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. 2021 Apr 7;47(1):131–153. doi: 10.1007/s13369-021-05501-1

Herbal Medicine Used in the Treatment of Human Diseases in the Rif, Northern Morocco

Noureddine Chaachouay 1,, Allal Douira 2, Lahcen Zidane 2
PMCID: PMC8024440  PMID: 33842189

Abstract

Since the beginning of time, the Moroccan people have used many medicinal plants as a popular medicine to cure many human and livestock health problems. Yet, few studies have been carried in the past to properly document and promote traditional ethnomedicinal knowledge. This study was conducted out from July 1st, 2016 to July 30th, 2018 in the Rif; it was aimed to establish the list of medicinal plants, together with the association of ethnomedicinal knowledge. The ethnomedicinal data obtained were from 1000 traditional healers using semi-structured discussions, free listing, and focus groups. Family importance value, plant part value, fidelity level, the relative frequency of citation, and informant consensus factor were applied in data interpretation. Plant species were accumulated, and deposited at the Plant, Animal Productions and agro-industry laboratory, Ibn Tofail University. A total of 280 medicinal plants belong to 204 genera and 70 families were documented. Asteraceae with 29 species was the most used family in this study area. Rosmarinus officinalis L. (RFC = 0.189) was the species the most commonly prescribed by local traditional healers. Similarly, the leaf was the most useful part of the plant (PPV = 0.364), the most frequent affections were osteoarticular affections (ICF = 0.983), and the majority of herbal remedies were prepared from a decoction (38.6%). The results of the present investigation confirmed the presence of indigenous ethnomedicinal information of plant species in the Rif’s area to treat various disorders. More investigation on phytochemical, pharmacological, and toxicological should be considered to determine new drugs from these reported plants.

Keywords: Ethnopharmacology, Human diseases, Medicinal plants, Moroccan Rif, Traditional healers

Introduction

Medicinal plants have been prescribed and used extensively for thousands of years to treat various disorders and ailments in traditional herbal medicine systems all over the world [1]. In all ancient civilizations and on all continents, we find traces of this use. Thus, even today, despite advances in pharmacology, the therapeutic use of plants is very present in some countries, especially in developing countries [2]. The World Health Organization (WHO) estimates that unevenly, 80% of the people from developed and developing nations depend on traditional medicines, especially on plant-based medicine in primary healthcare [3].

The use of plant species for healing purposes is a matter of culture and tradition in Morocco. It should be noted that for the primary health needs, a large portion of Moroccan people utilizes traditional methods of medicine to treat their diseases [36]. The inability of many developing countries to supply contemporary pharmaceutical medications [712], and the high cost of many drugs, has forced local communities to search for alternative products, such as medicinal plants, that have proven effectiveness and safety and are culturally acceptable.

The Rif region is one of the most biologically diverse regions in the Mediterranean, with some of the rarest biogeographical areas in the world and biodiversity of primary importance with many plants of therapeutic interest [13]. For this reason, this region is the source of many medicinal plants marketed throughout Morocco and abroad and the use of plants in herbal medicine is still very present in this region. On the opposite, data on medicinal plants in this region are rare and insufficient. To complete partial and fragmentary studies those have been carried out throughout the Rif [13, 14], Talassemtane National Park [15], and Tingitane Peninsula [16]. It is, therefore, necessary to undertake them to identify the local uses of plant species.

It is in this context that an ethnopharmacological study was carried out in the Rif, which has a lithological diversity, structural and floristic plants important enough to establish the catalog of medicinal plants used in the traditional treatment of diseases, especially herbal medicine, as an alternative to enhance, preserve and rationally use them.

Materials and Methods

Description of the Study Area

The current study was conducted out in the Tangier-Tetouan-Al Hoceima region (North of Morocco) where the Rif’s area was located. It extends between 34° and 36° of latitude in the North and 4° to 6° of longitude in the East. It is bounded in the North by the Strait of Gibraltar and the Mediterranean Sea, in the South by the Rabat-Sale-Kenitra region and Fez-Meknes region, in the East by the Eastern Region, and in the West by the Atlantic Ocean (Fig. 1). The total geographical area of the Rif is 11,570 km2 and the population of the city is about 3,549,512 inhabitants with an average population density of 222.2/km2 [17]. The population is mixed between Arabic and Amazigh ethnicity.

Fig. 1.

Fig. 1

The geographical position of the Rif region

The Rif is marked by Mediterranean weather with the highest temperature up to 45 °C during summer (July–August) and below 0 °C during winter (December–January) and the average annual rainfall ranges from 700 to 1300 mm which falls mainly between October and February [18]. It is mountainous with elevations ranging from 145 to 2456 (Jbel Tidirhine) meters above mean sea level and the area dominated by species such as Abies marocana Trab., Pinus halepensis Mill., Cannabis sativa L., Cedrus atlantica (Endl.) Quercus suber L., Quercus ilex L., and Quercus canariensis Willd. Principally families of Rif are very much dependent on subsistence farming, livestock, and to a more secondary space, from forest resources for their livelihood.

Methodology

Ethnopharmacological Survey

Ethnopharmacological investigations were carried out from July 2016 to July 2018 to collect information on medicinal plants utilized to treat multiple human sicknesses in the Rif region. In this work, the sample has been developed through a mode of probabilistic sampling random stratified [19, 20] non-proportional, it is divided into 28 strata, having concerned the cities, villages, douars, and souks weekly in the area of study. It is based on environmental factors (climate, soil, and altitude), vegetation, and the distribution of the population. The techniques employed for data collection were semi-structured interviews [21], open-ended, group discussion, free listing, and noted and recorded with a digital voice recorder. 1000 informants within aged 17–95 were randomly selected for interviews (cautery installer, farmers, elder people, bonesetters, herbalists, and therapists) in Rif (weekly markets, pharmacies, hospitals, houses, and mosques). By conducting a stratified random sampling [22], samples are then formed in each of the 28 strata, including seven urban communes: [S1: Al Hoceim (40), S12: Chefchaouen (40), S15: Tétouan (40), S19: Martil (40), S20: Md’q (40), S21: Fnideq (40), S26: Tanger (41)] and twenty-one rural communes: [S2: Ajdir (35), S3: Izefzafen (30), S4: Bni Hadifa (30), S5: Targuist (40), S6: Tizi n Tchin (30), S7: Issaguen (34), S8: Bab Berred (35), S9: Cherrafate (30), S10: Bab Taza (30), S11: Derdara (29), S13: Akchour (35), S14: Fifi (30), S16: Bni Karrich (40), S17: Mallalyène (35), S18: Zinat (36), S22: Belyounich (35), S23: Melloussa (39), S24: Ksar Esghir (34), S25: Bni Ouassin (36), S27: Al Bahraouiyne (39), S28: Jouamaa (39)] and they are put together to make up the overall sample of 1000 informants. Knowing that the number of people surveyed varies from one stratum to another depending on the abundance of medicinal plants sought (Fig. 2).

Fig. 2.

Fig. 2

Distribution of survey points at the study area level

The time spent on each interview was approximately 20 min to one hour. The information collected concerning the profile of the interviewee (age, gender, level of study, monthly income, family situation, and locality) and the ethnopharmacological data for each plant include the common local name, the route of administration, the method of preparation, the dosage, the part used, the condition of the plant used and the diseases treated “Appendix A”. The people in the Rif region speak Amazigh, Arabic dialects and therefore, interviews were conducted in Amazigh or Arabic dialects. All the documented data were later translated into English.

