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Fig. 3. a in Parasitoids Of The Bedeguar Gall (Diplolepis Rosae): Effect Of Host Scale On Density And Prevalence
Fig. 3. a) Parasitoid numbers per shrubs (dots) and galls (triangles); b) parasitoid prevalences per shrubs (dots) and galls (triangles) versus rose shrub density per 50 m × 50 m plot (nested linear fixed effect ANCOVA)
FIGURE 6 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 6: Insect galls of Flona-Silvânia, Goiás, Brazil. (A) Gall 175), (B) Siparuna guianensis Aubl. (Gall 176), (C) S. guianensis (Gall 178), (D) S. guianensis (Gall 179), (E) Styrax ferrugineus Nees and Mart. (Gall 181), (F) S. ferrugineus (Gall 182), (G) Qualea grandiflora Mart. (Gall 184), (H) Q. grandiflora (Gall 185).
FIGURE 4 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 4: Insect galls of Flona-Silvânia, Goiás, Brazil. (A) Copaifera langsdorffii Desf. (Gall 90), (B) C. langsdorffii (Gall 91), (C) C. langsdorffii (Gall 92), (D) Inga sp. (Gall 94), (E) Lamiaceae sp. (Gall 96), (F) Lauraceae sp. (Gall 97), (G) Nectandra sp. (Gall 99), (H) Strychnos pseudoquina A. St.-Hil. (Gall 100), (I) Diplusodon sp. (Gall 101), (J) Byrsonima verbascifolia (L.) DC. (Gall 102), (K) B. verbascifolia (Gall 103), (L) B. verbascifolia (Gall 105), (M) B. verbascifolia (Gall 106), (N) Peixotoa goiana C.E. Anderson (Gall 107), (O) P. goyana (Gall 108), (P) Malvaceae sp. (Gall 110), (Q) Melastomataceae sp. (Gall 113), (R) Guarea sp. (Gall 114), (S) Meliaceae sp. (Gall 115), (T) Eugenia bimarginata DC. (Gall 118), (U) Myrtaceae sp. (Gall 120), (V) Myrtaceae sp. (Gall 122), (W) Myrtaceae sp. (Gall 123), (X) Myrtaceae sp. (Gall 124).
FIGURE 3 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 3: Insect galls of Flona-Silvânia, Goiás, Brazil. (A) Kielmeyera sp. (Gall 60), (B) Connarus suberosus Planch. (Gall 62), (C) Davilla elliptica A. St.-Hil. (Gall 63), (D) D. elliptica (Gall 64), (E) D. elliptica (Gall 65), (F) Dilleniaceae sp. (Gall 67), (G) Dilleniaceae sp. (Gall 68), (H) Doliocarpus sp. (Gall 69), (I) Diospyros sp. (Gall 70), (J) Erythroxylum sp. (Gall 72), (K) Erythroxylum suberosum A. St.-Hil. (Gall 74), (L) E. suberosum (Gall 75), (M) Manihot sp. (Gall 76), (N) Andira paniculata Benth. (Gall 77), (O) A. paniculata (Gall 78), (P) Bauhinia rufa (Bong.) Steud. (Gall 79), (Q) B. rufa (Gall 80), (R) B. rufa (Gall 81), (S) B. rufa (Gall 82), (T) B. rufa (Gall 83), (U) B. rufa (Gall 84), (V) B. rufa (Gall 85), (W) B. rufa (Gall 86), (X) Bauhinia sp. (Gall 87).
FIGURE 1 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 1: Location and characterization of the study area. (A) Location of the Flona-Silvânia (marked by the star) in the city of Silvânia, State of Goiás, Midwest of Brazil. (B) Map of the Flona-Silvânia showing the areas of savanna (clear areas) and forest (dark areas).
