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Article

Qualitative and Quantitative Ethnobotanical Survey in Al Baha Province, Southwestern Saudi Arabia

by
Sami Asir Al-Robai
1,*,
Aimun A. E. Ahmed
2,3,
Haidar Abdalgadir Mohamed
1,4,
Abdelazim Ali Ahmed
1,5,
Sami A. Zabin
6 and
Abdullah A. A. Alghamdi
1
1
Department of Biology, Faculty of Science, Albaha University, Al Baha 65431, Saudi Arabia
2
Pharmacology Department, Faculty of Medicine, Albaha University, Al Baha 65431, Saudi Arabia
3
Pharmacology Department, Faculty of Pharmacy, Omdurman Islamic University, Khartoum 11111, Sudan
4
Medicinal and Aromatic Plants Research Institute, National Center for Research, Khartoum 11111, Sudan
5
Department of Botany, Faculty of Science, University of Khartoum, Khartoum 11115, Sudan
6
Department of Chemistry, Faculty of Science, Albaha University, Al Baha 65431, Saudi Arabia
*
Author to whom correspondence should be addressed.
Diversity 2022, 14(10), 867; https://doi.org/10.3390/d14100867
Submission received: 22 July 2022 / Revised: 28 September 2022 / Accepted: 11 October 2022 / Published: 13 October 2022
(This article belongs to the Section Biodiversity Conservation)

Abstract

:
The documentation of ethnobotanical knowledge is useful for biocultural conservation, preserving the diversity of plants, and drug development. The present study was carried out to compile and document the knowledge and uses of plants in Al Baha Province, Kingdom of Saudi Arabia (KSA). A total of 81 knowledgeable informants of different sexes, ages, and status levels were randomly selected and interviewed. The majority of the informants (63%) were > 60 years old. The collected data were qualitatively and quantitatively described using different quantitative indices [family importance value (FIV), use value (UV), and informant consensus factor (ICF)]. The fidelity level (FL), rank order priority (ROP), and relative popularity level (RPL) were determined for the plants (42 species) mentioned by at least three informants. A total of 97 plants belonging to 91 genera and 44 families were reported. The most commonly used parts were fruits (30.7%) and leaves (25.4%), whereas the most frequently used modes of preparation were maceration (24.7%) and direct application (23.3%). Most of the cited plants (49.5%) were traditionally used for gastrointestinal tract (GIT) disorders, whereas a few plants (6.2%) were used for the treatment of reproductive disorders. The most ethnobotanically important families were Lamiaceae (FIV = 0.35) and Apiaceae (FIV = 0.33). The highest UV was represented by Zingiber officinale (0.086) followed by Commiphora myrrha and Trigonella foenum-graecum (0.074). The level of agreement among the interviewees was remarkably high (ICF = 0.65–0.93) for plants that had the ability to cure infectious diseases. A low level of agreement (ICF = 0.33–0.48) was observed among the informants towards plants that were used to treat gastrointestinal tract, reproductive, hematological, and central nervous system disorders. There was a total and absolute disagreement (ICF = 0) among the informants regarding the plants that were used to treat renal, endocrine system, oncological/immunological, rheumatic, orthopedic, ear, nose, and throat (ENT), and inflammatory disorders. Six of the plants which were cited by three informants or more had a high healing efficacy (FL = 100) and forty species attained ROP values of 50 or above. Out of the 42 plants, 20 species were grouped as popular (RPL = 1), and the remaining plants (22 species) were unpopular (RPL < 1). Curcuma longa, which showed the highest ROP value (100), was used to enhance immunity. In conclusion, various plant species in Al Baha province were used by the local communities for the treatment of different health problems. The documentation of these plants could serve as a basis for further scientific research and conservation studies.

1. Introduction

Since the beginning of life, plants have been used as food, forage, and considered a good source of medications, dyes, cosmetics, fibers, etc. [1]. Ethnobotany plays a crucial role in the exploration, documentation, and preservation of traditional indigenous knowledge within the community. It plays an important role in documenting and correlating social and indigenous knowledge with the healing potential of various ailments, thus constituting a platform for plant-derived drug discovery [2,3,4,5]. In addition, documentation of the traditional indigenous knowledge about the medicinal values of plant species resulted in the development of a number of vital modern drugs [6].
Before the occurrence of modern drugs and their application in the health care system, people utterly depended on traditional medicine [7]. According to the WHO, 80% of the world’s population relies on traditional medicinal practitioners for their healthcare needs, which reflects the importance of traditional medicine, particularly in developing countries [8]. Plants constitute a complex traditional system of medicine and are considered a cultural heritage [9]. Serendipitous exploration of the medicinal potentials of certain plants can be conducted through animal utilization and consumption of such plants for the healing purposes of various ailments. This biorational could possibly lead to the discovery of novel secondary phytoconstituents [9].
Recently, great attention has been paid to natural resources such as microbes, animals, plants, and marine organisms due to their potential role as novel sources for promising drug discovery or therapeutic agents [10,11,12,13]. They provided different bioactive constituents contributing to various biological activities [14,15]. Numerous medicinal or nutritious plant constituents are not only used as curative agents, but also as preventive remedies for several harmful chronic diseases [16]. Moreover, natural products may be more reliable, safe, and affordable than synthetic drugs, which may have adverse effects [17]. The safety of herbal remedies concerns both national health authorities and the general public. The traditional utilization of medicinal plants refers to its long historical uses. Their use is well-recognized and widely acknowledged as safe, effective, and frequently accepted by national authorities [18]. By incorporating quantitative research methods in data collection, processing, and interpretation of ethnobotanical results, a growing interest in improving traditional ethnobotanical studies may be achieved [19].
The Kingdom of Saudi Arabia (KSA) is a vast arid land in the Arabian Peninsula that covers approximately 2,250,000 km2. It is roughly located between the latitudes of 15°45′ N and 34°35′ N and the longitudes of 34°40′ E and 55°45′ E [20,21]. Variable environmental factors such as topography, geomorphology, climate, and soil reveal distinctive ecological habitats, vegetation zones, and, thus, rich flora. It is endowed with a wide range of ecosystems and biodiversity, particularly in the southwestern region [22]. The diversity of the flora of Saudi Arabia provides a remarkably rich source of agricultural and medicinal plants [23]. Saudi Arabian flora is similar to the plants found in East Africa, North Africa, the Mediterranean, and the Irano-Turanian countries in the Saharo-Sindian or Saharo-Arabian region (Holarctic origin) [24,25].
As a result of the inheritance of ethnobotanical knowledge from one generation to another, the Arab regions have a rich inventory of natural medicinal herbs [26]. From ancient times, Arabs had great perceptions and skills in diagnosing and treating various ailments [27]. Traditional medicine is a significant aspect of Saudi Arabia’s heritage and was broadly used before the existence of biomedicine [28,29]. Accordingly, more than 1200 plants from Saudi Arabia’s flora are of medicinal value [30,31]. Saudis use medicinal plants as traditional remedies to heal various human and livestock diseases [32]. Medicinal plants used in the Kingdom of Saudi Arabia (KSA) have been documented in two volumes, the “Medicinal Plants of Saudi Arabia”, published in 1987 and 2000 [33,34]. Several ethnobotanical and ethnomedicinal studies in Saudi Arabia have been conducted [23,32,35,36,37,38]. Al-Said [39] described twenty plant species traditionally used in Saudi Arabia with their main chemical constituents. Moreover, an ethnopharmacological survey conducted by Ali et al. [40] showed that 39 plant taxa belonging to 28 plant families are used for treating more than 20 types of ailments.
Al Baha province has a unique location among the Al-Sarwaat mountains with different climates that vary from coastal plain regions up to high altitude mountains that have a high floristic diversity. However, such floristic diversity and the traditional uses of the local plants are not yet well documented. The present study was carried out to document the ethnobotanical knowledge of Al Baha local communities using both qualitative and quantitative methods.