Vegetation data collection

Fertile specimens for the present study were collected in the field (197 plant species), in herbal stores (50 plant species), and at the homes of traditional healers (33 plant species) in the Rif. The informants were always provided with fresh plant material, either collected with them, by them, or available at their market stands (Fig. 3). Field observations were also used to record the habitat of each plant species with the assistance of local guides and interviewed informants.

Fig. 3.

Fig. 3

Type of sachets used to preserve collected plant species

Plant species identification, and deposition in Herbarium

Based on ethnopharmacological knowledge provided by our informants, plant specimens with their exact taxonomy were ordered alphabetically by ethnomedicinal uses, vernacular name, and family name. The identification and nomenclature of the collected material vegetal were done first in the field and completed at the Plant, Animal Productions, and Agro-industry Laboratory (Fig. 4). These plant species mentioned by the informants were taxonomically identified using floristic and taxonomic references, especially “The medicinal plants of the Morocco” [23], “List of vascular plants of Morocco tomes I and II” [24], and “Practical vegetation of Morocco” [2527]. All voucher specimens have been preserved during documentation and deposited in the Ibn Tofail University, Morocco Herbarium for future reference.

Fig. 4.

Fig. 4

Plant samples collected in the field and kept in papers with their scientific and local name

Statistical Analysis

Ethnopharmacological data collected are recorded on questionnaire sheets to be analyzed, studied, and confirmed or overturned at the end. Then these data were registered and interpreted by Microsoft Excel 2010 and IBM-SPSS Statistics Base 21. A representative and the quantitative scientific method was applied to examine the socio-demographic data of the informants (ANOVA One-way and Independent Samples T-Test). Further, the recorded data were analyzed by various quantitative indices like family importance value (FIV), the relative frequency of citation (RFC), plant part value (PPV), fidelity level (FL), and informant consensus factor (ICF).

Family Importance Value (FIV)

The FIV identifies the significance of plant families. It is an indication of therapeutic importance that can be utilized in ethnobotany to assess the value of natural plant species. To determine family importance value, we adopt the following method:FIV=FCfamilyNS, where FCfamily is the number of informants mentioning the family and Ns = Total number of species within each family [28].

Relative Frequency of Citation (RFC) and Frequency (FC)

RFC is calculated by dividing FC by an entire number of interviewees in the research (N). The value of RFC for plant species is based on the citing portion of interviewees for every species. Relative Frequency of Citation was determined by applying the following formula [29]: RFC=FCN with (0 < RFC < 1).

Plant Part Value (PPV)

PPV was determined by applying this equation [30]: PPV=RUPlantpartRU, where RU is the number of applications notified of total portions of the medicinal plant and RUplant part is the number of uses reported per part of the medicinal plant. The part among the most important PPV is the most used by the informants.

Fidelity Level (FL)

Fidelity level is the rate of interviewees who mentioned the uses of certain medicinal plants to treat a particular disease in the study region. The FL ratio is determined using this equation [31]: FL%=NpN×100, where Np is the number of interviewees that require the application of a plant species to cure a special affection and N is the sum of interviewees that use the medicinal species as a drug to treat any given illness.

Informant Consensus Factor (ICF)

Informant consensus factor (ICF) was determined to investigate an agreement between the interviewees on the related remedies for each group of diseases [32] ICF=Nur-NtNur-1, where Nur is the number of use-reports in each disease category and Nt is many species used. The values for the Informant Consensus Factor range from 0 to 1.

Results

Socio-demographic Data

A total of 1000 respondents were interviewed. Based on socio-demography, these participants were categorized into different classes as given in Table 1. Among the participants, 52.7% were females and the remaining were males 47.3%, with a sex ratio female/male of 1.11. From the total respondents, 76% were married, 10.8% divorced, 9.2% widowed, and 4% unmarried. In terms of age, the age groups of 40–60 were very high compared to other groups (47.6%). Just 30.6% were more than 60 years old, 21.4% were 20–40 years old, and 0.4% of informants were below 20 years old. Regarding educational status, the majority of respondents (69.1%) were illiterate, while (23%) and (6.7%) respondents attended primary and secondary school, respectively. Only 1.2% of respondents were attended higher education. Considering the income/month, most of the informants were unemployed (41.6%), while (38.6%) of these informants had low income/month level, (17%) with average level income/month, and (2.8%) with higher-level income/month.

Table 1.

Demographic profile of informants interviewed

Categories Number of informants Percent (%) Average ± E.T F-Value p-Value
Gender 5.753 0.02
 Female 527 52.7 18.82 ± 2.842
 Male 473 47.3 16.89 ± 3.166
Age ranges 306.208 0.000
  < 20 years 22 0.4 0.78 ± 0.832
 20–40 years 214 21.4 7.64 ± 1.889
 40–60 years 476 47.6 17.00 ± 3.042
 > 60 years 306 30.6 10.92 ± 1.783
Family status 441.234 0.000
 Married 760 76 2.32 ± 4.784
 Divorced 108 10.8 3.85 ± 1.580
 Widower 92 9.2 3.28 ± 1.629
 Single 40 4 27.14 ± 2.927
Educational level 673.173 0.000
 Illiterate 691 69.1 24.67 ± 3.464
 Primary school 230 23 8.21 ± 2.166
 Secondary school 67 6.7 2.39 ± 1.749
 Universitaire 12 1.2 0.42 ± 0.634
Income/month 359.350 0.000
 Unemployed 416 41.6 14.85 ± 1.432
 250–1500 MAD 386 38.6 13.78 ± 2.024
 1500–5000 MAD 170 17 6.07 ± 2.508
 > 5000 MAD 28 2.8 1.00 ± 1.018
Locality 246.861 0.000
 Rural area 497 49.7 17.75 ± 3.122
 Urban area 251 25.1 8.96 ± 1.990
 Village 229 22.9 8.17 ± 2.695
 Nomadic 23 2.3 0.82 ± 0.904

Most Represented Botanical Family and Their Family Importance Value (FIV)

The floristic analysis of the results obtained identified 280 medicinal species and subspecies belonging to 204 genera and 70 plant families were reported as having rich ethnopharmacological uses in the Rif to treat different human ailments. In terms of the number of species, it appears that the Asteraceae family is the most represented with 29 species or 10.36% of the catalog developed, followed by Lamiaceae (22 species), Fabaceae and Poaceae (21 species each), Apiaceae (17 species), Solanaceae (12 species), Brassicaceae (11 species), Asparagaaceae (10 species), Amaranthaceae and Cucurbitaceae (8 species for each), Rutaceae (6 species), Myrtaceae and Rosaceae with 5 species each. Besides, Anacardiaceae, Caryophyllaceae, Cupressaceae, Euphorbiaceae, Lauraceae, and Zingiberaceae are each represented by 4 plant species. The Apocynaceae, Malvaceae, Moraceae, Oleaceae, Papaveraceae, Pinaceae, Rubiaceae, and Tamaricaceae are represented by 3 medicinal species each, whereas the other families are those with at most one or two medicinal plant species. Based on the family importance value (FIV), the families most cited by informants are Amaryllidaceae (FIV = 0.104), Lythraceae (FIV = 0.103) Caryophyllaceae (FIV = 0.084), Apocynaceae (FIV = 0.079), Capparaceae (FIV = 0.073), Linaceae (FIV = 0.065), Rubiaceae (FIV = 0.063), Nitrariaceae, Rhamnaceae and Verbenaceae (FIV = 0.053), Rutaceae (FIV = 0.052) and Arecaceae (FIV = 0.049). The vernacular names, scientific names of documented species, their families, used parts, methods of preparations, FL, FC, RFC, and FIV were illustrated in Tables 2, 3, 4, 5, 6, 7, 8, 9.

Table 2.

