- Open Access
Traditional climate knowledge: a case study in a peasant community of Tlaxcala, Mexico
Journal of Ethnobiology and Ethnomedicine volume 12, Article number: 33 (2016)
Traditional climate knowledge is a comprehensive system of insights, experiences and practices used by peasant communities to deal with the uncertainties of climate conditions affecting their livelihood. This knowledge is today as relevant in the Mesoamerican and Andean regions as it is in Europe and Asia. Our research sought to analyze the traditional knowledge about the weather and climate in a rural village of the state of Tlaxcala, Mexico, and its importance in decision-making in agriculture.
Through 30 interviews and participant observation in the community during 2013, information was gathered about traditional climate and weather indicators and prediction tools, as well as rituals and agronomic and agroforestry strategies. This information allowed for the reconstruction of the community’s agro-festive calendar. Data analysis was carried out with the help of the qualitative analysis software Atlas.ti (version 7).
The socio-ecological importance of traditional knowledge about the climate lies in its ability to forecast local weather conditions and recognize climate variations, so vital to the food security of rural families. Knowledge about climate predictors is exchanged and passed on from generation to generation, contributing to the preservation and promotion of biodiversity. By observing the behavior of 16 animals and 12 plant species (both domestic and wild) as well as seven astronomical indicators, villagers are able to predict rain, dry weather and frosts. However, the continuity of this traditional knowledge in the community under study is now compromised by the little interest in agriculture characteristic of the younger generations, the ensuing abandonment of the countryside, the widespread economic crisis and the disappearance of animal and plant species.
Traditional climate knowledge includes the understanding of weather events and weather changes at different time scales (hours, days, weeks, and seasons). The ability to interpret weather events thanks to the accumulated knowledge about the climate through generations may prove today a relevant tool for improving agricultural practices and dealing with local and global socio-ecological changes.
Global changes intensify and become increasingly more uncertain, the risks to human life multiply. Agriculture, fishing, and other subsistence activities are currently vulnerable to local climate change impacts [1, 2]; For instance, variations in rainfall regimes have led to a reduction in agricultural production during relatively long periods and increased the probability of failure in short-term cropping . Similarly, the rises in average global temperatures favor the proliferation of weeds and pests at the expense of wanted crops .
Studies on the impacts of climate change on water resources, rainfall patterns, biodiversity and agro-biodiversity suggest that changes will be more intense for developing countries [5, 6] where special ecological conditions, rural poverty and hunger due to the unequal distribution of income, land and water, threaten the continuity of small rural production systems [7–9].
To address this situation, a number of political and technological adaptive responses have emerged, of which the most well-known are those proposed by international organizations such as FAO and IPCC [7, 10]. However, little attention has been given to the local knowledge about climate dynamics accumulated by peasants through the centuries, and their reactions to the present state of affairs. Concern about variations in climate dynamics has been present in human cultures since time immemorial . Around the world, local peoples have developed environmental knowledge systems that have allowed them to continuously produce the food necessary for survival under different and varying conditions .
Local experiences of climate include detailed observations at different scales in time and space, and are useful as a complement to instrumental climatic data . Traditional Climate Knowledge (TCK) has been constructed through detailed observations of the environment, such as the behavior of animals, changes in the morphology and the physiology of plants, patterns in the formation and properties of clouds, the appearance of the moon and other celestial bodies, and other meteorological phenomena that are useful to climate prediction [14–16].
In agriculture, the anticipation of the arrival of the rainy season and the amount and intensity of rainfall, as well as the occurrence of frosts and drought is of great importance to avoid catastrophes. Traditional climate-prediction skills are diverse, based on multiple signs and sources of information, and they influence the decisions and practices associated with growth cycles, the varieties of crops that should be managed, and other agronomic, forestry and fishing activities . Anticipating or predicting the weather involves not only the observation of nature, but also an interpretation of its elements and processes, necessary to formulate the best guess about future climate conditions .
