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Article

Vernacular Taxonomy, Cultural and Ethnopharmacological Applications of Avian and Mammalian Species in the Vicinity of Ayubia National Park, Himalayan Region

by
Sayda Maria Bashir
1,†,
Muhammad Altaf
2,†,
Tanveer Hussain
2,
Muhammad Umair
3,
Muhammad Majeed
4,*,
Wali Muhammad Mangrio
5,
Arshad Mahmood Khan
6,7,
Allah Bakhsh Gulshan
8,
M. Haroon Hamed
9,
Sana Ashraf
10,
Muhammad Shoaib Amjad
11,
Rainer W. Bussmann
12,13,
Arshad Mehmood Abbasi
14,
Ryan Casini
15,
Abed Alataway
16,
Ahmed Z. Dewidar
16,17,
Mohamed Al-Yafrsi
18,
Mahmed H. Amin
18 and
Hosam O. Elansary
16,18,*
1
Department of Zoology, Women’s University of Azad Jammu and Kashmir, Bagh 12500, Pakistan
2
Department of Forestry, Range and Wildlife Management, The Islamia University of Bahawalpur, Bahawalpur 63100, Pakistan
3
College of Chemistry and Life Sciences, Zhejiang Normal University, Jinhua 321004, China
4
Department of Botany, University of Gujrat, Hafiz Hayat Campus, Gujrat 50700, Punjab, Pakistan
5
Department of Zoology, Faculty of Natural Sciences, Shah Abdul Latif University, Khairpur 66111, Pakistan
6
Department of Botany, Government Hashmat Ali Islamia Associate College Rawalpindi, Rawalpindi 46300, Pakistan
7
Department of Botany, Pir Mehr Ali Shah Arid Agriculture University Rawalpindi, Rawalpindi 46300, Pakistan
8
Department of Botany, Ghazi University, Dera Ghazi Khan 32200, Punjab, Pakistan
9
Department of Zoology, Wildlife and Fisheries, University of Agriculture, Faisalabad 38000, Pakistan
10
Department of Zoology, University of Lahore, Sargodha 40100, Pakistan
11
Department of Botany, Women’s University of Azad Jammu and Kashmir, Bagh 12500, Pakistan
12
Department of Ethnobotany, Institute of Botany and Bakuriani Alpine Botanical Garden, Ilia State University, 0105 Tbilisi, Georgia
13
Department of Botany, State Museum of Natural History, 76133 Karlsruhe, Germany
14
Department of Environment Sciences, COMSATS University Islamabad, Abbottabad Campus, Abbottabad 22060, Pakistan
15
School of Public Health, University of California, Berkeley, 2121 Berkeley Way, Berkeley, CA 94704, USA
16
Prince Sultan Bin Abdulaziz International Prize for Water Chair, Prince Sultan Institute for Environmental, Water and Desert Research, King Saud University, Riyadh 11451, Saudi Arabia
17
Department of Agricultural Engineering, College of Food and Agriculture Sciences, King Saud University, Riyadh 11451, Saudi Arabia
18
Department of Plant Production, College of Food & Agriculture Sciences, King Saud University, Riyadh 11451, Saudi Arabia
*
Authors to whom correspondence should be addressed.
These authors contributed equally to this work.
Biology 2023, 12(4), 609; https://doi.org/10.3390/biology12040609
Submission received: 15 February 2023 / Revised: 8 April 2023 / Accepted: 10 April 2023 / Published: 17 April 2023

Abstract

:

Simple Summary

Birds and mammals are strongly embedded in anthropological culture around the world. This study article discusses the cultural and therapeutic value of avian and mammalian species in the Ayubia National Park, KPK, Pakistan. To the best of our knowledge, this is the first quantitative study of the cultural utilization of avian and mammalian species in the studied region. This study’s ethno-biological findings indicate that the huge diversity of avian and mammalian species plays an essential role in the culture and health of native communities. These findings might aid in the long-term utilization of avian and mammalian species in the local healthcare system. For the sustainable utilization of avian and mammalian species, conservation efforts should be conducted with the involvement of conservation authorities.

Abstract

Numerous investigations on plant ethnomedicinal applications have been conducted; however, knowledge about the medicinal use of wild animals is still limited. This present study is the second on the medicinal and cultural meaning of avian and mammalian species used by the population in the surrounding area of the Ayubia National Park, KPK, Pakistan. Interviews and meetings were compiled from the participants (N = 182) of the study area. The relative frequency of citation, fidelity level, relative popularity level, and rank order priority indices were applied to analyze the information. Overall, 137 species of wild avian and mammalian species were documented. Of these, 18 avian and 14 mammalian species were utilized to treat different diseases. The present research showed noteworthy ethno-ornithological and ethno-mammalogical knowledge of local people and their connection with fauna, which might be useful in the sustainable utilization of the biological diversity of the Ayubia National Park, Khyber Pakhtunkhwa. Furthermore, in vivo and/or in vitro examination of the pharmacological activities of species with the highest fidelity level (FL%) as well as frequency of mention (FM) might be important for investigations on faunal-based new drugs.

1. Introduction

Birds and mammals are important to human civilization. A variety of fauna is used in painting, medicine, music, food, literature, trade, export, hunting, poaching, magic, religion, and many other human expressions. Zootherapy is globally practiced and has deep historical origins [1]. Therapy contributes greatly to curing practices and magical healing rituals [2,3]. Ethnobiological studies serve to document this significant relationship [4], and relationships between local people and fauna must be taken into consideration [5], as we utilize fauna for ethnomedicine [2]. Animals and their derived products are not only utilized in ethnopharmacology, but they are also valuable as raw resources in the synthesis of allopathic medicines, with more than 8% of important chemicals gathered from fauna [6]. Despite their significance, studies on the uses of fauna have been rare when compared to ethnobotanical studies [2].
Nowadays, several studies involving indigenous people [7,8] have revealed that avian and mammalian species are the primary sources of protein throughout the world and across time, which is the main factor that motivates the trafficking, hunting, and massacre of these species. Hence, the ideal or optimal foraging theory, a model of evolutionary ecology that has been used in the research of human survival in numerous studies, were used in this study to investigate human populations’ preferences for medium- and large-sized avian and mammalian species. According to this notion, the fauna will attempt to consume as many resources as possible [9,10]. Studies have shown that when there is a dearth of the preferred fauna species, hunters must poach and hunt a greater number of less valuable fauna species, as well as dedicate more time to cover a larger area. Several cultural aspects must be considered in the selection, poaching, hunting, and utilization of fauna by local people since these have a significant influence on the populations of the fauna used [11,12]. In this context, knowledge of these matters is fundamental to supporting actions aimed at the conservation and management of the fauna utilized [8,13].
Records of folklore connected with medicinal and cultural uses of faunal species are necessary because many local societies are quickly losing their traditions and values [14]. In many traditional societies, fauna represent the main source of food and are used in medicine, entertainment, magic, research, culture, etc. [15,16,17,18]. A total of 195 mammalian species [19] and 688 avian species, for a total of 668, have been documented from Pakistan to date [20]. However, the cultural importance of fauna in Khyber Pakhtunkhwa has never been well documented, and the present study is expected to fill the gap regarding knowledge on the folklore value and therapeutic application of avian and mammalian species by the people of the Ayubia National Park, Khyber Pakhtunkhwa (KPK), Pakistan.