Inventory of plant species used to treat digestive system disorders by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Amaranthaceae 0.024
 Chenopodium album L. Labda, Baremren Leaf Infusion 71 07 0.007
 Chenopodium murale L. Talekutta Other combination Infusion 100 01 0.001
Salsola kali L. El Herd Whole plant Infusion 100 01 0.001
Anacardiaceae 0.048
 Pistacia atlantica Desf Btem Leaf Decoction 100 17 0.017
Apiaceae 0.032
 Ammi majus L. Tlillane Fruit Other 100 32 0.032
 Ammi visnaga (L.) Lam Bechnikha Fruit Infusion 91 22 0.022
 Ammodaucus leucotrichus Coss Camoun Soufi Seed Cooked 100 41 0.041
 Apium graveolens L. Lkrafess Leaf Decoction 100 04 0.004
 Carum carvi L. Karwiya Seed Infusion 100 26 0.026
 Coriandrum sativum L. Alkazbour Seed Raw 100 04 0.004
 Cuminum cyminum L. Camoun Seed Infusion 100 03 0.003
 Eryngium ilicifolium Lam. El Asfour, Chkour Flower Raw 100 15 0.015
 Foeniculum vulgare Mill. Lbesbas Seed Decoction 100 68 0.068
 Smyrnium olusatrum L. Lheyyâr Leaf Infusion 100 43 0.043
Apocynaceae 0.079
 Vinca minor L. El Innakia Whole plant Cooked 100 01 0.001
Arecaceae 0.049
 Chamaerops humilis L. Doum, El Ghaz Fruit Infusion 100 51 0.051
Asparagaceae 0.013
 Asparagus acutifolius L. Sekkom, Tazzut Leaf Decoction 100 01 0.001
 Asparagus densiflora Kunth. Sekkom, Tazzut Whole plant Other 100 01 0.001
 Asparagus officinalis L. Sakkum, Tazzut Other combination Decoction 100 02 0.002
 Asparagus plumosus Baker Sekkom, Tazzut Stem Infusion 100 01 0.001
 Asparagus stipularis Forssk Sekkom, Tazzut Rhizome Other 100 01 0.001
 Drimia maritima (L.) Stearn Ansal Bulb Decoction 100 04 0.004
 Muscari comosum (L.) Mill. Bsyla Bulb Decoction 100 02 0.002
Asteraceae 0.038
 Artemisia absinthium L. Chiba Other combination Decoction 100 75 0.075
 Cynara humilis L. Khorchef, Timta Stem Raw 94 31 0.031
 Helichrysum italicum (Roth) G.Don Dahab Eshams Whole plant Infusion 100 01 0.001
 Matricaria chamomilla L. Babunj Whole plant Decoction 100 48 0.048
 Ormenis mixta (L.) Dumort Hellâla Other combination Infusion 100 19 0.019
 Scolymus hispanicus L. Garnina Rhizome Infusion 100 50 0.050
Brassicaceae 0.012
 Brassica oleracea f. alba DC Melfouf, Krunb Leaf Other 100 07 0.007
 Raphanus sativus L. Fjel Whole plant Decoction 100 46 0.046
Caryophyllaceae 0.084
 Silene vulgaris (Moench) Garcke Tigheghet Leaf Decoction 100 08 0.008
Crassulaceae 0.001
 Umbilicus rupestris (Salisb.) Dandy Sorrat El Ard Whole plant Infusion 100 01 0.001
Cucurbitaceae 0.013
 Bryonia dioica Jacq Aineb Edib Root Decoction 60 05 0.005
 Cucurbita maxima Duchesne Elgraa Hamra Flower Infusion 100 15 0.015
Cupressaceae 0.043
 Cupressus sempervirens L. Zembale, Sarw Leaf Infusion 100 01 0.001
Cyperaceae 0.001
 Cyperus rotundus L. Tara Whole plant Decoction 100 01 0.001
Fabaceae 0.023
 Lupinus angustifolius L. Shenqala, Bozghiba Whole plant Decoction 100 01 0.001
 Cassia senna L. Sna Mekki Leaf Decoction 100 05 0.005
 Ceratonia siliqua L. Salghwa, Kharroub Fruit Decoction 100 67 0.067
 Glycyrrhiza glabra L Arq Sûs Root Infusion 83 36 0.036
 Trigonella foenum-graecum L. Helba Seed Cooked 100 54 0.054
 Vicia benghalensis L. Jelbanet Lehnouch Leaf Decoction 100 01 0.001
 Vicia tenuifolia Roth Bykya Whole plant Infusion 100 01 0.001
Fagaceae 0.038
 Quercus rotundifolia Lam. Kerrush, Tasaft Bark Infusion 100 06 0.006
Geraniaceae 0.015
 Pelargonium capitatum (L.) L'Hér Laatercha Leaf Decoction 100 27 0.027
Iridaceae 0.001
 Iris × germanica L. Sawsan Almani Leaf Other 100 01 0.001
Juglandaceae 0.005
 Juglans regia L. Guergaâ Bark Other 80 05 0.005
Lamiaceae 0.056
 Ocimum basilicum L. Lhbak Leaf Infusion 71 07 0.007
 Origanum majorana L. Mard’douch Whole plant Infusion 65 46 0.046
 Origanum vulgare L. Zaatr Elma Leaf Infusion 100 80 0.080
 Thymus satureioides Coss. Z’îtra, Tazuknit Leaf Infusion 100 176 0.176
Lauraceae 0.035
 Cinnamomum zeylanicum Blume Qarfa Bark Infusion 100 11 0.011
Lythraceae 0.103
 Punica granatum L. Remman Bark Decoction 100 53 0.053
Malvaceae 0.004
 Malva hispanica L. Khobbeyza Leaf Decoction 100 04 0.004
 Malva silvestris L. Bakkula Leaf Cooked 100 06 0.006
Myristicaceae 0.003
 Myristica fragrans Houtt Bsibissa Fruit Cooked 67 03 0.003
Myrtaceae 0.028
 Eugenia caryophyllata Thunb. Qronfel Flower Infusion 100 05 0.005
Oleaceae 0.020
 Olea europea L. Zaytoun Leaf Decoction 100 51 0.051
 Olea europea var. sylvestris (Mill.) Lehr Zabbouj Leaf Decoction 100 03 0.003
Piperaceae 0.005
 Piper nigrum L. Ibzar Seed Cooked 100 05 0.005
Plantaginaceae 0.006
 Plantago lanceolata L. Lssan lhamel Leaf Cooked 100 06 0.006
Poaceae 0.015
 Cymbopogon citratus (DC.) Stapf Aoshb Elhamed Stem Decoction 100 01 0.001
 Hordeum vulgare L. Châir, Timzine Seed Cooked 100 05 0.005
 Phalaris canariensis L. Hchicht Lkanari Seed Decoction 100 01 0.001
Polygonaceae 0.005
 Emex spinosa (L.) Campd. Houmida Whole plant Cooked 100 01 0.001
 Rumex acetosa L. Houmida Leaf Infusion 67 09 0.009
Rhamnaceae 0.053
 Ziziphus lotus (L.) Lam. Nbeg, Tazart Seed Other 62 53 0.053
Rosaceae 0.026
 Prunus armeniaca L. Mechmach Leaf Infusion 100 01 0.001
 Prunus persica (L.) Batsch Khokh Leaf Other 100 02 0.002
Rutaceae 0.052
 Ruta montana (L.) L. Fijel, Iwermi Root Decoction 58 12 0.012
Salicaceae 0.007
 Populus alba L. Sefsaf Leaf Decoction 100 13 0.013
 Populus nigra L. Sefsaf Leaf Decoction 100 01 0.001
Schisandraceae 0.004
 Illicium verum Hook.f Badiana Fruit Infusion 100 04 0.004
Scrophulariaceae 0.001
 Verbascum sinuatum L. Torah Flower Infusion 100 01 0.001
Solanaceae 0.025
 Solanum lycopersicum L. Maticha Fruit Cooked 71 14 0.014
 Solanum melongena L. Denjal Fruit Cooked 60 05 0.005
 Solanum nigrum L. Buqnîna Leaf Infusion 100 01 0.001
Tamaricaceae 0.001
 Tamarix aphylla (L.) H.Karst Adba Flower Infusion 100 02 0.002
 Tamarix gallica L. Tamimayt Leaf Decoction 100 01 0.001
 Tamarix ramosissima Ledeb. Athel Other combination Infusion 100 01 0.001
Theaceae 0.042
 Camellia sinensis (L.) Kuntze Atây Leaf Infusion 100 42 0.042
Thymelaeaceae 0.032
 Thymelaea virgata (Desf.) Endl Matnane Whole plant Infusion 100 32 0.032
Verbenaceae 0.053
 Lantana camara L. Nabat Oum Kaltoum Leaf Decoction 100 01 0.001
Vitaceae 0.017
 Vitis vinifera L. Aneb, Dalya Leaf Infusion 100 17 0.017
Zingiberaceae 0.031
 Curcuma Longa L. Kharqûm Rhizome Decoction 100 16 0.016

