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.
8,171
datasets available to search
ShareScore release 0.9.0
Dataset results
8,171 results for “mountaineering”
FIGURE 10 in A new species of Ululodes owlfly (Ascalaphidae: Ululodinae) from Cave Creek Canyon in the Chiricahua Mountains of Arizona
FIGURE 10. Cave Creek Canyon localities (continued). A. Herb Martyr Recreational Area, Upper Cave Creek Canyon, view southwest, representative of habitat in all areas where specimens of U. chiricahuensis thus far have been collected. B. FR42A at Herb Martyr Campground, where specimen JRJ_02584 was collected. C. Greenhouse Trail parking lot on FR42, where specimen JRJ_02583 was collected, using the light sheet setup shown.
Figures 1-8 in Calodema antonkozlovi nov. sp. (Coleoptera: Buprestidae): a new species of Stigmoderini from the Arfak Mountains, Indonesia
Figures 1-8. Calodema antonkozlovi nov. sp. 1-4. Holotype female. 1-2. Dorsal and ventral views. 3-4. Labels. 5-8. Paratype female. 5-6. Dorsal and ventral views. 7-8. Labels.
RTK-GPS measurements on 6 rock glaciers in the La Sal and Uinta Mountains, Utah between 2021 and 2023
<p>RTK-GPS surveying of points marked on the surfaces of 6 rock glaciers in the La Sal and Uinta Mountains, Utah</p> <p>All<span> </span>measurements made with a pair of Emlid Reach RS2 RTK-GPS receivers connected in FIX mode</p> <p>Comparison of the x/y coordinates for points in subsequent surveys reveals planimetric motion of the rock glacier</p> <p>Error on measurements in the z direction (vertical) is large enough that up/down changes in the rock glaicer surface cannot be quantified from these data alone</p>
Figure 5 in The Late Devonian placoderm Aspidichthys Newberry, 1873 from the Holy Cross Mountains, Poland
Figure 5. Specimen no WNaZ/S/4/142, anterior part of the median dorsal plate. (a) Dorsal view, (b) lateral view (arrow shows anterior part), (c) anterior view, and (d) magnified area of the median dorsal plate showing the ornamentation.
Figure 2 in The Late Devonian placoderm Aspidichthys Newberry, 1873 from the Holy Cross Mountains, Poland
Figure 2. Specimen no. MWG UW ZI/43/0045. (a) Dorsal view of the specimen (arrow shows anterior part), (b) lateral view of the reconstructed armour (preserved parts are marked), and (c) dorsal view of specimen with particular plates and elements marked with lines.
Figure 4 in The Late Devonian placoderm Aspidichthys Newberry, 1873 from the Holy Cross Mountains, Poland
Figure 4. Specimen no. Muz. PIG 1809.II.17. (a) Dorsal view of the median dorsal plate (arrow shows anterior part), (b) median dorsal plate in anterior view, (c) one of the armour plates (probably the posterior lateral plate), and (d) magnified area of the median dorsal plate showing the ornamentation.
Figure 3 in The Late Devonian placoderm Aspidichthys Newberry, 1873 from the Holy Cross Mountains, Poland
Figure 3. Specimen no. MWG UW ZI/43/0045. Magnified anterior part of the median dorsal plate in (a) lateral and (b) dorsal view.
Figure 1 in The Late Devonian placoderm Aspidichthys Newberry, 1873 from the Holy Cross Mountains, Poland
Figure 1. Location of the investigated outcrops in the Holy Cross Mountains. (a) Location map of the Holy Cross Mountains (HCM), central Poland (modified from Kowalczewski, 1971). (b) Diagrammatic cross section through the Holy Cross Mountains from the Givetian to the top of the Upper Devonian (after Szulczewski, 1995, modified) with the probable position of the localities investigated (a – marly limestones and shales; b – condensed cephalopod and crinoidal limestones; c – marly limestones; d – calcirudites; e – bedded limestones; f – dolomites; g – massive and bedded limestone; h – cephalopod limestones; i – clayey and marly shales).
