Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
599
datasets available to search
ShareScore release 0.9.0
Dataset results
599 results for “hungary”
Fig. 2 in To The Knowledge Of The Genus Pachyrhynchus Germar, 1824 (Coleoptera: Curculionidae: Pachyrhynchini) Species From Huf (Budapest, Hungary), With Description Of A New Species From The Mindanao Island (Philippines)
Fig. 2. Male and female genitalia of Pachyrhynchus ottomerkli sp. nov. A – aedegal body in lateral view; B – aedegal body in ventral view; C – sternites in dorsal view; D – tegmen in dorsal view; E – sternite VIII in ventral view; F – ovipositor in dorsal view; G – spermatheca. Scale bar 1.00 mm.
Fig. 1 in To The Knowledge Of The Genus Pachyrhynchus Germar, 1824 (Coleoptera: Curculionidae: Pachyrhynchini) Species From Huf (Budapest, Hungary), With Description Of A New Species From The Mindanao Island (Philippines)
Fig. 1. Dorsal habitus of Pachyrhynchus ottomerkli sp. nov. A – Male (Holotype); B – Female (Paratype).
Fig. 2 Maximum likelihood phylogenetic tree constructed using the mitochondrial cox1 gene for 103 in Genetic diversity and population genetics of large lungworms (Dictyocaulus, Nematoda) in wild deer in Hungary
ƒFig. 2 Maximum likelihood phylogenetic tree constructed using the mitochondrial cox1 gene for 103 Dictyocaulus lungworms originating from Hungary and five lungworms from GenBank indicated by their accession numbers (one dictyocaulid worm of red deer in New Zealand and four sequences of D. viviparus). Lungworms were collected from hunted deer (fallow, red and roe deer), indicated by triangle, square and circle, respectively. Geographical collecting regions are indicated for each sample
Fig. 3 in Genetic diversity and population genetics of large lungworms (Dictyocaulus, Nematoda) in wild deer in Hungary
Fig. 3 Observed and simulated (expected) mismatch frequency distributions under a model of population expansion for D. eckerti overall (a), D. capreolus overall (b) and the eastern population of
Fig. 1 in Genetic diversity and population genetics of large lungworms (Dictyocaulus, Nematoda) in wild deer in Hungary
Fig. 1 Map of collecting sites of Dictyocaulus in Hungary. Host species are indicated using different symbols (triangle: fallow deer; square: red deer; circle: roe deer), as are lungworm species (filled symbol: D. eckerti; empty symbol: D. capreolus; leaky symbol: D. sp. S-HU)
Stable Modeling on Resource Usage Parameters of MapReduce Application-Department of Networked Systems and Services, Budapest University of Technology and Economics, Budapest, Hungary
<p>In Figure 5, the positive dependency of different strength between each resource usage parameter and the corresponding previous usage parameter is exhibited for all MapReduce applications. It indicates that all current resource usage parameters are positively dependent on the previous values to some extent degree. Except for these common dependencies, there exist some special dependencies for different applications. On the top-left panel of Figure 5, CPU usage of Pi application shows the strongest positive dependency to lagged CPU usage, the Teragen application had the weakest positive dependency, and others exhibit the moderate positive dependency. </p>
ENERGISE Living Lab Country Report - Hungary
<p>The ENERGISE Living Labs in Hungary were located in the town of Gödöllő in Central Hungary in order to provide a better opportunity to make comparisons between the individual (ELL1) and the community or group approach (ELL2). Thus, while an attempt was made to recruit a socio-economically diverse group of participants, the two ELLs had a similar make-up in terms of household types. The final number of households participating in the ENERGISE Living Labs in Hungary was 41. Out of this number 21 participated in ELL1 and 20 in ELL2. It is notable that all 41 households remained engaged in the ELLs up until the end. This report provides a summary of the qualitative and quantitative data as well as a country-level analysis of outcomes.</p>
Figure 3 in Neobisium (N.) tothi sp. nov., a new species from Hungary and Romania, and first records of Neobisium (N.) noricum Beier, 1939 from Hungary (Pseudoscorpiones: Neobisiidae)
Figure 3. Neobisium (N.) noricum Beier, 1939 (HNHM Pseud-1880): A- carapace, dorsal view (female); B- right chelicera (female), dorsal view; C- left pedipalp (male), dorsal view; D- left chela (male), lateral view.
