Skip to main content

A survey of plants and plant products traditionally used in livestock health management in Buuri district, Meru County, Kenya



Up till now, nomadic communities in Africa have been the primary focus of ethnoveterinary research. Although mainly arable and/or mixed arable/pastoral farmers, Ameru of central Kenya are known to have a rich history of ethnoveterinary knowledge. Their collective and accumulative ethnoveterinary knowledge (EVK) is likely to be just as rich and worth documenting. The aim of the study was to document and analyse the ethnoveterinary knowledge of the Ameru.


Non-alienating, dialogic, participatory action research (PAR) and participatory rural appraisal (PRA) approaches involving 21 women and men aged between 50 and 79 years old were utilized. A combination of snowball and purposive sampling methods were used to select 21 key respondents. The methods comprised a set of triangulation approach needed in EVK for non-experimental validation of ethnoknowledge of the Ameru.


A total of 48 plant species distributed in 26 families were documented with details of diseases/ill-health conditions, parts of plants used and form of preparation and administration methods applied to different animal groups. Of these families, Fabaceae had the highest number of species (16.67%), followed by Solanaceae (12.5%), Asteraceae and Euphorbiacea (each comprising 8.33%), Lamiaceae (6.25%), Apocynaceae and Boraginaceae (each comprising 4.17%), while the rest of the 19 families, each was represented by a single plant species. About 30 livestock diseases/ill-health conditions were described, each treated by at least one of the 48 plant species. Most prevalent diseases/ill-health conditions included: - anaplasmosis, diarrhea, East Coast fever, pneumonia, helminthiasis, general weakness and skin diseases involving wounds caused by ectoparasites.


The study showed that there was a rich knowledge and ethnopractices for traditional animal healthcare amongst the Ameru. This study therefore provides some groundwork for elucidating the efficacy of some of these plants, plant products and ethnopractices in managing livestock health as further research may lead to discovery of useful ethnopharmaceutical agents applicable in livestock industry.


Traditional animal healthcare system (also known as ethnoveterinary medicine (EVM)) is as old as the history of domestication of animals [1]. EVM refers to centuries’ old inter-and multidisciplinary components of health that are holistic in application and comprises local ethnoknowledge and associated skills, techniques, practices, beliefs, taboos, cultures, practitioners and socio-economic structures pertaining to the healthcare and healthful husbandry of food-, work- and other income-producing animals [2, 3]. EVM has evolved through human civilization processes with a view to improving human well-being via increased benefits from stock raising [3]. Amongst the Meru people, EVM has long existed in various forms and levels [4, 5] and transferred from generation to generation by word of mouth, apprenticeship and initiation ceremonies depending on ethnicity [6]. Its documentation and storage is purely based on one’s ability to remember the acquired ethnoveterinary knowledge. This method of archiving, preserving and disseminating such important communal and individual knowledge is however challenging and unsustainable. Rapid technological, environmental, socio-economic, agricultural and cultural changes taking place worldwide, pose further challenges to the future survival and sustainability of EVM [6, 7]. For instance, the EVM of the Ameru is faced with a lot of challenges, among them is the expanded range of arable farming activities, which threaten the survival of grasslands, animals, woodlands, microorganisms, bushes and forests, which are the sources of ethnopharmacologically active agents upon which the successful practice of EVM is based [7]. Other factors threatening the survival and sustainability of EVM of the Ameru include: - (1), untimely deaths of resource persons with undocumented ethnoknowledge, (2), extinction of specific plant and animal species and practices for ritual medicines, (3), encroachment of development on and modernization of cultural and traditional life, (4), adoption of lifestyles and education systems that do not embrace ethnoknowledge, (5), shifting bias in religious beliefs, (6), perception of certain socio-cultural practices as unhygienic, witchcraft and satanic and (7), cost- and health-related risks involved in certain socio-cultural ethnopractices. Under these circumstances therefore, there is need to develop stringent documentation and preservation mechanisms of such threatened and yet very useful ethnoknowledge of health [79] so that the current generations may not helplessly witness its extinction. For this reason therefore, our study was undertaken to evaluate plant-based ethnoproducts used to manage livestock health by the Ameru of Meru County in central Kenya. It was hypothesized that the findings may provide useful information for further scientific research to determine efficacies for documented ethnoproducts and practices to help improve animal health and human livelihood in Africa.


Before the start of this project, prior informed consent was sought from individual key respondents through the local administration in the office of the president, Government of Kenya.

Description of the study area

Meru people and their geographical location

The name “Meru” refers to both the people and geographical location. The Ameru are part of the Bantu people of East Africa living on the fertile agricultural north and eastern slopes of Mount Kenya within the geographical coordinates of 0° 30' 0" North, 37° 39' 0" East and an altitude of 5,199 m asl. The Meru region constitutes a large area stretching northward to the volcanic Nyambene Hills and southward to the Thuchi River (Figure 1), with the highest point being the summit of Mount Kenya, which greatly influences climate of the area. The rainfall pattern is bimodal with long periods of rain occurring from mid-March to May and short periods occurring from October to December. The mean annual rainfall is about 1,300 mm per year, ranging from 380 mm per year in lowland areas (which includes much of Buuri district that lies on the leeward side of Mount Kenya) to 2,500 mm per year on the north and eastern slopes of Mount Kenya. The climate of Meru region comprises cloudy days with annual temperatures ranging from 10°C around the mountain to 30°C in the lower parts of Meru, relative humidity of 68% and wind of NE at 4 mph.

Figure 1

Map of the study area showing the larger Meru region of Kenya, the Buuri district and the neighboring districts.

The Ameru population is about 1.5 million people with a population density ranging from 100 persons per square kilometer in lowland areas to over 400 persons per square kilometer in highland areas. Ameru is a composition of Tigania, Igembe, Imenti, Miutuni, Igoji, Mwimbi, Muthambi, Chuka and Tharaka sub-tribes, which generally speak Kimîîru dialects, a Bantu language in the Niger-Congo family [4, 5]. The southern dialects of the Ameru are very close to Bantu-speaking Kikuyu people while those of the Northern part show some Cushitic tendencies [4, 5]. Although the Chuka and Tharaka sub-tribes have a slightly different oral histories and mythology [4, 5], the Imenti sub-tribe dialect dominates in the entire Meru region. The differences in the culture, taboos and language phonetics amongst the sub-tribes of Ameru reflect the varied Bantu origins and influences from the neighbouring Cushite and Nilotic people, as well as different Bantu-speaking neighbours such as the Kikuyu and Embu tribes. Nevertheless, the Meru people exhibit a much older Bantu characteristic phenomenon in grammar and phonetic forms than any other languages of the Bantu-speaking neighbours [10]. Ameru freely combines both arable and pastoral life forms for their socio-economic development.

The Buuri district

Buuri is a Kimîîru word from which the district got its name, which means “dry land”. According to Nyaga [4, 5] much of the Buuri district is very dry due to the fact that it lies on the leeward side of Mount Kenya and thus receives very little rainfall (Figure 1). The actual population in Buuri district is not precisely known but the Meru Central District Development Plan (2002–2008) projected the population in 2008 to be roughly 276,000 people.

Vegetation and soil of Buuri district

Much of Buuri district is dominated by scattered trees, stretches of dry grass and shrubs as the main vegetation types with a number of forests in the neighbourhood, the largest being Mount Kenya forest. The topography of the district was largely influenced by the volcanic activity of Mount Kenya. The dominant soil type is the deep red loam soils, which are well drained and fairly fertile. These vegetation types are the main sources of ethnobotanical products traditionally used in healthcare systems for both humans and animals [5].

