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Variation in traditional knowledge of culturally important macromycete species among three indigenous communities of Oaxaca, Mexico

Abstract

Background

For centuries, wild mushrooms have been a forest resource of significant cultural value in several ethnic groups worldwide. In Mexico, extensive traditional knowledge on the use of fungal resources has been developed and deeply rooted. Mexico is the second country in the world in which the most species of wild mushroom are consumed, and it is considered a pioneer in ethnomycology. Nonetheless, there are still many indigenous groups in this country that have not been studied from an ethnomycological approach. The present study aimed to record the traditional knowledge on wild mushrooms in three indigenous groups of the state of Oaxaca, Mexico, and assess the variation in this knowledge within and across the studied groups.

Methods

The data were recorded from April to October 2022 within three communities belonging to the indigenous groups Chatino, Chontal, and Chinanteco. Through 84 interviews, information related to their knowledge of wild mushrooms was obtained. The cultural significance index of wild edible mushrooms was calculated for each community. Regression analyses, analysis of variance and covariance, t test, and non-metric multidimensional scaling analysis were performed to assess the distribution of traditional knowledge in the communities.

Results

A total of 32 culturally important mushroom species were recorded for the three indigenous groups (30 edible, 2 medicinal); 23 used by Chatinos, 16 by Chontales, and 6 by Chinantecos. Only Chatinos and Chinantecos use wild mushrooms in medicine. The cultural significance of wild edible mushrooms differed among groups. Traditional knowledge about wild mushrooms declines when the level of schooling increases and age decreases, especially in the Chatino group. This knowledge distributes more homogeneously in the Chontal and Chinanteco groups. Their age determines the difference in knowledge between men and women.

Conclusion

Documenting how traditional knowledge differs among ethnic groups is relevant for preserving cultural and biological diversity. Factors such as level of schooling and age can affect traditional knowledge of wild mushrooms, but the effects of these factors vary within and across communities. Conducting studies encompassing a broader range of variables is of interest for a better understanding of the human–mushroom relationship.

Introduction

Macromycetes (fungi characterized by the production of sporomes visible to the naked eye commonly known as mushrooms) play a key role in the functioning of most terrestrial ecosystems as mutualists, decomposers of organic matter, and pathogens, but they are also highly relevant in various ethnic groups worldwide as a source of food, medicine, enzymes, and industrial compounds [1,2,3,4]. Given their nutritional value (proteins, vitamins, carbohydrates, amino acids, and minerals), some wild mushroom species are used as substitutes for meat and fish in developing countries and are among the most important non-timber forest products sold on the planet, generating approximately US$2 billion annually [3, 5]. Globally, ca. 140,000 mushroom species of importance for ethnic groups have been reported; information obtained from 10 countries revealed the use of 2166 species of wild edible mushrooms, but edible mushrooms are a well-known source of food and income in more than 80 countries. [2, 3].

In Mexico, wild mushrooms are a non-timber forest product highly appreciated due to their ecologic, economic, and cultural value [6]. It has been estimated that more than 450 wild mushroom species are traditionally consumed in Mexico, and at least 20 out of its 62 indigenous groups use this resource [7, 8], making it the second country with the most species of wild mushrooms consumed only after China (ca. 600 species) [9, 10]. The high prevalence of macromycetes and cultural diversity in this country generated vast and complex knowledge about the relationship between humans and wild mushrooms, consolidating ethnomycology as a discipline in charge of studying the human-fungi interrelation, of which Mexico is the pioneer and center of origin [11].

Ethnomycological research allows for a better understanding of the use of mushrooms by ethnic groups and provides a clearer picture of the cosmovision that people have regarding mushroom divinity, ecology, use, and classification [12]. The method most commonly used by ethnomycologists to record information and evaluate culturally important mushroom species is to conduct interviews combined with free lists where people mention the species they know and different issues related to mushrooms [13, 14]. During the first few decades, the data analyses in ethnomycological studies were mainly descriptive and focused on the identification, classification, and traditional use of species [11, 15], but current ethnomycologists complement descriptive methods with quantitative metrics such as the cultural significance of species index, and data are being analyzed using statistical tools [11, 13]. Biological traditional knowledge has intrinsic value and can be assessed without hypotheses and keep scientific rigor using proper methodologies [16]. Thereby, descriptive methods have been suggested to be of great relevance for documenting, organizing, and preserving traditional knowledge (mostly in multi-ethnic countries), and sometimes can generate more complete results than those obtained through quantitative methods [16, 17].

A literature review by Moreno Fuentes and Garibay [18] revealed that 124 ethnomycological studies were published worldwide between 2000 and 2013, and 24% of those studies corresponded to Mexico, the most productive country for ethnomycological research. Most ethnomycological studies in Mexico involve the central and southern regions, and the northern region is the least assessed area. For example, in central Mexico, Ramirez-Carbajal [19] reported that Tlahuica people in the state of Mexico consume 160 mushroom species and have 79 indigenous names and 130 names in Spanish for those species. Servín-Campuzano et al. [20] recorded 16 species used by Purepechas in the state of Michoacan, with an indigenous name for every species. Montoya et al. [21] reported 35 mushroom species used by the Otomi people in the state of Tlaxcala; these species are used as food, medicine, cosmetics, and ornaments. In the state of Mexico, Rodríguez-Muñoz et al. [22] reported 16 species consumed by Nahuatls as food, and their results indicated that women have the highest knowledge on wild mushrooms. In the southern region of Mexico, Shepard et al. [23] observed that Tzotziles and Tzeltales in the state of Chiapas use at least 28 mushrooms and have 70 indigenous names for those species. Ruan-Soto and Ordaz-Velázquez [12] recorded 134 edible and 40 medicinal species used by the Maya people. In the northern region of Mexico, Moreno-Fuentes [24] found that Raramuris in the state of Chihuahua use 16 mushroom species as food and 3 as medicine.

Oaxaca is a Mexican state suggested to be one of the most biodiverse regions in the world, the most biologically and culturally diverse region in Mexico [25, 26], and the most diverse region in this country regarding mushrooms, with 1630 recorded species [27]. Despite Oaxaca being internationally recognized for its vast traditional knowledge about the use of wild mushrooms, there is a lack of ethnomycological studies reporting the wild mushroom species consumed by the different ethnic groups in the region, and studies have been carried out only in 5 (i.e., Zapoteco, Mixe, Mazateco, Mixteco, and Chinanteco) of the 18 indigenous groups of Oaxaca (e.g., [28,29,30]). The most complete inventory of useful mushrooms in Oaxaca is by Garibay-Orijel et al. [31] in Sierra Norte, and their inventory comprises 159 taxa, including 113 edible species. Additionally, in Sierra Norte, López-García et al. [32] carried out a study in a Chinanteco community and found 36 macrofungal species known by locals, 82% of which were edible, 6% medicinal, 6% toxic, and 6% were ludic mushroom species. In different municipalities of Oaxaca, Martínez-Carrera [33] performed a study on the traditional use, management, and conservation of the Mexican matsutake (Tricholoma mesoamericanum) by Zapotecos. In the Mixteca region of Oaxaca, Ruiz-Almenara et al. [29] recorded 138 macromycete taxa, and interviews with local people showed that they consume at least 45 edible species.

Traditional knowledge on wild mushrooms has not been assessed in most of the indigenous groups of Oaxaca, and recording/understanding how this knowledge varies among ethnic groups can be of great relevance for preserving the cultural heritage on wild macromycete species and improving the management and conservation of the fungal resources. This study assessed the traditional knowledge about the use of culturally important wild mushrooms within and across the indigenous groups Chontal, Chatino, and Chinanteco of Oaxaca. Apart from the present study, no ethnomycological studies have been conducted for the Chontal and Chatino groups, and the Chinanteco group has been scarcely considered. These communities are established in different ecosystems and represent distinct cosmologies and cultures, which makes them of great ethnomycological interest. Thus, the present study aimed to (1) determine variations in richness and composition of mushroom species used among the three indigenous groups, (2) unveil the mushroom species that hold greater cultural significance in each studied community, (3) identify differences and similarities in the local nomenclature (indigenous and Spanish) related to wild mushrooms between the studied communities, and (4) determine if the age, level of schooling, and gender affect the distribution of traditional knowledge on wild mushrooms among local people.

Methods

Study area

The study was conducted within three indigenous communities in the state of Oaxaca, Mexico (Fig. 1).

Fig. 1
figure 1

Location of the study sites in different municipalities of Oaxaca, Mexico. The indicated sites are a Santa Lucia Teotepec (Chatinos), b Santo Domingo Chontecomatlan (Chontales), and c San Antonio Otate (Chinantecos). Image by López-García A

Santa Lucia Teotepec is part of the municipality of Santos Reyes Nopala located in the region Costa at 16° 8′ 35″ N and 97° 12′ 22″ W, with an elevation of 1172 m. The climate is subtropical dry humid, and its vegetation is the transition from subtropical to temperate forest [34]. The community belongs to the indigenous group Chatino, which comprises 1844 inhabitants, and ca. 80% of them speak the indigenous language [35] (Table 1). Authorization to carry out the study at Santa Lucia Teotepec was given by the municipal agent C. Francisco Sánchez and the interviewed people.

Table 1 Environmental and sociodemographic characteristics of the three studied communities in Oaxaca, Mexico

Santo Domingo Chontecomatlan is part of the municipality of Santa María Ecatepec located in the region Sierra Sur at 16° 15′ 00″ N and 96° 01′ 00″ W, with an elevation of 2010 m. The climate is semi-warm subhumid and characterized by pine-oak vegetation [36]. It belongs to the indigenous group Chontal, comprises 388 inhabitants, and is one of the remaining communities in Oaxaca where people speak the Chontal language [35] (Table 1). Authorization to carry out the study at Santo Domingo Chontecomatlan was given by the municipal agent C. Jorge Mendoza Mejía and the interviewed people.