→ Fig. 2. Marellomorph arthropod Mimetaster florestaensis sp. nov. from Tremadocian of Mojotoro Mountains, Salta, Argentina. A–C. CNS-I 133/1-1, part. A. Cephalic shield and spines. Detail of the secondary spines on mediolateral spine (A2). B. View of the imprint of the ventral posterior margin of the cephalic shield. C. Explanatory drawing revealing the most important morphological characters. D. CNS-I 133/1-1´, counterpart showing detail of strong secondary spines on anterolateral spine. Arrows indicate the secondary spines. in A new marrellomorph euarthropod from the Early Ordovician of Argentina
→ Fig. 2. Marellomorph arthropod Mimetaster florestaensis sp. nov. from Tremadocian of Mojotoro Mountains, Salta, Argentina. A–C. CNS-I 133/1-1, part. A. Cephalic shield and spines. Detail of the secondary spines on mediolateral spine (A2). B. View of the imprint of the ventral posterior margin of the cephalic shield. C. Explanatory drawing revealing the most important morphological characters. D. CNS-I 133/1-1´, counterpart showing detail of strong secondary spines on anterolateral spine. Arrows indicate the secondary spines.
РИС. 2. Скульптура постЭмбриональных оборотов раковины крымских Clausiliidae. A. Cochlodina laminata. B. Mentissa canalifera. C. Balea perversa. D. Mentissa gracilicosta. E. Macrogastra plicatula. F–I. Устье и ЗатылочнаЯ область раковины Balea perversa с г. Демерджи (Крым, РоссиЯ). Все иЗображениЯ приблиЗительно в одном масШтабе. FIG. 2. Sculpture of postembryonic whorls of the Crimean Clausiliidae shells. A. Cochlodina laminata. B. Mentissa canalifera. C. Balea perversa. D. Mentissa gracilicosta. E. Macrogastra plicatula. F–I. Mouth and cervical area of the Balea perversa shell from Demerdzhi mountain (Crimea, Russia). All images are approximately at the same scale. in О достоверности находок Balea perversa (Gastropoda: Pulmonata: Clausiliidae) в Крыму
РИС. 2. Скульптура постЭмбриональных оборотов раковины крымских Clausiliidae. A. Cochlodina laminata. B. Mentissa canalifera. C. Balea perversa. D. Mentissa gracilicosta. E. Macrogastra plicatula. F–I. Устье и ЗатылочнаЯ область раковины Balea perversa с г. Демерджи (Крым, РоссиЯ). Все иЗображениЯ приблиЗительно в одном масШтабе. FIG. 2. Sculpture of postembryonic whorls of the Crimean Clausiliidae shells. A. Cochlodina laminata. B. Mentissa canalifera. C. Balea perversa. D. Mentissa gracilicosta. E. Macrogastra plicatula. F–I. Mouth and cervical area of the Balea perversa shell from Demerdzhi mountain (Crimea, Russia). All images are approximately at the same scale.
РИС. 1. Раковины ювенильных крымских клауЗиллид (A–C). A. Mentissa gracilicosta, г. КоШка, СимеиЗ, coll. В. Н. Попов, det. С. В. Леонов. B. Mentissa canalifera, окрестности с. Краснолесье, 23.08.2002, сoll.&det. С. В. Леонов. C. Cochlodina laminata, Артек «Дубрава», 27.05.1999, coll.?, det. С.