Abstract: Selectively mobile system and method detect and locate information to determine repair or replacement needs for bridge and roadway infrastructure by detection of subsurface defects. Multiple sensors collect data to be fused include 1) Visual capture device or devices [16] aboard a mobile carrier [10] capture visual spectrum in either HD or regular video and/or as still frame camera images; 2) Infrared spectrum sensors [18] aboard the mobile carrier capture video or still frame images; 3) Global positioning sensors (GPS) [12] aboard the mobile carrier determine position; 4) Light detection and ranging system (LIDAR) aboard the mobile carrier gives precise locations. Further, 5) ground penetrating microwave radar (GPR) sensors carried by a vehicle [22] and related electronics determine depth of subsurface defects. The sensor systems supply data to a digital processor [40] having analysis and graphical information system (GIS) software [44] that fuses the data and presents it for delivery and use.

Abstract: Selectively mobile system and method detect and locate information to determine repair or replacement needs for bridge and roadway infrastructure by detection of subsurface defects. Multiple sensors collect data to be fused include 1) Visual capture device or devices (16) aboard a mobile carrier (10) capture visual spectrum in either HD or regular video and/or as still frame camera images; 2) Infrared spectrum sensors (18) aboard the mobile carrier capture video or still frame images; 3) Global positioning sensors (GPS) (12) aboard the mobile carrier determine position; 4) Light detection and ranging system (LIDAR) aboard the mobile carrier gives precise locations. Further, 5) ground penetrating microwave radar (GPR) sensors carried by a vehicle (22) and related electronics determine depth of subsurface defects. The sensor systems supply data to a digital processor (40) having analysis and graphical information system (GIS) software (44) that fuses the data and presents it for delivery and use.

Abstract: Methodology, systems, and apparatus for remote sensing as by detection and mapping of subsurface artifacts including clandestine tunnels and other subterranean facilities that may carry enemy soldiers, terrorists, weapons, munitions and explosives and other material of war or terrorism by use of visual and thermal imagery, specifically including the use of infrared (IR) thermography and related analysis, including visual imagery and its analysis including correlation between IR thermography data, visual data and other information which can be taken into consideration in relation to IR thermography data and visual data. Various types of data enhancements may be used to assist in target detection.

Abstract: Methodology, systems, and apparatus for remote sensing as by detection and mapping of subsurface artifacts including clandestine tunnels and other subterranean facilities that may carry enemy soldiers, terrorists, weapons, munitions and explosives and other material of war or terrorism by use of visual and thermal imagery, specifically including the use of infrared (IR) thermography and related analysis, including visual imagery and its analysis including correlation between IR thermography data, visual data and other information which can be taken into consideration in relation to IR thermography data and visual data. Various types of data enhancements may be used to assist in target detection.

Abstract: Method and system to identify, verify and remediate subterranean anomalies. Infrared (IR) thermographic scanning [10] of a selected surface area obtains image area data [12, 14] inferring such an anomaly. Ground penetrating radar (GPR) is used [22] at predetermined surface locations penetrates subterraneously to a depth including the anomaly, creating vertical dimension radar data [120] showing anomaly depth. Surface image IR data is correlated with GPR data to verify the anomaly and its vertical dimension and finds [124] a central location in the anomaly. Anomaly volume is predetermined from the area data and vertical-dimension data. Grout injected [26, 124] into the central location at first pressure secures the anomaly by surrounding the central location. After verifying centrally securement, more grout is injected [32, 126] into the anomaly region at second pressure at least as great as the first pressure until the total grout injected approximates the predetermined anomaly volume.

Abstract: A method for identifying a protein antigen to a target fungus is disclosed. The method comprises screening expressed proteins from a cDNA gene expression library with antisera to the target fungus and cross-screening with antisera to a nontarget fungus. Antibodies to the protein antigen are also disclosed. Methods for detecting the presence or absence of the antibodies or of the protein antigen are also disclosed, as well as kits for performing such assays. In preferred embodiments, the target fungus is H. capsulatum.

Abstract: A selectively mobile system with an infrared scanner and video camera having a common area of focus and apparatus for detecting location permits detection of subterranean geological anomalies. Infrared and visual images are simultaneously successively recorded on videotape together with related location data and other relevant information. Video recorded infrared, video and location data are selectively captured on successive frames. Such frames are recorded for further analysis.

Abstract: Novel hybrid cell lines are disclosed for providing monoclonal antibodies to circulating parasite antigens present in the blood of animals infected with the nematode parasite Dirofilaria immitis. Such circulating parasite antigens are also characterized and identified. Further disclosed are methods employed to produce and select such hybrid cell lines and diagnostically useful assay methods utilizing the monoclonal antibodies in the detection of such specific circulating parasite antigens in blood or bodily fluids.