Abstract:
A device for defect detection of a laser-processed surface of the present invention comprises a laser generating device (20) irradiating laser to a material (T); a laser detection device (30) receiving scattering laser in accordance with a laser scattering angle of the material (T); and a processing device (40) which figures out a starting point which power of the scattering laser increases and a point which power of the scattering laser rapidly increases from the scattering laser data thereby measuring a laser incident point and surface damage of the material (T) by laser processing and a damage point in real-time without using additional light sources.
Abstract:
The present specification relates to a laser-material interacting simulator of a high energy laser through long-range atmospheric propagation which can simulate an atmospheric propagation effect of the high energy laser. The simulator according to one embodiment of the present specification comprises: a first power meter for measuring the output of laser beams outputted from a laser; an atmospheric propagation simulating device for simulating turbulent flow, aerosol, and heat spreading effects generated by the output of the laser beams outputted from the laser; a second power meter for measuring the output of the laser beams outputted from the atmospheric propagation simulating device; a beam profiler for measuring the strength variation of the laser beams outputted from the atmospheric propagation simulating device; a substance movement simulating device irradiating the laser beams outputted form the atmospheric propagation simulating device to a substance (Subject) and simulating the movement effect of the substance; and a substance damage measuring device for measuring the damaged information of the substance in the substance movement simulating device in real time. [Reference numerals] (31) High power laser;(312) High speed rotation device (rotation effect);(313) Movable sprayer (wind effect);(314) Vibrator (vibration effect);(32) Atmospheric propagation simulating device;(33) Image obtaining device;(35) Substance damage measuring device;(36) Controller;(37) First power meter;(38) Second power meter;(39) Beam profiler;(AA) Substance
Abstract:
본 발명의 입체 고속 모의 영상 발생장치에는 입력된 배경 시나리오에 맞춰 3차원 모의 영상의 3차원 배경 홀로그램을 레이저 빔으로 생성하는 3차원 배경영상 발생기(3)와, 입력된 표적 고속 이동 시나리오에 맞춰 고속 이동되는 표적의 3차원 표적 홀로그램을 레이저 빔으로 생성하는 3차원 표적영상 발생기(4)가 포함됨으로써 레이저 홀로그램 기반의 3차원 모의영상(A-2)이 구현되고, 특히 3차원 모의영상(A-2)이 수백 Hz 이상으로 구현됨으로써 고속 및 고분해능을 요구하는 영상기반 고 정밀 추적시스템의 성능 검증 시험장치로 활용되는 특징을 갖는다.
Abstract:
PURPOSE: A laser thermal doming measurement device, a thermal doming measurement system with the same, and a laser thermal doming measurement method are provided to measure the laser distribution without a data loss while transferring a gas cell at high speed. CONSTITUTION: A laser thermal doming measurement device includes a laser emitting unit (61), a beam distribution measuring unit (63), a gas cell (71), a gas cell transferring device (70), a transfer sensing unit, and a control unit. The beam distribution measuring unit measures the distribution of laser beams. The laser beams are penetrated through the gas cell. The transfer sensing unit senses a position of the gas cell, thereby generating start signals and finish signals. The control unit controls the operation of the laser emitting unit and the beam distribution measuring unit based on the start and finish signals.