Ethnohealthcare system of Ameru

The traditional healthcare system of the Ameru comprised a wide range of categories of ethnopractitioners such as: - diviners (kiruria), curse detectors (aringia) and specialized medicine men (mugaa) who were considered integral to the Meru social structure of administration, but the Mugwe, the prophet and spiritual leader of each sub-tribe, fulfilled the most important role of both spiritual and physical healing [4, 5]. On other hand, mugaa was specifically trained in ethnomedicines and healing powers and was widely consulted, particularly for inexplicable illnesses affecting both animals and humans [11].

Sources of traditional animal healthcare information

Knowledge of ethnoveterinary medicine was surveyed and documented from a varied number of sources in the study area. The identification of sources of information, from which key respondents were selected, included local veterinarians, para-veterinarians and agricultural extension officers responsible for providing extension services to livestock farmers within Buuri district. Meetings of local administration in the office of the President, Government of Kenya were attended and got useful leading information to the identification of potential key respondents. Local livestock traders and dealers, as well as individual livestock farmers, contributed their knowledge of ethnoveterinary medicine based on their professional and economic activities, whereas church leaders, community/village/clan leaders (Koomenjoe) and Meru council of elders (Njuri-Ncheke), had also very useful leading information on traditional animal healthcare system of the Ameru. Local ethnopractitioners, including general traditional healers/herbalists (Ndagitari wa miti), diviners (Kiruria), curse detectors (Aringia), specialized medicine men (Mugaa), spiritualists/ritualists (Nkoma cia bajuju) and prophet and spiritual leaders (Mugwe), formed a particular special subset of knowledgeable people from whom key respondents were also drawn. Secondary data were also considered a very important source of leading information and at Meru County Veterinary Office (CVO), records on traditional animal healthcare system of the Ameru were accessed and utilized. All these groups were consulted because each was associated with a specific aspect of ethnoveterinary knowledge relevant to the study.

Composition of the 21 key respondents

A survey study was conducted in Buuri district, Meru County during the months of April and May 2011. Ethnopractitioners offering primary healthcare services to local livestock industry were considered the target key respondents in the study and the selection process was based on the knowledge base, experience and current practices in ethnoveterinary medicine of the target individual. The first step in this study was the generation of a purposive sample of the key respondents from a wide range of sources mentioned above. Key respondents were considered local experts or people in the study area with knowledge of a particular issue or technology of interest (in this case, traditional animal healthcare knowledge) [1214]. They have a more extensive understanding of local social and veterinary-cultural systems than others in the community. A purposive sample referred to a particular subset of knowledgeable people in the area of traditional animal healthcare system. Intensive and extensive collaboration and interaction with these key respondents was considered an effective research strategy of accessing the relevant information [15, 16]. A probability random sampling technique would not have been appropriate for this type of socio-cultural set-up, as not everyone sampled randomly may have the required knowledge [12, 1719]. A combination of snowball and purposive sampling methods was employed to select the key respondents. Once a few ethnopractitioners had been identified using the above sources, fruitful initial contacts were made and more ethnopractitioners were identified using their existing networks. Upon the establishment of the snowball sample, a purposive sampling technique was then employed to select a sample of 21 key respondents from Buuri district. This procedure is widely used in ethnoknowledge studies to get information from hidden populations, which are difficult for researchers to access [7, 2023]. The purposive sampling technique ensured that only key respondents with the desired qualities and quantities of information on traditional animal healthcare system of the Meru people were selected [24].

Administration of questionnaire to key respondents

Each of the 21 key respondents was asked to fill a well structured questionnaire with the help of the interviewer. The questionnaire consisted of 18 questions requiring: - (1), the location where questionnaire is administered (village), (2), identity of the person being interviewed (name, sex, age, level of education, occupation etc.), (3), respondent’s consent agreement, (4), type of ethnoveterinary medicine practiced and how it was acquired, (5), the type of animals treated, (6), how the remedial products are identified, prepared, stored and administered, (7), how animals are treated and monitored, (8), how ethnopractitioners are paid for the services, (9), how ethnoveterinary medicine knowledge is shared amongst ethnopractitioners, (10), livestock diseases and/or ill health conditions treated, (11), plant and/or plant products used and their state/form, (12), state of affairs of the plant and/or plant products used for treatment, (13), factors contributing to the state of affairs of the plant and/or plant products used for treatment, (14), measures being taken for the state of affairs of the plant and/or plant products used for treatment, (15), challenges facing the profession of ethnoveterinary medicine, (16), personal opinion of the interviewee regarding the profession of ethnoveterinary medicine, (17), what should be done to improve traditional veterinary services in the interviewee’s area, and (18), personal observation of indications of practicing ethnoveterinary medicine made by the interviewer in the homestead of the interviewee.

Each time a questionnaire was administered to the interviewee, a senior relative/friend and a representative of the local administration from the office of the area sub-chief who was familiar with interviewee, were requested to accompany the interviewer. These two people engaged the interviewee into an interactive and productive discussion as the questionnaire was filled by the interviewer. This composition formed a very productive interaction that provided an enabling environment for Rapid Rural Appraisal (RRA) and Participatory Rural Appraisal (PRA) research to take place successfully. This method was considered very useful and robust because it reduced the following sources of bias: - (1) modelling bias, which was the projection of the interviewer’s views on to those studied, (2) strategic bias, which was the expectation of benefits by the subject, (3) familiar relationships between interviewer and interviewee (senior relative, administrator representative and interviewee) which would reduce resistance to questioning but could lead to rote answers and outsider bias and (4), reduction of “key personae” bias [25]. These preconceived notions would therefore lead to incorrect filling of the questionnaire and poor documentation and analysis of the collected information [12, 13].

Personal interviews/discussions with selected key respondents

After filling of the well structured questionnaire, an interview/discussion with the selected key respondents was held. This was guided exchanges, semi-structured by a mental checklist of relevant points to confirm the validity of the information in the questionnaires of other key respondents interviewed earlier.

Collection of specimens of plants and plant products

Following a personal interview with the selected key respondents, a field trip was made to identify and collect the listed plant specimens and/or ethnobotanical products. The specimens were harvested, prepared, packaged and stored according to the herbarium rules and regulations until transported to Herbarium at The Catholic University of Eastern Africa, Nairobi, Kenya for botanical identification using voucher specimens and according to the Hutchinson system of plant taxonomy based on the plants’ probable phylogeny. While in the herbarium, further non-experimental studies were also conducted. For each plant species collected from the field, a voucher specimen was prepared and deposited in the Herbarium at The Catholic University of Eastern Africa, Nairobi, Kenya.

Collection of secondary data on traditional animal healthcare system

As part of non-experimental validation process of documented plants and plant products used in traditional animal healthcare system amongst the Ameru and evaluate their potential effectiveness, a systematic collection of secondary data on traditional animal healthcare system of the Meru people from the County Veterinary Office (CVO) preceded. This was followed by an extensive literature search on the taxonomy of the plant specimens collected and their ethnobotanical applications from the internet, livestock research institutions, non-governmental organizations (NGOs) and Herbarium libraries and laboratories. All these methods comprised a set of triangulation approach needed in ethnoveterinary medicine for the process of non-experimental validation [26].

Enumeration of documented plants and plant products

A list of plants and plant products traditionally used to manage animal health amongst the Ameru, including their scientific and vernacular names, growth habits, family names, disease and ill-health conditions treated, target type of livestock and the preparation forms of different remedies was made (Table 1). The names of plants were arranged according to their alphabetical order. In Table 1, the classification of the plant specimens into growth life forms and/or habits was based on the definition and description of Yumoto et al. [27].