San Antonio Otate is part of the municipality of San Juan Bautista Valle Nacional located in the region Papaloapan at 17° 71′ 88″' N and 96° 40′ 19″ W, with an elevation of 336 m. Its climate is warm-humid, and the main vegetation is montane rainforest [37]. The community belongs to the indigenous group Chinanteco, which comprises 238 inhabitants, 90% of whom speak the indigenous language [35] (Table 1). Authorization to carry out the study at San Antonio Otate was given by the Supervisory Board and the interviewed people.

Ethnomycological data obtainment

From April to October 2022, interviews were conducted with a sample size of 10% of the population in every community, which is deemed appropriate because it provides a meaningful representation of the inhabitants, especially when the target populations belong to culturally homogeneous groups. The method proposed by Burrola-Aguilar et al. [38] and Domínguez-Romero et al. [39] was performed to calculate the number of interviewees for each community since it employs a probabilistic cluster sampling, allowing for the random selection of households where any member of a family unit possesses traditional knowledge. Interviews were conducted following guidelines included in the code of ethics of the Latin American Society of Ethnobiology [40]. Authorizations to carry out the study in the Chontal, Chatino, and Chinanteco communities were given verbally by local authorities and interviewed people. For the children, consent was given by their parents.

A total of 84 interviews were conducted: 62 in Santa Lucia Teotepec, 14 in Santo Domingo Chontecomatlan, and 8 in San Antonio Otate. To choose the people being interviewed, houses were randomly selected from the locality maps, and one member of each family was interviewed. The minimum age of the interviewees was 6 years because children in the studied area start participating in field activities at this age. The interviews were aimed at obtaining data about sociocultural issues (e.g., age, economic activity, ethnic group, language, number of family members), what a mushroom is, uses of mushrooms, favorite edible mushrooms, methods to identify edible mushrooms, season of the year to collect mushrooms (phenology), how to cook the mushrooms, medicinal mushrooms, kind of substrata where mushrooms grow, gathering method, the presence of mushrooms in disturbed versus conserved areas, and local names in Spanish and indigenous language for mushroom species and their morphological structures [13, 38, 41, 42] (Additional file 1).

Macromycete sampling and identification

Macromycete sporomes (mushrooms) were collected only when there was doubt about a species mentioned by an interviewee. A total of 20 species were collected for identification, and voucher specimens were deposited in the mycological collection of the Laboratory of Fungal and Plant Diversity and Evolution-BUAP, Mexico (Additional file 2). The samplings were carried out from May to November 2022 together with people with the highest knowledge on wild mushrooms in each studied locality. The samples were macromorphologically described when fresh [43, 44], and the microscopic descriptions were made from small fragments placed in 5% KOH, Melzer's reagent and 5% Red Congo [45, 46]. Specimens were identified using photos, taxonomic keys, and mycological guides [45, 47,48,49,50,51,52].

Cultural importance of wild edible mushrooms

The cultural significance index of wild edible mushrooms (EMCSI) was used to determine the cultural importance of the mushrooms at the studied communities. EMCSI was calculated for every recorded species integrating nine indices, and the information for each index was categorized using the Likert scale [13, 53, 54]:

  1. 1.

    The local nomenclature index (LNI) takes into account the number of words that constitute the indigenous names given by local people to every mushroom species. A value ranging from 0 to 10 was assigned to each species depending on its number of words (Table 2).

  2. 2.

    The mention index (MI) was calculated with the formula [(number of mentions of each species/number of interviewees) × 10].

  3. 3.

    The perceived abundance index (PAI) was categorized from 0 to 10 according to the number of available sporomes for each species during the harvesting season (Table 2).

  4. 4.

    The consumption frequency index (CFI) was obtained based on the number of times a species was consumed by locals during the harvesting season, and the index values range from 0 to 10 (Table 2).

  5. 5.

    The multifunctional food index (MFFI) results from the number of ways the local people cook a species. The index values range from 0 to 10 (Table 2).

  6. 6.

    The consumption preference index (CPI) was obtained from the level of consumption preferences of the species. The interviewees were asked to make a list of the mushroom species they consume in decreasing order from their favorite species to the less preferred species. The index values range from 10 to 1, with 10 being the most preferred species in the list (Table 2).

  7. 7.

    The ability recognition index (ERI) results from the number and types of morphological traits of the mushrooms that people use to identify edible species. The traits were classified on a scale from 0 to 10 (Table 2).

  8. 8.

    The economic index (EI) was calculated based on how people often sell mushrooms and the price at which they sell them. The index values range from 0 to 10 (Table 2).

  9. 9.

    The knowledge transmission index (KTI) takes into account the closeness of the interviewees and the people who transmitted them the knowledge about the use of wild mushrooms. The index values range from 0 to 10 (Table 2).

Table 2 Cultural significance sub-indices used to calculate the cultural significance index of wild edible mushrooms

The formula used to calculate the cultural significance index of wild edible mushrooms was:

$${\text{EMCSI }} = \, \left( {{\text{LNI}} + {\text{ PAI }} + {\text{ CFI }} + {\text{ MFFI }} + {\text{ CPI }} + {\text{ ERI }} + {\text{ EI }} + {\text{ KTI}}} \right) \, \left( {{\text{MI}}} \right)$$

Data analyses

Linear regression analyses were performed to determine the relationships between the number of macromycete species known by local people and age and level of schooling (categorized as 1 = no scholar education, 2 = elementary school, 3 = middle school, 4 = high school, 5 = undergraduate, and 6 = higher academic level). Analyses were carried out for all the localities together and for each single locality, both for all the interviewees together and for men and women on their own.

To evaluate differences in the number of known macromycete species between the studied indigenous groups, one-way analysis of variance (ANOVA) was carried out, and Tukey’s HSD tests with 95% confidence level were used to identify pairs of means that differed from each other. To represent on a geometrical plane the distance between the studied groups concerning the composition of the species known by each group, a Non-metric Multidimensional Scaling analysis (NMDS) with 10,000 random starts was performed. The difference between men and women regarding the number of known mushroom species was assessed through two-sample t test, both the data of the three indigenous groups together and the data of each group were analyzed. Analyses of covariance (ANCOVAs) were conducted to determine differences between men and women regarding the number of mushroom species they know controlling for the level of schooling and age in both the three study groups together and separately for each group. All the statistical analyses were performed in R Studio [55] (Additional file 3).

Results

A total of 32 useful macromycete species were recorded in the three studied localities, 30 of them are used as food, and two are used as medicine. People in Santa Lucia Teotepec (Chatinos) consume 23 species, in Santo Domingo Chontecomatl (Chontales) people use 16 species, and 6 species are consumed in San Antonio Otate (Chinantecos). 62% of the recorded species were ectomycorrhizal, 34% saprotrophic, and 3% parasitic (Table 3).

Table 3 Wild mushroom species recorded in the studied communities, local indigenous and Spanish names, fungal trophic groups, and local uses

The oldest people in the studied communities have the greatest knowledge on the traditional use of wild mushrooms and are responsible for transmitting this knowledge to younger people. Men collect mushrooms growing in forest areas far from communities, and women and children collect in surrounding lands.

Information from the interviews in the three localities indicated that the harvesting season begins in June and finishes in October. People suggest that most macromycete species produce sporomes within a specific time span during the rainy season, but production may be influenced by environmental variations. They can harvest up to 5 kg of mushrooms in 1 day and classify the species based on the kind of substrata where they grow.

To preserve this non-timber forest product, mushroom pickers apply different traditional methods. To collect ectomycorrhizal species, they cut the stipe to leave the basal part of the stipe in the ground. Additionally, people slightly tap the pileus to help release the spores. In the case of xylophagous fungi, local gatherers avoid removing or disturbing the logs and branches where useful mushrooms have been collected.

People from the three studied groups are aware of the negative effect that deforestation can generate on the fructification rates of species such as Cantharellus cibarius, Amanita spp. and Russula spp., so they conserve harvesting areas by avoiding timber extraction.

Local nomenclature

Every studied ethnic group gives local indigenous and Spanish names to the different macromycete species they know (Table 3). The indigenous names are composed of the word that every community uses for “mushroom”, together with one or two epithets that refer to the morphologic and/or ecological features of the species.

The indigenous word that Chatinos use for “mushroom” is Kía and is used at the beginning of a species name. For example, they consume a Russula species named Kía edjee in the local language, which means “mushroom of salt” because the species has scales on the pileus, and the name in Chatino for scales is salt (edjee). The macrofungal species Pseudofistulina radicata is named Kía jikafkhía because it grows on a woody plant of the genus Diphysa named jikafkhía by locals. Some names are given out of the shape of the mushrooms, for example, the name for Hypomyces lactifluorum is Kía jikie lakie, which means “cockscomb mushroom”. Due to its shape and color, the species Rubroboletus dupainii is named Kía loo, which means “gizzard mushroom” (Fig. 3a). In the Chatino community, the names of the edible Amanita species are trinomials. The names are Kía kuí nga´a (red San Juan mushroom) and Kía kuii gsi (yellow San Juan mushroom) due to their color and because they grow in June, the month of San Juan.

Correspondingly, indigenous names in the Chontal group are given based on the morphologic traits of the species. For example, the color of the species Cantharellus cibarius is yellow, similar to the color of the pumpkin flower, thus, the local name is Jlapilí kahúa, which means “pumpkin mushroom”. The species Lactarius volemus releases latex (white liquid resembling milk) when the sporome is cut, and its indigenous name is Jlapilí fuska-gaja, which means “milk mushroom”. Hydnum repandum is a species with teeth on the hymenium, similar to the cats’ tongue, and its local name is Jlapilí mishto, which means “cat mushroom”.

