R202 Medical X-Ray Automatic Collimator

Radiation beam limiting device for precise X-ray field control. Reduces unnecessary radiation exposure to surrounding tissues while maintaining diagnostic image quality.

An X-ray beam limiting device that shapes and restricts the radiographic beam to the area of clinical interest. A critical component for reducing radiation exposure in X-ray imaging.

Precision collimation component for CT X-ray beams. Controls and shapes X-ray beam geometry for diagnostic imaging procedures.

Device that focuses and limits the X-ray beam to the area of interest. Reduces unnecessary radiation exposure to patients. Standard component in modern X-ray imaging systems.

X-ray beam collimation system for defining exposure fields in imaging procedures. Reduces scattered radiation and patient dose while optimizing image geometry.

Lead-lined beam-shaping device that restricts X-ray radiation to the area of interest. Reduces scatter radiation and improves image contrast while minimizing patient dose. Essential component in all X-ray imaging systems.

Specialized collimator for 300-meter laser transmission with 150mm focal length producing large high-quality Gaussian beams. Multi-element air-gap lens design achieves near-diffraction-limited beam quality with minimal wavefront error.

Diffractive-limit collimator designed for long-distance laser transmission up to 200 meters. Compact dual-lens design with aberration correction provides excellent collimation and spatial light coupling for remote laser applications.

Specialized collimator providing diffraction-limited performance at design wavelength with collimation distance up to 200 meters. Features compact structure unaffected by misalignment and dual-lens design for excellent collimation and spatial light coupling capabilities.

Collimator utilizing air-gap cemented lenses to provide superior beam quality compared to aspheric and achromatic alternatives. Low-aberration lens design achieves near-Gaussian beam characteristics with minimal divergence angle and wavefront error for precision applications.

Zero-deviation collimator with optical axis nearly perfectly aligned to mechanical axis, enabling rapid precise alignment without fine beam adjustment. Reduces insertion loss in paired installation scenarios for stable optical signal transmission.

Parallel hole tungsten collimators optimized for alignment with pixelated CZT detector arrays. Enables faster acquisition protocols and improved spatial resolution in SPECT imaging procedures.