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Figure 1. Pharaxonotha heads, lateral view. A in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 1. Pharaxonotha heads, lateral view. A) P. kirschii, Mpio. Jalpan, Querétaro, Mexico. B) P. bicolor, paratype, San Andres Pápalo, Oaxaca, Mexico. C) P. occidentalis, paratype, El Campanario, Chiapas, Mexico. D) P. vovidesi, paratype, Mt. Oscuro, Veracruz, Mexico.
Figure 6 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 6. Pharaxonotha gigantea from Achotla, Guerrero, Mexico (male holotype). A–C) Dorsal, lateral and ventral habitus. D–E) Head, dorsal and ventral views. F) Tegmen attached to median lobe, ventral view top and lateral view bottom. G) Parameres of tegmen, ventral view top and lateral view bottom. H) Genital capsule, ventral view.
Figures 1–10. Termitodius species dorsal habitus and lateral pronotum. 1–2 in Extinct or extant? A new species of Termitodius Wasmann, 1894, (Coleoptera: Scarabaeidae: Aphodiinae: Rhyparini) with a short review of the genus
Figures 1–10. Termitodius species dorsal habitus and lateral pronotum. 1–2) T. coronatus, cotype. 3–4) T. araujoi. 5–6) T. chaki, paratype. 7–8) T. woodruffi, copal paratype. 9–10) T. woodruffi, holotype.
Figures 17–25 in Extinct or extant? A new species of Termitodius Wasmann, 1894, (Coleoptera: Scarabaeidae: Aphodiinae: Rhyparini) with a short review of the genus
Figures 17–25. Images of Termitodius and host. 17) T. woodruffi, paratype, cut open in copal processing, note genitalia inside body (arrow). After photographing, genitalia removed for study. 18–19) T. araujoi male genitalia, caudal and lateral view. 20–21) T. woodruffi male genitalia of paratype in Fig. 17, caudal and lateral view. 22) T. woodruffi with worker host termite. 23) Soldier termite with T. woodruffi. 24–25) T. woodruffi, individual paratypes.
Figure 5 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 5. Pharaxonotha vovidesi from Monte Oscuro, Veracruz, Mexico (A–D, F–I: male holotype). A–C) Dorsal, lateral and ventral habitus. D–F) Head male, dorsal, lateral and ventral views. G) Tegmen attached to median lobe, ventral view top and lateral view bottom. H) Parameres of tegmen, ventral view top and lateral view bottom. I) Male genital capsule, ventral view. J) Spermatheca with retracted ovipositor, ventral view. K) Spermatheca (fully inflated).
Figure 8 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 8. Pharaxonotha occidentalis from El Campanario, Chiapas, Mexico (A–D, F: female allotype). A–C) Dorsal, lateral and ventral habitus. D–F) Head, dorsal, lateral and ventral views. G) Tegmen attached to median lobe, ventral view top and lateral view bottom. H) Parameres of tegmen, ventral view top and lateral view bottom. I) Retracted ovipositor, ventral view. J) Spermatheca (partially inflated).
Figure 4 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 4. Pharaxonotha fawcettae from Linares, Nuevo Leon, Mexico (A–F, J–K: female allotype; G–I: male holotype). A–C) Dorsal, lateral and ventral habitus. D–F) Head female, dorsal, lateral and ventral views. G) Male genital capsule, ventral view. H) Tegmen attached to median lobe, ventral view top and lateral view bottom. I) Parameres of tegmen, ventral view top and lateral view bottom. J) Spermatheca with retracted ovipositor, ventral view. K) Spermatheca (fully inflated).
Figure 12 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 12. Pharaxonotha kirschii from Bexar County, Texas, USA. A–C) Male dorsal, lateral and ventral habitus. D–F) Male head, dorsal, lateral and ventral views. G) Tegmen attached to median lobe and genital capsule, ventral view. H) Tegmen attached to median lobe, lateral view. I) Parameres of tegmen, ventral view top and lateral view bottom. J) Spermatheca and retracted ovipositor, ventral view. K) Spermatheca (partially inflated).