Table 1 Enumeration of documented plants and plant products traditionally used in health management of livestock by the Ameru of Buuri district, Meru County, Kenya (n = 48)

Authenticity of collected information and plant family use value

In order to evaluate the reliability of the information gathered, each key respondent was visited at least twice on the same idea to prove the validity of the information given out during the first visit before its final documentation. Information that significantly deviated from the original data collected during the first interview without support from the existing literature was either rejected or verified with other key respondents before being considered for use [46].

The family use value (FUV), which deals with the relationship between the total number of plant species within a given family and the sum use values for all the species identified from the field was calculated according to Hoffman and Gallaher [62] as follows:

F U V = U V s / n s

Where: -

UVs = Use values for all the species within a given family.

ns = Total number of species within a given family.

The family use value is an important Relative Cultural Importance (RCI) index, which can be applied in ethnobotany to calculate a value of biological plant taxon. This index together with other important ethnobotanical indices can provide data that can be used in hypothesis-testing, statistical validation and comparative analysis [62].

Respondent consensus factor

To estimate the variability of documented knowledge of ethnoveterinary medicine and determine the homogeneity of the information given by the key respondents, Respondent Consensus Factor (Frc) for the most common livestock diseases and/or ill-health conditions for the category of animal species with the number of reported remedial plants and/or plant products and/or ethnoformulations, were calculated based on Heinrich et al. [63] as follows:

F rc = n ur n t / n ur 1

Where: -

nur = Number of usage-reports.

nt = Number of taxa used.

In addition to defining how homogeneous the documented information is in the study population based on the degree of consensus in respondents’ responses, the Frc values revealed the strength of reliance of respondents on various plants and plant products for the treatment of different livestock diseases and/or ill-health conditions [64]. The Frc values range from 0 to 1. A high value (close to 1) indicated that there was a well-defined selection principle for certain specific plants and plant products traditionally used to treat livestock diseases and/or ill-health conditions in the community and/or there is sharing of information amongst the ethnopractitioners offering ethnoveterinary services in that particular community. A low value (close to 0) on the other hand indicated that plants and plant products used for the treatment of livestock diseases and/or ill-health conditions are chosen from a wide range of plants and plant products without relying on specific proven ones and/or the ethnopractitioners offering ethnoveterinary services do not share information amongst themselves.

Results and discussion

Respondents and their perception of knowledge of ethnoveterinary medicine

The selected 21 key respondents comprised mainly practicing ethnoveterinarians. The majority of respondents were males aged between 50–69 years old, with informal education (Table 2). Ethnoveterinary medicine knowledge was transmitted orally and secretly. The knowledge was maintained within family lineages and its services mostly offered freely (Table 2). By recognizing and involving ethnopractitioners in ethnoveterinary research and development in the community, they gradually started regaining confidence in their own EVM knowledge, services and practices, which had been previously condemned by the colonial governments and missionaries as witchcraft and satanic in nature. However, this state of affairs continued to its current condition because of the continued condemnation of EVM knowledge by the church and the failure of the succeeding African governments to legally recognize ethnoveterinary medicine knowledge and protect ethnopractitioners [7]. These findings are in agreement with numerous other studies previously carried out in other communities [7, 6571]. Most of these studies have revealed that the family as a unit is still a major source of ethnoknowledge for healing, training and gaining experience for many medical ethnopractitioners, whether for humans or animals. None of the respondents however attributed his/her ethnoveterinary medicine knowledge to have been acquired through personal experiences such as observations, experimentation, dreams and/or visions, an indication that there was probably good mentoring and/or apprenticeship, which ensured successful transmission of the desired knowledge through generations [6].

Table 2 A description of the profiles of key respondents and their perception of the acquisition, services and practices of ethnoveterinary medicine (n=21)

Naming of plants amongst the Ameru

The survey of plants and plant products amongst the Ameru showed that they had a well defined system of naming both indigenous and foreign plants in their community (Table 1). Plant ethnosystematic amongst the Ameru is based on a number of factors, more particularly on the characteristics of the plants. For example, Murema ngigi (Dodonaea viscosa Jacq var. angustifolia (L.f) Benth.) and Kirurite (Ajuga remota Benth) are local Kimîîru names given to the two plants in reference to their hardness and bitter taste, respectively. In addition, the phenomenon of giving a single name to a large group of plants such as a family because the appearance of the plants is the same is very common amongst the Ameru but very challenging to modern taxonomists studying ethnobotany of such communities. This can render the process of correct identification of individual plant species within such a large group very perplexing. For example, most of the tree species in the Acacia genus are given one collective local Kimîîru name, Miruai (singular - Muruai). Similarly, Muthuri (plural - Mithuri) is a collective local Kimîîru name given to a large group of plants especially those that produce latex whether they belong to the same family/genus/species or not. This type of naming plants pose great dangers of erroneously using a given plant and plant products to treat a given disease and/or ill-health condition [6]. From the foregoing, it is self-evident that the Kimîîru dialects have both singular and plural forms of naming plants. For instance, a name of the plant species especially the trees starting with the prefix, Mu- normally signifies the singular form while the prefix Mi- represents the plural form (Table 1) [39]. For example, Acacia mearnsii De Wild. is known as Muthanduku in singular form and Mithanduku in plural form. This is the same case for Cordia africana Lam., which is locally known as Muringa and Miringa in singular and plural forms, respectively.

Because of the ethnic diversity amongst the Ameru living in the study area (Buuri district of Meru County), more than one vernacular name could be used to refer to the same plant species by different sub-tribes and vice versa (Table 1). The ethnic diversity affected a great deal new plant species brought in the community as they could be found with more than one Kimîîru name such as the case of Warburgia ugandensis Sprague. Plant species that were not indigenous to the Meru region had been given local names, which are descriptive in nature or took the altered form of the name used in their original language. An example is Azadirachta indica A. Juss whose local name Mwarubaine was apparently derived from the Swahili name, Muarubaini, which means ‘the tree of the fourty’, as it is believed to be able to treat more than fourty different diseases. Another example is Cannabis sativa L. whose local name, Bangi is similarly derived from the Swahili name for the plant. According to some key respondents, a local Kimîîru name could be used to refer to different plant species by different sub-tribes. For example, among the Imenti sub-tribe, Ajuga remota Benth is known as kirurite whereas the Tharaka sub-tribe use the same name to refer to Tithonia diversifoli (Hemsl.) A. Gray. Most key respondents however, were much aware of such divergence in naming local plants among different sub-tribes and were quick to point them out for discussion and building consensus (Table 1).

Enumeration of documented plants from the survey study

A total of 48 plant species distributed in 26 families were documented to be used in livestock health management by traditional animal healthcare providers in the study area (Table 1). An extensive literature search was undertaken to evaluate literature that supports the claimed uses of the documented plants species (Table 1). Some of the documented plant species were reported in literature to be used in ethnomedicine and other cultural activities of other communities. Some plant species had very few ethnoknowledge references in the literature (only 1 or 2 references in literature) while the rest did not have any reference in literature such as Acacia xanthophloea Benth., Crotalaria laburnifolia L., Dovyalis caffra Warb and Vangueria infausta Burch; perhaps, they were truly indigenous to the Meru people or perhaps relevant references could not be accessed in literature. Those plants thought to be indigenous to the Meru community and traditionally claimed to manage animal health, were more than 14. Of the documented 48 plant species, some, such as W. ugandensis, Tagetes minuta L. and A. indica were already confirmed medicinal plants that had been studied for their use in ethnoveterinary medicine [7, 9, 28, 30, 33, 40].