Figure 2. Distribution map for N in Neobisium (N.) tothi sp. nov., a new species from Hungary and Romania, and first records of Neobisium (N.) noricum Beier, 1939 from Hungary (Pseudoscorpiones: Neobisiidae)
Figure 2. Distribution map for N. (N.) tothi sp. nov. (squares) and N. (N.) noricum Beier, 1939 (empty circles: earlier data; filled circles: new data).
Figure 1 in Neobisium (N.) tothi sp. nov., a new species from Hungary and Romania, and first records of Neobisium (N.) noricum Beier, 1939 from Hungary (Pseudoscorpiones: Neobisiidae)
Figure 1. Neobisium (N.) tothi, sp. nov. (male holotype, if not mentioned otherwise): A- carapace, dorsal view; Bepistome developed, female paratype; C- epistome reduced, male paratype; D- anterior part of coxa I, ventral view; E- right chelicera, dorsal view; F- left pedipalp, dorsal view; G- right chela, lateral view of paraxial face; H- leg I; I- leg IV.
Figure 2 in New records and faunistic data of mosquitoes (Diptera, Culicidae) from Albania, Hungary, Macedonia, Montenegro, and Serbia
Figure 2. Aedes (Ochlerotatus) annulipes (Meigen, 1830) female: a) abdomen pattern, b) lateral view.
Figures 1–6 in Rediscovery of Livilla radiata (Foerster, 1848) after 130 years in Hungary, with notes to the Fabaceae-associated jumping plant lice in Hungary (Insecta: Psylloidea)
Figures 1–6. Photos about Livilla radiata (Foerster, 1848). 1: Body in dorsal view. 2: Head and pronotum in dorsal view. 3: Body in lateral view. 4: Wing colorization. 5: Female terminalia. 6: Male proctiger and paramere.
Fig. 2 in An alien parasite affects local fauna-Confirmation of Sinergasilus major (Copepoda: Ergasilidae) switching hosts and infecting native Silurus glanis (Actinopterygii: Siluridae) in Hungary
Fig. 2. Evolutionary history of Sinergasilus based on Bayesian Inference (BI) analysis of 18S rDNA with Ergasilus anchoratus Markewitsch, 1940 designated as outgroup. Support for both maximum likelihood (ML, 1000 bootstrap replicates) and BI (10 million MCMC) indicated at nodes (ML/BI), only nodes with more than 50% support annotated.
Fig. 1 in An alien parasite affects local fauna-Confirmation of Sinergasilus major (Copepoda: Ergasilidae) switching hosts and infecting native Silurus glanis (Actinopterygii: Siluridae) in Hungary
Fig. 1. Micrographs using light microscopy (LM) and scanning electron microscopy (SEM) of Sinergasilus major; (A) Total body (SEM), (B) rostral plate with integumental pores and tactile setules (SEM), (C) thoracic plate with pectinate denticles (SEM), (D) ventral aspect of cephalon (SEM), (E) everted mouth (SEM), (F) inverted mouth (SEM), (G) ventral view of mouth parts (SEM), (H) mouth parts (LM). A1 – antennule 1, A2 – antenna, Ip – integumental pore, Gs – genital somite, Lb – labium, Lr – labrum, M – mouth, Md – mandible, Ml – maxillule, Mx – maxilla, Ps4 – pedigerous somite 4, Pd – pectinate denticles, Tp – thoracic plate, Ts – tactile setules.
Fig. 15 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 15. Ostracods from Bálvány North section, Bükk Mountains, Hungary. Right lateral views of complete carapaces. A. Bairdiacypris cf. fornicata Shi, 1982, UPMC P6M2863, sample 08BAN47, Upper Permian. B–J. Cytherellina? magyarorszagensis Forel sp. nov., Griesbachian, Lower Triassic. B. Holotype, UPMC P6M2864, sample 08BAN63. C. Paratype, UPMC P6M2865, sample 08BAN61. D. UPMC P6M2866, sample 08BAN61. E. UPMC P6M2867, sample 08BAN63. F. UPMC P6M2868, sample 08BAN63. G. UPMC P6M2869, sample 08BAN62. H. UPMC P6M2870, sample 08BAN61. I. UPMC P6M2871, sample 08BAN62. J. UPMC P6M2872, sample 08BAN62. K, L. Cytherellina? sp. E, Changhsingian, Upper Permian. K. UPMC P6M2873, sample 08BAN47. L. UPMC P6M2874, sample 08BAN47. M–P. Hungarella gerennavarensis Crasquin sp. nov., Griesbachian, Lower Triassic. M. Holotype, UPMC P6M2875, sample 08BAN62. N. Paratype, UPMC P6M2876, sample 08BAN67. O. UPMC P6M2877, sample 08BAN63. P. UPMC P6M2878, sample 08BAN63. Q–X. Microcheilinella egerensis Forel sp. nov., Griesbachian, Lower Triassic. Q. Holotype, UPMC P6M2879, sample 08BAN61. R. UPMC P6M2880, sample 08BAN63. S. Paratype, UPMC P6M2881, sample 08BAN61. T. UPMC P6M2882, sample 08BAN62. U. UPMC P6M2883, sample 08BAN61. V. UPMC P6M2884, sample 08BAN61. W. UPMC P6M2885, sample 08BAN63. X. UPMC P6M2886, sample 08BAN61. Scale bars 100 µm.