Chinantecos use binomial and trinomial indigenous names for the mushrooms, and both the morphologic and ecological traits of the species are used to name them. For example, the local name for Pleurotus djamor is Nat majee, which means “jonote mushroom”. Jonote is a tree species (Heliocarpus appendiculatus) that has been observed to be associated with the distribution of P. djamor. The macromycete Schizophyllum radiatum is named Nat logua quiic, which means “lizard hand mushroom” because the sporome resembles a scaly lizard hand. In the three studied indigenous groups, there is a presence on the use of ethnotaxas (a single indigenous name including several macromycete species that are morphologically alike).

Mushroom morphology

Naming the different morphological structures of mushroom sporomes seems irrelevant for Chinantecos and Chatinos. Chinantecos do not have any name for the parts of the sporome. Chatinos have indigenous names for only three parts; the stipe is named Jiaró (paw), the pileus name is Kia or Gnnaro (skull or meat), and the name for the scales is Edjee (salt). The latter is the most important structure because it is useful for distinguishing edible and toxic species (Fig. 2).

Fig. 2
figure 2

Local indigenous names of the morphological structures of an agaricoid mushroom recorded in the Chatino and Chontal communities

Differentiating the parts of a sporome is important for Chontales. They have indigenous names for seven structures and use homologies of common things around to name them. For example, the name for the pileus is Tokfke (hat), the hymenium is named Ishik (meat), the stipe is Misk (paw) or Pútok (tronco), the mycelium is Ime (root), and the volva is Jlapié (egg). For Chontales, the annulus is the key structure for determining whether a species is edible because the mushrooms they consume have a large yellow annulus, and the local name for this structure is Galtsoni (briefs) (Fig. 2).

Ethnoecological knowledge about wild mushrooms

Interviewees from the three studied indigenous groups showed to be aware that plants and mushrooms are distinct types of organisms, but they need each other to grow in forests. They mentioned that wild mushrooms play several roles in ecosystem functioning, mainly in processes related to soil fertility. Moreover, people use diverse criteria to classify mushrooms according to their ecological role, and the most used classification is the type of substrate on which they grow.

Regarding mushroom phenology, people in the three indigenous groups mentioned that there are long-availability species, such as Schizophyllum commune and Lentinus crinitus, that grow throughout the complete rainy season, and agricultural activities like the clearcut-and-burn method enhance sporome production in some species. Moreover, they have observed that mushroom production improves in June and September with increasing precipitation.

However, 80% of the interviewees said that the use of agricultural chemical agents, the immoderate felling of trees, and changes in precipitation patterns have led to a decline in sporome production.

To preserve fungal resources, people avoid cutting trees in old forest stands because these areas produce greater amounts of mushrooms, they leave pieces of stipe on the ground to ensure future harvests, and they do not collect mature sporomes to allow the release of seeds (spores).

Medicinal mushrooms

The use of mushrooms in traditional medicine was found only in Santa Lucia Teotepec (Chatinos) and San Antonio Otate (Chinantecos). Chatinos use Psilocybe species in healing and prediction ceremonies. The ceremonies are carried out at night by someone with experience, and the mushrooms are smoked with copal before they are consumed. Chatinos consume two or three sporomes in ceremonies. Once the mushrooms take effect, people hear a voice in their head and ask that voice for answers about how to cure a sickness or solve a problem. Chinantecos use Pycnoporus sanguineus due to its properties to remove skin blemishes by applying the sporome on their face to cover the skin with spores, which are the curative component of the mushroom.

Cultural significance of wild edible mushrooms for the Chatino group

The five macromycete species with the highest cultural significance index for wild edible mushrooms in the Chatino community were “salt mushroom” (Russula sp.1), “bean mushroom” (Russula sp.2), “totomoxtle mushroom” (Pleurotus djamor), “red San Juan mushroom” (Amanita jacksonii) (Fig. 3e), and “cuachepil mushroom” (Pseudofistulina radicata) (Table 4).

Fig. 3
figure 3

Wild mushrooms of biocultural importance in the Chinanteco, Chontal, and Chatino communities of Oaxaca. The images show a Rubroboletus dupainii, b Favolus tenuiculus, c Pseudofistulina radicata, d stew made with species of the genus Amanita, e Amanita jacksonii, f Pleurotus djamor, g Schizophyllum radicatum, h Ramaria sp., i stew made of Cantharellus cibarius, j Amanita laurae, k Pycnoporus sanguineus, and l Lentinus crinitus

Table 4 Cultural importance of the wild edible mushroom species recorded in the Chatino group

Except for Amanita jacksonii (Fig. 3e), A. laurae (Fig. 3j) and Hypomyces lactifluorum (index values = 5), the local nomenclature index indicated that the names assigned to the mushroom species are not complex because they are composed mainly of morphological traits (Table 4).

The perceived abundance index suggested that Chatinos perceive Hypomyces lactifluorum, Favolus tenuiculus and Ramaria spp. as the most abundant species (index values > 8), whereas Suillus granulatus, Xerocomus sp. and Amanita jacksonii are the least abundant species (index values < 6).

The consumption frequency index showed that all the species are eaten at least once a year, with Hypomyces lactifluorum and Ramaria spp. being the most frequently consumed species (index values > 6).

Regarding the different ways to cook wild mushrooms, the multifunctional food index indicated that all the recorded species, except Laccaria laccata (index value = 2.5), are cooked in at least two ways (index values ≥ 7.5).

The consumption preference index indicated that all mushroom species are prized due to their good flavor. Hypomyces lactiflourum, Pleurotus djamor, Ganoderma sp. and Cantharellus cibarius were the most preferred by Chatinos (index values > 7), whereas Xerocomus sp. and Ramaria spp. were the least preferred.

The low values obtained with the edibility recognition index suggested that identifying edible mushrooms is easy for Chatinos because identification is based mainly on mushroom morphology. In the case of Favolus tenuiculus, identification is more complicated (index value = 10) because it includes the growing habitat, flavor, and smell.

Regarding wild mushroom marketing in the community, the economic index indicated that Lactarius indigo, Schizophyllum radiatum, Ramaria spp., Favolus tenuiculus, and Hypomyces lactiflourum do not represent a sale item (index values = 0). Russula crustosa was the species with the highest value (index value = 2.4), and its price can reach approx. USD$17.5 per kilogram.

The knowledge transmission index indicated that the knowledge on wild edible mushrooms within the Chatino community goes back to at least one generation (index values > 7.5).

Cultural significance of wild edible mushrooms for the Chontal group

The five macromycete species with the highest cultural significance index for wild edible mushrooms in the Chatino community were Laccaria laccata, Amanita laurae, Cantharellus cibarius, Lactarius volemus and Hypomyces lactifluorum (index values > 350). Flavor, multifunctionality, and perceived abundance were the main factors influencing the preference of these species for Chontales (Table 5).

Table 5 Cultural importance of wild edible mushrooms in the Chontal group

The local nomenclature index suggested that all the local names given to the mushroom species are comprised of two terms (index values = 2.5), and the myconomies assigned to the species are based on morphological traits.

Boletus sp., Pseudofistulina radicata, and Hygrophorus russula are perceived as the most abundant mushroom species and as the easiest to find in the forest based on the perceived abundance index (values = 10). The rarest species was Calvatia sp. (index value = 2.5). The remaining species had values indicating they are not rare and easily found (Table 5).

The values calculated with the consumption frequency index indicated that most species are consumed at least twice a year (index values ≥ 7.5), but the species Calvatia sp. Boletus sp., Hydnum repandum and Pseudofistulina radicata are consumed more than four times in the year (index values = 10). Hygrophorus russula and Neolentinus ponderosus are consumed once a year (values = 5 and 6, respectively) (Table 5).

The multifunctional food index indicated that all the recorded species in the Chontal community are cooked in at least two ways (index values ≥ 5).

Except for Pleurotus djamor, the values calculated with the consumption preference index suggested that Chontales appreciate most of the mushroom species due to their good flavor (index values ≥ 9). People in the community do not completely appreciate the flavor of P. dejamor (index value = 6) (Table 5).

The values obtained with the edibility recognition index for all the wild edible mushroom species known by Chontales indicated that people collect those mushrooms with confidence that all of them are edible species (index values 3.3).

The economic index showed that only Lactarius volemus, Laccaria laccata and Hypomyces lactifluorum are commercialized by Chontales (index values = 1.1, 0.5 and 0.6, respectively). The price of these mushroom species can vary from approx. USD$5.8 to $8.8 per kilogram depending on their abundance along the rainy season.

The knowledge transmission index values indicated that the knowledge on wild edible mushrooms within the Chontal community goes back to at least one generation (index values ≥ 7.5).

Cultural significance of wild edible mushrooms for the Chinanteco group

In the Chinanteco community, people consume only five mushroom species. Pleurotus djamor (Fig. 3f) is the most important species in this community, with 513.62 in the cultural significance index for wild edible mushrooms, whereas Sparassis crispa is the least important with an index value = 45.37 (Table 6).

Table 6 Cultural importance of wild edible mushrooms in the Chinanteco group

All the mushrooms consumed in this community have indigenous names. The local nomenclature index showed that the local names for Lentinus crinitus and Schizophyllum radiatum are comprised of three terms (index values = 7.5), and the names for the rest of the mushrooms are comprised of two terms (index values = 5) (Table 6).

The perceived abundance index indicated that Pleurotus djamor and Lentinus crinitus are the most abundant species, however, the classification used to calculate the index suggested that those species are in a medium level of abundance (index values < 7.5). Sparassis crispa was the rarest species according to the Chinanteco people (index value = 2.5).

The consumption frequency index suggested that Sparassis crispa and an unidentified Tricholomataceae species are not consumed every year (index values < 3.75) and the other mushrooms are consumed at least once a year (values > 5) (Table 6).

The multifunctional food index indicated that the mushroom species consumed by locals are cooked in at least one way (index values > 3).

