Printer Friendly

Species diversity and population dynamics of fruit flies (Diptera: Tephritidae) in Guerrero, Mexico.

Tropical horticulture is economically important in Mexico; in the last few years Mexico has become one of the main exporters of mango (Mangifera indica Lour. [Anacardiaceae]) and papaya Carica papaya L. (Caricaceae) (Villegas-Monter & Mora-Aguilera 2011). Of all the states in Mexico, Guerrero produces the most mangoes, particularly the cultivars Manila and Ataulfo (SIAP 2016).

A key threat to horticultural development in Guerrero, and in other states, is the complex of phytophagous pests, amongst which some species in the family Tephritidae (fruit flies) are the most important (Aluja 1993, 1994; Hernandez-Ortiz et al. 2010). Worldwide there are nearly 4,000 species belonging to 500 genera in the Tephritidae (White & Elson-Harris 1992), and almost 200 species are considered important pests due to the direct losses that they cause to many fruit tree species (Norrbom et al. 2012). Globally, the most widespread genera of fruit flies are Bactrocera, Ceratitis, Rhagoletis, Toxotrypana, and Anastrepha (all Diptera: Tephritidae) (Hernandez-Ortiz et al. 2010). Anastrepha is one of the most diverse genera and is endemic to the Americas (Aluja 1994; Norrbom et al. 1999; Norrbom & Korytkowski 2009, 2011).

In the Americas, species of Anastrepha are distributed from Texas to the north of Argentina, including most Caribbean islands (Hernandez-Ortiz & Aluja 1993; Aluja 1994). The genus has 209 described species (Hernandez-Ortiz et al. 2010), 7 of which are considered economically important: Anastrepha ludens (Loew) (Mexican fruit fly); Anastrepha obliqua (Macquart) (West Indian fruit fly); Anastrepha fraterculus (Wiedemann) (South American fruit fly); Anastrepha suspensa (Loew) (Caribbean fruit fly); Anastrepha serpentina (Wiedemann) (sapote fruit fly); Anastrepha striata Schiner (guava fruit fly); and Anastrepha grandis (Macquart) (cucurbit fruit fly) (all Diptera: Tephritidae) (Hernandez-Ortiz et al. 2010). Mexico has 37 species of Anastrepha, and the highest species diversity is found in the states of Chiapas and Veracruz (25 and 24 species, respectively). In Guerrero, 12 species have been recorded: Anastrepha tripunctata Wulp, Anastrepha bicolor (Stone), Anastrepha pallens Coquillett, Anastrepha montei Lima, Anastrepha spatulata Stone, Anastrepha chiclayae Greene, A. serpentina (Wiedemann), A. striata Schiner, Anastrepha acris Stone, Anastrepha distincta Greene, A. ludens (Loew), and A. obliqua (Macquart) (all Diptera: Tephritidae) (Hernandez-Ortiz 2007).

Currently, the National Campaign against Fruit Flies (NCFF) is active in 26 states of Mexico, where monitoring activity (adult trapping and fruit sampling) and control strategies are implemented under an Integrated Pest Management scheme, with the aim of establishing and keeping fruit fly-free areas and reducing fruit fly populations to low prevalence levels (= fruit flies per trap per d [FTD] of [less than or equal to] 0.01) (SENASICA 2017). It is recognized that understanding the population dynamics of these pests in particular regions of the country can inform control measures (Aluja 1993). The objectives of this research were to: (a) update knowledge on the diversity of fruit fly species from the family Tephritidae and determine the diversity and seasonal distribution of tephritid fruit flies in the state of Guerrero; and (b) identify fruit fly hosts in the municipalities of Tetipac and Atoyac de Alvarez, Guerrero, Mexico.

Materials and Methods


Two municipalities in Guerrero, where the NCFF carries out control actions, were selected: (1) Tetipac, and (2) Atoyac de Alvarez. Tetipac is located in the north of the state (18.3544[degrees]N, 99.3247[degrees]W) (INEGI 2009a, b) at an elevation of 1,660 meters above sea level (masl). It has a temperate sub-humid climate with rains during the summer and an annual precipitation of 800 to 1,300 mm (INEGI 2016). Tetipac produces more guava cv. 'Media China' than any other municipality in the state over an area of 157 ha with an annual yield of 2,179 tonnes (SIAP 2016). Atoyac de alvarez is located in the south of the state (17.0434[degrees]N, 100.0632[degrees]W) at an altitude of 40 masl, and it has a warm sub-humid climate with rains during the summer and an annual precipitation of 1,100 to 2,500 mm (INEGI 2016). Atoyac de Alvarez has the second highest production of mango cv. 'Ataulfo' of any other municipality in the country over an area of 1,336 ha, with an annual yield of 18,028 tonnes (SIAP 2016).