2. Materials and Methods

2.1. Study Area

Al Baha province is located between latitudes 20°10′ and 20°15′ N, longitudes 41°15′ and 41°20′ E, and elevations ranging from 260 to 2450 m.a.s.l. It is a part of the Al-Sarawat mountain chain, which is characterized by coarse pink granite, mixed with grey diorite and granodiorite [41]. This area has many steep rocky mountains, hills, steppes, coastal land, and several valleys that contain water during rainy seasons. Roughly, the study area can be classified as dry highland, wet highland, and hot coastal land. Its flora is a mixture of the tropical African and Sudanian plant geographical regions (Paleotropical origin) with very few of the Saharo-Sindian or Saharo-Arabian regions (Holarctic origin) and Mediterranean regions [25]. The study covered ten districts (Al-Qara, Al-Agig, Al-Mandag, Al-Hajrah, Bani Hassan, Al-Baha, Qilwah, Biljurashi, Al-Mukhwah, and Gamid Alzenad) of the province (Figure 1). The residents of the study area are distinguished by homogeneity and social conformity. The population’s lives are based on Islam and their habits and customs are considered as mandatory law. Islamic values control the relations within the society [42].

2.2. Plant Information, Data Collection and Documentation

The study was conducted during the period from November 2020 to January 2022. The data collection was conducted using pre-prepared semi-structured interviews, group discussion, and informal discussion between the informants and the interviewers. A total of 81 knowledgeable informants of both genders (55 males and 26 females), including expert herbalists, were interviewed. The interviews focused on the local names of the plants used, their traditional uses, parts of the plants used, preparation methods, and administration routes for treating specific ailments. Most of the informants were male (67.9%), non-governmental (84%), and aged above 60 years old (63%) (Table 1). The dominance of male informants in this survey could be attributed to the fact that women in traditional and rural communities do not speak to male foreigners. The informant’s demographic data, plant vernacular names, plant parts used, preparation modes, and local traditional uses of the plants were recorded on the spot.

2.3. Botanical Identification

The cited plant species were identified and taxonomically classified by an expert taxonomist (Dr. Haidar A. Mohamed, Department of Biology, Faculty of Science, Al Baha University) and checked with herbarium materials and various volumes of the flora of Saudi Arabia [43,44,45,46,47,48,49]. Current databases [50,51] were consulted for name verifications. Sample specimens were deposited at Department of Biology, Faculty of Science, Al Baha University.

2.4. Data analysis and Quantitative Indices

The recorded ethnobotanical knowledge about the reported plants in the study area was analyzed and summarized using descriptive methods. Plant Latin names, family, vernacular names, plant parts used, mode of preparation, ethnobotanical uses, and use value (UV) of each plant were recorded. The preparation methods for the different parts used were precisely noted. Traditional ethnobotanical uses were grouped and categorized as follows: (A) systemic disorders include: gastrointestinal tract (GIT) disorders [diarrhea–constipation–antispasmodic–carminative–abdominal cramps–nausea and vomiting (NV)–anorexia–ulcerative colitis and irritable bowel syndrome (IBS)–hepatoprotective–gall bladder–dyspepsia], cardiovascular disorders [hypertension (HTN)–coronary artery disease (CAD)–myocardial infarction (MI)–edema–cardioprotective], central nervous system/mental and behavioral disorders [mental–headache and migraine–anorexia–cognitive enhancer–vertigo–Alzheimer’s–bipolar], hematological disorders [lowering cholesterol levels–anti-coagulant–blood purification–hemoglobin (Hb) and anemia–coagulant–circulatory stimulator], renal disorders [renal function improvement–diuretic–renal stone–urinary tract infection (UTI)–urinary retention], respiratory disorders [ventilation enhancer–cough and expectorant–common cold and flu–asthma], endocrine disorders [diabetes mellitus (DM)–thyroid–acne] and reproductive disorders [prostate tumor–male fertility–prostate–dysmenorrhea–lactogogue]. (B) Non-systemic disorders include: skin disorders [cosmetic applications and various skin diseases], oncological/immunological, rheumatic, orthopedic, inflammatory, ear, nose, and throat (ENT) and ophthalmic disorders. (C) Infectious diseases include: bacterial, viral, fungal, and parasitic diseases. (D) Miscellaneous applications include: dental applications, toxicological effects, insecticidal/repellents, wound healing, nutrition/supplements and weight reduction.

2.4.1. Family Importance Value (FIV)

This index was calculated using the reported formula shown below:
FIV = FC N × 100
where FC is the number of individuals citing the specific family and N stands for the total number of informants. High FIV values indicate great awareness and low values indicate weak awareness of particular plant families [52].

2.4.2. Use Value (UV)

Use value (UV) is used to estimate all the possible uses of a plant taxon. The value was calculated using the formula below [53,54]:
UV = Ui N
where (Ui) is the number of informants citing various uses of a certain plant taxon, and (N) is the total number of informants (N = 81). A high use value indicates the potential significance of the mentioned plant species.

2.4.3. Informant Consensus Factor (ICF)

An informant consensus factor (ICF) was calculated to find out the agreement level among informants for plant species used to treat a particular element category [55]. ICF is calculated using the following formula:
ICF = Nur Nt Nur 1
where “Nur” is the number of use reports for a particular use category and “Nt” is number of taxa used to treat that particular use category by informants. A high ICF value indicates the high agreement level among informants on the specific plant used for treating a specific use category, whereas a low ICF value indicates a low level of agreement among the informants.

2.4.4. Fidelity Level (FL%)

Fidelity level (FL%) is used to assess the importance of individual species in each group to prefer one plant over another [56]. The fidelity level (FL%) was calculated using the following formula:
FL = Ip Iu × 100
where “Ip” is the number of informants who independently suggested the use of a species for the same major purposes, while “Iu” is the total number of informants who mentioned the plant for any use. A high FL value indicates high use of the plant for treating a particular ailment.

2.4.5. Relative Popularity Level (RPL)

Relative popularity level (RPL) is a ratio between the number of the major use reports mentioned for a specific taxon and the number of interviewees who cited that taxon for any use reports. RPL value ranges from 0–1; one indicates total popularity and zero indicates unpopularity. All the encountered plant species were divided into popular (RPL = 1) and unpopular (RPL < 1) groups [57].

2.4.6. Rank Order Priority (ROP)

The rank order priority or correct value of FL was calculated by multiplying RPL value by FL value (ROP = RPL × FL) [56,58]. A high ROP value indicates the high potential of the plant. It is useful for exploring the most popular species that are used to treat a particular disease. It could be useful for screening plants that have bioactive agents.