2. Materials and Methods

2.1. Study Area

The Ayubia National Park is located in the Reserved Forests of Galiat, North West Frontier Province (NWFP), Pakistan, between 73°22′54″ and 73°27′15″ E longitude and 34°00′48″ and 34°06′23″ N latitude (Figure 1). The total area of the national park is 33 km2, while the surrounding conserved woods are 150 km2. The park’s ecotypes include sub-alpine meadows, wet temperate woods, and sub-tropical pine forests (Figure 2). The park’s mission is to protect the rare plants and wildlife of the wet, temperate western Himalayan habitat.

2.2. Ethnography

Overall, 182 participants were selected through snowball sampling. Snowball sampling is useful for finding units to include when there is no clear list of the population you are interested in. Often, it is difficult to assess potential sampling error and make generalizations (i.e., statistical inferences) from the sample to the population [21]. We only included 30 women in our study due to cultural restrictions. The majority of the participants (n = 172) lived in rural areas, while 10 were settled in urban areas. Most of the informers belonged to the Mughal, Abbasi, Arain, Sheikh, Sayed, and Malik, which are the major ethnic groups of this study area. Most people spoke Hindko (90.6%), followed by Urdu (9%), Pahari (0.2%), and English (0.01%) (Figure 1).

2.3. Data Collection and Analysis

Surveys were carried out during 2017–2018, and data on folk medicine (traditional medicines) from avian species and mammalian species were gathered. Meetings and interviews were held with 182 informants (i.e., teachers, health practitioners, farmers, students, laborers, and housewives) after obtaining their verbal informed consent. Species were identified using the Mammals of Ayubia National Park KPK [22,23] and Birds of Pakistan [24,25].

2.4. Data Analysis

The data on ethnomedicinal applications and cultural values were examined using the following terms: relative frequency of citation, fidelity level, relative popularity level, and rank order priority.

2.5. Relative Frequency of Citation (RFC)

It was estimated using the equation described by J Tardío and M Pardo-de-Santayana [26], as follows:
RFC = FC/N (0 ≤ RFC ≥ 1).
FC = Total number of informants for a folklore use of a specific species, and
N = Total number of informers.

2.6. Fidelity Level (FL)

The FL is the percentage of participants in the study area who claim to have used a specific type of species [27]. Its calculation was performed using the following formula [28]:
FL (%) = Np/FC × 100.
where Np is the number of major ailments of the informers for specific kinds of avian and mammalian species. FC = Frequency of citation for folklore use of a specific avian and mammalian species.

2.7. Relative Popularity Level (RPL)

The RPL is used to reflect the popularity of various species in the study area [29,30]. Avian and mammalian species were divided into two categories: unpopular and popular. The popular avian and mammalian species were cited for a higher proportion of the maximum FC. The remaining bird and mammalian species were considered unpopular. The FC mentioning avian and mammalian species for distinct folklore applications is shown on the x-axis, whereas the y-axis indicates the use of a number of diverse folklores for each bird and mammal species. A hypothetical horizontal line represents the average number of uses per avian and mammalian species independent of the FC. For popular avian and mammalian species, the relative popularity level was close to 1, whereas the relative popularity level was less than 1 for avian and mammalian species within the unpopular group.

2.8. Rank Order Priority (ROP)

The ROP index is used to appropriately arrange species, utilizing varying FL and RPL values as adjustment factors [31,32,33,34]. Rank order priority was used to rank the avian and mammalian taxa and was measured by the following equation [29,30]:
ROP = FL × RPL

3. Results

3.1. Demography of Informants

A total of 182 participants, ranging in age from 18 to 60 years, were documented, as shown in Table 1. Maximum respondents (62%) were 41 to 60 years old. A total of 66% were literate with different levels of education, i.e., primary (38), middle (77), graduate (2), and master (3), as shown in Figure 1. One hundred seventy-two informers were from rural areas. The older participants held more traditional information compared to the younger participants.

3.2. Vernacular Taxonomy

Vernacular taxonomy refers to the native names of birds and mammals utilized for ethnomedicinal and folklore applications. Local names frequently include information related to the habitat, morphological differences, myths, and social associations. During the study, we noted that indigenous people identified 116 avian species.
In the study area, the names of avian species were often associated with their voice, i.e., the brown-fronted woodpecker (tham thoka), oriental turtle dove (kogi), lesser cuckoo (koail, koel, and koal), common hoopoe (hud-hud), and spotted owlet (uloo). Vernacular bird names were also associated with a bird’s color, i.e., the small minivet (pelli chirri), long-tailed minivet (ratti chirri), and blue or Himalayan whistling thrush (nelli chiri). According to the informants, seven species of birds were locally known as baz, i.e., the northern goshawk (Accipiter gentilis), Eurasian sparrowhawk (Accipiter nisus), saker falcon (Falco cherrug), peregrine falcon (Falco peregrinus), Hodgson or mountain hawk eagle (Hieraaetus pennatus), lesser spotted eagle (Ictinaetus malayensis), and common kestrel (Nisaetus nipalensis) (Figure 3).
Likewise, two birds (i.e., the white-cheeked tit, Aegithalos leucogenys, and the white-throated long-tailed tit, Aegithalos niveogularis) had the same local name, “pithpitha.” Similarly, four species, i.e., the short-eared owl (Asio flanneus), long-eared owl (Asio otus), mountain scops owl (Otus spilocephalus), and oriental scops owl (Otus sunia), had the same vernacular name, “ullo.” Similarly, ten species, such as the pink-browed rosefinch (Carpodacus rodochroa), brown dipper (Cinclus pallasii), blue robin (Luseinia brunnea), chestnut-bellied rock thrush (Monticola rufiventris), russet sparrow (Passer rutilans), coal tit (Peraparus ater), asian paradise flycatcher (Terpsiphone paradise), plain-backed thrush (Zoothera mollissima), oriental white-eye (Zosterops palpebrosus), and house sparrow (Passer domesticus) were all called “chirri.” Three species of crow, such as the carrion crow (Corvus corone), large-billed crow (C. macrorhynchos), and house crow (C. splendens), were called “kagh.” Five avian species, such as the brown-fronted woodpecker (Dendrocopos auriceps), rufous-bellied woodpecker (D. hyperythrus), fulvous-breasted woodpecker (D. macei), yellow-crowned woodpecker (D. mahrattensis), and grey-capped pygmy woodpecker (D. nanus), have the same vernacular name, “thum thoka.” Two species, i.e., Pericrocotus ethologus (long-tailed minivet) and P. roseus (rosy minivet), had the same vernacular name, “raja lal.” Finally, three avian species were known as “hirra” (the lesser sand plover, charadrius mongolus; large cuckooshrike, Coracina macei; and grey-winged blackbird, Turdus boulboul). English names were used for two species, i.e., the variable wheatear, Oenanthe picata (local name wheatear), and Asian koel, Eudynamys scolopaceus (local name koel).
It was documented that four species had more than one vernacular name, i.e., the common myna, Acridotheres trusties (gotari and myna), black drongo, Dicrurus macrocercus (kali chit and kalkalich), rosy minivet, Pericrocotus roseus (lambi dum and raja lal), and rufous-naped tit, Periparus rufonuchalis (pithpittha and pidda). Informants indicated that some species of birds received their name on the basis of color, e.g., the white-throated long-tailed tit, Aegithalos niveogularis, as “chitti pithpitha,” “chitti” meaning white; the brown dipper, Cinclus pallasii, as “bori chirri,” “bori” meaning brown. The Indian golden oriole, Oriolus (oriouls) kundoo, was known as “peeli chiri,” “peeli” meaning yellow; the grey-hooded warbler, Phylloscopus xanthoschistos, as “heri piddi,” “heri” meaning green; and the grey bush chat, Saxicola ferreus, as “salaiti chiri,” where “salaiti” means gray. The Asian paradise flycatcher, Terpsiphone paradise, as “bori-chiti chirri,” “brown-white.” The oriental white-eye, Zosterops palpebrosus, as “chiti akh chiri”, where “chiti” means white.

