Abstract: A soldier-portable mixed-reality system provides centimeter-accurate positioning, electronic-warfare-hardened communications, and multi-spectral visualization without reliance on GPS or fixed infrastructure. Each head-mounted device contains a chip-scale atomic clock, isotropic time-of-flight ranging radios, a beam-steered software-defined radio, a modular sensor rail, and a see-through display. Wireless precision-time-protocol exchanges hold inter-device clock error below 0.5 ns, enabling cooperative multilateration for self-generated three-dimensional pose. An adaptive “Whisper-Mesh” waveform senses jamming, hops frequency, tight-beams at ?5° width, and transmits in <5% duty-cycle bursts for low probability of detection. Sensor fusion combines visible, infrared, and targeting data with <10 ms latency, projecting reticles and tactical icons on the visor. A vehicle gateway preserves nanosecond timing over back-haul links, and unmanned drones extend coverage through reconfigurable formations.

Abstract: The utilization of drones, mixed reality displays, novel networking techniques, advanced networking techniques (e.g., edge computing), and AI-driven data fusion and visualization. This combination of technologies is employed in tandem to provide advanced data visualization capabilities in mixed reality displays, primarily for usage between multiple devices including mixed reality displays, drones, and other systems that would support networking and data collection capabilities. These capabilities are primarily intended for usage between multiple mixed reality displays, although could be applied to robots, autonomous vehicles, guidance systems, weapon systems, and detection systems.

Abstract: Augmented reality eyewear are provided removing need to aim-down-sight while using a firearm. Eyewear have accelerometer sensors outputting a “view angle” that is compared with line of sight or “head angle” and true horizon. A camera system outputs the target distance. A firearm equipped with one or more accelerometers output a trajectory. With the firearm and goggles within an arms length proximity of one another, data points can be combined to create a full 3D spacial image of the bullet's path. Target distance determines the length of the trajectory and “termination coordinates” describing the projectile's target in space relative to the user's personal coordinate system (i.e., view angle). Relative termination coordinates can then be delivered to the goggle drivers. The termination coordinates are converted to a pixel command generating an illuminated aiming reticle that corresponds with the direction a firearm is pointing and overlaid on the target.