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On-farm diversity, use pattern, and conservation of enset (Ensete ventricosum) genetic resources in southern Ethiopia



Enset is an important source of food and is consumed by about 25 million people as a staple or co-staple food crop mainly in southern parts of Ethiopia. Large numbers of enset landraces exist in different administrative zones of Ethiopia with a wide range of altitudes and agroclimatic zones. However, limited information is available on the diversity, distribution, and utilization pattern corresponding to the diverse ethnolinguistic as well as sociocultural communities of the country. Hence, this study was devised to explore and document the richness of farmers’ tradition and practice on the diversity and distribution of enset landraces on the farm level and selection pattern for different purposes regarding the production, utilization, and conservation of enset genetic resources.


The study was conducted in four major enset-growing administrative zones of Ethiopia, namely Hadiya, Kembata-Tembaro, Gurage, and Silte. A total of 240 farm households were surveyed using individual interviews, 18 key informant interviews, 36 focus group discussions with 5 participants, and direct on-farm field observations for data collection. Considering that enset has a rich cultural background and indigenous knowledge, ethnobotanical research approach was applied to data collection and analysis. The Shannon–Weaver, Simpson, Pielou, and Jaccard’s similarity indices were used to evaluate the diversity and similarity of the landraces as well as using descriptive statistics in SPSS Ver. 24. Preference in direct matrix ranking was also used to compute and rank the enset landraces most preferred by the people in the context of specific use value in the study area.


A total of 282 farmer-named enset landraces have been identified, with a range from 2 to 32 on individual homegardens. The largest number of landraces was found in the Hadiya Zone (86), while the lowest was scored in the Silte Zone (57). The Shannon diversity index (H') ranged from 3.73 (Silte) to 3.96 (Hadiya). Similarly, landraces revealed a very narrow range of variances in Simpson’s 1-D diversity index, and it ranged from 0.963 (Silte) to 0.978 (Hadiya). Likewise, the similarity index ranged from 0.24 to 0.73 sharing 16–47 landraces in common. Of the 282 landraces, 210 (74.5%) were recorded in more than one zones, whereas 72 (25.5%) had narrow distribution being restricted to a single zone.


Farmers have established long-term practices and experiences in cultivation, utilization, and conservation of a diverse group of enset landraces to fill their domestic and market purposes in each zone. The variation is likely to be related to agroclimatic differences, ethnicity factors, food cultures, and historical backgrounds. Therefore, to facilitate on-farm conservation as well as sustainable utilization of the enset genetic resources, farmers need to be supported by different stakeholders for all their worth and also in crop improvement programs.


Enset [Ensete ventricosum (Welw.) Cheesman] is a large perennial monocarpic herbaceous plant, similar to the banana in form, in the family Musaceae within the monocot order of Zingiberales [1]. E. ventricosum is domesticated, and the corm (short underground stem) and pseudostem (thick and soft midrib) are processed and consumed as a staple and co-staple food in the south and southwestern parts of Ethiopia [2]. Enset is distributed at altitudes between 1500 and 3100 masl and it is chiefly propagated vegetatively [3]. It is noted for its tolerance to environmental fluctuations, storability, and for its multiple uses that play a pivotal role in preventing famine [4, 5]. Moreover, enset in Ethiopia is arguably a very important crop contributing to food security and rural livelihoods for about 25% of the Country's population [2, 6, 7] with diverse ethnic and cultural backgrounds. Ethiopia is both the center of origin and center of diversity for enset and many other crops [8]. This diversity is maintained on-farm by farmers who also continue to diversify it through exchanging, sharing, and purchasing seedlings for cultivation. Genetic diversity for farmers means varietal diversity, which they can differentiate on the basis of agromorphological traits, phenological attributes, product quality, post-harvest characteristics, and differential adaptive performance under abiotic and biotic stresses [9,10,11].

Farmers have managed the diversity of enset landraces for centuries with limited or no research influences from outside [12, 13] being managed almost purely by indigenous knowledge and skills. Numerous landraces are grown for different uses and for the cultural requirements of the people at different sites of cultivation [14, 15]. Some prior studies indicate that numerous enset cultivars were identified in the south and southwest parts of Ethiopia and the observed genetic diversity in cultivated enset in a particular area appears to be related to the agroclimatic variation, the extent of enset cultivation, and the culture and distribution pattern of the different ethnic groups including the Gurage, Hadiya, Kembata, Silte, Wolaita, Dawuro, Ari, Kefa, Sheko, and many others [13, 16,17,18,19]. Farmers select enset landraces based on the quality and quantity of food products (the fermented scrapings known as qocho, the juice from the scrapings known as bulla, and the boiled corm known as amicho), rate of maturation, disease and drought tolerance, forage quality, medicinal value, ease of scraping, quality of corm, and productivity [17, 20, 21].

Understanding the diversity and distribution of enset is crucial for sustainably managing genetic resources and crop improvement efforts. Yemataw and co-workers [13] showed that the abundance and distribution of enset landraces in their study area exhibited substantial variances based on their use value and local naming and classification system. Some landraces, especially those with attributes of better quantity and quality of products, have a wider distribution both within and between zones.

Shigeta [22] described that different enset landraces are recognized in different growing areas of Ethiopia, the only country where it is grown as a food crop, and are being grown in mixtures. Each enset landrace as identified by farmers has its name that is commonly used across the areas inhabited by people that speak the same language (with possible dialects/cognate names within some languages) but is sometimes shared by adjacent ethnic groups [16, 17, 23]. Farmers differentiate one landrace from the other phenotypically by looking at the color of the petiole, midrib, leaf sheath, angle of leaf orientation, size, and color of leaves, and circumference and length of pseudostem [16, 17, 24, 25]. Hence, vernacular names are often descriptive and reflect variations of landraces in places of origin, morphology, as well as agronomic and cooking characteristics [12, 26]. However, in some cases there are similar landraces known by different vernaculars and there are also different landraces known by similar vernaculars and with similar phenotypic appearance [23, 27].

The high genetic diversity of enset warrants conservation, as it provides resilience to the enset farming system and thus food security for farming communities [13, 16, 18]. Enset plays a crucial economic role, providing higher production under low input conditions compared to other crops in Ethiopia [28,29,30]. It is a multipurpose crop and nearly every part of the plant has some sort of use as food and non-food [2, 31]. Farmers often say that enset is their food, their cloth, their house, their bed, their cattle feed, and their plate [2]. The major food types obtained from enset are qocho, bulla, and amicho. Furthermore, some enset varieties are used traditionally to cure bone fractures, birth problems, and diarrhea in humans [16, 25, 32].

