Preprint
Article

Rabies Realities: Navigating Barriers to Rabies Control in Rural Zambia—A Case Study of Manyinga and Mwansabombwe Districts

Submitted:

26 February 2024

Posted:

27 February 2024

Read the latest preprint version here

A peer-reviewed article of this preprint also exists.

Abstract
Rabies persists as a longstanding issue in Zambia, despite being preventable. The current control measures, including dog vaccination, population control, and movement restriction, guided by ‘The Control of Dogs Act Chapter 247 of the Laws of Zambia’, have not yielded the desired impact in many areas of the country including Manyinga and Mwansabombwe districts. These two districts continue to report low dog vaccination rates, unrestricted dog movements, and escalating cases of animal and human rabies, along with dog bites. Aligned with global aspirations to achieve zero human rabies cases by 2030, this study scrutinizes the determinants and obstacles hampering the execution of rabies control initiatives in Manyinga and Mwansabombwe. Spanning approximately 11 months, this cross-sectional study gathered pre- and post-vaccination data from 301 households in Manyinga and 100 households in Mwansabombwe. Questionnaires probed knowledge, attitudes, and practices related to rabies prevention and control. A transect survey, key informant interviews, and assessment of rabies vaccination and dog bite records complemented the data collection. Findings revealed that 88% of respondents from both districts possessed knowledge about rabies, confirming affected species and transmission. Moreover, 76.8% in Manyinga and 88.6% in Mwansabombwe were acquainted with rabies prevention and control methods. Concerning dog owners, 89% were aware of rabies, 66% understood its prevention and control, and the majority identified bites as the primary mode of transmission. Vaccination coverage stood at 64% in Manyinga and 21% in Mwansabombwe. Notably, education and occupation exhibited a positive significant association with rabies knowledge. In terms of dog bite cases, Manyinga recorded 538 dog bite cases from 2017 to June 2022 while Mwansabombwe recorded 81 dog bite and 23 jackal bite cases from 2021 to June 2022. The study underscores critical knowledge gaps in rural areas and emphasizes the imperative for enhanced public education and awareness programs, improved rabies surveillance, free mass vaccination campaigns, and community engagement to augment vaccination coverage and knowledge about rabies.
Keywords: 
Rabies; Prevention; control; vaccination; barriers; determinants
Subject: 
Public Health and Healthcare  -   Public Health and Health Services

1. Introduction

Rabies, a zoonotic viral malady, precipitates fatal encephalitis in humans and other mammals [1,2,3]. Annually, it claims approximately 59,000 human lives globally, with a prevalence of 56% in Asia and 44% in Africa [4,5]. The preponderance of these fatalities transpires in rural locales [6,7] . Canines persist as the principal reservoir in developing nations, while wildlife assumes this role in developed regions [8]. In the context of developing nations, optimal eradication of human rabies hinges on the strategic management of canine rabies [9].
Against this backdrop, the World Health Organization (WHO) proffers recommendations for integral components such as mass canine immunization campaigns, population control measures, restricted breeding practices, and curtailed mobility of stray canines. These interventions serve as pivotal elements in the elimination of rabies from endemic areas and the prophylaxis of dog-mediated human rabies cases [10]. Rabies has been a persistent challenge in Zambia since the 20th century [11]. Consequently, Zambia has instituted measures for rabies control, encompassing canine immunization, population control, and movement restrictions, as articulated in the Control of Dogs Act within the Laws of Zambia [12].
Despite extant legislation mandating canine vaccination, the districts of Manyinga and Mwansabombwe persistently report suboptimal figures regarding vaccinated canines, unrestricted canine movements, and an escalating incidence of animal and human rabies cases, in addition to canine bites Ministry of Fisheries and Livestock (MOFL), Manyinga and Mwansabombwe Reports, (i.e 2017,2018,2019, 2020,2021,2022). The dog population in Zambia is estimated to be 934,171 (NALEIC Report) but this is not conclusive as the precise canine population in Zambia remains elusive, with a purportedly minute fraction undergoing vaccination [12]. Estimated canine populations in Manyinga and Mwansabombwe hover around 2300 and 1500, respectively, with presumed low vaccination rates and a paucity of rabies awareness in rural populations.
Despite concerted efforts in mass vaccination endeavors, the scope of coverage remains wanting. Between 2018 and July 31, 2020, only 752 canines in Manyinga and 75 in Mwansabombwe received vaccinations (MOFL Report). Primarily concentrated in urban enclaves, these vaccinations neglect the substantial rural canine populace, commonly deployed for illicit hunting and thereby posing substantial health risks to both imperiled wildlife and local denizens. The extent of canine rabies cases in Manyinga remains indeterminate, as ostensibly rabid canines are expeditiously euthanized sans postmortem confirmation.
This study's main objective was to identify barriers to rabies prevention and control in Manyinga and Mwansabombwe Districts. Methodologically, the research interrogated the knowledge, attitudes, and practices concerning rabies within the general populace and pet owners. Additionally, it scrutinized demographic facets of the canine population, estimated the number of vaccinated dogs to gauge mass vaccination coverage, and discerned factors influencing the viability of rabies control programs in Manyinga and Mwansabombwe District. By elucidating these impediments, the study aspires to augment canine rabies vaccination coverage to align with the 70% benchmark proposed by the World Health Organization [10], thereby ameliorating attitudes and knowledge among the rural population with regards to rabies.