3. Results and Discussion

The present study indicated that the inhabitants of Al Baha province have their own indigenous ethnobotanical knowledge with a diverse use of plants. It is clear that most of the local people in this province rely mainly on wild, cultivated, and exotic plants for their daily sustenance and the treatment of a variety of ailments. The recorded information confirmed that local traditional knowledge about plant use continues to exist in various communities in Saudi Arabia. Most of the uses and ethnobotanical knowledge reported were mentioned by elderly people, and men had more traditional ethnobotanical knowledge than women. Indeed, elderly people spend a lot of time with their ancestors, who have a great knowledge of the traditional use of plants. Informants aged < 20 and 21–40 years-old had little knowledge about the traditional uses of plants. Thirty-three plants were cited by men (34%), 22 plants by women (22.7%), and 42 species (43.3%) by both sexes.
The traditional medicinal practices of the mentioned plants are still in use in all studied districts. The majority of elderly respondents had extensive traditional knowledge of the use of plants in folk medicine. It was found that non-governmental people, such as farmers, traders, shepherds, and housewives, had more information on the ethnomedicinal uses of plants than governmental people. This is because the majority of unschooled people, particularly in rural communities, believe that traditional healing is safer than modern medicine. Moreover, it was noticed that the following wild plants: Visnaga daucoides, Commiphora myrrha, Mentha longifolia, Myrtus communis, Ruta chalepensis, and Ziziphus spina-christi were commonly sold in the local markets as medicinal herbs. In this study, more than two-thirds (67%) of the questioned inhabitants in the Al Aqiq district depend on traditional medicine alone or in combination with modern medicine. For the treatment of any health problems, most of the younger informants preferred to visit clinics and hospitals rather than use traditional healing methods. According to a previous study in Saudi Arabia [59], traditional medicine is generally practiced by middle-aged to elderly women and men who exhibited a predisposed for employing medicinal plants. In the Al Aqiq and Al Baha districts, the ethnobotanical knowledge, as well as preparation and administration methods for serious diseases, still reside with elderly people and expert herbalists. Herb preparation and administration methods, dosage forms, and dosing regimens varied by district.
A total of 97 plant species belonging to 91 genera and 44 families with their traditional uses were reported by the interviewed informants (Table 2). The recorded data revealed that the area was rich in phytodiversity and the reported plants included one gymnosperm and 96 angiosperms, and the latter included 84 dicotyledonous species and 12 monocotyledonous species. Thirty-two of the reported plants were big trees, fourteen were bushy shrubs, and fifty-three were herbs. Such species diversity in the study area could possibly be attributed to the unique climate and topographical features of the Al Baha province [25]. Among the reported plants, herbs were the most harvested growth form (64%) used by the inhabitants in Al Baha province, followed by trees (28%) and shrubs (8%). This finding agreed with the results reported by Ullah et al. [60], who revealed the dominance of herb plants in treating diseases in Saudi Arabia. In the Aljumum region, west Saudi Arabia, Qari et al. [61] found that shrubs (78%), herbs (14%), and trees (8%) predominated.
The estimated family importance values (FIV) showed that Lamiaceae (0.35), Apiaceae (0.33), and Asteraceae (0.21) were considered the most important ethnomedicinal plant families in Al Baha province (Figure 2). These findings were in contrary to Aati et al. [23], who reported Asteraceae and Fabaceae as the most important ethnomedicinal families in the KSA, as well as Ali et al. [40], who reported Fabaceae and Euphorbiaceae as important ethnomedicinal families in Al Baha city and its outskirts. The study carried out by Qari et al. [61] revealed that the most-cited families in the Aljumum Region, west Saudi Arabia were Fabaceae (32.35%), Poaceae (20.58%), Asteraceae, and Brassicaceae (17.64%). Furthermore, Asteraceae (10.48%), Lamiaceae, and Apocynaceae (7.25%) were found to be the most important ethnomedicinal families in the Jazan region, southwestern Saudi Arabia [32]. The recorded families in this study have been reported in the Kingdom’s flora [24,62] and some of the species in these families have therapeutic uses [63,64].
The use value (UV) demonstrates the relative importance of the use of medicinal plants in a particular region [65,66]. As shown in Table 2, the most useful plants in Al Baha province were Zingiber officinale (UV = 0.086), Commiphora myrrha, and Trigonella foenum-graecum (UV = 0.074). Six of the reported plants (Allium cepa, Ocimum basilicum, Salvia officinalis, Ficus palmate, Syzygium aromaticum, and Ziziphus spina-christi) showed a moderate use value index (0.062), while the least value (0.012) was scored by thirty-four species. The use of ginger (Zingiber officinale) to treat a variety of disorders dates back to the spice trade and its use as a remedy for various diseases by Arab communities [67]. Tounekti et al. [32] found that Ziziphus spina-christi, Calotropis procera, and Datura stramonium had the highest range of therapeutic uses in the Jazan region. In general, spices are rich in bioactive compounds and contain distinct phytochemical ingredients, making them popular therapeutic plants [68].
The plant part used for specific treatment varies from one species to another, and from one informant to another. Fruits (30.7%) and leaves (25.4%) were the most frequently used parts of the cited plants, whereas bark, gum, and whole plant (0.9%) were the least-used parts (Figure 3). In Saudi Arabian folk medicine, the majority of herbal preparations are made from whole plants, seeds, and aerial parts of the plants [60]. These findings disagreed with previous studies in the Al Baha [40], Tabuk [36], and Aljumum [61] regions of Saudi Arabia. All these studies reported that leaves are the most-used part of the plants, which is in line with the worldwide observation [69].
However, using fruits and leaves in folk medicine rather than barks, roots, and whole plants is one of the most eco-friendly habits. Eleven common modes of preparation were used by the inhabitants (direct use, paste, decoction, maceration, infusion, poultice, oil, fumigation, ash, juice, and powder) to make their herbal preparations. The most preferred forms of preparation were maceration (24.7%), direct use (23.3%), and decoction (17.1%) (Figure 4). These results disagreed with the results of Ullah et al. [60], who reported that the most commonly used preparation modes in Saudi traditional medicine were decoction and infusion. Oyedeji-Amusa et al. [70], who reviewed the ethnobotany of the Meliaceae family in South Africa, revealed that decoction was the predominant mode, followed by infusion, direct use, powder, poultice, and maceration.
The reported plants were either used alone or mixed with other taxa and were taken either fresh or dry. For poultice applications, the prepared herb was applied by the locals directly to the target area or covered with a clean cloth before applying. The most commonly used liquid for oral and external herbal preparations was almost always water. In some cases, for oral administration, other additives such as cold or warm milk, sour milk, butter, olive oil, and honey were mixed with the prepared herbs.
The ethnopharmacological study carried out by Ali et al. [40] on the medicinal plants of Al Baha city and its outskirts, revealed that 39 plants had medicinal benefits, and the most-used part of these plants was the leaves (49%), and paste (27.7%) was the most frequently used method for preparation.
The interviewees noted that the wild plants which were used to treat common diseases in the area were distributed in different habitats such as valleys, high mountains, and coastal lands. It was observed that the cultivated plants were obtained from nearby farmland or home gardens, and the exotic plants were purchased from the local markets or herbal shops.
Nearly half of the cited plants (49.5%) were used for the treatment of gastrointestinal tract (GIT) disorders. Percentages of the usage of plants for the other systemic disorders were 25.8, 24.7, 17.5, 17.5, 15.5, 10.3, and 6.2% for respiratory, endocrine, central nervous system/mental and behavioral, hematological, renal, cardiovascular, and reproductive disorders, respectively (Figure 5a).
The GIT disorders were found to be the most common diseases in the study area. In contrast, Ali et al. [40] found GIT problems as the second category, comparable to skin diseases, in Al Baha city. Alharbi [36] reported 81 plants in the Tabuk region, northwestern Saudi Arabia, that are used to treat GIT disorders. On the other hand, the ethnobotany study carried out by Hernández et al. [71] in Mexico agreed with these findings. Maceration and direct use, which were the major modes of preparation in this study, were suitable applications for the treatment of GIT disorders. However, Ribeiro et al. [72] and Jadid et al. [73] reported infusion and decoction as the most suitable herbal preparations for treating GIT diseases, respectively.
