Sensor Management Fusion Using Operating Conditions

B. Kahler, Erik Blasch
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引用次数: 76

Abstract

System control includes sensor management, user refinement, and mission accomplishment (SUM). An example of simultaneous tracking and identification includes (1) mission goals of resource appropriation and goal priorities, (2) user selection of targets and areas of coverage, and (3) fusion of data and sensory information. Many sensor management (SM) approaches are data-driven which includes filtering, aggregation, and normalization; however that does not include intelligent design. A top-down approach would facilitate the use of the right sensor, collecting the needed information, at the correct time. In order to better design SM algorithms, we utilize sensor, target, environmental, and automatic target recognition performance models for automatic target exploitation (ATE) prediction. Similar to pruning nodes in a Bayes net aggregation, a sensor manager can utilize the operating conditions (OCs) {i.e. sensor, target, environment} to condition the cost function, sensor-to-target assignment constraints, and scheduling times. An example is presented of determining task value of electro-optical sensor selection and scheduling based on the range to target, target size, and environmental conditions (e.g. occlusions). The key aspect of the SMOC provides accurate assignment and scheduling based on up-to-date database information, a capabilities matrix, and pragmatic sensor use to improve task satisfaction.
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使用工况的传感器管理融合
系统控制包括传感器管理、用户细化和任务完成(SUM)。同步跟踪和识别的示例包括(1)资源分配和目标优先级的任务目标,(2)目标和覆盖区域的用户选择,以及(3)数据和感官信息的融合。许多传感器管理(SM)方法是数据驱动的,包括过滤、聚合和规范化;然而,这并不包括智能设计。自上而下的方法将有助于使用正确的传感器,在正确的时间收集所需的信息。为了更好地设计SM算法,我们利用传感器、目标、环境和自动目标识别性能模型进行自动目标开发(ATE)预测。类似于在贝叶斯网络聚合中修剪节点,传感器管理器可以利用操作条件(OCs){即。传感器,目标,环境}条件成本函数,传感器到目标分配约束,和调度时间。给出了一个基于目标距离、目标尺寸和环境条件(如遮挡)确定光电传感器选择和调度任务值的实例。SMOC的关键方面提供了基于最新数据库信息、能力矩阵和实用传感器的精确分配和调度,以提高任务满意度。
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