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Article

Quantitative Ethnobotanical Analysis of Medicinal Plants of High-Temperature Areas of Southern Punjab, Pakistan

1
Department of Botany, Government College University, Lahore 54000, Punjab, Pakistan
2
Department of Environmental Sciences, Shaheed Benazir Bhutto University Sheringal, Upper Dir 18000, Khyber Pakhtunkhwa, Pakistan
3
School of Biological Sciences, The University of Western Australia, Perth, WA 6009, Australia
4
Institute Ekosains Borneo, Universiti Putra Malaysia Kampus Bintulu, Bintulu 97008, Malaysia
5
Faculty of Environmental Science and Engineering, Kunming University of Science and Technology, Kunming 650500, China
6
Department of Forestry, Faculty of Life Sciences, SBBU Sheringal, Upper Dir 18000, Khyber Pakhtunkhwa, Pakistan
7
College of Environment and Ecology, Hainan University, Haikou 570100, China
8
Department of Forestry Science and Biodiversity, Faculty of Forestry and Environment, Universiti Putra Malaysia, Sri Serdang 43400, Malaysia
9
Soil and Environmental Biotechnology Division, National Institute for Biotechnology and Genetic Engineering, Faisalabad 38000, Punjab, Pakistan
10
Department of Biology, Faculty of Science, University Putra Malaysia, Seri Kembangan 43400, Malaysia
*
Authors to whom correspondence should be addressed.
Plants 2021, 10(10), 1974; https://doi.org/10.3390/plants10101974
Submission received: 26 July 2021 / Revised: 18 August 2021 / Accepted: 19 August 2021 / Published: 22 September 2021

Abstract

:
Lack of proper infrastructure and the poor economic conditions of rural communities make them dependent on herbal medicines. Thus, there is a need to obtain and conserve the historic and traditional knowledge about the medicinal importance of different plants found in different areas of the world. In this regard, a field study was conducted to document the medicinal importance of local plants commonly used by the inhabitants of very old historic villages in Southern Punjab, Pakistan. In total, 58 plant species were explored, which belonged to 28 taxonomic families, as informed by 200 experienced respondents in the study area. The vernacular name, voucher number, plant parts used, and medicinal values were also documented for each species. Among the documented species, Poaceae remained the most predominant family, followed by Solanaceae and Asteraceae. The local communities were dependent on medicinal plants for daily curing of several ailments, including asthma, common cold, sore throat, fever, cardiovascular diseases, and digestive disorders. Among the reported species, leaves and the whole plant remained the most commonly utilized plant parts, while extracts (38.8%) and pastes (23.9%) were the most popular modes of utilization. Based on the ICF value, the highest value was accounted for wound healing (0.87), followed by skincare, nails, hair, and teeth disorders (0.85). The highest RFC value was represented by Acacia nilotica and Triticum aestivum (0.95 each), followed by Azadirachta indica (0.91). The highest UV was represented by Conyza canadensis and Cuscuta reflexa (0.58 each), followed by Xanthium strumarium (0.37). As far as FL was concerned, the highest value was recorded in the case of Azadirachta indica (93.4%) for blood purification and Acacia nilotica (91.1%) for sexual disorders. In conclusion, the local inhabitants primarily focus on medicinal plants for the treatment of different diseases in the very old historic villages of Southern Punjab, Pakistan. Moreover, there were various plants in the study area that have great ethnobotanical potential to treat various diseases, as revealed through different indices.

Graphical Abstract

1. Introduction

Over the past few decades, several studies have indicated that the use of medicinal plants to treat various ailments is a common trend around the world [1,2,3]. Ethnobotanical surveys are often conducted to evaluate the complex connection between local communities and wild species of plants [4]. These surveys are crucial in understanding the cultural believes associated with the use and value of native plants. These types of studies help scientists to discover some novel drugs from plants [5]. Furthermore, ethnobotanical surveys are confirming the significance of medicinal plants from a socioeconomic perspective [6,7]. These sorts of surveys are important in preserving the indigenous knowledge about medicinal plants of a particular area [8,9]. These surveys provide a window to discover some new active compounds found in the plants against some deadly diseases [7]. Traditional ethnobotanical data on medicinal plants are required for the protection, conservation, and development of herbal drugs [2,10,11].
Since ancient times, humans have started extracting and processing valuable materials from medicinal plant species to cure and treat several diseases [11]. Medicinal plants play a significant role in uplifting the economic conditions and living standards of the local communities in remote areas [12]. There are more than 20,000 wild plant species in the world, while not more than twenty plant species fulfill 90% of the world’s food requirements. The use of medicinal plants is a common practice predominantly in the developing countries of the world. Some regions in Asian countries are known to use the whole plant or plant parts for the treatment of several ailments [13]. In this modern era, approximately 25% of the drug’s sources are from plants. It is expected that this trend would increase in the upcoming years [14,15]. However, there are certain areas of the world that have not been surveyed to collect and preserve the indigenous knowledge about medicinal plants. Traditional knowledge is often held by elderly people and traditional healers; unfortunately, the younger generations are not focused on obtaining this valuable knowledge from them [16]. The modern healthcare system is also imposing problems for traditional practices to cure diseases using medicinal plants [17].
According to World Health Organization (WHO), approximately 65% of the world population is dependent on traditional practices as primary health care [14,18]. Modern medicines are too expensive, especially for the people living in underdeveloped or even in developing countries, so they always trust in traditional practices employing local plants until reaching a critical situation [19].
Pakistan has a great diversity of medicinal plants in different ecological zones. The country has over 600 wild plant species that are medicinally valuable [20]. In Pakistan, most of the population is dependent on herbal drugs, apart from some big cities [2,12,21,22]. As mentioned earlier, the traditional knowledge about the ethnomedicinal importance of plants in different areas of the country needs to be preserved for our future generations. In addition, this knowledge could be used for the development of new medicines. To our knowledge, no study has been conducted to elucidate the ethnomedicinal potential of local plants in the present study area. Therefore, this study was conducted to compile the traditional ethnobotanical knowledge about different plants in four villages in Khanewal, Punjab, Pakistan.