Table 3.

Inventory of plant species used to treat respiratory diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Aizoaceae 0.001
 Mesembryanthemum acinaciforme L. Bousbayeaa Leaf Other 100 01 0.001
Anacardiaceae 0.048
 Schinus molle L. Foulfol kadib Fruit Decoction 100 01 0.001
Apiaceae 0.032
 Thapsia garganica L. Deryas Whole plant Cataplasm 100 02 0.002
Araliaceae 0.002
 Hedera helix L. Louwaya Leaf Cooked 100 02 0.002
Asteraceae 0.038
 Carthamus rhiphaeus Font Quer & Pau EL Kertam Whole plant Decoction 100 05 0.005
 Sonchus oleraceus (L.) L. Tilfaf Whole plant Cooked 100 01 0.001
Brassicaceae 0.012
 Brassica fruticulosa Cirillo Harchae Seed Decoction 100 01 0.001
 Brassica nigra (L.) K.Koch Khrdal, Bohamo Leaf Infusion 100 06 0.006
 Brassica rapa L. Brassicaceae Left Lbeldi Root Raw 100 06 0.006
 Brassica rapa var. annua W.D.J.Koch Left Leaf Raw 100 07 0.007
 Lepidium sativum L. Habb Rchad Seed Cooked 100 21 0.021
 Sinapis alba L. Karkaz Seed Cooked 100 01 0.001
 Sinapis arvensis L. Khardal Leaf Cooked 100 01 0.001
Cupressaceae 0.043
 Juniperus oxycedrus L. Taqqa Leaf Infusion 100 12 0.012
Convolvulaceae 0.032
 Cuscuta approximata Bab Lhamoul Whole plant Infusion 100 01 0.001
Cyperaceae 0.001
 Cyperus alternifolius L. Saad Whole plant Infusion 100 01 0.001
Fabaceae 0.023
 Medicago sativa L. Fessa Leaf Decoction 100 05 0.005
 Vicia faba L. Elfûl, Ibaouèn Seed Cooked 100 51 0.051
Lamiaceae 0.056
 Lavandula dentata L. Lakhzama Other combination Infusion 75.5 53 0.053
 Lavandula multifida L. Kohhyla, Tiguizte Leaf Decoction 100 23 0.023
 Lavandula pedunculata (Mill.) Cav Lakhzama Leaf Decoction 100 03 0.003
 Lavandula stoechas L. Halhal Leaf Decoction 100 56 0.056
 Mentha cervina L. Menta, Nadgh Whole plant Infusion 100 11 0.011
 Mentha × citrata Ehrh. Nana Elmeska Whole plant Infusion 100 04 0.004
 Mentha × rotundifolia (L.) Huds Mchichtrou Leaf Infusion 49.3 67 0.067
 Mentha suaveolens Ehrh. Marseta, Timersad Leaf Decoction 89 46 0.046
Lauraceae 0.035
 Cinnamomum camphora (L.) J.Presl. Kafour Leaf Infusion 100 02 0.002
Myrtaceae 0.028
 Eucalyptus camaldulensis Dehnh. Kalitûs Leaf Decoction 60 05 0.005
 Eucalyptus globulus Labill. Kalitûs Leaf Cataplasm 93.8 65 0.065
Oleaceae 0.020
 Fraxinus angustifolia Vahl. Lsan Ettir Other combination Infusion 100 06 0.006
Platanaceae 0.001
 Platanus orientalis L. Delb Machriqi Bark Infusion 100 01 0.001
Poaceae 0.015
 Avena sativa L. Khortal Seed Decoction 100 02 0.002
 Cynodon dactylon (L.) Pers. N'jem Rhizome Infusion 100 02 0.002
Pontederiaceae 0.016
 Eichhornia crassipes (Mart.) Solms. Sounbel Whole plant Cooked 100 16 0.016
Ranunculaceae 0.040
 Nigella sativa L. Sanûj Seed Infusion 100 78 0.078
Rutaceae 0.052
 Citrus sinensis (L.) Osbeck Limoun Fruit Other 100 02 0.002
Solanaceae 0.025
 Mandragora autumnalis Mill. Bid Al Ghol, Taryâla Leaf Other 100 36 0.036
Styracaceae 0.005
 Styrax officinalis L. Jawi Bark Other 100 05 0.005
Zingiberaceae 0.031
 Alpinia officinarum Hance khodenjal Rhizome Decoction 100 02 0.002
 Elettaria cardamomum (L.) Maton Qaaqella Seed Decoction 100 01 0.001
 Zingiber officinale Roscoe Skinjbir Rhizome Infusion 89.6 106 0.106

Table 4.

