TARGETING AND INTELLIGENCE ELECTROOPTICAL RECOGNITION MODELING - A JUXTAPOSITION OF THE PROBABILITIES OF DISCRIMINATION AND THE GENERAL IMAGE QUALITY EQUATION
Rg. Driggers et al., TARGETING AND INTELLIGENCE ELECTROOPTICAL RECOGNITION MODELING - A JUXTAPOSITION OF THE PROBABILITIES OF DISCRIMINATION AND THE GENERAL IMAGE QUALITY EQUATION, Optical engineering, 37(3), 1998, pp. 789-797
The recognition of objects using target acquisition systems is modeled
by a sensor's minimum resolvable temperature (MRT), the Johnson crite
ria, atmospherics, and object specifics. Collectively, these three cha
racteristics provide an acquisition model for estimating the probabili
ty of object recognition (and detection, identification) as a function
of sensor-to-object range. This technique is called the probabilities
of discrimination. When quantifying the performance of intelligence-s
urveillance-reconnaissance (ISR) systems, object recognition is assess
ed using the National Imagery Interpretability Scale (NIIRS). Each NII
RS level corresponds to a different capacity for object recognition an
d is defined by a set of recognition criteria. The general image quali
ty equation (GIQE) is the ISR sensor model that determines the expecte
d NIIRS level of a sensor for a given set of sensor parameters. It is
important that electro-optical sensor engineers understand both of the
se recognition models. The segregation between the target acquisition
and ISR sensor communities is becoming less sharp as ISR sensors are b
eginning to be used for target acquisition purposes and visa versa. Ne
twork and wireless communication advances are providing the means for
dual exploitation of these systems. Descriptions of these two recognit
ion models, probabilities of discrimination, and the GIQE are provided
. The two models are applied to example systems. Finally, the two mode
ls are compared and contrasted. (C) 1998 Society of Photo-Optical Inst
rumentation Engineers.[S0091-3286(98)00503-0].