Open Access
How to translate text using browser tools
1 June 2014 Cerambycidae Associated with Hybrid Eucalyptus Urograndis and Native Vegetation in Carbonita, Minas Gerais State, Brazil
Alexandre Santos, Ronald Zanetti, Roosevelt P. Almado, José C. Zanuncio
Author Affiliations +

Wood-borers of exotic and native trees are important pests of eucalyptus in many regions of the world. The feeding behavior of these insects causes losses in wood production. The aim of this study was to identify Cerambycidae beetles inhabiting plantations of clonal hybrid (Eucalyptus grandis × E. urophylla hybrid; Myrtales: Myrtaceae) and native cerrado vegetation in order to improve knowledge about potential wood-borers in these habitats. The insects were collected weekly using baited traps located within eucalyptus stands and in the cerrado vegetation. In total, 3,377 individuals belonging to 13 cerambycid species were caught. The potential wood-borers species in eucalyptus managed plantations should to be monitored during the rainy period.

There are approximately 30,000 described species of the Cerambycidae (Monné et al. 2002), many of which are important in terrestrial ecosystems, particularly in the wood biodeterioration (Costello et al. 2011). Adult cerambycids do not usually damage the trees directly, but feed instead on sugary substances such as nectar and fruit juices (Linsley 1959). However, females of the genus Oncideres (Cerambycinae: Onciderini) make holes in the branches and twigs of host trees in which they lay eggs (Di Iorio 1994; Paulino Neto et al. 2006).

Damage by cerambycid larvae varies according to the beetle species, but they are commonly represented by galleries in the subcortical region surrounding the trunk or expanded elliptical galleries within the wood (Monné et al. 2002). Larvae of most cerambycids develop in live and decaying trees, in those with advanced wilting, or in trees just harvested (Hanks 1999; Silva Neto et al. 2011).

Cerambycid beetles are important pests and cause damage, especially to perennials, such as fruit and forest species; as such plants provide ideal bioecological conditions for long-lived insects. Cerambycids also damage fruit orchards (Canettieri & Garcia 2000), eucalyptus (Myrtales: Myrtaceae) (Andrade 1961), black wattle (Acacia spp.; Fabales: Fabaceae) (Amante et al. 1976), mate (Ilex paraguariensis A. St. Hil.; Aquifoliales: Aquifoliaceae) (Galileo et al. 1993) and rubber (Hevea brasiliensis Müll. Arg.; Malpighiales: Euphorbiaceae) (Dall'Oglio & Peres Filho 1997) trees with losses reaching 60% for sawmill logs (Abreu et al. 2002).

Increasing damage by Cerambycidae is being reported in forest systems. Therefore, it is becoming more important to identify species of this family that have the potential to reach pest status and to develop management strategies to control them (Paine & Millar 2002; Grebennikov et al. 2010).

Plants of eucalyptus hybrid (Eucalyptus urophylla × Eucalyptus grandis) showed signs of damage caused by cerambycids in Carbonita, Minas Gerais State, Brazil. These observations led us to survey and identify species of this beetle family in eucalyptus and in nearby native cerrado vegetation.

Materials and Methods

Cerambycids were collected from a hybrid eucalyptus plantation and from native cerrado in the municipality of Carbonita, Minas Gerais State, Brazil (S 17° 31′ 37″ W 43° 0′ 57″) from Feb to Apr 2005.

Samples were taken weekly from 67 traps made of 2-L PET (polyethylene terephthalate) bottles with, approximately 2-cm diam holes located in the middle of the bottle, and baited with a 10% honey solution without any preservative or toxic chemical. The traps were randomly distributed throughout each study area and were installed 1 m above the ground on eucalyptus or on native plants. Thus 19 traps were installed in 140 ha of cerrado and 48 traps were installed in 74 ha of 8 Eucalyptus urograndis stands. The insects were removed from the traps weekly and the honey solution replaced. The insects were sent to the Laboratory of Forest Entomology at the Federal University of Lavras (UFLA) in Lavras, Minas Gerais State, Brazil, where they were sorted and counted. An individual of each morphospecies was sent to Dr. Ubirajara Ribeiro de Souza Martins of the Museum of Zoology of the University of São Paulo (MZUSP) for identification. Voucher specimens were deposited in the collection of the Entomology Department of UFLA.

