Translator Disclaimer
25 April 2019 The Influence of Host Body Size and Food Guild on Prevalence and Mean Intensity of Chewing Lice (Phthiraptera) on Birds in Southern China
Author Affiliations +

Chewing lice (Insecta: Phthiraptera) are abundant ectoparasites of birds and mammals. They are adapted to life in the plumage or pelage of their hosts and virtually never leave the host during their life cycle. Most species are highly host specific. This study was carried out to determine species richness, abundance, and prevalence of chewing lice of wild forest birds in the southern region of China. Between July 2012 and June 2016, 2,210 birds (belonging to 8 orders, 45 families, and 215 species) were captured by mist nets and examined for chewing lice. In total, 622 birds of 117 species were parasitized by lice belonging to 89 species in 25 genera from 2 suborders (Amblycera and Ischnocera). Of these, 28 louse species represent new host–louse records for China and 10 worldwide. Chewing louse prevalence varied significantly among host species. There was no evidence of a correlation between climate zones and louse prevalence, but host guild affected prevalence significantly, with insectivorous birds having the lowest prevalence. Louse prevalence was positively correlated with host body mass and bill length, but mean intensity was only correlated with host body mass. These findings contribute further knowledge of avian chewing lice.

Parasitism is a successful way of life, with about 50% of all known animal and plant species being parasites, representing a large fraction of the earth's biodiversity (Price, 1980; de Meeûs and Renaud, 2002). A principal cause of this diversity is the fact that many parasites are fairly host specific, using only a subset of the hosts available at a given location (Poulin, 2007). Parasites influence almost every aspect of their host's life history. Chewing lice (Insecta: Phthiraptera) are parasitic insects found on virtually all bird and many mammal species (Marshall, 1981). Chewing lice are obligate, permanent ectoparasites with a direct life cycle spent entirely on the body of the host (Brooke, 2010). So far, more than 6,300 chewing louse species have been described, but only around 4,500 of them were accepted as valid by the most recent checklist (Price et al., 2003). Many species of chewing lice exhibit a high degree of host specificity and are important models of host–parasite coevolution on many taxonomic levels (Clayton and Moore, 1997; Clayton et al., 2003; Johnson et al., 2011, 2012; Sweet et al., 2016, 2017, 2018).

Until recently, the study of chewing lice in China has been largely neglected. Previous studies of lice from Chinese hosts have been mainly from caged birds, especially in zoos, mainly focusing on classification with little consideration being given to ecological aspects of the host–parasite relationship. Some chewing lice from China have been recorded from domestic birds by Yang et al. (1988), and others have been described as new species by Liu (1989a, 1989b, 1990, 1994) from order Galliformes. Huang (2003) published a list of 347 species of bird lice from Fujian Province, China, but he did not include the names of the hosts and only quoted 4 references from which he obtained all the records. Moreover, the list of lice records published by Huang (2003) does not include any specific collection data, nor any data on where these lice are deposited or how they were identified. This list is therefore of dubious authenticity, and many records on this list may be spurious, being derived from a host checklist and the assumption that all lice recorded on these hosts occur in Fujian, rather than on existing lice. We refer to this list here only as a tentative baseline. A few more recent studies on lice from Chinese wild birds have been carried out by foreign authors (e.g., Price et al., 2006; Bush et al., 2013; Gustafsson et al., 2018a, 2018b).

One important factor often overlooked when examining ectosymbiont diversity is the impact of the host's abiotic environment (Malenke et al., 2011). In particular, bird-associated arthropod diversity can be influenced by many climatic factors (Merino and Potti, 1996; Møller, 2010). Unlike endosymbionts, which inhabit more stable environments regulated by host physiology, ectosymbionts, such as chewing lice, can be influenced by variation in ambient temperature and humidity (Janovy et al., 1997; Moyer et al., 2002a; Møller, 2010). For example, Moyer et al. (2002a) found that ambient humidity had a highly significant impact on louse prevalence and abundance, and Bush et al. (2009) found that this impact may differ between different louse species on the same host.

Bird beaks play an important role in preening, the first line of defense against harmful ectoparasites such as chewing lice, fleas, bugs, flies, ticks, and feather mites (Clayton et al., 2005, 2010). Furthermore, beak size and shape are often closely adapted to the particular food resource available in the bird's environment (Gosler, 1987; Moyer et al., 2002b). Host body mass can also influence the diversity of chewing lice. Larger bodied hosts provide more resources and therefore support larger populations of ectosymbionts (Poulin and Rohde, 1997; Poulin, 2007). For example, Clayton and Walther (2001) found that chewing lice abundance was positively correlated with host body mass across 52 species of Peruvian birds.

Considering the scarcity of published research on lice from China, additional data on the parasitological parameters of chewing lice on wild birds is needed. Therefore, the aims of this study were to (1) gather new data regarding the species richness and distribution of chewing lice on wild forest birds in China; (2) provide information on their prevalence, intensity, and abundance; (3) test whether variation in climate zones and food guilds shape chewing louse communities of wild birds; and (4) test how host morphology may affect diversity of chewing lice (prevalence and intensity) among birds.


