TY - GEN
T1 - Digitization of the battlefield using unattended ground sensors
AU - Swanson, David C.
PY - 1996/1/1
Y1 - 1996/1/1
N2 - Recent research in unattended ground sensor (UGS) systems has established the basis for significant advances in determining the local conditions in a tactical battlefield environment. In particular, new technology allows the creation of `throw-away' sensors which can be placed in a battlefield environment and are capable of self-location (via low cost global positioning satellite system technology), self-calibration using a portfolio of sensors to monitor the local environment, and inter-sensor site communications, e.g. via low level commercially available ethernet spread spectrum transceivers and peer-to-peer networking. At the Penn State University Applied Research Laboratory, such a capability has been developed and demonstrated at the breadboard level. Each node of a multi-node system involves a suite of sensors for acoustic/seismic target identification, sound propagation monitoring (depends greatly on weather conditions), barometric pressure, relative humidity, air temperature vertical gradient, wind, soil temperature, moisture, salinity, dielectric constant, and resistance. A small network of UGS nodes can be distributed widely in an array for non-line-of-sight target identification and tracking as well as real time characterization of the battlefield environment. This paper briefly describes the UGS implementation and unclassified experimental results showing a significant impact of the changing environment of acoustic detection.
AB - Recent research in unattended ground sensor (UGS) systems has established the basis for significant advances in determining the local conditions in a tactical battlefield environment. In particular, new technology allows the creation of `throw-away' sensors which can be placed in a battlefield environment and are capable of self-location (via low cost global positioning satellite system technology), self-calibration using a portfolio of sensors to monitor the local environment, and inter-sensor site communications, e.g. via low level commercially available ethernet spread spectrum transceivers and peer-to-peer networking. At the Penn State University Applied Research Laboratory, such a capability has been developed and demonstrated at the breadboard level. Each node of a multi-node system involves a suite of sensors for acoustic/seismic target identification, sound propagation monitoring (depends greatly on weather conditions), barometric pressure, relative humidity, air temperature vertical gradient, wind, soil temperature, moisture, salinity, dielectric constant, and resistance. A small network of UGS nodes can be distributed widely in an array for non-line-of-sight target identification and tracking as well as real time characterization of the battlefield environment. This paper briefly describes the UGS implementation and unclassified experimental results showing a significant impact of the changing environment of acoustic detection.
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M3 - Conference contribution
AN - SCOPUS:0029771920
SN - 0819421456
SN - 9780819421456
T3 - Proceedings of SPIE - The International Society for Optical Engineering
SP - 165
EP - 170
BT - Proceedings of SPIE - The International Society for Optical Engineering
A2 - Suresh, Raja
A2 - Langford, William
T2 - Digitization of the Battlefield
Y2 - 10 April 1996 through 11 April 1996
ER -