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  • Open Access

Quantitative study of medicinal plants used by the communities residing in Koh-e-Safaid Range, northern Pakistani-Afghan borders

  • 1,
  • 1,
  • 2,
  • 3Email author,
  • 4 and
  • 5
Journal of Ethnobiology and Ethnomedicine201814:30

https://doi.org/10.1186/s13002-018-0229-4

  • Received: 23 November 2017
  • Accepted: 5 April 2018
  • Published:

Abstract

Background

The residents of remote areas mostly depend on folk knowledge of medicinal plants to cure different ailments. The present study was carried out to document and analyze traditional use regarding the medicinal plants among communities residing in Koh-e-Safaid Range northern Pakistani-Afghan border.

Methods

A purposive sampling method was used for the selection of informants, and information regarding the ethnomedicinal use of plants was collected through semi-structured interviews. The collected data was analyzed through quantitative indices viz. relative frequency citation, use value, and family use value. The conservation status of medicinal plants was enumerated with the help of International Union for Conservation of Nature Red List Categories and Criteria (2001). Plant samples were deposited at the Herbarium of Botany Department, University of Peshawar for future reference.

Results

One hundred eight informants including 72 male and 36 female were interviewed. The informants provided information about 92 plants species used in the treatment of 53 ailments. The informant reported maximum number of species used for the treatment of diabetes (16 species), followed by carminatives (12 species), laxatives (11 species), antiseptics (11 species), for cough (10 species), to treat hepatitis (9 species), for curing diarrhea (7 species), and to cure ulcers (7 species), etc. Decoction (37 species, i.e., 40%) was the common method of recipe preparation. Most familiar medicinal plants were Withania coagulans, Caralluma tuberculata, and Artemisia absinthium with relative frequency (0.96), (0.90), and (0.86), respectively. The relative importance of Withania coagulans was highest (1.63) followed by Artemisia absinthium (1.34), Caralluma tuberculata (1.20), Cassia fistula (1.10), Thymus linearis (1.06), etc. This study allows identification of novel uses of plants. Abies pindrow, Artemisia scoparia, Nannorrhops ritchiana, Salvia reflexa, and Vincetoxicum cardiostephanum have not been reported previously for their medicinal importance. The study also highlights many medicinal plants used to treat chronic metabolic conditions in patients with diabetes.

Conclusions

The folk knowledge of medicinal plants species of Koh-e-Safaid Range was unexplored. We, for the first time, conducted this quantitative study in the area to document medicinal plants uses, to preserve traditional knowledge, and also to motivate the local residents against the vanishing wealth of traditional knowledge of medicinal flora. The vast use of medicinal plants reported shows the significance of traditional herbal preparations among tribal people of the area for their health care. Knowledge about the medicinal use of plants is rapidly disappearing in the area as a new generation is unwilling to take interest in medicinal plant use, and the knowledgeable persons keep their knowledge a secret. Thus, the indigenous use of plants needs conservational strategies and further investigation for better utilization of natural resources.

Keywords

  • Quantitative study
  • Medicinal plants
  • Traditional knowledge
  • Koh-e-Safaid Range

Background

The residents of remote areas mostly depend on folk knowledge of medicinal plants to cure different ailments. Plants not only provide food, shelter, fodder, drugs, timber, and fuel wood, but also provide different other services such as regulating different air gases, water recycling, and control of different soil erosion. Hence, phytodiversity is required to fulfill several human daily livelihood needs. Millions of people in developing countries commonly derive their income from different wild plant products [1]. Ethnomedicinal plants have been extensively applied in traditional medicine systems to treat various ailments [2]. This relationship goes back to the Neanderthal man who used plants as a healing agent. In spite of their ancient nature, international community has recognized that many indigenous communities depend on biological resources including medicinal plants [3]. About 80% of the populations in developing countries rely on medicinal plants to treat diseases, maintaining and improving the lives of their generation [4, 5]. The people, in most parts of the world particularly in rural areas, rely on traditional medicinal plants’ remedies due to easy availability, cultural acceptability, and poor economic conditions. Out of the total 422,000 known angiosperms, more than 50,000 are used for medicinal purposes [6]. Some 75% of the herbal drugs have been developed through research on traditional medicinal plants, and 25% of prescribed drugs belong to higher plants [7]. Traditional knowledge has a long historical cultural heritage and rich natural resources that have accumulated in the indigenous communities through oral and discipleship practices [8]. Traditional indigenous knowledge is important in the formulation of herbal remedies and isolates bioactive constituents which are a precursor for semisynthetic drugs. It is the most successful criterion for the development of novelties in drugs [911]. Traditional knowledge can also contribute to conserve and sustain the use of biological diversity. However, traditional knowledge, especially herbal health care system, has declined in remote communities and in younger generations as a result of a shift in attitude and ongoing socio-economic changes [12]. The human communities are facing health and socio-economic problems due to changing environmental conditions and socio-economic status [13]. The tribal people have rich unwritten traditional medicinal knowledge. It rests with elders and transfers to younger orally. With rapid economic development and oral transmitted nature of traditional knowledge, there is an urgent need to systematically document traditional medicinal knowledge from these communities confined in rural and tribal areas of the world including Pakistan. The Koh-e-Safaid Range is one of the remote tribal areas of Pakistan having unique and century-old ethnic characteristics. A single hospital with limited insufficient health facilities is out of reach for most inhabitants. Nature has gifted the area with rich diversity of medicinal plants. The current advancement in the use of synthetic medicines has severely affected the indigenous health care system through the use of medicinal traditional practices in the area. The young generation has lost interest in using medicinal plants, and they are reluctant to practice traditional health care system that is one of the causes of the decline in traditional knowledge system. Quantitative approaches can explain and analyze the variables quantitatively. In such approach, authentic information can be used for conservation and development of existing resources. Therefore, the present research was conducted in the area to document medicinal uses of local plants with their relative importance, to record information for future investigation and discovery of novelty in drug use, and to educate the locals about the declining wealth of traditional and medicinal flora from the area.

Methods

Ethnographic and socio-economic background of the study area

Koh-e-Safaid Range is a tribal territory banding Pakistan with Afghanistan in Kurram Agency. It lies between 33° 20′ to 34° 10′ N latitudes and 69° 50′ to 70° 50′ E longitudes (Fig. 1).This area is federally administered by the Government of Pakistan. The Agency is surrounded on the east by Orakzai and Khyber agencies, in the southeast by Hangu district, and in the south by North Waziristan Agency and Nangarhar and Pukthia of Afghanistan lies on its west. The highest range of Koh-e-Safaid is Sikaram peak with, 4728 m height. The Agency is well-populated with many small fortified villages receiving irrigation water from Kurram River that flows through it. The weather of the Agency is mostly pleasant in summer; however, in winters, freezing temperature is experienced, and sometimes falls to − 10 °C. The weather charts website “Climate-Charts” ranked it as the fourth coldest location in Pakistan. Autumn and winter are usually dry seasons while summer and spring receive much of the precipitation. The total population of the Agency according to the 2017 censuses report is 253,478. Turi, Bangash, Sayed, Maqbal, Mangel, Khushi, Hazara, Kharote, and Jaji are the major tribes in the research area. The joint family system is practiced in the area. Most of the marriages are held within the tribe; however, there is no ban on the marriages outside the tribe. Marriage functions are communal whereby all relatives, friends, and village people participate with songs, music, and dances male and female separately. The death and funeral ceremonies are jointly attended by the friends and relatives. The people of the area follow Jirga to resolve their social and administrative problems. This is one of the most active and strong social institutions in the area. Economically, most people in the area are poor and earning their livelihoods by menial jobs. The professional includes farmers, pastoralists, shopkeepers, horticulturists, local health healers, wood sellers, and government servants. In the adjoining areas of the city, pastorals keep domestic animals and are considered a better source of income.
Fig. 1
Fig. 1

Map of the study area and area location in Pakistan

Sampling method

The study was conducted through purposive sampling by informants’ selection method. The selection of informants was primary based on the ethnomedicinal plants and their willingness to share the information. The selection criteria include people who prescribe recipes for treatment; people involved in buying, collection, or cultivation of plants; elder members of above 60 years age; and young literate members. The participants were traditional healers, plant collectors, farmers, traders, and selected knowledgeable elders above 60 years age and young ones. The interviews were conducted in local Pashto language in the local dialect. The informants were involved in the gathering of data with a consent of village tribe chieftains called Maliks.