FIGURE 2 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 2: Insect galls of Flona-Silvânia, Goiás, Brazil. (A) Acanthaceae sp. (Gall 1), (B) Anacardiaceae sp. (Gall 5), (C) Lithraea molleoides
FIGURE 5 in Occurrence and characterization of insect galls in the Floresta Nacional de Silvânia, Brazil
FIGURE 5: Insect galls of Flona-Silvânia, Goiás, Brazil. (A) Myrtaceae sp. (Gall 125), (B) Myrtaceae sp. (Gall 126), (C) Myrtaceae sp. (Gall 127), (D) Ouratea hexasperma (A. St.-Hil.) Baill. (Gall 132), (E) Ouratea sp. (Gall 133), (F) Piper arboreum Aubl. (Gall 134), (G) Roupala montana Aubl. (Gall 135), (H) Roupala sp. (Gall 137), (I) Roupala sp. (Gall 139), (J) Cordiera macrophylla (K. Schum.) Kuntze (Gall 140), (K) Palicourea rigida Kunth (Gall 141), (L) Rubiaceae sp. (Gall 143), (M) Rubiaceae sp. (Gall 146), (N) Rubiaceae sp. (Gall 149), (O) Sapindaceae sp. (Gall 155), (P) Serjania sp. (Gall 161), (Q) Serjania sp. (Gall 164), (R) Serjania sp. (Gall 165), (S) Serjania sp. (Gall 166), (T) Serjania sp. (Gall 167), (U) Siparuna guianensis Aubl. (Gall 170), (V) S. guianensis Gall 171), (W) S. guianensis (Gall 173), (X) S. guianensis (Gall 174).
Figure 2 in Changes in galling insect community on Caryocar brasiliense trees mediated by soil chemical and physical attributes
Figure 2. Principal components regressions among: (A) Eurytoma sp. galling insect adults (Eur.) with phosphorus-Mehlich 1 (mg dm-3) contents (P.C.) and silt (dag kg-1) (Si.); (B) numbers of Eurytoma sp. glodoid galls (E.G.G.) with pH in water, capacity of cationic exchange (cmol dm-3) (C.C.E.), and P.C.; (C) area (mm2) of Eurytoma sp. glodoid galls (A.E.G.) with pH and clay (dag kg-1) (Cl.); (D) c length of conglomerate of Eurytoma sp. globoid galls (L.G.E.) with pH and Cl.; (E) width of conglomerate of Eurytoma sp. globoid galls (W.G.E.) with pH and Cl.; and (F) number of Hymenopteran discoid galls (H.D.G.) with aluminum (cmol dm-3) contents (A.C.), C.C.E., c and percentage of soil base saturation of the capacity of cationic exchange to pH 7.0 (S.B.S.) on Caryocar brasiliense trees in three years. The symbols represent the averages and the bars the standard errors. n = 111.
Figure 1 in Changes in galling insect community on Caryocar brasiliense trees mediated by soil chemical and physical attributes
Figure 1. Principal components regressions among: (A) abundance of galling insects (A.G.I.) with phosphorus-Mehlich 1 (mg dm-3) contents (P.C.) and sand (dag kg-1) (Sa.); (B) species richness of galling insects (S.R.G.I.) with capacity of cationic exchange (cmol dm-3) c (C.C.E.); (C) diversity of galling insects (D.G.I.) with C.C.E. and Sa.; (D) percentage of galled leaflet by all galls (P.G.L.) with pH in water and clay (dag kg-1) (Cl.); and (E) percentage of leaflet area taken by all galls (P.L.A.G.) with aluminum (cmol dm-3) contents (A.C.) and c C.C.E. on Caryocar brasiliense trees in three years. The symbols represent the averages and the bars the standard errors. n = 111.
Figure 4 in Changes in galling insect community on Caryocar brasiliense trees mediated by soil chemical and physical attributes
Figure 4. Principal components regressions among: (A) abundance of predators (A.Pr.) with phosphorus-Mehlich 1 (mg dm-3) contents (P.C.) and clay (dag kg-1) (Cl.); (B) species richness of predators (S.R.Pr.) with number of Hymenoptera discoid galls (H.D.G.), species richness of parasitoids (S.R.P.), and Cl.; (C) diversity of predators (D.Pr.) with diversity of parasitoids (D.P.) and Cl.; (D) number of Zelus armillatus (Zar.) with P.C., percentage of soil base saturation of the capacity of cationic exchange to pH 7.0 (S.B.S.), silt (dag kg-1) (Si.), numbers of Eurytoma sp. glodoid galls (E.G.G.), and capacity of cationic exchange (cmol dm-3) (C.C.E.); (E) number of Epipolops sp. (Epi.) c with protocooperanting ants (Ants), Cl., and pH in water; and (F) number of spiders (Spi.) with Ants, P.C., and Si. on Caryocar brasiliense trees in three years. The symbols represent the averages and the bars the standard errors. n = 111.