Inventory of plant species used to treat cardiovascular diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Amaranthaceae 0.024
 Spinacia oleracea L Sabanikh, Selq Leaf Raw 100 56 0.056
Amaryllidaceae 0.104
 Allium porrum L Borro Bulb Infusion 100 72 0.072
 Allium sativum L Touma, Tishert Bulb Cooked 100 118 0.118
Apiaceae 0.032
 Daucus carota L Khizou Leaf Decoction 100 102 0.102
Arecaceae 0.049
 Phoenix dactylifera L Tmar, Tazdayet Fruit Other 78 46 0.046
Asteraceae 0.038
 Carduus getulus Pomel Lssan Maghribi Leaf Other 100 01 0.001
 Cynara scolymus L Lqoq Whole plant Decoction 100 09 0.009
Cactaceae 0.001
 Opuntia ficus indica (L.) Mill Sbar, Zaâboul Fruit Infusion 100 01 0.001
Cannabaceae 0.011
 Cannabis sativa L Lkif Seed Cataplasm 100 11 0.011
Dryopteridaceae 0.001
 Dryopteris filix-mas (L.) Schott Sarkhs Dakar Leaf Decoction 100 01 0.001
Fabaceae 0.023
 Lens culinaris Medik Aaddes Seed Cooked 100 48 0.048
 Medicago polymorpha L Fessa Whole plant Decoction 100 14 0.014
 Vicia sativa L Guersana Whole plant Infusion 100 01 0.001
Geraniaceae 0.015
 Erodium cicutarium (L.) L'Hér Rakma Chokrania Leaf Cooked 100 03 0.003
Iridaceae 0.001
 Gladiolus italicus Mill Dalbout Itali Leaf Other 100 01 0.001
Lauraceae 0.035
 Laurus nobilis L Wrak Sidnamossa, Rend Leaf Decoction 89 91 0.091
 Persea gratissima C.F.Gaertn Avocat Fruit Cataplasm 100 35 0.035
Malvaceae 0.004
 Hibiscus sabdariffa L Karkadé Leaf Decoction 100 01 0.001
Poaceae 0.015
 Avena barbata Pott ex Link Chofan Barri Whole plant Raw 100 01 0.001
 Glyceria fluitans (L.) R.Br Aaima Whole plant Other 100 01 0.001
 Hordeum murinum L Chaair El Firan Leaf Infusion 100 01 0.001
 Pennisetum setaceum (Forssk.) Chiov Dyl Ethaalab Seed Decoction 100 01 0.001
 Phragmites communis Trin Kseb Root Infusion 100 74 0.074
 Zea mays L Dra Fruit Decoction 100 08 0.008
Ranunculaceae 0.040
 Ranunculus bullatus L Wden Elhallouf Root Decoction 100 02 0.002
Rosaceae 0.026
 Rubus ulmifolius Schott Oualik, Tabgha Leaf Raw 100 49 0.049
Rubiaceae 0.063
 Galium aparine L Lsak Leaf Infusion 100 01 0.001
 Rubia peregrina L Fûwa, Tarubya Root Infusion 100 123 0.123
Solanaceae 0.025
 Solanum sodomaeum Dunal Tfah Lfar Fruit Cataplasm 100 07 0.007

Table 5.

Inventory of plant species used to treat neurological diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Asparagaceae 0.013
 Agave sisalana Perrine Aloe Vera Leaf Cataplasm 100 01 0.001
Asteraceae 0.038
 Anacyclus radiatus Loisel Far Dahabya Whole plant Infusion 100 01 0.001
 Artemisia herba-alba Asso Chih, Izri Leaf Decoction 97.9 95 0.095
 Artemisia mesatlantica Maire Chih, Izri Leaf Decoction 100 01 0.001
 Chrysanthemum coronarium L Lgahwân, Lgentus Flower Infusion 100 63 0.063
 Xanthium spinosum L Lzik Chouki Leaf Decoction 100 01 0.001
Cucurbitaceae 0.013
 Citrullus vulgaris Schrad Dlah Leaf Decoction 100 09 0.009
 Cucumis melo L Btikh Leaf Infusion 100 13 0.013
Ecballium elaterium (L.) A.Rich Faggous El Hemar Fruit Other 100 02 0.002
 Lagenaria siceraria (Molina) Standl El garâa-slâwiya Fruit Cataplasm 100 05 0.005
Cupressaceae 0.043
 Tetraclinis articulata (Vahl) Mast El A’râr Leaf Infusion 100 81 0.081
Fabaceae 0.023
 Retama monosperma (L.) Boiss Rtem Stem Decoction 100 32 0.032
 Retama raetam (Forssk.) Webb Rtem Root Decoction 75.61 41 0.041
Lamiaceae 0.056
 Marrubium echinatum Ball Mrywt, Ifzi Other combination Cataplasm 100 134 0.134
 Mentha x piperita L Na’na El-Aabdi Leaf Infusion 100 06 0.006
 Mentha pulgium L Fliyou Whole plant Infusion 100 67 0.067
 Mentha spicata L Na’a Na’a Whole plant Infusion 100 23 0.023
 Vitex agnus-castus L Kharwae Seed Infusion 100 15 0.015
Amaryllidaceae 0.104
 Allium cepa L Bassla, Azalim Bulb Cataplasm 51.22 123 0.123
Asparagaceae 0.013
 Asphodelus microcarpus Salzm. & Viv Lberwag, Inghri Bulb Decoction 100 36 0.036
Nyctaginaceae 0.001
 Mirabilis jalapa L Chob Ellayl Root Decoction 100 01 0.001
Pinaceae 0.048
 Cedrus atlantica (Endl.) Arz Leaf Other 100 96 0.096
Poaceae 0.014
 Dactyloctenium aegyptium (L.) Willd Njem Rjel Djaja Seed Decoction 100 08 0.008
Rubiaceae 0.063
 Coffea arbica L Qahwa Seed Decoction 100 65 0.065
Solanaceae 0.025
 Datura stramonium L Chedak Jmal Seed Other 100 02 0.002
 Lycium europaeum L Haded Europa Leaf Cataplasm 100 01 0.001
 Nicotiana glauca Graham Tembak Berri Flower Decoction 100 23 0.023
 Solanum tuberosum L Batâta Leaf Cataplasm 100 78 0.078
Typhaceae 0.001
 Typha angustifolia L Bot, Kseb Stem Other 100 01 0.001
Verbenaceae 0.053
 Aloysia citrodora Palau Lwiza Leaf Infusion 95.24 105 0.105

Table 6.

Inventory of plant species used to treat metabolic diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Amaranthaceae 0.024
 Beta vulgaris L. Lbarba Seed Infusion 100 06 0.006
Apiaceae 0.032
 Ferula communis L. Lkalkha Leaf Decoction 100 04 0.004
 Ridolfia segetum (L.) Moris Slilo Leaf Cooked 70.6 17 0.017
Asteraceae 0.038
 Calendula arvensis M.Bieb Jemra, Azwiwel Flower Infusion 100 96 0.096
 Helianthus annuus L. Abbad Shems Seed Infusion 100 21 0.021
 Lactuca sativa L. Elkhass Leaf Infusion 100 22 0.022
 Sonchus asper (L.) Hill Tifaf Whole plant Decoction 100 01 0.001
 Sonchus tenerrimus L. Tifaf Leaf Decoction 48 25 0.025
 Tanacetum vulgare L. Lbalssem Leaf Infusion 52.4 42 0.042
Brassicaceae 0.012
 Anastatica hierochuntica L. Kaff Mariam Root Decoction 80 25 0.025
 Brassica oleracea L. Karnabite Leaf Other 77.8 09 0.009
Cucurbitaceae 0.013
 Citrullus colocynthis (L.) Schrad Lhdej, Taferzizte Seed Infusion 100 09 0.009
 Cucurbita pepo L. Garaa Khedra Fruit Cooked 100 43 0.043
Cupressaceae 0.043
 Juniperus phoenicea L. Arar Finiqi Leaf Decoction 100 79 0.079
Euphorbiaceae 0.030
 Euphorbia peplus L. Laaya, Haliba Whole plant Other 100 01 0.001
Fabaceae 0.023
 Acacia albida Delile Chok Telh Root Decoction 100 02 0.002
 Lupinus pilosus L. Rjel Djaja Seed Infusion 100 07 0.007
 Phaseolus aureus Roxb Soja Seed Decoction 100 02 0.002
 Phaseolus vulgaris L. Loubya Seed Cooked 100 36 0.036
Lamiaceae 0.056
 Marrubium vulgare L. Merriwta Hara, Ifzi Leaf Infusion 100 01 0.001
 Rosmarinus officinalis L. Azir, Yazir Leaf Infusion 100 189 0.189
 Salvia officinalis L. Salmiya Leaf Infusion 100 119 0.119
Linaceae 0.065
 Linum usitatissimum L. Zeri’t El Kettan Seed Cooked 100 65 0.065
Moraceae 0.030
 Ficus carica L. Karmous, Chriha Leaf Infusion 70 10 0.010
 Ficus carica var. dottato Karmous, Chriha Fruit Other 100 11 0.011
 Morus alba L. Ettout Leaf Infusion 58.8 68 0.068
Papaveraceae 0.014
 Fumaria officinalis L. Hchicht Essibyan Root Decoction 100 01 0.001
Portulacaceae 0.005
 Portulaca oleracea L. Rejla, Tasmamine Leaf Cooked 100 05 0.005
Rosaceae 0.026
 Malus domestica Borkh Tûffah Fruit Other 100 76 0.076

Table 7.

