Abstract: A tracking system includes a host station and a sensor station. The sensor station includes transmitters transmitting an IR synchronous signal and IR laser signal. The system includes a head-mounted display and a tracked object, which has a plurality of object sensors. The tracked object determines its location and orientation relative to the sensor station based on the IR signals. The tracked object transmits the location and orientation to the host station. The host station determines an actual flight path of the tracked object during an object tracking event; generates a predicted flight path of the tracked object; and renders an image of a virtual object on a display of the head-mounted display. The image includes a virtual object corresponding to the tracked object, wherein the image is rendered in a VR environment such that the virtual object moves along the actual flight path and the predicted flight path.

Abstract: A tracking system includes a host station and a sensor station. The sensor station includes transmitters transmitting an IR synchronous signal and IR laser signal. The system includes a head-mounted display and a tracked object, which has a plurality of object sensors. The tracked object determines its location and orientation relative to the sensor station based on the IR signals. The tracked object transmits the location and orientation to the host station. The host station determines an actual flight path of the tracked object during an object tracking event; generates a predicted flight path of the tracked object; and renders an image of a virtual object on a display of the head-mounted display. The image includes a virtual object corresponding to the tracked object, wherein the image is rendered in a VR environment such that the virtual object moves along the actual flight path and the predicted flight path.

Abstract: A tracking system includes a host station and a sensor station. The sensor station includes transmitters transmitting an IR synchronous signal and IR laser signal. The system includes a head-mounted display and a tracked object, which has a plurality of object sensors. The tracked object determines its location and orientation relative to the sensor station based on the IR signals. The tracked object transmits the location and orientation to the host station. The host station determines an actual flight path of the tracked object during an object tracking event; generates a predicted flight path of the tracked object; and renders an image of a virtual object on a display of the head-mounted display. The image includes a virtual object corresponding to the tracked object, wherein the image is rendered in a VR environment such that the virtual object moves along the actual flight path and the predicted flight path.

Abstract: A tracking system includes a host station and a sensor station. The sensor station includes transmitters transmitting an IR synchronous signal and IR laser signal. The system includes a head-mounted display and a tracked object, which has a plurality of object sensors. The tracked object determines its location and orientation relative to the sensor station based on the IR signals. The tracked object transmits the location and orientation to the host station. The host station determines an actual flight path of the tracked object during an object tracking event; generates a predicted flight path of the tracked object; and renders an image of a virtual object on a display of the head-mounted display. The image includes a virtual object corresponding to the tracked object, wherein the image is rendered in a VR environment such that the virtual object moves along the actual flight path and the predicted flight path.

Abstract: Systems, methods and apparatus for associating a clinical parameter with one or more candidate chromosomal regions in the human genome are provided. An index founder population is identified in a test population based upon the genotype X of each member of the test population such that the posterior probability Pr(K|X) for the index founder population is greater for K=1 than any other integer K, where K is the number of subpopulations in the index founder population. The clinical parameter is measured for each respective member of the index founder population. Then a quantitative phenotypic analysis is performed between (i) the genotype X of each respective member of the index founder population and (ii) the clinical parameter thereby identifying one or more candidate chromosomal regions in the human genome that associate with the clinical parameter.