Figure 3 in Phenolic substances and cyanogenesis in galled and non-galled tissue of the fern species Microgramma vacciniifolia
Figure 3. PCoA (Principal Coordinates Analysis) ordination diagram for the presence and absence of the phenolic substances in galled and non-galled tissue of the Microgramma vacciniifolia. SNM (stem non-galled by midge), MIG (midge-induced galls), MIGP (midgeinduced galls attacked by parasitoids), SNMM (stem non-galled by micromoth), MMIG (micromoth-induced galls)
Figure 2 in Phenolic substances and cyanogenesis in galled and non-galled tissue of the fern species Microgramma vacciniifolia
Figure 2. Chromatogram and ultraviolet (UV) spectra of methanolic Microgramma vacciniifolia extracts. MMIG (micromoth-induced galls), MIG (midge-induced galls), MIGP (midge-induced galls attacked by parasitoids).
Figure 1 in Phenolic substances and cyanogenesis in galled and non-galled tissue of the fern species Microgramma vacciniifolia
Figure 1. Chromatogram and ultraviolet (UV) spectra of methanolic Microgramma vacciniifolia extracts. SNMM (stem non-galled by micromoth), SNM (stem non-galled by midge).
Fig. 1 in New species diversity revealed from molecular and morphological characterization of gall-inducing Calophya spp. (Hemiptera: Calophyidae) from Brazilian peppertree
Fig. 1. Adult male Calophya from Ubu, Carapina, and Salvador populations (A), adult male Calophya terebinthifolii (B), 5th instar from Ubu (C), Calophya latiforceps from Salvador and Carapina (D) and C. terebinthifolii (E).
Fig. 1 in Management of staining and galling associated with oxhorn bucida trees in Florida
Fig. 1. Staining on street caused by the caterpillars and mites that feed on oxhorn bucida (black olive) trees. Fig. 2. Bean-like galls caused by the eriophyid mites that feed on oxhorn bucida (black olive) flowers. Normal flower clusters in background. Note the piles of dark caterpillar frass ejected from holes in galls.
Fig. 1 in Selitrichodes neseri (Hymenoptera: Eulophidae) recovered from Leptocybe invasa (Hymenoptera: Eulophidae) galls afer initial release on Eucalyptus (Myrtaceae) in Brazil, and data on its biology
Fig. 1. Municipality of Rio Real, Bahia State, where Selitrichodes neseri (Hymenoptera: Eulophidae) adults were released for the first time in Brazil.
Galium mollugo L. subsp. neglectum (Le Gall ex Gren. & Godr.) Nyman (BR0000010980361)
Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.
Galium mollugo L. subsp. neglectum (Le Gall ex Gren. & Godr.) Nyman (BR0000010980699)
Belgium Herbarium image of <a href="https://www.plantentuinmeise.be">Meise Botanic Garden</a>.
Figure 7 in A new species of gall midge (Diptera, Cecidomyiidae) on Ouratea cuspidata (A.St.-Hil.) Engl. (Ochnaceae), a plant endemic to Brazil
Figure 7. Cerciplanus maricaensis sp. n.: a) Galled leaf of Ouratea cuspidata (A.St.- Hil.) Engl. (Ochnaceae), general aspect; b) Galls on Ouratea cuspidata (A.St.-Hil.) Engl. (Ochnaceae), longitudinal section.
Figure 1 in A new species of gall midge (Diptera, Cecidomyiidae) on Ouratea cuspidata (A.St.-Hil.) Engl. (Ochnaceae), a plant endemic to Brazil
Figure 1. Cerciplanus maricaensis sp. n.: a) Female head, frontal view; b) Male scape, pedicel and 1st–4th flagellomeres; c) Male 5th flagellomere; d) Female 5th flagellomere; d) Male 12th flagellomere.
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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