Inventory of plant species used to treat genitourinary diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Amaranthaceae 0.024
 Atriplex halimus L. Legtef Leaf Infusion 100 03 0.003
Anacardiaceae 0.048
 Pistacia lentiscus L. Drou Leaf Infusion 83.5 97 0.097
Apiaceae 0.032
 Conium maculatum L. Choukran Leaf Cataplasm 100 13 0.013
 Petroselinum sativum Hoffm Maâdnous Leaf Decoction 100 109 0.109
 Pimpinella anisum L. Habbat Hlawa Seed Other 100 35 0.035
Apocynaceae 0.079
 Caralluma europaea (Guss.) N.E.Br Daghmous Leaf Infusion 100 89 0.089
Aristolochiaceae 0.043
 Aristolochia baetica L. Berztem Leaf Cataplasm 100 43 0.043
Asteraceae 0.038
 Silybum marianum (L.) Gaertn Tawra Seed Decoction 100 76 0.076
Boraginaceae 0.014
 Borago officinalis L. El Hamhem Flower Infusion 100 02 0.002
Caryophyllaceae 0.084
 Arenaria rubra L. Herras Lehjar Whole plant Decoction 53 153 0.153
 Corrigiola telephiifolia Pourr Sarghina Whole plant Decoction 100 71 0.071
Euphorbiaceae 0.030
 Mercurialis annua L. Hrriyga Lmelsa Whole plant Decoction 100 05 0.005
Fabaceae 0.023
 Cicer arietinum L. Hommes Seed Decoction 83.3 18 0.018
Lamiaceae 0.056
 Lavandula officinalis Chaix Lkhzama Flower Infusion 45.5 112 0.112
 Marrubium heterocladum Emb. and Maire Mriwta Leaf Decoction 100 01 0.001
Myrtaceae 0.028
 Myrtus communis L. Rayhan Leaf Decoction 76.8 56 0.056
 Pimenta dioica (L.) Merr Nwiwira Fruit Infusion 100 08 0.008
Pedaliaceae 0.007
 Sesamum indicum L. Jenjlane Seed Infusion 100 07 0.007
Poaceae 0.015
 Eleusine indica (L.) Gaertn Njem Whole plant Decoction 100 01 0.001
 Festuca arundinacea Schreb Aguzmir Seed Infusion 100 05 0.005
Rosaceae 0.026
 Eriobotrya japonica (Thunb.) Lindl Lemzah Leaf Infusion 100 02 0.002
Rutaceae 0.052
 Citrus × aurantium L. Larnej Flower Cooked 100 25 0.025
 Citrus limetta Risso Lhamed Beldi Fruit Cooked 100 06 0.006
 Citrus limon (L.) Osbeck Lhamed Fruit Other 100 06 0.006
 Citrus reticulata Blanco Lmandarine Fruit Cooked 100 01 0.001
Urticaceae 0.028
 Urtica urens L. Lhurriga Leaf Decoction 100 14 0.014
Zygophyllaceae 0.002
 Tribulus terrestris L. Ders Elajouz Whole plant Cooked 100 02 0.002

Table 8.

Inventory of plant species used to treat dermatological diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Amaranthaceae 0.024
 Chenopodium ambrosioides L. Mkhinza Leaf Decoction 60.2 93 0.093
Anacardiaceae 0.048
 Rhus pentaphylla (Jacq.) Desf Tizgha Leaf Decoction 60.5 76 0.076
Araceae 0.014
 Arisarum vulgare O.Targ.Tozz Irni Whole plant Decoction 100 14 0.014
Asparagaceae 0.013
 Agave Americana L. Sabra Whole plant Cataplasm 100 82 0.082
Asteraceae 0.038
 Atractylis gummifera Salzm. ex L. Addad Whole plant Other 60 05 0.005
 Dittrichia viscosa (L.) Greuter Magraman, Terrahla Leaf Other 100 165 0.165
 Lactuca virosa Habl Ahchlaf Nssem Leaf Other 100 16 0.016
 Sonchus fragilis Ball Tifaf Leaf Cataplasm 100 07 0.007
Caryophyllaceae 0.084
 Silene ibosii Emb. and Maire Tigheghecht Whole plant Decoction 100 105 0.105
Euphorbiaceae 0.030
 Euphorbia falcata L. Hayat Nofos Whole plant Infusion 84.1 63 0.063
 Ricinus communis L. Kherouâ, Uwriwra Krank Leaf Infusion 90.2 51 0.051
Fabaceae 0.023
 Acacia raddiana Savi Talh Leaf Decoction 100 19 0.019
Fagaceae 0.038
 Quercus suber L. Dbagh, Fernan Bark Decoction 71.4 70 0.070
Lythraceae 0.103
 Lawsonia inermis L. Henna Leaf Cataplasm 100 154 0.154
Papaveraceae 0.014
 Glaucium flavum Crantz Merzak Halabi Flower Decoction 100 06 0.006
 Papaver rhoeas L. Bela’man Flower Infusion 100 34 0.034
Pinaceae 0.048
 Pinus pinaster Aiton Tayda Bark Decoction 100 04 0.004
 Pinus sylvestris L. Sanouber Bark Decoction 100 45 0.045
Poaceae 0.015
 Triticum aestivum L. Lgamh, Farina Leaf Infusion 100 14 0.014
 Triticum turgidum L. Zraa, Irden Whole plant Decoction 60 05 0.005
Solanaceae 0.025
 Capsicum annuum L. Tahmira Fruit Cataplasm 100 87 0.087
 Capsicum frutescens L. Sudaniya, Flfel Har Fruit Decoction 100 05 0.005

Table 9.

Inventory of plant species used to treat osteoarticular diseases by indigenous people of Rif

Family and scientific name Vernacular name Used part Method of preparation FL % FC RFC FIV
Apocynaceae 0.079
 Nerium oleander L. Defla, Alili Leaf Decoction 95.2 146 0.146
Asteraceae 0.038
 Anacyclus pyrethrum (L.) Lag Tiguentest, Ginass Root Infusion 100 81 0.081
 Calendula eckerleinii Ohle Jemra Flower Cataplasm 100 67 0.067
 Carduus martinezii Pau Chok Mchaar Leaf Decoction 100 91 0.091
Boraginaceae 0.014
 Anchusa italica Retz Lsan Etthawr Flower Infusion 100 26 0.026
Capparaceae 0.073
 Capparis spinosa L. Kebbar, Taglulut Seed Infusion 100 73 0.073
Convolvulaceae 0.032
 Convolvulus althaeoides L. Lablab El hokol Flower Decoction 100 63 0.063
Fabaceae 0.023
 Pisum sativum L. Jelbana Seed Cataplasm 100 25 0.025
Nitrariaceae 0.053
 Peganum harmala L. El Harmel Seed Cataplasm 100 53 0.053
Poaceae 0.014
 Agrostis reuteri Boiss Ziwan Khachabi Flower Decoction 85.7 14 0.014
 Bromus squarrosus L. Amlsikh, Chwiara Leaf Decoction 75 16 0.016
 Oryza sativa L. Rûz Seed Cooked 94 101 0.101
 Poa annua L. Kabaa Howli Leaf Decoction 100 08 0.008
 Setaria verticillata (L.) P. Beauv Dayl Eddib Flower Cooked 100 17 0.017
Solanaceae 0.025
 Withania frutescens (L.) Pauquy Ali Amlal, Tayrta Leaf Decoction 88.9 45 0.045
Urticaceae 0.028
 Urtica dioica L. Hriga Leaf Cataplasm 100 41 0.041

Diversity of Medicinal Plants

To assess the relative importance of the reported plant species, the relative frequency of citation (RFC) was calculated from the informants' citations. In the present study, the highest value reported was 0.189, and the lowest value was 0.001 for each species as given in Tables 2, 3, 4, 5, 6, 7, 8, 9. In the current investigation, the highest RFC value was reported for Rosmarinus officinalis L. (RFC = 0.189), Thymus satureioides Coss. (RFC = 0.176), Dittrichia viscosa (L.) Greuter. (RFC = 0.165), Lawsonia inermis L. (RFC = 0.154), Arenaria rubra L. (RFC = 0.153), and Nerium oleander L. (RFC = 0.146). Meanwhile, 60 medicinal plant species scored the least RFC value, which is 0.001.