2. Materials and Methods

2.1. Study Area

The present study was conducted in the historically old villages of Tehsil Kabirwala, District Khanewal, Southern Punjab, Pakistan (Figure 1). These villages are comparatively remote and situated near the bank of River Ravi. Moreover, these villages do not have modern healthcare centers and people for centuries are relying on medicinal plants. Unfortunately, no research work has been conducted to document the ethnomedicinal knowledge of plants found in these villages in the past. The soils in these study areas are fertile, suitable for wheat and cotton production. The climate is dry and extremely hot; light rain leaves the land dusty and arid while temperature range from 30.8 to 47 °C in summer, whereas in winter, it ranges from 15.6 to 25.7 °C [23]. As far as the language is concerned, approximately 90% of the population of these villages speak the Saraiki language. The Saraiki language is majorly spoken in Southern Punjab, Pakistan. This language has emerged from several dialects after the independence of Pakistan in 1947. Saraikstan is a combined region combined of different areas where this language is spoken. Saraiki language people are considered friendly and known for their hospitality. Some 40,000 years back, the Saraiki region became part of the Indus Valley Civilization. About 8.38% of the people in Pakistan speak the Saraiki language. Most of the Saraiki language people are living in the rural areas and healthcare centers are far away from their reach. Therefore, these people have remained more inclined towards the use of medicinal plants for centuries [24]. This area is famous for mango production, while other agricultural products include citrus.

2.2. Field Surveys and Data Collection

Fieldwork was carried out during the course of approximately two years, from January 2016 to July 2018. Six field tours were arranged to collect the best possible ethnobotanical data by simple interviewing or using structural questionnaires. Four villages were selected, namely, Kot Islam, Haveli Koranga, Qatal Pur, and Sarai Sidhu. Before the conduction of a formal interview, verbal consent to participate in this research work was given by all the participants. In total, 200 people were interviewed, including 125 (62.5%) males, 74 (37.0%) females, and 1 (0.5%) other. The majority of the selected respondents were old-aged because they usually have more knowledge and expertise in using medicinal plants for particular disorders. Educational background of the respondents was as follows: illiterate 171 (85.5%), primary 12 (6.0%), middle 7 (3.5%), secondary 5 (2.5%), higher secondary 3 (1.5%), and university 2 (1.0%). Ethnobotanical knowledge usually passes from generation to generation verbally and most of the people from Pakistan have expertise in using medicinal plants despite the high rate of illiteracy. It is a common trend that most of the older people will not even write a single sentence, but they are genius in using medicinal plants and are famous for their knowledge about the medicinal plants in the surrounding areas. Therefore, these people have a bundle of knowledge about the use of medicinal plants despite being illiterate. In the case of illiterate healers, the basic information and other study-related questions were recorded by the interviewer during the conversation with the respondents. Interviews were conducted mainly during the evening hours when the respondents were usually free from their daily routine work.
Moreover, common places such as hamlets, tea stalls, farms, and gardens were selected to conduct interviews. To obtain detailed information, the authors visited the farms and houses at least twice or thrice to engage in conversation, especially with the old age people whose ages ranged from 70 to 98 years. Furthermore, the local community was informed about conducting interviews and seeking permission before interviewing every individual. During interviews, the demographic characteristics of each respondent and vernacular names of the plants, plant parts used as medicine, and the preparatory methods of the plants were also documented.

2.3. Inventory

Plants were collected, and all the necessary data were documented, including their vernacular names, locality, and medicinal values. Plants were identified with the assistance of taxonomic experts available at the Department of the Botany, Government College University, Lahore, Pakistan and with the available literature present in the Science Library of the Government College University, Lahore, Pakistan [25,26]. Moreover, the plants were also compared with the existing plants available at the university’s herbarium, the Sultan Ahmad Herbarium, Government College University, Lahore, Pakistan. The collected specimens were pressed, dried out, and deposited at the Sultan Ahmad Herbarium, Government College University, Lahore, Pakistan.

2.4. Ethical Consideration

Data collection was carried out after ethical considerations to avoid or minimize anything that can cause emotional or physical damage to the respondents. Voluntary participation was followed to collect ethnobotanical data from only those respondents who were excited and willing to share their experience regarding the use of medicinal plants.

2.5. Quantitative Ethnobotany

2.5.1. Informant Consensus Factor

Informant consensus factor (ICF) was calculated by following Heinrich et al. [27]:
ICF = N ur N t N ur 1
where “Nur” is the number of use citations for each disease category and “Nt” represents the number of taxa used for that disease category. The homogeneity of the information regarding a particular category of ailment is highlighted by the ICF values [18,28].

2.5.2. Use Value

The use value (UV) represents the relative importance of a particular plant. Moreover, higher UVs indicate that there are many use reports for a given plant species, whereas the value near zero indicates fewer reports, confirming the use of the species. It was calculated by using the following formula [29,30]:
UV =   U i N
where “∑Ui” represents the total number of uses cited by each informant for a given species, while “N” refers to the total number of respondents or informants who participated in the survey [31].

2.5.3. Relative Frequency Citation

The relative frequency citation (RFC) was calculated by using the formula as follows [18,32];
RFC = FC N
where FC indicates the number of respondents or informants who mentioned the use of the species while “N” represents the total number of respondents or informants involved in the study.

2.5.4. Fidelity Level

The fidelity level (FL) indicates the preference of one species over others for the treatment of a particular ailment [32,33]. For the calculation of the FL of plant species, the following formula was used:
FL   ( % ) = I p I u × 100
where Ip is the number of respondents who mention the use of species for a particular ailment category, while “Iu” is the number of respondents who cited the use of that species for any ailment category.