The values obtained with the consumption preference index indicated that all the species are consumed due to their good flavor (index values ≥ 8).

Pleurotus djamor is the only species commercialized in the Chinanteco community and obtained a high economic index (index value = 6.6) (Table 6). The price of this mushroom can reach more than USD$11.5 per kilogram.

The knowledge transmission index indicated that the knowledge on wild edible mushrooms in the Chinanteco community goes back to at least one generation (index values ≥ 7.5). Sparassis crispa is not a species traditionally consumed by Chinantecos, it was introduced to the community by external people, however, it is the only species known from at least two generations back (index value = 10).

Distribution of traditional knowledge about wild edible mushrooms in the Chatino, Chontal, and Chinanteco groups.

The linear regression analyses indicated that the number of wild edible mushrooms identified by the interviewed people in the three studied groups was negatively related to their level of schooling (r2 = 0.07, F = 5.85, p = 0.017; Fig. 4a) and positively related to their age (r2 = 0.19, F = 19.2, p < 0.0001; Fig. 4b).

Fig. 4
figure 4

Linear regression analysis. The number of known mushroom species recorded in the three studied communities relates to a the level of schooling of men and women, b the age of men and women, c the age of men, d the level of schooling of women, and e the age of women

The number of mushroom species known by all the men in the three studied groups was not significantly related to their level of schooling (p > 0.5) but was positively related to their age (r2 = 0.15, F = 6.7, p = 0.011; Fig. 4c). However, the number of species known by the women was negatively related to their level of schooling (r2 = 0.12, F = 5.4, p = 0.02; Fig. 4d), and positively related to their age (r2 = 0.25, F = 13.6, p < 0.0001; Fig. 4e).

In the Chatino group, the knowledge about mushroom species obtained from all the interviewees was negatively related to their level of schooling (r2 = 0.17, F = 11.94, p = 0.001; Fig. 5a), and positively related to their age (r2 = 0.35, F = 33.1, p < 0.0001; Fig. 5b). Similarly, the number of species known by both men and women in the Chatino community was negatively related to their level of schooling (r2 = 0.13, F = 4.3, p = 0.04; r2 = 0.2, F = 7.41, p = 0.01, respectively; Fig. 5c, d), and positively related to their age (r2 = 0.45, F = 24.6, p < 0.0001; r2 = 0.27, F = 10.63, p = 0.002, respectively; Fig. 5e, f). The number of wild edible mushrooms known by the people from the Chontal and Chinanteco groups was not significantly related to their level of schooling or age (p > 0.5).

Fig. 5
figure 5

Linear regression analysis. The number of known mushroom species recorded in the Chatino community relates to a the level of schooling of men and women, b the age of men and women, c the level of schooling of the men, d the level of schooling of women, e the age of men, and f the age of women

The ANOVA indicated highly significant differences between the Chatino, Chontal, and Chinanteco groups regarding the number of mushrooms they know and use (F = 10.9, p < 0.0001). Tukey’s test showed that the main difference is between the Chatino and Chinanteco groups (p < 0.0001), followed by the Chatino and Chontales groups (p = 0.02). Similarly, the NMDS indicated that the Chinanteco group is clearly separated from the Chatino and Chontal groups along Axis 1 due to differences in the composition of the species they use (Fig. 6).

Fig. 6
figure 6

Non-metric multidimensional scaling analysis. Group 1 (Chatinos), Group 2 (Chontales), and Group 3 (Chinantecos). The distance between groups represents the similarity in the species composition they consume

The t test indicated that there are no significant differences between men and women regarding the number of useful mushroom species they know, the results were analyzed both for the three study groups together and for each group individually (p > 0.05; Fig. 7a–d). However, the ANCOVAs controlling for level of schooling and age in the three groups together and in the Chatino group showed that there is a significant difference between men and women in terms of the number of mushroom species they know after controlling for age (F = 18.86, p < 0.0001; F = 32.32, p < 0.0001, respectively); however, the difference was not significant in the Chinanteco and Chontal groups (p > 0.05).

Fig. 7
figure 7

Student’s t test. Differences in the number of mushroom species known by a men and women in the three communities, b men and women in the Chatino group, c men and women in the Chontal group, and d men and women in the Chinanteco group. There are no significant differences between men and women regarding the number of useful mushroom species they know

Discussion

The different kinds of knowledge arising from the human–mushroom relationship have been acquired, accumulated, and specialized over the years. These broad forms of knowledge are complex and differ among ethnic groups in Mexico and worldwide, as shown by the results obtained in the present study [56,57,58]. It has been suggested that mushroom species used by human groups inhabiting the same ecological zone can be similar but used in distinct ways [59], corresponding to the observed between the Chontal and Chatino communities. The appropriation of wild mushrooms by ethnic groups has led to the diversification of their use and, over time, these organisms have been incorporated as an element of great importance in their cultural core.

Mexico stands out as the region where most of the ethnomycological research is carried out, encompassing about a quarter of all the ethnomycological studies published worldwide [14, 18]. The traditional knowledge on wild mushrooms has been evaluated in several ethnic groups along the country, and the findings have allowed a better understanding of the cognitive systems generated through the interaction of human groups and fungi. Ethnomycological studies are mainly descriptive and focused on recording the useful mushroom species, harvesting methods, mushroom-related nomenclature, and ethnoecological knowledge in different ethnic groups (Table 7), but studies analyzing the variation of traditional knowledge within and across groups are scarce. In addition to recording and preserving valuable ethnomycological information, this study performed quantitative analyses to explore how traditional knowledge distributes within and across the indigenous communities, and factors influencing the distribution. Addressing the traditional knowledge under different approaches can be instrumental in preserving and valuing cultural diversity, as well as fostering sustainable development.

Table 7 Ethnomycological studies in Mexico and their main findings related to the traditional knowledge on the use of wild mushrooms in different indigenous groups

The present study documented for the first time the traditional knowledge on wild mushrooms in the Chontal and Chatino groups of Oaxaca, until now it was unknown whether these indigenous groups made use of the fungal resource. Also, the obtained results contributed to increasing the knowledge in the Chinanteco group, which has received little ethnomycological attention. The higher richness of wild edible mushrooms used by Chatinos compared with Chinantecos and Chontales can be explained by the vegetation type they inhabit (transition between vegetation with temperate and tropical affinity), which has been suggested to increase fungal production due to the quantity and quality of resources it provides [31, 67]. However, in different scenarios as the Chinanteco group inhabiting lowlands, the number of mushroom species consumed by people can decrease because tropical environments are likely to provide greater options for natural food resources [68], promoting a varied diet of natural resources consumed by the human groups that inhabit these areas.

Wild mushroom harvesting is an activity in which all members of a family usually participate, as reported in several ethnomycological studies worldwide [69,70,71], however, there are ethnic groups in Mexico and Africa where men rarely participate in collection [72, 73]. The harvesting of wild mushrooms in the three communities assessed in this study is similar to that reported for the Chinanteco and Lacandon communities in Mexico, and for some rural communities in Cameroon. In these communities, men are responsible for collecting sporomes that grow in places far from the communities, while women and children carry out this activity near the community [60, 74, 75].

Despite the relevance of wild edible mushrooms as non-timber forest products, the various strategies carried out by the Chatino, Chinanteco, and Chontal indigenous groups to conserve areas with high sporome production have been unsuccessful. Several campaigns have been taken to conserve these forests, but the indiscriminate cutting of trees for avocado plantations in the Chontal community and coffee plantations in the Chatino group has accelerated the loss of the original vegetation. Although many ecological studies have shown that agricultural activities and fluctuations in precipitation throughout the rainy season may lead to a critical decline in the availability of wild mushrooms [76,77,78], the Chinantec people mentioned an increase in the proliferation of edible lignicolous fungi due to agricultural activities where branches and wood debris are left behind.

The names assigned to the mushrooms and the nomenclature used reflect the close relationship between these indigenous groups and the wild mushrooms, demonstrating an ingrained knowledge about fungal resources. The present study showed that, as in all indigenous groups in Mexico, assigning names to wild mushroom species involves understanding their ecological, organoleptic, morphological, and cultural aspects [13, 27, 32, 79]. Contrary to the findings by Berlin [80], who stated that folk classifications lack robust elements to be considered as such, the Chatino and Chontal people assign similar names to taxonomically close species such as Amanita jacksonii and Amanita laurae, demonstrating their capability to group species into ethnotaxa. This has also been reported in the Yoruba community of Nigeria and various ethnic groups in Mexico. Nevertheless, as observed in certain indigenous groups in Ethiopia, Tanzania, and Mexico, the same species often have distinct names [70, 73].

Wild mushroom classification has been observed to derive from distinctive elements that each indigenous group identifies from a cultural perspective [81]. Nevertheless, Lactarius volemus was recorded in the Chatino and Chontal communities and is one of the few species that retains its common name (milk mushroom) in most of the indigenous groups in Oaxaca that have been studied from an ethnomycological perspective, such as Mixtecos, Chinantecos, and Zapotecos [13, 60, 61]. This can be explained by two reasons: (1) the distinctive feature of exuding latex when breaking the gills of the hymenium is a diagnostic element for determining its edibility, and (2) the biocultural richness of the 16 indigenous groups of Oaxaca is the heritage of great cultures that emerged ca. 2900 years ago, such as the Zapotecos and Mixtecos, which facilitated cultural exchange among indigenous groups [82, 83]. This phenomenon converges mainly in the Valles Centrales region of Oaxaca, where species of cultural importance from different regions of the state are represented in several traditional markets [83]. In particular, Lactarius volemus has been reported to be sold by people from different communities under the same name in the main markets of Oaxaca [84].