Data collection

Semi-structured open-ended interviews were conducted for the collection of ethnomedicinal information from April 2015 to August 2017. Informants from 19 localities were interviewed including Sultan, Malikhail, Daal, Mali kali, Alam Sher, Kirman, Zeran, Malana, Luqman Khail, Shalozan, Pewar, Teri Mangal, Bughdi, Burki, Kharlachi, Shingak, Nastikot, Karakhila, and Parachinar city (Fig. 1). The objectives of this study were thoroughly explained to all the informants before the interview [14]. Data about medicinal plants and informants including local names of plants, preparation of recipes, storage of plant parts, informant age, occupation, and education were collected during face-to-face interviews. A questionnaire was set with the following information: informant bio-data, medicinal plant use, plant parts used and modes of preparation, and administration of the remedies. Plants were confirmed through repeated group discussion with informants [15, 16]. For the identification of plants, informants were requested for transect walks in the field to locate the cited plant for confirmation.

Collection and identification of medicinal plants

The medicinal plants used in traditional treatment of ailments in the study area were collected with the help local knowledgeable persons, traditional healers, and botanists. The plants were pressed, dried, and mounted on herbarium sheet. The field identification was confirmed by a taxonomist in the Herbarium Department of Botany, University of Peshawar. The voucher specimens of all species were numbered and deposited in the Herbarium of Peshawar University (Fig. 2).
Fig. 2
Fig. 2

Landscape of Kurram Valley (a winter, b summer). c, d Traditional healers selling herbal drugs on footpath. e Trader crushing Artemisia absinthium for marketing. f Principal author in the field during data collection. g, h Plant collectors in subalpine zone. i Lilium polyphyllum rare species distributed in subalpine zone. j Ziziphora tenuior endangered species of subtropical zone

Data analysis

The information about ethnomedicinal uses of plants and informants included in questionnaires such as botanical name, local name, family name, parts used, mode of preparation, use reports, frequency of citation, relative importance, and voucher number were tabulated for all reported plant species. Informants’ use reports for various ailments and frequency of citation were calculated for each species. The relative importance of species was calculated according to use-value formula (UV = UVi/Ni) [17], where “UVi” is the number of citations for species across all informants and “Ni” the number of informants. The citation probability of each medicinal plant across all informants was equal to avoid researchers’ biasness. Family use value was calculated using the formula FUV = UVs/Ns, where “UVs” represent the sum of use values of species falling within family, and Ns represents the number of species reported for the family. The conservation status of wild medicinal plants species was enumerated by applying International Union for Conservation of Nature (IUCN) criterion (2001) [18].

Results

Informants’ knowledge about medicinal plants and their demography

A total of 108 including 72 male and 36 female informants were interviewed from 19 locations. The three groups of male respondents were falling in the age groups of 21 to 40, 41 to 60, and 61 to 80 years having the numbers of 19, 19, and 34, respectively. Among the female respondents, 10 aged 21 to 40, 14 aged 41 to 60, and 12 aged 61 to 80 years. Among the informants, 15 males were illiterate, 34 were matriculate, 13 were intermediate, and 10 were graduates. Among the females, 19 were illiterate, 16 were matriculate, and only 1 was graduate (Table 1). Informants were shepherd, healers, plant collectors, gardeners, and farmers. Twenty-eight informants of above 60 years age, living a retired life, were also interviewed. It was found that males were more knowledgeable than females. Furthermore, health healers were more knowledgeable.
Table 1

Demographic detail of informants residing in Koh-e-Safaid Range, upper Kurram

Variables

Categories

Number of informants in each category

Percentage

Sum of reports

Sex ratio

Women

36

33.33

694

Man

72

66.66

3162

Age groups

Between 20 and 40 years

29

26.85

120

Between 41and 60 years

33

30.55

660

Above 60 years

46

42.59

3076

Educational level

Illiterate

38

35.18

914

Matric

46

42.59

1868

Intermediate

13

12.03

592

Graduate

11

10.18

463

Social livelihoods

Farmer

12

11.11

41

Shepherd

18

16.66

104

Plant collector

19

17.59

91

Elder (non-professional)

28

25.92

2052

Healer

09

8.33

904

Gardeners

13

12.03

238

Shopkeeper

04

3.70

15

Trader

05

4.62

35

Life type

Town area

19

17.59

Remote area

89

82.40

Diversity of medicinal plants

A total of 92 medicinal species including 91vascular plant species belonging to 50 families and 1 mushroom Morchella of Ascomycetes of family Morchellaceae were reported (Table 2). Asteraceae had eight species followed by seven species of Lamiaceae and Rosaceae. Three species were contributed by each of Moraceae, Asclepiadaceae, Polygonaceae, Brassicaceae, Solanaceae, Cucurbitaceae, and Liliaceae. Of the remaining eight families, namely, Poaceae, Pinaceae, Zingiberaceae, Chenopodiaceae, Plantaginaceae, Apiaceae, Fabaceae, and Zygophyllaceae, each one contributed two species [19, 20]. Asteraceae, Lamiaceae, and Rosaceae were also reported with a high number of plants used for medicinal purposes. The reported plants were collected both from the wild (86.9%) and cultivated (13.1%) sources. However, greater percentage of medicinal plants from wild sources indicated higher species’ diversity in the study area. The 62 herbs species, 16 tree, 12 shrubs, and 2 undershrubs species were used in medicinal preparation for remedies.
Table 2

Enumeration of medicinal plants species in Koh-e-Safaid Range, Kurram, Pakistan

Botanical name/local name/voucher number

Family

Availability

Habit

Part(s) used

Formulation of remedies

ROA

Medicinal use

RFC

Use reports

Abies pindrow Royle ex D. Don/Bejoor/B. Huss.55.UOP

Pinaceae

W

Tr

Seeds

Dec

O

Antidiabetic

0.05

5

Adiantum capillus-veneris L./Lailazalfi/ B.Huss.56.UOP

Adiantaceae

W

H

Leaves

J

T

Skin problems

0.18

19

Allium cepa L./Pyaz/ B. Huss.57.UOP

Amaryllidaceae

C

H

Bulb

Ro

T

Anti-inflammatory

0.84

37

Antiseptic

2

Spine removal

52

Allium sativum L./Woga/B.Huss.58.UOP

Amaryllidaceae

C

H

Bulbils

Ro/Dir or Veg

O, T

Antiseptic

0.26

5

Blood pressure

23

Aloe vera (L.) Burm. f./Zargoya/B.Huss.59.UOP

Asphodelaceae

C

H

Leaves

Dir

T

Wound healing

0.22

24

Amaranthus viridis L./Ranzaka/B.Huss.60.UOP

Amaranthaceae

W

H

Leaves

Veg

O

Laxative

0.34

31

Blood purifier

 