2. Materials and Methods

2.1. Study Area and Population

The study was conducted within the geographic confines of Manyinga District, situated in the North Western Province, and Mwansabombwe District, located in the Luapula Province of Zambia. Manyinga is positioned at an approximate distance of 331 km from the provincial capital, Solwezi, and 950 km from the national capital, Lusaka (Figure 1). Having attained district status, a mere eight years ago, it represents a recent addition to the administrative jurisdiction. Encompassing a landmass of around 21,851 square kilometers, the district predominantly features woodlands and streams, constituting 90 percent of its total terrain. Mwansabombwe, situated approximately 939.5 km from the national capital, Lusaka, is equally a nascent administrative unit, having undergone separation from Kawambwa District in 2012 (Figure 2). This district covers a total expanse of 5,252 square kilometers.
The two study districts primarily consist of rural settlements, making it challenging to precisely estimate household numbers. However, based on the 2021 census data, it was approximated that Manyinga has around 14,000 households with a human population of 75,030, whereas Mwansabombwe has 35,546 households. Manyinga District encompasses four distinct ethnic groups-Luvale, Lunda, Kalunda, and Chokwe. Notably, the Luvale ethnic group is indigenous to Manyinga. In contrast, the primary ethnic group in Mwansabombwe District is Lunda. Agriculture serves as the predominant livelihood in Manyinga, with both livestock and crop farming playing central roles. Conversely, Mwansabombwe relies heavily on fishing and crop farming as the primary sources of sustenance.

2.2. Study Design

A Cross sectional study was used which included household questionnaires, interviewing key informants and evaluation of rabies vaccination and dog bite case records.

2.3. Data Collection Plan

2.3.1. Household Survey

Households were randomly selected using cluster design because of how widely dispersed households are in Manyinga central camp and Mwansabombwe districts. The households were divided into clusters then from the formulated clusters random selection was conducted. The households of the randomly selected clusters to participate in the questionnaire survey participated regardless of whether they owned a dog/cat or not. In all selected households, heads of the household were interviewed, if absent a suitable substitute was chosen and those without such individuals were omitted from the questionnaire survey. All respondents to the questionnaire were informed of the purpose of the study and consent for participation obtained.

2.3.2. Rabies Sensitization and Awareness

Rabies sensitization and awareness campaigns were conducted across the districts for 3 months following the initial questionnaire survey. These campaigns utilized local radio stations and disseminated posters translated into the local language to promote better acceptance and facilitate a clearer understanding of the presented message. The posters were strategically displayed in various locations, including schools, clinics, markets, churches, residences of village headmen, and all communal gathering points. This comprehensive approach aimed to maximize outreach and engage diverse segments of the community in fostering awareness and understanding of rabies prevention.

2.3.3. Interviewing Key Informants

The second phase of the survey involved interviewing key informants. This comprised conducting in-depth interviews with local rabies experts, including representatives from the District Veterinary Department and Rabies Control Officers from the district council. Subsequently, an evaluation of rabies vaccination and dog bite case records was conducted at both the veterinary offices and district hospitals. This assessment aimed to determine the frequency of dog bites and the vaccination status of dogs involved in reported bite incidents.

2.4. Transect Survey and Rabies Mass Vaccination Campaign

2.4.1. Transect Survey to Estimate Dog and Cat Population

The transect survey was executed by two groups, each comprising three individuals, traversing through the community on foot. The survey areas were demarcated into 2 km by 2 km polygons. To prevent the inclusion of migrating dogs, a 50 m buffer was established around the boundaries within each transect area. The survey involved counting all encountered dogs along the transect line, following the methodology outlined by Kaneko et al. (2021). Visual identification was employed to estimate the populations of both dogs and cats. Throughout the transect survey, GPS tracking devices were utilized to log movement data. Subsequently, the length of the transect lines was measured using Google Earth Pro software, utilizing the records from the GPS log.

2.4.2. Mass Vaccination

A rabies mass vaccination campaign was orchestrated through radio announcements and the dissemination of multilingual posters (English, Luvale, Lunda, and Bemba) in various community settings, including schools, markets, churches, clinics, village headmen houses, and other communal meeting places. The campaign featured multiple central vaccination points, notably in Manyinga at the central veterinary camp and in Mwansabombwe at the veterinary camps.
During the mass vaccination campaign, dogs underwent vaccination with 1ml of Rabies Vet (Bio-Med Private Limited, Ghaziabad-201009, U.P. INDIA) intramuscularly. Each dog was administered the vaccine using a new needle and syringe to ensure hygiene and prevent contamination. Following vaccination, all dogs were distinctly marked with red-colored spray on their bodies. Additional details such as sex, age, color markings, owner information, and previous vaccination records were collected followed by the issuance of a new vaccination certificate. This method facilitated the easy identification of vaccinated dogs, distinguishing them from those that remained unvaccinated.

2.4.3. Transect Survey (Re-Capture)

Two days following the mass vaccination, a transect survey (re-capture) was undertaken in Manyinga District to assess the uptake of rabies vaccines. Two groups conducted the transect survey, utilizing motorbikes. During the survey, the teams systematically counted all encountered dogs along the transect lines, distinguishing between those that had been sprayed (marked) and those that hadn't, in accordance with the methodology outlined by Kaneko et al. (2021). Through visual identification of vaccinated dogs, an estimate of the coverage of rabies mass vaccinations was then determined.

