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.
264
datasets available to search
ShareScore release 0.9.0
Dataset results
264 results for “3D Reconstruction”
Feasibility of 3D-printed middle ear prostheses in partial ossicular chain reconstruction
<p>3D models and print files for article: Feasibility of 3D-printed middle ear prostheses in partial ossicular chain reconstruction</p> <p>The geometry of different size PORPS</p> <p>Set of 1st generation PORPs: run1</p> <p>Set of 2nd generation PORPs: run2</p>
Fig. 10. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 10. 3D reconstructions of the mandible of †Gerontoformica gracilis (A and D) and Formica rufa (B, C, and E) illustrating our two hypotheses for the evolution of the shovel-shaped mandible of crown ants.According to hypothesis 1 (A → B), the position of the subapical tooth (purple dot in A) is shifted posteriorly so that the margin between it and the apical tooth (cyan dot) is elongated and additional teeth are inserted. Elongation of the masticatory margin (cyan line) leads to the modified orientation of the basal margin (purple line).The original subapical tooth becomes the basal margin (purple dot in B). According to hypothesis 2 (A → C), basal broadening of the mandibular blade leads to the formation of the basal angle and part of the original basal margin is incorporated with the masticatory margin, developing denticles.The original subapical tooth (purple dot in A) remains the subapical tooth (purple dot in B).The position of the fimbriate line on the inner surface of the mandible (purple outline in D and E) supports hypothesis 2.
Fig. 9. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 9. 3D reconstructions of the heads of †Gerontoformica gracilis (on the left) and crown Formicidae (on the right) illustrating character transitions at the root of crown Formicidae, i.e., excluding †Gerontoformica. The relevant characters and states are marked with cyan outlines for plesiomorphies and magenta outlines for apomorphies; where applicable, physical directions of state changes are marked by arrows of the same colors. Complete illustrations of character states in all investigated taxa can be found in the character list at the end of this contribution. Char. 7: Ventral view on the head of †G. gracilis and Brachyponera luteipes, showing a medium versus a long postgenal bridge.Char. 36: Dorsal view on the posterior portion of the head of †G. gracilis and Brachyponera luteipes, showing presence versus absence of ocelli. Char. 42: Ventral view on the head of †G. gracilis and Brachyponera luteipes, showing a rounded versus projecting hypostomal tooth. Char. 46: Frontal view of the oral foramen of †G. gracilis and Brachyponera luteipes, showing a hypostomal corner situated far lateral of the tip of the hypostomal process versus a hypostomal corner aligned with the tip of the hypostomal triangular process. Char. 78: Frontal view of the scapus of †G. gracilis and Formica rufa showing a short scapus relative to the flagellum versus a long one. Only part of the antennal flagellum is shown, as this is not entirely imaged in the used µCT-scan data. Char. 86: Lateral view of the mandibular articulation of †G. gracilis and F. rufa showing the atala either broadly and flatly bulging or narrowly and highly bulging.Char. 94 and 97: Dorsal view of the mandible of †G. gracilis and F. rufa showing a narrow mandibular blade and gnathal edge without denticles proximad the subapical tooth versus a basally broadened mandibular blade with basal angle and denticles developed on the gnathal edge. Char. 108: Frontal section through the M. craniomandibularis internus (0md1) of †G. gracilis and F. rufa showing all fibers directly attaching to the main apodeme (magenta) versus some fibers attaching on thin cuticular fibrillae (cyan). Char. 143: Dorsal view of the prepharynx digestive tract of †G. gracilis and Wasmannia showing one bundle of the lateral portion of M. pharyngoepipharyngalis (0pe1l) versus two bundles.