6

Artemisia absinthium L./Mastyara/ B.Huss.61.UOP

Asteraceae

W

H

Leaves

Dec

O

Antidiabetic

1.34

13

Antimalarial

93

Antipyretic

32

Blood pressure

5

Urologic problems

2

Artemisia scoparia Waldst. & Kit/Doorang/B.Huss.62.UOP

Asteraceae

W

H

Root

Dec

O

Anticancer

0.69

22

Antidiabetic

41

Hepatitis

11

Asparagus adscendens Roxb./Asparages/B.Huss.63.UOP

Asparagaceae

W

H

Aerial parts

Dec

O

Tonic

0.06

7

Berberis lycium Royle/Sur Azghey/B.Huss.64.UOP

Berberidaceae

W

S

Bark

Dec

O

Antiseptic

0.70

14

Antiulcer genic

8

Chest problems

37

Cough

17

Bergenia ciliata (Haw)/Qamar Gul/B.Huss.65.UOP

Saxifragaceae

W

H

Aerial parts

Pow

O

Stomach pain

0.18

13

Joint pain

6

Calotropis procera (Ait.) Ait. f., Hort./Sahrashodeky/B.Huss.66.UOP

Asclepiadaceae

W

S

Leaves, latex

Dir

T

Antiseptic

0.76

17

Wound healing

65

Cannabis sativa L./Bangooboti/B.Huss.67.UOP

Asclepiadaceae

C

H

Flowers, leaves

Inf

O

Sedative

0.78

32

Refrigerant

52

Caralluma tuberculata N. E. Brown/Pamenny B.Huss.68.UOP

Asclepiadaceae

W

H

Aerial parts

Dir, Veg

O

Antidiabetic

1.20

97

Anticancer

3

Blood purifier

5

Stomachic

25

Cassia fistula L/Toorlargy/B.Huss.69.UOP

Caesalpiniaceae

C

Tr

Fruit

Inf

O

Stomach pain

1.10

34

Carminative

58

Colic pain

27

Chenopodium album L/Sarmy/B.Huss.70.UOP

Chenopodiaceae

W

H

Leaves

Veg

O

Laxative

0.10

11

Chenopodium ambrosioides L/Boi Sarmy/B.Huss.71.UOP

Chenopodiaceae

W

H

Leaves

Dec

O

Anthelmintic

0.08

9

Cichorium intybus L/Shin gulay/B.Huss.72.UOP

Asteraceae

W

H

Whole plant

Dec, Veg

O

Antipyretic

0.85

11

Antidiabetic

17

Antimalarial

26

Hepatitis

38

Citrullus colocynthis L/Perpendu/B.Huss.73.UOP

Cucurbitaceae

W

H

Fruit

Dec

O, T

Antidiabetic

0.23

23

Carminative

11

Refrigerant

14

Coriander sativum L/Danya/B.Huss.74.UOP

Apiaceae

C

H

Aerial parts

Dir, Veg

O

Carminative

0.34

35

Hypolipidemic

16

Cotoneaster microphyllus Wall. Ex Lindl/Mamany/B.Huss.75.UOP

Rosaceae

W

S

Fruit, root

Dir, Dec

O

Carminative

0.32

8

Hepatitis

35

Crataegus oxycantha L/Ghunza/B.Huss.76.UOP

Rosaceae

W

Tr

Fruit

Dir

O

Blood pressure

0.14

14

Dyspnea

9

Cucurbita maxima Duch. ex Lam/Kado/B.Huss.77.UOP

Cucurbitaceae

C

H

Fruit

Veg

O

Laxative

0.10

10

Colic pain

5

Curcuma longa L/Korkaman, Hildi/B.Huss.78.UOP

Zingiberaceae

C

H

Rhizome

Dec

O

Wound healing

0.24

26

Daphne mucronata Royle/Laghoony/B.Huss.79.UOP

Thymelaeaceae

W

S

Branches, leaves

Dec

O,T

Anti-inflammatory

0.39

42

Antidiarrheal

7

Diospyros lotus L/Amlook/B.Huss.80.UOP

Ebenaceae

W

Tr

Fruit

Dir

O

Cough

0.19

19

Chest problems

6

Elaeagnus angustifolia L/Shangaly/B.Huss.81.UOP

Elaeagnaceae

W

Tr

Fruit, leaves

Dir, Dec

O

Antiseptic

0.07

7

Colic pain

5

Ephedra gerardiana Wall. Ex. Stapf/Mawa/B.Huss.82.UOP

Ephedraceae

W

S

Whole plant

Dec

O

Antiasthmatic

0.24

25

Stomachic

15

Equisetum arvense L /Bandokay/B.Huss.83.UOP

Equisetaceae

W

H

Aerial parts

Dir, Pow, Dec

O

Antiseptic

0.18

17

Antidiarrheal

7

Kidneys problems

3

Eruca sativa Mill/ Sharsham/B.Huss.84.UOP

Brassicaceae

C

H

Seed oil, leaves

Dir

O, T

Hair fall

0.14

14

Nutritional

5

Fagonia indica L/Azghay/B.Huss.85.UOP

Zygophyllaceae

W

H

Aerial parts

Dec, Ash

O, T

Refrigerant

0.30

17

Anti-inflammatory

7

Blood purifier

31

Ficus carica L/Anzer/B.Huss.86.UOP

Moraceae

W

Tr

Fruit

Dir

O

Carminative

0.18

19

Foeniculum vulgare Miller/Khoglany/B.Huss.87.UOP

Apiaceae

W/C

H

Fruit, leaves

Dir

O

Colic pain

0.68

72

Carminative

32

Fragaria nubicola (Hook.f.) Lindl. ex L/Manzakhka/B.Huss.88.UOP

Rosaceae

W

H

Fruit

Dir

O

Anemia

0.17

18

Fumaria indica (Hausskn.) Pugsle/Chamtara/chaptara/B.Huss.89.UOP

Fumariaceae

W

H

Aerial parts

Dec

O, T

Antiulcerogenic

0.41

13

Antipyretic

4

Blood purifier

44

Emollient

7

Itching

9

Hordeum vulgare L/Urbashy /B.Huss.90.UOP

Poaceae

C

H

Grains

J

O

Antidiabetic

0.10

11

Juglans regia L /Waghaz /B.Huss.91.UOP

Juglandaceae

C

Tr

Fruit, leaves

Dir

O

Brain tonic

0.49

53

Dysentery

13

Protect the teeth from decay

27

Lepidium virginicum L/Gharateraba/B.Huss.92.UOP

Brassicaceae

W

H

Leaves

Dir

O

Appetizer

0.05

5

Mangifera indica L/Aam/B.Huss.93.UOP

Anacardiaceae

C

Tr

Seeds

Pow

O

Antidiarrheal

0.17

13

Dysentery

15

Malva neglecta Wallr /Tekalay/B.Huss.94.UOP

Malvaceae

W

H

Leaves, root

Dec

O

Dyspepsia

0.37

5

Antiulcerogenic

37

Carminative

17

Marrubium vulgare L/Dorshol/Butaka/B.Huss.95.UOP

Lamiaceae

W

H

Aerial parts

Dec

O, T

Antidiabetic

0.40

43

Pimples treatment

12

Melia azedarach L/Daraka/B.Huss.96.UOP

Meliaceae

W

Tr

Leaves

Dec

O, T

Anti-dandruff

0.27

17

Antidiabetic

28

Hairs fall

14

Mentha longifolia (L.) Huds/Jangaliwilany/B.Huss.97.UOP

Lamiaceae

W

H

Aerial parts

Veg, Pow

O

Carminative

0.43

45

Antidiarrheal

7

Appetizer

12

Mentha viridis L/Podina/B.Huss.98.UOP

Lamiaceae

C

H

Aerial parts

Veg, Pow

O

Carminative

0.55

59

Antidiarrheal

4

Appetizer

9

Momordica charantia L/Karela/B.Huss.99.UOP

Cucurbitaceae

W

H

Fruit

Veg

O

Antidiabetic

0.62

67

Morchella esculenta Fr/Kerkachu/B.Huss.100.UOP--

Morchellaceae

W

H

Aerial parts

Ro

O

Nutritional

0.38

41

Morus alba L/Spin toot/B.Huss.101.UOP

Moraceae

W

Tr

Fruit

Dir

O

Laxative

0.26

28

Morus nigra L/Toor toot/B.Huss.102.UOP

Moraceae

W

Tr

Fruit

Dir

O

Laxative

0.41

26

Cough

44

Nannorrhops ritchiana (Griff) Aitchison, J.L/Mazaray/B.Huss.103.UOP

Arecaceae

W

Tr

Fruit

Dir

O

Laxative

0.32

35

Olea ferruginea (Wall. Ex G. Don) Cif/Hamna/B.Huss.104.UOP

Oleaceae

W

Tr

Leaves

Dec

T

Joint pain

0.31

31

Antidiabetic

18

Onosma hispida Wall. ex G. Don/Bezokhwnaiy/B.Huss.105.UOP

Boraginaceae

W

H

Aerial parts

J

T

Wound healing

0.12

13

Antiseptic

5

Oxalis corniculata L/Bibishawtala/B.Huss.106.UOP

Oxalidaceae

W

H

Aerial parts

Dec

O

Kidneys problems

0.05

5

Papaver somniferum L/Dooda/B.Huss.107.UOP

Papaveraceae

C

H

Fruit

Inf

O

Cough

0.36

21

Sedative

37

Peganum harmala L/Spinaly/B.Huss.108.UOP

Zygophyllaceae

W

H

Seeds

Dir

O

Obesity

0.18

19

Pinus wallichiana A.B. Jackson/Nekhter/B.Huss.109.UOP

Pinaceae

W

Tr

Resin, root

Res, Dec

O, T

Antiseptic

0.13

13

Blood purifier

5

Plantago lanceolata L/Ghazaki/Palisepary/B.Huss.110.UOP

Plantaginaceae

W

H

Whole plant

Dec

O

Laxative

0.25

27

Plantago major L/Chanchapan/Ghuyezaba/B.Huss.111.UOP

Plantaginaceae

W

H

Whole plant

Dir, Dec

O, T

Wound healing

0.31

32

Laxative

7

Platanus orientalis L/Chenoor/B.Huss.112.UOP

Platanaceae

W

Tr

Bark

Dec

T

Pimples treatment

0.12

13

Polygonatum verticillatum L/Nooryalam/B.Huss.113.UOP

Polygonaceae

W

H

Rhizome

Dec

O

Aphrodisiac

0.26

28

Portulaca oleracea L/Warkhuray/B.Huss.114.UOP

Aizoaceae

W

H

Aerial parts

Veg

O

Laxative

0.29

31

Prunus jacquemontii Hook/Arghanja/B.Huss.115.UOP

Rosaceae

W

S

Fruit

Dir

O

Hepatitis

0.17

18

Punica granatum L/Wangar/B.Huss.116.UOP

Punicaceae

W

S

Fruit

Dir, Pow

O

Cough

0.29

12

Antidiarrheal

29

Antiulcerogenic

9

Dysentery

17

Eye disorders

3

Quercus baloot Griff/Sayreye/B.Huss.117.UOP

Fagaceae

W

S

Fruit

Dec

O

Antidiabetic

0.19

18

Antiulcerogenic

8

Raphanus sativus L/Moli/B.Huss.118.UOP

Brassicaceae

C

H

Root

Dir

O

Blood pressure

0.22

8

Hepatitis

23

Rheum speciforme Royle/Pakhey/B.Huss.119.UOP

Polygonaceae

W

H

Petioles

Dir

O

Cardio tonic

0.12

13

Robinia pseudo-acacia L/Chanbele/B.Huss.120.UOP

Fabaceae

W

Tr

Inflorescence

Dec

O

Laxative

0.16

15

Nutritional

10

Rosa moschata J. Herm/JangliGulab/B.Huss.121.UOP

Rosaceae

W

S

Petals

Dec

O

Laxative