Temperature, relative humidity and rainfall data were obtained from the Arcelor Mittal Forest Meteorological Station in Carbonita, Minas Gerais State, Brazil. This enabled us to evaluate the influence of these factors on the cerambycid population. These data were correlated with the number of insects collected (Pearson's r, P < 0.05).


A total of 3,377 individuals of 13 cerambycid species (Table 1) was collected over the study period, with an average of 50.4 insects per trap. Coleoxestia vittata (Thomson) was the most abundant species, with 75.9% of the total specimens collected, followed by Retrachydes thoracicus (Olivier) (11.1%), Chydarteres striatus (Fabricius) (4.1%), Oxymerus basalis (Dalman) (3.5%), Oxymerus aculeatus Dupont (3.0%) and Sphallotrichus setosus (Germar) (1.1%), and with the others having frequencies of < 1% (Table 1).

The number of cerambycid individuals collected did not correlate with the weekly average temperature (22.0–24.4 °C) or RH (67.7–84.9%) (r = 0.0167, P =0.9635; r = 0.5389, P = 0.1079, respectively). However, the abundance of the 13 cerambycid species was correlated with the average weekly rainfall (r = 0.6554, P = 0.0396) with higher number of individuals recorded after periods of increased rainfall (Fig. 1). Both the number of cerambycids and the quantity of rainfall increased progressively during the first 4 weeks of the study. In subsequent weeks the amounts of rainfall progressively decreased and initially the number of cerambycid declined sharply, and then oscillated while trending toward a low level (Fig. 1). The peak number of cerambycids captured coincided with the maximum rainfall during the time period analyzed (Fig. 1).


The species caught can be considered partially representative of the local cerambycid diversity attracted by the fermenting honey solution. This is so because the trap type, the bait used and the trap position in the vertical strata, can more strongly attract some cerambycid species than others (Dodds et al. 2010; Graham & Poland 2012). Monoculture forest plantations are known to affect community structure, such as abundance, but not species richness (Taki et al. 2010). However, the diversity of this group might be greater in native vegetation than in the mosaic of native and planted forests (Yamaura et al. 2011).

Of the 13 species collected in the eucalyptus plantations and in the native cerrado, 10 had been reported on Myrtaceae plants and eight on Eucalyptus spp. (Table 1). Chlorida festiva (Linnaeus), C. striatus, Dorcadocerus barbatus (Olivier), Phoracantha recurva Newman and R. thoracicus (Olivier) had been previously reported in Eucalyptus spp. plantations and captured in light and ethanol traps in Rio Grande do Sul State, Brazil (Bernardi et al. 2010). All of these species, with the exception of C. festiva, bore into dry Eucalyptus spp. wood (Berti Filho 1997). In addition, C. striatus and R. thoracicus had been previously collected in trap logs in Eucalyptus globulus Labill, and E. grandis plantations in Uruguay (Monné et al. 2002). Thirty-three cerambycid species have been recorded in logs of Eucalyptus spp., including Chydarteres dimidiatus (Fabricius), C. striatus and R. thoracicus (Berti Filho 1997). Chydarteres striatus is known to damage branches of Schinus terebinthifolius (Sapindales: Anacardiaceae) (Graf & Marzagão 1999) and R. thoracicus has been reported in Corymbia citriodora (Hook.) K. D. Hill & L. A. S. Johnson (Myrtales: Myrtaceae), Eucalyptus tereticornis Sm., Eucalyptus viminalis Labili., and twigs and branches of Eucalyptus spp. (Moraes & Berti Filho 1974). The diversity of Cerambycidae can differ between regions, as C. festiva, D. barbatus, Oxymerus sp. and other cerambycids not recorded in this study were captured using light and ethanol traps in eucalyptus plantations in the municipalities of São Mateus and Aracruz in Espirito Santo State, Brazil (Zanuncio et al. 1993). Oxymerus basalis (Dalman) has the potential to damage corn (Zea mays subsp. mays L.; Poales: Poaceae) plants (Pires et al. 2011), and has also been recorded as killing plants in a 200 ha E. urograndis plantation (Zanuncio et al. 2009).