Although the patterns of TCK in the Mesoamerican and the Andean regions are similar to those found in Europe and Asia , each socio-ecological context possesses its own characteristics and deserves close scrutiny. Included in the traditional knowledge about the climate are propitiatory rituals associated with religious beliefs and social mores, through which petitions for good times are made to different divinities and gods . Peasants use traditional climate predictors (TCP) to forecast weather events in the next hour, day, week or season by means of an interpretation about climate constructed in the long term [16, 18, 21, 22]. Climate and weather prediction and the propitiatory rituals and beliefs associated to it are the products of many years of careful observation, and experience. This knowledge, passed on from generation to generation, continues to be relevant to the success of productive activities .
Studies in Ethnoecology, Ethnoclimatology, Ethnometeorology, Agronomic Sciences and Environmental Anthropology have been documenting the beliefs, insights, knowledge and actions of human societies in relation to climate in the short, medium and long terms [16, 18, 19]. TCK includes the duration and intensity of rainfall, drought, frost, and wind and their influence on farming decisions and in other primary productive activities [21–24].
This study was conducted in El Carmen Tequexquitla, Tlaxcala. It is the first of its kind in the area, although there are some publications concerning the neighboring Puebla-Tlaxcala Valley [16, 20, 22]. Endowed with a semi-arid landscape and a severe climate with a high incidence of autumn frosts , the site was selected for its vulnerability to the effects of climate change given the high levels of environmental degradation prevalent in the area, due to deforestation, land use change and the intensification of agricultural practices .
The study’s main objective was to analyze the theory and practice of traditional climate prediction in El Carmen Tequexquitla and the way this knowledge is constructed. We documented in particular: i) the existing traditional knowledge about the environmental factors associated to climate, ii) the elements for climate prediction and their relations to agricultural practices, iii) the current state of knowledge about the climate and the factors and processes influencing its transmission, and iv) the influence of traditional meteorological prediction on future agricultural management decisions in the context of climate change.
The municipality of El Carmen Tequexquitla in the state of Tlaxcala spreads over an area of 58.5 km2 amid the Balsas and Atoyac river basins on the Mexican Transversal Neovolcanic Axis . It comprises five communities (Guadalupe, Vicente Guerrero, Temalacayuca, La Soledad and Mazatepec) with a total population of 15,368 people . In El Carmen Tequexquitla only 769 people (0.5 %) speak Nahuatl and the rest of the population speaks only Spanish . However, plants, animals and places are named in both Nahuatl and Spanish  (Figs. 1 and 2).
The municipality is located between 2,400 and 2,700 masl, with mean annual temperatures ranging from 12 to 16 °C, and mean annual rainfall from 420 to 520 mm . The dominant vegetation is dry scrub, an ecosystem with different kinds of succulent and thorny shrub plants, with some trees and shrubs such as tlaxcas and sabinos (Juniperus flaccida Schltdl. and Juniperus deppeana Steud.) and izotes (Yucca ssp.), and pine forests dominated by pinyon pine (Pinus cembroides Zucc.) [31, 32].
In preparation for fieldwork, the ejido and municipal authorities of El Carmen Tequexquitla were contacted to: i) assess the relevance of our study on the existing local knowledge about the climate; ii) discuss the importance of sharing this knowledge, and iii) seek the support of the authorities on fieldwork logistics and the conduction of the interviews. The commitment was established at these interviews to share the research findings with the community in the form of both a written report and a presentation on the current status of the local knowledge about the climate and the environment, its importance and the threats it presently faces. These actions led to the construction of strong links between the researchers and the local people, whose collaboration with the project helped reinforce in them an attitude of commitment and respect necessary for collaborative learning. In order to document and understand traditional knowledge about the climate, we used a qualitative-interpretive research approach that allowed for the examination of the subjects’ own perspectives about the research topic .
Compilation of data
During the first visits to the community, we sought to identify our initial key subjects, namely those considered ‘experts’ in climatic indicators. A total of 30 semi-structured interviews were conducted with an equal number of persons. All interviews were audio recorded for further analysis. The selection of interviewees followed the “snowball method”, by which an informant or group of key informants lead to other individuals who possess information relevant to the study [34, 35]. Sample size was determined through “theoretical saturation”, which prevents data repetition and ensures its representativeness .
Participant observation, on the other hand, allowed us to interact with people while conducting their daily activities. During 2013 we accompanied our informants to their agricultural plots and forest areas to identify climate predictors and to learn about their use and their purpose in agricultural activities. Finally, we carried out a participatory workshop in order to reconstruct the community’s agro-festive calendar. We recorded the agricultural practices and social activities associated to the cycles of maize production. The agro-festive calendar was of great help in identifying the climatic, agricultural and astronomic elements involved in the organization of activities and festivities in an integrated view of natural phenomena, decision-making processes and socio-cultural activities related to agricultural practices. The workshop proceeded with open questions emphasizing the meteorological knowledge possessed by the participants, including: i) the identification of climatic indicators in the local environment; ii) the propitiatory rituals associated to rain and the prevention of frosts; iii) the timing of events and indicators; iv) the factors that influence local knowledge about the climate, and v) the relationship between all of the above .
Qualitative data from interview transcripts and field notes were analyzed by way of an Atlas.ti computer program (version 7), which facilitates data storage and particularly the coding and construction of categories, leading to the identification of the aspects that are relevant to the informants. Through such analysis, it is possible to systematize and interpret the meanings assigned by people to environmental and social phenomena .
Results and discussion
Traditional climate knowledge
In El Carmen Tequexquitla peasants have observed and experienced different biotic and abiotic phenomena. According to the people interviewed, the most important weather events influencing agriculture in the region are frosts, drought, rain and wind. Frosts are particularly destructive, although other phenomena also affect crops in varying degrees. An opportune prediction of climate variability in the short, medium and long term is therefore crucial to safeguard the food security and economy of rural families. Knowledge about the climate and its influence on agricultural activities has been of vital importance for social and cultural reproduction in rural contexts . Climate predictions lead to a variety of strategies, including propitiatory rituals and changes in agronomic practices .
Through their continuous observations and experiences, peasants have learned to identify what they recognize as “signs of nature” in different phenomena associated to weather, and they have used those signs as climate predictors. They know how a particular kind of weather relates to particular changes in the components, phenomena or processes of an ecosystem or the general environment along the agricultural cycle. Through a ‘reading’ of the environmental signs related to climate , people are capable of predicting a “good” or a “bad” year (a definition relative to the regularity or irregularity of rains and the occurrence of drought or frosts). Similar information has been published for other communities on the Puebla-Tlaxcala valley [16, 22] and other parts of the world [13, 15, 19, 21, 39].
In El Carmen Tequexquitla, the observation of natural indicators during the first five calendar months (January to May) allows peasants to predict major meteorological trends for the remaining months of the year relevant to the agricultural cycle. This information is complemented with more detailed observations of TCP during the months of crop development. Throughout the agricultural cycle people pay attention to “signals” of possible atypical situations. Such indicators are used for short-term prediction of possible variations in climate from one day to another, and up to one week.
Inventory of traditional climate predictors
The observation of climate predictors is a useful skill inherited from past generations, and the large number and variety of indicators recognized by the people interviewed in the study attest to its relevance (See Tables 1, 2 and 3). A total of 29 species of plants and animals (domestic and wild) were recorded, in addition to seven astronomical events used as climate predictors (Table 4). With this information we proceeded to build one of the most detailed descriptions of TCP in Mexico [15, 16, 18, 40].
Wild and cultivated plants are used for climate prediction. Their observation takes place mostly at the time of agricultural activities, from January to August (Table 1). These plants are commonly found inside or around the agricultural plots, and they are part of the region’s agroforestry systems. A total of 12 plant species were mentioned during the interviews, the most common and significant among them being the izote (Yucca sp.) and sotol (Dasylirion sp.). In these two species, blooming is the climate predictor that most of the interviewees identified. The emergence in izote of a large number of palmos (flowering shoots) indicates the arrival of abundant rains, whereas its incipient flowering indicates unfavorable conditions. As for the sotol, its abundant flowering is indicative of hard times with scarce rain. The early blooming of species like peach, plum and capulín (Prunus serotina Ehrh.) indicates the arrival of “good weather” (buen tiempo) with regular rainfall. Conversely, a late blooming indicates “bad weather” (mal tiempo), irregular rainfall or the appearance of frost during the growth cycle of maize. Other indicators are described in Table 1.
Animal-based predictors were the “signs” most frequently mentioned in relation to weather conditions. A total of 16 different species were mentioned, of which the most relevant were the gopher (Geomys mexicanus B.) and birds such as wren (Troglodytes aedon V.), thrasher (Toxostoma curvirostre S.), swallow (Hirundo rustica L.) and pashira, an unidentified species (Table 2). As in the case of plant species, wild and domesticated animals are used for predicting variations in the weather. They are commonly found near the homes, which facilitates their continuous observation and the inventory of their features. For instance, the trembling of a horse (Equus ferus caballus L.) in the evenings is a sign that a frost is about to fall. Similarly, when a goat (Capra aegagrus hircus L.) shows a cheerful and impetuous behavior, it is signaling “good weather” (i.e., sufficient rain for the growth of crops), while passive or sad behavior in both these animals indicate the cessation of rains and the possible occurrence of frosts or drought (Table 2).
Predictors of this kind relate directly to changes in atmospheric conditions affecting the appearance of the sky, the water bodies and streams, and the type, intensity and direction of the winds. Such changes are clearly visible, and local people consider them as clear signs. The moon has two functions as climate predictor: When completely white, abundant rainfall can be expected, while beige tones are indicative of a dry season. If the moon is tilted towards the south, there will be rain; when sloping north, it indicates dry weather (Table 3). According to the people interviewed, the moon cycles, locally called dietas de la luna define good or bad harvests. During full moon the incidence of pests such as the maize weevil (Sitophilus zeamais Motschlsky) decreases, and plants are provided with the necessary strength to grow. Thus, along with climate prediction, an astronomical event indicates the time of sowing. In connection with this, one woman peasant mentioned that: “You see, the seed is not planted during tender moon because it does not germinate and becomes rot, and if one will were to also harvest during the tender moon the seeds will not mature” 2013). There are other important predictors like serpiente de agua (water snake), a cloud that appears at ground level leaving moisture in the soil, which indicates the arrival of rains (Table 3).
Traditional worldview of the climate
Along with TCP, in El Carmen Tequexquitla people use intangible resources to deal with uncertain climatic events, including those belonging to the set of beliefs or conceptions about the world and the elements that are part of it, i.e., their worldview or Kosmos . Every peasant family performs some rituals that serve as a link between productive activities and their spirituality and religious inclinations [18, 20] (Fig. 3).
In the community studied, the climate is associated with a large number of saints and ceremonies whose role is to intercede for “good weather”. For example, rainfall on the day of San José (19 March) beacons a good harvest, while unstable weather on the day of San Miguel (29 September) is a fateful sign (Fig. 3). Traditional climate knowledge is a complex set of beliefs, experience and practices that cannot be understood separately, but must be considered as an integral whole within a particular space, time and human context. This is how in El Carmen Tequexquitla people practice and recreate their agricultural wisdom and knowledge.
Socio-ecological relevance of TCK
For the local people interviewed, knowing how the climate works was very important in the context of rural life, as it allows them to: i) forecast local climate variations, ii) enhance the food security of their families, iii) establish an inter-generational dialogue, and iv) maintain bio-cultural diversity.
Local weather forecast
Our research results illustrate the enormous importance TCP has for agriculture and other primary productive activities, not only for the intrinsic value of this wide and deep knowledge about meteorological signs, but because this knowledge is part of traditional ecological knowledge up keeping, renewed from one generation to another. For older peasants in particular, who depend entirely on seasonal agriculture, knowing about climate variations and how to predict them means to be a “good peasant” or an “expert peasant”, with a greater probability of success in agricultural activities.
The people of El Carmen Tequexquitla are aware of the importance of preserving TCK and their time-honored predicting methods, including the understanding of climatic and meteorological indicators. This knowledge is preserved through an inter-generational dialogue that strengthens both family and social ties and cooperation among peasants. However, as in many other areas of rural Mexico, today the communities of El Carmen Tequexquitla find it difficult to make a living out of farming and have decided to look for opportunities elsewhere.
Food security in El Carmen Tequexquitla
TCP for the prevention of possible negative outcomes in agriculture, along with other activities that ensure a good food harvest or mitigate the effect of natural disasters on crops, conform a set of strategies to deal with uncertainty, and play a key role in guaranteeing the food security of the community.
Socio-ecological resilience and the preservation of bio-cultural diversity
The knowledge and use of TCP has also favored the conservation of ecosystems and the promotion of biodiversity. For weather prediction purposes, preserving plant and animal species and the spaces where they live is essential. Adult and elderly peasants believe that the promotion of this knowledge among young peasants will contribute to the conservation of such diversity. Naturally, the more accurate predictions are, the more interest will they elicit in young farmers in preserving the knowledge about the species of predictors and meteorological events, thereby contributing to bio-cultural conservation. Furthermore, in order to reduce the risk of major losses in food production in the future, young peasants will in turn develop strategies for the prevention, mitigation and adaptation to possible climatic variations. Socio-ecological resilience (i.e., the ability to cope with environmental contingencies and recover from them through different practices) depends on traditional meteorological knowledge and the risk-prevention practices generated from them [16, 42].
Processes that influence traditional climate knowledge in El Carmen Tequexquitla
People’s perception about the loss of traditional knowledge (or what in El Carmen Tequexquitla is called “the knowledge of the past”) varies considerably according to the age of the peasants, the time they devote to agriculture, their origin and their contact with city life. However, everybody agrees that “things are not as they used to be” and that agricultural practices are in danger of disappearing along with those who practice them. What follows is a description of the general factors believed by peasants to directly affect the current state of local knowledge.
Severe weather changes
According to peasants, this is one of the factors that dissuade them from using the accumulated knowledge about the climate and the environment, including their associated predictors, as the weather seems to change more dramatically each year and prediction becomes even more difficult to use and increasingly less reliable for making decisions about agricultural activities.
Young people’s disinterest in agriculture and the abandonment of the countryside
Young people of El Carmen Tequexquitla have begun to emigrate to a variety of places, from the nearest cities like Tlaxcala to places abroad in search of better education or work. This situation, along with an existing lack of interest in agricultural activities, has led to the abandonment of productive areas in recent times. The physical exertion associated to agricultural tasks along with the falling prices of products (maize, wheat, barley) in the market, have made agriculture an altogether ungenerous economic activity and an increasingly unattractive occupation for the young.
Widespread economic crisis
In the communities under study, peasants point to the national economic crisis as determinant to the current abandonment of agriculture and the loss of knowledge associated with it. They see the rural sector as forgotten and neglected by the federal and state governments, as well as other relevant decision makers. The high cost of agricultural inputs, the fall in labor wages and produce prices and the lack of government support are, in their opinion, some of the factors that trigger agricultural abandonment. This situation is in tune with the findings of a study about the rural sector in Latin America  where, according to the authors, between 1990 and 2005 poverty levels ranged around 35 million people.
Disappearance of species used for weather prediction
Peasants recognize that many of the species used for weather prediction are disappearing, including swallows and other migratory birds. These species have been affected by both hunting and the disappearance of their habitats, and many of them have been forced to alter their migration routes even as they see their populations dwindle.
The findings in this study lead us to argue that traditional knowledge systems about the climate and the environment (as well as other knowledge systems and practices of peasants and native peoples) provide their users with the necessary tools to adapt to the peculiarities of a given environment.
