Abstract: A device, comprising a first end cap having a bullet exiting aperture. The device includes a second end cap having an automatic-firing weapon barrel connector. The device includes a tubular sleeve having a main chamber through which a bullet passes, a first end coupled to the first end cap and a second end coupled to the second end cap. The tubular sleeve comprising an insulating liner layer of material configured for sustained temperatures of 1260° C. (2300° F.). The device suppresses sound of a muzzle blast as the bullet passes through the main chamber. A weapon system and method are also provided.

Abstract: A turret system includes a base subassembly and a turret subassembly. The base subassembly includes a base housing and a first turret mounting interface coupled to the base housing. The base subassembly also includes a first antenna configured to wirelessly transmit an electrical power signal. The turret subassembly includes a turret housing and a second turret mounting interface coupled to the turret housing. The second turret mounting interface is configured to rotate with respect to the first turret mounting interface, thereby rotating the turret housing with respect to the base housing. The turret subassembly further comprises a second antenna configured to wirelessly receive the electrical power signal from the first antenna.

Abstract: A method of generating a three-dimensional physical map using different data sources includes receiving, at a computing device, topographic data, e.g., digital surface model data and/or digital elevation model data, for a geographic area and also receiving map area data, e.g., coordinates, scaling, and/or resolution data, for a subset area of the geographic area. The computing device generates map data, such as computer-readable three-dimensional (3D) printer data, based on the topographic data and the map area data, which can be used by a 3D printer or other additive manufacturing process to generate a three-dimensional physical map that depicts the topographic features of the subset area.

Abstract: An armor component having a plurality of ceramic elements, where each ceramic element is covered by a metal coating. Each metal coating covers the outer surface of only one ceramic element. The metal coating is configured to increase a dwell time for the armor component when the armor component is impacted by a projectile.

Abstract: An explosive device contains a water-reactive material that ignites upon exposure to water. The water-reactive material ignites a water-activated fuse that has a predetermined burn rate and length. The predetermined burn rate and length allows the device to sink to a desired depth before exploding. Hence, the device explodes after a desired period of time and/or at a desired depth. Defense against underwater swimmers is an advantageous feature of embodiments of the disclosure. The device can use a forty millimeter (40 mm) form factor, which permits launch of the device from convention grenade launchers.

Abstract: An explosive device contains a water-reactive material that ignites upon exposure to water. The water-reactive material ignites a water-activated fuse that has a predetermined burn rate and length. The predetermined burn rate and length allows the device to sink to a desired depth before exploding. Hence, the device explodes after a desired period of time and/or at a desired depth. Defense against underwater swimmers is an advantageous feature of embodiments of the disclosure. The device can use a forty millimeter (40 mm) form factor, which permits launch of the device from convention grenade launchers.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic elements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The armor further includes a smart component operably associated with a component of the armor. The first layer of prismatic elements is nested into the second layer of prismatic elements.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic elements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The first layer of prismatic elements is nested into the second layer of prismatic elements. An armor includes a strike face sheet, a rear face sheet, and a core disposed between the strike face sheet and the rear face sheet. The core includes a first layer of prismatic elements arranged in a tessellated fashion, a second layer of prismatic elements arranged in a tessellated fashion, and a strain isolation layer. The first layer of prismatic elements is nested into the second layer of prismatic elements with the strain isolation layer disposed between the first layer of prismatic elements and the second layer of prismatic elements.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic elements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The armor further includes a smart component operably associated with a component of the armor. The first layer of prismatic elements is nested into the second layer of prismatic elements.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic dements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The first layer of prismatic elements is nested into the second layer of prismatic elements. An armor includes a strike face sheet, a rear face sheet, and a core disposed between the strike face sheet and the rear face sheet. The core includes a first layer of prismatic elements arranged in a tessellated fashion, a second layer of prismatic elements arranged in a tessellated fashion, and a strain isolation layer. The first layer of prismatic elements is nested into the second layer of prismatic elements with the strain isolation layer disposed between the first layer of prismatic elements and the second layer of prismatic elements.

