Abstract: Embodiments use holographic projection in augmented reality to visualize a building in 3D and show, as a holographic figure, the position of personnel in the building. In some embodiments, a user can “tap” on a holographic figure to view data on that person, such as skin temperature, room temperature, heart rate, etc.

Abstract: A Computer-Aided Dispatch (CAD) system is specially configured to account for the physical condition of emergency personnel, which can affect their ability to effectively handle a particular incident. The CAD system tracks health, stress, and biometric status of each available emergency responder automatically and in real-time based on a wide range of collected information and to assess the suitability of available emergency responders to respond to a given emergency incident based upon such status information. Based on such status information, the CAD system can make intelligent recommendations to the emergency dispatcher by taking into account such things as the emergency responder's past experiences with a particular type of emergency incident, the current and cumulative status of the emergency responder, and projections as to the future condition of the emergency responder if dispatched to handle the emergency incident.

Abstract: Embodiments use holographic projection in augmented reality to visualize a building in 3D and show, as a holographic figure, the position of personnel in the building. In some embodiments, a user can “tap” on a holographic figure to view data on that person, such as skin temperature, room temperature, heart rate, etc.

Abstract: Embodiments use holographic projection in augmented reality to visualize a building in 3D and show, as a holographic figure, the position of personnel in the building. In some embodiments, a user can “tap” on a holographic figure to view data on that person, such as skin temperature, room temperature, heart rate, etc.

Abstract: A Computer-Aided Dispatch (CAD) system is specially configured to account for the physical condition of emergency personnel, which can affect their ability to effectively handle a particular incident. The CAD system tracks health, stress, and biometric status of each available emergency responder automatically and in real-time based on a wide range of collected information and to assess the suitability of available emergency responders to respond to a given emergency incident based upon such status information. Based on such status information, the CAD system can make intelligent recommendations to the emergency dispatcher by taking into account such things as the emergency responder's past experiences with a particular type of emergency incident, the current and cumulative status of the emergency responder, and projections as to the future condition of the emergency responder if dispatched to handle the emergency incident.

Abstract: A Computer-Aided Dispatch (CAD) system is specially configured to account for the physical condition of emergency personnel, which can affect their ability to effectively handle a particular incident. The CAD system tracks health, stress, and biometric status of each available emergency responder automatically and in real-time based on a wide range of collected information and to assess the suitability of available emergency responders to respond to a given emergency incident based upon such status information. Based on such status information, the CAD system can make intelligent recommendations to the emergency dispatcher by taking into account such things as the emergency responder's past experiences with a particular type of emergency incident, the current and cumulative status of the emergency responder, and projections as to the future condition of the emergency responder if dispatched to handle the emergency incident.

Abstract: Embodiments use holographic projection in augmented reality to visualize a building in 3D and show, as a holographic figure, the position of personnel in the building. In some embodiments, a user can “tap” on a holographic figure to view data on that person, such as skin temperature, room temperature, heart rate, etc.

Abstract: A Computer-Aided Dispatch (CAD) system is specially configured to account for the physical condition of emergency personnel, which can affect their ability to effectively handle a particular incident. The CAD system tracks health, stress, and biometric status of each available emergency responder automatically and in real-time based on a wide range of collected information and to assess the suitability of available emergency responders to respond to a given emergency incident based upon such status information. Based on such status information, the CAD system can make intelligent recommendations to the emergency dispatcher by taking into account such things as the emergency responder's past experiences with a particular type of emergency incident, the current and cumulative status of the emergency responder, and projections as to the future condition of the emergency responder if dispatched to handle the emergency incident.

Abstract: A platform and launch initiation control system for secondary spacecraft for a launch vehicle includes an aluminum honeycomb core sandwiched between top and bottom structural aluminum skins and strengthened by a spider-like stiffener. Spool inserts for engaging the secondary spacecraft are arranged on the platform. A computer processor based auxiliary payload support unit (APSU) is provided on the platform and receives power and enable signals through a single cable from the LV to permit the APSU to control the release of the secondary spacecraft transparently to the LV without impacting LV operations.

Abstract: A platform and launch initiation control system for secondary spacecraft for a launch vehicle includes an aluminum honeycomb core sandwiched between top and bottom structural aluminum skins and strengthened by a spider-like stiffener. Spool inserts for engaging the secondary spacecraft are arranged on the platform. A computer processor based auxiliary payload support unit (APSU) is provided on the platform and receives power and enable signals through a single cable from the LV to permit the APSU to control the release of the secondary spacecraft transparently to the LV without impacting LV operations.