Enset landraces are grown in homegardens with different local names and often with wide distribution and varietal diversity with implications to genetic diversity. For the sustainable utilization and on-farm conservation of its genetic resources as well as future improvement of the crop, understanding the sociocultural, ethnobotanical knowledge, farmers’ selection criteria, and retention practices of enset landrace diversity in different ethnolinguistic communities is vital. However, limited documentation (e.g., [16, 17], and [29]) is available concerning the on-farm varietal diversity, its distribution, and the pattern of uses in different zones or ethnic groups. Due to this, the present study helps to fill the knowledge gap concerning farmers’ traditional practice on enset cultivation and utilization in Hadiya, Kembata-Tembaro, Gurage, and Silte zones, the major enset production areas in southern Ethiopia. Therefore, this study aimed at documenting the richness of farmers’ ecological knowledge, tradition, and practices regarding the diversity and distribution of enset landraces on the farm level and the naming and selection criteria for different purposes concerning the production, utilization, and conservation of genetic resources.

Materials and methods

The study area and site selection

The study was conducted in four enset-growing administrative zones, namely Hadiya, Kembata-Tembaro, Gurage, and Silte of southern Ethiopia (Fig. 1). The zones are basically distinguished by distinct languages, cultural background, and farming systems and also named based on the name of the predominant ethnic group for that administrative location. The Hadiya and Kembata-Tembaro peoples speak a Cushitic language family, while the Gurage and Silte peoples belong to groups speaking the Semitic language family. Generally, the study zones are located between the great Ethiopian Rift Valley and Gibe-Omo River system and are bordered by the Oromia region to the north and east, and with Wolaita zone in the south. The zones are structured into different woredas, which are further organized into kebeles (the lowest administrative units in Ethiopia). The study woredas and kebeles were selected from each administrative zone based on enset diversity where prior information was obtained from the departments of agriculture of the respective zones and woredas (Table 1).

Fig. 1
figure 1

Location of the Southern Nations Nationalities and Peoples' Region (SNNPR) in the map of Ethiopia (left) and the four study zones in the SNNPR (right)

Table 1 Description of the studied areas, number of respondents, and altitude ranges

Sampling technique and sample size

For this study, a multistage sampling method was performed for the selection of individual enset-growing farmers in each zone. Of the four administrative zones, 12 woredas (three from each zone) were selected purposefully based on enset frequency of occurrence and production level. From each woreda, three kebeles were also chosen purposefully according to the information obtained from the agricultural office of each woreda. Therefore, a total of 36 kebeles were selected for data collection. From each kebele, six to seven individual farmers were selected randomly that make a total of 240 households (60 household heads from each zone) in the whole study sites.

Ethical consideration

The Microbial, Cellular, and Molecular Biology Department (Addis Ababa University) initially reviewed the study proposal. Following the approval, a supporting letter was written to the zonal administrative offices of the study area adhering to the existing national guidelines. As a result, each district/woreda official was informed of the study's objectives and wrote supporting letters to notify their respective kebele administrative offices. After obtaining the kebele leaders' permission, the investigator, local elders, and the agricultural extension workers of each kebele had a comprehensive discussion about the study's objectives and a schedule for the fieldwork and interview sessions. Following verbal informed consent of each informant, interviews and discussions were conducted to gather indigenous knowledge (non-clinical sample study) held by knowledgeable informed volunteers and participants about the on-farm diversity, use patterns, and traditional management practice of the enset crop.

Data collection

Both primary and secondary data collection methods were conducted to assess and document farmers’ local knowledge regarding on-farm diversity, distribution, and utilization of enset crops in the study area. Two rounds of data collection and field observation were conducted (the first round from June to September 2019 for preliminary observation and conducting the majority of interviews, and the second round from January to March 2020 for direct observation of field activities like planting and transplanting).

To develop semi-structured interviews, different kinds of discussion were conducted initially with three to four elder enset farmers in each zone to generate needed information to be collected in the study area. In-depth individual interviews were conducted together with trained agricultural extension workers, who are working closely with the communities in the respective selected kebeles in local languages (Hadiya, Kembata, Gurage, and Silte languages using a translator) and in the Amharic official language. The principal investigator can also communicate and understand three of the above-listed local languages; hence this made our work easier and the communication very smooth.

The farmers were also asked about their perception of names and naming systems. To obtain the detailed local knowledge of farmers in each zone, 4–5 key informants were also selected based on prior information obtained from woreda agricultural experts, agricultural extension workers of kebeles, elderly farmers, and local leaders. For the focus group discussions, from each of the selected woredas, about five participants were involved together with the members of the local administration, community elders, agricultural extension workers, and other members of participating communities. Additional data were also collected through, preference in direct matrix ranking by involving 12 key informants (three from each zone). Secondary data were also reviewed from the reports of the agricultural office of each zone, different books, research articles, and journals.

Data analysis

All listed landraces throughout the collection sites were checked for known synonyms or local names that refer to the same or different landraces in each study zone and woreda (district) with the help of knowledgeable senior farmers. Moreover, some minor dialect variations in naming landraces within the same ethnic group were not considered different and were disregarded in landrace authentication. However, landraces having the same names, but originating from different ethnic groups or zones, were documented as its. The collected survey data were analyzed using descriptive statistics (frequency, percentages, and average) in SPSS Ver. 24. The landrace richness, distribution, and abundance per homegarden were also calculated using Microsoft Excel 2010. Richness was computed to show the total number of landraces per homegarden based on data recorded in each administrative zone as this is a simple applicable biodiversity index to use and compare diversity in enset landraces. Abundance was determined as the total number of individual enset plants of each landrace per homegarden. Preference in direct matrix ranking was conducted to analyze the most preferred enset landraces, in the context of the four specific use values for the seven enset landraces. Twelve key informants participated in the arrangement of the values by giving the most favored enset landraces a score of 10, the least preferred enset a score of 1, 0 for the uses not known, and the others a score that fell somewhere in between. Based on the total scores obtained for each landrace, these values were then summed for all respondents and ranked.