2.6. Data Analysis

The collected data were subjected to quantitative analysis using Microsoft Excel 2016 regarding the percentages and graphical presentation. Arc-GIS version 10.7 was used to make a study area map

3. Results and Discussion

3.1. Demographic Characteristics of Respondents

Six field tours were arranged in different seasons during the course of two years (2016–2018) to collect and document the best possible ethnobotanical data. Two hundred respondents were interviewed, and the demographic characteristics of each respondent are documented in Table 1. Among the selected respondents, 62.5% were males, 37.0% were females, and others were 0.5%. Most of the respondents were illiterate (85.5% of the respondents), while only 1% had a university education. As far as marital status was concerned, only about 13% were unmarried. Most of the respondents spoke the Saraiki language fluently, while Urdu-speaking respondents were less common.

3.2. Health Issues

The data showed that the local inhabitants were suffering from several health issues, the most common being urinary disorders, gastrointestinal (GIT) disorders, respiratory disorders, sexual disorders, muscular disorders, cardiac disorders, skin and eyes problems, ulcer, diabetes, and snake or mosquito bites (Figure 2). Several studies have shown that nearly all these health issues were common in different parts of the country [1,2,19,21,22,34,35].

3.3. Medicinal Plant Diversity

During fieldwork, about 58 plants were documented for medicinal purposes (Table 2). The collected 58 plant species belonged to 28 taxonomic plant families. The Poaceae family, with six medicinal species, was the most dominant, followed by Asteraceae and Solanaceae with five species each. The Brassicaceae and Fabaceae families represented four species each; Lamiaceae and Moraceae represented three species each. Furthermore, other frequently used plants belonged to families such as Amaranthaceae, Amaryllidaceae, Apiaceae, Chenopodiaceae, Convolvulaceae, Meliaceae, and Myrtaceae, with two species each. Finally, the Anacardiaceae, Rutaceae, Primulaceae, Rhamnaceae, Salvadoraceae, Oxalidaceae, Moringaceae, Lythraceae, Euphorbiaceae, Cucurbitaceae, Combretaceae, Boraginaceae, Asphodelaceae, and Apocynaceae families had one medicinal species each.

3.4. Medicinal Plant Parts Used for the Treatment of Diseases

The leaves were the most commonly used plant parts by the local inhabitants of the study areas. Leaves were reported 33 times in the documented 58 plants followed by the use of the whole plant (21); flowers and fruits were cited by respondents 15 times each (Figure 3). Moreover, other plant parts used to treat different diseases included bark (14 times), roots (12 times), seeds (10 times), and stem or shoot (7 times). Leaves can easily be collected and require less effort in using them to treat different diseases compared to the other plant parts i.e., flowers, roots, fruits, and seeds. Earlier, Giday et al. [36] reported that leaves were the most frequently used plant parts to treat various ailments due to less effort required for their use. According to Kadir et al. [37], leaves removed from the plants cause less damage compared to those observed with the removal of other plant parts. The removal of other plant parts can severely affect plant growth and development.
On the other hand, several studies have shown that the leaves contain more bioactive compounds against particular diseases and play a major role in the preparation of herbal medicines [2,12,34,36,38,39]. In contrary to the present study, whole plant parts were frequently used to treat common diseases in other parts of the country, predominantly in the Khyber Pakhtunkhwa province [40].

3.5. Mode of Utilization

As is clear in Figure 4, the medicinal plants found in the study areas were most commonly used in the form of an extract (38.8%), paste (23.9%), and decoction (11.9%). All these forms of utilization are pretty common in different regions of the country and the world [2,7,12,21,34,41,42]. Most of the plants were used internally while some were also used externally in the form of paste or powder. For the preparation of different herbal products, the respondents in the study areas preferred fresh plant materials compared to dried ones.

3.6. Number of Taxa Curing or Treating Ailment Categories

About 14 different ailment categories were determined from the number of taxa used for the treatment of these ailment categories (Figure 5). Cough, fever, cold, and flu were among the ailment categories treated by the maximum number of taxa (29), followed by GIT disorders (27) and skincare (26). Furthermore, only four taxa were reported for the treatment of cardiac disorders. The results of the current study have shown that the majority of respondents perform their work in the fields and are more prone to fever, cold, and flu; therefore, they were simply aware of the use of medicinal plants for the treatment of these health issues.

3.7. Quantitative Data Analysis

3.7.1. Informant Consensus Factor

In the present study, the informant consensus factor (ICF) was examined for 14 ailment categories: (1) GIT disorders; (2) urinary disorders; (3) respiratory disorders; (4) sexual problems; (5) snake or mosquito bite; (6) wound healing; (7) blood purification; (8) cough, cold, fever, and flu; (9) cardiac disorders; (10) diabetes; (11) skincare and nails, hair, and teeth disorders; (12) muscular disorders or rheumatism; (13) ulcers; and (14) eye problems. The ICF value ranged from 0.60 to 0.87, while the average ICF value was 0.74 (Table 3). The highest value of ICF was reported for wound healing (0.87), followed by skincare and nails, hair, and teeth disorders (0.85), and then GIT disorders (0.83). The wounds are the most common ailment in the study area, which might be due to the low literacy level. The local people used their fields to grow crops for the fulfillment of their household requirements and it might be the reason that they were more prone to injury while working in the fields [21,26]. On the other hand, when people work in the fields during hot summer days, they ultimately suffer from GIT disorders due to extreme heat. Therefore, the highest value was reported for wound healing, teeth disorders, and gastrointestinal disorders. These results are nearly parallel to the results of the study carried out by Zahoor et al. [2]. The results of the current study have shown that the local inhabitants were using 14 different species for wound healing; the most cited plants were Lawsonia inermis, Acacia nilotica, and Ziziphus mauritiana. Towfik et al. [43] reported the higher use of L. Inermis for wound healing in the hot and dry regions of Saudi Arabia. The farmers are injured during their fieldwork and use Acacia nilotica for swift wound healing [44].