Abstract: A platform and launch initiation control system for secondary spacecraft for a launch vehicle includes an aluminum honeycomb core sandwiched between top and bottom structural aluminum skins and strengthened by a spider-like stiffener. Spool inserts for engaging the secondary spacecraft are arranged on the platform. A computer processor based auxiliary payload support unit (APSU) is provided on the platform and receives power and enable signals through a single cable from the LV to permit the APSU to control the release of the secondary spacecraft transparently to the LV without impacting LV operations.

Abstract: A plastic box includes a top and a tray that may be locked together. The top has two open sides to save material. The top can have drain holes along its edges, and the tray likewise has drain holes along its edges, so that when the tray of one container is stacked on the top of another container, water in the top container can drain down and through the bottom container.

Abstract: Methods, systems, and computer program products for acquiring three-dimensional range information are disclosed. According to one aspect, acquiring three-dimensional range information of a scene includes obtaining multiple pixel-shifted images of a scene, where at least one of the images being shifted by a non-integer pixel value with respect to another of the images, Obtaining each of the pixel-shifted images includes generating electromagnetic radiation that is reflected from target objects in the scene about which range information is desired. The reflected electromagnetic radiation is collected using a sensor array of at least two dimensions, where an array of pixels is captured simultaneously.

Abstract: Method, computer program product, and apparatus for displaying a 2D image data set combined with a 3D range data set. A 3D range data set and at least one 2D image data set which differs from the 3D range data set in resolution, origin, or both, are provided. The 3D range data set is represented as a first displayed image while each 2D image data set is represented as at least a second displayed image. Corresponding features are identified within each displayed image. 3D transformation is computed between the 3D range data set and at least one 2D image data set using the specified corresponding features to establish geometric correspondence. At least one 2D image data set is represented as a third displayed image, wherein a 3D coordinate can be computed for any specified pixel of each 2D image data set using the 3D transformation and 3D range data set.

Abstract: A plastic box includes at least one joint between adjacent panels that is held together by a butterfly element on one panel engaging an opening in the other panel.

Abstract: A method, computer program product, and apparatus for obtaining the geometric correspondence between at least two 3D range data sets obtained using a 3D rangefinder device. First and second 3D range data sets are provided. The first 3D range data set is displayed as a 2D displayed image. The second 3D range data set is displayed as one of a second 2D displayed image and a 3D displayed image. Corresponding features within the first 2D displayed image and within the second displayed image are respectively specified. A 3D transformation between the first 3D range data set and the second 3D range data set is computed based on the geometry of the specified corresponding features. As such, that the geometric correspondence between the two 3D range data sets may be determined.

Abstract: A method, computer program product, and apparatus for making and displaying measurements based upon multiple 3D range data sets obtained using a 3D rangefinder device. At least a first and a second 3D range data sets are provided. A 3D transformation is computed therebetween. The first 3D range data set is represented as a first displayed image and the second 3D range data set is represented as a second displayed image. At least two features are identified within the first and second displayed images respectively. A measurement is computed based on at least the first feature and the second feature utilizing the 3D transformation between the first and second 3D range data sets. The computed measurement may be displayed within at least one of the first displayed image and the second displayed image.

Abstract: A method, computer program product, and apparatus for displaying a calculated geometric entity within at least one 3D range data set obtained using a 3D rangefinder device. At least a first 3D range data set is provided. Each 3D range data set is displayed as at least one displayed image. A calculated geometric entity selected from the group consisting of a vector, a surface, and a volume, is specified. The calculated geometric entity may be displayed merged within at least one displayed image.

Abstract: A method, computer program product, and apparatus for specifying, making, and displaying measurements within a 3D range data set obtained using a 3D rangefinder device. A 3D range data set is provided and represented as a first 2D displayed image and a second displayed image. The second displayed image is selected from the group consisting of a second 2D displayed image and a 3D displayed image. At least one feature is identified in the first 2D displayed image and the second displayed image, such that a measurement can be computed based on the identified features. The computed measurement is displayed in at least one of the first 2D displayed image and the second displayed image.

Abstract: A protective device 104 for hoofed animals fabricated of a durable and flexible material. The protective device 104 includes a base 106 and a wall 108, with the wall designed to enclose a hoof 100 of an animal such as a horse or cow. The protective device 104 includes a mechanism for size adjustment 216 such as a sizing opening 214 in combination with a plurality of tread grooves 304, which assists in the adjustment of the size and shape of the hoof to fit a variety of hoofs. The protective device 104 preferably includes a shear-relief portion 302 formed such that the front of a hoof has minimal contact with the device 104. Ease of installation, decreased impact, and improved traction are all benefits provided by the protective device 104 disclosed.