3.3. Cultural Uses and Folktales

The people in the study area had two narrative stories for avian and mammalian species, i.e., the house crow (Corvus splendens) was regarded as a wise animal, and the red fox (Vulpes vulpes) was regarded as a very clever animal. Four bird and mammal species were used for commercial purposes (sale), i.e., the peregrine falcon (Falco peregrinus), rose-ringed parakeet (Psittacula krameri), saker falcon (Falco cherrug), and Indian pangolin (Manis crassicaudata). Three species of birds were used as tools to capture small birds, i.e., the peregrine falcon (Falco peregrinus), the Hodgson or mountain hawk eagle (Hieraaetus pennatus), and the lesser spotted eagle (Ictinaetus malayensis). According to our informants, three avian and mammalian species were utilized for entertainment purposes, such as the rose-ringed parakeet (Psittacula krameri) because of its ability to speak and the mongoose because it can fight with snakes.
During the surveys, we noted that fourteen species were utilized as food, i.e., the jungle myna (Acridotheres fuscus), common myna (Acridotheres tristis), spotted dove (Alectoris chukar), common pigeon, (Columba livia), hill pigeon (Columba rupestris), kalij pheasant (Lophura leucomelanos), house sparrow (Passer domesticus), russet sparrow (Passer rutilans), koklass pheasant (Pucrasia macrolopha), oriental turtle dove, (Streptopelia oriental), drongo cuckoo (Surniculus lugubris), jungle babbler (Turdoides striata), chukar partridge, (Atectoris chukar), and cheer pheasant (Catreus wallichii). In the vicinity of the National Park, people only ate specific birds, obeying Islamic rules. Certain birds and mammals were used as food (Table 1), although Islam forbids consuming “insectivores,” “scavengers,” “carnivores,” and “piscivores.”
During research, we noted that four avian species were regarded as harmful for chickens and pet animals, such as the black eagle (Buteo rufinus), long-legged buzzard (Buteo teesa), Hodgson or mountain hawk eagle (Hieraaetus pennatus), and saker falcon (Falco cherrug). Moreover, fourteen species of mammals were regarded as harmful, including the common leopard, red fox, Asiatic jackal, and leopard cat, which are harmful to livestock; the house shrew and house mouse damage clothes and household items. The giant red Himalayan flying squirrel, Royle’s pika, small Kashmir flying squirrel, northern palm squirrel, Indian mole rat, Indian crested porcupine, rhesus monkey, Indian wild boar, Asiatic jackal, and red fox because they were suspected of damaging crops.
According to respondents, four species of birds were used in magic i.e., Asio flammeus, Asio otus, Otus spilocephalus and Otus sunia. They were used in black magic for evil purposes. Local people also used two mammalian species for magic: the presence of quills (Indian crested porcupine) created disgust among people, and the scales of the Indian pangolin were known as a symbol of health.
In the study area, six birds and one mammal were exported illegally: chukar partridge (Atectoris chukar), common kestrel (Falco tinnunculus), Hodgson or mountain hawk eagle (Hieraaetus pennatus), lesser spotted eagle (Ictinaetus malayensis), saker falcon (Falco cherrug), peregrine falcon (Falco peregrinus), and Indian pangolin (Manis crassicaudata). During the surveys, we noted that all avian species and two mammalian species, i.e., the common leopard (Panthera pardus) and leopard cat (Prionailurus bengalensis), were used as decoration for ornamental purposes.

3.4. Body Parts Used

Meat of the avian taxa was the most highly consumed body part (16 medications), followed by eggs (3), the whole body (1), feathers (1), and bones (1), as shown in Figure 4a.
Local people utilized the meat of common hoopoe, common myna, common pigeon, green shrike-babbler, greenish warbler, grey-hooded warbler, hill pigeon, house sparrow, jungle babbler, jungle myna, kalij pheasant, koklass pheasant, mistle thrush, oriental turtle dove, russet sparrow, and spotted dove to treat anemia, bronchitis, epilepsy, fever, infertility, kidney problems, low blood pressure, maturity in girls, puberty in young girls, menorrhagia, paralysis, skin diseases, weakness, and whooping cough. Similarly, the eggs of the hill pigeon, common pigeon, and house sparrow were used to treat anemia, bronchitis, epilepsy, fever, infertility, low blood pressure, menorrhagia, paralysis, puberty in young girls, and weakness. Likewise, the feathers of the mistle thrush were used to treat skin diseases, and the bones of the house crow were used to treat ear infections (Table 2).
In mammalian species, fats were the most consumed part of the body (12 recipes), followed by meat (3) and scale (1) (Figure 5). People in the study area used the fat of the house shrew, house mouse, Indian crested porcupine, leopard cat, small Indian mongoose, Indian wild boar, small Kashmir flying squirrel, giant red Himalayan flying squirrel, Indian grey mongoose, Himalayan palm civet, and common leopard as an analgesic and for arthritis, backbone pain, burns, herpes, joint pain, paralysis, rheumatic pain, scrotal swelling, sexual power, skin infection, and snake bites. Local people applied the meat of the Northern palm squirrel, Indian pangolin, and red fox to treat epilepsy, feet swelling, sexual power, ear pain, and joint pain. Inhabitants used the scales of Indian pangolins to treat foot swelling and enhance sexual power (Table 2).

3.5. Quantitative Analysis

3.5.1. Frequency of Citation (FC)

The highest FC was recorded for the common myna (81), followed by the house sparrow (FC = 62), the kalij pheasant, and the koklass pheasant, while the lowest citation (FC = 1) was for the greenish warbler.

3.5.2. Fidelity Level (FL)

The FL is utilized to recognize diseases (treated with avian and mammalian parts) that are most liked by the people for the healing and curing of sicknesses. Avian and mammalian species with the most therapeutic uses in the study area have the greatest FL. In our research, the FL of diseases cured by avian and mammalian species varied from 2.27 percent to 100 percent (Table 2 and Figure 6). GW-FV (fever cured with greenish warbler), GW-PL (paralysis cured with greenish warbler), GW-IF (infertility cured with greenish warbler), and KP-MG (maturity in girls cured with greenish warbler) reached 100% FL, while HPC-JP (joint pain cured with Himalayan palm civet) and HPC-BB (backbone pain cured with Himalayan palm civet) had the lowest (27%) (Table 2).