Study sites and birds

The collection of lice was carried out between July 2012 and June 2016 at 19 study sites across southern China (Fig. 1; Table I). We limited this study to the northern subtropics, marginal tropics, south subtropical, and mid-subtropics, representing 4 different climate zones according to the Climate Regionalization Map of China during the period 1981–2010 (Zheng et al., 2013).

Figure 1.

Nineteen sampling sites across southern China. BD, Badagongshan; BX, Baixian; DH, Dinghushan; DL, Dingling; DW, Daweishan; GJ, Gaojingliang; HB, Hongbenghe; HK, Huikuan; HM, Houmiling, HS, Husa; HY, Huyu; JF, Jianfengling; JZ, Jizushan; LD, Lingdingdao; LJ, Laojunshan; NL, Nanling; PR, Pairutun; RS, Rongshuwang; TL, Tongledashan. Color version available online.


Table I

Sampling sites with louse data for each site.


We captured birds alive using mist nets, placed each bird in individual cotton bags for a short time, and subsequently examined them individually to collect their ectoparasites. To avoid cross-contamination of samples, a cloth bag was used for each bird sampled. These cloth bags were later washed and inspected before re-use. The bird taxonomy used in this paper follows the International Ornithological Congress World Bird List (Gill and Donsker, 2016). In total, 2,210 birds belonging to 215 species from 45 families and 8 orders were examined for ectoparasites. For statistical analysis, we divided the birds into resident and migrating species (Zheng, 2011; Richard and Zou, 2015). Birds species were also classified into 6 food guilds based on diet (Zhao, 2001; Zou and Chen, 2004; Wilman et al., 2014), but we did not analyze carnivore, granivorous, and nectarivorous species because sample sizes were too small. Data on bird body mass and bill length are from Wilman et al. (2014) and Zhao (2001) (Suppl. Data, Table S1).

Collection, processing, and identification of lice

All birds were deloused using a standardized method. Lice were collected by using the fumigation chamber method with visual search of the head as described by Clayton and Walther (1997) and Clayton and Drown (2001) and also by visual examination and ruffling of the feathers. Birds were subsequently released into the wild. The detached lice were picked up with fine brushes and transferred to vials with 96% alcohol and stored in the laboratory until they were slide mounted in the laboratory for subsequent microscopic examination. At the same time, collection data for each bird species and the lice collected from them were recorded.

Some lice were slide mounted in Canada balsam as permanent slides, following the technique in Palma (1978), and some were mounted in Hoyers medium (Cielecka et al., 2009), using a dissecting microscope. Genus and species identifications were made under an Eclipse 80i digital microscope (Nikon Corporation, Tokyo, Japan). Identifications of louse genera were carried out primarily using keys in Price et al. (2003). Subsequently, more detailed identifications were made using relevant published information on the genera involved. The scientific names of chewing lice used in this paper follow those in the world checklist by Price et al. (2003), supplemented by names published after 2003 (references listed in Table II for taxa named after 2003). Slide-mounted specimens have been deposited in the collection of the Guangdong Institute of Applied Biological Resources (Guangzhou, China).

Table II

Louse taxa collected on some avian hosts from southern China. Sequences of species follow Gill and Donsker (2016). Note that Brueelia oxyrhyncha Gustafsson, Chu, Bush, and Zou, 2018, was described as a new species during the review of this paper. This species was described based on material collected during our study. We therefore count this as a new record for China and a new host record, despite the name having been published before the publication of the present study.






A relatively large number of louse samples were identified to the generic level only, especially those belonging to genera parasitizing species of order Passeriformes (see Table II, given as Genus sp.). This lack of species identifications is likely due to several main reasons: (1) inadequate samples, containing only nymphs or one sex; (2) very small samples or samples in poor condition; (3) lack of published revisional studies of the genus involved; and (4) the samples represent new, undescribed species. We have used the term sensu lato to denote populations with a range of measurement and morphological variation at present considered different from the named species, but not sufficiently distinct to warrant the erection of separate taxa (Pilgrim and Palma, 1982). We have given numbers to several unidentified species that we believe may represent undescribed species. Further research is planned to describe these species. In the references below, we have not included citations to papers where species listed in Table II were described before 2003, because those citations can be found in Price et al. (2003). However, we have included citations to species described in 2003 and later.

The following louse parameters were evaluated: (1) prevalence: the proportion of the members of a host taxon infested with lice; (2) mean intensity: the number of chewing lice per host among infested hosts; and (3) mean abundance: the number of chewing lice per host among examined hosts (Bush et al., 1997; Sychra et al., 2011).

