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The figure presents comparative ultrastructural and quantitative analyses of axonal morphology between control and experimental groups. Panels A–F show high-resolution electron microscopy images of myelinated axons across three anatomical regions: optic nerve (ON), lumbar spinal cord (LSCC), and thoracic spinal cord (TCSC). Control samples (A, C, E) display axons with circular profiles and uniform myelin sheaths, while experimental samples (B, D, F) exhibit variability in axon diameter and sheath thickness. Images highlight cross-sectional differences in fiber density, packing, and myelin compaction. Panels G–I provide scatter plots of axon diameter measurements, with regression lines indicating distribution relationships between conditions. Each scatter plot plots individual axon diameters (µm) against frequency counts, showing that experimental groups tend toward altered size distributions relative to controls. Panels J–L present histograms of axon diameter frequency distributions for ON, LSCC, and TCSC, respectively, with distinct peaks indicating shifts in axonal populations between groups. Panels M and N summarize quantitative comparisons in bar graph format: panel M shows mean axon diameter differences in the optic nerve, while panel N compares diameters across spinal cord regions. Statistical indicators (asterisks) denote levels of significance, with *** representing p < 0.001 and ** representing p < 0.01. The collective dataset illustrates region-specific and statistically significant differences in axon diameters between control and experimental conditions, integrating structural micrographs with quantitative morphometric analysis.
The image shows a controlled studio photography arrangement designed for capturing detailed close-ups of small objects. A digital camera mounted on an articulated tripod arm is positioned in front of a collapsible white light tent. Inside the tent, a pair of circular film reels rests on a flat support surface, with small stands propping them upright for even visibility. The light tent itself is made of translucent fabric panels, which diffuse external lighting and minimize harsh shadows or reflections.

This type of setup is commonly used in archival documentation, product photography, or research imaging where the aim is to achieve high fidelity, evenly lit images. By neutralizing shadows, controlling reflections, and emphasizing fine textures, the tent ensures the reels can be documented with clarity for cataloging, digital preservation, or aesthetic presentation.

The presence of the reels ties the setup to cinematic history and analog media preservation practices. Film reels, as cultural artifacts, require careful photographic treatment both for digital archiving and for visual integration into research-based creative works. Within the context of the Walking Bread and broader NFB research environment, this scene represents a merging of media archaeology with contemporary photographic technologies. It is as much about safeguarding material heritage as it is about embedding analog aesthetics into experimental workflows.

Seen this way, the apparatus becomes part of the Genomic Animation logic: it functions as a data capture point, where visual artifacts are recorded not only for preservation but also for integration into narrative and experimental practices. The workflow bridges object-based heritage with digital pipelines, preserving tactility while preparing for transformation into animation, collage, or mixed-media projection.
Progressive fabrication process involving structural upholstery textile configured into a cylindrical elongated object with surface coloration replicating the crust patterning of a baked loaf. The material composition appears to consist of synthetic fabric containing printed gradients that simulate organic browning, including striations approximating fermentation cracks along a tapered outline. The object has volumetric stuffing that produces a consistent three-dimensional bulging profile with compressibility allowing deformation under applied arm pressure. A person positioned centrally in the frame applies bilateral limb enclosure around the artifact, indicating ergonomic adaptability of the cushion’s form to human torso curvature. The subject wears a protective respiratory covering with printed motifs and translucent corrective lenses supported by ear-mounted frames. Garment configuration consists of dark-toned short-sleeved upper clothing and a lower segment constructed of lightweight fabric reaching above the knee. Background architecture comprises a vertical fenestration unit with grid-like muntins creating subdivided panes, through which exterior light diffuses into the room. Beneath the window is a heating radiator featuring metallic fins aligned horizontally, connected to a wall-mounted housing panel. Adjacent wall planes exhibit pale surface coating with rectilinear intersections and framing around a secondary doorway positioned at right. Floor zone contains exposed concrete with adhesive tape marking borders, suggesting ongoing modification or incomplete finishing state. Illumination derives from daylight entering the window aperture, producing shadow gradients across interior surfaces, while reflective glare is observed on the transparent lenses worn by the subject. Spatial orientation situates the person perpendicular to the window axis, with head turned slightly toward the cushion, eyes obscured by optical glare. The bread-replica object extends diagonally across the vertical axis of the body, from lower hip region to upper cranial level, with length proportion exceeding average torso height. Textile rendering demonstrates gradient coloration transitioning from light beige at extremities to deep brown at midsection, corresponding with visual characteristics of a traditionally baked loaf subjected to variable oven heat exposure. The construction of the cushion involves sewing seams along lateral boundaries, maintaining symmetrical outline while concealing stitching beneath patterned outer layers. Object density appears optimized for tactile compression without collapse, suggesting polyfill or foam interior. Contact surfaces between arms and cushion display minor indentation, indicating pressure absorption capability. Positioning of the cushion relative to surrounding architectural elements shows approximate vertical height alignment with window sill, providing comparative scale reference. Environmental conditions within the space appear controlled, with closed window maintaining indoor climate stability. The juxtaposition of oversized bread form within architectural context emphasizes contrast between utilitarian interior and symbolic representation of food as an enlarged textile artifact.
Technical apparatus installed within a corner studio space comprising an overhead capture rig with integrated lighting, cameras, and articulated support components. Central vertical support column extends upward from a weighted base, stabilizing the entire assembly. Affixed to the upper section is a large rectangular overhead platform constructed from wood and metal, positioned horizontally above a working surface. A circular aperture is cut into the platform, accommodating a ring light that directs uniform illumination downward onto the tabletop.