The official monitoring network (trapping) of the NCFF was used to capture adult fruit flies. We analyzed the material collected from 82 traps in Tetipac and 496 traps in Atoyac de Alvarez. The traps used were 'Wet' Multilure International traps (Better World Mfg. Inc., Fresno, California, USA), baited with 3 torula yeast tablets (A Better Trap Inc. [torula yeast and borax pellets], Fresno, California, USA) diluted in 250 mL of water. This type of trap is used especially for monitoring species of fruit flies (Thomas et al. 2001; Garcia-Ramirez et al. 2008). Traps were checked and the bait replaced every 7 d by technical personnel from the Plant Health State Committee of Guerrero (CESAVEGRO) from 19 Oct 2015 to 17 Oct 2016. Adult fruit flies from the traps were placed in 250 mL glass jars filled with 70% ethanol prior to identification.


To identify fruit fly hosts, samples of fruit were taken from trees and from those that had fallen to the ground; in both cases fruits that had clear damage due to fruit fly larvae were randomly collected during the fruit production season (May to Sep) (Silva et al. 2010; Nicacio & Uchoa 2011). The number of collection sites varied because the objective of this study was to define host diversity not levels of damage, but were selected from those sites where the traps were established. Collected fruits included mango cv. 'Criollo' (Mangifera indica L.), guava cv. 'Media China' (Psidium guajava L.), jobo (Spondiaspurpurea L.) and bonete or cuaguayote (Jacaratia mexicana L. [Caricaceae]). Collected fruits were placed in 28 X 18 X 11 cm plastic containers on a substrate of Agrolita (Agrolita de Mexico, S.A. de C.V. Tlalnepantla de Baz, Estado de Mexico) for development of pupae from any larvae emerging from the fruit. Each container was covered with organza to allow ventilation and to capture any emerging adult fruit flies and parasitoids. All emerging adult fruit flies and parasitoids were stored in 70% ethanol prior to identification.


Adult fruit flies were identified using the dichotomous keys of Hernandez-Ortiz (1985), White & Elson-Harris (1992), Aluja (1993), Norrbom (2002), Hernandez-Ortiz et al. (2010), and the interactive keys of Norrbom et al. (2012). Adult parasitoids were identified by comparing them with voucher specimens provided by Dr. J. Refugio Lomeli. Voucher specimens were deposited in the Insect Collection of the Colegio de Postgraduados, Montecillo, State of Mexico, Mexico (CPEAM).


To measure species diversity of Tephritidae, data from fruit flies captured on Multilure traps were analyzed, and the Shannon-Wiener (H') equitability index was used, which expresses the species diversity within a community and the uniformity of the important values taking into account all the species in a sample following the equation H' = [[SIGMA]p.sub.i] ln [p.sub.i]; where [p.sub.i] represents the proportional abundance of species i (Moreno 2001). Also, the Simpson dominance index ([lambda]) was used, which calculates the probability that 2 individuals selected at random from a sample will belong to the same species, through the equation [lambda] = [SIGMA] = [pi.sup.2]. This index is strongly influenced by the importance of the most dominant species, and its value is inverse to the equitability, and diversity is calculated as 1-[lambda]. The statistical software InfoStat version 2008 was used for all statistical analyses (Balzarini et al. 2008).

To determine the behavior of the population of each species of fruit fly and its plant health category according to the NCFF, the fruit flies per trap per d (FTD) index was employed, using weekly abundance data, following the equation F/T*D, where F represents the number of fruit flies trapped in the exposure period of the trap, T the number of traps inspected in the period, and D the number of d that the traps were exposed in the field. The NCFF have established 3 Plant Protection categories: Free Fruit Fly zone, FTD = 0.0; Low Prevalence Zone, FTD [less than or equal to] 0.01; and Zone Under Plant Protection Actions, FTD > 0.01. Data for fruit flies trapped were analyzed to obtain averages using descriptive statistics from Excel (Microsoft Office, ver. 2010 [R]).