The traditional treatments of reproductive (6.2%) and cardiovascular (10.3%) disorders were found to be the least-reported systemic disorders (Figure 5a). Cardiovascular disorder is one of the most common medical problems, especially in high-altitude areas [74]. Because the Al Baha province is one of the kingdom’s high regions, where heart illnesses abound, it is expected that the use of plants as a cure for heart diseases would be common. However, few (10 species) of the reported plants in the study area were utilized for cardiovascular treatment, which was unexpected in this investigation. This could be attributed to the availability and preferability of high-quality modern healthcare in Al Baha province.
For non-systemic disorders, thirty-three species (34.0%) were utilized for treating oncological/immunological disorders and twenty-six (26.8%) were used by indigenous people for skin disorders. Only four plants (4.1%) were used to treat both ENT and rheumatic disorders (Figure 5b).
Regarding the infectious category, it was observed that 9.3% of the mentioned species were used for the treatment of bacterial infections. Two plants were used for treating viral, fungal, and parasitic infections (Figure 5c).
As shown in Figure 5d, approximately 15.5% of the cited taxa were used for dental applications, followed by insecticidal/repellents, wound healing, nutrition/supplements (11.3%), and weight loss (8.2%). The use of plants for dental care, such as teeth brushing, gingivitis, mouth wash, and toothaches, was in accordance with the Islamic regulations and cultural behavior of Saudi people. This is in line with a recent trend that re-directs scientists to nature to seek a promising and interesting alternative to conventional dental therapy [75]. It was clear that significant attention was paid to the use of plants for nutritional and body weight control among the Al Baha population. The use of plants as appetite suppressants and for weight reduction was reported by Pare et al. [76].
Eleven species of the reported plants were reported as insecticidal or insect repellents. These plants could possibly be used as good sources of natural pesticides and insecticides. Souto et al. [77] recommend searching for natural secure plant-derived pesticides because synthetic pesticides and insecticides are significant global pollutants.
Several researchers have conducted ethnomedicinal studies on various communities or regions throughout the Kingdom [23,35,40,61,63]. Although many of the local people in the Al Baha province have access to high-quality modern healthcare systems, local communities still rely on plants for essential healthcare needs. They have rich ethnomedicinal knowledge about the therapeutic use of plants. However, Abulafatih [35] and Rahman et al. [63] demonstrated that Saudi people still rely heavily on folk medicine for treating various diseases. Turning back to ethnomedicine in different countries is a recent trend [78].
The agreement or disagreement level among the respondents on specific plants for the treatment of a particular use report was examined using the ICF value. Informant consensus factor (ICF) results of the reported used categories were in the range of 0.00–0.48 (Table 3). The highest ICF values in the systemic disorders category was reported for central nervous system/mental and behavioral disorders (ICF = 0.48), reproductive (ICF = 0.38), and gastrointestinal tract (ICF = 0.37) disorders. In the study carried out by Alqethami et al. [38], a high level of agreement was noticed towards the medicinal plants of Jeddah for treating respiratory and GIT disorders. This may be due to variability in informant knowledge, their areas, and the existence of the specific plant taxa in a specific area.
The lowest ICF values (ICF = 0.00) in the systemic disorders group category were reported for renal and endocrine disorders. This indicates a total absolute level of disagreement among the informants regarding the use of these plants for treating renal and endocrine disorders (Table 3).
For the non-systemic disorders category, the highest ICF value (ICF = 0.20) was reported for ophthalmic disorders. There was a total and absolute disagreement (ICF = 0.00) among the informants regarding the plants that were used to treat oncological/immunological, rheumatic, orthopedic, ENT, and inflammatory disorders (Table 3).
The informants showed high levels of agreement towards plants that were utilized as antiviral (ICF = 0.93), antiparasitic (ICF = 0.89), antifungal (ICF = 0.81), and antibacterial (ICF = 0.65) agents. This indicates that the local community has confidence in the plants in the study area to treat infectious diseases. There was a weak disagreement level (ICF = 0.00–0.23) among the informants regarding the plants that were used for dental applications, toxicological effects, insecticidal/repellents, wound healing, and nutrition/supplements. The interviewees’ level of agreement with the use of plants for weight loss was found to be modest (ICF = 0.46). As the efficacy of medicinal plants is highly correlated with ICF values, the recorded ICF values of this study could possibly be helpful for selecting plants for pharmacological research [79,80,81].
Table 4 shows FL, RPL, and ROP values for 42 out of 97 plants that were claimed to be used by three or more participants to treat a specific use category. The calculated FL, RPL, and ROP values for the selected plants ranged from 40–100%, 0.75–1, and 40–100, respectively. Curcuma longa had a very high potential (ROP = 100) for enhancing immunity. Syzygium aromaticum demonstrated a relatively high ability (ROP = 80) for dental applications, especially toothache. Twenty-three of the species showed moderate potential (ROP = 50) for treating the mentioned disorders. Ocimum basilicum and Mentha spicata had a relatively low potential (ROP = 40) for treating GIT disorders, especially abdominal cramps. The plants that attained low ROP values probably did so due to either modernization among the recent generations or the fact that there is a generation gap due to contemporary lifestyle changes [82]. The calculated FL values can be used for identifying preferable species by local people for curing a specific health problem [56]. The highest FL value indicates that the plant is used more frequently in the study area [83].
The cited species were divided into two primary categories based on RPL values, popular (RPL = 1) and unpopular (RPL = 0.75). Friedman et al. [56] state that more investigations are needed to confirm or disprove the other benefits of the unpopular group.
Plants with a 100% fidelity level, such as Azadirachta indica and Lawsonia inermis, were widely used by indigenous people to treat skin disorders, while Cuminum cyminum was used to treat abdominal cramps and Curcuma longa was used to boost immunity. These species were highly trusted by the local communities for the treatment of the mentioned disorders. Ugulu [84] stated that plants with high fidelity levels have potential economic purposes. Lawsonia inermis, locally known as Hena, was found to be widely used by the local population. This is most likely because Islamic medical practices have had a direct influence on the healthcare of the Saudi people (Ibn al-Qayyim, al-Tibb al-Nabawi) [85].
In the Al Baha province, Syzygium aromaticum (FL = 80%, RPL = 1.0), Commiphora gileadensis, and Elettaria cardamomum (FL = 75%, RPL = 1) provided the majority of the dental treatments. For teeth brushing, Commiphora gileadensis was widely utilized in the highlands of Al Baha province, whilst Salvadora persica was frequently used in the lowlands. However, Islamic teachings and prophetic medicine both encourage paying attention to hygiene and dental care. For GIT disorders, Pimpinella anisum was reported as a carminative, whereas Matricaria chamomilla was reported for carminative and sedative purposes, and to treat arthritis (FL = 75%, RBL = 1.0) (Table 4). The significance of these plants arises from their utilization to treat the main ailment problems (GIT); besides, most of them are historically categorized as spices, since Saudi Arabia was predisposed by the spice trade route [66].
In total, twenty-one exotic species were cited in this study. All of them were used to treat a wide range of ailments, and only two species (Ferula assa-foetida and Saussurea costus) had a specific therapeutic application (GIT disorders). It was observed that all the exotic plants were used to treat GIT problems except Sesamum indicum. Eleven of these species (52.4%) were used to treat respiratory disorders and eight (38.1%) to cure endocrine disorders. The most preferred modes of preparation for the reported exotic plants in the study area were decoction and maceration. Various parts of these plants are used, but the most frequently used part for the treatment of various health problems was the fruit. Many of these plants were frequently used in the daily food habits of the indigenous community.
A comparison of medicinal plants cited in this study with previous works in Al Baha city and its outskirts [40] and nearby areas such as Jazan [32] and Jeddah [38] revealed the documentation of fifteen species (Rubus asirensis, Visnaga daucoides, Cymbopogon schoenanthus, Medicago sativa, Lagenaria siceraria, Saussurea costus, Euphorbia granulata, Cissus rotundifolia, Nasturtium officinale, Pandanus tectorius, Pennisetum glaucum, Periploca aphylla, Vachellia nilotica, Trema orientalis, and Ferula assa-foetida) as medicinal plants for the first time in Al Baha province. Most of these plants were used to treat a diverse array of health problems. The present survey also demonstrated that the indigenous communities used various parts of the plants and different modes of administration for the prepared herbs. Documentation of indigenous knowledge related to these species and their therapeutic effects is useful in providing the most fundamental evidence of the therapeutic effectiveness and safety of these plants.