Statistical analyses

The prevalence, mean intensity, and mean abundance of infestation of chewing lice from each host were calculated for all bird species. All data were examined for normality using Kolmogorov–Smirnov tests. To assess whether the prevalence differed among host families and species, we performed analysis of K independent sample nonparametric tests. Avian families were included in the analyses only if ≥5 individuals per species of at least 2 bird species were processed. Avian species were included in the analyses only if they occurred in 2 or more regions and included ≥5 individuals per region. In some bird orders, sample size was not large enough to make statistical analyses. We used a generalized linear mixed model (GLMM) to examine host diet and migratory status in relation to the prevalence of chewing lice. As fixed effects, we entered diet (3 categories: insectivorous, frugivorous, or omnivorous) and migratory status (2 categories: migratory or resident) as well as an interactive term (diet × migratory) into the model. We used a normal distribution with identity link function, including host body mass as random effects, and we accounted for bird phylogeny by including a random hierarchical component in the model that consisted of a spatially nested term (genus within family) using the categorical code assigned to each unique taxon (Blackburn and Duncan, 2001). We ran a series of models, dropping those containing nonsignificant main effects and interactions, resulting in the best single model containing only significant terms. We analyzed increasingly restrictive datasets containing host species with at least 10 individual hosts sampled for lice (Sychra et al., 2011). Analyses were performed using SPSS 22 (IBM Corp., 2013) and are summarized in Table S1.

Ethical approval

This study was carried out in strict accordance with the guidelines of Regulations for the Administration of Laboratory Animals (Decree No. 2 of the State Science and Technology Commission of the People's Republic of China on 14 November 1988). We obtained approval for this study from the Guangdong Institute of Applied Biological Resources Administrative Panel on Laboratory Animal Care. Permission from the local forestry department was also obtained.


Louse species richness and abundance

In total, 2,210 birds, representing 215 species from 45 families, were searched for chewing lice. The sampled birds included 2,149 passerine birds spanning 194 species and 36 families and 61 nonpasserine birds belonging to 21 species in the orders Columbiformes, Galliformes, Coraciiformes, Strigiformes, Trogoniformes, and Piciformes. Lice were collected from 622 host individuals (603 passerines belonging to 104 species and 19 nonpasserines belonging to 13 species), giving an overall prevalence of 28.1%. In total, 5,251 chewing lice were collected from 622 birds. Table S1 lists all host species and numbers of hosts sampled for lice, together with data on parasitological parameters, as well as the values for host variables that were significantly correlated with louse prevalence.

In total, 1,005 chewing louse specimens were slide mounted and identified from 186 bird individuals. The lice collected belong to 89 species, 25 genera, and 3 families in 2 suborders (Amblycera and Ischnocera), as shown in Table II.

Differences of louse prevalence and intensity among birds

Infestation rates were the highest in the Columbiformes and Galliformes (100%), followed by Coraciiformes (75.0%), Cuculiformes (61.5%), Strigiformes (28.6%), Passeriformes (28.1%), Trogoniformes (27.3%), and Piciformes (16.1%), respectively.

Among host families, the prevalence (mean ± SE) of chewing lice varied significantly (χ2 = 38.096, df = 16, P = 0.001; Fig. 2), ranging from 0% in Picidae to 83.1 ± 6.2% in Eurylaimidae. Among the Passeriformes, the chewing lice prevalence varied significantly among species (χ2 = 47.274, df = 29, P = 0.017), with the silver-breasted broadbill (Serilophus lunatus) having the highest prevalence (97.2 ± 2.8%).

The mean abundance and mean intensity of all the chewing lice collected was 2.4 and 8.4, respectively (range, 0–340). The mean abundance (χ2 = 10.9, df = 11, P < 0.001) and mean intensity (χ2 = 29.8, df = 11, P = 0.002) were significantly different among bird species, with the silver-breasted broadbill (7.5 ± 1.9) having the highest mean abundance and the orange-headed thrush (Geokichla citrina) (10.8 ± 3.3) having the highest mean intensity (Table S1).

Figure 2.

Prevalence of chewing louse infestations from selected species within some avian host families from southern China. Avian families were included in this analysis only if they had 2 or more bird species with ≥5 individuals deloused per species. There was a significant difference among avian host families (χ2 = 38.096, df = 16, P = 0.001). Different letters indicate significant differences for P < 0.05. The error bars represent SEs of the means.


Differences of louse prevalence among climatic zones, host diet, and migratory status

We compared the louse prevalence among climatic zones but found no significant differences (χ2 = 5.940, df = 3, P = 0.115). The results of the GLMM generated a significant model for prevalence (F5,48 = 4.635, P = 0.002) but only included a diet as a predictor (P = 0.001). Insectivorous birds had the lowest prevalence (21.6 ± 3.3%; Fig. 3). There was no significant difference between migratory and resident species (Mann–Whitney U-test, U = 203.00, P = 0.128). Resident birds had a higher prevalence of chewing lice (21.4 ± 3.3 vs. 17.9 ± 4.3 for migratory birds).

Figure 3.

Prevalence of chewing louse infestations in relation to different host food guilds. Bird species were included in this analysis only if 10 or more individuals were deloused. I, insectivorous birds; F, frugivorous birds; O, omnivorous birds. Different letters indicate significant differences for P < 0.05; The error bars represent SEs of the means.