The medicinal use of Pycnoporus sanguineus and species from the genus Psilocybe has already been documented in previous studies. Mostly for the Psilocybe genus, there is a rich tradition of consumption in Mexico, where at least 56 species are known to be used in traditional medicine. In the state of Oaxaca, a total of 31 species have been recorded along with their varieties [30]. The way these mushrooms are used varies within each indigenous group; however, the goal is always to connect people with divine entities and seek guidance regarding different aspects of their lives. The Chinantec people of Santiago Comaltepec and La Esperanza refer to Psilocybe species as "dwarf mushrooms" because, after consuming at least four sporomes of Psilocybe zapotecorum or P. yungensis in a healing ceremony, they see a diminutive being who answers questions related to death and illness [60]. Ríos-García et al. [62] reported the use of P. mexicana, P. caerulescens, P. cubensis, and P. yungensis in nighttime rituals that blend pre-Hispanic and Catholic elements to obtain predictions about future and spiritual healing. The Chatino group reported the use of P. caerulescens, P. mexicana, and P. zapotecorum, but the method of use is unknown [30, 85].

Pycnoporus sanguineus has been reported to be used for the treatment of skin diseases in the Chinanteco community of San Mateo Yetla, Valle Nacional [60], and there are currently several studies on the nutraceutical properties of this species [86]. The medicinal use of wild mushrooms is widespread worldwide [3]. Mexico has an approximate count of 163 medicinal species [87], and the last decade has been of relevance for new records of species used in traditional Mexican medicine [8].

The species that obtained the highest scores for the cultural significance index are Cantharellus cibarius, the Amanita caesarea complex, Agaricus pampeanus, Ramaria spp., and Neolentinus lepideus. Previous studies conducted in rural communities inhabiting temperate areas of Mexico where the cultural significance index and free-list indices were performed, reported that Cantharellus cibarius and the Amanita caesarea complex are likely the most culturally significant species in Mexico [13, 53, 88]. However, many indigenous groups have not been studied using this numerical ethnomycological methodology.

Regarding the differential cultural significance of edible wild mushrooms, the Chatino people inhabiting an area with various vegetation types showed that beyond the availability of the fungal resource, taste is the most important parameter in the use of wild mushrooms. This pattern was also observed for the Chinantecos, where the results indicated that the abundance of sporomes does not determine the preference for certain species. However, for the Chontal people who are located in an area with a single vegetation type, abundance and multifunctionality play greater roles in their use of wild mushrooms.

Nevertheless, various studies have found that the preference for certain mushroom species is determined mainly by the amount of biomass they produce [59]. The biomass production in mushrooms together with the ease of recognizing their edibility and multifunctionality, makes them a resource with economic value for several indigenous groups, further enhancing their importance. Under a diverse mosaic of vegetation types, this corresponds to the findings by Ruan-Soto et al. [66], who reported that ecological zones are not the primary element defining the preference for certain wild edible mushroom species. In general, the values obtained for the cultural significance of wild mushrooms consumed in the studied communities exhibited different patterns due to the distinct indigenous groups in which each cultural core perceives and values its natural resources differently [13]. However, despite the three studied indigenous groups being distributed within the state of Oaxaca but with diverse natural landscapes, the existence of regional markets enables broad cultural interchange, reflected in the shared composition of the species they use.

This study was carried out with different age groups to explore generational differences in knowledge acquisition and to recognize how knowledge permeates various scopes and develops in both the worldviews of children and adults in the studied communities. Among children, this knowledge was observed to act as a fundamental guide, transmitted through figures of authority (such as parents and grandparents) and daily practices. Meanwhile, adults not only preserve this knowledge but also incorporate it into their more complex understanding of the environment, as they are mostly in contact with their natural surroundings due to their field activities [89, 90].

The results suggest a loss of traditional knowledge in younger generations caused mainly by the replacement of agricultural and forestry activities for school pursuits and other factors, such as modernization, globalization, and the lack of intergenerational transmission. This loss seems to have affected the preservation of cultural diversity, mostly in the Chatino community where the information obtained and fieldwork activities exposed a lack of interest among young people and children. In the Chontal community, younger generations participate in more forest-related activities, which contributes to their interaction with fungal resources. Similarly, in the Chinanteco group, young people are involved in forest-related activities, albeit to a lesser extent. The generational loss of traditional knowledge has been reported to be strongly related to the decline of mushroom populations worldwide, but also because intoxication caused by the consumption of wild mushrooms makes young people fearful of using this resource [78, 91]. However, as observed in the Chontal and Chinanteco communities, there are ethnic groups where traditional mycological knowledge has persisted in the new generations owing to the stable ethnic identity that comes from strong cultural roots, and the strategies applied to conserve the biocultural heritage [14, 92].

It has been suggested that gender plays a differential role in the acquisition and transmission of mycological knowledge in many cultures [93], corresponding with the findings in the three studied groups where the knowledge of men and women is comparable and both genders are actively involved in the process of harvesting, cooking, and selling mushrooms. This mutual knowledge is likely to come from the strategies used by adults to transmit knowledge to young boys and girls, emphasizing the relevance of becoming involved in fungal resource utilization [14, 69, 94]. In some communities, women play a greater role in the use of fungal resources, as is the case for certain cultural groups in Mexico and Nigeria where the marketing of mushrooms is not a well-remunerated activity, thus, men seek other sources of income [95, 96]. Furthermore, there are ethnic groups where the variation in traditional knowledge between men and women is a result of the division of tasks in the use of this resource, men collect mushrooms and women sell them [9].

Currently, the gap in traditional knowledge among men and women is evolving with gender equality and the promotion of equal opportunities. When the data from the three communities were analyzed together, the obtained results showed that knowledge is being lost among women with higher levels of schooling. This is associated with the fact that more women go to school and leave their communities than men do. Additionally, when women return to their home communities, they engage in small family businesses such as shops, local markets, and food stalls. Men, on the other hand, use to stay in the communities and work in agricultural and forestry activities. However, Berkes et al. [92] and Haro-Luna et al. [14] state that traditional knowledge prevails in societies that make constant use of their natural resources regardless of inhabitants' migration, age, or level of schooling.

In the Chatino group, there was a markedly negative relationship between the level of schooling and the number of mushroom species known by the interviewees, indicating a likely lack of formal education including topics based on their biocultural heritage. Although Mexico's formal education has included several improvements in terms of quality and access to technology, there is still a gap in the null inclusion of traditional knowledge within the educational framework [97], which has generated a deficit in the preservation of cultural richness. This loss of knowledge is also related to the age of the people in the new generations, as little is known in these generations about culturally important mushroom species.

The homogeneous distribution of traditional knowledge in the Chontal and Chinanteco groups regarding the number of known mushroom species concerning the level of schooling, age, and gender is driven by the constant valuation and transmission of traditional knowledge that promotes a scenario of equal opportunities in each of these communities. In addition, they organize workshops and talks that allow interaction between generations, resulting in an exchange of knowledge related not only to wild mushrooms but also to all their biocultural heritage.

Although the Chatino and Chontal groups are geographically closest to each other and shown to share a high richness of mushrooms consumed in their communities, the composition of the species used did not differ conspicuously among the three study groups. Generally, indigenous groups located geographically close to each other share similar wild edible mushroom species, as reported for Mexico and Guatemala, where Tsotsiles, Tzeltales, Mayas, and Lacandones share the use of Schizophyllum commune, Auricularia delicata, Cantharellus cibarius, and Lactarius indigo [12]. Additionally, in Central Mexico, Otomies, Nahuatl, Mazahuas, and Purepechas have been reported to consume similar species, such as the Amanita caesarea complex, Laccaria spp., and Boletus edulis [20,21,22]. This suggests that there is a continuous exchange of traditional knowledge among indigenous groups in Mexico, and the incorporation of new knowledge enriches the culture of ethnic groups.

The mushroom species recorded in the present study have been a staple in the diet of indigenous groups in Mexico for centuries, as they are considered a healthy and essential food for survival during certain seasons of the year [8]. However, it is crucial to raise awareness about cultivable species, such as Pleurotus djamor and Neolentinus lepideus, which could ensure a year-round availability of nutritious resources and provide an extra economic income in indigenous communities [98], accomplishing the goals outlined in the 2030 Agenda, specifically those related to reducing hunger, poverty, and promoting food security [99].

International and local treaties and laws such as the Convention on Biological Diversity and the General Law of Sustainable Forestry Development, respectively, have emphasized the importance of involving indigenous communities in sustainable forest resource management, and the inclusion of traditional mushroom harvesting practices. [100, 101]. Chontales, Chatinos, and Chinantecos possess valuable knowledge about the mushroom species they use, making it an effective tool for transmitting wisdom regarding the preservation of cultural heritage and the conservation of biodiversity. Therefore, this study's findings can contribute significantly to the formulation of policies that address the utilization of fungal resources in indigenous communities, promoting sustainability, and equity in resource management and conservation.

Conclusions

Indigenous groups in Mexico are aware that the preservation of traditional knowledge is highly important for continuing to benefit from natural resources. This is evident in the diversity of mushroom species they use, the various practices employed when harvesting, cooking, and consuming the mushrooms, and the extensive information they safeguard regarding this valuable non-timber forest product. The present study enabled the identification of culturally important wild edible mushroom species in three indigenous communities of Oaxaca and showed that factors such as level of schooling and age can be critical for the conservation of traditional knowledge; however, the effects of these factors vary within and across communities. Despite that the results represent a small fraction of the knowledge of these indigenous groups, this study is of great importance because it paves the way for future research on these indigenous groups, which have received limited ethnomycological attention. Conducting studies that encompass a broader range of variables like occupation, migration, and level of expertise in the local language is crucial to gain a comprehensive understanding of the human–mushroom relationship. This approach provides a consensus on how ecological, biological, and cultural factors interrelate in the use and management of culturally significant wild mushrooms. It is essential to promote the documentation and revitalization of these traditions so that future generations can benefit from the wealth of traditional knowledge while embracing modern progress.

Availability of data and materials

The datasets generated during this study are included in this published article and its supplementary information files.