0.30

28

Expectorant

16

Rosa webbiana Wall ex. Royle/Jangaligulab/B.Huss.122.UOP

Rosaceae

W

S

Fruit, seeds

Dir

O

Carminative

0.21

23

Rubus fruitcosus L/GharyManzakhka/B.Huss.123.UOP

Rosaceae

W

S

Fruit

Dir

O

Anemia

0.26

28

Rumex dentatus L/Zamda/B.Huss.124.UOP

Polygonaceae

W

H

Root

J

O

Antiseptic

0.17

8

Antiulcerogenic

17

Rununculus muricatus L/Zergulak/B.Huss.125.UOP

Ranunculaceae

W

H

Leaves

J

O

Analgesic

0.04

4

Salvia reflexa Hormn/Sugar boti/B.Huss.126.UOP

Lamiaceae

W

H

Aerial parts

Dec

O

Antidiabetic

0.25

27

Sambucus nigra L/Lantus/B.Huss.127.UOP

Sambucaceae

W

S

Fruit

Inf

O

Flu

0.16

17

Seriphidium kurramensis (Qazilb.) Y. R. Sling/Tarkha/B.Huss.128.UOP

Asteraceae

Q

US

Aerial parts

Dec

O

Antipyretic

0.51

15

Anthelmintic

30

Antimalarial

54

Solanum nigrum L/Bartang/Kharsobay/B.Huss.129.UOP

Solanaceae

W

H

Fruit, leaves

Inf

O

Antidiarrheal

0.10

3

Antidiuretic

6

Hepatitis

7

Solanum surattense Burm. f/Marghony/B.Huss.130.UOP

Solanaceae

W

H

Fruit

Dec

O

Cough

0.13

14

Sonchus asper (L.) Hill/Tareza/B.Huss.131.UOP

Asteraceae

W

H

Leaves, root

Inf

O

Hepatitis

0.14

15

Tanacetum artemisioides L/Zawil/B.Huss.132.UOP

Asteraceae

W

H

Aerial parts

Inf

O

Antidiabetic

0.20

21

Antiseptic

4

Cough

7

Hepatitis

9

Taraxicum officinale L/Chechopaska/B.Huss.133.UOP

Asteraceae

W

H

Aerial parts

Dec

O

Tonic

0.34

15

Hepatitis

36

Teucrium stocksianum B Boiss/Harboty/Gulbahar/B.Huss.134.UOP

Lamiaceae

W

H

Aerial parts

Inf

O

Anthelmintic

0.14

13

Antidiabetic

9

Antidiuretic

2

Antipyretic

6

Thymus linearis L/Paney/Mawory/B.Huss.135.UOP

Lamiaceae

W

H

Aerial parts

Inf

O

Cough

0.56

47

Appetizer

15

Carminative

53

Tulipa clusiana DC/Spergha/B.Huss.136.UOP

Liliaceae

W

H

Rhizome

Pow

O

Anthelmintic

0.19

21

Urtica dioica L/Sezonky/B.Huss.137.UOP

Urticaceae

W

H

Aerial parts

Dec

O

Anti-inflammatory

0.19

17

Joint pain

15

Valeriana jatamansi Jones/Mehkek/B.Huss.138.UOP

Valerianaceae

W

H

Root

Pow

O

Aphrodisiac

0.22

24

Verbascum thapsus L/Kharghogy/B.Huss.139.UOP

Scrophulariaceae

W

H

Leaves

J

O,T

Antiseptic

0.14

15

Ear problems

3

Vincetoxicum cardiostephanum (Rech.f) Rech.f/Kamyaboti/B.Huss.140.UOP

Asclepiadaceae

W

H

Whole plant

Dec

O

Chest problems

0.18

19

Viola canescens Wall ex Roxb/Benefsha/balamsha/B.Huss.141.UOP

Violaceae

W

H

Leaves, rhizome

Dec

O

Chest problems

0.26

14

Cough

25

Withania coagulans (Stocks) Dunal in DC/hapyanaga/hafyanga/Shapynga/B.Huss.142.UOP

Solanaceae

W

US

Fruit

Pow

O

Stomach pain

0.96

103

Antidiabetic

9

Antiulcerogenic

14

Constipation

50

Xanthium strumarium L/Azghy/B.Huss.143.UOP

Asteraceae

W

H

Fruit

J

T

Skin problems

0.09

10

Zea mays L/Jawar/B.Huss.144.UOP

Poaceae

C

H

Grains

Dir

O

Obesity

0.07

8

Zingeber officinale L/Adrek/B.Huss.145.UOP

Zingiberaceae

C

H

Rhizome

Dec

O

Cough

0.43

46

Ziziphora tenuior L/Sahrawaleny/B.Huss.146.UOP

Lamiaceae

W

H

Leaves

Pow

O

Appetizer

0.18

16

Carminative

12

Abbreviations: C cultivated, Dec decoction, Dir direct, FC frequency of citation, H herb, J juice, O orally, Pow powder, Res resin, S shrub, RFC relative frequency citation, Ro roast ROA route of administration, T topically, T tree, US undershrub, UV use value, Veg vegetable, W wild

Plant parts used in preparation of remedies

The plant parts used in the preparation of remedies were root, rhizome, bulbils, stem, branches, leaves, flowers, fruits, seeds, bark, resin, and latex. The relative use of these plant parts is shown in (Fig. 3). Fruits were frequently used plant part (26 species), followed by leaves (23 species) and remaining parts (21 species).
Fig. 3
Fig. 3

Plant parts used in the formulation of remedies

Preparation and mode of administration of remedies

The collection of data for the preparation of remedies from medicinal plants is extremely important. Such information is essential for identification of active ingredients and intake of relevant amount of drug. The present research observed seven methods for preparing recipes. It included decoction, powder, juice, infusions, roast, and ash methods (Fig. 4). The 37 species (40%) were most frequently used for the preparation of remedies. A plant part is boiled while infusion is obtained by soaking plant material in cold or hot water overnight. Eleven species (14%) are in powdered form, 11species (14%) in vegetable form, 7 species (9%) in juice form, 7 species (9%) in infusions form, 3 species (4%) in roasted form, and 1 species (2%) in ash form were used. Twenty-seven plant parts were used directly. It included wild fruits that were consumed for their nutritional and medicinal purpose. The most frequently used mode of administration of remedies was oral intake practice of 74 species (79%) followed by both orally and topically practice of 11 species (12%) and topically of 8 species (9%) (Fig. 5).
Fig. 4
Fig. 4

Different modes of drug formulation

Fig. 5
Fig. 5

Route of administration of drugs

Medicinal plants use categories

The inhabitants used medicinal plants in the treatment of 53 health disorders. The important disorders were cancer, diabetic, diarrhea, dysentery, hepatitis, malaria, and ulcer (Table. 3). These disorders were classified into 17 categories. Among the ailments, most plants were used for the treatment of digestive problems mainly as carminative (12 species), diarrhea (11 species), laxative (11 species), ulcer (7 species), appetizer (5 species), colic pain (4 species), and anthelmintic (4 species). Such higher use of plants for the treatment of digestive problems had been reported in ethnobotanical studies conducted in another tribal area of Pakistan [21]. The other categories (18 species) were used to treat respiratory disorders, followed by endocrine disorders (16 species); antiseptic and anti-inflammatory (15 species); circulatory system disorders (15 species); integumentary problems (15 species); antipyretic, refrigerant, and analgesic (9 species); and hepatic disorders (9 species). However, among the ailments, the highest number of plants were used in the treatment of diabetes (16 species), followed by antiseptic (11 species), cough (10 species), hepatitis (9 species), and ulcer (7 species). Among the remaining species, the informants reported three and two species used against malaria and cancer, respectively (Table 3).
Table 3

Medicinal plants and their use categories

Medicinal use categories

Number of plants used for each ailment

Digestive disorders

Carminative (12), diarrhea (11), laxative (11), ulcer (7), appetizer (5), colic pain (4), anthelmintic (4), stomach pain (3), dysentery (3), stomachic (2), constipation (1), dyspepsia (1)

Respiratory disorders

Cough (10), chest problems (4), asthma (1), expectorant (1), dyspnea (1), flu (1)

Endocrine disorders

Antidiabetic (16)

Antiseptic and anti-inflammatory

Antiseptic (11), anti-inflammatory (4)

Circulatory disorders

Blood purifier (5), blood pressure (4), malaria (3), anemia (2), cardio tonic (1)

Integumentary disorders

Wound healing (5), skin problems (2), pimple treatment (2), hair fall (2), anti-dandruff (1), emollient (1), itching (1)

Antipyretic, refrigerant, analgesic

Antipyretic (5), refrigerant (3), analgesic (1)

Hepatic disorders

Hepatitis (9)

Nutritional problems and tonic

Nutritional (3), obesity (2), tonic (2), hypolipidemic (1)

Urologic disorders

Antidiuretic (2), kidney problems (2), urologic problems (1)

Nervous disorders

Sedative (2), brain tonic (1)

Skeletal disorders

Joint pain (3)

Cancer

Anticancer (2)

Ophthalmic disorders

Eye disorders (2)

Sexual disorders

Aphrodisiac (2)

Auditory disorders

Ear problems (1)

Dental disorders

Tooth decay (1)