2.5. Second Questionnaire Survey in Manyinga

Five months subsequent to the mass vaccination campaign, a follow-up questionnaire survey was undertaken to assess the efficacy of the sensitization efforts and rabies awareness. The goal was to evaluate the impact of the initial mass vaccination on enhancing the Rabies knowledge among the residents of Manyinga. Throughout the intervening five-month period between the first mass vaccination and the second questionnaire survey, monthly rabies awareness initiatives were implemented. These initiatives were disseminated through the local radio station and community leaders.

2.6. Data Analysis

The collected data were entered into Microsoft Excel spreadsheet and subsequently exported to IBM SPSS Statistics version 26.0 for a comprehensive thematic analysis. Descriptive statistics were generated, and cross tabulations calculating Pearson’s Chi Square were performed in testing of association.

2.7. Ethical Aspects

The study was approved by the board of graduate studies (School of Veterinary Medicine) and ethical clearance was granted by ERES CONVERGE IRB (Ref.No.2021-Jun-023). Participants in the questionnaire survey were told the purpose of the study and consent for participation was obtained.

3. Results

3.1. Characteristics of Respondents

A total of 301 individuals participated in both the pre-sensitization and post-vaccination surveys in Manyinga district. In both surveys, the majority of respondents were female, had acquired some level of formal education, resided in rural areas, and were pet owners (Table 1).

3.2. Rabies Awareness and Knowledge

In relation to pre-sensitization knowledge, the majority (88%) of respondents in Manyinga were already familiar with rabies. They demonstrated awareness of prevention methods, the mode of transmission, could identify at least one animal affected by rabies, and were acquainted with signs of rabies in humans. However, there was a gap in recognizing signs of rabies in animals. The primary source of rabies information for the majority of respondents was veterinarians.
Post-sensitization, there was a notable improvement in knowledge. The majority (90.40%) of respondents were now informed about rabies, including prevention methods, the mode of transmission, identification of animals affected by rabies, and recognition of signs of rabies in animals, although there was a decrease in the awareness of signs in humans. Veterinarians remained a predominant source of information, cited by 82.20% of respondents (Figure 4).
Overall, a positive shift in respondents' knowledge was observed after sensitization and mass vaccinations, particularly in terms of having heard about rabies, preventing and recognizing signs of rabies in animals (Table 2).

3.3. Dog Demographics, Knowledge and Attitude of Dog Owners toward Rabies Prevention and Control.

Among respondents who owned dogs, the majority were between the age range of 15-25years, female, rural based that is (65.9% and 60.7%) pre and post-sensitization respectively, and had at least attained secondary level of education in both surveys. With regards to occupation during pre-sensitization survey majority were students while farmers in post sensitization.
In pre-sensitization survey the majority (89.1%) were already aware of rabies, possessed knowledge about prevention and control measures, identified modes of transmission, and were familiar with signs of rabies in humans. Moreover, they were informed about the importance of pet vaccination.
Post-sensitization, the knowledge and attitude of dog owners toward rabies prevention and control remained consistent. The majority (94.2%) continued to demonstrate awareness of rabies, knowledge about prevention and control, identification of modes of transmission, recognition of clinical signs in humans, and adherence to pet vaccination practices. The overall knowledge and attitude of dog owners regarding rabies and its prevention and control remained largely unchanged in both surveys (Table 3).

3.4. Differences in Demographic Characteristics and Rabies Knowledge among Respondents

In the pre-vaccination survey, a noteworthy association between education (P=0.011) and occupation (P=0.044) with rabies knowledge was identified. However, gender (P=0.995), age (P=0.516), and settlement (P=0.133) exhibited no significant relationship with rabies knowledge.
In the post-sensitization rabies awareness survey, a significant relationship was observed between education (P=0.005) and occupation (P=0.006) with rabies knowledge. Conversely, no significant relationship was found with gender (P=0.062), age (P=0.148), and settlement (P=0.999). Throughout both surveys in Manyinga District, education and occupation consistently demonstrated a significant relationship with rabies knowledge (Table 4).

3.5. Respondents Demographic and Rabies Awareness

In both surveys, it was observed that respondents aged between 26 and 35 years exhibited greater awareness of rabies compared to those between 15 and 25 years of age. Additionally, respondents aged 46 years and above were more likely to be aware of rabies. Among the gender demographic, the majority of males demonstrated a higher level of awareness of rabies. Urban-based respondents were found to be more aware, and individuals with tertiary education showed a higher level of awareness regarding rabies (Table 4).

3.6. Demographic Data of Respondents from Mwansabombwe vs Manyinga

From the two conducted surveys, there was a higher participation of females. In both districts, the majority of respondents had attained some form of formal education. Specifically, in Mwansabombwe, most respondents were farmers, while in Manyinga, respondents were predominantly students. Moreover, Mwansabombwe had fewer respondents from households owning pets compared to Manyinga.

3.7. Rabies Awareness and Knowledge

In terms of rabies knowledge, 88% of respondents from both districts had prior awareness of rabies. Notably, Mwansabombwe respondents exhibited a higher level of information regarding prevention (82%), signs of rabies in animals (77%), and signs of rabies in humans (69%). Concerning the mode of transmission, Mwansabombwe respondents displayed greater knowledge, with 97.7% identifying bites as the primary mode, compared to 95.6% in Manyinga.
Regarding the source of rabies information, respondents from both districts predominantly cited veterinarians. Mwansabombwe's veterinarians and health workers were particularly effective in rabies sensitization, being more exposed to television and radio compared to Manyinga. However, they were less exposed to social media and other information sources.