Diversity and similarity indices of species can be quantified in different ways. In this study, the diversity indices were calculated from the number of landraces existing in 60 farmers’ homegardens within each zone. The Shannon and Weaver [33] and Simpson Index [34] was used to evaluate the landraces diversity. Both of them are widely used tools as a measure of heterogeneity [35], and these were calculated for all sample zones to explore enset diversity. Shannon–Weaver diversity index is the most popular measure of species diversity because it accounts both for species richness (numbers) and evenness, and it is not affected by sample size [36]. The resulting index is high when the relative abundance of the different species or landraces in the sample is even and is low when a few species or landraces are more abundant than the others. It was calculated using the formula: H′ =  − Σ pi ln pi[35], where pi is the proportional abundance of the ith landrace.

Even though Shannon’s index takes into account the evenness of the abundance of landraces, evenness (equitability) can also be computed separately. It is a measure of the proportion of the observed diversity for the maximum diversity expected and was calculated through the Pielou index [37] as the ratio, E = H′/H′max = H′/lnS, where: E is the evenness (equity) index; H′ = diversity; H’max is a maximum diversity; lnS, in which S refers to the number of landraces in each zone. The higher the value of E, the more even the species is in their distribution within the community or the plots. Similarly, the higher the value of H’, the more diverse the community or the plot is. A high evenness, resulting from all cultivars (landraces) having an equal abundance, is normally equivalent to high diversity [35].

Simpson’s diversity index (D) is a measure of diversity. It measures the probability that two individuals randomly selected from an area will belong to the same species [34] and hence, as D increases, diversity decreases. The index was, therefore, transformed as 1-D so that greater diversity corresponds to higher values: The formula for calculating D is presented as:

\(D = \frac{{\sum {ni\left( {ni - 1} \right)} }}{{N\left( {N - 1} \right)}}\), or (1-D) = 1 − {Σn (n − 1)/N (N − 1)} The value of this index ranges between 0 and 1; the greater the value, the greater the diversity, 1 represents infinite diversity and 0, no diversity. The index was computed for all study zones.

Sorenson similarity index was employed to assess differentiation or beta (b) diversity [35], and it compares the similarity of species (landrace) diversity among the study zones. The expected variation in landrace composition that exists between the study zones was computed using Sorenson’s similarity coefficient (Cs) [38].

$$Cs = 2J/a + b$$

where a is the number of landraces at zone A, b is the number of landraces at zone B, and J is the number of landraces common to both locations. Sorenson's similarity coefficient ranges in value from 0 (no similarity) to 1 (complete similarity).

Results and discussion

Socioeconomic characteristics of respondent households

A sample of respondents on socioeconomic characteristics is described in Table 2. Among the respondents, 82.1% of families were male-headed households, while only 17.9% were female-headed households. About 50.4% of the heads of households were between the ages of 45 and 65, while 25.4% of the respondents were over 65. Approximately 41% of respondents were illiterate, whereas 28.8% had informal education and could read and write. However, 51% of the respondents overall in the studied administrative zones who participated in the interview were female. They are knowledgeable enset cultivators who have a great deal of knowledge about planting, managing in the field, harvesting, and using enset products. They rely on enset products for most of their food needs, medical requirements, needs for fodder, and environments. They also gain benefits from the rich ecosystem of goods and services created by the enset agrosystem.

Table 2 Socioeconomic characteristics of respondent households

Extent of richness and diversity of enset landraces

In this study, we identified and recorded 282 locally named enset landraces in the Hadiya, Kembata-Tembaro, Gurage, and Silte zones of southern Ethiopia. Enset growers can easily distinguish one enset landrace from the other by observing the external (leaf structure, size, orientation, midrib color, and other) and internal features (leaf and midrib anatomy and fiber structure) of the enset plants, and they give distinct vernacular names for each landrace. Each local farmer in the studied area was observed cultivating a diverse of enset landraces in his or her homegarden, which shows a considerable variation in the number of enset landraces on individual homegardens. It ranges from two to thirty-two in this study (Table 2). According to farmers’ knowledge of local names: 86 enset landraces from Hadiya, 73 from Kembata-Tembaro, 66 from Gurage, and 57 from Silte were recorded. The highest and lowest number of landraces per homegarden was documented in Hadiya and Silte zones, respectively (Table 3). In comparison with earlier reports, a relatively larger number of landraces have been identified in this study. The literature shows that Tsegaye [17] recorded 146 different enset landraces including 59 from Hadiya, 55 from Wolaita, and 52 from Sidama while Negash [16] reported the same total number including 65 from Kefa-Sheka, 30 from Sidama, 45 from Hadiya and 6 from Wolaita. Likewise, Birmeta [18] described 111 enset landraces from nine enset-growing localities of Ethiopia that contrasted with the findings of the present study as in some other previous studies. For instance, Yemataw et al. [13] and Zeberga et al. [19] described the same numbers of (312) different enset landraces from eight ethnic groups, out of these 69 from Silte, 66 from Kembata-Tembaro, 63 from Gurage, and 51 from Hadiya. Furthermore, Yemataw et al. [24], who described 218 different enset landraces from seven zones, came up with 59 landraces from Hadiya, 43 from Kembata, 41 from Dawuro, 39 from Wolaita, 34 from Gamo Goffa, 31 from Gurage, and 30 from Sidama. Some of these values are slightly comparable to the findings of the present study but such records are impossible to make a direct comparison of the number of enset landrace diversity with the results of the current study due to variations in the method and size of the sampling area. However, in most cases, the richness of enset landraces recorded in the current study is far higher than the reports of the previous studies which is likely to be related to the rigor and intensity (including the sampling frame) as well as the knowledge of the men and women informants that participated in the present study. The number of enset landraces in the present study could be attributed to the technique of sampling, the area the study covered, and the nature of the agroecological condition of the study area, which embraces midland and highland that is suitable for enset cultivation. Moreover, the study zones like Hadiya are bordered by all the other study zones, so the exchange and earning of suckers are common traditions among farmers. In the same manner, Tsegaye [17] and Yemataw et al. [24] stated that the exchange of enset landraces from the neighboring ethnic groups perhaps contributed to the richness of enset landrace diversity in Ethiopia.