Quantitative appraisal of ethnomedicinal use

Based on the quantitative indices, the analyzed data showed that few plants were cited by the majority of the informants for their medicinal value. Seventeen plant species with the highest citation frequency are shown in (Fig. 6). The highest citation frequency was calculated for Withania coagulans (0.96), followed by Caralluma tuberculata (0.90), and Artemisia absanthium (0.86). The high values of these species indicated that most of the informants were familiar with their medicinal value. However, the familiarity of these three plants could be linked to their collection for economic purposes [22]. Withania coagulans (1.63), Artemisia absinthium (1.34), Caralluma tuberculata (1.20), Cassia fistula (1.10), and Thymus linearis (1.06) were reported having the highest used values for medicinal purposes (Fig. 7). All these species were used for the cure of three or more diseases. The powdered fruit of Withania coagulans is used for the cure of stomach pain, constipation, diabetes, and ulcer. The next highest use value was calculated for Artemisia absinthium with five medical indications as diabetes, malaria, fever, blood pressure, and urologic problems. Among the remaining three plants, Caralluma tuberculata is used for diabetes, cancer, and stomachic problems, and as blood purifier; Cassia fistula for colic pain and stomach pain and as a carminative agent; and Thymus linearis for cough and as carminative and appetizer. Lowest use value was calculated for Rununculus muricatus (0.04) with next three species having same lowest use value: Abies pindrow (0.05), Lepidium virginicum (0.05), and Oxalis corniculata (0.05). Highest family use value was calculated for Juglandaceae (0.86), followed by Cannabaceae (0.78), Apiaceae (0.75), Asclepiadaceae (0.71), Fumariaceae (0.71), Berberidaceae (0.70), Fabaceae (0.67), Punicaceae (0.65), Solanaceae (0.64), and Asteraceae (0.61). This is the first study that presents a quantitative value of medicinal plants used in the investigated area.
Fig. 6
Fig. 6

Medicinal plants with highest relative frequency citation

Fig. 7
Fig. 7

Medicinal plants with highest relative importance

Conservation status of the medicinal flora

Plant preservation means the study of plant declination, their causes, and techniques to protect rare and scarce plants. Plant conservation is a fairly new field that emphasizes the conservation of biodiversity and whole ecosystems as opposed to the conservation of individual species [23]. The ex situ conservation must be encouraged for the protection of medicinal plants [24]. In the present case, the area under study is under tremendous anthropogenic pressure as well. Therefore, ex situ conservation of endangered species is recommended. The woody plants, cut down for miscellaneous purposes, are facing conservational problems. Sayer et al. [25] reported that large investments are being made in the establishment of tree plantation on degraded area in Asia [25]. Alam and Ali stressed that proper conservation studies are almost negligible in Pakistan [26]. Same is the case with the study area as no project has been initiated for the conservation of forest or vegetation so far. Anthropogenic activities, small size population, distribution in limited area, and specificity of habitat were observed as the chief threats to endangered species.

According to IUCN Red List Criteria (2001) [18] conservation status of 80 wild medicinal species have been assessed based on availability, collection status, growth status, and their parts used. The remaining 12 medicinal plants were cultivated species. Of these, 7 (8.7%) species are endangered, 34 (42.5%) species are vulnerable, 29 (36.2%) species are rare, 9 (11.2%) species are infrequent, and only 1 (1.3%) species is dominant. The endangered species were Caralluma tuberculata, Morchella esculenta, Rheum speciforme, Tanacetum artemisioides, Vincetoxicum cardiostephanum, Withania coagulans, and Polygonatum verticillatum.