3.8. Knowledge and Attitude of Dog Owners toward Rabies Prevention and Control

Among respondents who owned dogs, the majority demonstrated awareness of rabies, knowledge about signs of rabies in animals, prevention and control measures, the mode of transmission, signs of rabies in humans, and adherence to pet vaccination. Mwansabombwe had a higher number of well-informed participants compared to Manyinga. Overall, dog owners in Mwansabombwe exhibited a robust knowledge about rabies, and their attitude towards prevention and control was commendable (Figures 5 and 6).

3.9. Differences in Demographic Characteristics and Rabies Knowledge among Respondents

In Mwansabombwe, a significant relationship between settlement (P=0.007) and rabies knowledge was observed in terms of rabies awareness. However, gender (P=0.203), age (P=0.314), occupation (P=1.97), and education (P=0.71) exhibited no significant relationship with rabies knowledge (Table 12). On the other hand, in Manyinga, there was a significant relationship between education (P=0.011) and occupation (P=0.044) with rabies knowledge, while gender (P=0.995), age (P=0.516), and settlement (P=0.133) had no significant relationship with rabies knowledge.

3.10. Respondents Demographics and Rabies Awareness

Regarding age, respondents aged 31-45 years in Mwansabombwe and respondents aged 26-35 years in Manyinga demonstrated higher awareness of rabies. Additionally, respondents aged 46 years and above were more likely to be aware of rabies in both districts. In terms of gender, males exhibited greater awareness of rabies in Mwansabombwe, while in Manyinga, both males and females were equally aware. According to settlement, respondents from semi-urban and urban areas displayed higher awareness compared to those from rural areas in both districts. Concerning education, respondents who had attained tertiary education showed greater awareness of rabies in both Mwansabombwe and Manyinga.

3.11. Key Informants View on Rabies

The interviews with key informants involved 10 participants of which 2 were females. Veterinary staff were asked what they know about rabies, its prevention and control, the perspective of their communities about rabies and challenges being faced in preventing and controlling it. The council public health officers were asked on challenges they are facing in enforcing the law and health public health officers’ challenges they are facing in prevention of human rabies. Informants from both districts were well vested with rabies knowledge and they revealed that a significant portion of the population was aware of rabies and the primary preventive measures in place, but there was a prevalent desire for vaccinations to be provided free of charge. The Departments highlighted that the control of rabies faced obstacles such as inadequate staff and insufficient resources. Additionally, challenges in dog handling and control resulted in a limited number of dogs being presented during vaccination campaigns.
Implementing control measures faced difficulties, particularly with dog movement control. Few houses were enclosed in fences, and a limited number of dog owners were able to restrain their dogs, leading to dogs scavenging at dump sites that are in close proximity to residential areas. This situation made it challenging to differentiate owned dogs from stray dogs. The reviews indicated that responsible dog ownership and movement restrictions were not effectively implemented, as owned dogs could not be easily distinguished from unowned dogs.
The follow-up on suspected rabies cases proved challenging due to community practices involving the killing and disposal of suspected rabid dogs in rivers after biting incidents. Furthermore, the absence of laboratories in districts and provincial head offices capable of testing for rabies added to the complexities in managing and confirming rabies cases. And non-availability of PEP in government hospitals made it expensive for dog bite victims to get PEP.

3.12. Evaluation of 2017 to 2022 Dog Bite Cases

The assessment of dog bite cases from the veterinary office and Loloma Mission Hospital revealed a total of 538 recorded cases spanning from January 2017 to June 2022. The ages of the victims varied between 3 and 56 years. Notably, in Manyinga, 75% of the recorded cases involved victims below the age of 15 years. Unfortunately, in Mwansabombwe, the age range of victims could not be determined due to a lack of available records.
In Manyinga district, 55% of the bite cases, and in Mwansabombwe, all cases, were attributed to dogs whose owners were unknown, making it impossible to ascertain the vaccination status of these dogs. Of these cases, 43% were linked to owned but unvaccinated dogs, while a mere 2% resulted from bites by vaccinated dogs with valid vaccination certificates (Table 5 and 6). This aligns with the veterinary records in Manyinga district, where the validity of vaccination certificates was determined based on the occurrence of the bite preceding the next scheduled dog vaccination.
Victims of bites from unvaccinated dogs were advised by the district veterinary officer to undergo wound management, tetanus treatment, and post-exposure prophylaxis. All recorded victims of bites from unvaccinated dogs, except for two individuals, received the recommended treatment and post-exposure vaccines. Regrettably, the two individuals who did not receive post-exposure vaccines succumbed to the disease in 2018 at Loloma Mission Hospital.