Fig. 5. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 5. 3D reconstructions of the head of †Gerontoformica gracilis specimen CASENT0741232, showing skeleton and musculature of maxilla and labium. (A, F, H, and K) Dorsal view.(B, E, I, and L) Ventral view. (C, G, and J) Sagittal view,in (C) the left instead of right side of the head is shown. (D) Frontal view. (M) Lateral view. (A–C and G) Maxillary musculature. (D–F) Maxilla. (H–J) Labial musculature and salivary duct. (K–M) Labium. Abbreviations: 0hy3, M. tentoriohypopharyngalis; 0hy12, M. hypopharyngosalivaris; 0la5, M. tentoriopraementalis; 0la11, M. praementoparaglossalis; 0la12, M. praementoglossalis; 0la14, M. praementopalpalis externus; 0mx1, M. craniocardinalis externus; 0mx3, M. tentoriocardinalis; 0mx4, M. tentoriostipitalis anterior; 0mx6, M. stipitolacinialis; 0mx7, M. stipitogalealis; 0mx8, M. stipitopalpalis externus; bpb, basiparaglossal brush; cd, cardo; ga, galea; gl, glossa; hy, distal hypopharynx; lb, labrum; lc, lacinia; msf, medial stipital flange; mxc, maxillary comb; pgl, paraglossa; plb, labial palp; plbp, process of the labial palp; pmd, premental ditch; pml, prementum lateral face; pmv, prementum ventral face; pmx, maxillary palp; psm, postmentum; st, stipes; svd, salivary duct. Symbols: blue line, premental ditch.
Fig. 4. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 4. 3D reconstructions of the head of †Gerontoformica gracilis specimen CASENT0741232, showing skeleton and musculature of mandible and antenna. (A and D) Dorsal view. (B and E) Ventral view. (C and F) Sagittal view. (G) Outer view. (H) Inner view. (A–C) Antennal musculature. (D–F) Mandibular musculature and mandibular gland. (G and H) Mandible. Abbreviations: 0an1, M. tentorioscapalis anterior; 0an2, M. tentorioscapalis posterior; 0an3, M. tentorioscapalis lateralis; 0an4, M. tentorioscapalis medialis; 0an6, M. scapopedicellaris lateralis; 0an7, M. scapopedicellaris medialis; 0md1, M. craniomandibularis internus; 0md3, M. craniomandibularis externus; aba, abductor apodeme; ada, adductor apodeme; adc, adductor carina; al, atala; at, apical tooth; bm, basal margin; cdc, condylar carina; cdg, condylar groove; dta, dorsal tentorial arm; fl, fimbriate line; ims, inner mandibular surface; ll, lateral tentorial lamella; ma, mandalus; md, mandible; mda, mandibular acetabulum; mdc, mandibular condyle; mdg, mandibular gland; ml, medial tentorial lamella; omc, outer mandibular carina; oms, outer mandibular surface; pd, pedicel; sat, subapical tooth; sc, scapus. Symbols: blue line, basal curvature of pedicel.
Fig. 6. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 6. 3D reconstructions of the head of †Gerontoformica gracilis specimen CASENT0741232, showing the digestive tract with its muscles and glands and the central nervous system. (A, E, and G) Dorsal view. (B, C, and H) Ventral view. (D and F) Sagittal view. (A, B, and D) Overview of digestive tract with muscles and glands and central nervous system. (C) Head capsule cut open to reveal origin sites of dorsal head muscles. (E and F) Prepharynx with oral arm folds. (G and H) Recognizable subregions of the brain. Abbreviations: 0ci1a, M. clypeopalatalis a; 0ci1b, M. clypeopalatalis b; 0bu1, M. clypeobuccalis; 0bu2, M. frontobuccalis anterior; 0hy1, M. frontooralis; 0pe1d, M. pharyngoepipharyngalis dorsal bundle; 0pe1l, M. pharyngoepipharyngalis lateral bundle; ammc?, likely the antennal mechanosensory and motor center; aot, anterior optic tubercle; br, brain; bt, buccal tube; cbl, central body lower unit; cbu, central body upper unit; ce, compound eye;ep, epipharynx;fp, food pellet;hy, distal hypopharynx;ibp, infrabuccal pouch;la, lamina;lb, labrum; lbm, labium;lo, lobula;me, medulla;mbpd, mushroom body peduncle; mbca, mushroom body calyx; nan, antennal nerve; no, noduli; oa, oral arm fold; ol, olfactory lobe; opl, optic lobe; ph, pharynx; phg, pharyngeal gland; pph, prepharynx; pphg, prepharyngeal gland; sog, suboesophageal ganglion. Symbols: dotted magenta line, folds presumably representing the oral arms.
