Specimen
High-resolution tomographic rendering of a male ant captured via ZEISS Xradia 520 Versa.
The premier solution for bringing the beauty and complexity of your 3D scan data to life.
GraeaeX specializes in processing three-dimensional scans into custom, fully-textured, two- or three-dimensional models.
We utilize data generated by CT, PET, Sonogram, and more, to produce realistic models, images, and even full-color 3D prints.
At GraeaeX, we specialize in the meticulous visual interpretation and reconstruction of scientific datasets. Our studio bridges the strict technical requirements of academic research institutions with the aesthetic clarity required for high-impact publication and museum displays.
Our workflow is built on academic rigor. We collaborate directly with researchers, universities, and natural science curators to ensure that every 3D model, figure, and animation—whether destined for a journal cover or an exhibition gallery—maintains the absolute biological and structural integrity of the underlying scan data. We handle diverse modalities, from synchrotron radiation micro-CT to laser confocal microscopy, with complete fidelity.
Confocal, multi-photon, and light-sheet visualization with high-accuracy multi-channel alignment and intensity mapping.
Hard tissue segmentation, organic voids modeling, high-density volumetric rendering, and sub-micron structural analysis.
Specialized multi-scale micro-reconstruction workflows for entomology, arachnology, paleontology, and marine morphology.
Figure preparation, morphological annotations, color maps, and journal covers optimized for major scientific journals.
Interactive web-optimized 3D volumetric models, archival-quality museum wall prints, and high-fidelity 3D prints.
Preview images are optimized for fast browsing. Select any figure to load and interact with the full-resolution, publication-quality image.
RECONSTRUCTIONS RENDERED AT 4K
High-resolution tomographic rendering of a male ant captured via ZEISS Xradia 520 Versa.
Detailed 3D volumetric model of the extended genitalia
Cross-sectional micro-CT scan
Sub-micron volumetric reconstruction
Comparative micro-CT study
Past visualization work has supported scientific and museum-oriented imaging projects involving high-resolution scan data and biological specimens.
Historical project context includes 3D visualization work connected to ant morphology, X-ray microscopy, and museum research presentation. We collaborate under strict nondisclosure agreements when working with sensitive, pre-publication specimens.
"The level of anatomical detail captured in these 3D renders allowed our team to identify vestigial structures previously hidden in 2D microscopy."
Secure transfer and processing of raw DICOM stacks, TIFF arrays, or proprietary scanner data.
Expert density segmentation, volume clipping, and advanced lighting models to accentuate critical structures.
Export of high-resolution print figures, interactive web assets, metadata documentation, or dynamic cinematic fly-throughs.
Presented at Tomography for Scientific and Industrial Applications (TOSCA), Session: CT – Past, Present and the Future
Realism is a function of scale, resolution, material properties, and imaging capability. To approach realism namely provide adequate visualization or representation for any material whether it be ant anatomy or 3D printed steel, requires having the imaging capability at the appropriate scale and spatial resolution. A new field of 3D X-ray microscopy (XRM) has emerged bringing dramatic resolution and contrast improvements to X-ray tomographic imaging. Analogous to computed tomography (CT) a specimen can be imaged without physical sectioning and a complete 3D view of the object is generated.
This paper highlights the imaging capability of a 3D XRM with application highlights from materials and life sciences. In the first example, tomographic data was collected by ZEISS Xradia 520 Versa of an ant specimen (Adetomyrma bressleri) for morphological studies to resolve species phylogeny. The extended genitalia (aedeagus), imaged by GraeaeX and courtesy of the California Academy of Sciences, represents a landmark in microscopic anatomical fidelity. Secondly, for materials research, datasets collected at nanoscale resolution by ZEISS Xradia 810 Ultra provided realistic microstructure input to improve computational transport models for polymer electrolyte fuel cells.
Coupled with advanced visualization methods, three-dimensional X-ray microscopy (XRM) is a powerful sub-surface imaging technique that reveals tomography of microstructure from a range of materials, non-destructively.
Utilizing industry-leading hardware and the multi-scale correlative workspace of ZEISS Atlas 5 to ensure unparalleled resolution and multi-modal alignment.
Our pipelines leverage the powerful capabilities of the ZEISS Atlas 5 package, extending scanning electron microscopes (SEM), focused ion beam SEMs (FIB-SEM), and 3D X-ray microscopes. By establishing a sample-centric, correlative environment, we achieve automated high-throughput stitching and precision sub-micron reconstruction.
Continuously selectable image acquisition sizes up to 32k x 32k pixels (and up to 50k x 40k on the ZEISS Crossbeam family). All scans are natively preserved as lossless 8-bit or 16-bit TIFF files. Our workflows sample multiple detectors simultaneously, recording co-registered structural and material signals in real-time.
Highly customizable dwell times ranging from 100 ns to > 100 s per dwell point, allowing for delicate biological sample stabilization and optimized beam patterning. An advanced 50 ns high-throughput option is integrated for rapid specimen surveys without sacrificing signal-to-noise ratio.
Full autofocus and auto-stigmation routines independent of field of view, image size, and resolution. Fully user-tunable based on specimen properties and density. Specially configured to minimize beam-sample interactions and thermal drift on sensitive biological samples.
True polygonal, elliptical, or rectangular scanning paths defined dynamically and adjusted 'on the fly'. The raster pattern rotation is automatically aligned to the precise geometric boundaries of the specimen's active site, minimizing beam exposure to surrounding organic tissues and maintaining local data density.
Designed for automated acquisition of large field of view overview images and multi-image mosaics at multiple regions of interest. Sequential multi-job lists. Possible to resume and reacquire any desired region at any time, using the very same parameters. Predefined imaging protocols suitable for common sample types are provided.
Direct overlay and correlation of Light Microscopy (LM) with Electron Microscopy (EM) data. Fully compatible with ZEISS Shuttle & Find physical correlative holders. Built-in support to ingest and map volumetric tomographic datasets from 3D X-ray Microscopes (such as the Xradia Versa family) for comprehensive internal-external anatomical mapping.
Import: CZI (ZEISS), ZVI, lossless TIFF, high-res JPG, BMP, and TXM (3D X-ray volumes).
Export: Lossless 16-bit TIFF, CZI, JPG, and MRC (standard cryo-EM and tomographic volume format).
GraeaeX operates at the intersection of high-fidelity data acquisition and premium visual presentation. As an independent scientific visualization entity, our growth is powered by robust institutional demand, multi-year university contracts, and strategic software alignments with primary hardware manufacturers.
We are expanding our software pipeline to integrate cloud-based, real-time volume rendering platforms, enabling collaborative online specimen examination for research consortiums globally.
Ongoing co-development agreements with major microscopy and XRM manufacturers ensure GraeaeX remains the industry standard for post-acquisition figure design.
For scientific visualization inquiries, research collaborations, or custom 3D scanning project questions, please click here to toss an e-mail our way.
Contact GraeaeXResponse Time: Typically within 24 business hours
Figure description explaining scientific features shown.