Eleven species of Anastrepha, Rhagoletis, Toxotrypana, and Zonosemata were recorded. In Tetipac, 10 species were recorded, and in Atoyac de Alvarez only 5 (Table 1). Shannon-Wiener (W) and Simpson (X) indices show that the diversity of fruit fly species was higher in the municipality of Tetipac than the municipality of Atoyac de Alvarez (H' = 1.30; [lambda] = 0.68) (Table 2).

A total of 1,546 fruit flies were captured between Oct 2015 and Oct 2016. In the municipality of Tetipac, a total of 1,085 individuals were recorded (647 females, 438 males). Anastrepha ludens was the most abundant species accounting for 41.29% of all flies captured, followed by A. striata (32.44%), and A. obliqua (20.92%). The remaining 7 species of fruit fly each were present at a level of less than 3% of the population. In the municipality of Atoyac de Alvarez, a total of 461 individuals were recorded (353 females, 108 males). Anastrepha obliqua was the most abundant species accounting for 90.67% of all flies captured, followed by A. striata (6.7%). The remaining species each were present at a level of less than 2% of the population (Table 1).

Fruit flies per trap per d analysis of the number of fruit flies trapped in Tetipac showed a relatively constant population of A. ludens between Feb and Oct 2016 (Fig. 1). Population peaks of A. striata occurred in Nov 2015, Mar 2016, and between Aug and Oct 2016. Population peaks of A. obliqua first occurred in Nov 2015 and between Aug and Oct 2016. Populations of the remaining species were low and recorded only in 2016. For example, A. serpentina occurred in Jun and Aug, A. spatulata in Mar and Apr, A. bicolor from Apr to Jul and in Sept, A. dentata in Jul and Sep, Toxotrypana curvicauda in Jun and Jul, Zonosemata cocoyoc in Jul and Sep, and Rhagoletis ramosae in Sep (Fig. 1).

In Atoyac de Alvarez, A. obliqua was recorded in 46 of the 53 wk monitored, and it was abundant between Feb and Sep 2016 (Fig. 2). The populations of the remaining species were low, and their presence was sporadic. For example, A. striata was recorded in Dec 2015, between Feb and May 2016, and between Sep and Oct 2016; A. ludens occurred in Mar and May 2016; A. chiclayae was recorded only in May 2016; and T. curvicauda was recorded in Nov 2015 (Fig. 2).


The most important population peaks of fruit flies in both municipalities was related to the phenological stages of the fruit trees in each study area, such as fruit development stage, fruit maturity, and harvesting period (Fig. 3).

The species of fruit flies detected by direct fruit sampling from the main host species in Tetipac were: A. ludens in mango; A. striata in guava; A. obliqua in jobo and mango; and T. curvicauda in bonete. In Atoyac de Alvarez only A. obliqua was recorded in mango. In addition to the emergence of adult fruit flies sampled from fruits on trees and fallen fruits, the emergence of adults of the parasitoid D. longicaudata was recorded from mango, guava, and jobo in Tetipac; no parasitoids were recorded emerging from fruit collected in Atoyac de Alvarez (Table 3).


In Mexico, research on the population fluctuations of Tephritidae have focused mainly on species of economic importance (Gonzalez-Hernandez & Tejada 1979; Thomas 2003; Tucuch-Cauich et al. 2008; Aluja et al. 2012; Vanoye-Eligio et al. 2015; Hernandez-Adame et al. 2015). However, some studies have provided full lists of the species of fruit fly present in a given area, their primary hosts, and at least some data on their population dynamics (Celedonio-Hurtado et al. 1995; Miranda-Salcedo & Leyva 1996; Martinez & Serna 2005; Martinez-Alava 2007; Nolasco & Lannacone 2008; Gonzales et al. 2011; Miranda-Salcedo 2012; Rene-Arias et al. 2014; Montoya-Alvarez et al. 2014; Vanoye-Eligio et al. 2014).

Of the 11 species of fruit flies previously recorded in the state of Guerrero, 5 also were found in this study and in both municipalities, and they are all considered of economic importance. These are A. ludens, A. striata, A. obliqua, A. serpentina, and T. curvicauda (Aluja 1993; Hernandez-Ortiz & Aluja 1993; Hernandez-Ortiz et al. 2010). In the municipality of Tetipac, in addition to these species, A. bicolor, A. spatulata, and A. dentata also were found, which have already been documented in Mexico (Hernandez-Ortiz 2007), as well as R. ramosae, which was described for the first time from material from Guerrero and Michoacan (Hernandez-Ortiz 1985), and Z. cocoyoc, a species that had been recorded already in the states of Guerrero, Chiapas, and Morelos (Norrbom 2002).