Table 3 Enset landrace diversity in the four administrative zones, richness, Simpson (1-D), Shannon (H') diversity indices, and evenness (E)

The Shannon diversity index (H′) ranged from 3.73 (Silte) to 3.96 (Hadiya), this signifies the existence of a high richness of enset landraces in the study zones. Even though zones varied in richness, they revealed a very narrow range of variances in Simpson’s 1-D and evenness indices. The Simpson’s 1-D ranged from 0.963 (Silte) to 0.978 (Hadiya) and evenness indices ranged from 0.89 to 0.92. All these results specify the presence of high enset landraces diversity in these four zones (Table 3). This finding is in line with earlier reports [13, 19]. According to [39], the value of a diversity index increases when both richness and evenness increase and is maximized when all species are nearly equally abundant. In biodiversity studies, Shannon diversity indices (H′) typical values range between 1.5 and 3.5 and the index is rarely greater than 4 [40]. The higher the value of H′, the more diverse the communities, and the Shannon index increases as both the richness and evenness of the communities increase.

Similarities and differences of enset landraces diversity among zones

The similarity among pairs of zones (taking two zones at a time) concerning farmers-named landraces was evaluated using Sorenson’s similarity index (Table 4). Generally, the similarity index ranged from 0.24 to 0.73, and the number of commonly shared landraces varied from 16 to 47. Hadiya and Kembata-Tembaro were the most similar zones, followed by Gurage and Silte about enset landraces (Table 4). Hadiya also shared 38 and 35 enset landraces with Gurage and Silte zones, respectively. This high sharing of enset landraces among zones may be due to sociocultural and linguistic similarities, and geographical locations. For instance, Hadiya is bordered by all study zones, so the informal exchange of enset suckers from the adjacent zones possibly contributed to the highest similarity of enset landrace diversity among zones in the present study. This agrees with the work of [19] and [24], who reported the existence of a high amount of sharing similar enset landraces among Hadiya and Kembata, Gurage and Silte, and Wolaita and Dawuro zones of Ethiopia. On the other hand, pairs of zones with relatively least similarity were Kembata-Tembaro and Silte, and Gurage and Kembata-Tembaro 0.24 and 0.25 for each pair, respectively. This may be due to the geographical distance between the two zones and also variations in sociocultural factors.

Table 4 Enset landraces shared (bold) and Sorensen similarity indices between pairs of zones

Distribution and abundance of enset landraces

Distribution of the enset landraces throughout the study sites varied across zones. Out of 282 enset landraces recorded, 15 (5.3%) were widely distributed in all four zones. These were Agade, Astara, Bededete/Badade, Gimbo/Gimbuwa, Heniwa/Hiniba/Enba, Kasete, Manduluqa/Mande, Mariye, Merza, Mesmesia, Moche, Separa/Sebera, Torora/Xorore, Weshemeja and Zobira (Table 4). Similarly, 33 (11.7%) farmers’ named enset landraces were commonly cultivated and found in three (Hadiya, Gurage, and Silte) out of four zones (Table 4). Likewise, 72 (25.5%) of the enset landraces had a narrow distribution and were specific to a single zone (Table 4). But the remaining 210 (74.5%) were recorded in more than one administrative zone. The finding of this study was in line with the previous study of [17, 19], and [24] from the same or different zones in Ethiopia.

The abundance of enset landraces also differed among the study zones in addition to their distribution. Few enset landraces such as Gimbo, Hiniba, and Separa were relatively high in abundance at all four study zones. Agade, Bedededa, and Zobira were also other most frequent enset landraces in three out of the four zones (Table 5). Some landraces were well encountered in two zones but virtually absent from the other study zones. For example, Sisqella and Gishira were the most abundant landraces of the enset homegardens visited in Hadiya and Kembata-Tembaro zones but were almost absent or rare in other zones. Moreover, some landraces such as Abatemerza, Degomerza, Dirbo, and Unjame in Kembata-Tembaro, Amerate and Lemat in Gurage, Shewrad in Silte, Disho, and Bequcho in Hadiya zones were dominant but outside these zones, they were found with a low abundance. A similar observation was reported by [13] and [19], they indicated that landrace Agade in Silte, Amerate in Gurage, Shododenia in Dawuro, and Addo and Genticha in Sidama encountered a high local abundance at each studied zones. This may be due to the environmental adaptability of the landraces or/and different attributes of farmers. Negash [16] and Tsegaye [17] also reported that enset landrace diversity and distribution were influenced by factors such as household resources, cultural background, population pressure, and agroecology. Enset landraces, namely Manduluqa, Mariye, Mesmesia, Moche, and Torora, described in this study were found in a limited number of homegardens but widely spread in each zone. In the same manner, [13] and [19] indicated that household features, the distance between locations, and ethnic preference contribute to the landrace diversity and abundance.

Table 5 List of farmers-named landraces and their richness in the four administrative zones

Diverse local names of the enset landraces among zones

The local names of enset (Ensete ventricosum) and its different growth stages vary from one ethnic group to another. Enset is called wessa in Hadiya and Kembata-Tembaro, wesse in Silte, and aset in Gurage. Moreover, each growth (transplanting) stage has a distinct name by which it is identified. The Hadiya and Kembata-Tembaro farmers share almost the same local names for all sucker stages. These are known as dubbo, simma, ero/kiniba, and balwesa, but in Silte 1 -and 2-year-old suckers are called bosho and daporo, respectively, and the other two stages are nearly similar to the Hadiya and Kembata-Tembaro zones (Fig. 2a–d). In Gurage, 1-year-old sucker is fonfo, but the second and third stages are named the same as other studied zones.

Fig. 2
figure 2

Examples of the main enset propagation stages and its end products: a mother corm; b multiple suckers from mother corm; c young enset ready to give mother corm and transplanted to permanent field; d matured enset; e mass of processed product; f and g example of dishes that prepared from the primary products

According to the interviewed farmers, the same enset landraces are sometimes known by different names in different administrative zones (Table 6). In this study, 11 farmer-named landraces identified with the help of knowledgeable farmers in each zone indicated that the same enset landraces were known by different names in the other studied zones (Table 6). The role of knowledgeable men and women enset farmers was so critical in this research since they are experts in the landrace identification and description of ethnobotanical methodology. The landrace names given by enset farmers mostly reveal distinct morphological appearances or other culinary characteristics such as taste or use values (data not shown). Each ethnic group has its series of local names for enset landraces. For example, the landrace Shate in Hadiya, and Shirteye in silte and Gurage are the same landrace with different local names often representing the bitter-tasting characteristics of all its parts. Enset landrace Xiggo in Hadiya, called Qeqile-nech in Kembata-Tembaro, is well known to the enset farmers as its bleeding (red liquid) when parts are cut. The origin of certainly cultivated enset is evident from the name. One such example in this study is Kembat which may be originated from Kembata; however, its name in Kembata-Tembaro and Hadiya is called Disho (Table 6).