4. Conclusions

The present survey documented the traditional knowledge and the ethnobotanical uses of plants in the Al Baha province, which will be actively transferred to the younger generations. The study found 97 beneficial plants with a variety of ethnobotanical purposes. The Lamiaceae family had the greatest ethnobotanical significance, and Zingiber officinale, Commiphora myrrha, and Trigonella foenum-graecum were the species most utilized by the informants. The area is rich in plants that have great ethnomedicinal potential to treat various health problems. Forty-eight species can be used to treat GIT disorders and thirty-three plants have been recorded to treat oncological/immunological disorders. The obtained results could be useful for researchers to extract bioactive compounds from these plants. GIT problems were ranked as the most common ailments treated with herbal remedies in Al Baha province. Though cardiovascular system (CVS) problems are commonly reported in high-altitude areas such as Al Baha province, few plants were mentioned by the informants to treat such problems. The study revealed that maceration and direct application were the most common suitable preparation modes, particularly for traditional treatment of the GIT problems. Informants prefer to treat abdominal cramps by using Cuminum cyminum (FL = 100%) and used Pimpinella anisum (FL = 75%) and Mentha longifolia (FL = 66.7%) as carminative herbs. The recorded members of the family Apiaceae were found to treat most of the GIT problems, which is in line with its ranking as the second most-important ethnobotanical family cited by the informants. Six plants had a high healing efficacy (FL = 100), twenty species were grouped as popular (RPL = 1), and twenty-two species were unpopular (RPL < 1). The study was carried out with the intention of documenting the ethnobotanical knowledge and highlighting the potential of medicinal plants in Al Baha province, KSA. The documented data demonstrated that most of the local people still depend largely on plants because of their belief that those species are more effective in the treatment of health problems. The findings of the current study may help scientists conduct additional phytochemical and pharmacological research.

5. Limitations of the Study

There are few limited written documents on the cultural history of the indigenous communities of Al Baha province. One potential limitation of this study is that most traditional healers are not willing to share their private information with others. Participants are sometimes willing to pass on their knowledge of medicinal plants only to their children or family members. It is difficult to collect data from the female community due to the traditional and cultural constraints of the rural communities in Al Baha province. Interviewing large numbers of informants could have resulted in more plant species being cited, as well as broader information about the use of plants in the study area.

Author Contributions

Conceptualization, S.A.A.-R., A.A.A. and H.A.M.; Methodology, S.A.A.-R., A.A.A., H.A.M. and A.A.A.A.; Software, S.A.Z. and A.A.E.A.; Validation, A.A.A.A. and A.A.E.A.; Formal Analysis, A.A.A. and S.A.Z.; Investigation, S.A.A.-R., H.A.M., and A.A.A.A.; Resources, S.A.A.-R. and A.A.E.A.; Data Curation, A.A.A. and S.A.Z.; Writing—Original Draft Preparation, A.A.A. and S.A.Z.; Writing—Review and Editing, A.A.A. and S.A.Z.; Visualization, S.A.A.-R., A.A.A.A., A.A.E.A. and H.A.M.; Supervision, S.A.A.-R.; Project Administration, S.A.A.-R.; Funding Acquisition, S.A.A.-R. All authors have read and agreed to the published version of the manuscript.

Funding

This study was funded by the Deputyship for Research & Innovation, Ministry of Education, Saudi Arabia, under grant number MOE-BU-7-2020.

Institutional Review Board Statement

This study complies with current international, national, and local legislation, institutional rules and ethical best practices with regards to animal experiments, clinical studies, biodiversity rights, and indigenous knowledge rights.

Informed Consent Statement

Verbal informed consent was obtained from each informant before voluntary enrollment in the survey.

Data Availability Statement

All data presented in this study are available in article.