Fig. 3. 3D in The First Reconstruction of the Head Anatomy of a Cretaceous Insect, †Gerontoformica gracilis (Hymenoptera: Formicidae), and the Early Evolution of
Fig. 3. 3D reconstructions of the head of †Gerontoformica gracilis specimen CASENT0741232, showing external and internal skeletal elements. (A and D) Dorsal view. (B and E) Ventral view. (C) Lateral view. (Cʹ) Dorsolateral view of the torulus. (F) Sagittal view. (G) Frontal view of the oral foramen of the head capsule. (A–C) Complete head. (D–F) Internal skeleton. (H) Labrum outer surface. (I) Labrum inner surface. Abbreviations: alf, atalar fossa; ant, antennifer; ata, anterior tentorial arm; atp, anterior tentorial pit; bb, bulbus; bbn, bulbus neck; ce, compound eye; cl, clypeus; cli, clypeal inflection; clp, clypeal process; clc, clypeal chaetae; cor, circumocular ridge; dma, dorsal mandibular articulation; dta, dorsal tentorial arm; ess, epistomal sulcus; esr, epistomal ridge; fc, frontal carina; fr, frontal area; hc, cardinal condyle of hypostoma; hygl, lateral hypostomal groove; hygm, medial hypostomal groove; hyp, hypostomal triangular process; hysci, inner hypostomal carina; hyscor, oral hypostomal carina; hyscou, outer hypostomal carina; hyt, hypostomal corner; ll, lateral tentorial lamella; lbre, outer labral surface; lbri, inner labral surface; ltra, transverse row of labral setae; md, mandible; ml, medial tentorial lamella; oc, ocellus; oca, occipital carina; occ, occipital area; ocf, occipital foramen; pgb, postgenal bridge; pgr, postgenal ridge; plb, labial palp; pmx, maxillary palp; poc, postocciput; pta, posterior tentorial arm; sc, scapus; sfg, subforaminal groove; st, stipes; tb, tentorial bridge; tba, tentorial bridge anteriomedian process; to, torulus; toi, inner torular rim; vma, pleurostomal fossa. Symbols: blue line, epistomal sulcus.
Paleontological reconstruction (3D model) of Dolichoderus jonasi Dubovikoff et Zharkov, 2022 (male).