Table 6 Different local (vernacular) names for the same enset plants within or among zones

In addition, according to farmers, some landraces were named based on the color of pseudostem and leaf (Bushawese in Silte meaning red enset), but this landrace in Hadiya is given the name Meqelwesa, meaning placental enset, which is related to use characters. Similarly, landraces Soqido is salt (taste of boiled corm or amicho) in Hadiya while in Silte and Gurage it is Kemele meaning Ape (maybe the color of the pseudostem or petiole) (Table 6). In general, this is observed due to the use of various local names in the different communities of the study area, having their specific characters and method of perceiving by the local farmers. Based on key informants' responses and focus group discussion, some cultivated enset landraces were named with minor or slight dialect differences forms in the local names among study zones. Those include landraces: Gimbo/Gimbuwa, Hiniba/Heniwa/Enba, Jegirada/Z’girad, Hyro/Ahiro, Qibnare/Qinare/Qiniwara, and Guary/Gariya. This reveals that sometimes the same landraces are often known by different names in different or the same regions. The method of the naming of landraces as indicated by farmers in our study is also similar to what has been reported in other enset-growing zones. For instance, [12, 15], and [22] reported that the naming criteria of some enset landraces in the Wolaita, Sidama, and Ari respectively, are mostly based on morphological and agronomic traits, place of origin, various uses, and culinary attributes. In the study areas, farmers use their local language in everyday speech and communication in each zone. There are numerous enset landrace names and synonyms in these different languages and dialects were recorded throughout the study zones (Table 5). For instance, in this study 15 identically named enset landraces were identified from all four studied zones. In the same manner, three zones (Hadiya, Silte, and Gurage) commonly share 33 of the same named enset landraces in the present study. A similar observation was notified by [12, 13], and [15], they also described the existence of identically named enset landraces in more than one ethnolinguistic community. This may occur due to getting the enset planting materials and a long-lasting practice of farmers in sharing with their respective landrace names from adjacent administrative zones. Similarly, [12] stated the presence of 'borrowed' landrace names between ethnolinguistic groups. Similar trends were also observed in different traditional crops such as sorghum [11], banana [26], sweet potato [27], cassava [41], and common bean [42, 43]. Our study has also shown that enset growers sometimes delivered various names for the same landrace within the zones. For instance, the landrace named Ayase is known as Hella in Hadiya Duna woreda, Qombotira is called Asheqit in Silte, and also Gegered is known as Heniwa in Endegegn woreda of Gurage zone. Bareke et al. [42] and Abera et al. [43] also reported similar results from Ethiopia for common beans. Likewise, the different names for the same enset landrace also exist among zones (e.g., Disho in Hadiya and Kembata-Tembaro is known as Kembat in Silte and Gurage, Tem-wese in Silte is also called Xebere in Kembata-Tembaro or Qebere in Hadiya) (Table 6). Moreover, the names of some enset landraces have the same meaning but it was locally known with different folk names throughout study zones. For instance, Xiggo in the Hadiya, Dem-worad in the Silte and Demyetertqey in the Gurage refer to bleeding because of exuding red fluid when any part of the enset is cut. This is similar to the findings of [43] who found that common bean producers provided different names in terms of seed color in two areas but the names have the same meaning.

Pattern of use and management practices undertaken by farmers

Traditionally, farmers in the study area were familiar with the utilization and management of enset from earlier generations to meet their food, drug, and other requirements. In the study area, all enset landraces were primarily cultivated for food and feed use, except landrace Meqelwesa or Qeqile-qey which was rarely used as food. This landrace is one of the most traditionally preferred medicinal enset landraces recommended for human and cattle ailments (Table 7). Based on the information we acquired during the individual interview and focus group discussion, enset farmers preferred landraces with early maturity and vigorous growth, easily harvestable, early fermenting, high qocho and bulla yielding, and good cooking qualities. In addition, in all four zones, generally, multi-use enset landraces were highly chosen and more cultivated than specific-use landraces. However, in some situations, there was regional or ethnic preference across the study zones.

According to a result of the key informants ranking from the five commonly shared and the other two, Gimbo became the first, Separa the second, and Agade the third most preferred enset landraces for their qocho and bulla quality; Astara and Agade scored the highest points for both their amicho (cooked corm) tasty and medicinal value, and Sisqella, Bededede, and Gimbo stood first to third, respectively for their fiber quality (Table 8). For instance, extracting bulla from other harvested masses of enset (Fig. 2e) in Gumer woreda of Gurage zone by women is not common practice, unlike other woredas and zones. But they purchase it from other adjacent woreda markets for different purposes. In the same pattern, the use and production of fiber, which is another enset product obtained from the decorticating of petiole and pseudostem are decreasing in most of the studied zones. Because it employs a traditional production method that requires more time and labor. In addition, nowadays most of the traditional fiber-made products are replaced by other plastic materials. However, some enset farmers in Hadiya and Kembata-Tembaro preferred more droughts tolerant and high fiber quantity and quality (Table 9) in addition to qocho and bulla yield, while those in Gurage and Silte favored easy harvesting and processing, early fermenting, and less fibrous landraces (Table 10). The present study also indicated that there were slight differences in terms of perceiving enset end-users across the study zones.

Table 7 Enset landraces selected for medicinal purposes
Table 8 Preference in direct matrix ranking of five commonly shared and other two localized enset landraces cultivated in southern Ethiopia
Table 9 Enset landraces selected for strong and long fiber
Table 10 Enset landraces selected by farmers for amicho

Moreover, interviewed farmers in Kembata-Tembaro grouped enset landraces into two major sex categories: female enset and male enset. The division of male and female is not linked to biological reproduction but it is based on perceived features of the landraces. The female groups are known for ease of decorticating, early fermentation, corm palatability, more susceptibility to different diseases, and low strength of fiber whereas the male groups contrast to these characteristics. In contrast, farmers in Hadiya, Gurage, and Silte did not tend to classify enset plants into sex designation. Tsegaye [17] also reported the relationship to the difference in food culture, sociocultural preferences for different enset products, and farming systems of the regions. Similarly, [44] described the influence of cultural background on plant species diversity and the uses of plant species for different purposes. Enset landrace diversity within the same and different cultural groups nicely demonstrates that cultural needs and requirements are key factors in the diversification of crop varieties. In particular, the unique landraces recorded in the different ethnic communities indicate the origin and maintenance of those landraces by specific ethnic groups because they need them for their food, medicine, and other uses.