Habitat of Medicinal Plants

The present study showed that 165 medicinal plant species (59%) used by the Moroccan pharmaceutical medicines today are collected from the agriculture (cultivated) (Fig. 5), 101 species 36% were collected from wasteland (Fig. 6) (All lands affected by water erosion, wind erosion, floods, water-logging, soil salinization, and soil alkalization) and only 14 species (5%) were introduced by marketing in other regions.

Fig. 5.

Fig. 5

Cultivation of vicia faba L. in Izefzafen region

Fig. 6.

Fig. 6

Salsola kali L. in a wasteland of Tizi n Tchin

Medicinal Formulations Used During the COVID-19 Lockdown for Improving the Immune System

Medicinal plant species have a fundamental unit for use as alternative medicines systems in Morocco and are the basis for the discovery of natural ingredients for the development of therapeutic agents in pharmacology. The study conducted in the Salé region [33] shows that the local population uses some plants to prevent and treat the COVID-19, which was mentioned by the Moroccan Rif community. In Moroccan Rif, the uses of medicinal species have increased during the COVID-19 pandemic as a preventive behavior. Citrus limon (L.) Burm. f. has been used to relieve cough, and as an expectorant in bronchitis. Allium sativum L. Allium cepa L. and Zingiber officinale Roscoe are indicated for respiratory disease (cold and cough), and other symptoms related to influenza. Eucalyptus globulus Labill. is indicated for symptoms of respiratory disease (bronchitis, rhinitis), due to the presence of 1–8-cineol [34]. Indications of respiratory conditions: Foeniculum vulgare Mill. Plantago lanceolata L., Pimpinella anisum L., Silybum marianum L., Laurus nobilis L., Malva sylvestris L., Thymus vulgaris L., and Glycyrrhiza glabra L. are indicated by informants for cough associated with a cold, sore throat, fever laryngitis, and tonsilitis. Hedera helix L. is indicated as antispasmodic, other indications are anti-inflammatory, and in the treatment of flu and fever. Black seeds of Nigella sativa L. are globally known as a spice and as such as a food item.

The Fidelity Level (FL) of Medicinal Plants Reported

Fidelity level (FL) designates the choice for medicinal plants to be better for other species in the treatment of a particular ailment. The plant species that are extensively used by the indigenous inhabitants have more important FL values than those that are few popular. In this study, the FL ranged from 45.5% to 100% for medicinal plant use age. The study determined 240 medicinal plant species (85.71%) achieve the greatest fidelity level (FL = 100%) and the remaining 40 plant species achieve reasonable FL.

Disease treated and their ICF values

The results of the ICF calculation show that the value in our study ranges from 0.944 to 0.983 per uses categories (Table 10). Results revealed that the very best ICF (0.983) value was obtained for osteoarticular diseases with 867 use-reports for 16 plant species. It's followed by dermatological diseases (ICF = 0.981), neurological diseases (ICF = 0.974), genitourinary diseases (ICF = 0.973), metabolic diseases (ICF = 0.972), cardiovascular diseases (ICF = 0.968), digestive system diseases (ICF = 0.945), and respiratory system diseases (ICF = 0.944).

Table 10.

ICF values by categories for treating human ailments in the Rif region

Ailments treated Nt Nur ICF
Osteoarticular diseases 16 867 0.983
Dermatological diseases 22 1080 0.981
Neurological diseases 30 1129 0.974
Genitourinary diseases 27 960 0.973
Metabolic diseases 29 992 0.972
Cardiovascular diseases 29 879 0.968
Digestive system diseases 86 1552 0.945
Respiratory system diseases 41 717 0.944

Plant Parts Used in the Study Area

In classical pharmacopeia, various parts of medicinal plants identified particularly the seeds, the leaves, the flowers, the fruits, the roots, or maybe the entire plant are exploited by the indigenous people of Rif. supported the plant structure value (PPV) index, the leaf has been reported because the dominant party within the preparation of the herbal remedy within the study area (PPV = 0.364), followed by seed (PPV = 0.226), whole plant (PPV = 0.097), flower (PPV = 0.073), fruit (PPV = 0.060), root (PPV = 0.051), bulb (PPV = 0.044), other combinations (PPV = 0.034), rhizome (PPV = 0.026), bark (PPV = 0.021), and stem (PPV = 0.006), respectively.

Method of Preparation and Administration of Plants

Indigenous people in the study area used many methods of preparation. The results showed that the majority of remedies were prepared from decoction (38.6%) and infusion (34%), followed by cataplasm (11.3%) cooked (7.6%) and raw (2.3%). The percentage of the other methods of preparation grouped (maceration, inhalation, fumigation) doesn't exceed 6.2%. The main solvent with the plant was water, but milk, butter, tea, and honey, cereal oils were also widely used ingredients. The route of administration in this study varies with the type of disease treated and the actual sites of the ailments. The result revealed that herbal medicine was administered through different routes. Generally, the majority of informants prepared remedies were applied mostly by oral (82.4%) followed by massage (6.3%), swabbing (5.2%), other modes of administration (3.4%), and rinsing (2.7%).

Discussion

As part of this study, our investigations identified 280 species and subspecies used for medicinal purposes. These medicinal species belong to 204 genera and 70 botanical families that have been used to treat different ailments in the study area. Among plant families, Asteraceae had the greatest number of species (29) followed by Lamiaceae (22 species), Fabaceae, and Poaceae (22 species each). The dominance of Asteraceae and Lamiaceae might reflect a wide variety of active ingredients in the species taxa belonging to these families and their availability, wider distribution, abundance, and richness in the study area. Besides, people of the area have a piece of high knowledge about plants from these families, i.e. they have been using these plants for many generations and hence the members of these plant families are well known to them. families groups with high species richness most likely contain a great diversity of morphological and chemical properties [35] (flavonoids, alkaloids, saponins, terpenes, coumarins, organosulfur compounds, glycosides, steroids, tannin, mucus, lignans, anthraquinones, aromatic constituents, phenolic lipids, carotenoids, steroids, and), from which potential multiple uses can be derived. These results are in general agreement with previous ethnobotanical inventories which indicated that the most prominent families were Asteraceae Lamiaceae, Fabaceae Poaceae, Apiaceae, and Solanaceae [2, 11, 12, 3640].