Abstract: A covert taggant dispersing grenade includes: a shell, the covert taggant disposed in the shell; a dispersal apparatus operably associated with the covert taggant to disperse the covert taggant; and a propulsion section operably associated with the shell for propelling the shell through an atmosphere. A method for dispersing a taggant includes: launching a grenade containing a taggant over a target, the taggant being invisible in the spectrum of the human eye; and covertly dispensing the taggant over the target.

Abstract: A covert taggant dispersing grenade includes: a shell, the covert taggant disposed in the shell; a dispersal apparatus operably associated with the covert taggant to disperse the covert taggant; and a propulsion section operably associated with the shell for propelling the shell through an atmosphere. A method for dispersing a taggant includes: launching a grenade containing a taggant over a target, the taggant being invisible in the spectrum of the human eye; and covertly dispensing the taggant over the target.

Abstract: A rocket-propelled grenade includes a payload section, a selectable fuzing section joined to the payload section, and a propulsion section joined to the selectable fuzing section. A rocket-propelled grenade includes a propulsion section and a payload section operably associated with the propulsion section. The payload section includes a shell, one or more penetrators disposed in the shell, and a charge for compromising the shell to deploy the one or more penetrators when the charge is initiated.

Abstract: A rocket-propelled grenade includes a payload section, a selectable fuzing section joined to the payload section, and a propulsion section joined to the selectable fuzing section. A rocket-propelled grenade includes a propulsion section and a payload section operably associated with the propulsion section. The payload section includes a shell, one or more penetrators disposed in the shell, and a charge for compromising the shell to deploy the one or more penetrators when the charge is initiated.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic elements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The first layer of prismatic elements is nested into the second layer of prismatic elements. An armor includes a strike face sheet, a rear face sheet, and a core disposed between the strike face sheet and the rear face sheet. The core includes a first layer of prismatic elements arranged in a tessellated fashion, a second layer of prismatic elements arranged in a tessellated fashion, and a strain isolation layer. The first layer of prismatic elements is nested into the second layer of prismatic elements with the strain isolation layer disposed between the first layer of prismatic elements and the second layer of prismatic elements.

Abstract: A blast resistant vehicle hull includes an enclosure and a blast channel extending between and through a lower, outer surface of the enclosure and a surface of the enclosure other than the lower, outer surface of the enclosure. A vehicle includes a blast resistant vehicle hull. The blast resistant vehicle hull includes an enclosure and a blast channel extending between and through a lower, outer surface of the enclosure and a surface of the enclosure other than the lower, outer surface of the enclosure.

Abstract: An armor includes a core that, in turn, includes a first layer of prismatic elements arranged in a tessellated fashion and a second layer of prismatic elements arranged in a tessellated fashion. The armor further includes a smart component operably associated with a component of the armor. The first layer of prismatic elements is nested into the second layer of prismatic elements.

Abstract: An armor includes a metallic matrix; a plurality of ceramic rods disposed in the metallic matrix, the plurality of ceramic rods and the metallic matrix forming a core; and a spall liner disposed adjacent a rear face of the core. The metallic matrix places a compressive stress on the plurality of ceramic rods. A method for making an armor includes the steps of providing a plurality of ceramic rods in a desired configuration and embedding the plurality of ceramic rods in a metallic matrix to form a core, such that the metallic matrix provides a compressive stress to the plurality of ceramic rods. The method further includes providing a spall liner and disposing the spall liner adjacent a rear surface of the core to form an armor.

Abstract: A vehicle hull includes a personnel compartment and an apparatus for inhibiting effects of an explosive blast operably associated with the personnel compartment. The apparatus is configured to redirect at least a portion of a blast wave resulting from an explosive blast. The apparatus defines a cavity in which a blast attenuator is disposed. The blast attenuator comprises a core defining a plurality of interconnecting pores defining a pore volume of the core, a shear thickening fluid disposed in the pore volume of the core, and an enclosure in which the core and the shear thickening fluid are disposed.

Abstract: A blast resistant vehicle hull includes an enclosure and a blast channel extending between and through a lower, outer surface of the enclosure and a surface of the enclosure other than the lower, outer surface of the enclosure. A vehicle includes a blast resistant vehicle hull. The blast resistant vehicle hull includes an enclosure and a blast channel extending between and through a lower, outer surface of the enclosure and a surface of the enclosure other than the lower, outer surface of the enclosure.