According to the farmers' report, we identified a total of 32 landraces which were applied in different proportions by each ethnic group: 10 in Hadiya, 9 in Silte, 7 in Kembata-Tembaro, and 6 enset landraces in Gurage as traditionally medicinal use to treat various health problems in human and cattle (Table 7). Out of the total listed, 12 medicinally used enset landraces shared the identical name in at least two zones, so the total number decreased to 20. Landrace like Astara mentioned by the farmers is an example of enset that has multiple uses of traditional medicinal purposes in the all study area. Furthermore, landraces such as Qinare/Qiniwara, Gishira, Guary, Xessa, Hayiwona, and Agade were also the most frequently used medicinal enset present in homegardens of two or more ethnic communities (Table 7). On the other hand, some medicinal landraces (Cherquwa and Wolegella) were identified as having narrow distribution in the study zones. However, in some cases the same kinds of enset are known with alternative local names used as medicines for different problems among the study communities (Table 7).

For instance, landrace Xiggo in Hadiya is mainly traditionally used to treat kidney and liver problems, whereas the same variety with different names (Qeqile-nech in Kembata and Dem-worad in Silte) quoted by many farmers to remove the delayed placenta and for aborification (used to cause/facilitate abortion) purposes (Table 7).

This may be due to each ethnic community having its ways, practice, and beliefs to utilize enset plants. All of the traditionally medicinal enset landraces were also selected for sweet amicho (cooked corm) production except landraces Gishira, Dare, and Bedededa. In the same manner, the most chosen part of enset for medicinal use was corm but the landrace Meqelwesa (in Hadiya) or Qeqile-qey (in Kembata) were all part used as traditional medicine. In some cases, farmers also used cooked qocho or porridge prepared from bulla to treat different health problems in the study zones (Fig. 2f and g). In terms of connection to the ailments shared by the farmers and the medicinal enset landraces used in their treatment, we observed that bone fracture, swelling of the pus and to expel the delayed placenta from humans and cattle were the most shared health problems in the study area and among the communities. We observed that some ethnic groups (e.g., Silte and Gurage, Hadiya and Kembata-Tembaro) share more medicinal enset landraces and show greater similarity in patterns of using enset crop (Table 7). In the same manner, [44] stated that intercultural sharing may be explained by the pharmacological effectiveness of shared medicinal plants among ethnic groups.

Most enset-growing farmers in the study area are familiar with maintaining and use of their different preferred landraces to stabilize many situations over a long period without external support and inputs of planting materials. Farmers in the study zones frequently produce their planting materials or suckers from homegardens but few farmers obtain them freely from neighbors, family, and friends as a gift or by purchasing from other farmers. This was in line with the reports of [7, 13].

During our discussions with farmers and field observation, we observed that in two local markets: Alicho in Silte and Gumer in Gurage zones, enset suckers were purchased from January to April. These two sites are situated at a higher altitude than other studied woredas (Table 1). Moreover, some elder farmers mentioned that enset cultivation practice and its distribution into their woreda and villages relatively late than others. They said that “We haven’t been familiar with enset production and managing before 65 years ago.” To some extent, this verifies that enset farming systems in the studied area are not equally and uniformly experienced within and among communities. Enset cultivation and use culture has been gradually and slowly moving to the peripheral areas from region to region, from zone to zone, and from district to district due to farmer “experimentation” and horizontal transfer of indigenous knowledge. In a similar vein, [2, 5], and [18] indicated that the distribution of cultivated enset in Ethiopia appears to be expanding, especially after periods of devastating famines of the 1980s, when people in other regions learn about the benefits of this crop and attempt to incorporate it into their farming system. They have also shown that enset moves some inches into the Oromia region and this is observed in southwest Shewa and southeast Arsi and may be in the western part of Bale. Negash [16] also noted that during the drought period, many farmers migrated from their villages to as far away in search of food, and there they learned about enset production. When they came back to their homesteads, they introduced enset. Furthermore, [45] and [46] show that smallholder farmers expand the production area of the perennial crop enset as a climate coping strategy in a drought-prone indigenous agrisystem.

Farmers in the studied area maintain great enset landraces diversity within traditional cultivation and production systems insight toward meeting domestic subsistence requirements. Yemataw et al. [13] also described that farmers observe and select the landraces based on their planting intentions for the coming year than the proportion to the quantity they have. The on-farm maintenance of biodiversity requires understanding by the farmer of how specific varieties should be grown, stored, and maintained to maximally realize the characteristics these farmers value [47].


This study provides information on enset landraces existing in four major enset-producing administrative zones of Ethiopia based on local farmers-named landraces in each of the zones. The results obtained from this study indicate that farmers have developed diverse practices and experiences over time to cultivate, utilize, and conserve a great extent of enset landraces in each zone. In addition, they understand the need to grow a mixture of enset landraces as this can have roles in the socioeconomic and cultural life of communities. Our results have revealed that out of the cultivated enset landraces, a small proportion of landraces were widely distributed and abundant throughout the study zones. However, a larger number of landraces were highly localized in one or two studied zones and less distributed in other zones. Our study also confirms that farmers can differentiate their enset landraces by using their different local names. In this context, some enset landraces were commonly known and referred to by the same local names in all studied zones by different farmers. In contrast, enset of the same landraces were named differently by different farmers within and among studied zones. Moreover, results from this study also show that enset farmers have developed their way of selecting and characterization of landraces with some slight differences among them in terms of use patterns based upon their traditions and cultures in the study areas. Based upon the results of this study, the on-farm diversity existing in these landraces needs to be studied in detail (e.g., molecular characterization) for duplicates identification and clarification of synonymies, and to facilitate their on-farm conservation as well as sustainable utilization of enset farming communities and also in its improvement programs. A new study shows that frequent severe drought events led to an increase in enset production areas in Ethiopia. Indigenous staples are “saviors” during difficult times. This is why national investment in their conservation, improvement, and value addition is necessary for a changing climate.

Availability of data and materials

All data generated or analyzed during this study are included in this manuscript.


  1. Borrell JS, Biswas MK, Goodwin M, Blomme G, Schwarzacher T, Heslop-Harrison JS, Wendawek AM, Berhanu A, Kallow S, Janssens S, Molla EL, Davis AP, Woldeyes F, Willis K, Demissew S, Wilkin P Enset in Ethiopia: a poorly characterized but resilient starch staple. Ann Bot. 2019;123(5):747–766.