Relationship between louse prevalence or intensity and host morphology

Spearman correlation analyses were restricted to bird species with at least 10 individuals sampled, and they showed that prevalence is positively correlated with host body mass (r = 0.356, P = 0.008) and bill length (r = 0.310, P = 0.022). Mean intensity was also positively correlated with host body mass (r = 0.292, P = 0.032). In contrast, bill length was not correlated with louse intensity (r = 0.193, P = 0.162; Fig. 4).

Figure 4.

Prevalence of chewing lice from different bird species in relation to (A) mean host body mass and (B) mean host bill length. Mean intensity of chewing lice from different bird species in relation to (C) mean host body mass and (D) mean host bill length. Bird species were included in this analysis only if 10 or more individuals were deloused.



Comparative studies of parasite community ecology are often hampered by uneven data sets merged from a number of smaller studies by researchers using different methods. We used consistent methodology to compare parasite prevalence and intensity across a diverse set of bird species sampled in southern China. Sampling a diverse set of host species is desirable because it increases the range of variation in host parameters that, in turn, increases the inferential power of a comparative study.

In this study, louse samples were identified to species where possible and identified as morphospecies when full identifications could not be made (Table II). Among the 89 morphospecies, 9 species were previously recorded from China by Huang (2003), Hellenthal and Price (2003), and Price et al. (2006). Here, we report 28 species for the first time from China; the other 52 species are only identified to genus. Note that as the published list of Huang (2003) is of dubious authenticity, the true number of new records for China is likely higher than shown here. New host records of chewing lice recorded in this study are indicated in Table II.

The total prevalence of chewing lice in this study was 28.1%. This infestation rate is lower than those recorded in similar surveys, such Dik et al. (2011a), Inci et al. (2010), and Wheeler and Threlfall (1986), with 35.48, 41.4, and 41% of birds parasitized, respectively. The discrepancy between our results and those obtained in these 3 reports could be due to differences in methodological and sampling methods. In our study, chewing lice were collected by visual examination and a fumigation chamber with visual search of the head of live birds, unlike the other studies in which birds were killed for sampling.

However, another survey by Dik et al. (2011b) of lice from Passeriformes showed an even lower infestation rate than our rate, with 21.57% of birds infested. The similarity of these low infestation rates is likely due to Passeriformes frequently showing low prevalence (e.g., Palma and Price, 2010) and, in our study, most of the bird species belong to this order of birds. On the species level, we found that the prevalence of chewing lice in Eurylaimidae was the highest among all families, with an average of 83.1%. This finding is consistent with a previous study that showed that 32 black-and-red broadbills (Cymbirhynchus macrorhynchos; Eurylaimidae) examined for chewing lice in Vietnam had a prevalence of 100% (Sychra et al., 2014).

Bird species, and especially bird families, vary greatly in morphology. Host body mass is known to have an influence on the abundance of parasites and other parameters (Clayton and Walther, 2001). Previous studies have demonstrated significant correlations between parasite species richness and host body size, local population density, and geographic range size (e.g., Rózsa, 1997). Louse populations on avian hosts range from none to thousands per host (Marshall, 1981). In the present study, there was a positive correlation between host body mass and mean intensity. Previous studies showed a similar correlation between host body size and abundance in a group of parasites (Poulin and Rohde, 1997; Grutter and Poulin, 1998). Rózsa (1997) showed a correlation between host body mass and mean abundance of lice among 36 species of birds from temperate climate; he hypothesized that the correlation could be explained by (1) more resources on larger hosts; (2) more refugia from preening on larger hosts; or (3) greater longevity of larger hosts, thereby provide a larger window of opportunity for infestation by lice. Our data are insufficient to evaluate the relative merits of these hypotheses. Further comparative and experimental studies should be made to test these possible explanations.

We found louse prevalence to be positively correlated with host bill length, whereas mean intensity was not significantly correlated with host bill length (Fig. 4). Bills are important tools for preening, a major defense against ectoparasites. Efficient preening reduces the number of lice, and, consequently, the feather damage that they cause. Inefficient preening results in a rapid increase in ectoparasite load (Brown, 1972, 1974; Clayton, 1991). Preening efficiency may vary with bill size. Indeed, Barbosa (1996) pointed out long-billed species spend more time preening during bouts of foraging than short-billed species, suggesting that species with long bills might be less efficient at preening than birds with short bills. Wild birds with beak deformities have been shown to have heavier louse infestations than birds without beak deformities (Worth, 1940; Johnson and Long, 1959).

Beak morphology is usually interpreted in relation to its critical role in feeding (Clayton et al., 2005). Beak types vary in shape because of the different ways birds collect food. In particular, the bill overhang is known to be important to combat louse infestations (Clayton et al., 2010), and even a small difference in overhang size may have a dramatic effect on louse load (Clayton et al., 2005); however, this effect is apparently absent in nonpasserines (Clayton and Walther, 2001). Differences in feeding method may thus influence the shape of the beak that, in turn, influences the bird's efficiency in removing ectoparasites. Given the importance of the bill shape for removing lice in passeriform birds, as well as for feeding, we would expect differences in louse loads to vary between guilds of birds that have consistent differences in bill shape, particularly for the degree of bill overhang.