Acknowledgments

The authors extend their appreciation to the Deputyship for Research & Innovation, Ministry of Education in Saudi Arabia, for funding this research work through the project number: MOE-BU-7-2020. Moreover, the authors gratefully acknowledge all informants in Al Baha province for their collaboration and the help that they gave us throughout our survey interviews.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Al Baha province map shows the location of the studied districts.
Figure 1. Al Baha province map shows the location of the studied districts.
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Figure 2. The family importance values (FIV) of the cited plants in Al Baha province.
Figure 2. The family importance values (FIV) of the cited plants in Al Baha province.
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Figure 3. Frequency of plant parts used by inhabitants in Al Baha province.
Figure 3. Frequency of plant parts used by inhabitants in Al Baha province.
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Figure 4. Frequency of preparation modes used by inhabitants for different ethnobotanical uses in Al Baha province.
Figure 4. Frequency of preparation modes used by inhabitants for different ethnobotanical uses in Al Baha province.
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Figure 5. Frequency percentage of the usage of plants for various use categories in Al Baha province. (a) Systemic disorders; (b) non-systemic disorders; (c) infectious diseases; (d) miscellaneous applications.
Figure 5. Frequency percentage of the usage of plants for various use categories in Al Baha province. (a) Systemic disorders; (b) non-systemic disorders; (c) infectious diseases; (d) miscellaneous applications.
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Table 1. Demography of interviewees, N = 81.
Table 1. Demography of interviewees, N = 81.
CategorySubcategoryFrequencyPercentage %
GenderMale
Female
55
26
67.9
32.1
Age˂20
21–40
41–60
˃60
2
9
19
51
2.5
11
23.5
63
StatusGovernmental
Non-governmental
13
68
16
84
Table 2. Ethnobotanical data of the cited plants by the local inhabitants of Al Baha province.
Table 2. Ethnobotanical data of the cited plants by the local inhabitants of Al Baha province.
Family
Species
Local name
Parts UsedPreparation ModeEthnobotanical usesUV
Amaranthaceae
Beta vulgaris L.
Bangar
RootsDirectHematological disorders, CVS disorders0.025
Amaryllidaceae
Allium cepa L.
Bassal
Bulbs DirectGIT disorders, respiratory disorders, endocrine disorders, immunological disorders, skin disorders, ENT disorders, ophthalmic disorders, insecticidal0.062
* Allium sativum L.
Thoum
BulbsDirectCVS disorders, hematological disorders, skin disorders0.037
Anacardiaceae
* Pistacia lentiscus L.
Mistika
Resins Maceration,
decoction
GIT disorders, respiratory disorders, ENT disorders, ophthalmic disorders, insecticidal, wound healing0.037
Apiaceae
Ammi majus L.
Khela shytania
FruitsDecoctionRenal disorders0.012
Anethum graveolens L.
Shabbat/Sanout
Leaves,
aerial parts
Infusion,
direct, maceration
GIT disorders, endocrine disorders0.037
Coriandrum sativum L.
Kasbra
Fruits, leaves MacerationMental and behavioral disorders, oncological disorders, immunological disorders, dental applications0.012
* Carum carvi L.
Karawia
Fruits Maceration, direct GIT disorders, endocrine disorders0.037
* Cuminum cyminum L.
Shamar
Fruits DecoctionGIT disorders, endocrine disorders0.037
* Ferula assa-foetida L.
Heltait
Gum MacerationGIT disorders0.012
* Foeniculum vulgare Mill.
Kamoon
FruitsMacerationGIT disorders, endocrine disorders, respiratory disorders,
weight reduction
0.049
Petroselinum crispum (Mill.) Fuss
Bagdonis
LeavesMacerationRenal disorders, anti-inflammatory, antibacterial0.025
* Pimpinella anisum L.
Yanson
FruitsDecoction, maceration GIT disorders, endocrine disorders, toxicological effects0.049
Visnaga daucoides Gaertn.
Khela bladi
FruitsInfusionRenal disorders0.025
Apocynaceae
Adenium obesum Roem. and Schult.
Adana
LatexPasteSkin disorders, toxicological effects0.012
Calotropis procera (Aiton) Dryand.
Ushar
Latex,
leaves
Poultice, infusionGIT disorders, endocrine disorders, antiparasitic, toxicological effects0.025
Desmidorchis retrospiciens Ehrenb.
Galthy
Stem Direct, ash
Wound healing, toxicological effects0.012
Periploca aphylla Decne.
Suwas
Aerial partsDirect, poulticeGIT disorders, orthopedic disorders, dental applications0.025
Arecaceae
Phoenix dactylifera L.
Tamor
Fruits DirectGIT disorders, hematological disorders, orthopedic disorders, nutrition/supplement0.025
Asteraceae
Artemisia abyssinica Sch.Bip. ex A.Rich.
Birk
LeavesMaceration, pasteEndocrine disorders, skin disorders0.025
Artemisia judaica L.
Sheih-boethran
Aerial partsInfusion,
poultice, oil
Endocrine disorders, renal disorders
skin disorders, toxicological effects
0.012
Galinsoga parviflora Cav.LeavesPoulticeRespiratory disorders, skin disorders, wound healing 0.012
* Matricaria chamomilla L.
Babong
Flowers Decoction, macerationOrthopedic disorders, GIT disorders, endocrine disorders, respiratory disorders, reproductive disorders0.049
Psiadia punctulata Vatke
Tubbag
LeavesPoultice Skin disorders, wound healing0.012
Pulicaria undulata (L.) C.A.Mey.
Arfaj, Gathgath
Aerial parts,
flowers
Powder, oil Insecticidal/repellent0.037
* Saussurea costus Falc.
Gasst
RootsDecoction GIT disorders0.025
* Seriphidium herba-alba (Asso) Y.R.Ling
Sheih
Aerial parts MacerationGIT disorders, oncological disorders, immunological disorders, nutrition, insecticidal0.025
Brassicaceae
* Coincya tournefortii (Gouan) Alcaraz, T.E.Díaz, Rivas Mart.and Sánchez-Gómez
Khardl
Leaves, fruitsDecoction, direct, oil GIT disorders, renal disorders, skin disorders0.037
Lepidium sativum L.
Rashad
SeedsDirectGIT disorders, hematological disorders, orthopedic disorders0.037
Nasturtium officinale R.Br.
Girgir Almaa
Aerial partsMacerationAntiviral, antiparasitic0.012
Burseraceae
Boswellia serrata Roxb. Kandr-lubanResins DecoctionRespiratory disorders, orthopedic disorders, smoke session0.037
Commiphora gileadensis (L.) C.Chr.
Busham
Stem,
twigs
Decoction, directRespiratory disorders, skin disorders, orthopedic disorders, dental applications0.037
Commiphora myrrha Engl.
MurrHegaji
Resins Maceration,
powder, paste
GIT disorders, respiratory disorders, hematological disorders, oncological disorders, orthopedic disorders, immunological disorders, anti-inflammatory, ENT disorders, ophthalmic disorders, antifungal, dental applications, wound healing0.074
Cactaceae
Opuntia ficus-indica (L.) Mill.
Barshwomi
Fruits
Poultice, directGIT disorders, skin disorders0.025
Cannabaceae
Trema orientalis (L.) Blume
Shubarig
Fruits DirectGIT disorders, renal disorders, mental and behavioral disorders, endocrine disorders, oncological disorders, immunological disorders, nutrition/supplement0.012
Celastraceae
Gymnosporia heterophylla Loes.
Athrara
Twigs DecoctionRenal disorders0.012
Cucurbitaceae
Citrullus colocynthis (L.) Schrad.
Hanzal
FruitsMacerationGIT disorders, respiratory disorders, orthopedic disorders0.025