3.7.2. Use Value

In the present study, the use value (UV) ranged from 0.032 to 0.58 (Table 4). The highest UVs were represented by Conyza canadensis (0.58) and Cuscuta reflexa (0.58), followed by Xanthium strumarium (0.37). The lowest UVs were observed in the case of Withania somnifera (0.032). Several studies have also found similar plants as reported in the present study with the highest UVs in other parts of the country [2]. The UV shows the relative importance of the use of medicinal plant species in a specific area [45]. However, it is important to understand that there is a great diversity of plants and environmental fluctuations in different parts of Pakistan. Therefore, local inhabitants often exploit the local and easily available plants to treat common territorial diseases. There will always remain a slight difference in the use value of plants even in two neighboring districts of the same country.

3.7.3. Relative Frequency Citation

In the present study, the value of the relative frequency citation (RFC) ranged from 0.04 to 0.95 (Table 4). As is clear from the data, the highest value of RFC was recorded in the case of the native plants of the area. The highest value was found in the case of Acacia nilotica (0.95) and Triticum aestivum (0.95), followed by Azadirachta indica (0.91), Ficus benghalensis (0.89), and the lowest RFC in the case of Chloris virgata (0.04). The local inhabitants are well aware of the use of locally available medicinal plants [2,34]. Earlier, it has been found that Acacia nilotica and Azadirachta indica preferably grow under high-temperature conditions [46]. Moreover, Triticum aestivum is commonly grown as a cash crop in the present areas of the country [23].

3.7.4. Fidelity Level

The value of the fidelity level (FL) ranged from 25.0 to 93.4% (Table 4). It is a fact that the higher the value of FL, the higher will be the plant’s usage [18]. In the present study, the highest FL was represented by Azadirachta indica (93.4%) for blood purification followed by Acacia nilotica (91.0%) for sexual disorders, and Lawsonia inermis (89.4%) for ornamentation of the body (hair dye, staining of hair, hands, legs, and nails). At the same time, the lowest FL was recorded in the case of Chloris virgata (25.0%) for fodder.
Medicinal plants are gaining interest over the years predominantly in Asian countries due to their role in the provision of food, healthcare support, and poverty alleviation. Nine Asian countries’ researchers, namely, China, Korea, India, Indonesia, Malaysia, Myanmar, Sri Lanka, Thailand, and Vietnam, are more focusing on the discovery of novel drugs from plant material. All these nine countries have already published their National Monographs of herbal drugs [47]. Moreover, other Asian countries are also investing more energy and money in the discovery of herbal drugs. Asian communities are experts in the usage of medicinal plants for the treatment of common local diseases [3]. Interestingly, both men and women are well informed from their ancestors regarding traditional treatment with medicinal plants. Undeniably, their expertise is owned by their ancestors as they have received this valuable knowledge from their ancestors [48]. The present study suggests that there is a dire need to increase the scientific investigation for the discovery of bioactive compounds from medicinal plants. These types of surveys assist national and international researchers to investigate the medicinal plants for the synthesis of novel drugs [49,50].
Several studies have confirmed the extensive use of medicinal plants as observed in the present study [42,51,52]. A single plant or parts of a plant species can be used for traditional herbal medicines [22,52]; however, several reports have indicated that a single herbal recipe for particular diseases can be prepared using different plant species [3]. The therapeutic plants are vital in treating diseases of about 80% of the people from emerging economies [53,54]. Traditional healers (Hakeems) are always the vital part of these communities, which are more dependent on medicinal plants given the poor healthcare system in such areas. In the northern regions of the country, the local inhabitants collect therapeutic plants and sell them in the market to meet their daily household financial requirements [45]. It is important to understand that the majority of plants used in the study area for the treatment of diseases are easily available and people know how to use these plants sustainably.