The fact that higher species richness and diversity of fruit fly species were recorded in Tetipac (S = 10 and H' = 1.30, [lambda] = 0.68) than in Atoyac de Alvarez (S = 5 and H' = 0.39, [lambda] = 0.17) is probably due to the presence in every backyard in Tetipac of a greater diversity of backyard fruit trees, such as jobo, orange (Citrus sinensis L. [Rutaceae], mango, papaya, mamey (or sapote) (Puteria sapota Jacq. [Sapotaceae]), and peach (Prunus persica L. [Rosaceae]) in addition to guava, which is the main crop of the region. According to Aluja (1993) and Hernandez-Ortiz (2007), backyard fruit trees are hosts of a range of fruit fly species. In contrast, Atoyac de Alvarez is an area where commercial mango production predominates due to its great economic importance; mango also is grown in every backyard, and is found amongst wild vegetation. The sites where NCFF traps were established did not allow the detection of a higher diversity of species owing to the reduced number of alternative hosts near commercial orchards.

During the period from Oct 2015 to Oct 2016, the total abundance of fruit flies was higher in Tetipac (70.18%) than in Atoyac de Alvarez, and the most common species was A. ludens, which is characterized by a higher capacity for adaptation to more elevated areas (> 900 masl) (Hernandez-Ortiz 1992), followed by A. striata and A. obliqua. These 3 species were present throughout the entire monitoring period, because the season for fruit production of each tree species occurs in different months; thus, the insects have host fruits available throughout the year. This confirms other studies where fruit production has been documented as the main factor affecting fruit fly populations in tropical environments (Celedonio-Hurtado et al. 1995; Nolasco & Lannacone 2008; Tucuch-Cauich et al. 2008; Gonzales et al. 2011; Aluja et al. 2012; Hernandez-Adame et al. 2015; Vanoye-Eligio et al. 2015). Populations of the other fruit fly species detected in this study and others occurred sporadically from Mar to Sep 2016 with only a few individuals captured.

During the period from Oct 2015 to Oct 2016, the total abundance of fruit flies was lower in Atoyac de Alvarez (29.8%) than in Tetipac (70.2%), and the most common species was A. obliqua, which is more adapted to areas at a low elevation (< 500 masl) (Hernandez-Ortiz 1992); the species was recorded in 46 of the 53 wk monitored, and from Feb to Sep 2016. In contrast, in this municipality, populations of A. striata, A. ludens, A. chiclayae, and T. curvicauda were small; only 1 individual of T. curvicauda was recorded in the entire year.

In both areas of study, the populations of fruit flies collected were predominantly female, as seen in other studies (Nolasco & Lannacone 2008; Espolador-Sio Joio et al. 2014; Rene-Arias et al. 2014; Montoya-Alvarez et al. 2014; Hernandez-Adame et al. 2015) (Table 2). This is because the food bait used in traps to catch adults (torula yeast and borax) is based on proteins that are important for oocyte formation in females.

The presence of the most common species of fruit flies throughout the study, such as A. ludens, A. striata, and A. obliqua, coincided with the phenological stages of fruit production, fruit maturity, and harvest period for the tree species present in each region (Fig. 3). Collecting infested fruits helped to confirm the host range and host preference of the fruit fly species associated with the municipalities of Tetipac and Atoyac de Alvarez. In Tetipac, A. ludens was recorded in mango, A. striata in guava, A. obliqua in jobo and mango, and T. curvicauda in bonete, as has been recorded previously (Aluja 1993, 1994; Hernandez-Ortiz & Aluja 1993; Hernandez-Ortiz 2007; Martinez-Barrera et al. 2015). In Atoyac de Alvarez, A. obliqua was recorded only in mango (Table 3).

