A novel differential Hartmann sensor is described. It can be used to determine the characteristics of an optic accurately, precisely, and simply without detailed knowledge of the wavefront used to illuminate the optical system or of the geometry of the measurement system. We demonstrate the application of this sensor to both zonal and modal optical testing of lenses. We also describe a dual-camera implementation of the sensor that would enable high-speed optical testing.Thu-Lan Kelly, Peter J. Veitch, Aidan F. Brooks, and Jesper Munc
Optical systems are normally aligned by centering the energy distribution in various apertures. Howe...
In production of ophthalmic freeform optics like progressive eyeglasses, the specimens are tested ac...
The common Hartmann–Shack wavefront sensor makes use of a lenslet array to sample in-parallel optica...
An optical testing system that combines multiple Hartmann-type measurements and novel data analysis ...
We describe a Hartmann sensor with a sensitivity of λ /15,500 at λ= 820nm. We also demonstrate its a...
We describe a Hartmann wavefront sensor that can measure changes in a wavefront with a sensitivity o...
The Shack-Hartman wavefront sensor is a common metrology tool in the field of laser, adaptive optics...
The Shack-Hartmann wavefront sensor is a simple and elegant means for measuring the shape of a wavef...
Optical, full field testing of aspheres and especially freeform optics still remains a challenging t...
The Shack Hartmann wavefront sensor was adapted to measure the aberrations of the human eye in the 1...
The human eye, as our biological vision instrument, contains intrinsic optical defects, referred to ...
Ocular wavefront sensing is vital to improving our understanding of the human eye and to developing ...
Wavefront sensor is designed to measure both intensity distribution and phase distortion of optical ...
The wavefront measurement is an important part both in adaptive optics and in optical shop testing. ...
The topic of this thesis is the development of procedures and algorithms for applications of Hartman...
Optical systems are normally aligned by centering the energy distribution in various apertures. Howe...
In production of ophthalmic freeform optics like progressive eyeglasses, the specimens are tested ac...
The common Hartmann–Shack wavefront sensor makes use of a lenslet array to sample in-parallel optica...
An optical testing system that combines multiple Hartmann-type measurements and novel data analysis ...
We describe a Hartmann sensor with a sensitivity of λ /15,500 at λ= 820nm. We also demonstrate its a...
We describe a Hartmann wavefront sensor that can measure changes in a wavefront with a sensitivity o...
The Shack-Hartman wavefront sensor is a common metrology tool in the field of laser, adaptive optics...
The Shack-Hartmann wavefront sensor is a simple and elegant means for measuring the shape of a wavef...
Optical, full field testing of aspheres and especially freeform optics still remains a challenging t...
The Shack Hartmann wavefront sensor was adapted to measure the aberrations of the human eye in the 1...
The human eye, as our biological vision instrument, contains intrinsic optical defects, referred to ...
Ocular wavefront sensing is vital to improving our understanding of the human eye and to developing ...
Wavefront sensor is designed to measure both intensity distribution and phase distortion of optical ...
The wavefront measurement is an important part both in adaptive optics and in optical shop testing. ...
The topic of this thesis is the development of procedures and algorithms for applications of Hartman...
Optical systems are normally aligned by centering the energy distribution in various apertures. Howe...
In production of ophthalmic freeform optics like progressive eyeglasses, the specimens are tested ac...
The common Hartmann–Shack wavefront sensor makes use of a lenslet array to sample in-parallel optica...