Cucurbita maxima Duchesne
Garaa
FruitsDirectGIT disorders, oncological disorders, immunological disorders0.012
Lagenaria siceraria (Molina) Standl.
Garaamurr
Fruits DirectEndocrine disorders 0.012
Cupressaceae
Juniperus procera Hochst. ex Endl.
Arar
StemMaceration, directGIT disorders, orthopedic disorders0.025
Euphorbiaceae
Ricinus communis L.
Khirwee
Leaves, fruits,
seeds
Maceration,
poultice, oil
GIT disorders, mental and behavioral disorders, skin disorders0.037
Euphorbia granulata Forssk.
Umlabben
Latex,
whole plant
MacerationGIT disorders, renal disorders, oncological disorders, immunological disorders, antibacterial, antifungal, antiparasitic0.012
Fabaceae
Medicago sativa L.
Barsim
Aerial parts Decoction,
direct
Endocrine disorders, hematological disorders, oncological disorders, immunological disorders,0.049
Senna alexandrina Mill.
Sanamekki
Leaves,
fruits
DecoctionGIT disorders, 0.037
Tamarindus indica L.
Aradeeb
FruitsMacerationEndocrine disorders0.012
* Trigonella foenum-graecum L.
Helba
SeedsDecoction, infusionGIT disorders, endocrine disorders, CNS disorders, skin disorders, hematological disorders, rheumatic disorders, orthopedic disorders, antibacterial0.074
Vachellia nilotica (L.) P.J.H. Hurter and Mabb.
Garz
Fruits Fumigation
Respiratory disorders0.012
Lamiaceae
Lavandula dentata L.
Dhrum
Aerial partsPoulticeGIT disorders, skin disorders, orthopedic disorders0.037
Mentha longifolia (L.) L.
Habag
Aerial parts Decoction, macerationGIT disorders, CVS disorders0.037
Mentha spicata L.
Naana
Aerial parts Decoction, macerationGIT disorders, respiratory disorders0.049
Ocimum basilicum L.
Rehan
Aerial parts, leavesMaceration, decoction,
infusion
GIT disorders, respiratory disorders, endocrine disorders, CVS disorders,
renal disorders
0.062
Otostegia fruticosa subsp. schimperi (Benth.) Sebald
Elsharam
Leaves MacerationGIT disorders, ophthalmic disorders, CNS disorders0.012
Plectranthus asirensis J.R.I.Wood
Shar aseri
Leaves Maceration,
infusion
Respiratory disorders, CVS disorders0.012
Plectranthus barbatus Andrews
Shaar, Regma
Leaves MacerationRespiratory disorders, ENT disorders0.012
Rosmarinus officinalis L.
Ekleel algabal
Leaves Infusion GIT disorders, CNS disorders, CVS disorders, renal disorders, anti-inflammatory, supplement0.037
Salvia officinalis L.
Mermiah
Aerial parts MacerationGIT disorders, mental and behavioral disorders, oncological disorders, immunological disorders, dental applications0.062
* Thymbra capitata (L.) Cav.
Zattar
Aerial parts MacerationRespiratory disorders, GIT disorders
oncological disorders, immunological disorders
0.037
Lauraceae
* Cinnamomum verum J.Presl
Girfa
BarkDecoctionGIT disorders, CNS disorders, endocrine disorders, hematological disorders, skin disorders, orthopedic disorders0.049
Lythraceae
Lawsonia inermis L.
Henna
LeavesPoulticeMental and behavioral disorders, skin disorders0.049
Punica granatum L.
Roman
Fruits
(peels)
Direct,
powder,
decoction
GIT disorders, CVS disorders, hematological disorders, rheumatic disorders, oncological disorders, immunological disorders, nutrition, insecticidal, weight reduction0.049
Malvaceae
Malva parviflora L.
Khubaiza
Leaves MacerationReproductive disorders 0.012
Meliaceae
Azadirachta indica A.Juss.
Neem
Fruits,
leaves
Poultice,
oil
Endocrine disorders, skin disorders, toxicological effects0.037
Moraceae
Ficuspalmata Forssk.
Hamadh
Latex,
fruits,
leaves
Paste, directEndocrine disorders, skin disorders, CVS disorders, hematological disorders, immunological disorders, insecticidal, weight reduction, wound healing0.062
Moringaceae
Moringa oleifera Lam.
Moringa
LeavesMaceration, directRenal disorders, endocrine disorders, hematological disorders, dental applications, insecticidal, weight reduction, nutrition0.025
Myrtaceae
Eucalyptus sp.
Keena
Leaves MacerationRespiratory disorders0.012
Myrtus communis L.
Alhdass
Leaves Direct, powder Mental and behavioral disorders, wound healing0.012
Psidium guajava L.
Guava
FruitsDirectGIT disorders0.012
* Syzygium aromaticum (L.) Merr. and L.M.Perry
Gronful
Flowers
Decoction, maceration,
oil
GIT disorders, CNS disorders, respiratory disorders, orthopedic disorders, skin disorders, oncological disorders, immunological disorders, dental applications, toxicological effects, supplement0.062
Nitrariaceae
Peganum harmala L.
Harmal
Leaves DecoctionGIT disorders0.012
Oleaceae
Olea europaea L.
Zaytoon
Fruits OilRespiratory disorders, endocrine disorders, reproductive disorders, skin disorders, orthopedic disorders, antibacterial0.037
Olea europaea subsp. cuspidata (Wall. and G.Don) Cif.
Otom
Aerial partsOil, directGIT disorders, endocrine disorders, oncological disorders, immunological disorders0.037
Pandanaceae
Pandanus tectoriusParkinson
Caddi
Leaves MacerationDental applications, wound healing0.012
Pedaliaceae
* Sesamum indicum L.
Simsim
Seeds OilRespiratory disorders, hematological disorders, anti-inflammatory, antibacterial, nutrition0.025
Piperaceae
* Piper nigrum L.
Fifil
Fruits DirectMental and behavioral disorders, GIT disorders, reproductive disorders, respiratory disorders, weight reduction0.025
Poaceae
Cymbopogon schoenanthus Spreng.
Adkhar-hmra
Aerial parts MacerationGIT disorders0.012
Hordeum vulgare L.
Shaeer
FruitsMacerationRenal disorders, skin disorders, dental applications, insecticidal0.037
Pennisetum glaucum R.Br.
Dukhun
FruitsDirectGIT disorders, endocrine disorders, hematological disorders, orthopedic disorders, insecticidal, weight reduction0.025
Triticum aestivum L.
Gamih
FruitsPowderSkin disorders0.012
Polygonaceae
Rumex nervosus Vahl
Othrub
Leaves,
Stem
Poultice,
direct
Hematological disorders, skin disorders, dental applications, wound healing0.037
Ranunculaceae
* Nigellasativa L.
Alhabah al suwdaa
Seeds Direct GIT disorders, CVS disorders, reproductive disorders, respiratory disorders, oncological disorders, immunological disorders0.037
Rhamnaceae
Ziziphus spina-christi (L.) Desf.
Sedder
Leaves,
fruits
Poultice,
direct,
infusion
GIT disorders, hematological disorders, mental and behavioral disorders, skin disorders, antifungal0.062
Rosaceae
Prunus armeniaca L.
Mishmish
Fruits DirectRespiratory disorders, skin disorders0.012
Rubus asirensis D.F.Chamb.
Akrash- Toot bari
Fruits DirectAnti-inflammatory0.012
Rutaceae
Citrus aurantiifolia (Christm.) Swingle
Lemon
FruitsJuice Oncological disorders, immunological disorders, antiviral0.012
Ruta chalepensis L.
Suthab
Aerial parts OilMental and behavioral disorders, orthopedic disorders0.025
Salvadoracea
Salvadora persica L.
Arak
Stem DirectAntibacterial, antifungal, dental applications0.025
Sapindaceae
Dodonaea viscosa Jacq.
Shath
Stem,
twigs
DirectOrthopedic disorders, dental applications0.025
Solanaceae
Datura stramonium L.
Datura, Banj
Fruits MacerationMental and behavioral disorders, toxicological effects0.012
Solanum incanum L.
Hadag, aeinalbagar
FruitsMaceration,
ash, paste
Renal disorders, anti-inflammatory, ophthalmic disorders, antibacterial, dental applications0.037
Tamaricaceae