В. Леонов. Раковины половоЗрелых Balea perversa (D–G). D. Между Виклебю и Ресмо, остров Эланд, ШвециЯ, 07.1958 (фото F. Welter-Shultes). Е. Девичий Замок, Палава, ЮжнаЯ МоравиЯ, ЧехиЯ, 26.09.1998 (фото M. Horsák). F. РаЗвалины Замка РейнграфенШтайн блиЗ Бад-Мюнстер-ам-Штайн, Рейнланд-Пфальц, ГерманиЯ (фото А. В. Сысоев). G. Яйла Южной Демерджи, АлуШта, Республика Крым, РоссиЯ, 14.11.2002, сoll. Н. М. Ковблюк, det. С. В. Леонов. Все иЗображениЯ в одном масШтабе. FIG. 1. Shells of juvenile Crimean clausillids (A–C). A. Mentissa gracilicosta, Koshka mountain, Simeiz, coll. V. N. Popov, det. S. V. Leonov. B. Mentissa canalifera, near Krasnolesye village, 23.08.2002, coll.&det. S. V. Leonov. C. Cochlodina laminata, Artek "Dubrava", 27.05.1999, coll.?, det. S.V. Leonov. Adult Balea perversa shells (D–G). D. Sweden, Öland, between Vickleby and Resmo, 07.1958 (photo F. Welter-Shultes). E. Dívčí hrad, South Moravia, Czech Republic, 26.09.1998 (photo by M. Horsák). F. Ruins of the Rheingrafenstein Castle near Bad Munster am Stein, Rheineland-Pfalz, Germany (photo by A.V. Sysoev). G. Yayla Yuzhnaya Demerdzhi, Alushta, Republic of Crimea, Russia, 14.11.2002, coll. N. M. Kovblyuk, det. S. V. Leonov. All images are at the same scale. in О достоверности находок Balea perversa (Gastropoda: Pulmonata: Clausiliidae) в Крыму
РИС. 1. Раковины ювенильных крымских клауЗиллид (A–C). A. Mentissa gracilicosta, г. КоШка, СимеиЗ, coll. В. Н. Попов, det. С. В. Леонов. B. Mentissa canalifera, окрестности с. Краснолесье, 23.08.2002, сoll.&det. С. В. Леонов. C. Cochlodina laminata, Артек «Дубрава», 27.05.1999, coll.?, det. С.В. Леонов. Раковины половоЗрелых Balea perversa (D–G). D. Между Виклебю и Ресмо, остров Эланд, ШвециЯ, 07.1958 (фото F. Welter-Shultes). Е. Девичий Замок, Палава, ЮжнаЯ МоравиЯ, ЧехиЯ, 26.09.1998 (фото M. Horsák). F. РаЗвалины Замка РейнграфенШтайн блиЗ Бад-Мюнстер-ам-Штайн, Рейнланд-Пфальц, ГерманиЯ (фото А. В. Сысоев). G. Яйла Южной Демерджи, АлуШта, Республика Крым, РоссиЯ, 14.11.2002, сoll. Н. М. Ковблюк, det. С. В. Леонов. Все иЗображениЯ в одном масШтабе. FIG. 1. Shells of juvenile Crimean clausillids (A–C). A. Mentissa gracilicosta, Koshka mountain, Simeiz, coll. V. N. Popov, det. S. V. Leonov. B. Mentissa canalifera, near Krasnolesye village, 23.08.2002, coll.&det. S. V. Leonov. C. Cochlodina laminata, Artek "Dubrava", 27.05.1999, coll.?, det. S.V. Leonov. Adult Balea perversa shells (D–G). D. Sweden, Öland, between Vickleby and Resmo, 07.1958 (photo F. Welter-Shultes). E. Dívčí hrad, South Moravia, Czech Republic, 26.09.1998 (photo by M. Horsák). F. Ruins of the Rheingrafenstein Castle near Bad Munster am Stein, Rheineland-Pfalz, Germany (photo by A.V. Sysoev). G. Yayla Yuzhnaya Demerdzhi, Alushta, Republic of Crimea, Russia, 14.11.2002, coll. N. M. Kovblyuk, det. S. V. Leonov. All images are at the same scale.
Fig. 4 in Altai Mountains - cradle of hybrids and introgressants: A case study in Veronica subg. Pseudolysimachium (Plantaginaceae)
Fig. 4. STRUCTURE results showing the probability of ancestry of each individual (horizontal axis) to each of K = 2 populations (vertical axis) in all the five scenarios. A, Veronica spicata × V. pinnata; B, V. incana and V. longifolia; C, V. longifolia and V. porphyriana; D & E, V. pinnata and V. porphyriana involving putative hybrids of V. ×schmakovii and V. ×sessiliflora. Details of the exact posterior probabilities of each putative hybrid individual and their corresponding parents are given in suppl. Table S3.