Analysis of the fruit flies per trap per d data for 2015-2016 for the economically important fruit fly species showed that in Tetipac, A. ludens, A. striata, and A. obliqua were the species most frequently captured in the area. Population peaks in most cases had fruit flies per trap per d values higher than 0.01 (zones under plant protection actions). This means that the NCFF must apply several control strategies, such as chemical, cultural, and biological control (IPM), if fruit fly populations are to be controlled. These 3 fruit fly species may be present at the range of altitudes of the sites where the study was conducted (50-1,660 masl), but this depends on the host tree diversity. In contrast, in Atoyac de Alvarez, A. obliqua was the species most frequently captured, while populations of A. striata, and A. ludens were small, and the population peaks always had fruit flies per trap per d values below 0.01 (low prevalence zone). For this category it is sufficient for the NCFF to release sterile flies to suppress fruit fly populations. In this area, altitude may not influence host tree diversity for fruit flies, because mango trees are present more frequently.

Finally, of the 4 fruit fly species of economic importance detected in the 2 study sites, A. serpentina had the smallest populations in Tetipac, with fruit flies per trap per d values always being below 0.01, and in Atoyac de Alvarez no individuals of this species were caught in traps. According to the Mexican Plant Protection Standard NOM-023-FITO-1995 (SAGAR 1999), the incidence levels of these 4 fruit fly species are used to define the plant protection zones or categories that have been established for the NCFF, namely Free Zone with FTD = 0.00; Zone of Low Prevalence (with FTD < 0.01; and Zones under Plant Protection Actions (FTD > 0.01, with an upper limit of > 0.08); management strategies proposed by the NCFF are carried out taking these categories into account.

In general, it can be observed that fruit fly populations in Tetipac maintain fruit flies per trap per d values of > 0.01, whereas in Atoyac, populations maintain fruit flies per trap per d values of < 0.01. The results of the present study show that the municipality of Tetipac is in the Zones under Plant Protection Actions category, which means it has high levels of fruit fly incidence. In contrast, Atoyac de Alvarez is in the Zones of Low Prevalence category, and it may attain the Free Zone category in the future, which would reduce management costs, and producers could freely trade fruits such as mango in domestic and international markets without quarantine restrictions.


We thank Eric Fernando Lopez Villalobos (Moscamed Program) for species identification of fruit flies. We also thank the authorities of the Comite Estatal de Sanidad Vegetal de Guerrero for supporting field work, and the technicians Jorge Garcia Bravo, Fausto Mesino Flores, Hector Calvo Gatica, Javier Castro Romero, and Javier Flores Juarez for helping with the trap service. The first author acknowledges financial support for graduate studies with a scholarship from CONACYT.

References Cited

Aluja M [ed.]. 1993. Manejo Integrado de la Mosca de la Fruta. Editorial Trillas, Mexico, Distrito Federal, Mexico.

Aluja M. 1994. Bionomics and management of Anastrepha. Annual Review of Entomology 39: 155-178.

Aluja M, Ordano M, Guillen L, Rull J. 2012. Understanding long-term fruit fly (Diptera: Tephritidae) population dynamics: implications for area wide management. Journal of Economic Entomology 105: 823-836.

Balzarini MG, Gonzales L, Tablada M, Casanoves F, Di Rienzo JA, Robledo CW. 2008. InfoStat. Manual del Usuario. Editorial Brujas, Cordoba, Argentina.

Celedonio-Hurtado H, Aluja M, Liedo P. 1995. Adult population fluctuations of Anastrepha species (Diptera: Tephritidae) in tropical orchard habitats of Chiapas, Mexico. Environmental Entomology 24: 861-869.

Espolador-Sio Joio R, Montes SM, Raga A. 2014. Fruit flies in a guava orchard in Indiana County, Sio Paulo, southeastern Brazil. IDESIA (Chile) 32: 101-107.

Garcia-Ramirez MJ, Maldonado-Arrollo M, Lopez-Martinez V, Encalada-Mena L, Vargas-Magana JJ. 2008. Atraccion de Anastrepha spp. a trampas cebadas con frutos naturales en Campeche, Mexico, pp. 82 In Montoya-Gerardo PJ, Diaz-Fleischer F, Flores-Brecerda S. [eds.], Proceedings of the 7th Meeting of the Working Group on Fruit Flies of the Western Hemisphere. 2-7 Nov 2008. Mazatlan, Sinaloa, Mexico.

Gonzales M, Loza-Murguia M, Hugh S, Cuba N, Almanza JC, Ruiz M. 2011. Dinamica poblacional de adultos de la mosca boliviana de la fruta Anastrepha sp. (Diptera: Tephritidae) en el Municipio de Coroico, Departamento de La Paz, Bolivia. Journal of the Selva Andina Research Society 1: 2-12.