Fig. 10 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 10. Ostracods from Bálvány North section, Bükk Mountains, Hungary. Right lateral views of complete carapaces. A–J. Acratia? jeanvannieri Forel sp. nov., Griesbachian, Lower Triassic. A. Holotype, UPMC P6M2803, sample 08BAN61. B. Paratype, UPMC P6M2804, sample 08BAN63. C. UPMC P6M2805, sample 08BAN63. D. UPMC P6M2806, sample 08BAN63. E. UPMC P6M2807, sample 08BAN61. F. UPMC P6M2808, sample 08BAN61. G. UPMC P6M2809, sample 08BAN63. H. UPMC P6M2810, sample 08BAN63. I. UPMC P6M2811, sample 08BAN62. J. UPMC P6M2812, sample 08BAN62. K–O. Acratia nagyvisnyoensis Forel sp. nov., Changhsingian, Upper Permian. K. Holotype, UPMC P6M2813, sample 08BAN47. L. Paratype, UPMC P6M2814, sample 08BAN47. M. UPMC P6M2815, sample 08BAN47. N. UPMC P6M2816, sample 08BAN47. O. UPMC P6M2817, sample 08BAN54. P, T. Acratia sp. A, Changhsingian, Upper Permian. P. UPMC P6M2818, sample 08BAN47. T. UPMC P6M2819, sample 08BAN47. Q. Acratia sp. B, Changhsingian, Upper Permian. UPMC P6M2820, sample 08BAN47. R, S. Acratia sp. C, Changhsingian, Upper Permian. R. UPMC P6M2821, sample 08BAN50. S. UPMC P6M2822, sample 08BAN52. Scale bars 100 µm.
Fig. 18 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 18. Ostracods from Bálvány North section, Bükk Mountains, Hungary. Right (A, B, D, E, G–P) and left (C, F) lateral views of complete carapaces. A–H. Callicythere? balvanyseptentrioensis Forel sp. nov., Griesbachian, Lower Triassic. A. Holotype, UPMC P6M2900, sample 08BAN62. B. Paratype, UPMC P6M2901, sample 08BAN61. C. UPMC P6M2902, sample 08BAN62. D. UPMC P6M2903, sample 08BAN62. E. UPMC P6M2904, sample 08BAN62. F. UPMC P6M2905, sample 08BAN63. G. UPMC P6M2906, sample 08BAN64. H. UPMC P6M2907, sample 08BAN62. I–L. Eumiraculum desmaresae Forel sp. nov., Changhsingian, Upper Permian. I. UPMC P6M2908, sample 08BAN47. J. Holotype, UPMC P6M2909, sample 08BAN47. K. Paratype, UPMC P6M2910, sample 08BAN47. L. UPMC P6M2911, sample 08BAN47. M. Sulcella? sp., UPMC P6M2916, sample 08BAN67, Griesbachian, Lower Triassic. N. Eumiraculum cf. Eumiraculum desmaresae Forel sp. nov., UPMC P6M2912, sample 08BAN67, Griesbachian, Lower Triassic. O, P. Cetollina? sp. A. O. UPMC P6M2913, sample 08BAN59, Changhsingian, Upper Permian. P. UPMC P6M2914, sample 08BAN66, Griesbachian, Lower Triassic. Scale bars 100 µm.