  2. Brandt S, Spring A, Hiebsch C, McCabe S, Tabogie E, Diro M, Welde-Michael G, Yentiso G, Shigeta M, Tesfaye S. ‘‘The Tree Against Hunger’’: enset-based agricultural systems in Ethiopia. American Association for the Advancement of Science,Washington; 1997.p.56.

  3. Abebe T. Diversity in home garden agro forestry systems of southern Ethiopia. PhD dissertation, Wageningen University; 2005. p. 143.

  4. Westphal E. Agricultural systems in Ethiopia. Wageningen, The Netherlands: Center for Agriculture Publishing and Documentation; 1975. p. 278.

    Google Scholar 

  5. Borrell JS, Goodwin M, Blomme G, Jacobsen K, Wendawek A, Gashu D, Lulekal E, Asfaw Z, Demissew S, Wilkin P Enset-based agricultural systems in Ethiopia: A systematic review of production trends, agronomy, processing and the wider food security applications of a neglected banana relative. Plants People Planet. 2020;2(3):1–17.

  6. Stanley S. Enset in Ethiopian economy. Ethiop Geogr J. 1996;4:30–7.

    Google Scholar 

  7. Blomme G, Jacobsen K, Tawle K, Yemataw Z. Agronomic practices with a special focus on transplanting methods for optimum growth and yield of enset [Ensete ventricosum (Welw.) Cheesman] in Ethiopia. Fruits. 2018;73(6):349–55.

    Article  CAS  Google Scholar 

  8. Vavilov NI. The origin, variation, immunity and breeding of cultivated plants. Chron Bot. 1951;13:1–366.

    Google Scholar 

  9. Sthapit BR, Joshi KD, Witcombe JR. Farmer participatory crop improvement. III: Participatory plant breeding; a case study for rice in Nepal. Exp Agric. 1996;32:479–96.

    Article  Google Scholar 

  10. Brush B, Meng E. Farmers’ valuation and conservation of crop genetic resources. Genet Resour Crop Evol. 1998;45:139–50.

    Article  Google Scholar 

  11. Timu A, Mulwa R, Okello J, Kamau M. The role of varietal attributes on adoption of improved seed varieties: the case of sorghum in Kenya. Agric Food Secur. 2014;3:9.

    Article  Google Scholar 

  12. Olango T, Tesfaye B, Marcello C, Mario E. Indigenous Knowledge, use and on-farm management of Enset (Ensete ventricosum (Welw) Cheesman) diversity in Wolaita, Southern Ethiopia. J Ethnobiol Ethnomed. 2014;10:41.

    Article  Google Scholar 

  13. Yemataw Z, Tesfaye K, Zeberga A, Blomme G. Exploiting indigenous knowledge of subsistence farmers for the management and conservation of enset (Ensete ventricosum (Welw.) Cheesman) (musaceae family) diversity on-farm. J Ethnobiol Ethnomed. 2016;12:34.

    Article  Google Scholar 

  14. Zippel K. Diversity over time and space in enset landraces (Ensete ventricosum) in Ethiopia. In: Huber BA, Sinclair BJ, Lampe K, editors. African Biodiversity Molecules Organisms Ecosystems. Bonn, Germany: Springer; 2005. p. 423–38.

    Google Scholar 

  15. Tesfaye B. On Sidama folk identification, naming, and classification of cultivated enset (Ensete ventricosum) varieties. Genet Resour Crop Evol. 2008;55:1359–70.

    Article  Google Scholar 

  16. Negash A. Diversity and conservation of enset (Ensete ventricosum (Welw.) Cheesman) and its relation to household food and livelihood security in South-western Ethiopia, PhD dissertation. The Netherlands: Wageningen University; 2001. p. 247.

  17. Tsegaye A. On indigenous production, genetic diversity and crop ecology of enset (Ensete ventricosum (Welw.) Cheesman), PhD dissertation. The Netherlands: Wageningen University; 2002. p.197.

  18. Birmeta G. Genetic variability and biotechnological studies for the conservation and improvement of Ensete ventricosum. Alnarp: PhD dissertation, Swedish University of Agricultural Sciences; 2004. p. 91.

  19. Zeberga A, Yemataw Z, Sinebo W, Musemil S, Ambachew D. On farm cultivar diversity of Enset (Ensete ventricosum W.) in Southern Ethiopia. J Agric Dev. 2014;4(1):63–85.

    Google Scholar 

  20. Alemu K, Sandford S. Enset clone. In: Abate T, Hiebsch C, Brandt S, Geberemariam S, editors. Enset-based sustainable agriculture in Ethiopia. Institute of Agricultural Research: Addis Ababa; 1996. p. 138–48.

    Google Scholar 

  21. Yemataw Z, Tesfaye K, Grant M, Studholme DJ, Chala A. Multivariate analysis of morphological variation in enset (Ensete ventricosum (Welw.) Cheesman) reveals regional and clonal variation in germplasm from south and south western Ethiopia. Aust J Crop Sci. 2018;12(12):1849–58.

    Article  Google Scholar 

  22. Shigeta M. Folk in situ conservation of enset (Enset ventricosum (Welw.) Cheesman): Towards the interpretation of indigenous agricultural science of the Ari, southewestern Ethiopia. Asia Afr Area Stud. 1990;2:1–25.

  23. Tabogie E. Morphological characterization of enset (Ensete ventricosum (Welw.) Cheesman) clones and the association of yield with different traits. MSc., Thesis, Alemaya University, Alemaya, Ethiopia; 1997. p. 89.

  24. Yemataw Z, Hussein M, Diro M, Temesgen A, Guy B. Enset (Ensete ventricosum) clone selection by farmers and their cultural practices in southern Ethiopia. Genet Resour Crop Evol. 2014;61(6):1091–104.

    Article  Google Scholar 

  25. Nuraga GW, Feyissa T, Tesfaye K, Demissew S, Tadele Z. Phenotypic diversity of enset (Ensete ventricosum (Welw.)Cheesman) landraces used in traditional medicine. Genet Resour Crop Evol. 2019;66(8):1761–772.

  26. Hapsari L, Kennedy J, Lestari DA, Masrum A, Lestarini W. Ethnobotanical survey of bananas (Musaceae) in six districts of East Java, Indonesia. Biodiversitas. 2017;18:160–74.

