveys: a microeconometric approach to development policy: World Bank Publications; 1997.

    Book  Google Scholar 

  42. Nathan G, Holt D. The effect of survey design on regression analysis. J R Stat Soc Ser B Methodol. 1980;42:377–86.

    Google Scholar 

  43. Wolter K. In: Wolter KM, editor. Introduction to variance estimation. 2nd ed. New York: Springer Science & Business Media; 2007.

    Google Scholar 

  44. Robinson S, Everett M, Christley R. Recent network evolution increases the potential for large epidemics in the British cattle population. J R Soc Interface. 2007;4:669–74.

    Article  CAS  Google Scholar 

  45. Kao RR, Danon L, Green DM, Kiss IZ. Demographic structure and pathogen dynamics on the network of livestock movements in Great Britain. Proc R Soc Lond B Biol Sci. 2006;273:1999–2007.

    CAS  Google Scholar 

  46. McDermott J, Staal S, Freeman H, Herrero M, Van de Steeg J. Sustaining intensification of smallholder livestock systems in the tropics. Livest Sci. 2010;130:95–109.

    Article  Google Scholar 

  47. Musemwa L, Mushunje A, Chimonyo M, Fraser G, Mapiye C, Muchenje V. Nguni cattle marketing constraints and opportunities in the communal areas of South Africa: review. Afr J Agric Res. 2008;3:239–45.

    Google Scholar 

  48. Hurrissa B, Eshetu J. Challenges and opportunities of livestock marketing in Ethiopia. Proceedings of the 10th annual conference of the Ethiopian Society of Animal Production (ESAP). Addis Ababa; 2002.

  49. Rosenstock IM. The health belief model: explaining health behavior through expectancies. San Francisco: Jossey-Bass Publisher; 1990.

    Google Scholar 

  50. Rosenstock IM. The health belief model and preventive health behavior. Health Educ Monogr. 1974;2:354–86.

    Article  Google Scholar 

  51. Harrison JA, Mullen PD, Green LW. A meta-analysis of studies of the health belief model with adults. Health Educ Res. 1992;7:107–16.

    Article  CAS  Google Scholar 

  52. Hill WA, Petty GC, Erwin PC, Souza MJ. A survey of Tennessee veterinarian and physician attitudes, knowledge, and practices regarding zoonoses prevention among animal owners with HIV infection or AIDS. J Am Vet Med Assoc. 2012;240:1432–40.

    Article  Google Scholar 

  53. Macpherson CN. Human behaviour and the epidemiology of parasitic zoonoses. Int J Parasitol. 2005;35:1319–31.

    Article  Google Scholar 

  54. Bingham GM, Budke CM, Slater MR. Knowledge and perceptions of dog-associated zoonoses: Brazos County, Texas, USA. Preventive Vet Med. 2010;93:211–21.

    Article  Google Scholar 

  55. OIE. Old Classification of Diseases Notifiable to the OIE List A. 2018 [cited 2018 6 March]; Available from:

  56. Ministry of Health. Demographic and health survey program. Myanmar demographic and health survey 2015–2016. Nay Pyi Taw; 2017.

  57. OIE Weekly disease information 2018; Available from:

  58. Filmer D, Pritchett L. The effect of household wealth on educational attainment: evidence from 35 countries. Popul Dev Rev. 1999;25:85–120.

    Article  Google Scholar 

  59. King EM, Hill MA. Women's education in developing countries: barriers, benefits, and policies: World Bank Publications; 1997.

    Google Scholar 

  60. Valeeva N, van Asseldonk M, Backus G. Perceived risk and strategy efficacy as motivators of risk management strategy adoption to prevent animal diseases in pig farming. Prev Vet Med. 2011;102:284–95.

    Article  CAS  Google Scholar 

Download references


I would first like to thank to Dahat Pan Livestock project, which is funded by ACIAR for their support. I would like to give my gratitude to the researchers from LBVD who helped with the data collection.


The research was funded by Australian Center for International Agriculture Research (ACIAR).

Author information

Authors and Affiliations



Conception or design of the work: TTZW; JH; AC; R J. S M; KNO. Data collection: TTZW. Data analysis and interpretation: TTZW; JH. Drafting the article: TTZW. Critical revision of the article: JH; AC; R J.S. M; KNO. Final approval of the version to be published: TTZW; JH; AC; R J. S M; KNO. All authors read and approved the final manuscript.

Authors’ information

Tu Tu Zaw Win received her PhD in Veterinary Epidemiology at the University of Queensland in 2019. She undertook her first postdoctoral fellow at the Centre for Applied One Health Research and Policy Advices, City University of Hong Kong in 2021. Her research interests are zoonotic and livestock diseases, the role of social network in disease spread, dynamic of disease transmission, risk assessment, and estimating the impact of diseases.

