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1,663 results for “shells”
Figure 8 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 8 Penial sculpture of TrichocathaicavestitaA Dextral specimen (HNHM 103470) B, C Sinistral specimen (HNHM 103471). Scale bars: 1 mm.
Figure 7 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 7 Opened dart sac of sculpture of TrichocathaicavestitaA Dextral specimen (HNHM 103470) B, C Sinistral specimen (HNHM 103471). Arrow shows dart. Scale bars: 1 mm.
Figure 6 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 6 Genital anatomy of TrichocathaicavestitaA Dextral specimen (HNHM 103470) B, C Sinistral specimen (HNHM 103471).
Figure 5 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 5 Shells (A, D), dorsal (B, E), and ventral (C, F) sculpture of TrichocathaicavestitaA–C HNHM 103471 (D = 22.7 mm) D–F HNHM 103470 (D = 22.8 mm). Upper scale (A, D), lower scale (B, C, E, F). All photos: B. Páll-Gergely.
Figure 3 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 3 Shells (A, D), dorsal (B, E), and ventral (C, F) sculpture of Trichocathaicamacrosquamata Páll-Gergely sp. n. A–CSMF 349504 (paratype, D = 21.8 mm) D–FSMF 216281 (holotype, D = 18.8 mm). Scale bars: Upper scale (A, D), lower scale (B, C, E, F). All photos: B. Páll-Gergely.
Figure 11 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 11 Shells (A, D), dorsal (B, E), and ventral (C, F) sculpture of Trichocathaica species A–CTrichocathaicarugosobasis (Pilsbry 1934), ANSP 159636 (holotype, D = 15 mm) D–FTrichocathaicaputeolata Páll-Gergely sp. n., holotype (SMF 24666, D = 19.5 mm). Scale bars: Upper scale (A, D); lower scale (B, C, E, F). Photos: B. Páll-Gergely (D–F) and K. Seizova, ANSP Malacology Department (A–C).
Figure 4 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 4 Shells of Trichocathaicavestita (Pilsbry, 1934) (holotype, ANSP 159708) (A) and Helix (Camaena) constantinae Adams, 1870 (B) (illustration from the original description). Scale bars: Scale refers only to A.
Figure 10 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 10 A–CTrichocathaicalyonsaelyonsae (Gude, 1919), NHMUK 1922.8.29.86 (syntype, D = 17.3 mm) D–FTrichocathaicalyonsaecomosa (Pilsbry, 1934), ANSP 159641 (holotype, D = 15.7 mm). Close-up images show the dorsal (B, E), and the ventral (C, F) sculpture. Scale refers to A, D other figures not to scale. Photos: K. Seizova, ANSP Malacology Department (D–F) and H. Taylor (A–C).
Figure 1 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 1 Map showing the exactly identifiable localities of Trichocathaica species 1 type locality of Trichocathaicafoliosquama Wu, 2001 2 Type locality of T.lyonsaecomosa (Pilsbry, 1934) 3 Localities of T.vestita (2015/64 and 2015/65) 4 Localities of T.amphidroma (Möllendorff, 1899) (2015/67 and Wu 2001).
Figure 2 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 2 Shells (A, D), dorsal (B, E), and ventral (C, F) sculpture of Trichocathaicaamphidroma (Möllendorff, 1899) A–CSMF 8942 (lectotype, D = 20.8 mm) D–FSMF 24667 (paralectotype, D = 23.6 mm). Scale bars: Upper scale (A, D) lower scale (B, C, E, F). All photos: B. Páll-Gergely.
Figure 12 from: Páll-Gergely B, Hunyadi A, Asami T (2018) Enantiomorphs and taxonomy of three conchological species in flat-shelled snails Trichocathaica (Pulmonata, Camaenidae). ZooKeys 810: 19-44. https://doi.org/10.3897/zookeys.810.29824
Figure 12 Shell (A), dorsal (B), and ventral (C) sculpture of Trichocathaica sp. (SMF 8937, D = 20.2 mm). Scale bars: Upper scale (A), lower scale (B, C). All photos by B. Páll-Gergely.
Figures 4-6 from: García-Ulloa D, Landa-Jaime V, Góngora-Gómez AM, García-Ulloa M, Hernández-Sepúlveda J (2019) Sexual and reproductive traits of the pearl oyster shrimp Pontonia margarita (Decapoda: Palemonidae), symbiotically inhabiting the mantle cavity of the rugose pen shell Pinna rugosa (Bivalvia: Pinnidae). Zoologia 36: 1-7. https://doi.org/10.3897/zoologia.36.e29774
Figures 4-6 Pontoniamargarita: (4) male (small and whitish) and female (large and orange); (5) female (circled) in the mantle cavity of P.rugosa; (6) ovigerous female. Scale bar = 1 cm.