<p>Supplementary file 2 from Dubovikoff, D. A., Zharkov, D. M. 2022. A new species of the genus Dolichoderus Lund, 1831 (Hymenoptera: Formicidae) from a Late Eocene European amber. Caucasian Entomological Bulletin 181, 147–152 (doi:10.23885/181433262022181-147152).</p> <p>Abstract. A new species of ants, Dolichoderus jonasi sp. n., from a Late Eocene amber (Rovno and presumably Baltic ambers) of Europe is described from three workers and one male. The new species differs from all known fossil and recent species of the genus by the following set of characters: the presence of thorns on the pronotum, a head tapering to the back with pronounced occipital angles, a dimpled (with numerous pits) sculpture on the head and thorax, the presence of a ridge on the posterior edge of the main surface of the propodeum with a row of large setae, the presence of large straight setae on the body arranged in rows, high and somewhat narrowed to the apex petiole scale. The described species cannot be assigned to any of species groups (complexes) in the genus. The phylogenetic relationships of the new species with other species of the genus are discussed. Based on the studied morphological features, the species is closest to representatives of the debilis complex, widespread in South and Central America. However, it has significant differences and should be considered as the separate jonasi complex. We used computer microtomography methods to study structures inaccessible for optical microscopes and accurate measurements, which made it possible to characterize all diagnostic characters of the new species. Reconstructions of a worker and a male using 3D modeling are presented. The discovery of D. jonasi sp. n. in European Late Eocene amber is another possible evidence of relations between the faunas of Europe and the Americas in the past.</p>
3D-EPI Blip-Up/Down Acquisition (BUDA) with CAIPI and Joint Hankel Structured Low-Rank Reconstruction for Rapid Distortion-Free High-Resolution T2* Mapping
<p>3D-BUDA data acquired from a 3T Siemens scanner and a 7T Siemens scanner</p>
The dataset of "Deep Learning-enabled 3D Multimodal Fusion of Cone-Beam CT and Intraoral Mesh Scans for Clinically Applicable Tooth-bone Reconstruction"
<p>The dataset used in the study "Deep Learning-enabled 3D Multimodal Fusion of Cone-Beam CT and Intraoral Mesh Scans for Clinically Applicable Tooth-bone Reconstruction" is available upon request. Please contact the authors of the study or the responsible institution for access to the dataset.</p>
3D reconstructions of parasite development and the intracellular niche of the microsporidian pathogen E. intestinalis
<p>Source data for "3D reconstructions of parasite development and the intracellular niche of the microsporidian pathogen <i>E. intestinalis</i>".</p><p>There are four separate zip folders<br>1. <i>E. intestinalis</i> infectivity in Vero cells: Source data for Figures 1B-D</p><p>2. Mitochondrial Fragmentation: Source data for Figures 6C-D and Supplementary Figures 6D-E</p><p>3. Mitochondrial Fragmentation: Source data for Figures 6E-F</p><p>4. PV localization: Source data for Supplementary Figure 6B</p><p> </p>
3D Lung Reconstructions Using Open-source Software for Lung Cancer Surgery
ClinicalTrials.gov study NCT06132607. IPD Sharing: NO. Countries: 1. Publications: 1.
3D Reconstruction in Video-assisted Thoracoscopic Surgery (VATS) Segmentectomy
ClinicalTrials.gov study NCT04004494. IPD Sharing: NO. Countries: 1. Publications: 1.
Microbial Colonisation On Vacuum-Formed Retainers Constructed On Conventional Models And Three Dimensional (3D) Reconstructed Models
ClinicalTrials.gov study NCT03844425. IPD Sharing: NO. Countries: 1. Publications: 18.
Whole vs Segmented 3D Models for Mandibular Reconstruction
ClinicalTrials.gov study NCT07365085. IPD Sharing: NO. Countries: 1. Publications: 7.
Virtual Reality and 3D Reconstruction in Body Image and Bariatrics
ClinicalTrials.gov study NCT05273515. IPD Sharing: NO. Countries: 1. Publications: 10.
Evaluation of the Usefulness of Imaging Methods and 3D Reconstruction in Percutaneous Closure Procedures of PVL.
ClinicalTrials.gov study NCT03371472. IPD Sharing: UNDECIDED. Countries: 1. Publications: 8.
Calf Muscle Perfusion in Patients With Intermittent Claudication by 3D-reconstruction of MSOT (MSOT_IC_3D)
ClinicalTrials.gov study NCT05773534. IPD Sharing: Not stated. Countries: 1. Publications: 5.
Multi-Detector CT Angiography With 3D Reconstruction Versus Digital Subtraction Angiography
ClinicalTrials.gov study NCT05304572. IPD Sharing: Not stated. Countries: 1. Publications: 12.
(Withdrawal) AI-Based Low-Dose 3D-DSA Reconstruction
ClinicalTrials.gov study NCT06769867. IPD Sharing: NO. Countries: 1. Publications: 2.
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.