DISTRIBUTED SENSOR NETWORK WITH A COMMON PROCESSING PLATFORM FOR CBMRNE DEVICES AND NOVEL APPLICATIONS

• US 20080125976A1
• Filed: 09/10/2007
• Published: 05/29/2008
• Est. Priority Date: 11/29/2006
• Status: Active Grant

• Current Assignee: EMR Resources, LLC
• Original Assignee: Innovative American Technology, Inc.
• Inventors: FRANK, DAVID L.
• Granted Patent: US 7,668,681 B2
• Time in Patent Office: Days
• US Class Current: 702/19
• CPC Class Codes: G01T 7/00 Details of radiation-measuring instruments

Abstract

An integrated chemical, biological, metals, radiation, nuclear, explosives sensor system I-CBMRNE deployed on a common platform supports chemical, biological, metals, radiation, nuclear, explosives (CBMRNE) surveillance systems. The common platform provides a database for collected sensor and video data, spectral analysis for sensor data, pattern recognition systems, data analysis and communications. An I-CBMRNE sensor system provides modular sensor interfaces to enable integration of any commercial off the shelf or proprietary sensor, and provides for ease of integration for new sensor technologies as they emerge. An I-CBMRNE sensor system provides critical functions for sensor support enabling accurate calibrated data to be presented for analysis.

Claims

1. An integrated chemical, biological, metals, radiation, nuclear, and explosives (CBMRNE) materials detection and identification system, comprising:

a plurality of sensors, comprising;

one or more chemical detection sensors,

one or more chemical identification sensors,

one or more biological detection sensors,

one or more biological identification sensors,

one or more radiation detection sensors,

one or more radiation identification sensors,

one or more nuclear detection sensors,

one or more nuclear identification sensors,

one or more explosives detection sensors, and

one or more explosives identification sensors;

a digital data collection system and communications system, communicatively coupled with the detection and identification sensors, for transfer of the collected radiation data to an analysis system; and

a spectral analysis system, communicatively coupled with the digital data collection system and communications system, to analyze sensor data provided by the plurality of sensors to identify the specific, chemical and biological materials or isotopes present; and

an information processing system, communicatively coupled with the spectral analysis system, that analyzes the chemical, biological, explosives, or isotopes found to identify if the materials are hazardous and the possible materials or goods that they represent; and

a centralized database for analysis of event data, statistics, patterns, forensic analysis and projections.

2. The system of claim 1, wherein a sensor integration unit is deployed as a network edge device to allow sensor connection from the plurality of sensors to a communication network.

3. The system of claim 1, further comprising an interface to a manifest, communicatively coupled with the information processing system, to compare the findings to determine if there are hazardous materials concealed within packages or containers.

4. The system of claim 1, including a sensor integration unit for communicatively coupling the digital data collection system and communications system with one or more of the plurality of sensors.

5. The system of claim 4, wherein the sensor integration unit provides automated calibration, automated gain control, and automated calibration verification support functions for the one or more of the plurality of sensors.

6. The system of claim 1, further comprising means for detection, identification, and quantification of metals, chemicals, and biological materials within a water sample, the means being comprised of;

a laser induced breakdown spectrometry (LIBS) sensor;

a water sample delivery device using a raised platform in a water container where the water sample is introduced into the water container at a water level above the platform and then lowered to provide a water sample residue on the platform for LIBS analysis;

a means for cleaning the water sample platform by raising the water level in the water container and flushing the sample from the platform, and;

a signal processor and central processor for analyzing the LIBS sensor data corresponding to the water sample and providing associated LIBS digital data;

a communications device, communicatively coupled with the signal processor and central processor, to couple the LIBS digital data to a communications network;

an individual TCP/IP address associated with the LIBS sensor on the communications network; and

a remote monitoring facility, communicatively coupled with the communications network, to further analyze LIBS data from the LIBS sensor on the communications network to produce alarms, and response protocols.

7. The system of claim 1, wherein the spectral analysis system further for differentiating between gamma pulses and neutron pulses, by:

receiving a signal from an output of a neutron detector;

analyzing a pulse shape of the signal, differentiating the pulse shape between gamma pulses and neutron pulses; and

determining that the pulse shape of the signal is one of a gamma pulse and a neutron pulse.

8. The system of claim 1, wherein a sensor interface unit is deployed as a network edge device to allow sensor connection from the plurality of sensors to a communication network, the sensor integration unit further for using naturally occurring background radiation as a comparison source for auto calibration of the sensor integration unit being communicatively coupled with one or more radiation sensors.

9. A method of differentiating between gamma pulses and neutron pulses, comprising:

receiving a signal from an output of a neutron detector;

analyzing a pulse shape of the signal, differentiating the pulse shape between gamma pulses and neutron pulses; and

determining that the pulse shape of the signal is one of a gamma pulse and a neutron pulse.

10. A method of using naturally occurring background radiation as a comparison source for auto calibration of a sensor integration unit communicatively coupled with one or more radiation sensors.