Dr. Joerg Henning is a Senior Lecturer in Veterinary Epidemiology at the School of Veterinary Science. He has over 15 years of research experience in epidemiology and biostatistics with a focus on international animal health. As Senior Research Fellow in Veterinary Epidemiology, he was the main operational scientist in research projects in Myanmar, Vietnam and Indonesia. He also worked as a consultant for organisations such as the FAO, World Bank, ILRI and others. His research interests included zoonotic diseases, such as Highly Pathogenic Avian Influenza H5N1, infectious diseases of village chickens, farmers’ attitudes and behaviours, extension programs to improve livestock health and the spatial analysis of health, wildlife and production data.

Dr. Soares Magalhães comes to UQ with an extensive research experience in applying and developing epidemiological methods for a more rational implementation of control strategies for zoonotic infections. He holds qualifications in both veterinary and human public health and has experience in developed and developing country settings investigating the nexus between animal and human health. He has published extensively on the development of geographical models of infectious disease distribution, quantifying the role of spatial variation in socio-economic indicators, such as water, sanitation and hygiene in the spatial distribution of helminth infection of children and associated morbidity and on the role of poultry movement in the geographical spread of avian influenza in humans and animals.

Dr. Angus Campbell is a Senior Veterinary Consultant and Lecturer in Ruminant Medicine & Production with the Mackinnon Project, Faculty of Veterinary Science, University of Melbourne. Angus has been a veterinarian for 16 years, working in large animal practice in Victoria and overseas. He has worked as a consultant and veterinary researcher with the Mackinnon Project, the sheep and beef cattle farm consultancy service at the Melbourne University Veterinary School, for the last 10 years. In this role, he has worked with sheep and beef cattle farmers throughout Victoria in areas including herd & flock health, farm financial analysis, choice of enterprises, and animal nutrition. He is involved in research into herd and flock health on sheep, goat and cattle farms in south-eastern Australia, and consults internationally on agricultural development.

Dr. Kyaw Naing Oo is the director at Livestock Breeding and Veterinary Department, Ministry of Agriculture, Livestock and Irrigation, Myanmar. He has conducted a number of epidemiological studies including outbreak investigation and animal disease control programme [Porcine Respiratory and Reproductive Syndrome (PRRS), Foot and Mouth Disease (FMD), Anthrax, Infectious Bursal disease and Highly Pathogenic Avian Influenza disease outbreaks in Myanmar (PRRS, HPAI, FMD, Haemorrhagic Septicaemia, Rabies and Anthrax) in Myanmar. In addition, he is also working as National Project Coordinator for ACIAR Project which is focusing on the improvement of the livelihoods of small scale producer at Central Dry Zone.

Corresponding author

Correspondence to Tu Tu Zaw Win.

Ethics declarations

Ethics approval and consent to participate

Ethics approval for this research was provided by the University of Queensland, Australia, Human Research Ethics Committee (approval number #2014001425). For the application of ethics approval, the consent form prepared in English, and the questionnaire used in the study was also submitted. Even though the consent form was prepared in both English and Myanmar language, the informed consent of the study population was obtained verbally because the majority of local farmers preferred verbal communication and some of the participants were illiterate. With the agreement of participants (i.e., interviewees), the recording of the verbal consent was obtained during the study.

For the application process of approval from local authority, the ethical approval of the University of Queensland, Human Research Ethics Committee along with the research plan was submitted to Livestock Breeding and Veterinary Department, Ministry of Agriculture, Livestock and Irrigation, Myanmar for mutual understanding. This research was conducted by the approval of the local authority, i.e., Livestock Breeding and Veterinary Department, Ministry of Agriculture, Livestock and Irrigation; and additional local ethical approval of Human Ethic Committee of Myanmar was not necessary for this research.

This study was carried out in accordance with the appropriate guideline of research ethic committee. In this study, the questionnaire survey was conducted to collect the data and the personal details of the interviewees were kept as confidential. During the interview, the verbal consent of the interviewees for the participation was requested and no testing or sample collection from animals were conducted.

Consent for publication

Not applicable.

Competing interests

There are no competing interests.

Additional information

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Rights and permissions

Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit The Creative Commons Public Domain Dedication waiver ( applies to the data made available in this article, unless otherwise stated in a credit line to the data.

Reprints and permissions

About this article

Check for updates. Verify currency and authenticity via CrossMark

Cite this article

Win, T.T.Z., Campbell, A., Soares Magalhaes, R.J. et al. Perceptions of livestock value chain actors (VCAs) on the risk of acquiring zoonotic diseases from their livestock in the central dry zone of Myanmar. BMC Public Health 23, 196 (2023).

Download citation

  • Received:

  • Accepted:

  • Published:

  • DOI: