Translator Disclaimer
1 March 2017 Actual and Potential Distribution of Five Regulated Avocado Pests Across Mexico, Using the Maximum Entropy Algorithm
Andrea Luna, Víctor López-Martínez, Nidia Bélgica Pérez-De la O, Daniel Jiménez-García, Robert W. Jones, Álvaro Castañeda-Vildozola, César Ruiz-Montiel
Author Affiliations +

Mexican avocado producers face phytosanitary barriers that limit the ability to ship avocados to foreign markets due to concerns about invasion by unwanted pests. The principal regulated pests are the big avocado seed weevil, Heilipus lauri Boheman; the small avocado seed weevils Conotrachelus aguacatae Barber and C. perseae Barber; the branch borer weevil, Copturus aguacatae Kissinger (all Coleoptera: Curculionidae); and the avocado seed moth, Stenoma catenifer Walsingham (Lepidoptera: Elachistidae). In Mexico, distribution information of these pests is largely based on a slow integration of the geographic data. This study was conducted to determine the potential distribution of these 5 insect pests in Mexican avocadogrowing areas by using the maximum entropy algorithm. Distributional data of these insects were obtained from scientific literature, databases, and field collection, and incorporated into the MaxEnt model using 19 global climatic variables and elevation data. Distributional models for Mexico, and geographic interaction with avocado-growing areas of the country, were calculated. Conoctrachelus aguacatae, C. perseae, Copturus aguacatae, and H. lauri showed similar environmental suitability patterns in Mexico, with a potential distribution from central to southern Mexico. High suitability was projected principally in the Trans-Mexican Volcanic Belt and surrounding biogeographic provinces. Stenoma catenifer exhibited an irregular environmental suitability pattern, with preference for western Mexico. Altitude, isothermality, and seasonality of precipitation were the variables that most influenced potential distribution of analyzed species. Geographic interaction with avocado-growing areas ranged from wider (Conoctrachelus aguacatae, C. perseae, Copturus aguacatae, and S. catenifer) to narrow or irregular (H. lauri), but the last species has the potential to invade new geographic areas. For the first time, the geographic distribution of these 5 insect pests was determined based on environmental suitability and their geographic interaction with avocados. These data could support development of management strategies throughout the country, and help focusing surveys and control tactics.

Mexico is the principal producer of avocado, Persea americana Mill. (Lauraceae), with 1,520,695 t harvested in 521,037 ha in 2014 (SIAP 2015). Avocados are consumed mainly as fresh fruits, but they are used in the oil, cosmetic, soap, and shampoo industries (Yahia & Woolf 2011). Fruit consumption is highly recommended due to their nutritional characteristics and their capacity to maximize the absorption and conversion of lipids to vitamin A (Dreher & Davenport 2013; Kopec et al. 2014).

Current trends indicate constant growth for the export market, but countries such as the USA have implemented phytosanitary barriers to minimize the risk of unwanted pest introduction (Stout et al. 2004; Hoddle & Parra 2013). These technical barriers can limit or reduce market access for Mexican avocados (Peterson & Orden 2008).

The insect pests of concern are 4 species of weevils and 1 moth species: the big avocado seed weevil, Heilipus lauri Boheman; the small avocado seed weevils Conotrachelus aguacatae Barber and C. perseae Barber; the branch borer weevil, Copturus aguacatae Kissinger (all Coleoptera: Curculionidae); and the avocado seed moth, Stenoma catenifer Walsingham (Lepidoptera: Elachistidae) (Peña 1988; Castañeda-Vildózola et al. 2007, 2013; Palacios-Torres et al. 2011).

Powerful modeling methods and tools that integrate distribution data and climatic variables are widely used to predict, at the global, country, or local scale, the actual and potential distribution of insect pests (Guisan & Thuiller 2005). The final result is the integration of maps wherein the presence or absence of a particular species is predicted (Gevrey & Worner 2006). These predictions can serve as the basis for planning future monitoring, management, and control strategies. However, for quarantine pests in Mexico, distribution data are largely based on traditional sampling efforts. Environmental suitability maps could be an important tool to support technical and political decisions related to pest management. To contribute in the development of pest risk assessments for fruit culture in Mexico, we applied the maximum entropy algorithm to assess the role of bioclimatic factors in determining the geographic distribution of 5 important insect pest species of avocado, and their interaction with commercial avocadogrowing areas.

Materials and Methods


The distributional data for Conotrachelus aguacatae, C. perseae, Copturus aguacatae, H. lauri, and S. catenifer were obtained from the literature (Champion 1902–1906; Barber 1923; Gibson & Carrillo 1959; Kissinger 1957; Muñiz 1959, 1970; Acevedo et al. 1972; Whitehead 1979; Cabrera & Salazar 1991; Romero et al. 1996; Coria-Ávalos 1999; Velázquez 2001; Castañeda-Vildózola et al. 2007, 2009, 2012, 2013, 2015; Castañeda 2008; Francia 2008; Urías-López & Salazar-García 2008; Hoddle et al. 2011; Palacios-Torres et al. 2011; Castillo et al. 2012; Soto et al. 2013; Payán-Arzapalo et al. 2015; Vázquez et al. 2016), from collection data provided by the Mexican phytosanitary federal agency Servicio Nacional de Sanidad, Inocuidad y Calidad Agroalimentaria (SENASCA), and by field collections conducted by the authors in Morelos, Puebla, and Veracruz. Also, infested fruits were collected for weevil adult emergence under laboratory conditions, and species were determined using the keys published by Barber (1919, 1923), García-Arellano (1975), Whitehead (1979), and Castañeda-Vildózola et al. (2007).

Pest distribution records were incorporated into an Excel© spreadsheet, then the distributional data were reviewed using a gazetter (INEGI 2015) or were georeferenced with Google Earth® v (Google Inc., USA) (López-Martínez et al. 2016a). Geographic coordinates were expressed in decimal degrees (i.e., 21.5164, −104.8942). The final database included 178 records for Conotrachelus aguacatae, 39 records for C. perseae, 122 records for H. lauri, 53 records for S. catenifer, and 14,786 records for Copturus aguacatae (data are available from the authors upon request). The number of records included was considered accurate for calculating species distribution models (Van Proosdij et al. 2015).


We used the maximum entropy algorithm in MaxEnt version 3.3.3 (Phillips et al. 2006) to model various scenarios of potential spread of the avocado pests in Mexico, using default settings with logistic output. Nineteen global climatic variables were downloaded from WorldClim (2015) with 30 arc-second resolution and 90 m resolution elevation data used in the model (Table 1). These bioclimatic variables represent current environmental conditions (1950–2000), are available on global scale, and have finer spatial resolutions. The outcome of the model is quantification of habitat suitability for the species as a function of the input variables (Phillips & Dudík 2008).


Niche model performance was evaluated with the area under the curve (AUC) index (Hernandez et al. 2006; Phillips & Dudík 2008), and were classified according to Swets (1988): AUC 0.90–1.00 = excellent; 0.80–0.89 = good; 0.70–0.79 = fair; 0.60–0.69 = poor; 0.50–0.59 = fail. The Optimal Cutoff Point (PCO) was determined based on the more stringent threshold within MaxEnt (10 percentile training presence). The importance of individual environmental factors for the development of the model was evaluated using the built-in Jackknife.


The global environmental layers were projected in the biogeographic provinces of Mexico, and each modeling ecosystem was interpreted (Guisan & Thuiller 2005). Geographic interactions (the likelihood that the habitat would be suitable for coexistence; López-Martínez et al. 2016b) of the 5 avocado pests and avocado-growing areas in Mexico (SIAP 2015) were calculated with IDRISI 17.0 (Clark Labs, Clark University, USA). For map production, the software ArcMap® 10.3.1. (ESRI Inc., USA) was used. Biogeographic provinces are according to Morrone (2014a); regions and transition zones are based on Morrone (2015).



Four of the 5 insect species under consideration displayed similar environmental requirements. Conoctrachelus aguacatae, C. perseae, Copturus aguacatae, and H. lauri were predicted to occupy similar geographic areas. Only S. catenifer displayed potential to occupy different areas.

Table 1.

Analysis of the contribution (%) of 19 bioclimatic and 1 topographic variablesa to the environmental suitability model of 5 avocado pests in Mexico.


Conotrachelus aguacatae had high environmental suitability in the model output for the central-western region of Trans-Mexican Volcanic Belt province, adjacent areas of Mexican Plateau and Trans-Mexican Volcanic Belt provinces, adjacent areas of Balsas Basin and Trans-Mexican Volcanic Belt provinces, across Sierra Madre del Sur, adjacent areas of Balsas Basin and Sierra Madre Oriental, and central Sierra Madre Oriental biogeographic provinces (Fig. 1A). Medium environmental suitability was calculated in the south-central Mexican Plateau, south of Tamaulipeca, across adjacent areas of Sierra Madre Occidental and the Mexican Pacific Coast, across Sierra Madre Oriental, the eastern Trans-Mexican Volcanic Belt, across Sierra Madre del Sur, and Chiapas biogeographic province. Low environmental suitability was projected in the Mexican Pacific Coast, northern Tamaulipeca, northern Mexican Plateau, northern Sierra Madre Occidental, eastern Sonora, and isolated areas in Baja California. No environmental suitability was calculated in California and Yucatan provinces. Actually, there are no records of this weevil from south of Sierra Madre Occidental in Jalisco or Zacatecas, Sierra Madre del Sur in Oaxaca, Sierra Madre Oriental in San Luis Potosi, and Chiapas provinces; future collections in these regions are needed to confirm this prediction.

For C. perseae, the highest environmental suitability included the Trans-Mexican Volcanic Belt, and adjacent areas of the Trans-Mexican Volcanic Belt with Sierra Madre Occidental, Mexican Pacific Coast, Mexican Plateau, Balsas Basin, Sierra Madre del Sur, and Sierra Madre Oriental provinces. Other areas with high environmental suitability were calculated in an irregular east-west strip (Fig. 1B). Medium environmental suitability was projected in Sierra Madre Occidental, southern Mexican Plateau, central-northern Sierra Madre Oriental, eastern Balsas Basin, southern Sierra Madre del Sur, Chiapas, and isolated areas in Tamaulipeca, Veracruzana, Mexican Pacific Coast, and Baja California. Minimal environmental suitability was projected for isolated areas in Sonora, Mexican Plateau, northern Sierra Madre Occidental, Mexican Pacific Coast, Tamaulipeca, central and southern Veracruzana, eastern Balsas Basin, and Yucatan provinces. According to our model, we predict the potential collection of C. perseae in the western Trans-Mexican Volcanic Belt in Jalisco, Estado de México, Distrito Federal, Morelos, and Tlaxcala, in southern Sierra Madre Occidental in Zacatecas, and in many isolated areas along the Mexican Pacific Coast. We expect future records of this species for Guerrero and more reports for Oaxaca in Sierra Madre del Sur.

High environmental suitability for Copturus aguacatae was calculated in the central-eastern area of Trans-Mexican Volcanic Belt province, adjacent areas of Trans-Mexican Volcanic Belt with Mexican Pacific Coast, Sierra Madre Occidental, Mexican Plateau, Balsas Basin, and Sierra Madre Oriental provinces; and central-eastern regions of Sierra Madre del Sur, adjacent areas of Sierra Madre del Sur with Balsas Basin, and Mexican Pacific Coast provinces (Fig. 1C). Small isolated areas were projected along Sierra Madre Oriental and south-eastern Tamaulipeca provinces. Medium environmental suitability was calculated along Sierra Madre Occidental, southern Mexican Plateau, central and western areas in Trans-Mexican Volcanic Belt, Balsas Basin, adjacent areas of Balsas Basin with Mexican Pacific Coast, adjacent areas of Sierra Madre del Sur with Mexican Pacific Coast, Chiapas, and adjacent areas of Chiapas with Mexican Pacific Coast provinces. Low environmental suitability was projected in a small area south of Baja California, along Sonora, northern and eastern Sierra Madre Occidental, central Mexican Plateau, areas across Mexican Pacific Coast, Chiapas, Veracruzana, and Yucatan provinces. We expect future reports for this species in Guerrero and Oaxaca for Sierra Madre del Sur, Hidalgo and San Luis Potosi for Sierra Madre Oriental, and Chiapas province.

Heilipus lauri had high environmental suitability in central and southern areas of Trans-Mexican Volcanic Belt, adjacent areas of Trans-Mexican Volcanic Belt with Balsas Basin, and Mexican Plateau, eastern areas of Sierra Madre del Sur, adjacent areas of Sierra Madre del Sur with Mexican Pacific Coast, and small areas in central Sierra Madre Oriental (Fig. 1D). Medium environmental suitability was calculated across Trans-Mexican Volcanic Belt, western, northern, and eastern areas of Sierra Madre del Sur, eastern areas of Balsas Basin, Chiapas, and western areas of Yucatan provinces. Low environmental suitability was projected in areas of Sierra Madre Occidental, south-central Mexican Plateau, Sierra Madre Oriental, central-eastern Mexican Pacific Coast, central Veracruzana, and Chiapas provinces. No environmental suitability was calculated in California, Baja California, Sonora, and Tamaulipeca provinces. For big avocado seed weevil, we expect more reports in the future for Sierra Madre del Sur in Guerrero and possibly Oaxaca. Michoacán in Trans-Mexican Volcanic Belt had appropriate environmental suitability for this weevil, but no records for this species have been documented in these areas.

Fig. 1.

Potential distribution of 5 insect pests of quarantine importance in Mexican avocados, based on ecological niche modeling. A) Conotrachelus aguacatae; B) Conotrachelus perseae; C) Copturus aguacatae; D) Heilipus lauri; and E) Stenoma catenifer. Current and potential distribution in Mexico was projected according to biogeographic provinces (Morrone 2005, 2014a), 1 = Baja California, 2 = California, 3 = Sonora, 4 = Sierra Madre Occidental, 5 = Mexican Plateau, 6 = Tamaulipeca, 7 = Mexican Pacific Coast, 8 = Trans-Mexican Volcanic Belt, 9 = Sierra Madre Oriental, 10 = Veracruzana, 11 = Balsas Basin, 12 = Sierra Madre del Sur, 13 = Chiapas, 14 = Yucatan. Scale values: 0 = absence, 1 = presence.


Stenoma catenifer exhibited an irregular environmental suitability pattern (Fig. 1E), with high environmental suitability projected mainly in western Mexico, in adjacent areas of Mexican Pacific Coast, Sierra Madre Occidental, and Trans-Mexican Volcanic Belt provinces. Other areas with high suitability were found along adjacent areas of Trans-Mexican Volcanic Belt with Balsas Basin, Mexican Pacific Coast with Sierra Madre del Sur, and Sierra Madre del Sur with Veracruzana provinces. Medium environmental suitability was calculated south of Baja California, southern Sonora, northern and southern Mexican Pacific Coast, central and southern Mexican Plateau, central areas of Trans-Mexican Volcanic Belt, Balsas Basin, central and eastern Sierra Madre del Sur, and adjacent areas of Chiapas and Veracruzana provinces. Low environmental suitability was calculated in central Baja California, northern Sonora, central Sierra Madre Occidental, northern and southern Mexican Plateau, a small area in Tamaulipeca, northern, eastern and southwestern Sierra Madre Oriental, central Veracruzana, and areas in Balsas Basin, Sierra Madre Oriental, and Chiapas. No environmental suitability was projected in California, Tamaulipeca, and Yucatan provinces. Future records from Trans-Mexican Volcanic Belt could be expected for Jalisco, Michoacán, Estado de México, Morelos, and Puebla, Sierra Madre Occidental in Zacatecas, and Mexican Pacific Coast in Nayarit, Guerrero, Oaxaca.


Performance of all models was considered excellent, with values ranging from 0.92 to 0.99 (Conotrachelus aguacatae = 0.99, C. perseae = 0.99, Copturus aguacatae = 0.92, H. lauri = 0.99, and S. catenifer = 0.99). For the species studied herein, altitude, isothermality (evenness of temperatures), and seasonality of precipitation were the variables that most influenced the potential distribution of these insects (Table 2). These variables measure changes in environmental conditions throughout the year (Aguilar & Lado 2012). For Conotrachelus aguacatae, these 3 variables contributed 72.6% in the calculated model. For C. perseae, these variables were complemented with temperature seasonality and precipitation in wettest month, thus contributing 76.1% in the model. For Copturus aguacatae, mean diurnal range was an additional important factor, and together with the other 3 variables accounted for 79.1% in the predicted model. For H. lauri, the 3 variables plus temperature seasonality contributed 77.0% in the calculated model. For S. catenifer, the 3 variables plus precipitation in the coldest quarter contributed 66.7% in the predicted model.

Table 2.

Potential geographic distribution (ha) of 5 insect pests of quarantine importance in Mexico by federal entity.



According to our study, Conotrachelus aguacatae has a wide potential distribution in the country, and with geographic interaction that could involve avocado-growing areas in Aguascalientes, Chiapas, Colima, Durango, Estado de México, Guanajuato, Guerrero, Hidalgo, Jalisco, Michoacán, Morelos, Nayarit, Nuevo León, Oaxaca, Puebla, Querétaro, San Luis Potosí, Veracruz, and Zacatecas (Table 2; Fig. 2A). Conotrachelus perseae showed a similar distribution pattern as C. aguacatae, but potentially covers a greater number of production areas (Table 2; Fig. 2B).

Copturus aguacatae has a narrow distribution in comparison with both small avocado seed weevils, but it could affect avocado production areas from Nayarit, through central Mexico, to Chiapas. Northern production areas, including Baja California, Veracruz, and Yucatan peninsula, are practically free of this species (Table 2; Fig. 2C).

It seems that H. lauri has a restricted distribution in the country, with isolated populations in commercial avocado plantations from Estado de México, Guerrero, Jalisco, Michoacán, Morelos, Oaxaca, Puebla, and Veracruz (Table 2; Fig. 2D).

Stenoma catenifer is projected to have the widest geographic distribution across the country, from Baja California Sur, central Mexico to Chiapas (Table 2; Fig. 2E), and from Nuevo Leon, and San Luis Potosi joining with Veracruz growing areas. However, avocado production areas in Yucatan seem to be inadequate for S. catenifer.

Fig. 2.

Geographic areas in Mexico where both the insect pest and avocados are found. Shading indicates hectares affected. A) Conotrachelus aguacatae; B) Conotrachelus perseae; C) Copturus aguacatae; D) Heilipus lauri; and E) Stenoma catenifer.



The distribution of species calculated herein coincides with a typical Mexican Transition Zone species (Halffter 1974) and with a Neotropical dispersal pattern (Morrone 2015). The Mexican Transition Zone is considered by Morrone (2014b) as an area of natural endemism for Curculionoidea, where agricultural pests can coevolve with their host (López-Martínez et al. 2016a). It seems that the Mexican Plateau acts as a natural barrier reducing the dispersion of these species to the Nearctic region. However, there are different levels of penetration for these species in Mexican Plateau province, with Conotrachelus aguacatae and C. perseae reaching the maximal potential distribution range including the Mexican Transition Zone in southern Sierra Madre Occidental, Sierra Madre Oriental, and Mexican Plateau. Stenoma catenifer is classified similarly as a Mexican Transition Zone species with a Neotropical dispersal pattern, but in this case, the dispersal pattern is deeply influenced by the Mexican Pacific Coast, with a potential for populations with Nearctic dispersal pattern in Baja California and Sonora provinces.

A natural barrier that likely limits species dispersion is the Mexican geography with several volcanic systems extending across the country, each of which differs in extent, origin, and orientation. The Sierra Madre Occidental volcanic province is extensive, of middle Tertiary origin, running from the southwestern United States to central Mexico (Ferrari et al. 1999). The Trans-Mexican Volcanic Belt is an east-west system, a 1,200 km long, 100 km wide, active, continental volcanic arc (Ego & Ansan 2002). The Sierra Madre Oriental is an eastern, 800 km long, 80 to 100 km wide mountain system, with peaks higher than 2,500 m (Eguiluz et al. 2000). Sierra Madre del Sur is a Pacific marginal mountain system, 1,100 km long, with maximal peaks from 2,600 to 3,200 m (Lugo-Hubp 1990). But in the connection areas of Sierra Madre Occidental, Sierra Madre Oriental, Trans-Mexican Volcanic Belt, and Sierra Madre del Sur, there are valleys and depressions with wide ranges in extent and altitudes. Here is where these orographic elements show 2 effects on regulated avocado pests: creating environmental conditions for natural existence of insects in high altitudinal ranges (≤⃒2,300 m), but limiting dispersion (i.e., H. lauri from Morelos to Michoacán) across physical barriers and into lowlands (<1,000 m).

Avocado is a native fruit in the tropical and subtropical regions of North and South America, with 3 general ecological races: Mexican, Guatemalan, and West Indian (Ayala & Ledesma 2014). This fruit has a deep and old interaction with humans in the Neotropics (Galindo-Tovar et al. 2008). Dispersion of avocado in America was in a north-south direction, with diversity increased by Mesoamerican cultures (Galindo-Tovar et al. 2008). In addition, it is possible to hypothesize a host-pest coevolutionary relationship, with dispersion of the insects following production by Mesoamericans, or more contemporary producers. An additional explanation for the distribution pattern of avocado seed weevils could be the fruit dispersion by large herbivores (fruit consumption and undamaged seed excretion) (Wolstenholme & Whiley 1999).

Altitude is positively associated with the potential distribution of pests of quarantine importance for Mexican avocados, indicating a preference for high altitudes. Ecologically, when a species has a broad altitudinal range, its probabilities for finding suitable environments are high (Harabiš & Dolný 2010). Importantly, this variable is considered as an easy metric for characterizing habitat in the field (Chunco et al. 2013). For Conotrachelus aguacatae and H. lauri, the probability of finding this species increases at 1,500 m altitude. The niche suitability for C. perseae and Copturus aguacatae starts at lower altitudes, about 1,000 m, and increases between 2,000 and 4,000 m. Stenoma catenifer showed only a minor influence of this variable on its distribution, with a strong probability of collecting it only in areas with altitudes ranging between 1,000 and 1,500 m.

Day-to-night temperature oscillations relative to the annual oscillations (isothermality) (O'Donell & Ignizio 2012) is an important weather element in determination of environmental suitability for all species studied herein. This phenomenon was also reported for some other insect pests in Mexico (López-Martínez et al. 2016b).

Avocado fruit growth in Mexico takes 8 to 9 mo, and 2 fruit seasons are recorded in commercial orchards (Cossio-Vargas et al. 2008; Rocha-Arroyo et al. 2011). The principal period of precipitation coincides with fruit harvest (Rocha-Arroyo et al. 2011). The combination of these elements (fruit maturity and rain) seems to be an important factor affecting emergence, mating, host selection (fruit or wood), and oviposition in these avocado pests.

The Mexican avocado industry faces strong phytosanitary pressure from the native avocado pests. The national phytosanitary agency (SENASICA) and local farmers implement local, regional, and national inspections, and pest control measures (cultural, biological, and chemical options) to reduce pest populations (Sangerman-Jarquin et al. 2014). These efforts have resulted in the establishment of pest-free avocado areas (Thiébaut 2010; Martín 2016). However, according to this work, these areas are under constant threat from avocado pest invasions emanating in surrounding production areas.

Potential expansion of the infested areas is a major concern of the avocado industry in Mexico. Conotrachelus aguacatae and C. perseae are principally distributed in central Mexico. However, these species could also inhabit nearby areas, especially orchards with low pest control technology, or live on wild hosts. For species with irregular or patchy distribution (H. lauri and S. catenifer), eradication of these species from avocado-growing regions may be a logical priority.

Environmental suitability, as determined by this study, could be the basis to conduct systematic sampling studies to determine the definite distribution of these species in selected entities such as Nuevo Leon for S. catenifer, and Michoacán for H. lauri. Currently, there are no data to confirm or deny the presence or absence of S. catenifer in Nuevo Leon (Jorge Luis Morales Marín, Comite Estatal de Sanidad Vegetal de Nuevo Leon, Mexico), but the apparent environmental suitability suggests that natural invasion or accidental introduction could occur. The same situation applies to H. lauri in Michoacán.

Finally, Mexico is a place with commercial and wild avocado distributed throughout the country and with a traditional culture of small backyard orchards; for now, the role of these native and backyard trees in avocado pest dispersion is still poorly known. Recently, Castañeda-Vildózola et al. (2013) and Palacios-Torres et al. (2011), reported that backyard orchards may act as reservoirs, allowing natural interactions among different avocado seed borers, as has been reported for H. lauri with C. perseae and H. lauri with S. catenifer. Also, anthropogenic activities such as commerce could facilitate continuous dispersion of these pests into new agroecosystems. Further research is needed to examine these assumptions.


This work was partially supported by the Programa para el Desarrollo Profesional Docente en Educación Superior (DSA/103.5/16/2609). Nidia Bélgica Pérez-De la O received a graduate grant (CONACYT No. 260517). Servicio Nacional de Sanidad, Inocuidad y Calidad Agroalimentaria (SENASICA) kindly provided distribution data.

References Cited


Acevedo E, Vázquez JT, Sosa C. 1972. Estudios sobre el barrenador del hueso y pulpa del aguacate Stenoma catenifer Walsinghan (Lepidoptera: Stenomidae). Agrociencia 9: 17–24. Google Scholar


Aguilar M, Lado C. 2012. Ecological niche models reveal the importance of climate variability for the biogeography of protosteloid amoebae. The ISME Journal 6: 1506–1514. Google Scholar


Ayala T, Ledesma N. 2014. Avocado history, biodiversity and production, pp. 157–205 In Nandwani D [ed.], Sustainable Horticultural Systems. Sustainable Development and Biodiversity, Volume 2. Springer International Publishing, Switzerland. Google Scholar


Barber HS. 1919. Avocado seed weevils. Proceedings of the Entomological Society of Washington 21: 53–60. Google Scholar


Barber HS. 1923. Two new Conotrachelus from tropical fruits. (Coleoptera, Curculionidae). Proceedings of the Entomological Society of Washington 25: 182–185. Google Scholar


Cabrera S, Salazar S. 1991. Cinco años de manejo integrado de la tristeza (Phytophthora cinnamomi Rands) del aguacate y su efecto sobre los daños causados por el barrenador de ramas (Copturus aguacatae). Revista Mexicana de Fitopatología 9: 38–43. Google Scholar


Castañeda Á. 2008. Bioecología del barrenador grande de la semilla del aguacate Heilipus lauri Boheman (Coleoptera: Curculionidae) en la región central de México. Unpublished Ph.D. thesis, Instituto de Fitosanidad, Colegio de Postgraduados, Montecillo, México. Google Scholar


Castañeda-Vildózola A., Valdez-Carrasco J, Equihua-Martínez A, González-Hernández H, Romero-Nápoles J, Solís-Aguilar JF, Ramírez-Alarcón S. 2007. Genitalia de tres especies de Heilipus Germar (Coleoptera: Curculionidae) que dañan frutos de aguacate (Persea americana Mill) en México y Costa Rica. Neotropical Entomology 36: 914–918. Google Scholar


Castañeda-Vildózola A, Del Ángel-Coronel OA, Cruz-Castillo JG, Valdez-Carrasco J. 2009. Persea schiedeana (Lauraceae), nuevo hospedero de Heilipus lauri Boheman (Coleoptera: Curculionidae) en Veracruz, México. Neotropical Entomology 38: 871–872. Google Scholar


Castañeda-Vildózola Á, Equihua-Martínez A, Franco-Mora O, González-Huerta A, Palacios-Torres RE. 2012. Longevidad, fertilidad y fecundidad de Heilipus lauri Boheman (Coleoptera: Curculionidae: Molytinae) bajo condiciones de laboratorio. Boletín del Museo de Entomología de la Universidad del Valle 13: 1–7. Google Scholar


Castañeda-Vildózola Á, Franco-Mora O, Pérez-López DJ, Nava-Díaz C, Valdez-Carrasco J, Vargas-Rojas L. 2013. Association of Heilipus lauri Boheman and Conotrachelus perseae Barber (Coleoptera: Curculionidae) on avocado in Mexico. The Coleopterists Bulletin 67: 116–118. Google Scholar


Castañeda-Vildózola Á, Franco-Mora O, Reyes JC, Ruiz C, Váldez-Carrasco J, Equihua-Martínez A. 2015. New distribution records of the small avocado seed weevil, Conotrachelus perseae Barber (Coleoptera: Curculionidae), in Mexico and notes on its biology. The Coleopterists Bulletin 69: 267–271. Google Scholar


Castillo A, Cruz-Lopez L, Gómez J. 2012. Moth species captured with the sex pheromone of Stenoma catenifer (Lepidoptera: Elachistidae) in avocado plantations of southern Mexico. Florida Entomologist 95: 1111–1116. Google Scholar


Champion GC. 1902–1906. Insecta. Coleoptera. Rhynchophora. Volume IV, Part 4. R. H. Porter, London, United Kingdom. Google Scholar


Chunco AJ, Phimmachak S, Sivongxay N, Stuart BL. 2013. Predicting environmental suitability for a rare and threatened species (Lao newt, Laotriton laoensis) using validated species distribution models. PLoS One 8: e59853. Google Scholar


Coria-Ávalos VM. 1999. Ciclo de vida, fluctuación poblacional y control del barrenador de la semilla del aguacate (Conotrachelus perseae Barber, C. aguacatae B.) (Coleoptera: Curculionidae) en Ziracuaretiro, Michoacán, Mexico. Revista Chapingo Serie Horticultura 5: 313–318. Google Scholar


Cossio-Vargas LE, Salazar-García S, González-Durán IJL, Medina-Torres R. 2008. Fenología del aguacate ‘Hass’ en el clima semicálido de Nayarit, México. Revista Chapingo Serie Horticultura 14: 325–330. Google Scholar


Dreher ML, Davenport AJ. 2013. Hass avocado composition and potential health effects. Critical Reviews in Food Science and Nutrition 53: 738–750. Google Scholar


Ego F, Ansan V. 2002. Why is the central Trans-Mexican Volcanic Belt (102°-99°W) in transtensive deformation? Tectonophysics 359: 189–208. Google Scholar


Eguiluz S, Aranda M, Marrett R. 2000. Tectónica de la Sierra Madre Oriental, México. Boletín de la Sociedad Geológica Mexicana 53: 1–26. Google Scholar


Ferrari L, Pasquarè G, Venegas-Salgado S, Romero-Rios F. 1999. Geology of the western Mexican Volcanic Belt and adjacent Sierra Madre Occidental and Jalisco block. Geological Society of America Special Paper 334: 65–84. Google Scholar


Francia M. 2008. Distribución de los barrenadores de la semilla del aguacate Conotrachelus aguacatae Barber y C. perseae Barber (Coleoptera: Curculionidae) en los municipios de Tacámbaro, Tocumbo, Cotija, Susupuato y Ziracuaretiro, Michoacán. Unpublished M.Sc. thesis, Instituto de Fitosanidad, Colegio de Postgraduados, Montecillo, México. Google Scholar


Galindo-Tovar ME, Ogata-Aguilar N, Arzate-Fernández AM. 2008. Some aspects of avocado (Persea americana Mill.) diversity and domestication in Mesoamerica. Genetic Resources and Crop Evolution 55: 441–450. Google Scholar


García-Arellano P. 1975. Claves para la identificación de las larvas barrenadores del hueso del aguacate en México. Folia Entomológica Mexicana 31–32: 127–131. Google Scholar