Our data indicate that chewing louse infestation rates were affected by host food guild, with prevalence being lower on insectivorous birds than on frugivorous and omnivorous birds. However, data on the degree of bill overhang were not collected, and we are thus presently unable to test whether this character can explain the pattern our data indicate. In general, we would expect an insectivorous bird to have more use of a bill overhang in food manipulation than a frugivorous bird, as the prey item of an insectivorous bird would struggle more than that of a frugivorous bird. By contrast, bill overhang could even be a hindrance in frugivorous or granivorous birds if it prevents the bird from properly manipulating food (Clayton and Walther, 2001). However, additional data on the degree of bill overhang in the 3 food guilds examined are needed to test this hypothesis.

The 4 climatic zones where we collected lice differed in relative temperature and humidity, but there were no significant differences in the prevalence of chewing lice among the zones. This is in agreement with the finding of Tolossa et al. (2009) but in contrast to the data of Moyer et al. (2002a). In the present data, the lack of difference in louse prevalence between the different climatic zones may be due to the relatively similar climates in the 4 zones.

Migratory animals differ from resident forms by being exposed to more than a single environment and its predators, parasites, and other biotic components. Some studies of protozoan parasites in birds suggest that migratory species have more severe infections than residents (Bennett and Fallis, 1960; Greiner et al., 1975). The energy cost of migration is very high for birds, and more time is therefore needed for feeding, at the cost of other activities, including preening. This may result in an increase in chewing lice abundance in migratory birds (Rózsa, 1997; Price et al., 2003).

However, in this study we found no difference in louse prevalence between migratory and resident birds. This is surprising, as migratory birds at higher latitudes generally have much lower louse infestation rates than resident birds (D. R. Gustafsson, unpubl. data from Sweden and Japan). Sychra et al. (2011) also showed a significant difference in the total prevalence of chewing lice on resident and migratory birds. The differences between our data and data from outside China are hard to explain. However, many of the species here counted as migratory breeds in southern China and migrate to, for example, Southeast Asia. This means that in contrast to the birds examined by Sychra et al. (2011), many of the specific individuals of these bird species we examined would still have bred in the subtropical area. Their louse communities would therefore have been influenced more by conditions prevailing in the subtropics than in the temperate or boreal regions, where the birds examined by Sychra et al. (2011) and D. R. Gustafsson (unpubl. data) would have bred. Differences in louse communities over such large scales are very poorly known, and future work will focus on comparing the louse loads of birds breeding in the temperate and subtropical regions, including both migrants and nonmigrants.


We are grateful to W. M. Li, Y. Y. Zhao, Q. W. Zhang, D. D. Su, Y. H. Zhang, D. Q. He, and Y. C. Wu for assistance with collecting samples in the field. We also thank N. Mu and X. J. Kuang for help in slide mounting the chewing lice. Special thanks to Ricardo L. Palma (New Zealand) for assistance in the identification of some lice species.

This study was supported by the National Natural Science Foundation of China (31672265), Funds for Environment Construction and Capacity Building of GDAS' Research Platform (2016GDASPT-0305), Biodiversity Monitoring of Forest Nature Reserve in Guangdong (0877-16GZTP01D060), Nanling Ecological Station (Sytz 201514), Pearl River S&T Nova Program of Guangzhou (201610010001), and Guangdong Province Science and Technology Plan Project (2013B020310005).


  1. Barbosa, A. 1996. Relationship between bill morphology and preening behaviour in waders.Ethology Ecology & Evolution8: 291–296. Google Scholar

  2. Bennett, G. M., and A. M. Fallis. 1960. Blood parasites of birds in Algonquin Park, Canada, and a discussion of their transmission.Canadian Journal of Zoology38: 261–273. Google Scholar

  3. Blackburn, T. M., and R. P. Duncan. 2001. Determinants of establishment success in introduced birds.Nature414: 195–197. Google Scholar

  4. Brooke, M. De L. 2010. Vertical transmission of feather lice between adult blackbirds Turdus merula and their nestlings: A lousy perspective.Journal of Parasitology96: 1076–1080. Google Scholar

  5. Brown, N. S. 1972. The effect of host beak condition on the size of Menacanthus stramineus populations of domestic chicken.Poultry Science51: 162–164. Google Scholar

  6. Brown, N. S. 1974. The effect of louse infestation, wet feathers, and relative humidity on the grooming behavior of the domestic chicken.Poultry Science53: 1717–1719. Google Scholar

  7. Bush, A. O., K. D. Lafferty, J. M. Lotz, and A. W. Shostak. 1997. Parasitology meets ecology on its own terms: Margolis et al. revisited.Journal of Parasitology83: 575–583. Google Scholar

  8. Bush, S. E., C. W. Harbison, D. L. Slager, A. T. Peterson, R. D. Price, and D. H. Clayton. 2009. Geographic variation in the community structure of lice on western scrub-jays.Journal of Parasitology95: 10–13. Google Scholar

  9. Bush, S. E., M. Reed, and S. Maher. 2013. Impact of forest size on parasite biodiversity: Implications for conservation of hosts and parasites.Biodiversity Conservation22: 1391–1404. Google Scholar