Chemical analysis dataset for contaminants of emerging concern and bioanalytical data for samples from a low mountain stream in Central Germany
<p>In 2022, river-water samples were collected at six sampling sites along the Holtemme River in Central Germany using large-volume solid phase extraction. The extracts were analysed by target chemical analysis for contaminants of emerging concern. In addition, the extracts were analysed in a bioanalytical test battery using effect-based tools. The battery included assays for cytotoxicity (neutral red retention assay), oxidative stress (Nrf2-CALUX®), endocrine disruption (ER-, AR-, anti-ER-, anti-AR-, GR- and PR-CALUX®) and the fish embryotoxicity test with zebrafish (<em>Danio rerio</em>). The data obtained are included in the .csv files in this repository.</p>
Seasonal orographic effect of North American Mountain Range at different levels and its remote control on tropical climate
<p><a name="OLE_LINK36"></a><a name="OLE_LINK37"></a><a name="OLE_LINK81"></a><a name="OLE_LINK6"></a><span><span><span><span>Orography significantly influences global climate patterns. </span></span></span></span><a name="OLE_LINK32"></a><a name="OLE_LINK33"></a><span><span><span><span><span><span>Previous studies show the North American Mountain Range (NAMR) impacts regional climates seasonally but have not thoroughly illustrated the seasonally different atmospheric responses in the lower and upper troposphere, respectively. </span></span></span></span></span></span><span><span><span><span><span>Using the Community Earth System Model version 1.2 with a slab ocean configuration, we investigate the NAMR’s seasonal impacts by simulating scenarios with and without the mountain range. Our findings reveal that the NAMR induces contrasting responses in sea surface temperature (SST) and precipitation off California in different seasons, indicating different underlying mechanisms. Through analysis of large-scale circulation and local energy budgets, we find that in summer, the NAMR reinforces the North Pacific High causing SST cooling and drying off California. This cooling propagates to the equatorial Pacific via anomalous northeasterlies, influencing the Intertropical Convergence Zone and initiating a climatic signal through the Pacific Meridional Mode, which crosses the equator and affects Southern Hemisphere temperatures. In winter, the NAMR reduces wind speed and evaporation, leading to SST warming off California, amplified by SST-cloud feedback. In the upper troposphere, we observe seasonal shifts in jet stream patterns: during winter, a weakened, equatorward-shifted jet over the Pacific and a strengthened, poleward-shifted branch over the Atlantic; in summer, the jet stream intensifies over and downstream of the mountains while weakening upstream. Our research highlights distinct seasonal mechanisms by which the NAMR influence climate patterns, linking mid-latitude climate variations to equatorial, cross-hemispheric and global changes.</span></span></span></span></span></p>
Supplementary data to "The effects of small-scale heterogeneity on biomonitoring of desmid phytobenthos in Central European temperate mountain peatlands"
<p>The supplementary data consist of the files including the species-in-samples data and their associated NCV scores used for the analyses described in the manuscript submitted to hydrobiologia. In addition, two R scripts used for the analyses are included, too.</p> <p> </p>
Scale dependent spatial structuring of mountain river large bed elements maximizes flow resistance - Data
<p>Datasets and R code related to manuscript entitled, "Scale dependent spatial structuring of mountain river large bed elements maximizes flow resistance". See '0_READ_ME.rtf' file for additional description of available files.</p>
Fig. 62 in The Changhsingian (Late Permian) ammonoids from Baghuk Mountain (Central Iran)
Fig. 62. Stoyanowites aspinosus Korn & Ghaderi, 2016. A. Lateral and dorsal view, specimen MB.C.30100, section C, -1.60 m. B. Whorl profile proportions. Scale bar units = 1 mm.
Fig. 60 in The Changhsingian (Late Permian) ammonoids from Baghuk Mountain (Central Iran)
Fig. 60. Abichites infirmis Korn & Hairapetian sp. nov. A. Lateral and dorsal view, holotype MB.C.30086, section G, -0.40 m. B. Suture line, holotype MB.C.30086, at 21.5 mm dm, 9.1 mm wh. Abbreviations: see Material and methods. Scale bar units = 1 mm.
Fig. 61 in The Changhsingian (Late Permian) ammonoids from Baghuk Mountain (Central Iran)
Fig. 61. Stoyanowites dieneri (Stoyanow, 1910). A. Lateral and dorsal view, specimen MB.C.30090, section E, float. B. Lateral and dorsal view, specimen MB.C.30089, section E, float. C. Suture line, specimen MB.C.30090, at 12.4 mm ww, 17.4 mm wh. D. Suture line, specimen MB.C.30089, at 14.4 mm wh. E. Whorl profile proportions. Abbreviations: see Material and methods. Scale bar units = 1 mm.
Fig. 63 in The Changhsingian (Late Permian) ammonoids from Baghuk Mountain (Central Iran)
Fig. 63. Stoyanowites parallelus Korn & Hairapetian sp. nov. A. Lateral and dorsal view, holotype MB.C.30102, section C, -1.70 m. B. Suture line, holotype MB.C.30102, at 17.5 mm wh. Abbreviation: see Material and methods. Scale bar units = 1 mm.
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.