3.5.3. Relative Popularity Level (RPL)

The RPL of bird and mammalian species (Table 2) was analyzed, and seven taxa with the highest significance were added for additional debate. The CM-MR, CM-BC, CM-PG, CM-PL, CM-EL, CM-AM, CM-IF, CM-BP, KP-WN, KP-PL, HS-WN, LC-JP, GSB-WN, KP-PL, and HS-FV have an RPL value of 1.0. The lowest RPL values were recorded for GW-FV, GW-PL, and GW-IF (RPL = 0.02).

3.5.4. Rank Order Priority (ROP)

ROP is used to number the species according to their FL values. The measured level of ROP for each avian and mammalian species is documented in Table 2. The ROP of three avian and mammalian species out of 32 was above 28. The HS-WN, HP-BC, and CM-BC were highly utilized, with ROP values of 32.26, 27.78, and 25.45, respectively.

3.5.5. Principal Component Analysis (PCA)

PCA is used to analyze ethnomedicinal data from mammalian and avian species, allowing for plot ordination in terms of three variables. The following variables were included: frequency of citation (FL), informant of major ailment (IMA), fidelity level (FL), relative popularity level (RPL), and rank order priority (ROP). The PCA result gave a sum of all eigenvalues with a total inertia of 1456.85. The first eigenvalue was high (1148.31), indicating a strong gradient in the distribution of indigenous knowledge along the first axis (PC1). Figure 7 displays that the first two axes of the principal component analysis reveal 96.9% variance in the data (component 1: 78.821%; component 2: 18.074%). The variables, i.e., FC (r = −0.55473), informant of major ailment (r = −0.0074), FL (r = 0.83195), RPL (r = −0.00935), and ROP (r = −0.00044) were correlated with the first axis (component 1), while FC (r = 0.77802), informant of major ailment (r = 0.17562), FL (r = 0.52063), RPL (r = 0.011839), and ROP (r = 0.30438) were positively correlated with component 2 as shown in Figure 8.

4. Discussion

Meat contains nitrogenous and non-nitrogenous substances and other components [35,36]. Poultry, cattle, sheep, goats, pork, and fish are the most common meat sources globally. However, in a few nations, particularly in semiarid and arid areas, the meat of the camel is renowned as the primary supply of protein, equaling and, in some cases, exceeding the commercial importance of other meats [37,38,39,40]. Meats of different species, i.e., Acridotheres ginginianus, Acridotheres tristis, Ammoperdix heyi, Anas platyrhynchos, Aratinga cactorum, Bagarius bagarius, Bos taurus, Bubalus bubalis, Calotes versicolor, Camelus dromedaries, Capra aegagrus hircus, Channa marulius, Cirrhinus mrigala, Columba livia, Columba rupestris, Coturnix coturnix, Ctenopharyngodon idella, Cyprinus carpio, Dicrurus macrocercus, Egretta garzetta, Equus caballus, Eudynamys scolopaceus, Francolinus francolinus, Funnambulus pennant, Gallus gallus domesticus, Hystrix indica, Labeo rohita, Lepidocephalichthys thermalis, Lepus nigricollis, Macaca mulatta, Mimus saturninus, Nothura boraquira, Oreochromis niloticus, Ovis aries, Passer cinnamomeus, Passer domesticus, Pterocarpus giganteus, Rana clamitans, Rita rita, Serpentes spp., Spilopelia chinensis, Streptopelia orientalis, Suncus murinus, Trochalopteron lineatum, Upupa epops, Vulpes vulpes, and Wallago attu are utilized in different folk therapies to treat the following: allergies, anemia, asthma, diabetes, diarrhea, dysentery, epilepsy, eye problems, fever, flu, hemoglobin, hepatitis, jaundice, kidney problems, muscular pain, paralysis, paralysis, scorpion bite, sore throats, tuberculosis, and whooping cough [41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64].
Ethnozoologists discovered that various species of animals, including the Indian gagata, horse, goat, fruit bat, crab-eating macaque, common carp, deer, crow, cinereous vulture, and alpine musk deer, were utilized to cure a variety of ailments, including wound healing, urine problems, heart strength, ear aches, chest pain, lumbago, and skin issues [41,47,61,62,65,66,67,68,69,70].
Ethnobiologists discovered that fats are consumed to restore health and treat nerve problems and aging issues [71,72,73,74,75,76,77,78]. The previous published data showed that the fats of various animal species, i.e., the wild boar, turtle, sheep, mongoose, bat, lizard, dolphin, Indus Valley spiny-tailed ground lizard, Indian rock python, Indian flap-shelled turtle, Indian bullfrog, horse, Himalayan serow, jackal, hare, green pond frog, goat, deer, cow, common leopard gecko, and Asiatic black bear, are used to cure different ailments, such as wounds [79,80], back pain [80,81], sexual problems [47,62,66,80,82,83,84], impotency [62,66], muscle pain, ear disease [65,82], cancer [62], arthritis [80], paralysis, [41,80], allergies [41,67,80], typhoid [47,59], and joint pain [83]. Eggs are a good source of nutrients. Breast cancer, bronchitis, asthma, high blood pressure, burns, diabetes, eye pain, CNS, cold, fever, jaundice, nourishment, night blindness, sprains, weak weight loss, and weakness are all cured by eggs [3,17,49,50,57,66,79,80,85,86,87,88,89,90,91,92,93,94,95,96,97]. Eggs are an incredibly tasty and healthful item that can be utilized in a variety of ways [97]. Eggs are composed of components that provide the best environment for an embryo’s development and growth. With the exception of vitamin C, eggs are a major source of important nutrients.
Avian feathers are applied in folk therapy to heal asthma, cough, flu, typhoid, and headaches [47,50,52,79,88,92,96,98,99,100,101,102]. Bone is composed of collagen [103], water, lipids [104,105], noncollagenous proteins [106,107], and minerals [108,109]. Lipids make up less than 2% of bone mass [104,105]. Different ethnobiologists noted that faunal species, i.e., alpine musk deer (Moschus chrysogaster), cinereous vulture (Aegypius monachus), common carp (Cyprinus carpio), crab-eating macaque (Macaca fascicularis), crow (Corvus spp.), deer (Cervus spp.), fruit bat (Pteropus spp.), goat (Capra aegagrus), horse (Equus ferus caballus), Indian gagata (Gagata cenia), and pigs (Sus spp.) are used for different ailments, such as improving chest pain [68], cough [47], digestion [65], ear aches [47,80], eyesight [68], heart strength [65], lumbago [110], neuralgia [41], skin [67], urine problems [62], and wounds [66].