  10. Cielecka, D., R. Salamatin, and A. Garbacewicz. 2009. Usage of the Hoyer's medium for diagnostics and morphological studies of some parasites.Wiadomosci Parazytologiczne55: 265–270. Google Scholar

  11. Clayton, D. H. 1991. Coevolution of avian grooming and ectoparasite avoidance.InBird-parasite interactions: Ecology, evolution and behavior, J. E.Loye and M.Zuk (eds.). Oxford University Press, Oxford, U.K., p. 258–289. Google Scholar

  12. Clayton, D. H., S. E. Bush, B. M. Goates, and K. P. Johnson. 2003. Host defence reinforces host-parasite cospeciation.Proceedings of the National Academy of Science of the United States of America100: 15694–15699. Google Scholar

  13. Clayton, D. H., and D. M. Drown. 2001. Critical evaluation of five methods for quantifying chewing lice (Insecta: Phthiraptera).Journal of Parasitology87: 1291–1300. Google Scholar

  14. Clayton, D. H., J. A. H. Koop, C. W. Harbison, B. R. Moyer, and S. E. Bush. 2010. How birds combat ectoparasites.Open Ornithology Journal3: 41–71. Google Scholar

  15. Clayton, D. H., and J. Moore. 1997. Host-parasite evolution: General principles and avian models.Oxford University Press, Oxford, U.K., 486 p. Google Scholar

  16. Clayton, D. H., B. R. Moyer, S. E. Bush, T. G. Jones, D. W. Gardiner, B. B. Rhodes, and F. Goller. 2005. Adaptive significance of avian beak morphology for ectoparasite control.Proceedings of the Royal Society B272: 811–817. Google Scholar

  17. Clayton, D. H., and B. A. Walther. 1997. Collection and quantification of arthropod parasites of birds.InHost-parasite evolution: General principles and avian models, D. H.Clayton and J.Moore (eds.). Oxford University Press, Oxford, U.K., p. 419–440. Google Scholar

  18. Clayton, D. H., and B. A. Walther. 2001. Influence of host ecology and morphology on the diversity of Neotropical bird lice.Oikos94: 455–467. Google Scholar

  19. de Meeûs, T., and F. Renaud. 2002. Parasites within the new phylogeny of eukaryotes.Trends in Parasitology18: 247–251. Google Scholar

  20. Dik, B., E.Erdogdu-Yamaç, and U. Uslu. 2011a. Chewing lice (Phthiraptera) found on wild birds in Turkey.Kafkas Üniversitesi Veteriner Fakültesi Dergisi17: 787–794. Google Scholar

  21. Dik, B., M. A. Kirpik, Ç.Sekercioglu, and Y. Sasmaz. 2011b. Chewing lice (Phthiraptera) found on songbirds (Passeriformes) in Turkey.Turkiye Parazitoloji Dergisi35: 34–39. Google Scholar

  22. Gill, F., and D. Donsker. 2016. IOC world bird list (version 6.3). Scholar

  23. Gosler, A. G. 1987. Pattern and process in the bill morphology of the great tit Parus major.Ibis129: 451–476. Google Scholar

  24. Greiner, E. C., G. F. Bennett, E. M. White, and R. F. Coombs. 1975. Distribution of the avian haematozoa of North America.Canadian Journal of Zoology53: 1762–1787. Google Scholar

  25. Grutter, A. S., and R. Poulin. 1998. Intraspecific and interspecific relationships between host size and the abundance of parasitic larval gnathiid isopods on coral reef fishes.Marine Ecology Progress Series164: 263–271. Google Scholar

  26. Gustafsson, D. R., and S. E. Bush. 2017Morphological revision of the hyper-diverse Brueelia-complex (Insecta: Phthiraptera: Ischnocera: Philopteridae) with new taxa, checklists and generic key.Zootaxa4313: 1–443. Google Scholar

  27. Gustafsson, D. R., X. Z.Chu, S. E.Bush, and F. S. Zou. 2018a. Ten new species of Brueelia Kéler, 1936 (Phthiraptera: Ischnocera: Philopteridae) from nuthatches (Aves: Passeriformes: Sittidae), tits and chickadees (Paridae), and gold-crests (Regulidae).Acta Parasitologica63: 527–557. Google Scholar

  28. Gustafsson, D. R., D. H. Clayton, and S. E. Bush. 2018b. Twelve new species of Priceiella (Phthiraptera: Ischnocera: Philopteridae) from Old World babblers, with keys to species of two subgenera and checklists of species for the genus.Zootaxa4382: 401–449. Google Scholar

  29. Hellenthal, R. A., and R. D. Price. 2003. The genus Myrsidea Waterston (Phthiraptera: Menoponidae) from bulbuls (Passeriformes: Pycnonotidae), with descriptions of 16 new species.Zootaxa354: 1–20. Google Scholar

  30. Huang, B. K. 2003. Fauna of insects in the Fujian province of China. Volume 8.Fujian Science and Technology Press, Fujian, China, 706 p. Google Scholar