Discussion

Traditional medicines are a vital and often underestimated part of health care. Nowadays, it is practiced in almost every country of the world. Its demand is currently increasing rapidly in the form of alternative medicine [20]. Ethnomedicinal plants have been widely applied in traditional medicine systems to treat various ailments. About 80% of the populations in developing countries rely on medicinal plants to treat diseases, maintaining and improving the lives of their generation [19]. Traditional knowledge has a long historical cultural heritage and rich natural resources that has accumulated in the indigenous communities through oral and discipleship practices [8]. Traditional indigenous knowledge is important in the formulation of herbal remedies and isolates bioactive constituents which are a precursor for semisynthetic drugs. It is the most successful criterion for the development of novelties in drugs [11]. A total of 92 medicinal species including 91 vascular plant species belonging to 50 families and 1 mushroom Morchella of Ascomycetes of family Morchellaceae were reported (Table 2). The current study reveals that the family Asteraceae represents eight species followed by seven species of Lamiaceae and Rosaceae each which showed a higher number of medicinal plants. Three species were contributed by each of Moraceae, Asclepiadaceae, Polygonaceae, Brassicaceae, Solanaceae, Cucurbitaceae, and Amaryllidaceae. While the remaining eight families, namely, Poaceae, Pinaceae, Zingiberaceae, Chenopodiaceae, Plantaginaceae, Apiaceae, Fabaceae, and Zygophylaceae, contributed two species each. Asteraceae, Lamiaceae, and Rosaceae were also reported with a high number of plants used for medicinal purposes. Indigenous use of medicinal plants in the communities residing in Koh-e-Safid Range of Pakistan is evident. Traditional health healers are important to fulfill the basic health needs of the economically poor people of the area. The high dependency on traditional healers is due to limited and inaccessible health facilities. Most people either take recipes from local healers or select wild medicinal plants prescribed by them. Some elders also knew how to preserve medicinal plant parts for future use. Traditional knowledge of medicinal plants is declining in the area due to lack of interest in the young generation to acquire this traditional treasure. Furthermore, most traditional health healers and knowledgeable elders hesitate to disseminate their recipes. Therefore, traditional knowledge in the area is diminishing as aged persons are passing away. Vernacular names of plants are the roots of ethnomedicinal diversity knowledge [27]. They can clear the ambiguity in the identification of medicinal plants within an area. It also helps in the preservation of indigenous knowledge of medicinal plants. The medicinal plants were mostly reported with one specific vernacular name in the investigated area. While Rosa moschata and Rosa webbiana were known by same single vernacular name as Jangle Gulab. Few species were known by two vernacular names: Curcuma longa as Korkaman or Hildi, Ficus carica as Togh or Anzer, Fumaria indica as Chamtara or Chaptara, Marrubium vulgare as Dorshol or Butaka, Solanum nigrum as Bartang or Kharsobay, Teucrium stocksianum as Harboty or Gulbahar, and Thymus linearis as Paney or Mawory. The informants also mentioned different vernacular names for species even belonging to single genus; Plantago lanceolata as Chamchapan or Ghuyezaba and Plantago major as Ghazaki or Palisepary. Majority of the species commonly had a single name. However, local dialects varied in few species, i. e., Withania coagulans was known by three names: Hapyanaga, Hafyanga, and Shapynga, Caralluma tuberculata as Pamenny or Pawanky, Foeniculum vulgare as Koglany or Khoglany, and Viola canescens was called as Banafsha or Balamsha. The species with high use value need conservation for maintaining biodiversity in the study area. However, in the present case, no project or programs for the conservation of forest or vegetation are operating. Grazing and unsustainable medicinal uses were observed as the chief hazard to highly medicinal plant species. The higher use of herbs can be attributed to their abundance, diversity, and therapeutic potentials as antidiabetic, antimalarial, antipyretic, antiulcerogenic, antipyretic, blood purifier, and emollient and for blood pressure, hepatitis, stomach pain, and itching. Aloe vera, cultivated for ornamental purpose, is used as wound healing agent. Among the plant parts, the higher use of fruit may relate to its nutritional value. The aerial parts of the herbaceous plants were mostly collected in abundance and frequently used for medicinal purposes. In many recipes, more than one part was used. The utilization of roots, rhizomes, and the whole plant is the main threat in the regeneration of the medicinal plants [28]. In the current study, decoction was found to be the main method of remedy preparation as reported in the ethnopharmacological studies from other parts [2931]. Fortunately, we collected important information like preparation of remedies and their mode of administration for all the reported plants. However, the therapeutic potential of few plants are connected to their utilization method. A roasted bulb of Allium cepa is wrapped on the spine-containing wound to release the spine. The leaf of Aloe vera containing viscous juice is scratched and wrapped on a wound. The latex of Calotropis procera is first mixed with flour and then topically applied on the skin for wound healing. Infusion of Cassia fistula fruit’s inner septa is prepared for stomach pain and carminative and colic pain in children. The fruit of Citrullus colocynthis boiled in water is orally taken for the treatment of diabetes. Grains of Hordeum vulgare are kept in water for a day, and its extraction is taken for the treatment of diabetes. The decoction of Seriphidium kurramensis shoots are used as anti-anthelmintic and antimalaria. The leaves of Juglans regia are locally used for cleaning the teeth and to prevent them from decaying. Furthermore, its fruit is used as brain tonic, and its roasted form is useful in the treatment of dysentery. The roots of Pinus wallichiana are cut into small pieces and put into the pot. The cut pieces are boiled, and the extracted liquid is poured into the container. One drop of the extracted liquid is mixed with one glass of milk and taken orally once a day as blood purifier. An infusion of Thymus linearis aerial parts is prepared like hot tea and is drunk for cough and as appetizer and carminative. A decoction of Zingiber officinale rhizome is drunk at night time for relief of cough. Medicinal plants are still practiced in tribal and rural areas as they are considered as main therapeutic agents in maintaining better health. Such practices have been described in the ethnobotanical studies conducted across Pakistan. The current study reveals several plant species with more than one medical use including Artemisia absanthium, Cichorium intybus, Fumaria indica, Punica granatum, Tanacetum artemisioides, Teucrium stocksianum, and Withania coagulans. Their medicinal importance can be validated from indigenous studies conducted in various parts of the country. Amaranthus viridis leaf extract is an emollient and is used for curing cough and asthma as well [32]. Artemisia absanthium is used for the treatment of malaria and diabetes [3336]. Cichorium intybus is used against diabetes, malaria, and gastric ulcer, and it is also used as digestive and laxative agent [28, 3741]. Leaves of Cannabis sativa are used as bandage for wound healing; powdered leaves as anodyne, sedative, tonic, and narcotic; and juice added with milk and nuts as a cold drink [42]. Whole plant of Fumaria indica [36] and Tanacetum artemisioides [43] is used for treating