3.8. Ethnopharmacological Relevance

The present research work is novel compared to ethnomedicinal literature of other areas of Southern Punjab [3,55,56]. The results only have been compared to ethnomedicinal literature of neighboring areas because the distant areas have fewer similarities. Comparative studies have revealed that twenty plant species, including Albizia lebbeck, Amaranthus spinosus, Brassica nigra, Chenopodium murale, Conyza Canadensis, Cordia dichotoma, Coronopus didymus, Cucurbita pepo, Eclipta alba, Eclipta prostrate, Eucalyptus globules, Hordeum vulgare, Lawsonia inermis, Ocimum basilicum, Ocimum sanctum, Ricinus communis, Salvadora oleoides, Sisymbrium irio, Sonchus arvensis, and Terminalia arjuna, have not been documented previously. In the present study, newly reported species with their most common uses for the first time include Albizia lebbeck (diarrhea), Amaranthus spinosus (snakebite), Brassica nigra (rheumatism), Chenopodium murale (blood purification), Conyza Canadensis (diarrhea), Cordia dichotoma (anti-inflammatory), Coronopus didymus (malaria), Cucurbita pepo (vermifuge), Eclipta alba (diabetes), Eclipta prostrate (hair dye), Eucalyptus globules (wound healing), Hordeum vulgare (cough), Lawsonia Inermis (hair dye, staining of hair, hands, legs, and nails), Ocimum basilicum (menstrual cramps), Ocimum sanctum (rheumatism), Ricinus communis (laxative), Salvadora oleoides (stomach imbalance), Sisymbrium irio (wound healing), Sonchus arvensis (asthma), and Terminalia arjuna (diabetes).
The present study also reported that nineteen species could be used for the treatment of rheumatism. In the literature, no study has reported such a good number of species for the treatment of rheumatism. On the other hand, sixteen species have been documented for the treatment of diarrhea and these results are pivotal for the researchers to focus on the detection of useful bioactive compounds for the preparation of novel drugs.
Use of the traditional medicinal plants for the treatment of different diseases has actively been emerging in the recent decade. Various researchers have found that ethnopharmacological relevance can be examined through comparison with previous studies. Amaranthus spinosus is used to treat diarrhea, fever, snakebite, and fodder [2,57]. Chenopodium album is another widely distributed plant species in the country, used against rheumatism, as a diuretic, and for cooking purposes [40,58]. Ricinus communis is used as a laxative and for the treatment of GIT problems [2,59]. Dalbergia sissoo is used for sexual disorders, including vaginal infection, sperm production, and used as a diuretic. The use of this particular species for sexual disorders coincides with a particular study carried out in India [40,60]. Acacia nilotica is a well-known therapeutic plant of the Asian subcontinent, used for the treatment of sexual disorders in both sexes, wound healing, and GIT disorders (diarrhea) [12,60,61]. Azadirachta indica is another plant used for the treatment of several diseases, including skincare, hair problems, birth control, abortion, and diabetes [2,12,62]. Ficus benghalensis is commonly used to treat diarrhea, jaundice, diabetes, vaginal infection, and is known to possess anti-inflammatory activities [2,63]. Morus alba can be used for the treatment of cough, common cold, and sore throat [64]. Ficus religiosa plant extract and paste is used for the treatment of ulcer and wound healing [40]. Allium cepa is commonly used in cooking across the globe; however, it exhibits great medicinal properties. It is used to treat sexual disorders in sexes, blood purification, sore throat, hair loss, appetite problems in cattle, wound healing, and regulation of normal blood pressure [65,66].

4. Conclusions

The collected data showed that the local community was dependent on herbal drugs. The majority of the population relied on the local herbalists or used medicinal plants using their ethnobotanical knowledge due to the extra financial burden posed by the purchase of modern medicines. During the field survey, more focus was on older people, to obtain the maximum and more valuable ethnobotanical knowledge about medicinal plants. Unfortunately, the young generation is not focusing and trying to obtain or carry on this traditional knowledge due to modernization. Another possible reason is that there is a gap between older people and the young generation due to modern entertainment tools. The present study found that the Poaceae (6), Asteraceae (5), and Solanaceae (5) families represented the maximum number of medicinal plants. Different quantitative indices, such as ICF, UV, RFC, and FL, indicated that the local community in the study area was dependent on herbal drugs because of their poor economic conditions and lack of proper healthcare centers. Based on the ICF values, the highest value was found for wound healing (0.87), followed by skincare, nails, hair, and teeth disorders (0.85). The highest RFC value was represented by Acacia nilotica and Triticum aestivum (0.95 each), followed by Azadirachta indica (0.91). The highest UV was represented by Conyza canadensis and Cuscuta reflexa (0.58 each), followed by Xanthium strumarium (0.37). As far as FL was concerned, the highest value was recorded in the case of Azadirachta indica (93.4%) for blood purification and Acacia nilotica (91.1%) for sexual disorders. In conclusion, there were various plants found in the study area, which have great ethnobotanical potential to treat various diseases, as revealed through different indices. In the future, it is expected to further identify species of medicinal plants potentially useful to humans in the same study area, with the help of field botanists [67,68,69,70,71] who have recently gained the attention of the global scientific community.

Author Contributions

Conceptualization, M.U. and A.D.; formal analysis, M.U.; funding acquisition, F.H.I. and W.R.K.; investigation, M.U.; project administration, A.D. and G.M.; resources, M.U.; software, M.U., G.M. and S.M.; validation, F.H.I., M.N.R. and M.I.; visualization, M.N.B.S. and S.A.; writing—original draft, M.U.; writing—review and editing, M.U, A.D., F.H.I., G.M., M.N.R., S.M., M.N.B.S., M.I, S.A. and W.R.K. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded by UNIVERSITI PUTRA MALAYSIA, Grant No 5540232.

Data Availability Statement

Not applicable.

Acknowledgments

The authors are thankful to “Universiti Putra Malaysia” for the provision of financial support. The authors are also thankful to Ehsan (Visiting Faculty, the Department of English, University of Narowal) for his assistance in improving the manuscript grammatically. The authors are grateful to the local community of the district for their good behavior and hospitality and for providing valuable indigenous knowledge of medicinal plants. The authors are also thankful to the taxonomic experts of GC University, Lahore, for their help in identifying the plants.

Conflicts of Interest

The authors declare no conflict of interest.

Ethics Approval and Consent to Participate

This research was reviewed and approved by the Institutional Bioethics Committee at GC University (GCU.IIB–103, 28 December 2015), Lahore (Pakistan). Verbal consent to participate in this research work was given by all volunteers or their guardians in their native language.