  31. IBM CORP. 2013. IBM SPSS Statistics for Windows, Version 22.0.IBM Corp., Armonk, New York. Google Scholar

  32. Inci, A., B. Dik, M. Kibar, A. Yildirim, and Ö. Düzlü. 2010. Chewing lice (Phthiraptera) species on wild birds in Cappadocia region, Turkey.Turkiye Parazitoloji Dergisi34: 174–178. Google Scholar

  33. JanovyJr., J., D. H. Clayton, and J. Moore. 1997. Protozoa, helminths, and arthropods of birds.InHost-parasite evolution: General principles and avian models, D. H.Clayton, and J.Moore (eds.). Oxford University Press, Oxford, U.K., p. 303–337. Google Scholar

  34. Johnson, J. C., and C. A. Long. 1959. Common grackle heavily infested with Mallophaga.Wilson Bulletin72: 107. Google Scholar

  35. Johnson, K. P., J. D. Weckstein, S. E. Bush, and D. H. Clayton. 2011. The evolution of host specificity in dove body lice.Parasitology138: 1730–1736. Google Scholar

  36. Johnson, K. P., S. M. Shreve, and V. S. Smith. 2012. Repeated adaptive divergence of microhabitat specialization in avian feather lice.BMC Biology10: 52. Scholar

  37. Liu, S. K. 1989a. Two new species of genus Goniodes from China pheasants.Zoological Research10: 37–43. Google Scholar

  38. Liu, S. K. 1989b. Four new species of genus Lagopoecus (Mallophaga: Philopteridae).Entomotaxonomia11: 261–268. Google Scholar

  39. Liu, S. K. 1990. Two new species of genus Goniocotes (Mallophaga: Philopteridae) from Chinese pheasants.Entomotaxonomia12: 119–122. Google Scholar

  40. Liu, S. K. 1994. A new species of the genus Goniodes (Mallophaga: Philopteridae).Entomotaxonomia16: 173–176. Google Scholar

  41. Malenke, J. R., N. Newbold, and D. H. Clayton. 2011. Condition-specific competition governs the geographic distribution and diversity of ectoparasites.American Naturalist177: 522–534. Google Scholar

  42. Marshall, A. G. 1981. The ecology of ectoparasitic insects.Academic Press, London, U.K., 459 p. Google Scholar

  43. Merino, S., and J. Potti. 1996. Weather dependent effects of nest ectoparasites on their bird hosts.Ecography19: 107–113. Google Scholar

  44. Møller, A. P. 2010. Host–parasite interactions and vectors in the barn swallow in relation to climate change.Global Change Biology16: 1158–1170. Google Scholar

  45. Moyer, B. R., D. M. Drown, and D. H. Clayton. 2002a. Low humidity reduces ectoparasite pressure: Implications for host life history evolution.Oikos97: 223–228. Google Scholar

  46. Moyer, B. R., A. T. Peterson, and D. H. Clayton. 2002b. Influence of bill shape on ectoparasite load in western scrub-jays.Condor104: 675–678. Google Scholar

  47. Najer, T., O. Sychra, F. Kounek, I. Papousek, and N. M. Hung. 2014. Chewing lice (Phthiraptera: Amblycera and Ischnocera) from wild birds in southern Vietnam, with descriptions of two new species.Zootaxa3755: 419–433. Google Scholar

  48. Najer, T., O. Sychra, M. Nguyen, M. Capek, P. Podzemny, and I. Literak. 2012. Chewing lice (Phthiraptera: Amblycera, Ischnocera) from wild passerines (Aves: Passeriformes) in northern Vietnam, with descriptions of three new species.Zootaxa3530: 59–73. Google Scholar

  49. Palma, R. L. 1978. Slide-mounting of lice: A detailed description of the Canada balsam technique.New Zealand Entomologist6: 432–436. Google Scholar

  50. Palma, R. L., and R. D. Price. 2010. The species of Myrsidea Waterston (Insecta: Phthiraptera: Menoponidae) from the Galápagos Islands, with descriptions of new taxa.Tuhinga21: 135–146. Google Scholar

  51. Pilgrim, R. L. C., and R. L. Palma. 1982. A list of the chewing lice (Insecta: Mallophaga) from birds in New Zealand.Supplement to Notornis 29 and National Museum of New Zealand Miscellaneous Series6: 1–32. Google Scholar

  52. Poulin, R. 2007. Evolutionary ecology of parasites, 2nd ed.Princeton University Press, Princeton, New Jersey, 342 p. Google Scholar

  53. Poulin, R., and K. Rohde. 1997. Comparing the richness of metazoan ectoparasite communities of marine fishes: Controlling for host phylogeny.Oecologia110: 278–283. Google Scholar

  54. Price, P. W. 1980. Evolutionary biology of parasites.Princeton University Press, Princeton, New Jersey, 237 p. Google Scholar

  55. Price, R. D., D. C. Arnold, and S. E. Bush. 2006. Five new species of Myrsidea (Phthiraptera: Menoponidae) from Asian babblers (Passeriformes: Timaliidae).Journal of the Kansas Entomological Society79: 369–377. Google Scholar