Gevrey M, Worner SP. 2006. Prediction of global distribution of insect pest species in relation to climate by using an ecological informatics method. Journal of Economic Entomology 99: 979–986. Google Scholar


Gibson WW, Carrillo JL. 1959. Lista de Insectos en la Colección Entomológica de la Oficina de Estudios Especiales. Secretaría de Agricultura y Ganadería, Naucalpan de Juárez, México. Google Scholar


Guisan A, Thuiller W. 2005. Predicting species distribution: offering more than simple habitat models. Ecology Letters 8: 993–1009. Google Scholar


Halffter G. 1974. Eléments anciens de l'entomofaune neotropicale: ses implications biogéographiques. Quaestiones Entomologicae 10: 223–262. Google Scholar


Harabiš F, Dolný A. 2010. Ecological factors determining the density-distribution of central European dragonflies (Odonata). European Journal of Entomology 107: 571–577. Google Scholar


Hernandez PA, Graham C, Master LL, Albert DL. 2006. The effect of sample size and species characteristics on performance of different species distribution modeling methods. Ecography 29: 773–785. Google Scholar


Hijmans RJ, Cameron SE, Parra JL, Jones PG, Jarvis A. 2005. Very high resolution interpolated climate surfaces for global land areas. International Journal of Climatology 25: 1965–1978. Google Scholar


Hoddle MS, Parra JRP. 2013. Potential lepidopteran pests associated with avocado fruit in parts of the home range of Persea americana , pp. 86–97 In Peña J [ed.], Potential Invasive Pests of Agricultural Crops. CABI, Wallingford, Osfordshire, United Kingdom. Google Scholar


Hoddle MS, Millar JG, Hoddle CD, Zou Y, McElfresh JS, Lesch SM. 2011. Field optimization of the sex pheromone of Stenoma catenifer (Lepidoptera: Elachistidae): evaluation of lure types, trap height, male flight distances, and number of traps needed per avocado orchard for detection. Bulletin of Entomological Research 101: 145–152. Google Scholar


INEGI (Instituto Nacional de Estadística y Geografía). 2015. Catálogo Único de Claves de Áreas Geoestadísticas Estatales, Municipales y Localidades, (last accessed 24 Nov 2015). Google Scholar


Kissinger DG. 1957. Description of a new Copturus pest of avocado from Mexico (Coleoptera: Curculionidae: Zygopinae). Acta Zoológica Mexicana 2: 1–8. Google Scholar


Kopec RE, Cooperstone JL, Schweiggert RM, Young GS, Harrison EH, Francis DM, Clinton SK, Schwartz SJ. 2014. Avocado consumption enhances human postprandial provitamin A absorption and conversion from a novel high-β-carotene tomato sauce and from carrots. Journal of Nutrition 145: 1158–1166. Google Scholar


López-Martínez V, Pérez-De la O NB, Ramírez-Bustos II, Jiménez-García D. 2016a. Current and potential distribution of the cactus weevil, Cactophagus spinolae (Gyllenhal) (Coleoptera: Curculionidae), in Mexico. The Coleopterists Bulletin 70: 327–334. Google Scholar


López-Martínez V, Sánchez-Martínez G, Pérez-De la O NB, Jiménez-García D, Coleman TW. 2016b. Environmental suitability for Agrilus auroguttatus (Coleoptera: Buprestidae) in Mexico using MaxEnt and database records of four Quercus (Fagaceae) species. Agricultural and Forest Entomology 18: 409–418. Google Scholar


Lugo-Hubp J. 1990. El relieve de la República Mexicana. Revista del Instituto de Geología 9: 82–111. Google Scholar


Martín ML. 2016. La formación histórica del sistema de innovación de la industria del aguacate en Michoacán. Tzintzun. Revista de Estudios Históricos 63: 268–304. Google Scholar


Morrone J. 2005. Hacia una síntesis biogeográfica de México. Revista Mexicana de Biodiversidad 76: 207–252. Google Scholar


Morrone J. 2014a. Biogeographical regionalization of the Neotropical region. Zootaxa 3782: 1–110. Google Scholar


Morrone J. 2014b. Biodiversidad de Curculionoidea (Coleoptera) en México. Revista Mexicana de Biodiversidad, Suplemento 85: S312–S314. Google Scholar


Morrone J. 2015. Biogeographical regionalisation of the world: a reappraisal. Australian Systematic Botany 28: 81–90. Google Scholar


Muñiz VR. 1959. Copturus aguacatae Kissinger, plaga del aguacatero (Persea gratissima Gaertn.) en México. Acta Zoológica Mexicana 3: 1–45. Google Scholar


Muñiz VR. 1970. Estudio morfológico de dos especies de Conotrachelus que son plaga del aguacatero (Persea gratissima Gaertn.) en México. Revista de la Sociedad Mexicana de Historia Natural 31: 289–337. Google Scholar


O'Donnell MS, Ignizio DA. 2012. Bioclimatic predictors for supporting ecological applications in the conterminous United States. U.S. Geological Survey Data Series 691, 10 p. Google Scholar


Palacios-Torres RE, Ramírez-Del Ángel M, Uribe-González E, Granados-Escamilla D, Romero-Castañeda J, Valdez-Carrasco J. 2011. Avocado seed moth, Stenoma catenifer Walsingham (Lepidoptera: Elastichidae) in Queretaro, Mexico. Acta Zoológica Mexicana (n.s.) 27: 501–504. Google Scholar