constipation and diabetes, respectively. Dried rind powder and fruit extract of Punica granatum are taken orally for the treatment of anemia, diarrhea, dysentery, and diabetes [4447]. A decoction of aerial parts of Teucrium stocksianum is used for curing diabetes [29, 48]. Withania coagulans is known worldwide [38, 49] as a medicinal plant, whose fruit decoction is best remedy for skin diseases and diabetes. Its seeds are used against digestive problems, gastritis, diabetes, and constipation [21, 28, 50]. Our results are in line with the traditional uses of plants in the neighboring counties [8]. For example, Fumaria indica is used as blood purifier, and Hordeum vulgare grains decoction for diabetes; Juglans regia bark for toothaches and scouring teeth; Mangifera indica seed decoction for diarrhea; Solanum nigrum extract for jaundice; and Solanum surattense fruit decoction for cough have been documented in the study (40). Such agreements strengthen our results and provide good opportunity to evaluate therapeutic potential of the reported plants. Three plants species Adiantum capillus-veneris, Malva parviflora, and Peganum harmala have been documented for their medicinal use in the ethnobotanical study [51]. According to this, the decoction of the aerial parts of Adiantum capillus-veneris is used for the treatment of asthma and dyspnea. Malva parviflora root and flower are used for stomach ulcers. Peganum harmala fruit powder and decoction are used for toothache, gynecological infections, and menstruation. The dried leaves of Artemisia absanthium is used to cure stomach pain and intestinal worm while an inflorescence paste prepared from its fresh leaves is used as wound healing agent and antidiabetic [52, 53]. The bulb of Allium sativum is used in rheumatism while its seed vessel mixed with hot milk is useful for the prevention of tuberculosis and high blood pressure. The fruit bark of Punica granatum is used in herbal mixture for intestinal problems [54]. Avena sativa decoction is used for skin diseases including eczema, wounds, irritation, inflammation, erythema, burns, itching, and sunburn [55]. Foeniculum vulgare and Lepidium sativum are used for the treatment of diabetes and renal diseases [53]. Verbascum thapsus leaves and flowers can be used to reduce mucous formation and stimulate the coughing up of phlegm. Externally, it is used as a good emollient and wound healer. Leaves of Thymus linearis are effective against whooping cough, asthma, and round worms and are an antiseptic agent [21]. Berberis lycium wood decoction with sugar is the best treatment for jaundice. Chenopodium album has anthelmintic, diuretic, and laxative properties, and its root decoction is effective against jaundice. The whole plant decoction of Fumaria indica is used for blood purification. Dried leaves and flowers of Mentha longifolia are used as a remedy for jaundice, fever, asthma, and high blood pressure [36]. Morus alba fruit is used to treat constipation and cough [42]. Oxalis corniculata roots are anthelmintic, and powder of Chenopodium album is used for headache and seminal weakness [47]. Boiled leaves of Cichorium intybus are used for stomachic pain and laxative while boiled leaves of Plantago major are used against gastralgia [56]. Viola canescens flower is used as a purgative [32]. The above ethnomedicinal information confirms the therapeutic importance of the reported plants. The reported plant species show biological activities which suggest their therapeutic uses. The aqueous extract of Allium sativum has been studied for its lipid lowering ability and was found to be effective at the amount of 200 mg/kg of body weight. It also has significant antioxidant effect and normalizes the activities of superoxide dismutase, catalase, glutathione peroxidase, and glutathione reductase in the liver [57]. An extract of Artemisia absanthium antinociception in mice has been found and was linked to cholinergic, serotonergic, dopaminergic, and opioidergic system [58]. The ethanolic extract of Artemisia absanthium at a dose of 500 and 1000 mg/kg body weight has reduced blood glucose to significant level [59]. The hepatoprotective activity of crude extract of aerial parts of Artemisia scoparia was investigated against experimentally produced hepatic damage through carbon tetrachloride. The experimental data showed that crude extract of Artemisia scoparia is hepatoprotective [60]. Ethanolic and aqueous extracts from Asparagus exhibited strong hypolipidemic and hepatoprotective action when administered at a daily dose of 200 mg/kg for 8 weeks in hyperlipidemic mice [61, 62]. The extract of Calotropis procera was evaluated for the antiulcerogenic activity by using different in vivo ulcer in pyloric-ligated rats, and significant protection was observed in histamine-induced duodenal ulcers in guinea pigs [63]. Cannabidiol of Cannabis sativa was found as anxiolytic, antipsychotic, and schizophrenic agent [64]. Caralluma tuberculata methanolic extract of aerial parts (500 mg/kg) in fasting blood glucose level in hyperglycemic condition decreased up to 54% at fourth week with concomitant increase in plasma insulin by 206.8% [65]. The aqueous and methanol crude extract of Celtis australis, traditionally used in Indian system of medicine, was screened for its antibacterial activity [66]. Cichorium intybus L. whole plant 80% ethanolic extract a percent change in serum glucose has been observed after 30 min in rats administrated with vehicle, 125, 250, and 500 mg notified as 52.1, 25.2, 39, and 30.9%, respectively [67]. Citrullus colocynthis fruit, pulp, leaves, and root have significantly decreased blood glucose level and restored beta cells [30, 6870]. The two new aromatic esters horizontoates A and B and one new sphingolipid C were isolated from Cotoneaster horizontalis. The compounds A and B showed significant inhibitory effects on acetylcholinesterase and butylcholinesterase in a dose-dependent manner [71]. The alkaloids found in Datura stramonium are organic esters used clinically as anticholinergic agents [72]. The methanolic extract of Momordica charantia fruits on gastric and duodenal ulcers was evaluated in pylorus-ligated rats; the extract showed significant decrease in ulcer index [73]. Antifungal activity of Nannorrhops ritchiana was investigated against fungal strains Aspergillus flavus, Trichophyton longifusis, Trichophyton mentagrophytes, Aspergillus flavus, and Microsporum canis were found susceptible to the extracts with percentage inhibition of 70–80% [74]. The inhibitory effects of Olea ferruginea crude leaf extract on bacterial and fungal pathogens have been evaluated [75]. The aqueous extract of Plantago lanceolata showed that higher doses provide an overall better protection against gastro-duodenal ulcers [76]. The oral and intraperitoneal management of extracts reduced the gastric acidity in pylorus-ligated mice [77]. The antiulcer effect of Solanum nigrum fruit extract on cold restraint stress, indomethacin, pyloric ligation, and ethanol-induced gastric ulcer models and ulcer healing activity on acetic acid-induced ulcer model in rats [78, 79]. The antifungal activity (17.62 mm) of Viola canescens acetone extract 1000 mg/ml against Fusarium oxysporum has been observed [80]. Leaf methanolic extract of Xanthium strumarium has inhibited eight pathogenic bacteria at a concentration of 50 and 100 mg/ml [81]. Aqueous extract of the fruits of Withania coagulans in streptozotocin-induced rats at dose of 1 g/kg for 7 days has shown significant decrease (p < 0.01) in the blood glucose level (52%), triglyceride, total cholesterol, and low density lipoprotein and very significant increase (p < 0.01) in high density lipoprotein level [31]. This shows that further investigation on the reported ethnomedicinal plants can lead to the discovery of novel agents with therapeutic properties.