Gonzalez-Hernandez A, Tejada LO. 1979. Fluctuacion de la poblacion de Anastrepha ludens (Loew) y sus enemigos naturales en Sargentia greggii S. Watts. Folia Entomologica Mexicana 41: 49-60.

Hernandez-Adame LA, Figueroa-de la Rosa JI, Chavarrieta-Yanez JM, Pineda-Guillermo S, Montoya P, Martinez-Castillo AM. 2015. Moscas de la fruta en una zona marginal del estado de Michoacan. Entomologia Mexicana 2: 386-391.

Hernandez-Ortiz V. 1985. Descripcion de una nueva especie mexicana del genero Rhagoletis Loew (Diptera: Tephritidae). Folia Entomologica Mexicana 64: 73-79.

Hernandez-Ortiz V [ed.]. 1992. El genero Anastrepha Schiner en Mexico (Diptera: Tephritidae). Taxonomia, distribucion y sus plantas huespedes. Instituto de Ecologia Publicacion 33. Xalapa, Veracruz, Mexico.

Hernandez-Ortiz V. 2007. Diversidad y biogeografia del genero Anastrepha en Mexico, pp. 53-76 In Hernandez-Ortiz V [ed.], Moscas de la Fruta en Latinoamerica (Diptera: Tephritidae): Diversidad, Biologia y Manejo. S y G Editores, Mexico, Distrito Federal, Mexico.

Hernandez-Ortiz V, Aluja M. 1993. Listado de especies del genero neotropical Anastrepha (Diptera: Tephritidae) con notas sobre su distribucion y plantas hospederas. Folia Entomologica Mexicana 88: 89-105.

Hernandez-Ortiz V, Guillen-Aguilar J, Lopez L. 2010. Taxonomia e identificacion de moscas de la fruta de importancia economica en America, pp. 49-80 In Montoya P, Toledo J, Hernandez E [eds.], Moscas de la Fruta: Fundamentos y Procedimientos para su Manejo. S y G editores, Mexico, Distrito Federal, Mexico.

INEGI. 2009a. Prontuario de informacion geografica municipal de los Estados Unidos Mexicanos, Atoyac de Alvarez, Guerrero, 2009.

INEGI. 2009b. Prontuario de informacion geografica municipal de los Estados Unidos Mexicanos, Tetipac, Guerrero, 2009.

INEGI. 2016. Mexico en cifras, informacion nacional por entidad federativa y municipios. (last accessed 16 Oct 2016).

Martinez JO, Serna FJ. 2005. Identificacion y localizacion geografica de especies del genero Anastrepha Schiner (Diptera: Tephritidae) en Cundinamarca (Colombia). Agronomia Colombiana 23: 102-111.

Martinez-Alava JO. 2007. Nuevos registros en el genero Anastrepha (Diptera: Tephritidae) para Colombia. Revista Colombiana de Entomologia 33: 36-42.

Martinez-Barrera OY, Arzuffi R, Jimenez-Perez A. 2015. Oviposition by Toxotrypana curvicauda (Diptera: Tephritidae) in small to medium-size cuaguayote and papaya fruits with low sugar content. Florida Entomologist 98: 994-996.

Miranda-Salcedo MA. 2012. Avances de investigacion de moscas de la fruta Anastrepha spp. (Diptera: Tephritidae) en Michoacan, Mexico, pp. 86-100 In Memorias 3[degrees] Congreso Nacional de Mitigacion de Dano Ambiental en el Sector Agropecuario de Mexico, Guadalajara Jal 29-30 Nov 2012.

Miranda-Salcedo MA, Leyva JL. 1996. New records of Anastrepha sagittata and A. montei(Diptera: Tephritidae) from western Mexico. Florida Entomologist 79: 264-265.

Montoya-Alvarez G, Figueroa-de la Rosa JI, Hernandez-Adame L, Chavarrieta-Yanez JM, Mendez Gutierrez IR, Martinez-Castillo AM. 2014. Especies de mosca de la fruta del genero Anastrepha Schiner capturadas en una zona marginal del estado de Michoacan. Entomologia Mexicana 1: 273-277.

Moreno CE. 2001. Metodos para Medir la Biodiversidad. M&T-Manuales y Tesis SEA 1. Zaragoza, Spain.

Nicacio J, Uchoa MA. 2011. Diversity of frugivorous flies (Diptera: Tephritidae and Lonchaeidae) and their relationship with host plants (Angiospermae) in environments of South Pantanal Region, Brazil. Florida Entomologist 94: 443-466.

