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Figure 3 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 3 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: AAnoplistesjacobsoni (male) BA.jacobsoni (female) CAnoplistesgalusoi (male) DA.galusoi (female) EAnoplisteshalodendrihalodendri (male, Sibinka River valley) FA.halodendrihalodendri (male, Tarbagatay environs) GA.halodendrihalodendri (female, Sibinka River valley) HAmarysiusduplicatus (female) ICleroclytussemirufuscollaris (male, light form) JC.semirufuscollaris (male, dark form) KC.semirufuscollaris (female, light form).
Figure 5 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 5 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: AAgapanthiadahlicalculensis (male) BA.dahlicalculensis (female) CA.dahli spp. (female, Karashota environs) DAgapanthiaalternansalternans (male) EA.alternansalternans (female) FObereakostini (male) GO.kostini (female) HOberearuficepsruficeps (male) IO.ruficepsruficeps (female).
Figure 4 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 4 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: ARhaphumagracilipes (male) BR.gracilipes (female) CMolorchusschmidti (female) DAegomorphusobscurior (female) ERopaloscelisunifasciatus (male) FR.unifasciatus (female) GExocentrusstierlini (male) HE.stierlini (female) ISaperdaalberti (female, whitish form) JSaperdaperforata (female, whitish form) KSaperdascalaris (female, whitish form) LSaperdasimilis (female, whitish form).
Figure 2 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 2 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: AAnastrangaliasequensi (female, melanistic form) BBrachytainterrogationisrussica (female) CStenocorusminutus (male) DS.minutus (female) ETuraniumscabrum (male, dark form) FT.scabrum (female, dark form) GT.scabrum (female, light form) HXylotrechusadspersus (male) IXylotrechusalakolensis (male) JXylotrechushircus (female) KXylotrechuscapricornus (male) LX.capricornus (female).
Figure 8 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 8 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: ADorcadionsongaricum (female) BDorcadionmorozovi (female) CDorcadionsemenovisemenovi (male) DD.semenovisemenovi (female) EDorcadionsokolowi (male) FD.sokolowi (female) GEodorcadioncarinatumcarinatum (male) HPolitodorcadionpolitumpolitum (male) IP.politumpolitum (female) JPolitodorcadionribbeibobrovi (male) KP.ribbeibobrovi (female).
Figure 14 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 14 Field photos of imagines in nature and habitats of typical Kazakh cerambycid species: A female of DorcadionsuvorovikonyrolenumB steppe area in Karlygash environs, the habitat of D.suvorovikonyrolenumC female of DorcadiontianshanskiiradkevitshiD pasture in Kenen environs, the habitat of D.tianshanskiiradkevitshiE male of DorcadionunidiscaleF mountain steppe area in Kyzyl Kesik environs, the habitat of DorcadionsongaricumG pasture in Verkhnie Tainty environs, the habitat of EodorcadioncarinatumcarinatumH male of Politodorcadionpolitumpolitum.
Figure 15 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 15 Field photos of habitats of typical Kazakh cerambycid species and some methods used: A general view on Sibinka River valley, the habitat of several collected species B pea shrubs on stony hills in Sibinka River valley, the habitat of Stenocorusminutus and AnoplisteshalodendrihalodendriC mountain deciduous grove in Bykovo environs, the habitat of numerous collected species D general view on mountain deciduous forest along the Khamir River in Putinsevo environs, the habitat of numerous collected species E river bank with poplar windfalls, the habitat of SaperdaalbertiF wine trap in poplars forest, the habitat of inter alia Macrolepturathoracica, Rhaphumagracilipes and ExocentrusstierliniG attracting insects to artificial light source in Artemisia-desert habitat H attracting insects to artificial light source at the edge of a mountain deciduous forest.
Figure 13 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 13 Field photos of imagines in nature and habitats of typical Kazakh cerambycid species: A steppe area in Arkhaly environs, the habitat of DorcadionabsinthiumishkoviB male of DorcadionacutispinumC male of DorcadionarietinumarietinumD mountain steppe area in Kegen environs, the habitat of D.arietinumarietinum, Dorcadioncrassipescrassipes and DorcadionsemenovisemenoviE female of DorcadiongeblerigebleriF mountain steppe area in Zaysan environs, the habitat of D.geblerigebleriG male of D.semenovisemenoviH particular behavior of a few individuals of Dorcadionsokolowi.
Figure 12 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 12 Field photos of host plants, larval feeding galleries and habitats of typical Kazakh cerambycid species: A river bank overgrown by willows, the habitat of XylotrechusadspersusB larval feeding gallery of X.adspersus in a branch of Salix sp. C roadside vegetation strip in Taskesken environs, the habitat of XylotrechusalakolensisD hilly grove with birches, the habitat of XylotrechushircusE inflorescences of Lepidiumdraba, the food plant of CleroclytussemirufuscollarisFBerberisvulgaris, the host plant of C.semirufuscollarisGAstragalussieversianus, possible host plant of AgapanthiaviolaceaH roadside strip with herbaceous vegetation, the habitat of Agapanthiaalternansalternans.
Figure 1 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 1 Photos of longhorn beetles specimens collected during the expedition to Kazakhstan in 2017: APsilotarsusbrachypterusbrachypterus (male) BP.brachypterusbrachypterus (female) CP.brachypterusbrachypterus (female, abdomen filled with eggs) DP.brachypteruspubiventris (male) EP.brachypteruspubiventris (female) FP.brachypteruspubiventris (female, abdomen filled with eggs) GLepturaduodecimguttata (male) HL.duodecimguttata (female) ILepturalianigripesrufipennis (male) JL.nigripesrufipennis (female).