Abbreviations

EMCSI:

Cultural significance index of wild edible mushrooms

LNI:

Local nomenclature index

MI:

Mention index

PAI:

Perceived abundance index

CFI:

Consumption frequency index

MFFI:

Multifunctional food index

CPI:

Consumption preference index

ERI:

Edibility recognition index

EI:

Economic index

KTI:

Knowledge transmission index

ANOVA:

Analysis of variance

ANCOVA:

Analysis of covariance

NMDS:

Non-multidimensional scaling analysis

HSD:

Honestly significant difference

References

  1. Mueller G, Foster M, Bill G. Biodiversity of fungi. Inventory and monitoring methods. Academic Press, Amsterdam; 2004.

    Google Scholar 

  2. Gryzenhout M, Roets F, de Villiers R. Fungal conservation in Africa. Mycol Balc. 2010;7:43–8.

    Google Scholar 

  3. Boa E (2005) Wild edible fungi. A global overview of their use and importance to people. In: Non-wood forest products 17. Food and Agriculture Organization of the United Nations, Italy

  4. Lodge DJ. Nutrient cycling by fungi in wet tropical forests. In: Isaac S, Frankland JC, Watling R, Whalley AJS, editors. Aspects of tropical mycology. Cambridge: Cambridge University Press; 1993. p. 37–57.

    Google Scholar 

  5. Voces R, Diaz-Balteiro L, Alfranca Ó. Demand for wild edible mushrooms: the case of Lactarius deliciosus in Barcelona (Spain). J For Econ. 2012;18(1):47–60.

    Google Scholar 

  6. Bello-Cervantes E, Caamal-Caamal LG, Montoya-Esquivel A, Trejo-Vázquez RI, Cifuentes-Blanco J. Importancia cultural de los hongos silvestres útiles en San Pedro Tlalcuapan, Parque Nacional La Malinche, Tlaxcala. Regiones y Desarrollo Sustentable. 2019;17:78–10.

    Google Scholar 

  7. Moreno-Fuentes Á, Garibay-Orijel R, Tovar-Velasco JA, Cifuentes-Blanco J. Situación actual de la etnomicología en México y el mundo. Etnobiología. 2001;1:75–84.

    Google Scholar 

  8. Pérez-Moreno J, Martínez-Reyes M, Hernández-Santiago F, Ortíz-López I (2020) Climate change, biotechnology, and Mexican neotropical edible ectomycorrhizal mushrooms. In: Pérez-Moreno J, Guerin-Laguette A, Flores-Arzú R, Qiang-Yu (eds) Mushrooms, humans, and nature in a changing world. Springer, Cham, pp 61–91

  9. Ruán-Soto F, Garibay-Orijel R, Cifuentes J. Process and dynamics of traditional selling wild edible mushrooms in tropical Mexico. J Ethnobiol Ethnomed. 2006;2:3. https://doi.org/10.1186/1746-4269-2-3.

    Article  PubMed  PubMed Central  Google Scholar 

  10. Garibay-Orijel R, Ruan-Soto F. Listado de los hongos silvestres consumidos como alimento tradicional en México. In: Moreno-Fuentes Á, Garibay-Orijel R (eds) La Etnomicología en México. Estado del Arte. México D.F: Red de Etnoecología y Patrimonio Biocultural (CONACYT)-Universidad Autónoma del Estado de Hidalgo-Instituto de Biología UNAM-Sociedad Mexicana de Micología-Asociación Etnobiológica Mexicana A.C.-Grupo Interdisciplinario para el Desarrollo de la Etnomicología en México-Sociedad Latinoamericana de Etnobiología. México, D.F., pp 91–112 (2014)

  11. Ruan-Soto F. 50 años de etnomicología en México. Lacandonia. 2007;1:97–108.

    Google Scholar 

  12. Ruan-Soto F, Ordaz-Velázquez M. Aproximaciones a la etnomicología maya. Revista Pueblos y Fronteras. 2015;10:44–69.

    Article  Google Scholar 

  13. Garibay-Orijel R, Caballero J, Estrada-Torres A, Cifuentes J. Understanding cultural significance, the edible mushrooms case. J Ethnobiol Ethnomed. 2007;3:4.

    Article  PubMed  PubMed Central  Google Scholar 

  14. Haro-Luna MX, Ruan-Soto F, Guzmán-Dávalos L. Traditional knowledge, uses, and perceptions of mushrooms among the Wixaritari and mestizos of Villa Guerrero, Jalisco, Mexico. J Ethnobiol Ethnomed. 2022;10:16.

    Google Scholar 

  15. El GG. uso tradicional de los hongos sagrados: pasado y presente. Etnobiología. 2011;9:1–21.

    Google Scholar 

  16. Łuczaj Ł. Descriptive ethnobotanical studies are needed for the rescue operation of documenting traditional knowledge. J Ethnobiol Ethnomed. 2023;19:37.

    Article  PubMed  PubMed Central  Google Scholar 

  17. Wolff P, Medin DL, Pankratz C. Evolution and devolution of folkbiological knowledge. Cognition. 1999;73(2):177–204.

    Article  CAS  PubMed  Google Scholar 

  18. Moreno-Fuentes Á, Garibay-Orijel R. Introducción al estado del arte. In: Moreno-Fuentes Á, Garibay-Orijel R (eds) La Etnomicología en México. Estado del Arte. México D.F: Red de Etnoecología y Patrimonio Biocultural (CONACYT)-Universidad Autónoma del Estado de Hidalgo-Instituto de Biología UNAM-Sociedad Mexicana de Micología-Asociación Etnobiológica Mexicana A.C.-Grupo Interdisciplinario para el Desarrollo de la Etnomicología en México-Sociedad Latinoamericana de Etnobiología. México, D.F., pp 3–14 (2014).

  19. Ramírez-Carbajal E, Etnomicología en la zona tlahuica-pjiekakjoo del estado de México. Tesis de licenciatura. Estado de México. Universidad intercultural del estado de México. México (2017).

  20. Servín-Campuzano LS, Alarcón-Cháires PE. Conocimiento tradicional de los hongos silvestres comestibles en la comunidad p’urhépecha de Comachuén, Nahuatzen, Michoacán. Acta universitaria. 2018;28:15–29.

    Article  Google Scholar 

  21. Montoya A, Briones-Dumas E, Núñez-López RA, Kong A, Ortíz-Hernández V, Moreno-Fuentes Á. Los hongos conocidos por la comunidad Yuhmu de Ixtenco, Tlaxcala, México. Scientia Fungorum. 2019;49:1–15.

    Article  Google Scholar 

  22. Rodríguez-Muñoz G, Zapata-Martelo M, Rodríguez M, Vázquez-García V, Martínez-Corona B, Vizcarra-Bordi I. Saberes tradicionales, acceso, uso y transformación de hongos silvestres comestibles en Santa Catarina del Monte, Estado de México. Agricultura, Sociedad y Desarrollo. 2002;9:191–207.

    Google Scholar 

  23. Shepard GH, Arora D, Lampman A. The grace of the flood: classification and use of wild mushrooms among the Highland Maya of Chiapas. Econ Bot. 2008;62:437–70.

    Article  Google Scholar 

  24. Moreno-Fuentes A. Estudio Etnomicológico Comparativo entre Comunidades Rarámuris de la Alta Tarahumara, en el Estado de Chihuahua. Tesis. UNAM. México, DF, México (2002).

  25. Flores-Villela O, Gerez P. Biodiversidad y conservación en México: vertebrados terrestres, vegetación y uso del suelo. Comisión Nacional para el Conocimiento y Uso de la Biodiversidad (CONABIO) and Universidad Nacional Autónoma de México (UNAM), México, D.F. (1994).

  26. Villaseñor JL. Checklist of the native vascular plants of Mexico. Rev Mex de Biodivers. 2016;87:559–902.

    Article  Google Scholar 

  27. Raymundo-Ojeda T, Valenzuela Garza R, León Avendaño HH, Gay González AD, García Jiménez J, Bautista Hernández S, et al. Hongos. In: Gómez Hernández CV, Nájera Cordero KC, Cruz Medina J (eds) Comisión Nacional para el Conocimiento y Uso de la Biodiversidad. Mexico, pp 45–61 (2022).

  28. Garibay-Orijel R. Los nombres zapotecos de los hongos. Rev Mex de Micología. 2009;30:43–61.

    Google Scholar 

  29. Ruiz-Almenara C, Gándara E, Gómez-Hernández M. Comparison of diversity and composition of macrofungal species between intensive mushroom harvesting and non-harvesting areas in Oaxaca, Mexico. PeerJ (2019)

  30. Ramírez-Cruz V, Guzmán G, Ramírez- GF. Las especies del género Psilocybe conocidas del Estado de Oaxaca, su distribución y relaciones étnicas. Rev Mex de Micol. 2006;23:27–36.

    Google Scholar 

  31. Garibay-Orijel R, Martínez-Ramos M, Cifuentes J. Disponibilidad de esporomas de hongos comestibles en los bosques de pino-encino de Ixtlán de Juárez, Oaxaca. Rev Mex de Biodivers. 2009;80:521–34.

    Google Scholar 

  32. López-García A, Jiménez-Ruíz M, Pérez-Moreno J. Vocablos relacionados con el recurso micológico en el idioma de la cultura chinanteca de la Sierra Norte del estado de Oaxaca, México. Sci Fungorum. 2017;46:9–18.

    Google Scholar 

  33. Martínez-Carrera D, Morales P, Pellicer-González E, León H, Aguilar A, Ramírez P, Ortega P, Largo A, Bonilla M, Gómez M. Studies on the traditional management, and processing of matsutake mushrooms in Oaxaca, Mexico. Micol Apl Int. 2002;14:25–42.