Nolasco N, Lannacone J. 2008. Fluctuacion estacional de moscas de la fruta Anastrepha spp. y Ceratitis capitata (Wiedemann, 1824) (Diptera: Tephritidae) en trampas McPhail en Piura y en Ica, Peru. Acta Zoologica Mexicana 24: 33-44.

Norrbom AL. 2002. A new species and key for the genus Zonosemata Benjamin (Diptera: Tephritidae). Proceedings of Entomological Society of Washington 104: 614-623.

Norrbom AL, Korytkowski CA. 2009. A revision of the Anastrepha robusta species group (Diptera: Tephritidae). Zootaxa 2182: 1-91.

Norrbom AL, Korytkowski CA. 2011. New species of and taxonomic notes on Anastrepha (Diptera: Tephritidae). Zootaxa 2740: 1-23.

Norrbom AL, Zucchi RA, Hernandez-Ortiz V. 1999. Phylogeny of the genera Anastrepha and Toxotrypana (Trypetinae: Toxotrypanini) based on morphology, pp. 299-342 In Aluja M, Norrbom AL [eds.], Fruit Flies (Tephritidae): Phylogeny and Evolution of Behavior. CRC Press, Boca Raton, Florida, USA.

Norrbom AL, Korytkowski CA, Zucchi RA, Uramoto K, Venable GL, Mccormick J, Dallwitz MJ. 2012. Onwards. Anastrepha and Toxotrypana: descriptions, illustrations, and interactive keys. Version 28. Sep 2013.

Rene-Arias O, Librado-Farina N, Novaes-Lopes G, Uramoto K, Antonio-Zucchi R. 2014. Fruit flies of the genus Anastrepha (Diptera: Tephritidae) from some localities of Paraguay: new records, checklist and illustrated key. Journal of Insect Science 14. doi: 10.1093/jisesa/ieu086

SAGAR. 1999. NOM-023-FITO-1995. Por la que se establece la campana nacional contra moscas de la fruta. Secretaria de Agricultura, Ganaderia y Desarrollo Rural. Diario Oficial de la Federacion, Mexico, Distrito Federal, Mexico. 11 Feb 1999.

SENASICA. 2017. Situacion fitosanitaria actual. Servicio Nacional de Sanidad, Inocuidad y Calidad Agroalimentaria (SENASICA). (last accessed 13 Jan 2017).

SIAP. 2016. Produccion agricola. Sistema de Informacion Agropecuaria y Pesquera (SIAP). (last accessed 14 Oct 2016).

Silva JG, Dutra VS, Santos MS, Silva NMO, Vidal DB, Nink RA, Guimaries JA, Araujo EL. 2010. Diversity of Anastrepha spp. (Diptera: Tephritidae) and associated braconid parasitoids from native and exotic hosts in Southeastern Bahia, Brazil. Environmental Entomology 39: 1457-1465.

Thomas DB. 2003. Reproductive phenology of the Mexican fruit fly, Anastrepha ludens (Loew) (Diptera: Tephritidae) in the Sierra Madre Oriental, Northern Mexico. Neotropical Entomology 32: 385-397.

Thomas DB, Holler TC, Heath RR, Salinas EJ, Moses AL. 2001. Trap-lure combination for surveillance of Anastrepha fruit flies (Diptera: Tephritidae). Florida Entomologist 84: 344-351.

Tucuch-Cauich FM, Chi-Que G, Orona-Castro F. 2008. Dinamica poblacional de adultos de la mosca mexicana de la fruta Anastrepha sp. (Diptera: Tephritidae) en Campeche, Mexico. Agricultura Tecnica en Mexico 34: 341-347.

Vanoye-Eligio V, Guardiola-Alcocer LA, Gaona-Garcia G. 2014. Nuevos registros de especies del genero Anastrepha (Diptera: Tephritidae) en Tamaulipas, Mexico. Acta Zoologica Mexicana (n. s.) 30: 688-691.

Vanoye-Eligio V, Perez-Castaneda R, Gaona-Garcia G, Lara-Villalon M, Barrientos-Lozano L. 2015. Fluctuacion poblacional de Anastrepha ludens en la region de Santa Engracia, Tamaulipas, Mexico. Revista Mexicana de Ciencias Agricolas 5: 1077-1091.