5. Conclusions

The residents of our study region have deep ties to local wildlife and have vital traditional knowledge about bird and mammalian species. Folklore of different avian and mammalian taxa was documented, mainly to conserve their traditional knowledge and cultural usage among the indigenous peoples in the vicinity of the Ayubia National Park, KPK, Pakistan. In this study, the ethnopharmacological and folklore applications of 18 bird species as well as 14 mammalian taxa were documented for the first time. Feathers are utilized as biomaterials since they are inexpensive and environmentally beneficial, and they are applied in an ornamental way as well as in playthings. Bones contain up to 95% protein, fibers, and minerals, such as phosphate and calcium, which help prevent bone fracture. This knowledge is useful for contemporary pharmaceutical research since it may open up opportunities for the identification of new compounds with significant therapeutic potential in the future. Important toxicological studies would be necessary to guarantee the continuous and secure use of the presented practices. Local communities and responsible bodies must conserve medicinal plants to avoid further losses.

Author Contributions

Conceptualization, M.A., T.H. and M.U.; methodology, M.A., T.H., and M.U.; software, M.A., T.H., A.M.A., and M.U.; validation, M.A., T.H., M.U., M.H.H., S.A., M.S.A., R.W.B., and A.M.A.; formal analysis, S.M.B., M.A., and T.H.; investigation, A.B.G. and A.M.K.; resources, M.M., S.M.B., T.H., and S.A.; data curation, S.M.B., M.A., and T.H.; writing—original draft preparation, M.M., A.B.G., M.H.H., and T.H.; writing—review and editing, M.M., R.W.B., A.M.A., W.M.M., R.C., M.H.A., A.Z.D., A.A., A.M.K., M.A.-Y., and H.O.E.; visualization, R.C., A.Z.D., A.A., M.A., M.H.A., M.A.-Y., H.O.E., and W.M.M.; supervision, M.A., T.H., and M.M.; project administration, A.M.A., A.B.G., M.A., and T.H.; funding acquisition, M.M. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded by the Deanship of Scientific Research at the King Saud University through the Vice Deanship of Scientific Research Chairs and the Research Chair of the Prince Sultan Bin Abdul-Aziz International Prize for Water.

Institutional Review Board Statement

The proposed research on animals (particularly avian and mammalian species) was duly approved by the institutional committee of the department of Zoology at Women’s University of Azad Jammu and Kashmir, Bagh-Pakistan, with a focus on the intellectual property rights of informants prior to the field survey.

Informed Consent Statement

This study is based on a field survey rather than on human or animal trails. As a result, ethical approval was not required. Participants did, however, provide formal informed permission for data collection and release. Furthermore, the International Society of Ethno-(ISE) biology’s (http://www.ethnobiology.net/ (Accessed on 8 January 2021) ethical norms and procedures were scrupulously observed.

Data Availability Statement

The data are available on request to the first author.