3.13. Dog Vaccination Coverage

A total of 481 dogs received vaccinations at 9 designated points within the Manyinga central veterinary camp from May 27, 2022, to June 2, 2022. In Mwansabombwe, 326 dogs were vaccinated at 5 designated points across the 3 veterinary camps. The vaccination coverage in the study area reached 481 out of an estimated 750 dogs, representing 64% of the dog population in Manyinga. In Mwansabombwe, the coverage was 326 out of an estimated 1500 dogs, representing 21% of the dog population. Notably, in both study areas, the targeted 70% vaccination rate, as recommended by WHO, was not achieved.
Several factors hindered the attainment of the 70% vaccination coverage. These included the reluctance of owners to handle their dogs, prevalent community beliefs such as the notion that vaccinating a dog impedes its hunting abilities, and insufficient resources to sustain the vaccination campaign for an extended period.

4. Discussion

This study represents a pioneering effort in both Manyinga and Mwansabombwe districts of Zambia with regards to rabies control. This study is the first of its kind in both Manyinga and Mwansabombwe districts and aimed to comprehensively assess the knowledge, attitudes, and practices related to rabies, with a specific focus on the prevention and control of this zoonotic disease. The primary objectives encompassed exploring the general understanding of rabies among the residents, evaluating the demographics and vaccination status of the dog population, and identifying barriers to the successful implementation of rabies control programs in these districts
The collected data reveals that 88% of respondents from both districts had heard about rabies. Prior to sensitization in Manyinga, only 29.9% knew the signs of rabies in animals, but after sensitization and vaccination, this percentage increased to 54.5%. In Mwansabombwe, 77% of respondents knew about rabies signs. However, the majority remained unaware of the signs of rabies in dogs and humans. Comparing our study with others, a study in Lilongwe, Malawi, reported that 98% of respondents had heard of rabies, with 71% aware of its transmission from dogs to humans [13]. This study recorded a higher proportion of female respondents, possibly due to cultural practices where males dominate educational meetings. The study also showed that rural community had more dogs than the urban which is similar to the study conducted in Nyimba Zambia and Kwazulu-Natal South Africa and Mutendere, Zambia [12,14,15]. Although dog owners demonstrated good knowledge of rabies in both districts, additional sensitization efforts from the veterinary department, medical health, and council public health workers are crucial for imparting accurate knowledge. This enhanced awareness can lead to responsible dog ownership and emphasize the importance of rabies vaccination. Official education by experts may improve dog handling skills and subsequently increase vaccination coverage to effectively control rabies outbreaks [16].
Research findings underscore the common occurrence of dog bite/jackal bite cases in both study areas. Although unreported cases were not determined, studies from Nyimba and Tanzania suggest that for every reported case, at least 10 cases go unreported [12,17] .Notably, 55% of dog bite cases in this study involved unknown dogs, highlighting the challenge of absent dog registration and restricted movements, making proper identification difficult. This situation complicates the differentiation between owned and stray dogs. In contrast, a study in South Africa's KwaZulu-Natal found 83% of dog bite cases caused by owned dogs [18].
In our study, 70% of dog bites were attributed to unknown dogs, and 75% of victims were below 15 years old, aligning with global trends identified by the World Health Organization. The proximity of garbage dumping sites to residential areas may contribute to this phenomenon because of lack of barriers around these sites. This age group tend to play at these dump sites and are seen deliberately provoking the scavenging dogs as a game which leads to dog bites.
For victims of dog bites of dogs of unknown ownership which were considered to be unvaccinated dogs, post-exposure prophylaxis (PEP) was recommended. However, PEP availability varied between Manyinga and Mwansabombwe, impacting accessibility and incurring additional costs for transportation. Vaccinating dogs could reduce such costs, as studies indicate that dog vaccination is more cost-effective than PEP for rabies control [12]. Lack of law enforcement by the local government and irresponsible dog ownership is prevalent in Manyinga and Mwansabombwe, hindering the differentiation between owned and stray dogs. This complicates rabies control efforts, requiring community compliance through responsible dog ownership. The lack of fencing in the majority of households allows for uncontrolled dog movement and breeding, resulting in more stray dogs. Challenges include the absence of dog registration due to attached fees and various obstacles hindering a coordinated global approach to canine rabies elimination [19].
Vaccination coverage in both study areas fell short of the WHO-recommended 70%, with 64% in Manyinga and 21% in Mwansabombwe. This is lower than reported coverage in rural Mazabuka [16], rural areas of Tanzania Mara and Serengeti [20,21]. The findings suggest that ordinary vaccination coverage in rural Zambia does not reach the critical threshold of 20-45% needed to interrupt dog rabies transmission [16], but in this study the critical threshold in the study areas was reached after the vaccination campaign indicating that it is attainable.
Dog owners identified financial constraints, distance to veterinary offices, vaccine unavailability, and certain beliefs as reasons for not vaccinating their dogs. Overcoming these barriers requires addressing inadequate veterinary staffing, securing funding for vaccine procurement, and dispelling misconceptions within the community. A study by Sivagurunathan et al [22] and Nejash et al [23] emphasizes that rabies cases predominantly occur in poor communities characterized by poor dog ownership and an unwillingness or inability to pay for vaccinations.
Several factors hindered the attainment of the 70% vaccination coverage. These included the reluctance of owners to handle their dogs, prevalent community beliefs such as the notion that vaccinating a dog impedes its hunting abilities, and insufficient resources to sustain the vaccination campaign for an extended period.