Growth life forms of the documented plant species

Growth life forms of the documented plant species was categorized according to the description of Yumoto et al. [27]. An analysis of the growth life forms/habits of plants used by traditional animal healthcare providers in livestock health management in Buuri district revealed that trees constitute the largest category (41.7%), followed by the herbs (31.2%). Shrubs constituted 22.9% of the total recorded plant species while the rest, which included climbers and lianas constituted 4.2% (Figure 2). This shows that the most widely used plant habit in the study area is tree and this may be attributed to a number of factors among them the high level of abundance of trees in the area and hence easily accessed [39].

Figure 2

The growth life forms of documented plant species used in livestock health management in Buuri district, Meru County, Kenya (n=48).

Parts of plants used and preparation methods

In regard to the part(s) of plants harvested and used in ethnoveterinary medicine in Buuri district, the study revealed that the most frequently utilized part of the plant was the leaf accounting for 34.8% of the total reported ethnoformulation preparations followed by the root (22.7%), bark (18.2%), seed/fruit (15.2%), latex (3%) and bulb, flower and stem each accounted for 1.5% of the total reported ethnoformulation preparations in that order (Figure 3). These results are in an agreement with the previous findings of Amri and Kisangau [72], who conducted a similar survey study in villages surrounding Kimboza forest reserve in Tanzania but were contrary to the findings of Rukia [73]. Leaves from plants therefore appear to be the most preferred harvested parts of plants by ethnopractitioners for us in ethnomedicines [6]. Putting into consideration the biological function of the leaves on plants, the method of harvesting medicinal plants by picking leaves can be very devastating and a threat to the survival of the target plant, more particularly, if the young tender leaves are harvested instead of the old ones, which are almost dropping off the plant to become humus. Similarly, frequent harvesting of roots and barks, the second most preferred parts of plants (Figure 4), may be destructive and unsustainable, thus risking the extinction of the target plant species, and is therefore not advisable [74, 75].

Figure 3

Percent distribution of plant parts used in ethnoveterinary medicine in Buuri district, Meru County, Kenya.

Figure 4

A key respondent demonstrating the process of harvesting roots from a medicinal plant in the forest in Buuri district, Meru County, Kenya.

Ethnoveterinarians in the study area employed a number of methods for preparing herbal remedies. These methods largely depended on the type of the plant used, parts of plants employed, type of disease/ill-health condition and the animal species being treated [7]. Some of the most frequently used methods of ethnoformulation preparations in the study area included: - decoction, infusion, concoction and fumigation (Table 1). The survey study further found out that most of the remedies were prepared from a single plant species. Other prominent preparations however, involved the mixtures of different plant species and at times addition of one or more non-plant ingredients or additives such as milk, soup, honey, porridge, animal fat, salt etc. The use of more than one plant to make ethnoformulations are commonly used in the study area and respondents believed that such an ethnoformulation conferred some synergistic effects to the herbal remedies in certain cases where ingredients of two or more plants were considered to be more effective against a particular disease/ill-health condition than the use of individual plants separately. For example, a number of key respondents interviewed cited the use of a concoction of Tetradenia riparia (Hochst.) Codd and Cucumis aculeatus Cogniaux as one of the most effective remedy against anaplasmosis in cattle against using only one plant species for preparation and application of the herbal remedy. On other hand, the use of more than one plant to make ethnoformulations was believed to neutralize toxicity effects and/or bitterness of one part of the ethnoformulation preparation to make it palatable and easily administered. While making the remedial preparations from plants and plant products, the most frequently used solvent was water, particularly during the preparations of decoctions, concoctions and infusions with the addition of the above mentioned additives (milk, honey, animal fat and salt). However, there were some contradictions in a few cases among some informants on the type of additives used in preparations of some herbal remedies. For example, while a number of informants mentioned milk as an important additive for some of the remedies, others held the view that generally, milk reduced the potency of most herbal remedies and should not be used as an additive. However, this point of view depends largely on one’s ethnicity and cultural belief and taboos [7].

Many key respondents revealed that they rarely stored their drugs for future use but rather are used as soon as they are prepared from fresh plant materials. According to the key respondents, this was based on the belief that most of the remedies derived from plants and plant products lose their efficacy and curative power once stored for a long period of time following harvesting and preparation and the underlying science for this belief just goes beyond this work to speculate on. According to some respondents however, a few parts of the plants, such as the bark of W. ugandensis and Commiphora eminii Engl. were normally preserved in the roof of houses for future use though not for a very long time.

Type of livestock treated using ethnoveterinary medicines in the study area

The most commonly treated animals in Buuri district were: - cattle, goats, sheep, pigs and various species of poultry. Donkeys were also kept by few livestock farmers especially in the drier part of the district but no single plant and/or plant product was reported to be used by respondents in the treatment of donkeys. This was an indication that equine ethnoveterinary medicine might be less developed in the study area and/or perhaps the socio-economic value of donkeys in the cultural and traditional life of Ameru is not as great as the rest of the other animals. Majority of the livestock found in the study area were either indigenous breed or crosses between indigenous and exotic breeds. Cattle had the highest number of known ethnoveterinary remedies (43.3%) followed by sheep (20.8%), goats (16.7%) and poultry (13.3%) in that order. Pigs had the lowest number of recorded ethnoveterinary remedies (5.8%) (Figure 5). The number of known ethnoveterinary remedies for a particular type of livestock may probably correspond with socio-economic value and importance of the animal in the cultural and traditional life of Ameru [4, 5] and perhaps this may also explain the order of acquisition of these animals for domestication by the Ameru in their life history. For instance, dowry among the Meru consisted of five items (an ewe, a container of honey, a heifer, a ram and a bull). All these items signified very important aspects of the marriage life with ewe symbolizing virginity. On the other hand, livestock (such as cattle, sheep, goats and donkeys) is believed to have been used by the leader of the Ameru people (Koomenjoe) to perform the second and the fourth tests of the five tests requested for by their colonial masters before the community could be released from bondage in a place called Mbwa [5].

Figure 5

Ethnoremedies used on different animal groups in Buuri district, Meru County, Kenya.

Ethnodiagnosis, determination of causes and naming of livestock diseases

Like in most African communities such as the Maasai [37], ethnodiagnosis of livestock diseases/ill-health conditions (Table 1) among the Meru people took a holistic view where the cause determined the type of the management strategy and/or treatment system to be adopted. Both human and livestock diseases/ill-health conditions were believed to have a multiplicity of causes [7, 34]. Some livestock diseases/ill-health conditions were believed to be caused by pathogens and/or aetiologic agents that were ectoparasitological, endoparasitological and intraparasitological in nature while others were as a result of adverse weather conditions and were mostly seasonal. Some livestock diseases/ill-health conditions were believed to have a spiritual origin and such cases were dealt with spiritually through ritualism and exorcism by appealing to higher powers of spirits of the Ameru community. An accurate knowledge about the symptoms, signs and possible vectors of a particular disease was an important skill that preceded the choice of an appropriate treatment and management strategies. In making ethnodiagnoses, traditional animal healthcare providers based their conclusions on an in-depth understanding and comparative analysis of the general health versus ill-health signs [34]. Ethnodiagnosis was often carried out by the use of senses such as visual, audio, olfaction and tactile [34, 37]. Depending on the nature of the disease/ill-health condition, ethnodiagnosis also involved consulting the spirits, oracles or divination and could at times involve the use of other animals [34]. Proper ethnodiagnosis of livestock diseases/ill-health conditions required a lot of experience and expertise and was greatly based on the knowledge of the diseases symptoms and signs, knowledge of known vectors, history of the environment and seasonality of disease outbreaks in addition to the knowledge of livestock species affected [37].