    Google Scholar 

  34. Montgomery MC. Adaptation under the canopy: coffee cooperative and certification contributions to smallholder livelihood sustainability in Santa Lucía Teotepec, Oaxaca. Missoula: University of Montana; 2019.

    Google Scholar 

  35. INEGI: Censo general de población y vivienda; Oaxaca, perfil sociodemográfico. Mexico, D.F. (2015)

  36. Comisión Nacional para el Conocimiento y Uso de la Biodiversidad (CONABIO): Sistema de Información Biótica 4.5. Manual de Usuario. Fideicomiso Fondo para la Biodiversidad, Oaxaca (2005)

  37. Miranda F, Hernández-Xoconostle E. Los tipos de vegetación de México y su clasificación. Boletín de la Sociedad Botánica de México. 1963;28:29–179.

    Google Scholar 

  38. Burrola-Aguila C, Montiel O, Garibay-Orijel R, Zizumbo-Villarreal L. Conocimiento tradicional y aprovechamiento de los hongos comestibles silvestres en la región de Amanalco, Estado de México. Rev Mex de Micol. 2012;35:1–16.

    Google Scholar 

  39. Domínguez-Romero D, Arzaluz-Reyes JI, Valdés-Valdés C, Romero-Popoca NP. Uso y manejo de hongos silvestres en cinco comunidades del municipio de Ocoyoacac, estado de México. Trop Subtrop Agroecosyst. 2015;18:133–43.

    Google Scholar 

  40. Cano-Contreras E, Medinaceli A, Sanabria OL, Argueta A. Código de Ética para la investigación, la investigación-acción y la colaboración etnocientífica en América Latina. Etnobiología. 2016;14:22–7.

    Google Scholar 

  41. Montoya A, Estrada-Torres A, Caballero J. Comparative ethnomycological survey of three localities from La Malinche volcano, Mexico. J Ethnobiol. 2002;22:103–31.

    Google Scholar 

  42. Ruan-Soto F, Garibay-Orijel R, Cifuentes J. Conocimiento micológico tradicional en la planicie costera del Golfo de México. Rev Mex de Micol. 2004;19:57–70.

    Google Scholar 

  43. Cifuentes J, Villegas M, Pérez-Ramírez L. Hongos. In: Lot A, Chiang F (eds) Manual de Herbario. Consejo Nacional de la Flora de México. A.C. México, D.F., pp 55–64 (1986)

  44. Delgado-Fuentes A, Villegas-Ríos M, Cifuentes J. Glosario ilustrado de los caracteres macroscópicos en Basidiomycetes con himenio laminar. UNAM. México, D.F., p 66 (2005)

  45. Largent D, Johnson D, Watling R. How to identify mushrooms to genus III: microscopic features. California: Mad River Press; 1977.

    Google Scholar 

  46. Vellinga CE. Glosary. In: Bass C, Kuyper TWH, Noordelos ME, Vellinga CE (eds) Flora Agaricina Neerlandica. Critical Monographs on families of agarics and boleti occurring in the Netherland, pp 6–12 (1988)

  47. Guzmán G. Identificación de los hongos comestibles, venenosos, alucinantes y destructores de la madera. Limusa, México D.F. (1977)

  48. Breitenbach J, Kränzlin F. Fungi of Switzerland Vol 2 Non gilled fungi. Mykologia, Lucerne, Switzerland (1986)

  49. Largent DL. How to identify mushroom to genus I, macroscopic features. California: Mad River Press; 1986.

    Google Scholar 

  50. Pegler DN. Agaric flora of Sri Lanka. Kew Bull Addit Ser. 1986;1986(12):328.

    Google Scholar 

  51. Largent DL, Baroni TJ. How to identify mushrooms to genus VI: modern genera. Eureka: Mad River Press Incorporated; 1988.

    Google Scholar 

  52. Breitenbach J. Kränzlin F. Fungi of Switzerland, vol 3. Boletes and agarics Isp Part. Sticher Printing AG. Lucerne, Switzerland (1991)

  53. Alonso-Aguilar LE, Montoya A, Kong A, Estrada-Torres A. The cultural significance of wild mushrooms in San Mateo Huexoyucan, Tlaxcala, Mexico. J Ethnobiol Ethnomed. 2014;10:27.

    Article  PubMed  PubMed Central  Google Scholar 

  54. Likert RA. A technique for development of attitude scales. Arch Psychol. 1932;140:44–53.

    Google Scholar 

  55. R Development Core Team, v. 3.4.2 (2017)

  56. Haro-Luna MX, Ruan-Soto F, Guzmán-Dávalos L. Traditional knowledge, uses, and perceptions of mushrooms among the Wixaritari and Mestizos of Villa Guerrero, Jalisco Mexico. IMA Fungus. 2019;10:16.

    Article  PubMed  PubMed Central  Google Scholar 

  57. Sharma R, Sharma YP, Hashmi SAJ, Kumar S, Kumar-Manhas R. Ethnomycological study of wild edible and medicinal mushrooms in district Jammu, J&K (UT), India. J Ethnobiol Ethnomed. 2022;18:23.

    Article  PubMed  PubMed Central  Google Scholar 

  58. Tonjock RK, Nkengmo-Apiseh A, Mue-Nji T, Neh-Acha A, Mih MA. Species richness and traditional knowledge of macrofungi (mushrooms) in the awing forest reserve and communities, Northwest Region, Cameroon. J Mycol 1–9 (2017)

  59. Ruan-Soto F, Cifuentes J, Garibay-Orijel R, Caballero J. Comparación de la disponibilidad de hongos comestibles en tierras altas y bajas de Chiapas, México, y sus implicaciones en estrategias tradicionales de aprovechamiento. Acta Bot Mex. 2021;128: e1731.

    Google Scholar 

  60. López-García A, Pérez-Moreno J, Jiménez-Ruiz M, Ojeda-Trejo E, Delgadillo-Martínez J, Hernández-Santiago F. Conocimiento tradicional de hongos de importancia biocultural en siete comunidades de la región chinanteca del estado de Oaxaca, México. Sci Fungorum. 2020;50:1–13.

    Article  Google Scholar 

  61. Hernández-Santiago F, Pérez-Moreno J, Cázares-Xoconostle B, Almaraz-Suárez JJ, Ojeda-Trejo E, Mata-MontesdeOca G, Díaz-Aguilar I. Traditional knowledge and use of wild mushrooms by Mixtecs or Ñuu savi, the people of the rain, from Southeastern Mexico. J Ethnobiol Ethnomed. 2016;12:35.

    Article  Google Scholar 

  62. Ríos-García U, Carrera-Martínez A, Martínez-Reyes M, Hernández-Santiago F, Evangelista FR, Díaz-Aguilar I, Olvera-Noriega JW, Pérez-Moreno J. Traditional knowledge and use of wild mushrooms with biocultural importance in the Mazatec culture in Oaxaca, Mexico, cradle of the ethnomycology. For Syst. 2023;32: e007.

    Article  Google Scholar 

  63. Cruz-Acevedo J. Conocimiento tradicional de los nombres de los hongos en la región Mazahua de Zitácuaro, Michoacán, México. Tesis. Universidad Michoacana de San Nicolás de Hidalgo. Morelia, Michoacán (2009)

  64. Mejía-Correa P, Silva-Rivera E, Cano-Asseleih LM, Garibay-Orijel R. Revalorización de los hongos silvestres de la comunidad totonaca de San Antonio Ojital, Papantla, Veracruz: El uso de las metodologías participativas. Árido-Ciencia. 2021;6:9–19.

    Google Scholar 

  65. Cipriano-Anastasio J, López-Mancilla A, Galván-Gutiérrez R, Hernández-Alvarado G, Hernández-Hernández E, Marcos-Méndez R. Introducción al conocimiento de los hongos comestibles en cinco localidades de la Huasteca, Hidalguense, México. Ciencia Huasteca. 2019;14:18–22.

    Google Scholar 

  66. González M. Ethnobotany of the southern tepehuan of Durango, Mexico: I. edible mushrooms. J Ethnobiol. 1991;11:165–73.

    Google Scholar 

  67. Ruan-Soto F, Caballero J, Martorel C, Cifuentes J, González-Esquinca AR, Garibay-Orijel R. Evaluation of the degree of mycophilia-mycophobia among highland and lowland inhabitants from Chiapas, Mexico. J Ethnobiol Ethnomed. 2013;9:36.

    Article  PubMed  PubMed Central  Google Scholar 

  68. Fidalgo O. Conhecimento micológico dos indios brasileiros. Rickia. 1965;2:1–10.

    Google Scholar 

  69. Quiñónez-Martínez M, Ruan-Soto F, Aguilar-Moreno IE, Garza-Ocañas F, Lebgue Keleng T, Lavín-Murcio PA, Enríquez-Anchondo ID. Knowledge and use of edible mushrooms in two municipalities of the Sierra Tarahumara, Chihuahua, Mexico. J Ethnobiol Ethnomed. 2014;10:1–13.

    Article  Google Scholar 

  70. Sitotaw R, Lulekal E, Abate D. Ethnomycological study of edible and medicinal mushrooms in Menge District, Asossa Zone, Benshangul Gumuz Region, Ethiopia. J Ethnobiol Ethnomed. 2020;16:11.

    Article  PubMed  PubMed Central  Google Scholar 

  71. Wang R, Herrera M, Xu W, Zhang P, Pérez-Moreno J, Colinas C, Yu F. Ethnomycological study on wild mushrooms in Pu’er Prefecture, Southwest Yunnan, China. J Ethnobiol Ethnomed. 2022;18:55.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  72. Pérez-Moreno J, Martínez-Reyes M, Yescas-Pérez A, Delgado-Alvarado A, Xoconostle-Cázares B. Wild mushroom markets in Central Mexico and a case study at Ozumba. Econ Bot. 2008;62:425–36.