Villegas-Monter A, Mora-Aguilera A. 2011. Avances de la Fruticultura en Mexico. Revista Brasileira de Fruticultura 33: 179-186.

White IM, Elson-Harris MM. 1992. Fruit flies of Economic Significance: Their Identification and Bionomics. CAB International, Oxford, United Kingdom.

Susana Eva Rodriguez-Rodriguez (1), Hector Gonzalez-Hernandez (1,*), Esteban Rodriguez-Leyva (1), J. Refugio Lomeli-Flores (1), and Mario Alberto Miranda-Salcedo (2)

(1) Colegio de Postgraduados, Posgrado en Fitosanidad, Programa de Entomologia y Acarologia, Montecillo, Texcoco, Estado de Mexico, CP 56230, Mexico; E-mail: (H. G. H.); (S. E. R. R.); (E. R. L.); (J. R. L. F.)

(2) Instituto Nacional de Investigaciones Forestales, Agricolas y Pecuarias (INIFAP), Campo Experimental Valle de Apatzingan, Km 17.5 Carretera a Apatzingan-Cuatro Caminos Apatzingan, Michoacan, CP 60781, Mexico; E-mail: (M. A. M. S.)

(*) Corresponding author; E-mail: (H.G.H.)

Caption: Fig. 1. Fruit flies per trap per day of fruit flies in Tetipac, Guerrero 2015-2016. Other = A. serpentina, A. spatulata, A. bicolor, A. dentata, T. curvicauda, Z. cocoyoc, and R. ramosae.

Caption: Fig. 2. Fruit flies per trap per day of fruit flies in Atoyac de Alvarez, Guerrero 2015-2016. Other = A. chiclayae and T. curvicauda.

Caption: Fig. 3. Phenology of the principal fruit trees in the municipalities of Atoyac de Alvarez and Tetipac, Guerrero. (1) Vegetative period; (2) Flowering; (3) Fruit production; (4) Maturity and harvest.
Table 1. Species of fruit flies and total abundance in 2
municipalities of Guerrero, 2015-2016.

                           Tetipac               Atoyac de Alvarez
Species                 [male]      [female]  [male]  [female]

Anastrepha ludens       281         167         1       3
Anastrepha striata      180         172        16      15
Anastrepha obliqua      146         180       329      89
Anastrepha serpentina     4           1         0       0
Anastrepha spatulata      1           1         0       0
Anastrepha bicolor       18          11         0       0
Anastrepha dentata        0           3         0       0
Anastrepha chiclayae      0           0         6       1
Toxotrypana curvicauda   11           2         1       0
Zonosemata cocoyoc        4           1         0       0
Rhagoletis ramosae        2           0         0       0
Total                   647         438       353     108

Table 2. Total species richness and fruit fly diversity in 2
municipalities of Guerrero, 2015-2016. S: Species richness; H':
Shannon-Wiener index; 1-[lambda]: Simpson

Area of study      S   H'    1-[lambda]
Tetipac            10  1.30  0.68
Atoyac de Alvarez   5  0.39  0.17

Table 3. Species of fruit flies and parasitoids detected in host
fruits in 2 municipalities of Guerrero, 2015-2016.

Detected species          Tetipac               Atoyac de Alvarez
                                   Host fruits
                  Mango  Guava  Jobo  Bonete     Mango

A. ludens         44      0      0     0          0
A. striata         0     21      0     0          0
A. obliqua        15      0     19     0         63
T. curvicauda      0      0      0    71          0
D. longicaudata   53     15     12     0          0

Please Note: Illustration(s) are not available due to copyright restrictions.
COPYRIGHT 2018 Florida Entomological Society
No portion of this article can be reproduced without the express written permission from the copyright holder.
Copyright 2018 Gale, Cengage Learning. All rights reserved.

Article Details
Printer friendly Cite/link Email Feedback
Author:Rodriguez-Rodriguez, Susana Eva; Gonzalez-Hernandez,Hector; Rodriguez-Leyva, Esteban; Lomeli-Flores,
Publication:Florida Entomologist
Article Type:Report
Geographic Code:1MEX
Date:Mar 1, 2018
Previous Article:First record of Blattella vaga (Blattodea: Ectobiidae) from southern Alabama.
Next Article:Use of chemical inducers as a resistance trigger in Brachiaria grasses and sugarcane.

Terms of use | Privacy policy | Copyright © 2021 Farlex, Inc. | Feedback | For webmasters |