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Figure 1. Map of the study area. Note: The dots show the exact location of the villages.
Figure 1. Map of the study area. Note: The dots show the exact location of the villages.
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Figure 2. Health issues of the people in the study areas.
Figure 2. Health issues of the people in the study areas.
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Figure 3. Plant parts used.
Figure 3. Plant parts used.
Plants 10 01974 g003
Figure 4. Mode of administration.
Figure 4. Mode of administration.
Plants 10 01974 g004
Figure 5. The number of taxa used for treating different ailments.
Figure 5. The number of taxa used for treating different ailments.
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Table 1. Demographic characteristics of the informants.
Table 1. Demographic characteristics of the informants.
VariationCategoryNumberPercentage
GenderMale12562.5%
Female7437.0%
Other010.5%
AgeLess than 30115.5%
30–40157.5%
40–503216.0%
50–603718.5%
60–704321.5%
Over 706231.0%
Marital statusUnmarried2613.0%
Married17487.0%
Educational background Illiterate17185.5%
Primary126.0%
Middle073.5%
Secondary052.5%
Higher secondary031.5%
University021.0%
Table 2. Families representing the number of medicinal plants.
Table 2. Families representing the number of medicinal plants.
Sr. No.Family Number of Medicinal Plants
1Poaceae6
2Asteraceae5
3Solanaceae5
4Brassicaceae4
5Fabaceae4
6Lamiaceae3
7Moraceae3
8Amaranthaceae2
9Amaryllidaceae2
10Apiaceae2
11Chenopodiaceae2
12Convolvulaceae2
13Meliaceae2
14Myrtaceae2
15Anacardiaceae1
16Asphodelaceae1
17Apocynaceae1
18Boraginaceae1
19Combretaceae1
20Cucurbitaceae1
21Euphorbiaceae1
22Lythraceae1
23Moringaceae1
24Oxalidaceae1
25Primulaceae1
26Rhamnaceae1
27Rutaceae1
28Salvadoraceae1
Table 3. ICF values of the medicinal plant species exploited for the treatment of several ailment categories.
Table 3. ICF values of the medicinal plant species exploited for the treatment of several ailment categories.
Ailment CategoriesNur Nt ICF
Wound healing 103140.87
Skincare and nails, hair, and teeth disorders 167260.85
GIT disorders (Diarrhea, constipation, stomach imbalance, cholera) 156270.83
Muscular disorders (Rheumatism)89190.79
Diabetes 78190.77
Eye problems 17050.75
Cardiac disorders 13040.75
Blood purification 16050.73
Ulcer 37110.72
Urinary disorders57180.70
Cough, cold, fever, flu89290.68
Sexual problems 58190.68
Snake or mosquito bite 14060.61
Respiratory disorders (asthma, tuberculosis)39160.60
Note: Nur—number of use citations for each disease category; Nt—number of taxa used for that disease category; ICF—informant consensus factor.
Table 4. Plants from the study areas with medicinal values.
Table 4. Plants from the study areas with medicinal values.
S. NoPlant species with Specimen Name FamilyVernacular Name Plant Parts Used Methods of UtilizationsUsesUV RFC FL%
1Acacia nilotica (L.) Willd. ex Del.
JP–454 *
MimosaceaeKekar Leaves, roots, fruit, flowers, bark, gum, oilExtract, decoction, powder High blood pressure, liver problems, tuberculosis, sexual disorders, ulcer, wounds, common cold, diarrhea, toothache, pickle, fodder0.0580.9591.1
2Albizia lebbeck (L.) Benth.
JP–414
FabaceaesharaiiLeaves, flowers, bark, Paste Lungs disorders, diabetes, anti-inflammatory, cough, flu, eye care, diarrhea, piles 0.110.3560.0
3Allium cepa L.
JP–421
Amaryllidaceae Ganda/WasalBulb, shoots, flowerExtract, raw, decoction, pasteDiabetes, high blood pressure, asthma, sexual disorders in both sexes, dry cough, sore throat, hair loss, sleeplessness, appetite problems in cattle, wounds, cooking 0.0620.8860.2
4Allium sativum L
JP–379
Amaryllidaceae Thoum/Lehson Bulb, leaves, flowerExtract, decoction, paste, raw, Diabetes, High blood pressure, cardiac disorders, cough, fever, toothache, skin problems, tuberculosis, cooking 0.0580.7860.9
5Aloe vera (L.) Burm. f.
JP–385
AsphodelaceaeKawar patha Leaves Extract, oilSkin care, pimples, cuts, constipation, bleeding gums, diabetes0.0550.6487.5
6Amaranthus viridis Hook
JP–371
AmaranthaceaeChulaiWhole plantExtract, powder Diuretic, laxative, blood purification, epilepsy, Cooking, fodder0.0570.5371.7
7Amaranthus spinosus L.
JP–378
AmaranthaceaeKurandWhole plant Extract, paste Snakebite, laxative, diarrhea, mouth ulcer, vaginal discharge, wound healing, fever, cooking, fodder 0.0880.5174.5
8Lysimachia arvensis var. caerulea (L.) Turland & Bergmeier
JP–443
PrimulaceaeMatri Whole plant ExtractDiuretic, laxative, skincare, liver disorders0.0770.2661.5
9Avena sativa L.
JP–467
PoaceaeJaii Leaves, stem, Extract, powder, paste Diabetes, constipation, sexual improvement, brain health, normalize blood pressure, cooking 0.0730.4162.2
10Azadirachta indica A. Juss.
JP–489
MeliaceaeNemb Leaves, bark, roots, oil Extract, oil, paste, rawBlood purification, skincare, eczema, hair growth, ulcer, diabetes, fever, gums care, birth control, and abortion, antimicrobial0.0550.9193.4
11Brassica campestris L.
JP–399
BrassicaceaeSaag Whole plant and oil Extract, paste Diuretic, milk production in mammals, fodder, cooking 0.0370.5389.7
12Brassica nigra L.
JP–400
BrassicaceaeUssu Whole plant Extract, paste, decoction Rheumatism, skin care, snake bite, laxative, cooking0.0510.4946.9
13Calotropis procera (Aiti) Aiti.
JP–382
ApocynaceaeAakda Leaves, sap milk Extract, decoctionSexual disorders, anti-inflammatory, vermifuge, diarrhea, analgesic0.0510.4950.0
14Chenopodium album L.
JP–405
Chenopodiaceae Bathoo Whole plantExtract, paste, decoctionRheumatism, diuretic, laxative, skincare, cooking, fodder 0.0430.6979.0
15Chenopodium murale L.
JP–403
ChenopodiaceaeJangli bathoo Whole plantExtract, paste, decoctionPiles, asthma, sexual disorder, cough, hair loss, blood purification, cooking, fodder 0.0750.5367.9
16Citrus limon (L.) Osbeck
JP–433
Rutaceae Nimbo/LeemoFruit, stem bark, oil, Extract, oil, paste Scurvy, flu, stomach imbalance, kidney stones, sore throat, malaria, flavor, cooling juice in summer 0.0480.8274.5
17Convolvulus arvensis L.
JP–401
ConvolvulaceaeBhanweri Leaves, flowers, roots Tea, extract, paste Laxative, mosquito bite, normalized menstruation, wound healing 0.0700.2847.4
18Conyza canadensis (L.) Cronquist
JP–395
AsteraceaeBonkhady Whole plant Extract, oilRheumatism, diarrhea, fodder0.580.2655.8
19Coriandrum sativum L.
JP–389
ApiaceaeDhanyaa Whole plant Extract, oil, rawRheumatism, nausea, diarrhea, intestinal gas, toothache, flavor 0.0390.7634.2
20Cordia dichotoma Forst. f.
JP–391
BoraginaceaeLasooda/ Nasooda Leaves, seeds, bark, fruitDecoction, extract, paste Fever, anti-inflammatory, diarrhea, headache, Pickle, cooking, fodder 0.0470.7464.2
21Coronopus didymus (L.)Sm.
JP–394
BrassicaceaeJungle podia Whole plant ExtractRheumatism, asthma, diarrhea, malaria, cooking, fodder 0.0790.3838.2
22Cucurbita pepo L.