Payán-Arzapalo MA, Castañeda-Vildózola A, Valdéz-Carrasco J, Emiliano-Cazado L, Castillo-Márquez LE, Sánchez-Pale JR, Reyes-Alemán JC. 2015. Determinación de estadios larvarios de Conotrachelus perseae Barber (Coleoptera: Curculionidae). Southwestern Entomologist 40: 581–588. Google Scholar


Peña JE. 1988. Current and potential arthropod pests threatening tropical fruit crops in Florida. Proceedings of the Florida State Horticultural Society 111: 327–329. Google Scholar


Peterson EB, Orden D. 2008. Avocado pests and avocado trade. American Agricultural Economics Association 90: 321–335. Google Scholar


Phillips SJ, Dudik M. 2008. Modeling of species distribution with MaxEnt: new extensions and a comprehensive evaluation. Ecography 31: 161–175. Google Scholar


Phillips SJ, Anderson RP, Schapire RE. 2006. Maximum entropy modeling of species geographic distributions. Ecological Modelling 190: 231–259. Google Scholar


Rocha-Arroyo JL, Salazar-García S, Bárcenas-Ortega AE, González-Durán IJL, Cossio-Vargas LE. 2011. Fenología del aguacate ‘Hass’ en Michoacán. Revista Mexicana de Ciencias Agrícolas 2: 303–316. Google Scholar


Romero J, Anaya S, Equihua A. 1996. Catálogo de Insectos de la Colección del Instituto de Fitosanidad. Colegio de Postgraduados, Montecillo, México. Google Scholar


Sangerman-Jarquin DM, Larqué-Saavedra BS, Omaña-Silvestre JM, Shwenstesius R, Navarro-Bravo A. 2014. Tipología del productor de aguacate en el Estado de México. Revista Mexicana de Ciencias Agrícolas 5: 1081–1095. Google Scholar


SIAP (Servicio de Información Agroalimentaria y Pesquera). 2015. Cierre de la producción agrícola por cultivo. Aguacate, 2014. (last accessed 24 Nov 2015). Google Scholar


Soto M, García O, Carbajal C. 2013. Fauna de Curculionidae (Coleoptera) en huertas de aguacate Hass (Persea americana Mill) en Xalisco, Nayarit. Dugesiana 20: 93–98. Google Scholar


Stout J, Huang SW, Calvin L, Lucier G, Perez A, Pollack S. 2004. NAFTA trade in fruits and vegetables, pp. 39–51 In Huang SW [ed.], Global Trade Patterns in Fruits and Vegetables. United States Department of Agriculture, Washington, District of Columbia. Google Scholar


Swets KA. 1988. Measuring the accuracy of diagnostic systems. Science 240: 1285–1293. Google Scholar


Thiébaut V. 2010. Evolución del paisaje aguacatero en Michoacán: procesos socio económicos y medio ambientales. Revista Estudios Sociales Nueva Época 4: 235–254. Google Scholar


Urías-López MA, Salazar-García S. 2008. Poblaciones de gusano telarañero y barrenador de ramas en huertos de aguacate ‘Hass’ de Nayarit, Mexico. Agricultura Técnica en México 34: 431–441. Google Scholar


Van Proosdij AS, Sosef MSM, Wieringa JJ, Raes N. 2015. Minimum required number of specimen records to develop accurate species distribution models. Ecography 38: 1–11. Google Scholar


Vázquez MA, Cruz-López L, Chamé-Vázquez ER. 2016. First record of Conotrachelus perseae (Coleoptera: Curculionidae) in Comitán, Chiapas, Mexico. Florida Entomologist 98: 1252–1253. Google Scholar


Velázquez C. 2001. Campaña contra el barrenador del hueso del aguacate Conotrachelus aguacatae Barber, en Comonfort, Guanajuato. Unpublished thesis for bachelor's degree (tesis profesional de licenciatura), Centro de Ciencias Biológicas y Agropecuarias, Universidad de Guadalajara, Zapopan, México. Google Scholar


Whitehead DR. 1979. Recognition, characters and distribution records for species of Conotrachelus (Coleoptera: Curculionidae) that damage avocado fruits in Mexico and Central America. Proceedings of the Entomological Society of America 81: 105–107. Google Scholar


Wolstenholme BN, Whiley AW. 1999. Ecophysiology of the avocado (Persea americana Mill.) tree as a basis for pre-harvest management. Revista Chapingo Serie Horticultura 5: 77–88. Google Scholar


WorldClim. 2015. Global Climate Layers, Version 1.4 (release 3), (last accessed 7 Apr 2015). Google Scholar


Yahia EM, Woolf AB. 2011. Avocado (Persea americana Mill.), pp. 123–185 In Yahia EM [ed.], Postharvest Biology and Technology of Tropical and Subtropical Fruits. Volume 2: Açai to Citrus. Woodhead Publishing, Oxford, Cambridge, Philadelphia, New Delhi. Google Scholar
Andrea Luna, Víctor López-Martínez, Nidia Bélgica Pérez-De la O, Daniel Jiménez-García, Robert W. Jones, Álvaro Castañeda-Vildozola, and César Ruiz-Montiel "Actual and Potential Distribution of Five Regulated Avocado Pests Across Mexico, Using the Maximum Entropy Algorithm," Florida Entomologist 100(1), 92-100, (1 March 2017).
Published: 1 March 2017

Back to Top