Fig. 6 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 6. Ostracods from Bálvány North section, Hungary (except A–D from Bulla section, Northern Italy). Right (A, E, G–W) and left (B, C, D, F) lateral views of complete carapaces. A–G. Langdaia bullabalvanyensis Crasquin sp. nov., Griesbachian, Lower Triassic. A. Holotype, UPMC P6M2762, sample 05BU19. B. Paratype, UPMC P6M2763, sample 05BU19. C. UPMC P6M2232, sample 05BU19. D. UPMC P6M2764, sample 05BU19. E. UPMC P6M2765, sample 08BAN67. F. UPMC P6M2766, sample 08BAN67. G. UPMC P6M2767, sample 08BAN67. H, I. Bairdia baudini nom. nov. H. UPMC P6M2785, sample 08BAN48, Changhsingian, Upper Permian. I. UPMC P6M2786, sample 08BAN61, Griesbachian, Lower Triassic. J–M. Bairdia wailiensis Crasquin−Soleau, 2006, Griesbachian, Lower Triassic. J. UPMC P6M2770, sample 08BAN62. K. UPMC P6M2771, sample 08BAN47. L. UPMC P6M2772, sample 08BAN62. M. UPMC P6M2773, sample 08BAN62. N–P. Bairdia anisongae Forel sp. nov. N. Holotype, UPMC P6M2774, sample 08BAN55, Changhsingian, Upper Permian. O. Paratype, UPMC P6M2775, sample 08BAN62, Grisbachian, Lower Triassic. P. UPMC P6M2776, sample 08BAN47, Changhsingian, Upper Permian. Q–U. Bairdia davehornei Forel sp. nov., Griesbachian, Lower Triassic. Q. Holotype, UPMC P6M2777, sample 08BAN61. R. Paratype, UPMC P6M2778, sample 08BAN62. S. UPMC P6M2779, sample 08BAN62. T. UPMC P6M2780, sample 08BAN62. U. UPMC P6M2781, sample 08BAN62. V, W. Bairdia cf. Bairdia davehornei Forel sp. nov., Griesbachian, Lower Triassic. V. UPMC P6M2782, sample 08BAN62. W. UPMC P6M2783, sample 08BAN61. Scale bars 100 µm.
Fig. 12 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 12. Ostracods from Bálvány North section, Bükk Mountains, Hungary. Right lateral (A, D–H, J–U) and dorsal (B, C, I) views of complete carapaces. A–K. Liuzhinia venninae Forel sp. nov., Griesbachian, Lower Triassic. A. Holotype, UPMC P6M2842, sample 08BAN63. B. UPMC P6M2843, sample 08BAN63. C. Dorsal view of a complete carapace, UPMC P6M2844, sample 08BAN63. D. Paratype, UPMC P6M2845, sample 08BAN61. E. UPMC P6M2846, sample 08BAN63. F. UPMC P6M2847, sample 08BAN63. G. UPMC P6M2848, sample 08BAN62. H. UPMC P6M2849, sample 08BAN61. I. UPMC P6M2850, sample 08BAN63. J. UPMC P6M2851, sample 08BAN61. K. UPMC P6M2852, sample 08BAN63. L–R. Liuzhinia bankutensis Forel sp. nov. L. Holotype, UPMC P6M2853, sample 08BAN67, Giresbachian, Lower Triassic. M. Paratype, UPMC P6M2854, sample 08BAN69, Griesbachian, Lower Triassic. N. UPMC P6M2915, sample 08BAN47, Changhsingian, Upper Permian. O. UPMC P6M2855, sample 08BAN63, Giresbachian, Lower Triassic. P. UPMC P6M2856, sample 08BAN67, Griesbachian,Lower Triassic. Q. UPMC P6M2857, sample 08BAN67, Griesbachian, Lower Triassic. R. UPMC P6M2858, sample 08BAN67, Griesbachian, Lower Triassic. S. Liuzhinia sp. A. UPMC P6M2859, sample 08BAN62, Griesbachian, Lower Triassic. T. Liuzhinia sp. B. UPMC P6M2768, sample 08BAN47, Changhsingian, Upper Permian. U. Bairdiacypris fornicata Shi, 1982. UPMC P6M2860, sample 08BAN62, Griesbachian, Lower Triassic. Scale bars 100 µm.
Fig. 1 in Biodiversity evolution through the Permian-Triassic boundary event: Ostracods from the Bükk Mountains, Hungary
Fig. 1. Location map of the northern part of the Bükk Mountains (after Less et al. 2002) with Bálvány North P–T boundary section. Fm., Formation.
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.