Mounted around the perimeter of the support are multiple articulated arms equipped with adjustable joints and clamps, each holding high-resolution digital cameras. At least three cameras are visible, oriented toward the central capture area on the table below, configured for synchronized multi-angle recording. Each camera assembly is stabilized with counterweights and mechanical locks, ensuring positional stability during operation. Supplementary task lighting is provided by movable desk lamps attached to adjacent fixtures, directing additional beams toward the capture zone.

Cables extend from the cameras and lighting systems, routed along the support column and table edges, connecting to external control devices and power supplies. On the tabletop beneath the rig, various materials and tools are present, including paper sheets, brushes, pens, and small containers, indicating use for illustration, painting, or detailed physical manipulation requiring consistent overhead documentation. White ceramic cups and plastic containers are distributed across the table, some holding liquid or small instruments.

At the very top of the apparatus is a black modular component resembling a stacked filter or sensor unit, likely designed for specialized overhead imaging, scanning, or projection purposes. The rig allows for precise alignment of optical devices above the workspace, enabling consistent high-quality capture of sequential manual processes.

Environmental surroundings include plain light-colored walls with pinned paper references, indicating a controlled laboratory or studio workspace. The integrated configuration demonstrates a hybrid system merging professional-grade lighting, stabilized camera positioning, and adjustable modularity, facilitating documentation of artwork or experimental fabrication.
Triptych image displays three sequential stages of prototyping involving a rounded sculptural head-like object. At left, the object is held in a hand against a tabletop background. Its beige surface exhibits incised markings including a vertical line running from upper to lower region and punctured holes positioned symmetrically near the base, resembling simplified facial features. The form demonstrates hand-carved detailing with shallow grooves and openings integrated into the curved geometry.

The central panel shows the same object positioned on a workstation desk. The environment contains multiple technical components: a computer monitor, headphones, articulated camera mounts, and wiring. The sculpted form is mounted upright, possibly for scanning, observational documentation, or motion capture. Adjacent equipment indicates integration into a digital workflow, potentially linking manual carving with imaging or model conversion processes.

The right panel presents a fused deposition modeling (FDM) 3D printer in operation. Transparent casing encloses the build platform where a cylindrical object of similar proportions to the carved prototype is being fabricated layer by layer from extruded filament. Spool of filament is mounted externally, feeding material into the printer through tubing. Electrical components, cabling, and control panel are visible on the machine’s housing. The printed piece is partially completed, with stratified layers clearly visible, reproducing the volumetric characteristics of the sculpted form.

Together, the triptych illustrates a hybrid prototyping cycle beginning with manual physical carving, transitioning into digital observational integration, and culminating in additive manufacturing replication. The process emphasizes iterative translation between handcraft, digital mediation, and machine-based reproduction, embedding the sculptural head form across multiple technical modalities.
Metallic and glass-based apparatus consisting of a rectangular support frame fabricated from tubular black metal joined with orthogonal connectors, serving as the foundation for a suspended multi-tier transparent tank system. The central component is a rectangular container composed of multiple parallel glass panels held by vertical clamps, threaded rods, and metallic fasteners arranged symmetrically along each side. The layered transparent planes are separated by uniform gaps, producing a stacked configuration resembling a liquid containment or experimental observation chamber. Mounted above the structure is a vertical rig supported by cables and pulleys, terminating in a suspended camera or sensor device positioned for overhead capture. On both lateral sides, vertical stands with adjustable clamps are connected to auxiliary rods, ensuring lateral stabilization and alignment. Electrical wiring, black cables, and conduit lines are routed across the ground surface and connected to devices including a wooden equipment box housing power supplies or controllers, with visible switches and ventilation slits. The surrounding environment includes an industrial room with smooth concrete flooring, gray painted walls, and a large plastic container covered with fabric or protective material in the background. The apparatus emphasizes modularity, precision alignment, and controlled positioning of transparent layers for technical imaging, experimental measurement, or optical research applications, integrating structural, mechanical, and electronic components into a unified assembly.
 
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