In the current study, conservation status of 80 medicinal species was reported which was growing wild in the area. The information was collected and recorded for different conservation attributes by following International Union for Conservation and Nature (2001) [18]. It was reported that seven species (8.7%) were endangered due to the much collection, anthropogenic activities, adverse climatic conditions, small size population and distribution in limited area, specificity of habitat, and over grazing in the research area. However, the below-mentioned species were found to be endangered: Caralluma tuberculata, Morchella esculenta, Rheum speciforme, Tanacetum artemisioides, Vincetoxicum cardiostephanum, Withania coagulans, and Polygonatum verticillatum. Unsustainable use and lack of suitable habitat have affected their regeneration and pushed them to endangered category. Traditional knowledge can also contribute to conservation and sustainable use of biological diversity [19, 20].

Novelty and future prospects

Ethnomedicinal literature research indicated that five plant species, Abies pindrow, Artemisia scoparia, Nannorrhops ritchiana, Salvia reflexa, and Vincetoxicum cardiostephanum, have not been reported previously for their medicinal importance from this area. The newly documented uses of these plants were Abies pindrow and Salvia reflexa (antidiabetic), Artemisia scoparia (anticancer), Nannorrhops ritchiana (laxative), and Vincetoxicum cardiostephanum (chest problems). Adiantum capillus-veneris is reported for the first time for its use in the treatment of skin problems. These plant species can be further screened for therapeutic agents and their pharmacological activities in search of novel drugs. The study also highlights 16 species of antidiabetic plants Caralluma tuberculata, Momordica charantia, Marrubium vulgare, Artemisia scoparia, Melia azedarach, Salvia reflexa, Citrullus colocynthis, Tanacetum artemisioides, Quercus baloot, Olea ferruginea, Cichorium intybus, Artemisia absinthium, Hordeum vulgare, Teucrium stocksianum, Withania coagulans, and Abies pindrow. Except sole paper from District Attack, Pakistan [28], such a high number of antidiabetic plants have not been reported previously from any part of Pakistan in the ethnobotanical studies.

Conclusions

Traditional knowledge about medicinal plants and preparation of plant-based remedies is still common in tribal area of Koh-e-Safaid Range. People due to closeness to medicinal plants and inaccessible health facilities still rely on indigenous traditional knowledge of plants. The role of traditional healers in the area is observable in primary health care. The locals used medicinal plants in treatment of important disorders such as cancer, diabetes, hepatitis, malaria, and ulcer. The analyzed data may provide opportunities for extraction of new bioactive constituents and to develop herbal remedies. The study also confirmed that the communities residing in the area have not struggled for conservation of this traditional treasure of indigenous knowledge and medicinal plants. Medicinal plant diversity in the remote and backward area of Koh-e-Safaid Range has great role in maintaining better health conditions of local communities. Therefore, conservation strategies should be adopted for the protection of medicinal plants and traditional knowledge in the study area to sustain them in the future.

Abbreviations

FUV: 

Family use value

IUCN: 

International Union for Conservation of Nature

Ni: 

The number of informants

Ns: 

Represent the number of species reported for the family

UV: 

Use value

UVi: 

The number of citations for a species across all informants

UVs: 

Represent sum of use values of species falling within family

Declarations

Acknowledgements

This work is part of the Doctoral research work of the principal (first) author. The authors also acknowledge the participants for sharing their valuable information.

Authors’ contribution

WH conducted the collection of field data and wrote the initial draft of the manuscript. LB supervised the project. MU and MA helped in the field survey, sampling, and identification of taxon. AA and FH helped in the data analysis and revision of the manuscript. All the authors approved the final manuscript after revision.

Availability of data and materials

All the supporting data is available in Additional files 1 and 2.

Ethics approval and consent to participate

Letters of permission were taken from Peshawar University and local administration office prior to the data collections. Oral agreements were also got from the local informants about the aims and objectives of the study prior to the interviews, and all the field data were collected through their oral consents. No further ethics approval was required.

Competing interests

The authors declare that they have no competing interest.

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Open AccessThis article is distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made. The Creative Commons Public Domain Dedication waiver (http://creativecommons.org/publicdomain/zero/1.0/) applies to the data made available in this article, unless otherwise stated.

Authors’ Affiliations

(1)
Department of Botany, University of Peshawar, Peshawar, 25000, Pakistan
(2)
Department of Botany, University of Science and Technology, Bannu, Pakistan
(3)
Department of Plant Science, Quaid-i-Azam University, Islamabad, Pakistan
(4)
Dr. Khan Shaheed Govt. Degree College Kabal, Swat, Pakistan
(5)
Institute of Biological Sciences, Sarhad University of Science and Information Technology, Peshawar, Pakistan

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