Figure 10 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 10 Field photos of imagines in nature, host plants and habitats of typical Kazakh cerambycid species: A semi-shrub desert in Kapchagay environs, the habitat of PsilotarsusbrachypteruspubiventrisB flood barrier formed with oleasters branches, the habitat of Turaniumscabrum and ChlorophoruselaeagniC blossoming tamarisks in the habitat of Ch.elaeagni and AnoplistesjacobsoniD bank of the Syr Darya River in Tartogay environs, the habitat of OberearuficepsruficepsE male of AnoplistesgalusoiFA.galusoi on EphedrastrobilaceaG shrubs of E.strobilacea, the host plant of A.galusoiH mountain slopes in Altyn-Emel National Park, the habitat of A.galusoi.
Figure 11 from: Karpiński L, Szczepański WT, Plewa R, Walczak M, Hilszczański J, Kruszelnicki L, Łoś K, Jaworski T, Bidas M, Tarwacki G (2018) New data on the distribution, biology and ecology of the longhorn beetles from the area of South and East Kazakhstan (Coleoptera, Cerambycidae). ZooKeys 805: 59-126. https://doi.org/10.3897/zookeys.805.29660
Figure 11 Field photos of imagines in nature, host plants and habitats of typical Kazakh cerambycid species: A male of AnoplistesjacobsoniB female of A.jacobsoniC pair of A.jacobsoni in copula on HalimodendronhalodendronD tugays with Halimodendron, Tamarix and Eleagnus in Tartogay environs, the habitat of A.jacobsoni and ChlorophoruselaeagniE shrub of H.halodendron, the host plant of A.jacobsoniF larval feeding gallery of A.jacobsoni in a stem of H.halodendronGCaragana shrubs in Tarbagatay environs, the habitat of AnoplisteshalodendrihalodendriHCaragana sp., the host plant of A.halodendrihalodendri.
Current nest box designs may not be optimal for the larger forest dormice; pre-hibernation increase in body mass might lead to sampling bias in ecological data
<p>Biologists commonly use nest boxes to study small arboreal mammals, including forest dormouse (Dryomys nitedula). Hibernating dormouse species often experience pronounced seasonal variations in body mass, which might lead to sampling biases if it is not taken into account when designing nest boxes. In our study of forest dormouse, we noticed that the entrance hole of nest boxes had been gnawed on. We hypothesized that this behavior was exhibited by individual dormice who had higher body mass and, therefore, were unable to pass through the entrance holes. To test our hypothesis, we categorized individual dormice present inside nest boxes based on their body mass; then compared the seasonal body mass dynamics with the timing of the gnawing behavior. We also compared nest box occupancy by forest dormouse before and after the gnawing behavior. Interestingly, we found that the gnawing behavior was displayed exclusively when part of the dormouse population increased considerably in body mass, which supports our hypothesis. Additionally, nest box occupancy decreased significantly from 20% before to 4.6% after the gnawing behavior. We suggest that researchers use nest boxes with entrance holes larger than 4 cm in future studies of forest dormouse to prevent the possible exclusion of the conspecifics that have higher body mass before hibernation. This type of sampling bias can probably happen in studies of other species, such as fat dormouse, that similarly show pronounced seasonal variations in body mass. We recommend that biologists consider the seasonal body mass dynamics of the target species when designing nest boxes to minimize bias in ecological data and improve management actions.</p>
Data from: Analysing ecological dynamics with relational event models: the case of biological invasions
<p>Dynamic species invasions network: sender nodes are species and receiver nodes are regions as defined in the FirstRecords database. The dataset covers four taxonomic groups (i.e., mammals, birds, plants, insects) and a fixed time-frame [1880–2005] over which the invasion process of the species occurs into the regional set of the 272 pre-specified regions. The dataset includes 16,403 invasion events recorded for 4,835 species (615 birds, 186 mammals, 3,920 plants, and 114 insect species). The average number of invasion events per taxonomic group is ~5 records per insect species, ~4 per bird and mammal species, and ~3 recorded events per plant species. On average, ~46 invasion events are recorded per region, ranging from 1 to 1,685 events. 157 regions had less than 15 observations, with 33% of these regions located in Africa; 36 regions had more than 100 records.</p>
Data for research: Abundance and functional traits inform conservation of threatened Afromontane damselflies with different ecological adaptations (Odonata: Chlorocyphidae, Coenagrionidae)
<p>This is the data for the research article: Abundance and functional traits inform conservation of threatened Afromontane damselflies with different ecological adaptations (Odonata: Chlorocyphidae, Coenagrionidae)</p>
Data from: A replicated climate change field experiment reveals rapid evolutionary response in an ecologically important soil invertebrate
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Data from: Gender differences in patterns of authorship do not affect peer review outcomes at an ecology journal
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Data from: Ecological constraints coupled with deep-time habitat dynamics predict the latitudinal diversity gradient in reef fishes
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Data from: A key ecological trait drove the evolution of biparental care and monogamy in an amphibian
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Data from: Inference of Japanese encephalitis virus ecological and evolutionary dynamics from passive and active virus surveillance
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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.