Publications

CLEO: Applications and Technology, CLEO_AT 2012

Schmitt, Randal L.; Glen, Crystal C.; Sickafoose, Shane S.; Shagam, Richard N.; Santarpia, Joshua S.; Brockmann, John E.; Reichardt, Thomas A.; Pack, Michael P.; Chavez, Victor; Boney, Craig M.; Servantes, B.L.

A short-standoff bistatic lidar system coupled with an aerosol chamber has been built to measure aerosol optical backscatter and laser induced fluorescence cross-sections. Preliminary results show good sensitivity across all channels with high signal-to-noise ratio. © OSA 2012.

Altman, Susan J.; Tidwell, Vincent C.; Boney, Craig M.; Ballantine, Marissa D.; Cygan, Randall T.; Ho, Clifford K.

Abstract not provided.

Schroder, Kevin L.; Boney, Craig M.; Claassen, Paul J.; Pedroncelli, Michael L.; Spooner, Jeffrey T.; Lang, Alvin R.; Magee, Glen I.; Krumel, Leslie J.; Hargis, Philip J.; Shokair, Isaac R.; Ashlock, Tad A.; Daniels, James W.; Klarkowski, James R.; Johnson, Mark S.

Abstract not provided.

Schroder, Kevin L.; Boney, Craig M.; Claassen, Paul J.; Pedroncelli, Michael L.; Spooner, Jeffrey T.; Lang, Alvin R.; Magee, Glen I.; Krumel, Leslie J.; Hargis, Philip J.; Shokair, Isaac R.; Ashlock, Tad A.; Daniels, James W.; Klarkowski, James R.; Johnson, Mark S.

Abstract not provided.

Wehlburg, Joseph C.; Spahn, Olga B.; Boney, Craig M.; Wehlburg, Joseph C.

Hadamard Transform Spectrometer (HTS) approaches share the multiplexing advantages found in Fourier transform spectrometers. Interest in Hadamard systems has been limited due to data storage/computational limitations and the inability to perform accurate high order masking in a reasonable amount of time. Advances in digital micro-mirror array (DMA) technology have opened the door to implementing an HTS for a variety of applications including fluorescent microscope imaging and Raman imaging. A Hadamard transform spectral imager (HTSI) for remote sensing offers a variety of unique capabilities in one package such as variable spectral and temporal resolution, no moving parts (other than the micro-mirrors) and vibration tolerance. Two approaches to for 2D HTS systems have been investigated in this LDRD. The first approach involves dispersing the incident light, encoding the dispersed light then recombining the light. This method is referred to as spectral encoding. The other method encodes the incident light then disperses the encoded light. The second technique is called spatial encoding. After creating optical designs for both methods the spatial encoding method was selected as the method that would be implemented because the optical design was less costly to implement.