  56. Price, R. D., R. A. Hellenthal, and R. L. Palma. 2003. World checklist of chewing lice with host associations and keys to families and genera.InThe chewing lice: World checklist and biological overview (special publication 24), R. D.Price, R. A.Hellenthal, R. L.Palma, K. P.Johnson, and D. H.Clayton (eds.). Illinois Natural History Survey, Champaign, Illinois, p. 1– 448. Google Scholar

  57. Richard, W. L., and F. S. Zou. 2015. A checklist of the birds of Guangdong with notes on its ornithological exploration.Chinese Journal of Zoology50: 499–517. Google Scholar

  58. Rózsa, L. 1997. Patterns in the abundance of avian lice (Phthiraptera: Amblycera, Ischnocera).Journal of Avian Biology28: 249–254. Google Scholar

  59. Sweet, A. D., B. M. Boyd, and K. P. Johnson. 2016. Cophylogenetic patterns are uncorrelated between two lineages of parasites on the same hosts.Biological Journal of the Linnean Society118: 813–828. Google Scholar

  60. Sweet, A. D., S. E. Bush, D. R. Gustafsson, J. M. Allen, E. Diblasi, H. R. Skeen, J. D. Weckstein, and K. P. Johnson. 2018. Host and parasite morphology influence congruence between host and parasite phylogenies.International Journal for Parasitology48: 641–648. Google Scholar

  61. Sweet, A. D., R. T. Chesser, and K. P. Johnson. 2017. Comparative cophylogenetics of Australian phabine pigeons and doves (Aves: Columbidae) and their feather lice (Insecta: Phthiraptera).International Journal for Parasitology47: 347–356. Google Scholar

  62. Sychra, O., I. Literák, N. M. Hung, and P. Podzemný. 2009. Chewing lice from wild passerines (Aves, Passeriformes) from Vietnam, with description of a new species of the genus Brueelia (Phthiraptera, Ischnocera, Philopteridae).Acta Parasitologica54: 154–157. Google Scholar

  63. Sychra, O., I. Literák, P. Podzemný, P. Harmat, and R. Hrabák. 2011. Insect ectoparasites on wild birds in the Czech Republic during the pre-breeding period.Parasite18: 13–19. Google Scholar

  64. Sychra, O., T. Najer, F. Kounek, N. M. Hung, and O. O. Tolstenkov. 2014. Myrsidea claytoni (Phthiraptera: Menoponidae) from Cymbirhynchus macrorhynchos (Passeriformes: Eurylaimidae): A case of natural host switching.Journal of Parasitology100: 280–283. Google Scholar

  65. Tolossa, Y. H., Z. D. Shafi, and A. K. Basu. 2009. Ectoparasites and gastrointestinal helminths of chickens of three agro climatic zones in Oromia Region, Ethiopia.Animal Biology59: 289–297. Google Scholar

  66. Wheeler, T. A., and W. Threlfall. 1986. Observations on the ectoparasites of some Newfoundland passerines (Aves: Passeriformes).Canadian Journal of Zoology64: 630–636. Google Scholar

  67. Wilman, H., J. Belmaker, J. Simpson, C. De La Rosa, M. M. Rivadeneira, and W. Jetz. 2014. EltonTraits 1.0: Species-level foraging attributes of the world's birds and mammals.Ecology95: 2027 Google Scholar

  68. Worth, C. B. 1940. A note on the dissemination of Mallophaga.Bird Banding11: 23–24. Google Scholar

  69. Yang, Q., Z. Tong, and Z. Sun. 1988. Rare species of Mallophage from Sumatran gazelle, blue peafowls, Zhoushan turkeys, pigeons, Beijing ducks and Ningpo geese.Journal of Zhejiang Rural Technology Teachers (Natural Sciences)1: 55–62. Google Scholar

  70. Zhao, Z. J. 2001. A handbook of the birds of China. Two volumes.Jilin Science and Technology Press, Changchun, China, 1755 p. Google Scholar

  71. Zheng, G. M. 2011. A checklist on the classification and distribution of the birds of China, 2nd ed.Science Press, Bejing, China, 456 p. Google Scholar

  72. Zheng, J. Y., J. J. Bian, Q. S. Ge, Y. Z. X. Hao, H. Yin, and Y. M. Liao. 2013. The climate regionalization in China for 1981–2010.Chinese Science Bulletin58: 3088–3099. Google Scholar

  73. Zou, F. S., and G. Z. Chen. 2004. A study of understory bird communities in tropical mountain rain forest Jianfengling, Hainan Island, China.Acta Ecologica Sinica24: 510–516. Google Scholar

© American Society of Parasitologists 2019
Xingzhi Chu, Bilal Dik, Daniel R. Gustafsson, Xianli Che, Qiang Zhang, and Fasheng Zou "The Influence of Host Body Size and Food Guild on Prevalence and Mean Intensity of Chewing Lice (Phthiraptera) on Birds in Southern China," Journal of Parasitology 105(2), 334-344, (25 April 2019).
Published: 25 April 2019

Back to Top