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.
190
datasets available to search
ShareScore release 0.9.0
Dataset results
190 results for “Homo”
Fig. 10a-k in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 10a-k Cyprideis torosa (Jones); a, c LV, external view, ♀; b, d RV, external view, ♀; e LV, internal view, ♀; f RV, internal view, ♀; g Carapace, ventral view, ♀; h Carapace, dorsal view, ♀; i LV, external view, A1 juvenile; j LV, external view, A2 juvenile; k LV, external view, A3 juvenile (all specimens from sample DE06, Faber Quarry, Kocabaş, Denizli).
Fig. 4 a,b in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 4 a,b Overview of exposed units on the Eastern side of the Killik hill; c,d Detailed pictures of the clayey and mollusc bearing interval of the Upper Conglomerates (37°51'47.80"N, 29°20'16.07"E).
Fig. 17a-o in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 17a-o Loxoconchissa (Loxocaspia) aff. reticulata Faranda, Gliozzi and Ligios, var rugosa, n. subsp.; a LV, external view, ♀; b RV, external view, ♀; c Carapace, view from RV, ♀; d LV, internal view, ♀; e Carapace, dorsal view, ♀; f Carapace, ventral view, ♀; g, i LV, external view, ♂; h, j RV, external view, ♂; k LV, internal view, ♂; l RV, internal view, ♂; m, n Carapace, dorsal view, ♂; o Carapace, ventral view, ♂ (af, from sample DE09; g-o from sample DE11, Faber Quarry, Kocabaş, Denizli).
Fig. 14a-h in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 14a-h Tyrrhenocythere sp. 1; a LV, external view, ♀; b RV, external view, ♀; c RV, external view, ♂; d RV, internal view, ♀; e Carapace, ventral view, ♂; f RV, external view, A1 juvenile; g RV, external view, A2 juvenile; h RV, external view, A3 juvenile. i-m Tyrrhenocythere sp. 2; i LV, external view, ♀; j RV, external view, ♂; k RV, external view, A1 juvenile; l RV, external view, A2 juvenile; m RV, external view, A3 juvenile (all specimens from sample DE14, Faber Quarry, Kocabaş, Denizli).
Fig. 5a-l in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 5a-l Candona neglecta Sars; a. LV, external view, ♂; b carapace, lateral view from RV, ♂; c. LV, external view, ♀; d carapace, view from RV, ♀; e RV, internal view, ♀; f RV, internal view, ♂; g LV, external view, A1 juvenile; h RV, external view, A1 juvenile; i LV, external view, A2 juvenile; j RV, external view, A2 juvenile; k LV, external view, A3 juvenile; l RV, external view, A3 juvenile (all specimens from sample DE06, Faber Quarry, Kocabaş, Denizli).
Fig. 2 a in AN EARLY PLEISTOCENE ANOMALOHALINE WATER OSTRACOD FAUNA FROM LAKE DEPOSITS OF THE HOMO ERECTUS-BEARING KOCABAŞ LOCALITY (SW TURKEY)
Fig. 2 a Southern corner of the Faber quarry with an overview of the section composed of four units; b-d Detailed pictures of Unit 4 (Upper Conglomerates), outcropping at the northern end of the western wall (37°51'58.77''N, 29°20'12.94"E), with position of micropalaeontological samples within clay intercalations; e Layer with recrystallized mollusc shells within the Upper Conglomerates; (DE 06- DE 09, micropalaeontological samples) (from Rausch et al., 2019).
Estimated counts for simulated data (Homo sapiens) from Soneson et al (2016)
<p>Estimated counts for isoforms for the simulated data (Homo sapiens) using kallisto from Soneson et al (2016) "<em>Isoform prefiltering improves performance of count-based methods for analysis of differential transcript usage</em>" Genomy Biology 17(12).</p> <p>From the Methods:</p> <p>"The transcriptome catalogs used as the basis for the expression estimation and simulation were Ensembl GRCh37.71 for the human simulation (using only the chromosomes in the primary genome assembly)."</p> <p>From the Background:</p> <p>"Finally, we define the counting bins as the isoforms themselves and use kallisto (v0.42.1) to estimate the number of reads assigned to each isoform (<em>kallisto</em>)."</p> <p>These text files contain the estimated counts per isoform for the 6 samples.</p>
A New Classification for Ancient Human Lineages: Introducing Homo Genesis, Homo Primordialis, and Homo Eva Genesis
<p><span>Human evolution has been charted through genetic discoveries that trace back to our earliest ancestors. This paper proposes three new classifications—<strong>Homo Genesis</strong>, <strong>Homo Primordialis</strong>, and <strong>Homo Eva Genesis</strong>—to represent individuals with specific ancient DNA combinations. These classifications provide a new framework for understanding the genetic and evolutionary significance of haplogroups <strong>A-PR2921</strong>, <strong>A00</strong>, and <strong>L0</strong>. This work presents scientific, cultural, and philosophical reasoning for these classifications, emphasizing their role in connecting modern humans to our earliest origins.</span></p>
Data from: Evolvability and craniofacial diversification in genus Homo
There is abundant theoretical and empirical evidence for the influence of variational properties of populations on microevolution, and more limited support for their lasting impact during macroevolution. This study applies evolutionary quantitative genetic approaches to assess the long-term impact of within-population phenotypic variation and covariation (the P matrix) on population divergence in recent humans and species diversification in genus Homo. Similarity between the primary axes of within- and between-population craniofacial variation confirms a role for pmax in human population divergence, although diversification is not constrained to be unidimensional. The long term impact of the P matrix on craniofacial evolution is supported by higher-than-average evolvabilities along most branches of the Homo tree, but statistical uncertainty inherent in the data reduce confidence in this conclusion. Higher evolvability is not statistically correlated with increased rate of evolution, although the relationship is in the predicted direction. This is due in part to the high evolutionary rate on the early modern human branch despite its moderate level of evolvability. There was evidence for neutral evolution as well as directional and stabilizing selection over the Plio-Pleistocene using generalized genetic distance as a test statistic.
