A shelter system having an erecting frame system and a protective skin system. The erecting frame system has at least two A-frame legs and at least one tensioning element. The A-frame legs each comprise at least one elongated structural member, each of the A-frame legs coalescing with at least one other A-frame leg with at least one connection. The tensioning element is at least temporarily affixed to a free end of each of the at least two A-frame legs, and comprises at least one elongated structural element capable of generating a tension force to draw the free ends of the A-frame legs towards one another, thereby at least temporarily lifting the connection to a predetermined height above the free end of each A-frame leg. A protective skin system is also provided with at least one side plane, one roof plane, and one end plane. The side plane is disposed between two A-frame legs; the roof plane is concordant with the ground surface; and the end plane is disposed between two A-frame legs of a constituent A-frame leg pair and a ground surface. The planar element of the protective skin system provides at least a partial barrier from a ballistic threat to a volume behind the planar element, the loading of the protective skin system being transferred at least in part first to the erecting frame system and ultimately to the ground surface.

A shelter system having an erecting frame system and a protective skin system. The erecting frame system has at least two A-frame legs and at least one tensioning element. The A-frame legs each comprise at least one elongated structural member, each of the A-frame legs coalescing with at least one other A-frame leg with at least one connection. The tensioning element is at least temporarily affixed to a free end of each of the at least two A-frame legs, and comprises at least one elongated structural element capable of generating a tension force to draw the free ends of the A-frame legs towards one another, thereby at least temporarily lifting the connection to a predetermined height above the free end of each A-frame leg. A protective skin system is also provided with at least one side plane, one roof plane, and one end plane. The side plane is disposed between two A-frame legs; the roof plane is concordant with the ground surface; and the end plane is disposed between two A-frame legs of a constituent A-frame leg pair and a ground surface. The planar element of the protective skin system provides at least a partial barrier from a ballistic threat to a volume behind the planar element, the loading of the protective skin system being transferred at least in part first to the erecting frame system and ultimately to the ground surface.

A security monitoring system and device comprising a turret apparatus or device configured for embedded placement into a position below the ground surface near a location or a perimeter of a location the device or system of the device is intended to monitor. The singular device is most generally provided in an assembly that can be considered modular, wherein the device is provided in a complete assembly that can be placed into a ground surface or structure for monitoring an area surrounding the device. Accordingly, the device comprises a silo defining an interior space, a movable platform and actuator, a camera, an actuator, a defense mechanism, a shielded dome, and a control system.

A security monitoring system and device comprising a turret apparatus or device configured for embedded placement into a position below the ground surface near a location or a perimeter of a location the device or system of the device is intended to monitor. The singular device is most generally provided in an assembly that can be considered modular, wherein the device is provided in a complete assembly that can be placed into a ground surface or structure for monitoring an area surrounding the device. Accordingly, the device comprises a silo defining an interior space, a movable platform and actuator, a camera, an actuator, a defense mechanism, a shielded dome, and a control system.

Various embodiments include bullet-resistant multilayered curtain that can be quickly deployed to secure an entranceway from attackers and deter them from entering. A bullet-resistant multilayered curtain may be contained above an entranceway in a casing and supported by a quick release pin when in the stored configuration. The bullet-resistant curtain includes multiple horizontal bars that are distributed along the length of the bullet-resistant curtain. Firmly fixed on the perimeter of the entranceway are horizontal bar retainer clamps for locking the horizontal bars into place when the bullet-resistant curtain is in its deployed state. A vibration sensor control switch may be fixed on the perimeter of the entranceway and configured to activate vibration sensors fixed on the bullet-resistant curtain to detect vibrations and send notifications to remote authorities.

Various embodiments include bullet-resistant multilayered curtain that can be quickly deployed to secure an entranceway from attackers and deter them from entering. A bullet-resistant multilayered curtain may be contained above an entranceway in a casing and supported by a quick release pin when in the stored configuration. The bullet-resistant curtain includes multiple horizontal bars that are distributed along the length of the bullet-resistant curtain. Firmly fixed on the perimeter of the entranceway are horizontal bar retainer clamps for locking the horizontal bars into place when the bullet-resistant curtain is in its deployed state. A vibration sensor control switch may be fixed on the perimeter of the entranceway and configured to activate vibration sensors fixed on the bullet-resistant curtain to detect vibrations and send notifications to remote authorities.

A bullet resistant security fence resists impacts from objects, such as vehicles, impacting the fence. A configuration of a bullet resistance security fence can be rapidly assembled and deployed as a riot fence that can be disassembled and subsequently repositioned. The riot fence is stabilized by securement devices that pull adjacent ballistic panels toward intermediate support posts and by adjustably positionable stabilizers that can engage the ground surface in front and in rear of the riot fence, even if mounted on steps. Alternative security fence configurations provide more economical manufacturing and installation by having a ballistic panel between thin front and rear shells. The ballistic panel can be formed of aluminum plate or from multiple layers of ballistic fabric. A ballistic panel can be formed from strips of aluminum plate welded together to form seams that are covered by lathe formed from aluminum plate to maintain ballistic integrity.

A bullet resistant security fence resists impacts from objects, such as vehicles, impacting the fence. A configuration of a bullet resistance security fence can be rapidly assembled and deployed as a riot fence that can be disassembled and subsequently repositioned. The riot fence is stabilized by securement devices that pull adjacent ballistic panels toward intermediate support posts and by adjustably positionable stabilizers that can engage the ground surface in front and in rear of the riot fence, even if mounted on steps. Alternative security fence configurations provide more economical manufacturing and installation by having a ballistic panel between thin front and rear shells. The ballistic panel can be formed of aluminum plate or from multiple layers of ballistic fabric. A ballistic panel can be formed from strips of aluminum plate welded together to form seams that are covered by lathe formed from aluminum plate to maintain ballistic integrity.

A bullet resistant wall system including ballistic paver blocks constructed, configured, and arranged to form a wall having at least two adjacent individual layers. The at least two adjacent individual layers include multiple adjacent rows of the ballistic paver blocks. The ballistic paver blocks are formed from wet ballistic concrete prepared without an addition of a preformed foam or wet ballistic concrete prepared without an addition of a stabilizing agent.

A bullet resistant wall system including ballistic paver blocks constructed, configured, and arranged to form a wall having at least two adjacent individual layers. The at least two adjacent individual layers include multiple adjacent rows of the ballistic paver blocks. The ballistic paver blocks are formed from wet ballistic concrete prepared without an addition of a preformed foam or wet ballistic concrete prepared without an addition of a stabilizing agent.