An electronic global shutter synchronized with a dispersive element cuts parasitic light artifacts and mechanical shutter wear in aerial imaging.
Synchronizing an electronic global shutter with an external shutter cuts parasitic light artifacts and mechanical shutter wear in aerial imaging.
Crossing optical axes combine overlapping camera views into a unified scene, improving autonomous vehicle navigation accuracy with less redundant data.
Ground topography and load weight are combined to predict rollover risk early, giving drivers or autopilots time to avoid steep terrain.
A hovering camera follows preset flight paths to capture and combine bridge images, avoiding scaffolding, lane closures, and manual risk.
Stepped across-track image shifts with forward motion compensation let smaller detector arrays capture wider high-resolution earth swaths with less blur.
Frame-by-frame brightness and UAV motion are used to switch metering modes, preventing overexposure and underexposure in aerial video.
A hovering camera stitches bridge images into a composite view, enabling intuitive flight control and safer inspections without scaffolding.
Two planned UAV circumnavigation routes cut redundant image overlap while preserving homologous points needed for accurate 3D modeling.
Non-contact ceiling sensing corrects vehicle tilt and filters obstacle noise for accurate drainpipe slope measurement while moving.
Drones, ground locators, and image analysis inspect hard-to-reach port machinery areas, reducing blind spots, risk, and inspection time.
Grid-based LOS scoring ranks aircraft surveillance cells by visibility, terrain, background, and distance to improve position selection reliability.
Five synchronized fisheye cameras capture 360° geometry in tunnels and narrow spaces while reducing scan error propagation and on-site time.
Selective follow-up energy pulses target regions of interest to add detail to 3D point clouds without rescanning the full field of view.
Coordinated focal-length and field-of-view adjustments keep aerial camera coverage contiguous, creating gap-free mosaics without extra flight passes.
Integrally formed photogrammetry targets track aircraft structural elements during assembly without temporary attachment or removal.
A dual-axis steering mirror uses a sawtooth motion profile to compensate for relative motion and eliminate image blur.
Adjustable legs and a level detector stabilize the camera on inclined surfaces, resolving image distortion from horizontal imbalance.
Rotating cameras on an underwater vehicle ensure guaranteed image overlap, reducing SLAM computational intensity while maintaining mapping accuracy.
Optical monitoring stations arrayed in a mesh layout detect low Earth orbit objects using passive sunlight reflection.
Optical sensor measures thickness and lateral position of transparent webs by analyzing focal plane shifts, resolving ultrasonic resolution limits.
A sensing device integrates spectral and geometric sensors on one substrate to capture aligned multi-spectral image data.
A camera system adjusts image capture intervals based on real-time platform orientation to minimize data volume while maintaining spatial overlap.
Rotating a light beam bundle creates a wandering spot pattern that enables accurate vertical position measurement while reducing computational complexity.
A base control device synchronizes multiple UAVs to capture images simultaneously, maintaining high measurement precision across wide fields.
Laser inspection system projects boundary lines parallel to automated material placement heads for real-time ply edge imaging.
Electronic global shutter synchronizes with external dispersive component to reduce parasitic light signal artifacts in aerial imaging sensors.
A non-telecentric overview camera captures sample carrier structures from multiple angles to calculate precise z-position distances for microscope focusing.
A measuring system uses laser rangefinders to determine garment dimensions on a table surface.
Georeferenced optical recording on a quadcopter resolves navigation accuracy trade-offs by using differential GPS and dynamic stabilization.
Dynamic mode switching enables opportunistic image acquisition, compensating for delays by adjusting strip parameters to maintain planned area coverage.
Camera-equipped vehicles generate local landmark maps to update high definition maps in real-time, reducing the cost and time required for map maintenance.
A telescoping camera apparatus captures cell site data for accurate three-dimensional modeling.
A laser scanner shifts distance measuring light emission timings to detect tilt and rotation without external attitude sensors.
A dual-view graphical interface displays synchronized front and top perspectives of mine areas to streamline radar data visualization.
Alternating near-to-far scanning sequences resolve the trade-off between wide coverage and scanning time.
A functional assembly merges a camera lens and sensor unit within the display structure to maximize screen area.
A survey controller automates tilt sensor calibration and GPS time synchronization through a unified interface.
Processor configures sensor field of view via demand map to collect scenes, eliminating resource wastage from late user requests.
A soundness determination device calculates damage influence based on relative positions of structural defects and critical components.
Processor identifies sphere centers from adjacent scan lines, eliminating post-processing delays and hardware constraints.
Combines laser data with aerial imagery to densify point clouds, reducing pulse density while maintaining stand attribute accuracy.
Coinciding a virtual perspective center with an antenna measurement element eliminates complex coordinate transformations and reduces computational overhead.
A single image sensor captures 3D geospatial data and 2D image data simultaneously using active and passive sensing modes.
Encoders measure mold displacement to recalibrate a laser projector, eliminating manual steps during drape-molding.
A stereomicroscope uses a single objective and dual tube lenses to establish object-side telecentric conditions for accurate three-dimensional shape detection.
An underwater observation unit uses a fisheye lens and optical signals to capture high-resolution positional data of submerged assets.
A hybrid measurement apparatus combines a high-precision GNSS receiver, an electronic distance meter, and an optical camera for simultaneous multi-point data capture.
A single camera captures partial images from multiple directions using optical deflection elements to determine spatial position.
Mirror units reflect light from hidden object points into the camera field of view, eliminating time loss from repositioning and recalibration.
A multiframe surface measurement system merges images from multiple perspectives into a common coordinate framework.