JP–375
CucurbitaceaeLoki Leaves, flowers, fruits, seeds, Extract, paste, raw Diuretic, diabetes, ulcer, laxative, constipation, wound healing, vermifuge, cooking0.0950.4251.8
23Cuscuta reflexa Roxb.
JP–404
ConvolvulaceaeAmar beel Whole plant/vine ExtractRheumatism, diuretic, jaundice, cough, skincare, fever, laxative0.580.0633.3
24Chloris virgata Sw.
JP–473
Poaceae Leaves Paste, extraction Wound healing, Fodder0.250.0425.0
25Cynodon dactylon (L.) Pers.
JP–468
PoaceaeGhass Whole plant Extract, powder Skincare, laxative, fodder 0.0680.2290.9
26Dalbergia sissoo Roxb. ex DC.
JP–411
FabaceaeTalii Leaves, wood, barkPaste, oil Diuretic, diabetes, vaginal infection, sperm production, piles, nausea0.300.1035.0
27Datura innoxia Mill
JP–439
SolanaceaeSundu Fruit, seeds, Extract, paste Malaria, ulcer, common cold, asthma, piles, skin problems, hair loss, dandruff, sexual disorders, 0.350.1338.5
28Eclipta alba (L.) Hassk.
JP–397
Asteraceae Gokdi Whole plant DecoctionRheumatism, asthma, diabetes, skincare, laxative, liver disorder, eye drops, hair growth0.330.1245.8
29Eclipta prostrate (L.) L.
JP–381
AsteraceaeKehraj Whole plant Extract, paste Liver disorders, hair dye, skin care, malaria, anti-inflammatory, diabetes0.230.1338.5
30Eucalyptus globulus Labill.
JP–465
MyrtaceaeSufaida Leaves, oil, seedExtract, oil, paste Antiseptic, vermifuge, cough, wound healing 0.150.1348.1
31Ficus bengalense (Roxb.) Wight & Arn.
JP–461
MoraceaeBohard Leaves, hanging roots, fruit, bark Extract, decoction Rheumatism, vaginal infection, diabetes, diarrhea, jaundice, anti-inflammatory, ulcer, skincare 0.0450.8984.3
32Ficus religiosa (L.) Forssk.
JP–459
MoraceaePeppaal Leaves, bark, fruitExtract, decoction, pasteRheumatism, diabetes, jaundice, ulcer, constipation, cough, fever, wound healing, leucorrhea, skincare, piles0.0640.8671.5
33Foeniculum vulgare Mill.
JP–369
ApiaceaeSaunfLeaves, flowers, fruitExtract, decoction, tea Diuretic, laxative, asthma, acne, blood purification 0.0380.6666.7
34Hordeum vulgare L.
JP–466
PoaceaeJoo Whole plantDecoction, paste Rheumatism, sore throat, cough, vaginal infection, constipation, cooking0.0480.6378.6
35Lawsonia Inermis L.
JP–419
LythraceaeMehndi Leaves, flowers, bark Paste or powder, extract, decoction Diabetes, skincare, wound healing, ornamentation (hair dye, staining of hair, hands, legs, and nails)0.0610.3389.4
36Mangifera indica L.
JP–428
Anacardiaceae Aamb/Aam Leaves, flowers, fruits, seed, bark, stem, roots Powder, extract, raw skincare, diarrhea, piles, diuretic, diabetes, cardiac disorders, asthma, cough, stomach imbalance, cooking, pickle0.0640.8581.3
37Melia azedarach L.
JP–451
MeliaceaeBkain Leaves, root, bark, gumExtract Asthma, diuretic, diarrhea, laxative, emetic, cooking0.0400.7475.8
38Melilotus indicus (L.) All.
JP–409
FabaceaeSinjiWhole plant ExtractLaxative, diabetes, diarrhea, cooking, fodder0.140.1659.4
39Mentha longifolia (L.) Huds.
JP–417
LamiaceaeJangli podia Whole plant Paste, extract, tea Asthma, common cold, cough, stomach imbalance, headache, wound healing, laxative 0.0650.5470.4
40Moringa oleifera Lam.
JP–470
MoringaceaeSohanjna Leaves, flowers, seed, and oilRaw, extract, paste Diuretic, antimicrobial, asthma, diabetes, birth control, constipation, hair growth, diarrhea, snake bite, ulcer, wound healing, cooking 0.150.3965.8
41Morus alba L.
JP–457
MoraceaeShatoot Leaves, bark, fruit Extract, paste, raw Cough, common cold, eye infection, sore throat, fever, headache0.0480.62
42Nicotiana plumbaginifolia L.
JP–434
SolanaceaeJangli tambacoLeaves, stem, fruitExtract, powder Rheumatism, snake bite, wound healing, leaches removal, toothache0.0370.6785.1
43Ocimum basilicum L.
JP–415
LamiaceaeNiazbo Leaves, roots, seeds, Extract Headache, menstrual cramps, diuretic, diarrhea, constipation, loss of appetite, flavor0.0410.8668.6
44Ocimum sanctum L.
JP–413
LamiaceaeTulsi The whole plant, oil Extract, powder, oilRheumatism, asthma, cough, flu, sore throat, malaria, skincare, diabetes, diarrhea, fever, antiseptic 0.0810.6861.8
45Oxalis corniculata L.
JP–463
OxalidaceaeJunlgi booti Whole plant Extract, Rheumatism, diuretic, fever, diarrhea, flu, snake bite, Cooking, flavor0.280.1435.7
46Phragmites karka (Retz.) Trin. Ex steud.
JP–436
PoaceaeLundda Stem woodExtract Cholera, cardiac disorders, fish poisoning, Cooking, fodder0.130.1934.2
47Ricinus communis L.
JP–402
EuphorbiaceaeArand Leaves, roots, seeds, oil Extract, paste Rheumatism, laxative, liver disorders, castor oil for eye care, birth control, skincare0.0590.5180.4
48Salvodora oleoides Decne
JP–430
SalvadoraceaeJaal Leaves, bark, roots, seed, and oil Raw, paste, extract Rheumatism, diuretic, stomach imbalance, cough, fever, kidney stones, toothache, mosquito repellent, cooking 0.0690.6557.7
49Sisymbrium irio L.
JP–393
BrassicaceaeFarmi saag Leaves, seeds, flowersExtract, powder, paste Rheumatism, cough, wound healing, sore throat 0.0910.2240.9
50Solanum nigrum L.
JP–453
SolanaceaeBambool Leaves, stem Extract, rawSkin problems, loss of appetite, asthma, ulcer, laxative, cough, fever, cooking0.0690.5875.9
51Solanum surattense L.
JP–445
SolanaceaeRubdi Whole plantDecoction, paste Rheumatism, sore throat, cough, vaginal infection, constipation 0.120.2176.2
52Sonchus arvensis L.
JP–380
AsteraceaeMaii bodi Leaves, roots, flowers ExtractAsthma, cough, chest pain, caked breast treatment0.100.1941.0
53Syzygium cumini L.
JP–462
MyrtaceaeJaman Leaves, flowers, woodExtract, rawRheumatism, sore throat, asthma, blood purification, ulcer0.050.5072.0
54Terminalia arjuna L.
JP–408
CombretaceaeArjun Leaves, bark, fruit, flower Extract, paste, powder Diabetes, cardiac disorders, cough, sore throat, diarrhea, constipation, sore eyes 0.0760.4671.7
55Triticum aestivum L.
JP–476
PoaceaeDaany/GandamWhole plant Extract, pasteDiuretic, laxative, kidney problems, sexual strength in both sexes, sore throat, constipation, cooking 0.0370.9588.9
56Withania somnifera (L.) Dunal
JP–441
SolanaceaeAak-Singh Leaves, flowers, fruitsExtractRheumatism, improvement of sexual strength in male0.0320.3167.7
57Xanthium strumarium L.
JP–432
AsteraceaeMuhabat bootiLeaves, roots, fruitDecoction Diuretic, laxative, improve appetite, sedative, malaria, fever 0.370.0837.5
58Ziziphus mauritiana Lam.
JP–440
RhamnaceaeBerry Roots, leaves, fruits, Extract, paste, oil, raw Diuretic, diabetes, fever, cough, constipation, sleeplessness, liver disorders, ulcer, wound healing, skincare 0.0820.5568.2
* The numbers after JP represent the voucher number issued while submitting the collected specimen to the Sultan Ahmad Herbarium, Government College University Lahore. Bold letters in the “Uses” column represent the uses on which the fidelity level is based; FL %—fidelity level; RFC—relative frequency citation; UV—use value.
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MDPI and ACS Style