Table 1.

Number of individuals (no.), frequency (freq.%) and known myrtaceae host of Cerambycidae species collected with traps in eucalyptus plantations and in the adjacent native Cerrado vegetation. Feb to Apr 2005 in Carbonita municipality, Minas Gerais State, Brazil.


Fig. 1.

Average weekly rainfall (mm) and number of cerambycid beetles collected with traps in the eucalyptus plantations and in the adjacent native cerrado vegetation from Feb to Apr 2005 in Carbonita municipality, Minas Gerais State, Brazil.


The small number of P. recurva individuals recorded by the current study does not reflect the importance of this species, which is an exotic eucalyptus wood-borer pest in many countries (Wang & Thornthon 1999). Only a small number of P. recurva were captured probably because Phoracantha spp. are more efficiently collected by sticky traps on ring-barked trees (Seaton 2012) than with the honey solution-baited traps used in this study. In Brazil, this pest has been found in C. citriodora logs in São Paulo (Wilcken et al. 2002) and in E. urophylla in Minas Gerais State (Santos et al. 2007).

Coleoxestia vittata, Eurysthea lacordairei (Lacordaire), Juiaparus batus lacordairei (Gahan), Pteracantha agrestis Monné & Monné and S. setosus have not been previously reported as associated with the Eucalyptus genus, and they may infest long-dead trees or wind fallen branches. Coleoxestia vittata, similar to most of the species collected, is known to injure Psidium guajava (Monné 2004). Chlorida festiva and D. barbatus are also known to have various species of Myrtaceae among their native hosts (Monné 2004), as well as being adapted to Eucalyptus spp. Sphallotrichus setosus is a wood-borer of P. guajava, Cajanus indicus (L.) Millsp. (Fabales: Fabaceae) and Annona sp. trunks (Costa Lima 1955). Juiaparus batus lacordairei is a species that is polyphagous on Schinopsis balansae (Anacardiaceae), Aspidosperma sp. (Apocynaceae), Piptadenia sp. and Prosopis sp. (Mimosaceae) (Monné 2004). Native host plants of E. lacordairei and P. agrestis are not yet known.

The correlation with environmental variables is related to abundance of adult Cerambycidae, because the quantity of rainfall does not limit local species richness. Indeed local species richness is more dependent on food availability (Baselga 2008) and the intensity of plantation management (Mueller et al. 2008). However, this can vary with the species, as the emergence of C. striatus, O. aculeatus and R. thoracicus was positively correlated with rainfall in Citrus spp. (Garcia 1987) and in the case of D. barbatus in a Myrciaria cauliflora orchard (Garcia et al. 1992). By contrast, populations of C. dimidiatus peaked during the dry season (Fernandes et al. 2010). The abundance of P recurva was not found to be correlated with environmental variables in either desert or temperate regions (Bybee et al. 2004).

The population peak of cerambycid species in periods of higher rainfall found in this and other studies (Paz et al. 2008) indicates that monitoring programs for species of this family with the potential to reach pest status should be concentrated in the rainy season, i.e., when their adult emergence is at its highest (Linsley 1959). Monitoring should also be done in different growth stages of the plantation, because the diversity of Cerambycidae increases in monocultures over longer periods of time (Ohsawa & Shimokawa 2011). These results suggest that the approach proposed can be useful as a rapid protocol for cerambycid sampling in eucalyptus plantations.