Traditional knowledge about the climate remains an almost unexplored area of study in Mexico, despite their bearing on the development and dynamics of its original peoples. This study demonstrates the importance this knowledge has for those who engage in agricultural activities in the municipality under study, and probably beyond. TCK and TCP are part of the “toolbox” that peasants possess to carry out agricultural practices, and further in-depth studies could open up new spaces for decision-making in view of the ongoing processes of climate change and weather variability at the local level. A list of species and their attributes could be composed and applied to this very purpose, as well as to other conservation strategies.
TCK is part of the immaterial wealth of peasants and original peoples of Mexico, which, despite its enormous importance, is in danger of extinction due to a number of processes associated with the modernization of the rural world and the little value generally accorded to rural traditional knowledge. Such trend can be broken and even reversed, provided steps are taken to recover traditional knowledge and strengthen rural peoples’ dignity and their rights to maintain their livelihoods.
Traditional Climate Predictors
Traditional Climate Knowledge
Food and Agriculture Organization of the United Nations
Intergovernmental Panel on Climate Change
Economic Commission for Latin America and the Caribbean
Howden M, Soussana J-F, Tubiello F, Chhetri N, Dunlop M, Meinke H. Adapting agriculture to climate change. PNAS. 2007;104:19691–6. doi:10.1073/pnas.0701890104.
Intergovernmental Panel on Climate Change Working Group II (IPCC-II) (2007), 4th. Assessment report: Impacts, adaptation, and vulnerability-summary for policy makers. Available: http://www.ipcc.ch/pdf/assessment-report/ar4/wg2/ar4-wg2-spm.pdf (June 2016).
Correa S. Procesos culturales y adaptación al cambio climático: la experiencia en dos islas del Caribe colombiano. Bol Antropol. 2012;27(44):204–22.
Magrin G. Agricultura y cambio climático global. Costa Rica: Ministerio de Agricultura y Ganadería de Costa Rica; 2008.
Landa R, B. Ávila y M. Hernández. Cambio Climático y Desarrollo Sustentable para América Latina y el Caribe. Conocer para Comunicar. México D.F.: British Council, PNUD México, Cátedra UNESCO-IMTA, FLACSO México; 2010. 140 pp.
Galindo L, Samaniego J, Alatorre J, Carbonell J. Precesos de adaptación al cambio climático: Análisis de América Latina. Chile: Comisión Económica para América Latina y el Caribe (CEPAL); 2014.
Organización de las Naciones Unidas para la Alimentación y la Agricultura & Agencia Alemana de Cooperación Técnica (FAO & GIZ). Herramientas para la adaptación y mitigación del cambio climático en el sector agropecuario. Lima, Peru. 2012
Comisión Económica para América Latina y el Caribe (CEPAL). Panorama Social de América Latina. Santiago de Chile: Organización de las Naciones Unidas; 2014.
Wheele T, Von Braun J. Climate change impacts on global food security. Science. 2013;341(508):508–14. doi:10.1126/science.1239402.
IPCC. Cambio Climático: impactos, adaptación y vulnerabilidad. Suiza: Grupo Intergumernamental de expertos sobre Cambio Climático; 2014.
Altieri M, Nicholls C. The adaptation and mitigation potential of traditional agriculture in a changing climate. Clim Change. 2013;1-13. 10.1007/s10584-013-0909-y.
Gliessman S. Un enfoque agroecológico en el estudio de la agricultura tradicional. In (Coord.) A. González Jácome, & S. del Amo Rodríguez, Agricultura y sociedad en México: diversidad, enfoques, estudios de caso. México: Plaza y Valdés Editores; 1999. p. 25-26
Orlove B, Chiang J, Cane M. Forecasting Andean rainfall and crop yield from the influence of El Niño on Pleiades visibility. Nature. 2000;403:68–71. doi:10.1038/47456.
González-Jácome A. Cultura y agricultura: transformaciones en el agro mexicano. México: Universidad Iberoamericana, A.C; 2003.
Neff F. Los caminos de aire. Las idas y venidas de los metoros de la Montaña de Guerrero. In (Coord.), E. Katz, M. Goloubinoff, & A. Lammel, Aires y lluvias. Antropología del clima en México. México: Publicaciones de la Casa Chata, CIESAS; 2008. p. 323-341
Avedaño García A. Etnometeorología de los tornados en México: el caso de la renacheria Xaltitla, municipio de Atltzayanca, Tlaxcala. México: Universidad Nacional Autónoma de México. Facultad de Filosofía y Letras. Instituto de Investigaciones Antropológicas; 2012.
Katz E, Goloubinoff M, Lammel A. Antropología del clima en el mundo hispanoámericano. Ecuador: Aby-Yala; 1997.
Lammel A, Goloubinoff M, Katz E. Aires y Lluvia. Antropología del clima en México. México: CIESAS; 2008.
Atúnez de Mayolo E. La previsión del clima en el Sur de Perú. Cusco, Perú: IICA; 1983.
Broda J, Albores B. Graniceros: cosmovisión y meteorología índigenas de Mesoámerica. México: El Colegio Mexiquense, A.C.Instituto de Investigaciones Históricas, UNAM; 1997.
Claverías R. Conocimientos de los campesinos andinos sobre los predictores climáticos: Elementos para su verificación. Puno: 1991.
Miranda-Trejo J, Herrera-Cabrera B, Paredes-Sánchez J, Delgado-Alvarado A. Conocimiento tradicional sobre predictores climáticos en la agricultura de los Llanos de Serdán, Puebla. Tropical and Subtropical Agroecosytems. 2009;10(2):151–60.
Tello García E, Acosta Naranjo R, Saldaña Martínez T. Saberes locales campesinos en la producción agrícola tlaxcalteca: tradición milenaria de la agricultura mesoamericana. México: Colegio de Postgraduados; 2010.
Ulloa A. Perpectivas culturales del clima. Bogotá: Universidad Nacional de Colombia. Falcultad de Ciencias Humanas. Departamento de Geografía; 2011.
Secretaría de Agricultura, Ganadería, Desarrollo Rural, Pesca y Alimentación (SAGARPA). Pronóstico Agroclimático Tlaxcala. Tlaxcala. México, DF: Secretaría de Agricultura, Ganadería, Desarrollo Rural, Pesca y Alimentación, Instituto Nacional de Investigaciones Forestales, Agrícolas y Pecuarias y Secretaría de Fomento Agropecuario; 2012
Hernández Cerda M, Torres Tapia A, Valdez Madero G. Sequía meteorológica. In (Coord.), C. Gay García, México: Una visión hacia el siglo XXI. El cambio climático en México, 28-37. México DF: Instituto Nacional de Ecología; 2000.
Instituto Nacional de Ecología y Cambio Climático (INECC). Sistema de Consulta de las Cuencas Hidrográficas de México. [On line]. Available: http://cuencas.inecc.gob.mx/cuenca/ (May, 2016).
Instituto Nacional de Estadística y Geografía (INEGI): Censo de población y vivienda, 2010. Available: http://www.inegi.org.mx/sistemas/consulta_resultados/iter2010.aspx (June, 2016).
Instituto Nacional de Estadística y Geografía (INEGI): Censo de población y vivienda, 2010. Available: http://www3.inegi.org.mx/sistemas/mexicocifras/default.aspx?e=29 (June, 2016).
Secretaría de Agricultura, Ganadería, Desarrollo Rural, Pesca y Alimentación (SAGARPA). Pronóstico Agroclimático Tlaxcala. Tlaxcala: Secretaría de Agricultura, Ganadería, Desarrollo Rural, Pesca y Alimentación, Instituto Nacional de Investigaciones Forestales, Agrícolas y Pecuarias y Secretaría de Fomento Agropecuario; 2012.
CONABIO. Cuenca Oriental. Available: http://www.conabio.gob.mx/conocimiento/regionalizacion/doctos/rhp_070.html (May, 2016).
Tropicos.org. Missouri Botanical Garden. Available: http://tropicos.org (June, 2016).
Tarrés M. Observar, escuchar y comprender sobre la tradición cualitativa en la investigación social. México, DF: Facultad Latinoamericana de Ciencias Sociales, Colegio de México, Editorial Porrúa; 2004.
Taylor S, Bogdan R. Introducción a los métodos cualitativos de investigación. España: Editorial Paidòs; 1987.
Fuentelsaz C. Calculo del tamaño de la muestra, Matronas Profesión. 2004. p. 5–13.
Glaser B, Strauss A. The discovery of grounded theory: strategies for qualitative research. New York: Aldine; 1967.
PRATEC. Proyecto Andino de Tecnologías Campesinas: calendario agrofestivo en comunidades andino-amazónicas y escuela. Lima, Perú: Bellido Ediciones EIRL; 2006.
Patton MQ. Qualitative research & evaluation methods: Integrative theory and practice. USA: SAGE Publications; 2015.
Chinlampianga M. Traditional knowledge, weather prediction and bioindicators: a case study in Mizoram, Northeastern India. Indian J Tradit Knowl. 2011;10(1):207–11.
González D. Anuncios de tempestad. Cosmovisión y observación de la naturaleza en las predicciones de tiempo entre los zapotecos del Sur de Oaxaca: propuesta para un análisis comparativo. México: Instituto de Investigaciones Antropológicas, UNAM; 2013.
Toledo VM, Barrera-Bassols N. La Memoria Biocultural: La importancia ecológica de las sabidurías tradicionales. Barcelona: Icaria; 2008.
Berkes F, Colding J, Folke C. Navigating social-ecological systems: Building resilience for complexity and change. Cambridge, UK: Cambridge University Press; 2003.
The authors would like to thank the people of El Carmen Tequexquitla, especially Don Melquiades, Don Nereo and Doña Francisca, who were always willing to collaborate with us during the fieldwork., We also take the opportunity to thank our colleagues Yessica Romero, Alexander Fisher, Ana Lilia Torres and Adrián Calleros, whose contributions enriched the content of this work.
The authors acknowledge the institutional support granted by the National Autonomous University of Mexico through its DGAPA 203115 PAPIIT IA program, titled “Manejo etnoagroforestal de la biodiversidad en México: Uso y conservación”. This support proved fundamental to the design of the study, the collection, analysis, and interpretation of data, and the writing of this manuscript.
Availability of data and materials
Data base will not share because it is not an agreement with the Carmen Tequextitla community.
ADRR is the main author. She contributed to the development of this project from its inception to the writing of this report, through planning, fieldwork, interviews and data analysis. AIMC is the main director and coordinator of the research project. AC, AC and ACG, experts in ethnobiology and qualitative methods of analysis, assisted in the writing of this report. All the authors read and approved all contributions as well as the final manuscript.
ADRR is a postgraduate student at the National School of Higher Education (Escuela Nacional de Estudios Superiores) in Morelia, Michoacán. AIMC and ACG are researchers at the same institution. AC and AC are full-time researchers at the Research Institute on Ecosystems and Sustainability of the National Autonomous University of Mexico (Instituto de Investigaciones en Ecosistemas y Sustentabilidad, UNAM).
The authors declare that they have no competing interests.
Consent for publication
The people interviewed were informed about the study’s objectives and the eventual publication of the information gathered, and they were assured that the informants’ identities would remain undisclosed.
Ethics approval and consent to participate
The authors asked for permission from the local authorities and the people interviewed to carry out the study.
About this article
Cite this article
Rivero-Romero, A.D., Moreno-Calles, A.I., Casas, A. et al. Traditional climate knowledge: a case study in a peasant community of Tlaxcala, Mexico. J Ethnobiology Ethnomedicine 12, 33 (2016). https://doi.org/10.1186/s13002-016-0105-z
- Climate prediction
- Propitiatory ritual