Our quantitative analysis showed that the highest RFC was calculated for Rosmarinus officinalis L. (RFC = 0.189), Thymus satureioides Coss. (RFC = 0.176), and Dittrichia viscosa (L.) Greuter. (RFC = 0.165). Several studies about Rosmarinus officinalis L., with biological, pharmacological, and phytochemical approaches have been conducted and indicate anti-proliferative, anti-inflammatory, anti-bacterial, and anti-oxidant healing properties [4143]. As this plant species is widely distributed in almost all Moroccan regions, including the study area, and is easily spread, it is frequently used and a widely available raw material. According to these results, it is recommended that medicinal species having high RFC values should be further screened in pharmacological, toxicological, phytochemical, and biological activities for any novel molecules or chemicals for treating various ailments. Moreover, these species should also be prioritized for conservation as their preferred uses may place their populations under threat due to over-harvesting. Furthermore, the ethnopharmacological plants with greater values of RFC confirm the fact that these plant species were well accepted to the largest of the autochthonous people [44]. Among the 280 medicinal plants, 86 species were used for the treatment of digestive system diseases, whereas 41 species were used to treat respiratory system diseases, 30 species neurological diseases, 29 species cardiovascular diseases, 29 species metabolic diseases, 27 species genitourinary diseases, 22 species dermatological diseases, and 16 species were used to treat osteoarticular diseases.

The fidelity level (FL) of each species is also evaluated from the available information. It indicates the informant’s choice for each ailment and the potential of the species related to the diseases as well. FL values in this study varied from 45.5% to 100%. The study determined 240 species of plants with an FL of 100%, even without considering plants that were mentioned only once for better accuracy, whereas below FL values are obtained for plant species that are employed for several purposes. This result means that the indigenous people tended to rely on one specific medicinal plant for treating one certain disease than for several illnesses. Consequently, plant species not previously studied and have maximum FL should be recommended for further study related to clinical practice [45].

The diseases treated in the Rif region were classified into 8 ailment categories. The highest ICF values were recorded for osteoarticular diseases (ICF = 0.983), followed by dermatological diseases (ICF = 0.981), and neurological diseases (ICF = 0.974). The least (0.944) ICF was associated with Respiratory system diseases. Ethnopharmacological studies have shown that in some parts of the world, osteoarticular diseases are a first-use category [7, 46, 47]. Osteoarticular diseases were prevalent in the study area which can be attributed to the limited availability of hygienic food mineral salts (calcium, magnesium, phosphorus) and vitamins (Vitamin D). Higher rates meant that only a few medicinal plants are used by the interviewees to treat a particular disease. The plants frequently used to treat these disorders might contain active ingredients and thus were well known by locals. It expresses the best consensus between medicinal plants and treated osteoarticular diseases because informants interviewed used specific plant species commonly for osteoarticular diseases. Hence, species with high ICF values show that the plants traditionally used to treat these illnesses are worth exploring for bioactive compounds [48], while low values are associated with many plant species with an almost equal or high use reports suggesting a lower level of agreement among the informants on the use of these plant species to treat a particular disease category [39].

The Rifain people used many various plant parts for preparing remedies. In our investigation, leaves were the most commonly utilized plant part with PPV = 0.364 application in traditional medicinal remedies, followed by seed (PPV = 0.2263), and whole plant (PPV = 0.097). Many studies conducted elsewhere in other countries also showed the dominance of leaves in the preparation of remedies [1, 2, 4, 37, 4951]. The reason why leaves and aerial parts were mostly used could be that they are most easily accessible and their richness in secondary metabolites produced by photosynthesis. From the conservation point of view, the use of leaves is sustainable, since, if the withdrawal of aerial parts is not excessive, will not prevent the development and/or reproduction of the plant [52]. In this context, the use of leaves in herbal preparations implies a more sustainable practice but the harvesting of roots (which oftentimes requires uprooting) may result to plant death [53]. On the other hand, collecting leaves has a less detrimental impact on plants compared to the harvesting of roots and stem barks especially where there are no sustainable harvesting strategies in place [54]. Besides, a collection of leaves would be much easier and sustainable than that of roots or flowers [55].

Concerning the methods of preparation, decoction (38.6%), and infusion (34%). are the most common preparation methods that are used by indigenous people of Rif. The major solvent with the plant was water, but milk, butter, tea, and honey, oils were also extensively used as ingredients. Local people of Rif add honey, sugar, salt, orange peel, banana, or lemon to increase the palatability of a preparation. Moreover, honey is considered sacred to Muslims and occupies an important place in Islamic popular medicine [56, 57]. Indeed, honey is considered an instant energy source and is often used in all parts of the world to improve the acceptability of medicinal plants having a bitter taste unbearable. The decoction is a mostly used method for the preparation of indigenous herbal practices due to its easy preparation by mixing with water or tea [58]. However, the decoction provides assemble the greatest for the active constituents and attenuates or eliminates the toxic effect of some compounds. Decoction and infusion are very valued and often favored by popular healers in Morocco [4, 7, 15, 59, 60]. The predominance of decoction of the different plant species in the Rif is in total agreement with most of the carried out ethnobotanical studies [4, 50, 51, 6164]. Generally, the main route of application for herbal therapies was oral (82.4%). Furthermore, the oral mode of administration is a preferred route all over the world [10, 14, 36, 38, 39, 65]. The predominance of oral treatment may be explained by a large incidence of internal illnesses in the Rif region. The administration of oral treatment may be defined by a high degree of internal illnesses in the region [66].

Conclusions

Our investigation revealed that the use of plant species is playing an essential purpose in satisfying the basic healthcare requirements of the indigenous people residing in the Rif, northern Morocco. In this study, an ethnopharmacological catalog constituted of 280 plant species, belonging to 204 genera in 70 families, has been developed, these results of the study showed that there is a great variety of medicinal plants. The number of medicinal plants recorded for the prevention and therapy of human ailments is a good indicator of the potential that exists locally so long as the scientific procedure is added to the indigenous knowledge in terms of traditional herbal medicine. In light of this, medicinal plants with the most important RFC and FL values were identified could be taken up for further phytochemical, pharmacological, and clinical studies that allow the development of new herbal preparations or formulation of novel drugs addressed to improve the quality of life for treating various human diseases.

Acknowledgments

We wish to send our honest thankfulness to all the guides and inhabitants of the Rif region for their help. To all sellers of medicinal plants (Attar). We also extend our acknowledgments to all those who participated in the achievement of this product.

Appendix A

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Author contributions

NC carried out field research in the Rif, compiled the literature sources, data analysis, Realization manuscript and evaluation, interpretation, and wrote the manuscript, helped in data, and made a substantial contribution to data analysis. AD performed data analysis and drafted the manuscript. LZ designed the research and identification of plant species. All contributors see and confirm the final paper.

Funding

This investigation did not receive any particular grant from funding businesses in the public, commercial, or not-for-profit areas.

Availability of supporting data

All data collected and analyzed in this paper are included in the article and attached in the form of ‘Appendices’ as additional files. Plant specimens are collected and deposited in Ibn Tofail University, Kenitra, Morocco.

Declarations

Conflict of interest

We declare that there is never a conflict of interest with any commercial business about the document.

Consent for publication

Consent for publication was obtained from participants.

Ethical Approval and Consent to participate

The study was authorized by the ethical committee of Ibn Tofail University. Before starting data collection, we obtained oral informed permission in each case on a site level and then individually before each interview. We also informed indigenous people that it was a student academic project and investigation was only for our research purposes, not for any financial or other benefits. Informants provided verbal informed consent to engage in this study; they were free to withdraw their information at any point in time. Those informants have accepted freely the idea and they have consented to have their names and personal data to be published.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

All data collected and analyzed in this paper are included in the article and attached in the form of ‘Appendices’ as additional files. Plant specimens are collected and deposited in Ibn Tofail University, Kenitra, Morocco.


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