Tamarix aphylla (L.) H.Karst.
Athl
Twigs
Decoction, poultice,
fumigation, direct
Anti-inflammatory, dental applications, wound healing0.037
Urticaceae
Urtica pilulifera L.
Haraq
Leaves PoulticeRheumatic disorders0.012
Vitaceae
Cissusrotundifolia Vahl
Ghelf
Leaves Direct Orthopedic disorders, weight reduction0.012
Xanthorrhoeaceae
Aloe vera (L.) Burm.f.
Sabar
Leaves Poultice,
paste
Skin disorders, wound healing0.025
Zingiberaceae
* Curcuma longa L.
Korkom
Rhizome Maceration,
decoction
GIT disorders, hematological disorders, oncological disorders, immunological disorders, mental and behavioral disorders, respiratory disorders, insecticidal, weight reduction0.049
* Elettaria cardamomum (L.) Maton
Hail
FruitsDecoction,
infusion
GIT disorders, CVS disorders, skin disorders, respiratory disorders, renal disorders, antibacterial, dental applications0.049
* Zingiber officinale Roscoe
Zangabeel
Rhizome Decoction GIT disorders, respiratory disorders, CNS disorders, hematological disorders, endocrine disorders, rheumatic disorders, orthopedic disorders, immunological disorders, antibacterial, supplement, insecticidal0.086
Zygophyllaceae
Tribulus terrestris L.
Shirshir
Fruits Decoction Reproductive disorders, renal disorders, toxicological effects0.012
GIT: Gastrointestinal tract; CNS: central nervous system; CVS: cardiovascular system; ENT: ear, nose, and throat; *: Exotic plant.
Table 3. Informant consensus factor (ICF) for various use categories.
Table 3. Informant consensus factor (ICF) for various use categories.
No.Use CategoryNo. of Taxa Used (Nt)No. of Use Reports (Nur)ICF
A- Systemic disorders
1Gastrointestinal tract disorders48 760.37
2Cardiovascular disorders10 140.30
3Central nervous system/mental and behavioral disorders17320.48
4Hematological disorders17250.33
5Renal disorders15150.00
6Respiratory disorders25360.31
7Endocrine disorders 24240.00
8Reproductive disorders690.38
B- Non-systemic disorders
1Skin disorders26270.04
2Oncological/immunological disorders33330.00
3Rheumatic disorders440.00
4Orthopedic disorders19190.00
5Inflammatory disorders770.00
6Ear, nose, and throat disorders440.00
7Ophthalmic disorders560.20
C- Infectious diseases
1Bacterial infections 9240.65
2Viral infections2160.93
3Fungal infections4170.81
4Parasitic infections3190.89
D- Miscellaneous applications
1Dental applications15190.22
2Toxicological effects990.00
3Insecticidal/repellents 11110.00
4Wound healing 11140.23
5Nutrition/supplements11140.23
6Weight reduction8140.46
Table 4. Major uses of plants reported by three informants or more with their FL%, RPL, and ROP value.
Table 4. Major uses of plants reported by three informants or more with their FL%, RPL, and ROP value.
SpeciesINAURNURPrimary UseNISEFL%RPLROP
Allium cepa L.520Common cold and flu360.0160
* Allium sativum L.34Lowering cholesterol levels, skin disorders266.70.7550
Azadirachta indica A.Juss.311Skin disorders3100.00.7575
Boswellia serrata Roxb. Kandr-luban35Cough and expectorant266.7167
* Coincya tournefortii (Gouan) Alcaraz, T.E.Díaz, Rivas Mart. and Sánchez-Gómez37Skin disorders266.70.7550
* Carum carvi L.35GIT disorders (carminative)266.70.7550
* Cinnamomum verum J.Presl310DM266.70.7550
Commiphora gileadensis (L.) C.Chr.49Dental applications (gingivitis, toothbrush)375.0175
Commiphora myrrha Engl515(Ophthalmic applications, wound healing)360.0160
* Cuminum cyminum L.35GIT disorders (abdominal cramps)3100.00.7575
* Curcuma longa L.413Enhancing immunity4100.01100
* Elettaria cardamomum (L.) Maton414Dental applications (toothache, mouthwash)375.0175
Ficus palmata Forssk.515Skin disorders360.0160
* Foeniculum vulgare Mill.410GIT disorders (abdominal cramps)250.0150
Hordeum vulgare L.310Renal disorders (stone)266.70.7550
Lavandula dentata L.38Infectious diseases, pain killer266.7167
Lawsonia inermis L.37Skin disorders3100.00.7575
Lepidium sativum L.38Bone fracture266.70.7550
* Matricaria chamomilla L.414Carminative, sedative, arthritis375.0175
Medicago sativa L.46Hematological disorders (anaemia)250.0150
Mentha longifolia (L.) L.38GIT disorders (carminative)266.70.7550
Mentha spicata L.59GIT disorders (carminative)240.0140
* Nigella sativa L.37Enhancing immunity 266.70.7550
Ocimum basilicum L59GIT disorders (abdominal cramps)240.0140
Olea europaea L.311Arthritis266.70.7550
Olea europaea subsp. cuspidata (Wall. and G.Don) Cif.38Enhancing immunity266.70.7550
* Pimpinella anisum L.49GIT disorders (carminative)375.0175
* Pistacia lentiscus L.310Wound healing, insecticidal266.70.7550
Pulicaria undulata (L.) C.A.Mey.36Repellent3100.00.7550
Punica granatum L.410Rheumatic disorders250.0150
Ricinus communis L.36GIT disorders (constipation)266.70.7550
Rosmarinus officinalis L.311GIT disorders (abdominal cramps)266.70.7550
Rumex nervosus Vahl38Dental applications (toothache, mouthwash)266.70.7550
Salvia officinalis L.512Enhancing immunity360.0160
Senna alexandrina Mill33GIT disorders (constipation)266.70.7550
Solanum incanum L.37Dental applications (decay)266.70.7550
* Syzygium aromaticum (L.) Merr. and L.M.Perry521Dental applications (toothache)480.0180
Tamarix aphylla (L.) H.Karst36Dental applications (gingivitis)266.70.7550
* Thymbra capitata (L.) Cav.38Cough and expectorant3100.00.7550
* Trigonella foenum-graecum L.418DM, skin disorders250.0 150
* Zingiber officinale Roscoe727GIT disorders (NV and dyspepsia), respiratory disorders (asthma, cold and cough)457.1157
Ziziphus spina-christi (L.) Desf.512Skin disorders360.0160
INAUR: number of informants cited a specific plant for a specific purpose; NUR: number of use reports cited by informants for a particular plant species, usually (NUR ≥ INAD); NISE: number of informants mentioned the use of a specific plant for a particular use report. RPL: Relative popularity level; ROP: rank order priority; DM: diabetes mellitus; NV: nausea and vomiting; *: Exotic plant.
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Al-Robai, S.A.; Ahmed, A.A.E.; Mohamed, H.A.; Ahmed, A.A.; Zabin, S.A.; Alghamdi, A.A.A. Qualitative and Quantitative Ethnobotanical Survey in Al Baha Province, Southwestern Saudi Arabia. Diversity 2022, 14, 867. https://doi.org/10.3390/d14100867

AMA Style

Al-Robai SA, Ahmed AAE, Mohamed HA, Ahmed AA, Zabin SA, Alghamdi AAA. Qualitative and Quantitative Ethnobotanical Survey in Al Baha Province, Southwestern Saudi Arabia. Diversity. 2022; 14(10):867. https://doi.org/10.3390/d14100867

Chicago/Turabian Style

Al-Robai, Sami Asir, Aimun A. E. Ahmed, Haidar Abdalgadir Mohamed, Abdelazim Ali Ahmed, Sami A. Zabin, and Abdullah A. A. Alghamdi. 2022. "Qualitative and Quantitative Ethnobotanical Survey in Al Baha Province, Southwestern Saudi Arabia" Diversity 14, no. 10: 867. https://doi.org/10.3390/d14100867

APA Style

Al-Robai, S. A., Ahmed, A. A. E., Mohamed, H. A., Ahmed, A. A., Zabin, S. A., & Alghamdi, A. A. A. (2022). Qualitative and Quantitative Ethnobotanical Survey in Al Baha Province, Southwestern Saudi Arabia. Diversity, 14(10), 867. https://doi.org/10.3390/d14100867

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