Figure 7 from: García-Ulloa D, Landa-Jaime V, Góngora-Gómez AM, García-Ulloa M, Hernández-Sepúlveda J (2019) Sexual and reproductive traits of the pearl oyster shrimp Pontonia margarita (Decapoda: Palemonidae), symbiotically inhabiting the mantle cavity of the rugose pen shell Pinna rugosa (Bivalvia: Pinnidae). Zoologia 36: 1-7. https://doi.org/10.3897/zoologia.36.e29774
Figure 7 Relationship between Pontoniamargarita total body length (mm) and Pinnarugosa shell height (mm). Regressions for females and males were r = 0.32 (p = 0.08) and r = 0.18 (p = 0.46), respectively.
Figures 1-3 from: García-Ulloa D, Landa-Jaime V, Góngora-Gómez AM, García-Ulloa M, Hernández-Sepúlveda J (2019) Sexual and reproductive traits of the pearl oyster shrimp Pontonia margarita (Decapoda: Palemonidae), symbiotically inhabiting the mantle cavity of the rugose pen shell Pinna rugosa (Bivalvia: Pinnidae). Zoologia 36: 1-7. https://doi.org/10.3897/zoologia.36.e29774
Figures 1-3 Morphometric measurements of Pinnarugosa. (1) Shell height; (2) shell length; (3) shell width.
FIG. 3 in Shell shape variation of the symbiotic gastropod Phenacovolva rosea (Ovulidae) in Vietnam
FIG. 3. ANOVA tests of the width-to-height ratio of shells of P. rosea, vertical bars denote 0,95 confidence intervals A. Across four studied locations (current effect: F(3, 49)=32,260, p=,00000). B. Across six coral host species, irrespective of collection location (current effect: F(5, 35)=12,866, p=,00000).
Fig. 3 in The Study Of Age-Related Variability Of Pigmentation Patterns Of The Shells Of Dreissena Polymorpha (Bivalvia, Dreissenidae) From Different Parts Of It'S Range
Fig. 3. Latitudinal variability of the number of pattern types. Samples: 1–6 — the Rybinsk Reservoir; 7–10 — the Gorky Reservoir; 11 — Lake Plescheevo; 12 — the Kama Reservoir; 13 — Lake Forelevoe; 14 — Northern Dvina River; 15 — the Chograi Reservoir; 16 — RR–1 channel; 17 — Lake Sharony; 18 — Ahtuba River; 19 — Belinskiy Bank; 20 — Danube River; 21, 22 — the Perućica Reservoir; 23 — Lake Erie; 24, 25 — Lake Michigan.
Fig. 6 in The Study Of Age-Related Variability Of Pigmentation Patterns Of The Shells Of Dreissena Polymorpha (Bivalvia, Dreissenidae) From Different Parts Of It'S Range
Fig. 6. Scheme of pattern change in zebra mussel population (by the example of the Perućica Reservoir). Data for mussels of ages from 1+ to 3+ are aggregated.
Figures 3–7 in First record of Mirinaba cadeadensis (Gastropoda: Strophocheilidae) in an anthropogenic shell mound from the Paraná coast, Southern Brazil
Figures 3–7. Shells of Mirinaba cadeadensis: (3–4) LEBIO 578, from the Boguaçu shell mound; (5) LEBIO 587, from Morro Itaguá; (6) LEBIO 588, from Morro Itaguá; (7) MZUSP 18998 (holotype), from Cadeado. Measurements of these specimens can be found in Table 1. Scale bar: 10 mm.
Figure 4 in Shells of the Roman snail are important microhabitats for soil invertebrates
Figure 4. Indirect signs of shell utilization with (A–C) fruiting bodies and hyphal networks growing inside shells mainly on Gastropoda faeces and (D) large group of 95 Entomobryomorpha Collembola in a single shell.
Figure 2 in Shells of the Roman snail are important microhabitats for soil invertebrates
Figure 2. Principle coordinates analysis ordination based on a Bray-Curtis similarity matrix from square-root transformed counts of indirect signs of shell utilization in eight utilization classes of 618 Roman snail shells (H. pomatia) in autumn (tree ○ & herb ●) and summer (tree Δ and herb ▲). Vectors are superimposed for utilization classes with a multiple correlation coefficient> 0.3. Abbreviations: Ara.Exu – Araneae exuvia, Ara.Web – Araneae silk, For.Nes – Formicidae nest, Gas.Fec – Gastropoda faeces, Iso.Exu – Isopoda exuvia.
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International Brain Laboratory public data
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OpenNeuro
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