Individuals of 13 cerambycid species were collected in a eucalyptus plantation and in the adjacent native cerrado vegetation in Minas Gerais State, Brazil. Eight of these species have been reported as causing damage to eucalyptus and/ or other Myrtaceae plant species in other regions. The peak number of cerambycids captured coincided with the maximum rainfall during the time period analyzed.


To Dr. Ubirajara Ribeiro Martins de Souza (MZUSP) for the identification of Cerambycidae species; to Dr. Miguel Angel Monné (MNRJ) for the references about hosts and species. To “Conselho Nacional de Desenvolvimiento Científico e Tecnológico (CNPq)”, “Coordenação de Aperfeiçoamento de Pessoal de Nível Superior (CAPES)” and “Fundação de Amparo à Pesquisa do Estado de Minas Gerais (FAPEMIG)” for financial support. Asia Science edited and corrected this manuscript.

References Cited


R. L. S. Abreu , C. S. Campos , R. E. Hanada , F. J. Vasconcelos , and J. A. Freitas 2002. Avaliação de danos por insetos em toras estocadas em indústrias madeireiras de Manaus, Amazonas, Brasil. Rev. Árvore 26: 789–796. Google Scholar


E. Amante , M. A. Bertelato , G. L. Gessinger, I. A. Didonet , and I. C. Rodrigues 1976. Biología do “serrador” da acácia-negra, Oncideres impluviata (Germar, 1824) (Coleoptera: Cerambycidae) no Rio Grande do Sul. I. Etologia. Agron. Sulriograndense 12: 1–56. Google Scholar


E. N. Andrade 1961. O eucalipto. Companhia Paulista de Estradas de Ferro, pp. 335–336. Google Scholar


A. Baselga 2008. Determinants of species richness, endemism and turnover in European longhorn beetles. Ecography 31: 263–271. Google Scholar


O. Bernardi , M. S. Garcia , E. J. E. Silva , L. C. F. Zazycki , D. Bernardi , D. Miorelli , G. A. Ramiro , and E. Finkenauer 2010. Coleópteros coletados com armadilhas luminosas e etanólicas em plantio de Eucalyptus spp. no sul do Rio Grande do Sul. Ci. Fl 20: 579–588. Google Scholar


E. Berti Filho 1997. Impact of Coleoptera Cerambycidae on Eucalyptus forests in Brazil. Sci. For. 52: 51–54. Google Scholar


L. F. Bybee , J. G. Millar , T. D. Paine , K. Campbell , and C. C. Hanlon 2004. Seasonal development of Phoracantha recurva and P. semipunctata (Coleoptera: Cerambycidae) in Southern California. Environ. Entomol. 33: 1232–1241. Google Scholar


E. R. P. S. Canettieri , and A. H. Garcia 2000. Abundância relativa das espécies de Cerambycidae (Insecta-Coleoptera) em pomar de frutíferas misto. Pesqui. Agropecu. Trop. 30: 43–50. Google Scholar


A. M. Costa Lima 1955. Insetos do Brasil, Coleópteros, Escola Nacional de Agronomía, Rio de Janeiro, pp. 92–118. Google Scholar


S. L. Costello , J. F. Negrón , and W. R. Jacobi 2011. Wood-boring insect abundance in fire-injured Ponderosa pine. Agric. For. Entomol. 13: 1461–1563. Google Scholar


O. T. Dall'oglio , and O. Peres Filho 1997. Levantamiento e flutuação populacional de coleobrocas em plantios homogêneos de seringueira em Itiquira — MT. Sci. For. 51: 49–58. Google Scholar


O. R. Di Iorio 1994. Cerambycidae y otros Coleoptera emergidos de ramas cortadas por Oncideres germari (Lamiinae: Onciderini) em el norte argentino. Rev. Biol. Trop. 42: 649–661. Google Scholar


K. J. Dodds , G. D. Dubois , E. R. Hoebeke 2010. Trap type, lure placement, and habitat effects on Cerambycidae and Scolytinae (Coleoptera) catches in the Northeastern United States. J. Econ. Entomol. 103: 698–707. Google Scholar


