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875 results for “Infestation”
Figures 9–11 in Stick-tight fleas in the nostrils and below the tongue: evolution of an extraordinary infestation site in Hectopsylla (Siphonaptera: Pulicidae)
Figures 9–11. Head morphology in Hectopsylla species (only postoral process, first article of maxillary palpus and maxilla illustrated in Figs 10, 11). Fig. 9. H. psittaci (lectotype, ♀), head. Fig. 10. H. knighti (holotype, ♀). Fig. 11. H. pulex (♀).
Figures 27–28 in Stick-tight fleas in the nostrils and below the tongue: evolution of an extraordinary infestation site in Hectopsylla (Siphonaptera: Pulicidae)
Figures 27–28. Infestation sites of Hectopsylla species. Fig. 27. Hectopsylla narium sp. nov. in the nostril of Cyanoli-
Figures 1–6. Hectopsylla species. Fig. 1. H in Stick-tight fleas in the nostrils and below the tongue: evolution of an extraordinary infestation site in Hectopsylla (Siphonaptera: Pulicidae)
Figures 1–6. Hectopsylla species. Fig. 1. H. narium sp. nov. (♂, holotype). Fig. 2. H. narium sp. nov. (♀, paratype).
Figure 26 in Stick-tight fleas in the nostrils and below the tongue: evolution of an extraordinary infestation site in Hectopsylla (Siphonaptera: Pulicidae)
Figure 26. Cladogram of the lineages of Hectopsylla and hypothesis of character evolution mapped on it. Tree of 43 steps length produced by ordered analysis in PAUP*. Pictograms on the right side illustrate the association of the flea taxa with birds, bats and terrestrial mammals.
Fig. 1 in Infestation pattern and parasitic castration of the crustacean Riggia paranensis (Crustacea: Cymothoidea) on the fresh water fish Cyphocharax gilbert (Teleostei: Curimatidae)
Fig. 1. Relationship between size of Riggia paranensis and its host Cyphocharax gilbert classified into two (groups 3 and 4) body length indexes [BLI= [((TLRi mm)/(SLCy mm)).100]: total body length of the parasite (TLRi) and standard length of the host (SLCy)]. The total includes all hosts and parasites collected between September 1997 to August 2000. Data are also presented separately for the autumn-winter (March through August) and spring-summer (September through February) periods. All specimens collected in the middle rio Itabapoana, Brazil.
Fig. 3 in Chewing lice (Phthiraptera) infesting breeding Suliformes (Aves: Aequornithes) of the Arabian Peninsula
Fig. 3. (a) Female Pectinopygus socotranus Timmermann; (b) male Pectinopygus socotranus Timmermann; (c) female Pectinopygus sulae (Rudow); (d) male Pectinopygus sulae (Rudow).
Fig. 1 in Chewing lice (Phthiraptera) infesting breeding Suliformes (Aves: Aequornithes) of the Arabian Peninsula
Fig. 1. Map of the Arabian Peninsula indicating bird collection sites: (1) Socotra cormorant; (2) Brown booby; (3) Masked booby.
Fig. 2 in Chewing lice (Phthiraptera) infesting breeding Suliformes (Aves: Aequornithes) of the Arabian Peninsula
Fig. 2. (a) Female Eidmanniella albescens (Piaget); (b) female Eidmanniella nancyae Ryan & Price.
Insights into Varroa mite (Varroa destructor) infestation levels in local honeybee (Apis mellifera) colonies of Ethiopia
<p>These data were collected from three geographic regions of Ethiopia from September, 2020 to June 2022 in order to determine the prevalence of<em> varroa destructor </em>in Ethiopian honeybee colonies. The data was analyzed to compare the <em>Varroa destructor</em> mite among the honeybee development stages (brood Vs Adult), by the hive types (Local traditional Vs Frame modern) and across the geographic regions (Oromia, Amhara and SNNPR). </p> <p>Both the raw and the partially processed data were available here. </p>
Figure 1 in Nematodes infest winter-active chironomids in Minnesota trout streams
Figure 1. Female Orthocladiinae longevity and survival probability with and without nematode parasitism in Ike's Creek. Longevity defined as days lived post collection. (a) Box and whisker boundaries signify the maximum, 75th percentile, median, 25th percentile, and minimum longevity values. Black diamonds (◆) indicate mean longevity and dots (•) indicate outliers. Wilcoxon tests with Benjamini & Hochberg multiple test corrections were used to determine statistical differences between parasitized and non-parasitized individuals. (b) Kaplan-Meier survivorship curves indicate the proportion of individuals alive on a given day. Log-Rank tests were used to determine statistical differences between parasitized and non-parasitized individuals.