Figure 3 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 3. Pharaxonotha bicolor (A–J from San Andres Pápalo, Oaxaca, Mexico; female allotype: A–D, F). A–C) Dorsal, lateral and ventral habitus. D–F) Head, dorsal, lateral and ventral views. G) Tegmen attached to median lobe, ventral view top and lateral view bottom. H) Parameres of tegmen, ventral view top and lateral view bottom. I) Male genital capsule. J) Spermatheca (partially collapsed) with retracted ovipositor, ventral view. K) Spermatheca (fully inflated) from Puebla, Mexico, near Teotitlán.
Figure 2. Pharaxonotha body parts. A–C in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 2. Pharaxonotha body parts. A–C) Dorsal view of head. A) P. kirschii, Mpio. Jalpan, Querétaro, Mexico. Arrow points to temple. B) P. occidentalis, paratype, El Campanario, Chiapas, Mexico. C) P. vovidesi, paratype, Mt. Oscuro, Veracruz, Mexico.D) P. kirschii, abdominal ventrites, Mpio. Jalpan, Querétaro, Mexico. Arrow points to tooth on ventrite 5. E–F) Antennal clubs. E) P. kirschii, Santa Isabel, Chiapas, Mexico. F) P. sclerotiza, holotype. G) Spermatheca of Pharaxonotha fawcettae from Jalpan de Serra, Querétaro, Mexico indicating the diagnostic structures and orientations used in descriptions.
Figure 7 in Review of Pharaxonotha Reitter (Coleoptera: Erotylidae: Pharaxonothinae) inhabiting the cycad genus Dioon Lindl. (Cycadales), with descriptions of nine new species and comments on P. kirschii Reitter
Figure 7. Pharaxonotha novoai from Cobo Corrientes, Jalisco, Mexico (A–I: male holotype; J–K: female allotype). A–C) Dorsal, lateral and ventral habitus. D–F) Head, dorsal, lateral and ventral views. G) Genital capsule attached to tegmen and median lobe, ventral view. H) Tegmen attached to median lobe, lateral view. I) Parameres of tegmen, ventral view top and lateral view bottom. J) Spermatheca with retracted ovipositor, ventral view. K)
Figures 27–32. Some smaller copal pieces containing T in Extinct or extant? A new species of Termitodius Wasmann, 1894, (Coleoptera: Scarabaeidae: Aphodiinae: Rhyparini) with a short review of the genus
Figures 27–32. Some smaller copal pieces containing T. woodruffi paratypes, host termites and other inclusions. 27) CMNC. 28) REWC. 29–30) CEMT. Scale line = 1 mm. 31) IAvH-E. 32) FSCA (ex. RLBC), arrow indicates male with genitalia extracted, see Fig. 17. Photos for Figures 29–30 by Vinícius Costa-Silva (CEMT).
Figures 11–16 in Extinct or extant? A new species of Termitodius Wasmann, 1894, (Coleoptera: Scarabaeidae: Aphodiinae: Rhyparini) with a short review of the genus
Figures 11–16. Termitodius woodruffi, recent specimen, holotype. 11) Dorsal habitus. 12) Ventral habitus. 13) Lateral habitus. 14) Elytra apex, caudal view. 15) Head, anterior view. 16) Labels.