5. Conclusions

The study reveals a formidable challenge in controlling rabies in Manyinga and Mwansabombwe due to existing barriers. However, potential solutions include knowledge dissemination and free mass vaccination campaigns for owned dogs. Despite efforts, both districts fell short of the WHO's 70% coverage recommendation. To overcome these challenges, essential interventions are required. Community education on rabies can foster responsible dog ownership, reducing stray dogs and improving vaccination coverage. This aligns with the WHO's goal of zero rabies cases by 2030. Addressing staffing issues at veterinary offices and ensuring rabies vaccinations are accessible are crucial steps. Identifying these barriers lays the groundwork for targeted interventions towards the global objective of rabies elimination.

Author Contributions

Conceptualization, Muma Misapa, Walter Muleya and Eugene Bwalya; Data curation, Muma Misapa and Josiah Zimba; Formal analysis, Muma Misapa and Mwenya Silombe; Investigation, Muma Misapa, Ladslav Moonga, Josiah Zimba, Emmanual Kabwali, Edgar Mulwanda and Christopher Mulenga; Methodology, Muma Misapa; Resources, Christopher Mulenga; Software, Muma Misapa and Mwenya Silombe; Supervision, Walter Muleya and Eugene Bwalya; Validation, Walter Muleya; Visualization, Muma Misapa; Writing – original draft, Muma Misapa; Writing – review & editing, Muma Misapa, Walter Muleya, Eugene Bwalya, Ladslav Moonga, Josiah Zimba, Emmanual Kabwali, Mwenya Silombe, Edgar Mulwanda and Christopher Mulenga.

Funding

This study was supported by Africa Centre of Excellence for Infectious Diseases of Humans and Animals (ACEIDHA).

Institutional Review Board Statement

Permission to conduct the research was granted by the board of graduate studies (School of Veterinary Medicine) and ethical clearance was granted by ERES CONVERGE IRB (Ref.No.2021-Jun-023).

Informed Consent Statement

Informed consent was obtained from all participants involved in the study

Data Availability Statement

Data presented is available on request from corresponding authors.

Acknowledgments

We thank the Veterinary Officer and assistants from Manyinga and Mwansabombwe veterinary department, Environmental health technicians from Manyinga and Mwansabombwe local council, Public health officers from Loloma Mission Hospital and Mbereshi Hospital who assisted so much in this study.

Conflicts of Interest

The authors declare no conflict of interest.