Naming of livestock diseases among the Ameru was not much different from that of other African communities. Just like in the naming of plants, some names for livestock diseases/ill-health conditions were descriptive in nature and related to aetiologic agents while other names did not have any relationship with the causative agents of the diseases/ill-health conditions, signs and/or symptoms (Table 1). About 30 livestock diseases and ill-health conditions were reported and described both in English and the local Kimîîru languages (Table 1). All the key respondents had at least one local name for the described diseases/ill-health conditions. The respondents were also able to describe various signs and symptoms associated with the reported diseases/ill-health conditions. Among the diseases/ill-health conditions described to have a high prevalence rate in the study area were: - anaplasmosis, East Coast fever (Figure 6), pneumonia and helminthiasis (Table 1). Most of the key respondents ranked EVM knowledge, services and practices as the most effective form of animal healthcare best suited for the majority of described diseases/ill-health conditions in comparison with the use of conventional medicine and services (Table 2).

Figure 6

A calf treated with the latex of Synadenium compactum N. E. Br. for East Coast fever (arrow show where the plant latex had been applied to the swollen parotid lymph gland).

Administration methods and dosage of ethnomedicines used

The route of administration of ethnobotanical preparations depended on the nature of the disease and the target animal [7, 34]. The main routes of administration documented in the study area were: - oral, topical/dermal, through the eyes and others such as application of the medicines directly on a fresh wound or cut. The most common route of administration was oral (74%) followed by dermal/topical (19.2%). Application of ethnomedicines through the eyes and other routes of administration accounted for 2.7% and 4.1%, respectively (Figure 7). Correct dosage (as described by an ethnopractitioner such as three glasses in a day) was an important aspect of ethnoveterinary medicine according to the respondents because, under dose was known to make the remedy ineffective while over dose caused livestock poisoning and subsequent death. Many respondents were of the opinion that the correct dosages for various ethnomedicines had been established through a lengthy period of trial and error mechanisms. Among the factors that determined the administration frequency and dose of the herbal remedies included: - the livestock species, age, body weight, level/state of illness and other conditions such as pregnancy and lactation. There were however, some discrepancies and difficulties in trying to determine the actual dosages for various ethnoformulation preparations from different respondents. This was largely due to the fact that measurements of most herbal remedies were administered through approximation and there existed little or no dosage standardization for most ethnoformulation preparations [34, 59].

Figure 7

Routes of administration of ethnoformulations used by ethnoveterinarians in Buuri district, Meru County, Kenya.

The analysis of plant family use value

Of the 26 families, Fabaceae had the highest number of species (16.67%), followed by Solanaceae (12.5%), Asteraceae and Euphorbiaceae (each comprising 8.33%), Lamiaceae (6.25%), Apocynaceae and Boraginaceae (each comprising 4.17%), while the rest of the 19 families, each was represented by a single plant species (Tables 1 and 3). The plant family use value, which is applied in ethnobotany to calculate a value of biological plant taxon, helps in rating plant families for overall evaluation of member plant species in hypothesis-testing, statistical validation and comparative analysis [62]. From results presented in Table 3, Canellaceae, which was represented by a single plant species, was reported as the most useful family utilized in ethnoveterinary medicine in the study area followed by Apocynaceae, Boraginaceae, Lamiaceae, Aloaceae, Bignoniaceae, Euphorbiaceae, Moraceae and Polygonaceae in that order, some being represented by more than one single plant species.

Table 3 Analysis of documented plant species by family use values (n = 26)

Consensus building amongst key respondents on livestock diseases treated

Based on the reports from different respondents and looking at the numbers of ethnoformulation preparations described for each category of animal species, livestock farming may be one of the most important types of farming activities practiced by many farmers in the study area (Table 1). Cattle have a high socio-economic value and are a source of food, cash, manure, labour (ploughing and cart oxen) and as a means of dowry payment [4, 5]. For this reason therefore, the interviewer sought to establish the key respondent consensus factor (Frc) for the main cattle diseases treated using different plants and plant products in Buuri district using formula (ii) and the results obtained are shown in Figure 8. The cattle disease that obtained the highest Frc value was ECF (0.91) followed by anaplasmosis (0.87) and diarrhea (0.67) in that order. These are the most commonly encountered and perhaps well diagnosed diseases by traditional animal healthcare providers in the study area. The lowest Frc value was obtained for pneumonia (0.4). Diseases with low Frc values may be either new in the area or poorly diagnosed by the traditional animal healthcare providers. The Frc defined how homogeneous the information was by the degree of consensus in key respondents’ responses.

Figure 8

Respondent consensus factor for the main cattle diseases traditionally treated using plants and plant products in Buuri district, Meru County, Kenya.


The survey revealed a wealth of preserved ethnoknowledge on plants, plant products and ethnopractices associated with the traditional management of livestock health by the Ameru. A total of 48 plant species distributed in 26 families were documented to be used in the management of livestock health by traditional animal healthcare providers. Of the 26 families, Fabaceae had the highest number of species (16.67%), followed by Solanaceae (12.5%), Asteraceae and Euphorbiaceae (each 8.33%), Lamiaceae (6.25%), Apocynaceae and Boraginaceae (each 4.17%), while the rest of the 19 families, each was represented by a single plant species. Majority of these 48 plant species were trees (41.7%) and herbs (31.2%). The most frequently utilized part of the plant was the leaf accounting for 34.8% of the total reported ethnoformulation preparations followed by the root (22.7%), bark (18.2%), seed/fruit (15.2%) and latex (3%) while bulb, flower and stem each accounted for 1.5% of the total reported ethnoformulation preparations. However, prominent ethnoformulation preparations (decoction, infusion, concoction and fumigation) involved the mixtures of different plant species and at times, the addition of one or more non-plant ingredients or additives such as milk, soup, honey, porridge, animal fat, salt etc. as this was believed to confer some synergistic effects to the herbal remedies and further make it easily administered. The most common route of administration of these ethnoformulation preparations was oral (74%) followed by dermal/topical (19.2%), through the eyes (2.7%) and other routes (4.1%) in that order. However, most herbal remedies were administered through approximation and there hardly existed dosage standardization for most ethnoformulation preparations.

Nevertheless, some of the local claims of the plants and plant products have been supported by scientific studies reported in literature. This therefore may imply that conducting in-depth scientific studies may help elucidate the science underlying the efficacy of these plants, plant products and health ethnopractices in managing animal health and this may lead to the discovery of useful pharmaceutical agents and tactics that may be integrated in livestock health management programmes for the wellbeing of livestock industry and human life in Africa. There is need therefore for the Ameru to address the challenges of sustainable utilization and conservation of these medicinal plants and plant products, more particularly educating all the stakeholders on sustainable methods of harvesting remedial products from plants and sustainable conservation mechanisms of creating woodlots in arable farming systems to relief constraints on the wild resource counterparts.