Individual repeatability of avian migration phenology: a systematic review and meta-analysis
<p>Changes in phenology and distribution are being widely reported for many migratory species in response to shifting environmental conditions. Understanding these changes and the situations in which they occur can be aided by understanding consistent individual differences in phenology and distribution and the situations in which consistency varies in strength or detectability.</p> <p>Studies tracking the same individuals over consecutive years are increasingly reporting migratory timings to be a repeatable trait, suggesting that flexible individual responses to environmental conditions may contribute little to population-level changes in phenology and distribution. However, how this varies across species and sexes, across the annual cycle and in relation to study (tracking method, study design) and/or ecosystem characteristics is not yet clear.</p> <p>Here, we take advantage of the growing number of publications in movement ecology to perform a phylogenetic multilevel meta-analysis of repeatability estimates for avian migratory timings to investigate these questions. Of 2,433 reviewed studies, 54 contained suitable information for meta-analysis, resulting in 177 effect sizes from 47 species.</p> <p>Individual repeatability of avian migratory timings averaged 0.414 (95% confidence interval: 0.3–0.5) across landbirds, waterbirds and seabirds, suggesting consistent individual differences in migratory timings is a common feature of migratory systems. Timing of departure from the non-breeding grounds was more repeatable than timings of arrival at or departure from breeding grounds, suggesting that conditions encountered on migratory journeys and outcome of breeding attempts can influence individual variation.</p> <p>Population-level shifts in phenology could arise through individual timings changing with environmental conditions and/or through shifts in the numbers of individuals with different timings. Our findings suggest that, in addition to identifying the conditions associated with individual variation in phenology, exploring the causes of between-individual variation will be key in predicting future rates and directions of changes in migratory timings. We, therefore, encourage researchers to report the within- and between- individual variance components underpinning the reported repeatability estimates to aid interpretation of migration behaviour. In addition, the lack of studies in the tropics means that levels of repeatability in less strongly seasonal environments are not yet clear.</p>
Fig. 3. Exeristes spp., male. 1 — E in A Review Of The Genus Exeristes (Hymenoptera, Ichneumonidae, Pimplinae) From Carpathians, With An Illustrated Key To Western Palearctic Species
Fig. 3. Exeristes spp., male. 1 — E. arundinis, habitus (lateral view); 2 — E. longiseta, habitus (lateral view); 3 — E. ruficollis, head and mesosoma (lateral view); 4 — E. roborator, clypeus (frontal view); 5 — E. arundinis, hind tarsus (lateral view); 6 — E. roborator, hind tarsus (lateral view).
Fig. 2. Exeristes spp., female. 1 — E in A Review Of The Genus Exeristes (Hymenoptera, Ichneumonidae, Pimplinae) From Carpathians, With An Illustrated Key To Western Palearctic Species
Fig. 2. Exeristes spp., female. 1 — E. roborator, ovipositor tip (lateral view); 2 — E. longiseta, ovipositor tip (lateral view); 3 — E. arundinis, ovipositor tip (lateral view); 4 — E. denticulator, holotype, ovipositor tip (lateral view); 5 — E. ruficollis, lectotype, ovipositor tip (lateral view); 6 — E. arundinis, fore tarsal claw (lateral view); 7 — E. ruficollis, lectotype, hind femur and tibia (lateral view); 8 — E. denticulator, holotype, hind tibia and tarsus (lateral view); 9 — E. denticulator, holotype, propodeum and tergites I–II of metasoma (dorsal view); 10 — E. roborator, propodeum and tergites I–II of metasoma (dorsal view).
Fig. 1. The Carpathian Exeristes spp. distribution map. Yellow circle — E in A Review Of The Genus Exeristes (Hymenoptera, Ichneumonidae, Pimplinae) From Carpathians, With An Illustrated Key To Western Palearctic Species
Fig. 1. The Carpathian Exeristes spp. distribution map. Yellow circle — E. roborator; red circle — E. longiseta; green circle — E. arundinis.
Fig. 7 in A Review Of The Subfamily Rhyssinae (Hymenoptera, Ichneumonidae) From The Ukrainian Carpathians
Fig. 7. The seasonal dynamics of Rhyssinae flying in Ukrainian Carpathians during 1957–2013. Рис. 7. Сезонная динамика лёта Rhyssinae в Украинских Карпатах в 1957–2013 гг.
Fig. 4 in A Review Of The Subfamily Rhyssinae (Hymenoptera, Ichneumonidae) From The Ukrainian Carpathians
Fig. 4. Rhyssa kriechbaumeri, female: 1 — head (frontal view); 2 — mesosoma (lateral view). Рис. 4. Rhyssa kriechbaumeri, самка: 1 — голова (вид спереди); 2 — rpóqh (Buq cƃoĸó).
Fig. 3 in A Review Of The Subfamily Rhyssinae (Hymenoptera, Ichneumonidae) From The Ukrainian Carpathians
Fig. 3. The clypeus: 1 — Rhyssa amoena; 2 — Megarhyssa rixator. Рис. 3. Наличник: 1 — Rhyssa amoena; 2 — Megarhyssa rixator.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.