References

  1. Ayu Ria Widiani G, Mahardika Yasa IM. Laporan Kasus: Seorang Penderita dengan Kecurigaan Rabies. Jurnal Ilmiah Kedokteran dan Kesehatan. 2022;1(3). [CrossRef]
  2. Lodha L, Manoor Ananda A, Mani RS. Rabies control in high-burden countries: role of universal pre-exposure immunization. Vol. 19, The Lancet Regional Health - Southeast Asia. 2023. [CrossRef]
  3. Soler-Rangel S, Jiménez-Restrepo N, Nariño D, Rosselli D. Rabies encephalitis and extra-neural manifestations in a patient bitten by a domestic cat. Rev Inst Med Trop Sao Paulo. 2020;62. [CrossRef]
  4. World Health Organization (WHO). Causal agent and main modes of transmission - “WHO recommended standards and strategies for surveillance, prevention and control of communicable diseases. World health organization technical. 2014;2.
  5. Li D, Liu Q, Chen F, Jiang Q, Wang T, Yin X, et al. Knowledge, attitudes and practices regarding to rabies and its prevention and control among bite victims by suspected rabid animals in China. One Health. 2021;13. [CrossRef]
  6. WHO. WHO Expert Consultation on rabies, third report. World Health Organ Tech Rep Ser. 2018;1012(October).
  7. Nadal D, Hampson K, Lembo T, Rodrigues R, Vanak AT, Cleaveland S. Where Rabies Is Not a Disease. Bridging Healthworlds to Improve Mutual Understanding and Prevention of Rabies. Front Vet Sci. 2022;9. [CrossRef]
  8. Rupprecht, CE. A Tale of Two Worlds: Public Health Management Decisions in Human Rabies Prevention [Internet]. Vol. 281, Clinical Infectious Diseases. 2004. Available from: http://www.cdc.gov/.
  9. CLEAVELAND S. A dog rabies vaccination campaign in rural Africa: impact on the incidence of dog rabies and human dog-bite injuries. Vaccine. 2003;21(17–18). [CrossRef]
  10. World Health Organization. WHO Technical Report Series 931. WHO EXPERT CONSULTATION ON RABIES. World Health. 2004;
  11. Munang’andu HM, Mweene AS, Siamudaala V, Muma JB, Matandiko W. Rabies status in Zambia for the period 1985-2004. Vol. 58, Zoonoses and Public Health. 2011. p. 21–7. [CrossRef]
  12. Mulipukwa CP, Mudenda B, Mbewe AR. Insights and efforts to control rabies in Zambia. PLoS Negl Trop Dis. 2017;11(10). [CrossRef]
  13. Jonasson, A. Rabies Awareness, Incidence and Vaccination Coverage in Lilongwe, Malawi. Available from: http://stud.epsilon.slu.
  14. Hergert M, Le Roux K, Nel LH. Characteristics of owned dogs in rabies endemic KwaZulu-Natal province, South Africa. BMC Vet Res. 2018;14(1). [CrossRef]
  15. De Balogh KK, Wandeler AI, Meslin FX. A dog ecology study in an urban and a semi-rural area of Zambia. Onderstepoort J Vet Res. 1993;60(4).
  16. Kaneko C, Omori R, Sasaki M, Kataoka-Nakamura C, Simulundu E, Muleya W, et al. Domestic dog demographics and estimates of canine vaccination coverage in a rural area of Zambia for the elimination of rabies. PLoS Negl Trop Dis. 2021 Apr 1;15(4). [CrossRef]
  17. Sambo M, Lembo T, Cleaveland S, Ferguson HM, Sikana L, Simon C, et al. Knowledge, Attitudes and Practices (KAP) about Rabies Prevention and Control: A Community Survey in Tanzania. PLoS Negl Trop Dis. 2014;8(12). [CrossRef]
  18. Hergert M, Nel LH. Dog Bite Histories and Response to Incidents in Canine Rabies. PLoS Negl Trop Dis. 2013;7(4). [CrossRef]
  19. Banyard AC, Horton DL, Freuling C, Müller T, Fooks AR. Control and prevention of canine rabies: The need for building laboratory-based surveillance capacity. Vol. 98, Antiviral Research. 2013. p. 357–64. [CrossRef]
  20. Cleaveland S, Fèvre EM, Kaare M, Coleman PG. Estimating human rabies mortality in the United Republic of Tanzania from dog bite injuries. Bull World Health Organ. 2002;80(4).
  21. Kaare M, Lembo T, Hampson K, Ernest E, Estes A, Mentzel C, et al. Rabies control in rural Africa: Evaluating strategies for effective domestic dog vaccination. Vaccine. 2009;27(1). [CrossRef]
  22. Sivagurunathan C, Umadevi R, Balaji A, Rama R, Gopalakrishnan S. Knowledge, attitude, and practice study on animal bite, rabies, and its prevention in an urban community. J Family Med Prim Care. 2021;10(2). [CrossRef]
  23. Nejash A, Boru M, Jemal J, Wezir A. Knowledge, attitudes and practices towards rabies in Dedo district of Jimma zone, southwestern Ethiopia: A community based cross-sectional study. International Journal of Medicine and Medical Sciences. 2017;9(5). [CrossRef]
Figure 1. Manyinga District Study Area.
Figure 1. Manyinga District Study Area.
Preprints 99856 g001
Figure 2. Mwansabombwe District study Area.
Figure 2. Mwansabombwe District study Area.
Preprints 99856 g002
Figure 3. Knowledge and attitudes of dog owners towards rabies prevention and control (a) Manyinga; (b) Mwansabombwe.
Figure 3. Knowledge and attitudes of dog owners towards rabies prevention and control (a) Manyinga; (b) Mwansabombwe.
Preprints 99856 g003
Table 1. Charecteristics of respondents pre and post sensitization in Manyinga.
Table 1. Charecteristics of respondents pre and post sensitization in Manyinga.
Pre-sensitization Post-sensitization
Variables n = 301 % n = 301 %
AGE
15 - 25Years 194 64.5% 191 63.5%
26 -35Years 72 23.9% 56 18.60%
36 -45Years 13 4.3% 20 6.60%
46- 55Years 12 4.0% 27 9.0%
56Years and above 10 3.30% 7 2.3%
GENDER
Male 142 47.2% 144 47.80%
Female 159 52.80% 157 52.20%
EDUCATION LEVEL
Primary 4 1.3% 53 17.60%
Secondary 254 84.4% 197 65.40%