Figure 1 in Massive infestation of Tyrophagus putrescentiae (Astigmata: Acaridae) inside an office in City of Panama, Panama
Figure 1. Infestation of Tyrophagus putrescentiae in furniture (A) bottle with alcohol 70% (B), cup of coffee (C), and inside pantry furniture (D) in administrative office in City of Panama, Panama.
Figure 1 in Comparison of Sampling Intensity to Estimate Infestations of Coffee Berry Borer on Hawaii
Figure 1. Mean proportion of infested berries ± SEM estimated by counting berries using three sampling intensities. The data are averages from four farms on Hawaii island.
Figure 2 in Dichromothrips smithi (Zimmermann), a New Thrips Species Infesting Bamboo Orchids Arundina graminifolia (D. Don) Hochr. and Commercially Grown Orchids in Hawaii
Figure 2. Area where bamboo orchids were common in lower Puna (2a). Locations (marked with red pins) in east Hawaii in which bamboo orchids were surveyed for the presence of D. smithi in 2008 and 2009 (2b).
Figure 1. A in Dichromothrips smithi (Zimmermann), a New Thrips Species Infesting Bamboo Orchids Arundina graminifolia (D. Don) Hochr. and Commercially Grown Orchids in Hawaii
Figure 1. A bamboo orchid blossom infested with adult females of D. smithi, which appear black against the light pink color of the petals.
Figure 4. A normal female and a in Dichromothrips smithi (Zimmermann), a New Thrips Species Infesting Bamboo Orchids Arundina graminifolia (D. Don) Hochr. and Commercially Grown Orchids in Hawaii
Figure 4. A normal female and a teneral (newly molted, light colored) female D. smithi after storage in 70% ethanol (4a). Male and female D. smithi in ethanol (4b). The two males are lighter in color. Note that females stored in ethanol appear lighter brown with abdominal segments stretched out in comparison to the live female on blossom tissue pictured in 4c.
Figure 3. D in Dichromothrips smithi (Zimmermann), a New Thrips Species Infesting Bamboo Orchids Arundina graminifolia (D. Don) Hochr. and Commercially Grown Orchids in Hawaii
Figure 3. D. smithi (adults females and larvae) and two unidentified Orius predators (lower right area of picture) washed from a bamboo orchid flower blossom and stored in ethanol. Note that predators are similar in length to D. smithi adults. Note also orange-colored second instar larva of D. smithi (middle left). Large secondinstar larvae are distinctly orange in life.
Fig. 8 in Bat-infesting chiggers (Acariformes: Trombiculidae) of the Balearic Islands and new data on the genus Trisetica Traub et Evans, 1950
Fig. 8. Trisetica knighti (Radford, 1954), larva. A – genu, tibia, and tarsus of leg I in specimen ZIN 11168; B – trochanter, basifemur, and telofemur of leg I in specimen ZIN 11168; C – genu, tibia, and tarsus of leg II in specimen ZIN 11168; D – trochanter, basifemur, and telofemur of leg II in specimen ZIN 11168; E – genu, tibia, and tarsus of leg III in specimen ZIN 11169; F – trochanter, basifemur, and telofemur of leg III in specimen ZIN 11169. Abbreviations: f1 – famulus I; f2 – famulus II; ga – genuala I; gm – genuala II; gp – genuala III; mga – microgenuala I; mta – microtibiala; ST – subterminala; pST – parasubterminala; PT' – pretarsala I; PT" – pretarsala II; S 1 – tarsala I; S 2 – tarsala II; ta – tibiala I; tm – tibiala II; tp – tibiala III.
Fig. 1 in Bat-infesting chiggers (Acariformes: Trombiculidae) of the Balearic Islands and new data on the genus Trisetica Traub et Evans, 1950
Fig. 1. Larvae of Oudemansidium komareki (Daniel et Dusbábek, 1959) onPipistrellus kuhlii (Kuhl) (photographed by Juan Quetglas).
Fig. 7 in Bat-infesting chiggers (Acariformes: Trombiculidae) of the Balearic Islands and new data on the genus Trisetica Traub et Evans, 1950
Fig. 7. Trisetica knighti (Radford, 1954), larval specimen ZIN 11171: scutum (one sensillum intact). Scale bar 25 μm. Abbreviations: AL – anterolateral scutal seta; AM – anteromedian scutal seta; S – sensillum; SB – sensillary base.
Fig. 2 in Bat-infesting chiggers (Acariformes: Trombiculidae) of the Balearic Islands and new data on the genus Trisetica Traub et Evans, 1950
Fig. 2. Trisetica knighti (Radford, 1954), larva. A – arrangement of dorsal idiosomal setae in a paratype (ZIN); B – arrangement of ventral idiosomal setae in a paratype (ZIN; excretory pore is invisible); C – dorsal idiosomal seta in specimen ZIN 11168; D – ventral preanal idiosomal seta in specimen ZIN 11168. Scale bar 100 μm (A, B), 20 μm (C, D).
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