Authors' information

WW is currently a research scientist and senior lecturer at the School of Pure and Applied Sciences, Department of Biological Sciences, South Eastern University College (a constituent college of the University of Nairobi) in Nairobi, Kenya. He holds a PhD in Resource Conservation and Production Ecology (in applied entomology, parasitology and ethnoknowledge) from Wageningen University and Research Centre, The Netherlands with a three-year laboratory and field research at the International Centre of Insect Physiology and Ecology (ICIPE) in Nairobi, Kenya. Currently, he is actively involved in ethnoknowledge, ethnomedicine and biomedical research in Kenya. MMG has just completed his Bachelor of Education degree in science at the Department of Natural Sciences, The Catholic University of Eastern Africa and is currently preparing to start his graduate studies in African Ethnobotany.


  1. 1.

    Mathappan R, Joe F, Prasanth V, Varirappan K: Pharmacognostical and preliminary phytochemical studies of Urena lobata linn. Int J Phytomed. 2010, 2: 408-411.

    Google Scholar 

  2. 2.

    McCorkle C: An Introduction to Ethnoveterinary Research and Development. J Ethnobiol. 1986, 6 (1): 129-14.

    Google Scholar 

  3. 3.

    McCorkle MC, Mathias-Mundy E: Ethnoveterinary medicine in Africa. Afr. 1992, 62 (1): 59-63. 10.2307/1160064.

    Article  Google Scholar 

  4. 4.

    Fadiman AJ: When we began there were witchmen: an oral history from Mount Kenya. ISBN: 0520065077. Volume: 36, Issue: 3. 1994, Los Angeles, US: University of California press

    Google Scholar 

  5. 5.

    Nyaga D: Customs and traditions of the Meru. 1997, Nairobi, Kenya: East African Educational Publishers Ltd, 1

    Google Scholar 

  6. 6.

    Kokwaro OJ: Medicinal plants of East Africa. 2009, Nairobi, Kenya: University of Nairobi press, 3

    Google Scholar 

  7. 7.

    Wanzala W, Takken W, Mukabana WR, Pala AO, Hassanali A: Ethnoknowledge of Bukusu community on livestock tick prevention and control in Bungoma district, western Kenya. J Ethnopharmacol. 2012, 140 (2): 298-324. 10.1016/j.jep.2012.01.021.

    PubMed  Article  Google Scholar 

  8. 8.

    Wanzala W, Zessin K, Kyule MN, Baumann M, Mathias E, Hassanali A: Livest Res Rural Dev 2009, 17 Article #11. Retrieved April 11th. Ethnoveterinary medicine: a critical review of its evolution, perception, understanding and the way forward. 2012, []

    Google Scholar 

  9. 9.

    Gradé J: Ethnoveterinary Knowledge in Pastoral Karamoja, Northern Uganda. 2008, Belgium: Ph.D. Thesis, Ghent University

    Google Scholar 

  10. 10.

    Fedders A, Salvadori C: Peoples and Cultures of Kenya. 1979, Nairobi, Kenya: Transafrica Publications/Rex Collings

    Google Scholar 

  11. 11.

    Dolan C: retrieved Thursday, May 24th, 2012, 09:13 AM East Africa Time. Meru. encyclopedia of world cultures supplement, 2002. 2002, []

    Google Scholar 

  12. 12.

    Etkin NL: Anthropological methods in ethnopharmacology. J Ethnopharmacol. 1993, 38: 93-104. 10.1016/0378-8741(93)90004-O.

    CAS  PubMed  Article  Google Scholar 

  13. 13.

    Waters-Bayer A, Bayer W: Planning with Pastoralists: PRA and More. A Review of Methods Focused on Africa. 1994, Eschborn, Germany: Germany Agency for Technical Cooperation (GTZ)

    Google Scholar 

  14. 14.

    McCorkle MC, Rangnekar VD, Mathias-Mundy E: Introduction: whence and whither ER&D?. Ethnoveterinary Medicine: Alternatives for Livestock Development. Proceedings of an International Conference held in Pune, India, November 4–6, 1997. Volume 1: Selected Papers. File 2 of 9: Part 4: Introduction and Part 1: Applied Studies of Ethnoveterinary Systems. Edited by: Mathias E, Rangnekar VD, McCorkle MC, Martin M. 1997, Pune, India: BAIF Development Research Foundation

    Google Scholar 

  15. 15.

    Oakley A: Interviewing women: a contradiction in terms. In participatory research and the race to save the planet: questions, critique and lessons from the field. Edited by de Rocheleau D. Agr Hum Values. 1981, 11: 4-25.

    Google Scholar 

  16. 16.

    Warry W: The eleventh thesis: applied anthropology as praxis. Hum Organ. 1992, 51: 155-163.

    Article  Google Scholar 

  17. 17.

    Martin JG: A ‘people and plants’ conservation manual. Volume 7. ISBN-10:1844070840 (ISBN-13: 978–1844070848). 1996, London, New York: Chapman & Hall

    Google Scholar 

  18. 18.

    Cotton CM: Ethnobotany: principles and applications. 1st edition. ISBN 047195537X (ISBN-13: 978–0471955375). 1996, New York, USA: John Wiley & Sons, Chichester, 1

    Google Scholar 

  19. 19.

    Cunningham AB: Applied ethnobotany: people, wild plant use and conservation. 1st edition. ISBN-0: 1853836974 (ISBN-13: 978–1853836978). 2001, London, UK: Earthscan

    Google Scholar 

  20. 20.

    Heckathorn DD: Respondent-driven sampling: a new approach to the study of hidden populations. Soc Probl. 1997, 44 (2): 174-199. 10.2307/3096941.

    Article  Google Scholar 

  21. 21.

    Heckathorn DD: Respondent-driven sampling II: deriving valid estimates from chain-referral samples of hidden populations. Soc Probl. 2002, 49 (1): 11-34. 10.1525/sp.2002.49.1.11.

    Article  Google Scholar 

  22. 22.

    Salganik MJ, Heckathorn DD: Sampling and estimation in hidden populations using respondent-driven sampling. Sociol Methodol. 2004, 34 (1): 193-239. 10.1111/j.0081-1750.2004.00152.x.

    Article  Google Scholar 

  23. 23.

    Tongco D: Purposive sampling as a tool for informant selection. Ethnobot Res Appl. 2007, 5 (1): 147-158.

    Google Scholar 

  24. 24.

    Russell B: Research methods in anthropology: qualitative and quantitative methods. 3rd edition, ISBN-10: 0759101485 (ISBN-13: 978–0759101487). 2002, California, USA: Altamira Press

    Google Scholar 

  25. 25.

    Sutton AJ, Orr DB: The use of the school essay as an RRA technique: a case study from Bong County, Liberia. RRA Notes: Participatory Methods for Learning and Analysis No. 14. Edited by: Tadesse D. 1991, London: International Institute for Environment and Development (IIED), Sustainable Agriculture Programme, 33-38. Issue No. 19

    Google Scholar 

  26. 26.

    Lans C: Creole Remedies. Case studies of ethnoveterinary medicine in Trinidad and Tobago. 2001, Wageningen University and Research Centre, Communication and Innovation Studies: PhD Thesis

    Google Scholar 

  27. 27.

    Yumoto T, Yamagiwa J, Mwanza N, Maruhashi T: List of plant species identified in Kahuzi-Biega National Park, Zaire. Tropics. 1994, 3: 295-308. 10.3759/tropics.3.295.

    Article  Google Scholar 

  28. 28.

    Minja M: Paper presented at the ‘People and Plants’ training workshop held on 15th-18th March, 1999. The Maasai Wonder Plants. 1999, Arusha, Tanzania: Tropical Pesticides Research Institute

    Google Scholar 

  29. 29.