    Article  Google Scholar 

  73. Tibuhwa DD. Wild mushroom- an underutilized healthy food resource and income generator: experience from Tanzania rural areas. J Ethnobiol Ethnomed. 2013;9:49.

    Article  PubMed  PubMed Central  Google Scholar 

  74. Van Dijk H, Awana N, Kuyper TW. Knowledge and utilization of edible mushrooms by local populations of the rainforest of South Cameroon. J Hum Environ Stud. 2003;32:19–23.

    Google Scholar 

  75. Ruan-Soto F, Cifuentes J, Mariaca R, Limón F, Pérez-Ramírez L, Sierra S. Uso y manejo de hongos silvestres en dos comunidades de la Selva Lacandona, Chiapas, México. Rev Mex Micol. 2009;29:61–72.

    Google Scholar 

  76. Landi M, Salerni E, D’Ambrosio E, Aguanno N, Nucci A, Saveri C, Perini C, Angiolini C. Concordance between vascular plant and macrofungal community composition in broadleaf deciduous forests in central Italy. For-Biogeosci For. 2015;8:1–8.

    Google Scholar 

  77. Tomao A, Bonetb JA, Martínez J, de Miguel S. Is silviculture able to enhance wild forest mushroom resources? Current knowledge and future perspectives. For Ecol Manag. 2017;402:102–14.

    Article  Google Scholar 

  78. Kotowski MA, Molnar Z, Luczaj L. Fungal ethnoecology: observed habitat preferences and the perception of changes in fungal abundance by mushroom collectors in Poland. J Etnobiol Etnomed. 2021;17:29.

    Google Scholar 

  79. Reyes-López RC, Montoya A, Kong A, Cruz-Campuzano E, Caballero-Nieto J. Folk classification of wild mushrooms from San Isidro Buensuceso, Tlaxcala, Central Mexico. J Ethnobiol Ethnomed. 2022;16:53.

    Article  Google Scholar 

  80. Berlín B. Folk systematics in relation to biological classification and nomenclature. Annu Rev Ecol Syst. 1973;4:259–327.

    Article  Google Scholar 

  81. Addi YW, Zhang Y, Ding XY, Guo CA, Wang YH. A study of the plant folk nomenclature of the Yi people in Xiaoliangshan, Yunnan Province, China, and the implications for protecting biodiversity. J Ethnobiol Ethnomed. 2022;18:18.

    Article  PubMed  PubMed Central  Google Scholar 

  82. Molina-Luna NG, Arellanes-Cancino Y. Intercambio de productos en mercados semanales de los valles centrales de Oaxaca, México. Rev Etnobiol. 2016;14:92–9.

    Google Scholar 

  83. Ordóñez MDJ, Rodríguez P. Oaxaca, el estado con mayor diversidad biológica y cultural en México, y sus productores rurales. Ciencias. 2009;91:091.

    Google Scholar 

  84. Jiménez-Ruíz M, Pérez-Moreno J, Almaraz-Suárez JJ, Torres-Aquino M. Hongos silvestres con potencial nutricional, medicinal y biotecnológico comercializados en Valles Centrales, Oaxaca. Rev Mex de Cienc Agríc. 2013;4:199–213.

    Google Scholar 

  85. Heim R. Les champignons divinatoires utilisés dans les rites des Indiens Mazateques, recuellis au cours de leur premier voyage au Mexique, en 1953, por Mme Valentina Pavlovna Wasson et M. R. Gordon Wasson. Comptes Rendus Académie des Sciences de París. 1956;242:965–968.

  86. Huang XF, Shi L, Lin Y, Zhang C, Liu P, Zhang R, Chen Q, Ouyang X, Gao YY, Wang S, Sun T. Pycnoporus sanguineus polysaccharides as reducing agents: self-assembled composite nanoparticles for integrative diabetic wound therapy. Int J Nanomed. 2023;18:6021–35.

    Article  CAS  Google Scholar 

  87. Bautista-González J, Moreno-Fuentes A. Los hongos medicinales de México. In: Moreno-Fuentes Á., y R. Garibay-Orijel (eds) La Etnomicología en México. Estado del Arte. México D.F: Red de Etnoecología y Patrimonio Biocultural (CONACYT)- Universidad Autónoma del Estado de Hidalgo-Instituto de Biología UNAM-Sociedad Mexicana de Micología-Asociación Etnobiológica Mexicana A.C.-Grupo Interdisciplinario para el Desarrollo de la Etnomicología en México-Sociedad Latinoamericana de Etnobiología. México, D.F., pp 145–176 (2014).

  88. Montoya A, Hernández-Tótomoch O, Estrada-Torres A, Kong A, Caballero J. Useful wild fungi of La Malinche Nacional Park, Mexico. Fungal Divers. 2004;17:115–43.

    Google Scholar 

  89. Hewlett BS, Cavalli-Sforza LL. Cultural transmission among Aka pygmies. Am Anthropol. 1986;88:922–34.

    Article  Google Scholar 

  90. Acosta ME, Vignale ND, Ladio AH. Qué saben sobre plantas empleadas en medicina tradicional los niños de una escuela primaria de S. S. de Jujuy, Argentina. Gaia Sci. 2015;9:90–104.

    Google Scholar 

  91. Guissou KML, Mette A, Sankara P, Guinko S. Declining wild mushroom recognition and usage in Burkina Faso. Econ Bot. 2008;62:530–9.

    Article  Google Scholar 

  92. Berkes F, Colding J, Folke C. Rediscovery of traditional ecological knowledge as adaptative management. Ecol Appl. 2000;10:1251–62.

    Article  Google Scholar 

  93. Garibay-Orijel R, Ramírez-Terrazo A, Ordaz-Velázquez M. Women care about local knowledge, experiences from ethnomycology. J Ethnobiol Ethnomed. 2012;8:25.

    Article  PubMed  PubMed Central  Google Scholar 

  94. Ullah TS, Firdous SS, Shier WT, Hussain J, Shaheen H, Usman M, Akram M, Khalid AN. Diversity and ethnomycological importance of mushrooms from Western Himalayas, Kashmir. J Ethnobiol Ethnomed. 2012;18:32.

  95. Mariaca R, Silva-Pérez LC, Castaños-Montes CA. Proceso de recolección y comercialización de hongos comestibles silvestres del valle de Toluca, México. Ciencia Ergo Sum. 2001;8:30–40.

    Google Scholar 

  96. Oso BA. Mushrooms and the Yoruba people of Nigeria. Mycologia. 1975;67:311–9.

    Article  CAS  PubMed  Google Scholar 

  97. Alcántara A. Exclusión e inclusión en la educación superior: el caso de las universidades culturales en México. Inter-Ação (Brasil, Universidad Federal de Goias). 2008;33:151–67.

    Google Scholar 

  98. Martínez-Carrera D, Morales P, Sobal M, Bonilla M, Martínez W. México ante la globalización en el siglo XXI: El sistema de producción-consumo de los hongos comestibles. In: Sánchez JE, Martínez–Carrera D, Mata G, Leal H (eds) El cultivo de setas Pleurotus spp. en México. El Colegio de la Frontera Sur, Tapachula, pp 209–224 (2007).

  99. López-González SP. Transformar nuestro mundo. Derecho global. Estudios sobre derecho y justicia. 2007;2:10–1.

    Google Scholar 

  100. Jiménez-Ruiz A, Thomé-Ortiz H, Espinoza-Ortega A, Vizcarra-Bordi I. Aprovechamiento recreativo de los hongos comestibles silvestres: casos de micoturismo en el mundo con énfasis en México. Bosque. 2017;38:447–56.

    Article  Google Scholar 

  101. Secretaría de Medio Ambiente y Recursos Naturales. Ley General de Desarrollo Forestal Sustentable; Diario Oficial de la Federacion: Mexico City, Mexico, pp 5–52 (2003).

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Acknowledgements

Authors thank the local authorities of Santa Lucia Teotepec, Santo Domingo Chontecomatlan, and San Antonio Otate for permission to conduct interviews and carry out fieldwork in these localities; and Simón Cuevas, Alejandro Rendón, and Felícitas Sánchez for their valuable help as field guides in the Chinanteco, Chontal, and Chatino communities, respectively.

Funding

LGA was supported by CONAHCYT Master’s Grant No. 802155.

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Authors and Affiliations

Authors

Contributions

LGA designed the project, conducted the interviews, collected fungal samples, analyzed the data, interpreted the results, prepared the figures and tables, and wrote the first draft of the manuscript. MGH designed the project, analyzed the data, interpreted the results, prepared the figures and tables, reviewed and corrected the drafts of the work, and approved the final manuscript. EGZ designed the project, reviewed and corrected drafts of the work, and approved the final manuscript.

Corresponding authors

Correspondence to Marko Gómez-Hernández or Etelvina Gándara.

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Ethics approval and consent to participate

The approval and consent to conduct interviews and obtain information from the inhabitants of Santa Lucia Teotepec, Santo Domingo Chontecomatlan, and San Antonio Otate were given by the local authorities C. Francisco Sánchez, C. Jorge Menzoda Mejía, and the Supervisory Board, respectively, as well as the people interviewed.

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Not applicable.

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The authors declare that they have no competing interests.

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Supplementary Information

Additional file 1

. Ethnomycological questionnaire. Questionnaire used to obtain information about the biocultural importance of wild mushrooms in the studied indigenous communities.

Additional file 2

. Macromycete species collected for identification. The file includes species list, voucher numbers, sampling localities, and vegetation types.

Additional file 3

. Sociocultural information and known species. The data include the age, level of schooling, gender, spoken language (Spanish, indigenous), and the number of known species per interviewee.

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López-García, A., Gómez-Hernández, M. & Gándara, E. Variation in traditional knowledge of culturally important macromycete species among three indigenous communities of Oaxaca, Mexico. J Ethnobiology Ethnomedicine 20, 38 (2024). https://doi.org/10.1186/s13002-024-00679-8

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