Acknowledgments

The authors extend their appreciation to the Deanship of Scientific Research at the King Saud University for their funding through the Vice Deanship of Scientific Research Chairs and the Research Chair of the Prince Sultan Bin Abdul-Aziz International Prize for Water.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Map of the Ayubia National Park and ethnographic data of local informants.
Figure 1. Map of the Ayubia National Park and ethnographic data of local informants.
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Figure 2. Landscapes of the study area.
Figure 2. Landscapes of the study area.
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Figure 3. Significant species used in the study area: (a) Rock Pigeon, (b) Kalij Pheasant, (c) Leopard Cat, and (d) Giant Red Himalayan Flying Squirrel.
Figure 3. Significant species used in the study area: (a) Rock Pigeon, (b) Kalij Pheasant, (c) Leopard Cat, and (d) Giant Red Himalayan Flying Squirrel.
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Figure 4. (a) Birds (b) and mammal parts used against different diseases in the study area.
Figure 4. (a) Birds (b) and mammal parts used against different diseases in the study area.
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Figure 5. Chords for bird (a) and mammalian (b) species.
Figure 5. Chords for bird (a) and mammalian (b) species.
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Figure 6. Scatter plot showing the fidelity level (FL%) of species with frequency of citation (FC); circled code shows the mammal and bird names as given in Table 2.
Figure 6. Scatter plot showing the fidelity level (FL%) of species with frequency of citation (FC); circled code shows the mammal and bird names as given in Table 2.
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Figure 7. Principal component analysis is used to analyze ethnomedicinal data from mammalian and avian species. The locations of the arrows in relation to components 1 and 2 demonstrate the degree of correlation between the independent variables (FC, IMA, FL, RPL, and ROP).
Figure 7. Principal component analysis is used to analyze ethnomedicinal data from mammalian and avian species. The locations of the arrows in relation to components 1 and 2 demonstrate the degree of correlation between the independent variables (FC, IMA, FL, RPL, and ROP).
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Figure 8. Correlation among ethno-variables, i.e., rank order priority (ROP), frequency of citation (FC), informant of major ailment (IMA), fidelity level (FL), and relative popularity level (RPL).
Figure 8. Correlation among ethno-variables, i.e., rank order priority (ROP), frequency of citation (FC), informant of major ailment (IMA), fidelity level (FL), and relative popularity level (RPL).
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Table 1. Cultural uses of birds and mammals in the study area.
Table 1. Cultural uses of birds and mammals in the study area.
Sr. No.Scientific NameSpecies AuthorityCommon NameVernacular NameStatusMDNRCCTLETFDHFMGEXORFCRFCCU
Birds
1Accipiter gentilisLinnaeus, 1758Northern GoshawkBazLC×××××××××҂30.0021
2Accipiter nisusLinnaeus, 1758Eurasian Sparrow HawkChirimar BazLC×××××××××҂10.0012
3Acridotheres fuscusWagler, 1827Jungle MynaGotariLC҂××××҂×××҂450.0308
4Acridotheres tristisLinnaeus, 1766Common MynaGotari, MynaLC҂××××҂×××҂810.06810
5Aegithalos leucogenysGould, 1855White-cheeked TitChitti PithpithaLC×××××××××҂30.0022
6Aegithalos niveogularisGould, 1855White-throated Long-tailed TitPithpithaLC×××××××××҂10.0011
7Alectoris chukarLinnaeus, 1758Chukar PartridgeChakoreLC×××××҂××҂҂20.0011
8Asio flammeusPontoppidan, 1763Short-eared OwlUlooLC×××××××҂×҂20.0012
9Asio otusLinnaeus, 1758Long-eared OwlUlooLC×××××××҂×҂20.0012
10Buteo rufinusGarnot, 1828Black EagleBasha, BazLC××××××҂××҂10.0011
11Buteo teesaFranklin, 1831Long-legged BuzzardChitti aankh wala BazLC××××××҂××҂30.0021
12Carpodacus rodochroaVigors, 1831Pink-browed RosefinchGulabi ChirriLC×××××××××҂100.0071
13Catreus wallichiiHardwicke, 1827Cheer PheasantJungli kukarLC×××××҂×××҂450.0301
14Certhia himalayanaVigors, 1832Bar-tailed TreecreeperChiriiLC×××××××××҂20.0011
15Chaimarrornis leucocephalusVigors, 1831White-capped Red StartThirkaraLC×××××××××҂20.0011
16Charadrius mongolusPallas, 1776Lesser Sand PloverChirraLC×××××××××҂10.0011
17Cinclus pallasiiTemminck, 1820Brown Dipperbori chirriLC×××××××××҂60.0042
18Columba liviaGmelin, 1789Common PigeonJungli kubutarLC҂××××҂×××҂550.03724
19Columba rupestrisPallas, 1811Hill PigeonKbuterLC҂××××҂×××҂300.02024
20Coracina maceiLesson, 1831Large CuckooshrikeNella ChirraLC҂××××××××҂70.0052
21Corvus coroneLinnaeus, 1758Carrion CrowKaghLC×××××××××҂1000.0682
22Corvus macrorhynchosWagler, 1827Large-billed CrowJungli kaghLC×××××××××҂900.0611
23Corvus splendensVieillot, 1817House CrowKaghLC҂҂×××××××҂70.1234
24Cuculus canorusLinnaeus, 1758Common CuckooKoailLC×××××××××҂30.0021
25Cuculus poliocephalusLatham, 1790Lesser CuckooCoailLC×××××××××҂20.0011
26Dendrocitta vagabundaLatham, 1790Rafous TreepieBara lam dumbara ChinjarLC×××××××××҂550.0371
27Dendrocopos auricepsVigors, 1831Brown-fronted WoodpeckerThum thokaLC×××××××××҂260.0182
28Dendrocopos hyperythrusVigors, 1831Rufous-bellied WoodpeckerThum thokaLC×××××××××҂300.0202
29Dendrocopos maceiLinnaeus, 1758Fulvous-breasted WoodpeckerThum thokaLC×××××××××҂20.0012
30Dendrocopos mahrattensisLatham, 1801Yellow-crowned WoodpeckerThum thokaLC×××××××××҂30.0021
31Dendrocopos nanusBlyth, 1845Grey-capped Pygmy WoodpeckerThum thokaLC×××××××××҂20.0013
32Dicrurus leucophaeusVieillot, 1817Ashy DrongoKalchitLC×××××××××҂770.0522
33Dicrurus macrocercusVieillot, 1817Black DrongoKali chit, KalkalichLC×××××××××҂300.0201
34Emberiza melanocephalaScopoli, 1769Black-headed BuntingBoliLC×××××××××҂20.0012
35Eudynamys scolopaceusLinnaeus, 1758Asian KoelKoelLC×××××××××҂100.0072
36Eumyias thalassinusSwainson, 1838Verditer FlycatcherTik-tikiLC×××××××××҂210.0141
37Euodice malabaricaLinnaeus, 1758Indian SilverbillSlaiti chny chiriLC×××××××××҂30.0021
38Falco cherrugGray, 1834Saker FalconBazLC××҂×××҂×҂҂10.0012
39Falco peregrinusTunstall, 1771Peregrine FalconBazLC××҂҂××××҂҂20.0014
40Falco tinnunculusLinnaeus, 1758Common kestrelBazLC×××××××××҂10.0011
41Ficedula superciliarisJerdon, 1840Ultramarine FlycatcherTik-tikiiLC×××××××××҂20.0011
42Garrulax erythrocephalusVigors, 1832Himalayan LaughingthrushSorhLC×××××××××҂40.0031
43Garrulax rufogularisLesson, 1831Rufous-chinned LaughingthrushChinny wali chiriiCR×××××××××҂30.0021
44Garrulax variegatusVigors, 1831Variegated LaughingthrushChiriiLC×××××××××҂20.0011
45Garrulus glandariusLinnaeus, 1758Eurasian JayRollarLC×××××××××҂50.0031
46Gyps fulvusHablizl, 1783Eurasian Griffon VultureGidLC×××××××××҂20.0012
47Gyps himalayensisHume, 1869Himalayan VultureGadhNT×××××××××҂10.0011
48Hieraaetus pennatusGmelin, 1788Hodgson or Mountain Hawk EagleBazLC×××҂××҂××҂20.0014
49Hirundapus caudacutusLatham, 1801White-throated NeedletailLambi dum chiriLC×××××××××҂20.0011
50Hirundo smithiiLeach, 1818Wire-tailed SwallowAbabeelLC×××××××××҂20.0011
51Hypsipetes LeucocephalusGmelin, 1789Black BulbulBulbullLC×××××××××҂50.0031
52Ictinaetus malayensisTemminck, 1822Lesser spotted EagleBazLC×××҂××҂×҂҂10.0015
53Lanius IsabellinusEhrenberg, 1833Isabelline Shrike LatoraLC×××××××××҂20.0011
54Lanius phoenicuroiderSchalow, 1875Red-tailed ShrikeLatoreLC×××××××××҂20.0011
55Lophophorus impejanusLatham, 1790Himalayan MonalMonulLC×××××××××҂20.0011
56Lophura leucomelanosLatham, 1790Kalij pheasantBun kukarLC҂××××҂×××҂600.0413
57Lucinia brunneaHodgson, 1837Blue robinNelli chirriLC×××××××××҂20.0012
58Milvus migransBoddaert, 1783Black kiteCheelLC×××××××××҂10.0011
59Monticola rufiventrisJardine and Selby, 1833Chestnut-bellied Rock ThrushNiki chirriLC×××××××××҂20.0012
60Mycerobas melanozanthosHodgson, 1836Spot-winged GrosbeakChnarLC×××××××××҂10.0011
61Myophonus caeruleusScopoli, 1786Blue or Himalayan Whistling ThrushPahari, KholchoraLC×××××××××҂50.0032
62Neophron percnopterusLinnaeus, 1758Egyptian vultureGidEN×××××××××҂10.0011
63Nisaetus nipalensisHodgson, 1836Mountain Hawk EagleBazLC××××××҂×҂҂20.0011
64Oenanthe picataBlyth, 1847Variable WheatearWheaterLC×××××××××҂40.0031
65Oriolus (oriouls) kundooSykes, 1832Indian Golden OriolePeeli chiriLC×××××××××҂10.0011
66Otus spilocephalusBlyth, 1846Mountain Scops OwlUlooLC×××××××҂×҂40.0032
67Otus suniaHodgson, 1836Oriental Scops OwlUlooLC×××××××҂×҂10.0012
68Parus magorLinnaeus, 1758Great TitPithpittaLC×××××××××҂30.0022
69Parus monticolusVigors, 1831Green-backed TitPithpitthaLC×××××××××҂10.0011
70Parus xanthogenysVigors, 1831Black-lored TitPithpitthaLC×××××××××҂20.0011
71Passer domesticusBlyth, 1849House SparrowChirriLC҂××××҂×××҂620.00120
72Passer rutilansLinnaeus, 1758Russet SparrowJangli chirriLC҂××××҂×××҂210.00120
73Pericrocotus cinnamomeusLinnaeus, 1758Small MinivetPithpitthaLC×××××××××҂40.0031
74Pericrocotus ethologusLinnaeus, 1766Long-tailed Minivet Raja lalLC×××××××××҂50.0031
75Pericrocotus roseusBangs and Phillips, 1914Rosy MinivetLambi dum, Raja lalLC×××××××××҂60.0041