Homo erectus (recreación)
**Especie:** *Homo erectus* Dubois, 1894 **Número de Registro:* MGUV 22821 **Capacidad craneal:** 650-1250 cc. **Edad:** 1´9-0´1 M.a (Calabriense, Pleistoceno) **Localidad:** Norte, este y Sur de África **Clasificación:** família Hominidae, género *Homo* **Material:** recreación del cráneo en material cerámico **Técnica:** ** fotogrametría, **Procesado:** Photoscan, **Cámara:** Sony DSC HX60V **Autor:** Jose Luis Herrainz **Colección:** "Evolución Humana" Museo de la Universitat de València de Historia Natural (Burjassot, Valencia, España) **Referencia bibliográfica:** Climent, A. V., Herraiz, J. L., Villena, J. A., Máñez, T. S., Boisset-Castells, E., Conejero, N., García-Forner, A. & Pérez, C. M. (2019). La holografía como herramienta para la divulgación del patrimonio paleontológico: La colección de paleontología humana del museu de la universitat de valència de historia natural. Zubía, (31), 275-280.  Source: Objaverse 1.0 / Sketchfab
Homo neanderthalensis (niña de Teshik-Tash)
**Especie:** *Homo neanderthalensis* Cambell, 1963 **Nombre común**: niña de Teshik-Tash **Edad biológica:** niña de 7´5 años **Capacidad craneal:** 1550 cc. **Edad fósil:** 0,07 M.a (Pleistoceno Superior) **Localidad hallazgo:** cueva Teshik-Tash, cordillera Bajsuntau (Uzbekistan) **Clasificación:** família Hominidae, género Homo **Material:** réplica en resina, **Técnica:** ** fotogrametría, **Procesado:** Photoscan, **Cámara:** Sony DSC HX60V **Autor:** Andreu Vilaplana **nº registro / Colección:** MGUV 36476 / "Evolución Humana" del Museo de la Universitat de València de Historia Natural **Referencia bibliográfica:** Climent, A. V., Herraiz, J. L., Villena, J. A., Máñez, T. S., Boisset-Castells, E., Conejero, N., García-Forner, A. & Pérez, C. M. (2019). La holografía como herramienta para la divulgación del patrimonio paleontológico: La colección de paleontología humana del museu de la universitat de valència de historia natural. Zubía, (31), 275-280. Source: Objaverse 1.0 / Sketchfab
Human Skull (Homo sapiens)
Cráneo completo (sin mandíbula) de Homo sapiens medieval. Escaneado de la pieza: DAVID SLS-3. Post-procesado: Meshlab y Cloud Compare. Por favor, si lo usas cita su origen :) / Please, cite it when use :) Source: Objaverse 1.0 / Sketchfab
Dataset and figure generator for Variational Monte Carlo approach applied to the model describing WSe2 homo-bilayer
<p>This data set contains post-processed data obtained from variational Monte-Carlo approach for Hubbard model with complex, spin and direction dependent phase. This model is believed to properly describe the eseential features of WSe2 twisted homo-bilayer. The python notebook included, allows to generate figures regsarding formation of Mott insulating phase and spin ordering.</p>
Turkana Boy (Homo erectus)
Turkana or Nariokotome Boy is the most complete skeleton of *Homo erectus* (or *ergaster*). Recent research has reconstructed a broader chest than previous attempts, but the overall theory that this species showed greater ability for bipedal long distance running remains. XR viewing capable. Model includes teeth. Model made by Keith Chan using Blender. The whole dimensions are 0.649m x 0.571m x 1.6m. [A-Frame pose for customization](https://sketchfab.com/3d-models/turkana-boy-homo-erectus-a-pose-c505b065d1d3444392f3279abc398ea0). See this model and more in life size at [AnVRopomotron.com](http://www.anvropomotron.com). Source: Objaverse 1.0 / Sketchfab
Homo neanderthalensis (réplica)
**Especie:** *Homo neanderthalensis* Cambell, 1963 **Capacidad craneal: **1550 cc. **Edad:** 007-0´05 M.a (Pleistoceno Superior) **Localidad/año descubrimiento:** yacimiento La Ferrassie, Savignac-de-Miremont (Dordoña, Francia)/1909 **Clasificación:** família Hominidae, género Homo **Material:** réplica de resina del ejemplar La Ferrassie 1 **Medidas:** 23 x 16 x 14´5 cm. **Técnica:** ** fotogrametría, **Procesado:** Photoscan, **Cámara:** Sony DSC HX60V **Autor:** Jose A. Villena **Nº registro/Colección:** MGUV 22814 / "Evolución Humana" **Referencia bibliográfica:**Climent, A. V., Herraiz, J. L., Villena, J. A., Máñez, T. S., Boisset-Castells, E., Conejero, N., García-Forner, A. & Pérez, C. M. (2019). La holografía como herramienta para la divulgación del patrimonio paleontológico: La colección de paleontología humana del museu de la universitat de valència de historia natural. Zubía, (31), 275-280.  Source: Objaverse 1.0 / Sketchfab
Homo erectus Skull