F. L. Fernandes , C. M. Picanço , M. Chediak , M. E. S. Fernandes , R. S. Ramos , and S. S. Moreira 2010. A low-cost trap for Cerambycidae monitoring in forest plantations in Brazil. Pesqui. Agropecu. Brasileira 45: 1044–1047. Google Scholar


M. H. M. Galileo , U. R. Martins , and L. A. Moura 1993. Sobre o comportamento, ontogenia e morfologia do aparelho reprodutor de Hedypathes betulinus (Klug, 1825) (Coleoptera, Cerambycidae, Lamiinae, Acanthoderini) a broca da erva-mate. Rev. Brasileira Entomol. 37: 705–715. Google Scholar


A. H. Garcia 1987. Análise faunística de espécies da família Cerambycidae (Insecta, Coleoptera) coletadas em pomares de Citrus conservado e abandonado. Thesis, ESALQ/USP. Google Scholar


A. H. Garcia , V. L. Silva , and E. A. Pereira 1992. Flutuação populacional de Dorcacerus barbatus (Olivier 1970) Coleoptera: Cerambycidae em pomar de jabuticabeira. Pesqui. Agropecu. Trop. 22: 17–25. Google Scholar


V. Graf , and M. R. Marzagão 1999. Ocorrência do parasitóide Labena fiorii sp.n. (Hymenoptera, Ichneumonidae) em larvas de Hedypathes betulinus (Klug), broca da erva-mate e em Chydarteres striatus (Fabricius), broca da aroeira, (Coleoptera, Cerambycidae). Rev. Brasileira Zool. 16: 185–190. Google Scholar


E. E. Grahan , and T. M. Poland 2012. Efficacy of fluon conditioning for capturing cerambycid beetles in different trap designs and persistence on panel traps over time. J. Econ. Entomol. 105: 395–401. Google Scholar


V. V. Grebennikov , B. D. Gill , and R. Vigneault 2010. Trichoferus campestris (Faldermann) (Coleoptera: Cerambycidae), an Asian wood-boring beetle recorded in North America. Coleopts. Bull. 64: 13–20. Google Scholar


L. M. Hanks 1999. Influence of the larval host plant on reproductive strategies of cerambycid beetles. Annu. Rev. Entomol. 44: 483–505. Google Scholar


E. G. Linsley 1959. Ecology of Cerambycidae. Annu. Rev. Entomol. 4: 99–138. Google Scholar


M. Monné , M. Bianchi , A. Sanchez , and R. Escudero 2002. Cerambicídeos (Coleoptera) que atacan Eucalyptus globulus y Eucalyptus grandis en Uruguay. Agrociencia 6: 63–68. Google Scholar


M. Monné 2004. Catalogue of the Neotropical Cerambycidae (Coleoptera) with known hosts plant. Museu Nacional, Rio de Janeiro. 95 pp. Google Scholar


G. J. Moraes , and E. Berti Filho 1974. Coleobrocas que ocorrem em essências florestais. IPEF. 9: 27–42. Google Scholar


J. Mueller , H. Bussler , and T. Kneib 2008. Saproxylic beetle assemblages related to silvicultural management intensity and stand structures in a beech forest in Southern Germany. J. Insect Conserv. 12: 107–124. Google Scholar


M. Ohsawa , and T. Shimokawa 2011. Extending the rotation period in larch plantations increases canopy heterogeneity and promotes species richness and abundance of native beetles: Implications for the conservation of biodiversity. Biol. Conserv. 144: 3106–3116. Google Scholar


T. D. Paine , and J. G. Millar 2002. Insect pests of eucalypts in California: implications of managing invasive species. B. Entomol. Res. 92: 147–15. Google Scholar


H. F. P. Paulino Neto , J. Vasconcellos-Neto , and S. M. Carmello-Guerreiro 2006. The biology of Oncideres humeralis Thorms (Coleoptera: Cerambycidae: Lamiinae) and new Cerambycidae-Melastomataceae host-plant associations. Stud. Neotrop. Fauna E. 41: 227–233. Google Scholar


