Abstract: We present the results of a project to develop a proof of concept for a novel hyperspectral imager based on the use of advanced micro-optics technology. The technology gives considerably more spatial elements than a classic pushbroom which translates into far more light being integrated per unit of time. This permits us to observe at higher spatial and/or spectral resolution, darker targets and under lower illumination, as in the early morning. Observations of faint glow at night should also be possible but need further studies. A full instrument for laboratory demonstration and field tests has now been built and tested. It has about 10,000 spatial elements and spectra 150 pixel long. It is made of a set of cylindrical fore-optics followed by a new innovative optical system called a microslice Integral Field Unit (IFU) which is itself followed by a standard spectrograph. The fore-optics plus microslice IFU split the field into a large number of small slit-like images that are dispersed in the spectrograph. Our goal is to build instruments with at least hundreds of thousands of spatial elements.
Keywords: hyperspectral imaging; microslice; Integral Field Unit; spectroscopy; staring hyperspectral imager
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Content, R.; Blake, S.; Dunlop, C.; Nandi, D.; Sharples, R.; Talbot, G.; Shanks, T.; Donoghue, D.; Galiatsatos, N.; Luke, P. New Microslice Technology for Hyperspectral Imaging. Remote Sens. 2013, 5, 1204-1219.
Content R, Blake S, Dunlop C, Nandi D, Sharples R, Talbot G, Shanks T, Donoghue D, Galiatsatos N, Luke P. New Microslice Technology for Hyperspectral Imaging. Remote Sensing. 2013; 5(3):1204-1219.
Content, Robert; Blake, Simon; Dunlop, Colin; Nandi, David; Sharples, Ray; Talbot, Gordon; Shanks, Tom; Donoghue, Danny; Galiatsatos, Nikolaos; Luke, Peter. 2013. "New Microslice Technology for Hyperspectral Imaging." Remote Sens. 5, no. 3: 1204-1219.