300,000 to 600,000 YA. The Homo erectus skull Peking Man is also known as Pithecanthropus pekinensis (Sinanthropus). The gray coloration indicates areas that were sculpted based on the original fragments. This scan was made as a collaborative effort between The Ohio State University [Department of Anthropology](https://anthropology.osu.edu/), the [Office of Distance Education and eLearning](https://odee.osu.edu/), and the [Department of Art](https://art.osu.edu/). Captured with a Canon EOS camera array and processed/edited in Agisoft Photoscan. This scan was produced in 2017 the 3D scanning lab, created and run by Andrew Frueh, in the Department of Art at The Ohio State University. Source: Objaverse 1.0 / Sketchfab
Homo habilis (recreación)
**Especie:** *Homo habilis* Leakey, L.S.B., Tobias y Napier, 1964 **Capacidad craneal:** 510-615 cc. **Edad:**2´4-1´4 M.a (Gelasiense-Calabriense, Pleistoceno Inferior) **Localidad:** Este y Sur (África) **Clasificación:** família Hominidae, género *Homo* **Material:** recreación del cráneo completo en material cerámico **Medidas:** 21´2 x 16´5 x 12 **Técnica:** ** fotogrametría, **Procesado:** Photoscan, **Cámara:** Sony DSC HX60V **Autor:** Andreu Vilaplana **Nº registro / Colección:**MGUV 22822 / "Evolución Humana" Museo de la Universitat de València Historia Natural **Referencia bibliográfica:** Climent, A. V., Herraiz, J. L., Villena, J. A., Máñez, T. S., Boisset-Castells, E., Conejero, N., García-Forner, A. & Pérez, C. M. (2019). La holografía como herramienta para la divulgación del patrimonio paleontológico: La colección de paleontología humana del Museu de la Universitat de València de Historia Natural. Zubía, (31), 275-280.  Source: Objaverse 1.0 / Sketchfab
Homo heidelbergensis (Broken Hill) (1979rp9)
***Homo heidelbergensis*** Location: Broken Hill, Northern Rhodesia (now Kabwe, Zambia). Age: 350,000 - 250,000 years B.P. Material: plaster cast. Dimensions: length, 235 mm; width, 152 mm; height, 146 mm. Notes: RLA catalog no. 1979rp9 (cast). Cranium. Kabwe 1, also called the Broken Hill skull or Rhodesian Man, was discovered in a lead and zinc mine and assigned by Arthur Smith Woodward in 1921 as the type specimen for *Homo rhodesiensis*. Cast made by the University Museum of the University of Pennsylvania. From the teaching collection of the Research Laboratories of Archaeology, University of North Carolina at Chapel Hill. Model by Aidan Paul and Jordyn Gray. Source: Objaverse 1.0 / Sketchfab
Turkana Boy (Homo erectus) - A-Pose
Turkana or Nariokotome Boy is the most complete skeleton of *Homo erectus* (or *ergaster*). Recent research has reconstructed a broader chest than previous attempts, but the overall theory that this species showed greater ability for bipedal long distance running remains. XR viewing capable. Model includes teeth. Model made by Keith Chan using Blender. The whole dimensions are 1.01m x 0.31m x 1.59m. See this model and more in life size at [AnVRopomotron.com](http://www.anvropomotron.com). Source: Objaverse 1.0 / Sketchfab
LB1 (Homo floresiensis) - A-Pose
*Homo floresiensis* is a prehistoric human species found in Liang Bua Cave on Flores Island, Indonesia. Their short stature led to their nickname as the Hobbit. XR viewing capable. Model made by Keith Chan using Blender. The whole dimensions are 0.722m x 0.23m x 1m. See this model and more in life size at [AnVRopomotron.com](http://www.anvropomotron.com). Source: Objaverse 1.0 / Sketchfab
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.