J. K. S. Paz , P. R. R. Silva , L. E. M. Pádua , S. Ide , E. M. S. Carvalho , and S. S. Feitosa 2008. Monitoramento de coleobrocas associadas à mangueira no Município de José de Freitas, Estado do Piauí. Rev. Brasileira Frutic. 30: 348–355. Google Scholar


E. M. Pires , I. Moreira , M. A. Soares , J. A. Marinho , R. Pinto , and Z. C. Zanuncio 2011. Oxymerus aculeatus (Coleoptera: Cerambycidae) causing damage on corn plants (Zea mays L.) in Brazil. Rev. Colombiana Entomol. 37: 85–86. Google Scholar


A. Santos , R. Zanetti , L. A. Mendonça , L. M. Mendes , and J. B. Guimarães Júnior 2007. Ocorrência da coleobroca Phoracantha recurva Newman, 1840 (Coleoptera: Cerambycidae) em diferentes clones de Eucalyptus urophylla no estado de Minas Gerais. Cerne 13: 1–4. Google Scholar


S. Seaton 2012. The interaction of drought and the outbreak of Phoracantha semipunctata (Coleoptera: Cerambycidae) on tree collapse in the Northern Jarrah (Eucalyptus marginata) forest. Thesis, Murdoch University. Google Scholar


A. J. Silva Neto , H. Trevisan , L. S. Nascimento , and A. G. Carvalho 2011. Descrição de danos e volume de fitomassa lenhosa de fustes de Cassia siamea Lam. seccionados por Coccoderus novempunctatus (Coleoptera: Cerambycidae). Rev. árvore 35: 801–807. Google Scholar


H. Taki , T. Inoue , H. Tanaka , H. Makihara , M. Sueyoshi , M. Isono , and K. Okabe 2010. Responses of community structure, diversity, and abundance of understory plants and insect assemblages to thinning in plantations. Forest Ecol. Mgt. 259: 607–613. Google Scholar


Q. Wang , I. W. B. Thornthon , and T. R. New 1999. A cladistic analysis of the Phoracanthine genus Phoracantha Newman (Coleoptera: Cerambycidae: Cerambycinae), with discussion of biogeographic distribution and pests status. Ann. Entomol. Soc. America 92: 631–638. Google Scholar


C. F. Wilcken , E. Berti Filho , A. L. T. Ottati , D. C. Firming , and E. B. Couto 2002. Ocorrência de Phoracantha recurva Newman (Coleoptera: Cerambycidae) em eucalipto no Estado de São Paulo, Brasileira. Sci. For. 62: 149–153. Google Scholar


Y. Yamaura , H. Taki , H. Makihara , M. Isono , Y. Fujita , and K. Okabe 2011. Revisitation of sites surveyed 19 years ago reveals impoverishment of longhorned beetles in natural and planted forests. Entomol. Sci. 14: 56–67. Google Scholar


J. C. Zanuncio , M. A. L. Bragança , A. J. Laranjeiro , and M. Fagundes 1993. Coleópteros associados a eucaliptocultura nas regiões de São Mateus e Aracruz, Espírito Santo. Rev. Ceres 41: 584–590. Google Scholar


J. C. Zanuncio , E. M. Pires , R. P. Almado , R. Zanetti , M. A. Monné , J. M. M. Pereira , and J. E. Serrão 2009. Damage assessment and host plant records of Oxymerus basalis (Dalman, 1823) (Cerambycidae, Cerambycinae, Trachyderini) in Brazil. Coleopts. Bull. 63: 179–181. Google Scholar
Alexandre Santos, Ronald Zanetti, Roosevelt P. Almado, and José C. Zanuncio "Cerambycidae Associated with Hybrid Eucalyptus Urograndis and Native Vegetation in Carbonita, Minas Gerais State, Brazil," Florida Entomologist 97(2), 523-527, (1 June 2014).
Published: 1 June 2014
forest insects
Back to Top