    Nanyingi O, Mbaria M, Lanyasunya L, Wagate G, Koros B, Kaburia F, Munenge W, Ogara O: Ethnopharmacological survey of Samburu district, Kenya. J Ethnobiol Ethnomed. 2008, 4: 14-10.1186/1746-4269-4-14.

    PubMed Central  PubMed  Article  Google Scholar 

  30. 30.

    Njoroge N, Bussmann R: Herbal usage and informant consensus in ethnoveterinary management of cattle diseases among the Kikuyus (Central Kenya). J Ethnopharmacol. 2006, 108 (3): 332-339. 10.1016/j.jep.2006.05.031.

    PubMed  Article  Google Scholar 

  31. 31.

    Rochfort S, Parker J, Dunshea R: Plant bioactives for ruminant health and productivity. Phytochemistry. 2008, 69: 299-322. 10.1016/j.phytochem.2007.08.017.

    CAS  PubMed  Article  Google Scholar 

  32. 32.

    Opiro R, Akol M, Okello-Onen J: Ethnoveterinary botanicals used for tick control in the Acholi sub-region of Uganda. J Animal Vet Adv. 2010, 9 (22): 2951-2925.

    Google Scholar 

  33. 33.

    Deeba F: Documentation of ethnoveterinary practices in urban and peri-urban areas of Faisalabad (Pakistan). 2009, Faisalabad. Pakistan: MSc Hons Thesis. University of Agriculture

    Google Scholar 

  34. 34.

    Toyang N, Wanyama J, Nuwanyakpa M, Django S: Ethnoveterinary medicine: a practical approach to the treatment of cattle diseases in sub-Saharan Africa. 2nd edition. ISBN CTA: 978-92-9081-366-8. 200, Digigrafi, Wageningen, The Netherlands: Agromisa Foundation, 2

    Google Scholar 

  35. 35.

    Lans C, Turner N, Khan T, Brauer G, Boepple W: Ethnoveterinary medicines used for ruminants in British Columbia, Canada. J Ethnobiol Ethnomed. 2007, 3 (11): 1-22.

    Google Scholar 

  36. 36.

    Phondani P, Maikhuri R, Kala C: Ethnoveterinary uses of medicinal plants among traditional herbal healers in Alaknanda catchment of Uttarakhand, India. Afr J Trad Comp Alt Med. 2010, 7 (3): 195-206.

    CAS  Google Scholar 

  37. 37.

    Ole-Miaron O: The Maasai ethnodiagnostic skill of livestock diseases: a lead to traditional bioprospecting. J Ethnopharmacol. 2003, 84 (1): 79-83. 10.1016/S0378-8741(02)00283-0.

    CAS  PubMed  Article  Google Scholar 

  38. 38.

    Getahun A: Some common medicinal and poisonous plants used in Ethiopian folk medicine. 1976, []

    Google Scholar 

  39. 39.

    Lengkeek G: Diversity makes a difference. Farmers managing inter- and intra-specific tree species diversity in Meru, Kenya. 2003, The Netherlands: PhD Thesis, Wageningen University and Research Centre, Wageningen

    Google Scholar 

  40. 40.

    Zorloni A: Evaluation of plants used for the control of animal ectoparasites in the Southern Ethiopia (Oromiya and Somali Regions). 2007, South Africa: MSc Thesis. University of Pretoria

    Google Scholar 

  41. 41.

    Yirga G, Teferi M, Brhane G, Amare S: Plants used in ethnoveterinary practices in Medebay-Zana district, northern Ethiopia. J Med Plants Res. 2012, 6 (3): 433-438.

    Google Scholar 

  42. 42.

    Wasswa P, Olila D: The in-vitro ascaricidal activity of selected indigenous medicinal plants used in ethnoveterinary practices in Uganda. Afr J Trad Comp Alt Med. 2006, 3 (2): 94-103.

    Google Scholar 

  43. 43.

    Lagu C, Kayanja FIB: Livest Res Rural Dev 2010, 22, Article #200. Medicinal plant extracts widely used in the control of Newcastle disease (NCD) and helminthosis among village chickens of South Western Uganda. 2012, []

    Google Scholar 

  44. 44.

    Nalule AS, Mbaria JM, Olila D, Kimenju JW: Livest Res Rural Dev 2011, 23, Article #36. Ethnopharmacological practices in management of livestock helminthes by pastoral communities in the drylands of Uganda. 2012, []

    Google Scholar 

  45. 45.

    Sindhu Z, Iqbal Z, Khan M, Jonsson N, Siddique M: Documentation of ethnoveterinary practices used for treatment of different ailments in selected a hilly area of Pakistan. Int J Agric Biol. 2010, 12 (3): 353-358.

    Google Scholar 

  46. 46.

    Amenu F: Use and management of medicinal plants by indigenous people of Ejaji area (chelya woreda) west shoa, Ethiopia: An ethnobotanical approach. 2007, MSc Hons Thesis: Addis Ababa University, Ethiopia

    Google Scholar 

  47. 47.

    Mathewson M: The future of tick control a review of the chemical and non-chemical options. Prev Vet Med. 1984, 2: 559-568. 10.1016/0167-5877(84)90102-8.

    Article  Google Scholar 

  48. 48.

    Mbaria M, Maitho T, Mitema E, Muchiri D: Comparative efficacy of pyrethrum marc with albendazole against sheep gastrointestinal nematodes. Trop Anim Health Prod. 1998, 30 (1): 17-22. 10.1023/A:1005005208588.

    CAS  PubMed  Article  Google Scholar 

  49. 49.

    Moyo B: Determination and validation of ethno-veterinary practices used as alternatives in controlling cattle ticks by resource-limited farmers in the Eastern Cape Province. 2008, Determination and validation of ethno-veterinary practices used as alternatives in controlling cattle ticks by resource-limited farmers in the Eastern Cape Province, South Africa: MSc Thesis. University of Fort Hare, Alice, Department of Livestock and Pasture Science

    Google Scholar 

  50. 50.

    Moyo S: Alternative practices used by resource-limited farmers to control fleas in freerange chicken in the Eastern Cape Province, South Africa. 2009, MSc Thesis. University of Fort Hare: Alice, Department of Livestock and Pasture Science

    Google Scholar 

  51. 51.

    Hussain A: Evaluation of anthelmintic activity of some ethnobotanicals. 2008, University of Agriculture, Department of Parasitology: PhD Thesis

    Google Scholar 

  52. 52.

    Katunguka-Rwakishaya R, Nalule S, Sabiiti E: Indigenous knowledge in ethnoveterinary medicine in Southwest Uganda. Edited by: Teka T. 2004, Organisation for Social Science Research in Eastern and Southern Africa, Addis Ababa: Dryland Husbandry Project (DHP) Publication Series No.9, 9-35. ISSN 1608-8891

    Google Scholar 

  53. 53.

    Kumbi E: Use and conservation of traditional medicinal plants by indigenous people in Gimbi Woreda, Western Wellega. 2007, Ethiopia. MSc Thesis: Addis Ababa University, Ethiopia

    Google Scholar 

  54. 54.

    Githiori J: PhD Thesis. Swedish University of Agricultural Sciences, Uppsala, Sweden. Evaluation of anthelmintic properties of ethnoveterinary plant preparations used as livestock dewormers by pastoralists and small holder farmers in Kenya. 2004, Nairobi, Kenya: International Livestock Research Institute (ILRI)

    Google Scholar 

  55. 55.

    Gachathi F: Kikuyu botanical dictionary of plant names and uses. 1989, Nairobi; Kenya: AMREF

    Google Scholar 

  56. 56.

