Zoom detection restricts sensor shift operations, keeping optical and image centers aligned for consistent composition.
A three-group telephoto layout keeps the outer groups stationary while the middle group focuses axially, reducing lens size and weight without sacrificing optical quality.
An imaging lens device changes movement-lens travel by wavelength range while one lens supports shake correction and sensor image shifting.
Separate electromagnetic drives move the lens assembly and circuit board together, reducing pull interference during anti-shake actuation.
Buffer members and an inclined frame cushion moving camera components, reducing impact noise and supporting structural reliability.
Integrating the camera lens into the display’s light-transmitting layer removes external fixing structures and supports thinner, full-screen devices.
One infrared module rotates with the camera platform to cover panning angles, reducing the cost, power use, and complexity of CCTV illumination.
Fluororesin layers lower friction at guide projections and grooves, supporting smooth lens movement and reducing repeated-use wear.
Visible-domain machine learning identifies objects in real time, steering mmWave imaging to relevant regions for faster, lower-energy inspection.
Varying shake patterns can defeat fixed frequency assumptions; multi-axis signals select the target value that best reduces translational blur.
Fixed lens setups limit distant or bulky targets; adjustable camera support and remote shutter control make capture positioning flexible.
A processor shifts the correction ratio between mechanical sensor movement and electronic image adjustment as frame rate changes, limiting image degradation.
A movable optical element driven by opposing magnets and coils compensates for attitude changes while reducing distortion, color shift, and blur.
A metal cylindrical holder reduces radial thickness while protrusions limit impact contact with the resin case and minimize dust.
Magnetic attraction supports the prism while enabling OIS tilting, reducing actuator thickness, part count, power use, and decenter or tilt.
Motion, orientation, and connection detection let an imaging device remap surface controls so frequently used functions remain accessible.
An adapter, latch, and biasing element let one thermal imaging camera move between platforms with secure, protected mounting.
Coils and magnets move the image sensor across and along the optical axis, combining stabilization against hand tremors with autofocus.
Coils and magnetic elements drive a movable optical module, using nested components to balance compact size with durability.
A rotating reflector stabilizes the optical path while lenses and image sensors remain stationary, reducing camera-module size and power demand.
Filter-state-specific optical information keeps focus and stabilization settings aligned with narrowband or broadband imaging.
Shape memory alloy wires drive connected swing members to tilt an optical axis without the magnets and coils that enlarge voice-coil designs.
Magnetic actuation moves the optical element while the supporting assembly compensates for shocks and vibrations that blur images in compact devices.
An edge masking layer and guide lens suppress total reflection in the light guide, reducing stray light and flare while supporting compact optics.
Contrast-based in-focus evaluation guides sensor tilt or focus-lens movement, correcting mechanical errors for rapid deep-depth imaging.
Convex object-side cemented surfaces and a positive last unit help correct chromatic aberration, field curvature, and distortion in compact zoom optics.
Hand-shake can blur images; an anti-shake micro-gimbal and intersecting-axis drives let a retractable camera make large- and small-angle corrections.
During OIS, the camera combines pixel data from multiple frames to raise image resolution while reducing noise, blur, and jagging artifacts.
Removing the third OIS frame lets ball bearings and VCM actuation provide linear and rotational lens movement in a slimmer module.