76Periparus aterTemminck, 1836Coal Tit Chitti chirriLC×××××××××҂20.0012
77Periparus rubidiventrisVieillot, 1818Rufous-vented Tit Gulabi RajalalLC×××××××××҂30.0022
78Periparus rufonuchalisBlyth, 1847Rufous-naped Tit Pithpittha, piddaLC×××××××××҂70.0051
79Phoenicurus coeruleocephalaBlyth, 1849Blue headed or Blue-capped redstart PithpitthaLC×××××××××҂20.0011
80Phoenicurus ochrurosVigors, 1831Black redstart ThirtaraLC×××××××××҂20.0011
81Phylloscopus collybitaS.G.Gmelin, 1774Common Chiffchaff ThirtaraLC×××××××××҂10.0011
82Phylloscopus trochiloidesSykes, 1832Greenish Warbler Pid-PiddiLC҂××××××××҂10.0011
83Phylloscopus xanthoschistosSundevall, 1837Grey-hooded Warbler Heri PiddiLC×××××××××҂30.0021
84Platalea leucorodiaGray, 1846Eurasian SpoonbillPiddiLC×××××××××҂20.0011
85Prinia gracilisLinnaeus, 1758Graceful Prinia DaiLC×××××××××҂50.0031
86Prinia hodgsoniiLichtenstein, 1823Grey-breasted Prina PiddiLC×××××××××҂20.0011
87Prunella fulvescensBlyth, 1844Black-throated AccentorPiddiLC×××××××××҂30.0021
88Psittacula HimalayanaSevertsov, 1873Slaty-headed ParakeetKn kaliLC×××××××××҂20.0011
89Psittacula krameriDesmarest, 1806Rose-ringed ParakeetGani wala totaLC××҂×҂××××҂20.0012
90Pteruthius xanthochlorusDesmarest, 1806Green shrike-babblerGani walaLC×××××××××҂40.0031
91Ptyonoprogne rupestrisGray, 1846Eurasian Crag MartinSehariLC×××××××××҂30.0021
92Pucrasia macrolophaScopoli, 1769Koklass Pheasant MandelliLC×××××҂×××҂600.0413
93Pycnonotus leucogenysLesson, 1829Himalayan Bulbul BhakerLC×××××××××҂350.0241
94Pyrrhula aurantiacaGray, 1835Orange BullfinchFinchLC×××××××××҂50.0031
95Rhipidura aureolaGould, 1858Rusty-cheeked Scimitar BabblerZangi chriiLC×××××××××҂20.0011
96Saxicola caprataHodgson, 1837Pied Bush ChatPiddiLC×××××××××҂20.0011
97Saxicola ferreusLinnaeus, 1766Grey Bush ChatSalaiti chiriLC×××××××××҂20.0011
98Saxicola torquatusVieillot, 1818Common StonechatSehariLC×××××××××҂30.0021
99Streptopelia chinensisGray, 1830Spotted DoveKogiLC҂××××҂×××҂450.0109
100Streptopelia orientalGray, 1846Oriental Turtle DovePhittliLC҂××××҂×××҂20.0012
101Surniculus lugubrisLatham, 1790Drongo-cuckooKogiLC×××××҂×××҂60.0041
102Tachymarptis melbaHorsfield, 1821Alpine SwiftChoti ababilLC×××××××××҂20.0011
103Tarsiger chrysaeusLinnaeus, 1758Golden Bush RobinMandliLC×××××××××҂30.0021
104Terpsiphone paradiseHodgson, 1845Asian Paradise FlycatcherBori-chiti chirriLC×××××××××҂550.0371
105Trochalopteron variegatumLinnaeus, 1758Variegated LaughingthrushTaleerLC×××××××××҂20.0011
106Turdoides striataVigors, 1831Jungle Babbler ChiriiLC×××××҂×××҂70.0051
107Turdus atrogularisDumont, 1823Black-throated ThrushJungli chiraLC×××××××××҂310.0211
108Turdus boulboulJarocki, 1819Grey-winged BlackbirdsChirraLC×××××××××҂30.0021
109Turdus naumanniLatham, 1790Neumann’s or Dusky ThrushJangli chiraLC×××××××××҂20.0011
110Turdus unicolorTemminck, 1820Tickell’s ThrushKholchorLC×××××××××҂30.0021
111Turdus viscivorusTickell, 1833Mistle ThrushKholchoraLC҂××××××××҂20.0012
112Upupa epopsLinnaeus, 1758Common Hoopoe ChiriiLC҂××××××××҂110.0012
113Urocissa flavirostrisLinnaeus, 1758Yellow-billed Blue MagpieHud hud,LC×××××××××҂440.0301
114Zoothera daumaLatham, 1790Scaly or White’s or Golden Mountain ThrushKholchoraLC×××××××××҂30.0021
115Zoothera mollissimaLatham, 1790Plain-backed ThrushChatri chirriLC×××××××××҂20.0011
116Zosterops palpebrosusBlyth, 1820Oriental White-eyeChiti akh chiriLC×××××××××҂350.0241
Mammals
117Bandicota bengalensisGray, 1835Indian Mole RatFasli chuhaLC××××××҂×××50.0215
118Canis aureusLinnaeus, 1758Asiatic JackalGedarLC××××××҂×××40.0172
119Eoglaucomys fimbriatusGray, 1837Small Kashmir Flying SquirrelChhoti kneezLC҂×××××҂×××80.0335
120Funambulus pennantiiWroughton, 1905Northern Palm SquirrelGulariLC҂×××××҂×××80.0335
121Herpestes auropunctatusHodgson, 1836Small Indian MongooseSatrengaLC҂×××҂×××××50.0085
122Herpestes edwardsiiÉ.Geoffroy Saint-Hilaire, 1818Indian Grey Mongoose Murda tng, GhorsalLC××××҂×××××200.0833
123Hystrix indicaKerr, 1792Indian Crested Porcupine Kandy wali seghLC҂×××××҂҂××120.0505
124Macaca mulattaZimmermann, 1780Rhesus Monkey BujaLC××××××҂×××50.0212
125Manis crassicaudataGeoffroy, 1803Indian Pangolin SippaEN҂×҂××××҂҂×60.0254
126Martes flavigulaBoddaert, 1785Yellow-throated Marten TobraLC××××××××××20.0082
127Mus musculusLinnaeus, 1758House Mouse Ghr ka chohaLC҂×××××҂×××70.0296
128Ochotona royleiOgilby, 1839Royle’s pika Gor ghichooLC××××××҂×××400.1664
129Paguma larvataC.E.H.Smith, 1827Himalayan Palm Civet Lak trutaLC××××××××××440.1832
130Panthera pardusKerr, 1792Common LeopardCheetaVU××××××҂××҂70.0297
131Petaurista petauristaPallas, 1766Giant red Himalayan Flying Squirrel Bhari kneezLC××××××҂×××50.0214
132Prionailurus bengalensisKerr, 1792Leopard CatJungli billiLC҂×××××҂×҂҂300.1243
133Suncus etruscusSavi, 1822Mediterranean Pygmy ShrewKera, Chota chohaLC××××××××××50.0212
134Suncus murinusLinnaeus, 1766House Shrew Anna choha LC҂×××××҂×҂×70.0292
135Sus scrofaLinnaeus, 1758Indian Wild Boar BarlaLC҂×××××҂×××330.0123
136Vulpes vulpesLinnaeus, 1758Red Fox Rati lumriLC҂҂××××҂×××50.0215
FC (frequency of citation), RFC (relative frequency of citation), CU (cultural uses), MD (medicinal uses), NR (narrative uses), CC (commercial uses), TL (tool uses), ET (entertainment uses), FD (food), HF (harmful), MG (magic), EX (export), OR (ornamental uses), ҂ (yes) and × (no).
Table 2. Ethnopharmacological application of avian and mammalian species in ANP, KPK, Pakistan.
Table 2. Ethnopharmacological application of avian and mammalian species in ANP, KPK, Pakistan.
Sr. No.Common NameParts UsedApplicationsAilmentsCodesFrequency of CitationInformants of Major AilmentsNumber of DiseasesFidelity LevelRelative Popularity LevelRank Order Priority
Birds
1Common MynaMOWhooping coughCM-WC81526.171.006.17
WeaknessCM-WN56.171.006.17
2Jungle MynaMOWhooping coughJM-WC457215.560.8913.89
WeaknessJM-WN511.110.899.92
3Spotted DoveMOMaturity in girlsSP-MG459120.000.8917.86
4House CrowBTEar infectionHC-EI188144.440.3615.87
5Large CuckooshrikeWBOMalariaLCS-MR72128.570.143.97
6Mistle ThrushM, FEOSkin diseasesMT-SD2211000.043.97
7Hill PigeonM, EOMenstrual bleedingHP-MR3012840.000.6023.81
Respiratory problemsHP-BC1446.670.6027.78
Girls’ pubertyHP-PG516.670.609.92
Joint painHP-PL310.000.605.95
Seizure disorderHP-EL26.670.603.97
Low hemoglobinHP-AM516.670.609.92
Impaired fecundityHP-IF310.000.605.95
Low blood pressureHP-BP516.670.609.92
8Common PigeonM, EOMenstrual bleedingCM-MR5512821.821.0021.82
Respiratory problemsCM-BC1425.451.0025.45
Girls’ pubertyCM-PG59.091.009.09
Joint painCM-PL35.451.005.45
Seizure disorderCM-EL23.641.003.64
Low hemoglobinCM-AM59.091.009.09
Impaired fecundityCM-IF35.451.005.45
Low blood pressureCM-BP59.091.009.09
9Kalij PheasantMOWeaknessKP-WN60325.001.005.00
ParalysisKP-PL35.001.005.00
10House SparrowM, EOWeaknessHS-WN6220332.261.0032.26
FeverHS-FV1219.351.0019.35
Low blood pressureHS-BP1117.741.0017.74
11Russet SparrowMOWeaknessRS-WN2120295.240.4239.68
FeverRS-FV1152.380.4221.83
12Greenish WarblerMOFeverGW-FV1131000.021.98
ParalysisGW-PL11000.021.98
InfertilityGW-IF11000.021.98
13Grey-hooded WarblerMOFeverGHW-FV31333.330.061.98
ParalysisGHW-PL133.330.061.98
InfertilityGHW-IF133.330.061.98
14Green shrike-babblerMOFeverGSB-FV41325.000.081.98
ParalysisGSB-PL125.000.081.98
InfertilityGSB-IF125.000.081.98
15Koklass PheasantMOWeaknessGSB-WN60325.001.005.00
ParalysisKP-PL23.331.003.33
16Oriental Turtle Dove MOMaturity in girlsKP-MG2211000.043.97
17Jungle BabblerMOFeverJB-FV71314.290.141.98
ParalysisJB-PL114.290.141.98
InfertilityJB-IF114.290.141.98
18Common HoopoeMOKidney problemsCH-KP112118.180.223.97
Mammals
19Leopard Cat FTJoint painLC-JP303110.000.605.95
20House ShrewFTScrotal swellingHS-SS74357.140.147.94
Snake biteHS-SB342.860.145.95
backbone painHS-BB342.860.145.95
21Northern Palm SquirrelMTEpilepsyNPS-EL85162.500.169.92
22Indian Crested PorcupineFTSkin infectionICP-SI125241.670.249.92
Rheumatic painICP-RP541.670.249.92
23Indian PangolinS, MTFeet swellingIP-FS672116.70.1213.89
Sexual powerIP-SP466.670.127.94
24House MouseFTArthritisHM-AR74257.140.147.94
AnalgesicHM-AL342.860.145.95
25Small Indian Mongoose FTHerpesSIM-HP54380.000.107.94
Joint painSIM-JP360.000.105.95
Backbone painSIM-BB360.000.105.95
26Red FoxF, MTEar pain RF-EP53360.000.105.95
Joint painRF-JP360.000.105.95
Epilepsy RF-EL360.00.105.95
27Indian Wild BoarFTParalysisIWB-PL33329.090.655.95
BurnIWB-BR39.090.655.95
28Small Kashmir Flying SquirrelFTJoint painSKFS-JP82325.000.163.97
Backbone painSKFS-BB 2 25.000.163.97
Sexual powerSKFS-SP112.500.161.98
29Giant Red Himalayan Flying SquirrelFTSexual powerGFKS-SP53160.000.105.95
30Indian Grey MongooseFTHerpesIGM-HS203315.000.405.95
Joint painIGM-JP315.000.405.95
Backbone painIGM-BB315.000.405.95
31Himalayan Palm CivetFTJoint painHPC-JP44132.270.871.98
Backbone painHPC-BB12.270.871.98
Sexual powerHPC-SP24.550.873.97
32Common LeopardFTSexual powerCL-SP75171.430.149.92
Parts used: F (at), S (scale), M (meat), E (egg), FE (feather), B (bone), WB (whole body), O (oral), and T (topical).
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MDPI and ACS Style

