A reflection type artificial
crystal aberration Hartmann instrument mainly comprises a
light source, a
beam matching system, a standard spherical reflector, a aperture segmentation element, a photoelectric
detector and a computer, wherein, a Hartmann wave-front sensor is composed of the aperture segmentation element and the photoelectric
detector. Lights emitted by the
light source are collimated to be emitted in parallel. The parallel lights pass through an artificial
crystal to be measured by a reflector and a spectroscope in sequence. Transmission light
waves arrive at the standard spherical reflector which is axially adjusted to lead to the
coincidence of the back focus of the artificial
crystal to be measured and the spherical center of the standard spherical reflector. Reflected light
waves return along an original
optical path, pass through the artificial crystal to be measured again, then pass through the spectroscope and the
beam matching system in sequence and are segmented and sampled by the aperture segmentation element, and then are focused on the photoelectric
detector to form
light spot arrays. The acquired light sport data is sent to the computer to be processed, so as to obtain the aberration of the artificial crystal to be measured. The reflection type artificial crystal aberration Hartmann instrument has the
advantage of simple and stable structure, which is a convenient, fast and reliable detection tool for the
ophthalmology clinical artificial crystal
transplantation and
processing and the detection of artificial crystals for personalized
human eye aberrations correcting.