    ITDG and IIRR: Intermediate Technology Development Group. Ethnoveterinary medicine in Kenya: A Field Manual of Traditional Animal Health Care Practices. 1996, Nairobi, Kenya: International Institute of Rural Reconstruction

    Google Scholar 

  57. 57.

    Matekaire T, Bwakura M: Ethnoveterinary medicine: a potential alternative to orthodox animal health delivery in Zimbabwe. J Appl Res Vet Med. 2004, 2 (4): 269-273.

    Google Scholar 

  58. 58.

    Malla B, Chhetri R: Ethnoveterinary practices of some plant species by ethnic people of Parbat district, Nepal. Kathmandu Uni J Sci Eng Tech. 2012, 8 (1): 44-50.

    Google Scholar 

  59. 59.

    Seifu T: Ethnobotanical and ethnopharmaceutical studies on medicinal plants of Chifra district, Afar region. 2004, Addis Ababa, Ethiopia: North Eastern Ethiopia. MSc Hons Thesis. University school of graduate studies

    Google Scholar 

  60. 60.

    Mawela G: The toxicity and repellent properties of plant extracts used in ethnoveterinary medicine to control ticks. 2008, South Africa: MSc Thesis. University of Pretoria

    Google Scholar 

  61. 61.

    Kareru P, Kenji G, Gachanja A, Keriko J, Mungai G: Traditional medicines among the Embu and Mbeere peoples of Kenya. Afr J Trad Comp Alt Med. 2007, 1: 75-86.

    Google Scholar 

  62. 62.

    Hoffman B, Gallaher T: Importance indices in ethnobotany. Ethnobot Res Appl. 2007, 5: 201-218.

    Google Scholar 

  63. 63.

    Heinrich M, Ankli A, Frei B, Weimann C, Sticher O: Medicinal plants in Mexico: Healers' consensus and cultural importance. Soc Sci Med. 1998, 47: 1859-1871. 10.1016/S0277-9536(98)00181-6.

    CAS  PubMed  Article  Google Scholar 

  64. 64.

    Gerique A: An introduction to ethnoecology and ethnobotany theory and methods. 2006, []

    Google Scholar 

  65. 65.

    Mwale M, Bhehe E, Chimonyo M, Halimani TE: Use of herbal plants in poultry health management in the Mushagashe small-scale commercial farming area in Zimbabwe. Int J Appl Res Vet Med. 2005, 3 (2): 163-170.

    Google Scholar 

  66. 66.

    Mwale M, Gadzirayi TC, Mapiye C, Nemaunga M, Kuchenga MM, Mupangwa FJ: Use of ethnoveterinary medicine for the control of cattle parasites by smallholder farmers in Mutasa District, Zimbabwe. South Afr J Edu Sci Technol. 2007, 1 (2): 111-117.

    Google Scholar 

  67. 67.

    Pieroni A, Howard P, Volpato G, Santoro RF: Natural remedies and nutraceuticals used in ethnoveterinary practices in inland southern Italy. Vet Res Commun. 2004, 28: 55-80.

    CAS  PubMed  Article  Google Scholar 

  68. 68.

    Okoli CI, Tamboura HH, Hounzangbe-Adote SM: Ethnoveterinary medicine and sustainable livestock management in west Africa. Ethnoveterinary Botanical Medicine: Herbal Medicines for Animal Health. Edited by: Katerere RD, Luseba D. 2010, CRC Press Inc, 321-351.

    Google Scholar 

  69. 69.

    McCorkle CM, Martin M: Parallels and potentials in animal and human ethnomedical technique. Agric Human Values. 1998, 15: 139-144. 10.1023/A:1007482910691.

    Article  Google Scholar 

  70. 70.

    Köhler-Rollefson I, Bräunig J: Anthropological Veterinary: The Need for Indigenizing the Curriculum. In Proceedings of the Ninth International Conference of Institutions of Tropical Veterinary Medicine. held in Harare, Zimbabwe: from 14-18th September, 1998 on Animal health and production for development: Reorientation of the veterinary curriculum, Available at

  71. 71.

    Souto WMS, Mourão JS, Barboza RRD, Alves RRN: Parallels between zootherapeutic practices in ethnoveterinary and human complementary medicine in northeastern Brazil. J Ethnopharmacol. 2011, 134: 753-767. 10.1016/j.jep.2011.01.041.

    PubMed  Article  Google Scholar 

  72. 72.

    Amri E, Kisangau PD: Ethnomedicinal study of plants used in villages around Kimboza forest reserve in Morogoro, Tanzania. J Ethnobiol Ethnomed. 2012, 8: 1-10.1186/1746-4269-8-1.

    PubMed Central  PubMed  Article  Google Scholar 

  73. 73.

    Rukia AK: Use of medicinal plants for human health in Udzungwa mountains forests: a case study of new Dabaga Ulongambi forest reserve, Tanzania. J Ethnobiol Ethnomed. 2007, 3: 7-10.1186/1746-4269-3-7.

    Article  Google Scholar 

  74. 74.

    Chinsembu KC, Hedimbi M: An ethnobotanical survey of plants used to manage HIV/AIDS opportunistic infections in Katima Mulilo, Caprivi region, Namibia. J Ethnobiol Ethnomed. 2010, 6: 25-10.1186/1746-4269-6-25.

    PubMed Central  PubMed  Article  Google Scholar 

  75. 75.

    Abebe D, Ayehu A: Medicinal Plants and Enigmatic Health Practices of Northern Ethiopia. 1993, Addis Ababa, Ethiopia: B.S.P.E

    Google Scholar 

Download references


The author wish to acknowledge the financial and material support received from The Catholic Scholarship Programme (CSP) from Tangaza University College (A constituent University College of The Catholic University of Eastern Africa) to support this research. Special thanks go to all the staff members at the World Agroforestry Centre (ICRAF) offices located in Meru County and especially Mr. Silas Muthuri, the research assistant at the centre, for his assistance in plant identification in the field and helping in identifying key respondents. Our deepest gratitude goes to all the respondents interviewed during the survey study; the ethnopractitioners of Buuri district who while responding to our inquiry for information used in this research and throughout the guided field excursions, trusted us to share the treasured ethnoknowledge that is very often jealously guarded. These are the actual owners of the information submitted in this manuscript! We wish to thank the three reviewers of this manuscript most sincerely for reading the manuscript with passion and enthusiacism and making objective comments that helped our revision a great deal.

Author information



Corresponding author

Correspondence to Wycliffe Wanzala.

Additional information

Competing interests

The authors declare that they have no competing interests of any kinds and share the aspirations of the Meru people of central Kenya in their efforts to sustainably utilize and conserve their centuries’ old ethnoknowledge for future generations.

Authors' contributions

WW designed data collection outline, analyzed data and equally contributed to the write up of the manuscript. MMG came up with the project idea, collected data and equally contributed to the write up of the manuscript. All the authors read and approved the final manuscript.

Authors’ original submitted files for images

Rights and permissions

This article is published under license to BioMed Central Ltd. This is an Open Access article distributed under the terms of the Creative Commons Attribution License (, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

Reprints and Permissions

About this article

Cite this article

Gakuubi, M.M., Wanzala, W. A survey of plants and plant products traditionally used in livestock health management in Buuri district, Meru County, Kenya. J Ethnobiology Ethnomedicine 8, 39 (2012).

Download citation


  • Traditional animal healthcare
  • Livestock industry
  • Animal diseases
  • Plants and plant products
  • Meru people