This paper investigates the linear separation requirements for Angle-of-Arrival (AoA) and range sensors, in order to achieve the optimal performance in estimating the position of a target from multiple and typically noisy sensor measurements. We analyse the sensor-target geometry in terms of the Cramer–Rao inequality and the corresponding Fisher information matrix, in order to characterize localization performance with respect to the linear spatial distribution of sensors. Here in this paper, we consider both fixed and adjustable linear sensor arrays
Information from a passive linear array sensor is related to the conic angle formed by a target and ...
In this paper we characterize the relative sensor-target geom-etry in R2 in terms of potential local...
This paper analytically characterizes optimal sensor placements for target localization and tracking...
In this paper, we examine the optimal linear separation requirements for AoA sensors, in order to ac...
This paper investigates the linear separation requirements for range sensors in order to achieve the...
The problem of target localization involves estimating the position of a target from multiple noisy ...
In this paper we characterize the bounds on localization accuracy in signal strength based localizat...
Source localization plays a key role in many applications including radar, wireless and underwater c...
In this paper we characterize the relative sensor-target geometry in R2 in terms of potential locali...
The performance of a commonly employed linear array of sonar sensors is assessed for point- target l...
peer reviewedThis paper focuses on optimal time-of-arrival (TOA) sensor placement for multiple targe...
peer reviewedThis paper focuses on optimal time-of-arrival (TOA) sensor placement for multiple targe...
This paper analytically characterizes optimal sensor placements for target localization and tracking...
International audienceThe goal of passive source localization is to acoustically detect objects prod...
In this paper we characterize the relative sensor-target geometry for bearing-only localization in R...
Information from a passive linear array sensor is related to the conic angle formed by a target and ...
In this paper we characterize the relative sensor-target geom-etry in R2 in terms of potential local...
This paper analytically characterizes optimal sensor placements for target localization and tracking...
In this paper, we examine the optimal linear separation requirements for AoA sensors, in order to ac...
This paper investigates the linear separation requirements for range sensors in order to achieve the...
The problem of target localization involves estimating the position of a target from multiple noisy ...
In this paper we characterize the bounds on localization accuracy in signal strength based localizat...
Source localization plays a key role in many applications including radar, wireless and underwater c...
In this paper we characterize the relative sensor-target geometry in R2 in terms of potential locali...
The performance of a commonly employed linear array of sonar sensors is assessed for point- target l...
peer reviewedThis paper focuses on optimal time-of-arrival (TOA) sensor placement for multiple targe...
peer reviewedThis paper focuses on optimal time-of-arrival (TOA) sensor placement for multiple targe...
This paper analytically characterizes optimal sensor placements for target localization and tracking...
International audienceThe goal of passive source localization is to acoustically detect objects prod...
In this paper we characterize the relative sensor-target geometry for bearing-only localization in R...
Information from a passive linear array sensor is related to the conic angle formed by a target and ...
In this paper we characterize the relative sensor-target geom-etry in R2 in terms of potential local...
This paper analytically characterizes optimal sensor placements for target localization and tracking...