LiDAR 기술 및 제품의 최신 동향을 확인하십시오. 신제품 출시와 성능 혁신부터 산업 동향 및 응용 분야에 이르기까지, 가장 관련성 높은 LiDAR 뉴스 및 통찰력을 여기에서 찾아보실 수 있습니다.

매핑, 자동화 및 3D 센싱의 미래를 만들어가는 혁신을 살펴보십시오.

2025년 11월 03일

옴마티디아의 병렬 레이저 RADAR를 구동하는 독자적인 광자 집적 회로

광자 집적 회로(PIC)는 옴마티디아의 레이저 RADAR를 향상시켜 항공우주, 자동차 및 토목 공학 분야의 고정밀 애플리케이션을 위한 소형, 에너지 효율적이고 신뢰할 수 있는 실시간 데이터 처리 시스템을 가능하게 합니다.

Integrated photonics and parallel measurement questions

Ommatidia photonic integrated circuits scale coherent Laser RADAR into synchronized 65- and 128-point measurement architectures.

How do photonic integrated circuits enable parallel measurement?

Ommatidia combines photonic integrated circuits, wide-area illumination and parallel optical measurement so multiple scene points can be acquired at the same time. This reduces reliance on point-by-point stepping and supports geometry or vibration workflows with wider spatial coverage.

What do the 65- and 128-point figures mean?

The 65-channel Q2 architecture captures full-field vibration simultaneously at 40 kHz. The 128-beam Q1 and Q1S architectures bring dense parallel optical coverage to portable metrology, vibration measurement and fixed structural monitoring.

When is parallel capture useful compared with sequential scanning?

Parallel acquisition captures transient events, operating vibration and phase relationships across the active channels in one synchronized record. It accelerates impact testing, modal analysis, NVH, rotating-machinery diagnostics and structural monitoring.

What engineering results does integrated photonics enable?

Integrated photonics produces synchronized time histories, spectra, phase-consistent response maps, operating shapes and geometry-linked displacement or strain visualizations. These outputs move directly into Atelier and OmmViewer for engineering analysis and export.