Bashir, S.M.; Altaf, M.; Hussain, T.; Umair, M.; Majeed, M.; Mangrio, W.M.; Khan, A.M.; Gulshan, A.B.; Hamed, M.H.; Ashraf, S.; et al. Vernacular Taxonomy, Cultural and Ethnopharmacological Applications of Avian and Mammalian Species in the Vicinity of Ayubia National Park, Himalayan Region. Biology 2023, 12, 609. https://doi.org/10.3390/biology12040609

AMA Style

Bashir SM, Altaf M, Hussain T, Umair M, Majeed M, Mangrio WM, Khan AM, Gulshan AB, Hamed MH, Ashraf S, et al. Vernacular Taxonomy, Cultural and Ethnopharmacological Applications of Avian and Mammalian Species in the Vicinity of Ayubia National Park, Himalayan Region. Biology. 2023; 12(4):609. https://doi.org/10.3390/biology12040609

Chicago/Turabian Style

Bashir, Sayda Maria, Muhammad Altaf, Tanveer Hussain, Muhammad Umair, Muhammad Majeed, Wali Muhammad Mangrio, Arshad Mahmood Khan, Allah Bakhsh Gulshan, M. Haroon Hamed, Sana Ashraf, and et al. 2023. "Vernacular Taxonomy, Cultural and Ethnopharmacological Applications of Avian and Mammalian Species in the Vicinity of Ayubia National Park, Himalayan Region" Biology 12, no. 4: 609. https://doi.org/10.3390/biology12040609

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