Usman, M.; Ditta, A.; Ibrahim, F.H.; Murtaza, G.; Rajpar, M.N.; Mehmood, S.; Saleh, M.N.B.; Imtiaz, M.; Akram, S.; Khan, W.R. Quantitative Ethnobotanical Analysis of Medicinal Plants of High-Temperature Areas of Southern Punjab, Pakistan. Plants 2021, 10, 1974. https://doi.org/10.3390/plants10101974

AMA Style

Usman M, Ditta A, Ibrahim FH, Murtaza G, Rajpar MN, Mehmood S, Saleh MNB, Imtiaz M, Akram S, Khan WR. Quantitative Ethnobotanical Analysis of Medicinal Plants of High-Temperature Areas of Southern Punjab, Pakistan. Plants. 2021; 10(10):1974. https://doi.org/10.3390/plants10101974

Chicago/Turabian Style

Usman, Muhammad, Allah Ditta, Faridah Hanum Ibrahim, Ghulam Murtaza, Muhammad Nawaz Rajpar, Sajid Mehmood, Mohd Nazre Bin Saleh, Muhammad Imtiaz, Seemab Akram, and Waseem Razzaq Khan. 2021. "Quantitative Ethnobotanical Analysis of Medicinal Plants of High-Temperature Areas of Southern Punjab, Pakistan" Plants 10, no. 10: 1974. https://doi.org/10.3390/plants10101974

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