Tertiary 37 12.3% 43 14.30%
Others 6 2.00% 8 2.70%
SETTLEMENT
Urban 22 7.3% 24 8.0%
Semi-urban 79 26.2% 84 27.90%
Rural 200 66.40% 193 64.10%
OWN PET
Yes 220 73.1% 173 57.50%
No 81 26.90% 128 42.50%
OCCUPATION
Government employee 15 5.0% 19 6.30%
Student 227 75.4% 78 25.90%
Farmer 31 10.3% 132 43.90%
Others 28 9.3% 72 23.90%
Table 2. Rabies awareness of study population pre and post sensitization in Manyinga,Zambia.
Table 2. Rabies awareness of study population pre and post sensitization in Manyinga,Zambia.
Questions Pre-sensitization Post-sensitization
N % N %
Have you heard of Rabies?
YES 265 88.00% 272 90.40%
NO 36 12.00% 29 9.60%
Do You know signs of Rabies in Animals?
YES 90 29.90% 165 54.50%
NO 211 70.10% 138 45.50%
Do you know how rabies is prevented/controlled?
YES 183 60.80% 207 68.50%
NO 118 39.20% 95 31.50%
Do you know signs of rabies in humans?
YES 162 53.80% 117 38.70%
NO 139 46.20% 185 61.30%
Do you know animals that get infected with rabies?
COW 65 24.00% 85 34.40%
DOG 239 90.20% 245 100.0%
CAT 108 40.80% 150 60.70%
GOAT 47 17.7% 75 30.40%
SHEEP 30 11.3% 75 30.40%
PIG 71 26.8% 80 32.40%
FOX 73 27.5% 160 64.80%
What was your source of Rabies information?
Veterinary 82 31.30% 222 82.20%
Health workers 67 25.60% 9 3.30%
Television 47 17.90% 13 4.80%
Radio 18 6.90% 116 43.00%
Social media 37 14.1% 29 10.70%
Others 63 24.0% 9 3.30%
How is Rabies transmitted?
Bites 208 83.2% 236 87.7%
Scratch 15 6.00% 0 0%
Contact saliva 17 6.80% 33 12.3%
Cuts 14 5.60% 0 0%
Uncooked Meat 6 2.40% 0 0%
Urine 2 0.80% 0 0%
Table 3. Demographics, knowledge and attitudes of dog owners towards rabies prevention and control.
Table 3. Demographics, knowledge and attitudes of dog owners towards rabies prevention and control.
VARIABLES OWN DOGS
PRE-SENSITIZATION POST-SENSITIZATION
Frequency Percent % Frequency Percent %
AGE
15 - 25YRS 149 67.7% 110 63.6%
26 - 35YRS 45 20.5% 30 17.3%
36 - 45YRS 7 3.2% 11 6.4%
46 - 55YRS 12 5.5% 17 9.8%
56YRS AND ABOVE 7 3.2% 5 2.9%
GENDER
MALE 103 46.8% 84 48.6%
FEMALE 117 53.2% 89 51.4%
SETTLEMENT
URBAN 19 8.6% 14 8.1%
SEMI-URBAN 56 25.5% 54 31.2%
RURAL 145 65.9% 105 60.7%
EDUCATION LEVEL
PRIMARY 1 0.5% 36 20.8%
SECONDARY 188 85.5% 104 60.1%
TERTIARY 25 11.4% 26 15.0%
OTHERS 6 2.7% 7 4.0%
OCCUPATION
GOVERNMENT EMPLOYEE 8 3.6% 13 7.5%
STUDENT 176 80.0% 43 24.9%
FARMER 21 9.5% 78 45.1%
OTHERS 15 6.8% 39 22.5%
Have you heard of Rabies?
YES 196 89.1% 163 94.2%
NO 24 10.9% 10 5.8%
Do you know signs of Rabies in Animals?
YES 75 34.1% 113 65.3%
NO 145 65.9% 60 34.7%
Do you know signs of Rabies in Humans?
YES 135 61.4% 98 56.6%
NO 85 38.6% 75 43.4%
Is your pet vaccinated?
YES 131 59.5% 152 87.9%
NO 88 40.0% 21 12.1%
How is Rabies transmitted?
TRNS BITE 178 96.7% 152 100%
TRNS CUTS 5 2.7% 0 0%
TRNS SCRATCH 7 3.8% 0 0%
TRNS CONTCT SALIVA 9 4.9% 23 15.1%
TRNS UNCOOKED MEAT 2 1.1% 0 0%
TRNS URINE 0 0.0% 0 0%
Do you know how Rabies is prevented and controlled?
YES 146 66.4% 155 89.6%
NO 74 33.6% 18 10.4%
Table 4. Differences in demographic characteristics and rabies knowledge among respondents.
Table 4. Differences in demographic characteristics and rabies knowledge among respondents.
HEARD OFRABIES
VARIABLES PRE-SENSITIZATION POST-SENSITIZATION
Count Percent (%) P-value Count Percent (%) P-value
AGE
15 - 25Years 166 85% 141 73%
26 - 35Years 67 93% 0.516 49 87.5% 0.148
36 – 45Years 12 92% 16 80%
46 - 55Years 11 91.6% 24 88.90%
56Years and Above 9 90% 7 100%
GENDER
Male 125 88% 0.995 121 83.4% 0.062
Female 140 88% 181 74.7%
EDUCATION LEVEL
Primary 2 50% 0.011 50 94.3%
Secondary 223 87.8% 146 73.7% 0.006
Tertiary 36 97% 35 79.5%
Others 4 66.6% 8 100%
OCCUPATION
Government employee 15 100% 0.044 19 100%
Student 193 85% 53 67% 0.006
Farmer 30 96.7% 109 81.9%
Others 27 96.4% 58 80.5%
SETTLEMENT
Urban 22 100% 0.133 19 79.1%
Semi-urban 71 89.8% 67 78.8% 0.999
Rural 172 86% 153 78.8%
Table 5. Manyinga dog bites record from 2017 - June 2022.
Table 5. Manyinga dog bites record from 2017 - June 2022.
Year Number of dog bite victims Number of vaccinated dogs involved in bite cases Number of unvaccinated dogs involved in bite cases
2017 135 3 132
2018 91 2 89
2019 86 2 84
2020 63 0 63
2021 95 3 92
2022 Jan-Jun 68 2 66
Table 6. Mwansabombwe dog and jackal bites record 2021-June 2022.
Table 6. Mwansabombwe dog and jackal bites record 2021-June 2022.
Year Number of dog bites Number of jackal bites
2021 53 5
2022 January- June 28 18
Disclaimer/Publisher’s Note: The statements, opinions and data contained in all publications are solely those of the individual author(s) and contributor(s) and not of MDPI and/or the editor(s). MDPI and/or the editor(s) disclaim responsibility for any injury to people or property resulting from any ideas, methods, instructions or products referred to in the content.
Copyright: This open access article is published under a Creative Commons CC BY 4.0 license, which permit the free download, distribution, and reuse, provided that the author and preprint are cited in any reuse.

Altmetrics

Downloads

216

Views

111

Comments

0

Subscription

Notify me about updates to this article or when a peer-reviewed version is published.

Email

Prerpints.org logo

Preprints.org is a free preprint server supported by MDPI in Basel, Switzerland.

Subscribe

© 2025 MDPI (Basel, Switzerland) unless otherwise stated