    Article  Google Scholar 

  27. Glato K, Aidam A, Kane NA, Bassirou D, Couderc M, Zekraoui L, Scarcelli N, Barnaud A, Vigouroux Y. Structure of sweet potato (Ipomoea batatas) diversity in West Africa covaries with a climatic gradient. PLoS ONE. 2017;12(5): e0177697.

    Article  CAS  Google Scholar 

  28. Shank R, Chernet E. A linear model for predicting Enset plant yield and Assessment of kocho production in Ethiopia. World Food Programme, Emergencies Unit for Ethiopia, Addis Ababa, Ethiopia; 1996.

  29. Woldetensaye A. The ecology and production of Enset ventricosum in Ethiopia. PhD dissertation, Swedish University of Agricultural Sciences, Uppsala; 1997. p. 129.

  30. Tsegaye A, Struik PC. Analysis of enset (Ensete ventricosum) indigenous production methods and farm-based biodiversity in major enset growing regions of Southern Ethiopia. Exp Agric. 2002;38:292–331.

    Article  Google Scholar 

  31. Daba T, Shigeta M. Enset (Ensete Ventricosum) production in Ethiopia: its nutritional and socio-cultural values. Agric Food Sci Res. 2016;3(2):66–74.

    Google Scholar 

  32. Tsehaye Y, Kebebew F. Diversity and cultural use of (Enset Ventricosum (Welw.) Cheesman) in Bonga in situ Conservation Site. J Plant People Appl Res Ethno Bot Res Appl. 2006;4:147–57.

    Google Scholar 

  33. Shannon C, Weaver W. The mathematical theory of communication. Urbana: University of Illinois; 1949. p. 117.1.

    Google Scholar 

  34. Simpson E. Measurement of diversity; 1949. 163: 688.

  35. Magurran AE. Ecological diversity and its measurement. London: Croom Helm; 1988. p. 125.

    Book  Google Scholar 

  36. Krebs C. Ecological methodology. Menlo Park, California: Addison-Wesley Educational Publishers; 1999. p. 620.

    Google Scholar 

  37. Pielou EC. Ecological diversity. New York: Wiley; 1975. p. 165.

    Google Scholar 

  38. Sorensen TA. A method of establishing groups of equal amplitude in plant sociology based on similarity of species content and its application to analyses of the vegetation on Danish commons. K Dan Vidensk Selsk Biol Skr. 1948;5(4):1–34.

    Google Scholar 

  39. Rosenzweig, M. Species Diversity in Space and Time. New York: Cambridge University Press. An overview and analysis of the geography of species richness, especially species area relations; 1995.

  40. Magurran A. E. Measuring Biological Diversity. Oxford: Blackwell Publishing. The standard reference for conceptual and quantitative aspects of diversity measurement; 2004.

  41. Nakabonge G, Samukoya C, Baguma Y. Local varieties of cassava: conservation, cultivation and use in Uganda. Environ Dev Sustain. 2018;20:2427–45.

    Article  Google Scholar 

  42. Bareke T, Asfaw Z, Woldu Z, Medvecky B, Amssalu B. Diversity of common bean (Phaseolus vulgaris L. Fabaceae) landraces in parts of southern and eastern Ethiopia. Adv Plants Agric Res. 2018;8(6):449–57.

    Article  Google Scholar 

  43. Abera B, Berhane M, Nebiyu A, Ruelle ML, McAlvay A, Asfaw Z, Tesfaye A, Woldu Z. Diversity, use and production of farmers’ varieties of common bean (Phaseolus vulgaris L., Fabaceae) in southwestern and northeastern Ethiopia. Genet Resour Crop Evol. 2020;67(2):339–56.

    Article  CAS  Google Scholar 

  44. Kujawska M, Hilgert NI, Keller HA, Gil G. Medicinal plant diversity and inter-cultural interactions between indigenous Guarani, Criollos and polish migrants in the subtropics of Argentina. PLoS ONE. 2017;12(1): e0169373.

    Article  CAS  Google Scholar 

  45. Satori D, Tovar C, Faruk A, Hammond Hunt E, Muller G, Cockel C, Kühn N, Leitch IJ, Lulekal E, Pereira L, Ryan P. Prioritising crop wild relatives to enhance agricultural resilience in sub-Saharan Africa under climate change. Plants People Planet. 2022;4(3):269–82.

    Article  Google Scholar 

  46. Chase RR, Bûchi L, Rodenburg J, Roux N, Wendawek A, Borrell JS. Smallholder farmers expand production area of the perennial crop enset as a climate coping strategy in a drought-prone indigenous agrisystem. AgriRxiv. 2022.

    Article  Google Scholar 

  47. Wale E, Drucker A, Zander K. The Economics of Managing Crop Diversity On-farm: case studies from the genetic resources policy initiative; 2011. p. 157.

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The authors would like to thank the Department of Microbial, Cellular and Molecular Biology, Addis Ababa University (AAU), Ethiopia, under whose PhD program the research was undertaken. We also thank enset-producing farmers in the surveyed kebeles for their participation and willingness to share all necessary information and knowledge on the different aspects of enset crop. The zonal and woreda agricultural offices experts and agricultural extension workers of all kebeles are greatly appreciated for their all-rounded support and cooperation during the data collection.


This research did not receive any specific grant from funding agencies or sectors.

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TD carried out the fieldwork, prepared figures, performed analysis, discussed the data, and drafted and made revisions to the manuscript; TF conceived the study, followed up the fieldwork, reviewed the draft, and edited the final manuscript; ZA conceived the study, followed up the fieldwork, made suggestions in the writing by reviewing the draft, and participated in proofreading of the final manuscript; AZ conceived the study and took part in the drafting of the manuscript. All authors read and approved the final manuscript.

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Correspondence to Tesfaye Dilebo.

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The permission for this study was supported by Addis Ababa University according to the existing national guidelines, and then the respective offices of the study areas informed the local administrative members and leaders. Following verbal informed consent from volunteers and participants, the investigator presented the objectives of the study to collect relevant information on local knowledge (non-clinical sample study) of the enset crops.

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Dilebo, T., Feyissa, T., Asfaw, Z. et al. On-farm diversity, use pattern, and conservation of enset (Ensete ventricosum) genetic resources in southern Ethiopia. J Ethnobiology Ethnomedicine 19, 2 (2023).

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