Abstract:
An unmanned, real-time, printed material generation and dispersal system includes a standardized shipping container houses at least one printing module capable of generating printed materials, a controller module for controlling the generation of the printed materials and monitoring status of the printing module, a communications module for communicating with the printing module and transmitting the status to a remote location, and a dispenser for receiving the printed materials so-generated and expelling them from the shipping container.
Abstract:
An unmanned system is provided for the delivery and control of an operational payload. A standardized shipping container houses the operational payload. Mounted in the shipping container are a controller for controlling functions of the operational payload and a communication module providing for communication with the operational payload via the controller.
Abstract:
An unmanned product dispensing system includes a standardized shipping container having at least one product module mounted therein, a controller module for controlling distribution of the products from the product module and monitoring status thereof, a communications module for communicating with the product module and transmitting the status to a remote location, and a dispenser for receiving and expelling the products so-distributed under the control of the controller module.
Abstract:
An unmanned system is provided for the handling and delivery of a plurality of operational payloads. Each of a plurality of standardized shipping containers houses an operational payload, a controller that controls functions of the operational payload, and communication means that communicates with the controller. A structure is provided for supporting the shipping containers in a fixed relationship to one another so that the shipping containers can be handled and transported collectively by moving the structure. The structure is equipped with means to facilitate data transfer with each shipping container's controller.
Abstract:
An inflatable barrier system halts an approaching boat. A barrier support platform houses a pressurized gas source and a power supply and has a winch connected to a pair of cables. An inflatable barrier body member having a bow and stern is coupled to the pressurized gas source for inflation of the body member and the cables are connected to the bow and stern to deploy the inflated body member at the surface of the water and to maintain the bow above the surface and the stern below the surface of the water. A barrier controller provides signals indicative of the approaching boat to initiate the inflation of the inflatable barrier body member and the deployment of the inflated barrier body member at the surface with the bow above the surface and the stern below the surface without inflicting excessive damage to the boat or injury to its occupants.
Abstract:
A system is provided for slowing the speed of a product released into the air from an aircraft. A flexible material wrapped about a product includes a tethered portion thereof that is collapsible against the product prior to release thereof from the aircraft. The tethered portion expands to form an air drag device after the product is released from the aircraft.
Abstract:
A system for in-air deployment of objects utilizes an aircraft having a hatch that can be opened while the aircraft is in mid-flight. An air and pressure tight container stowed within the aircraft has a doorway that is sealed to and about the hatch from within the aircraft. Mounted within the container is an expulsion system for expelling objects from the container through its doorway and the aircraft's hatch. The container may be coupled and sealed to other containers to define a contiguous volume for storing the objects and allowing movement of the objects between containers.
Abstract:
A common payload rail externally supports a submerged payload from an unmanned marine vehicle. A vehicle interface module has a conforming surface rigidly secured to the unmanned vehicle and feed-through conduits. A functionality module is secured to the vehicle interface module and contains internal interfacing components to minimize or eliminate any modifications to the payload and vehicle. A payload interface module having feed-through conduits is secured to the functionality module and has longitudinally extending rail structures sized to engage correspondingly shaped longitudinally extending receiving means on the payload. The longitudinally extending rail structures are shaped to extend into longitudinally extending receiving means on the payload to arrest lateral displacement between the payload interface module and the payload and at least one securing mechanism on the payload interface module is disposed to engage the payload to arrest longitudinal displacement between the payload interface module and the payload.
Abstract:
A mine clearing device comprises a substantially hollow body forming a cavity. An eccentric ballast is disposed within the cavity and is rotated by a motor powered by an internal power source, thereby imparting rotational motion to the device. A plurality of anti-axial projections of varying lengths and sizes are mounted on the outer surface of the body to interact with the terrain and, thus, impart unbiased motion to the body as it rotates and traverses a mine field. The outer surface of the body is made of blast resistant material. A shock absorbent material, disposed within the cavity, absorbs the explosive force of mines. Circuitry or a marker substance may be used to record or mark the path traveled by the device.
Abstract:
Launch and recovery of an aerial vehicle by a forwardly moving surface vehicle relies on a winch module having a winch to selectively reel out and reel in a towline and a sensor capable of sensing tension in the towline. A lifting body assembly having a pair of lifting bodies and a snagging wire is connected to the towline. The lifting bodies lift and laterally extend the snagging wire between the lifting bodies. An aerial vehicle flying through the air engages the snagging wire by a hook. A first signal representative of tension of the towline causes the winch to reel in the towline and to bring the aerial vehicle to the surface vehicle, and a second sensor associated with the hook generates a second signal representative of tension in the hook and causes the aerial vehicle to cut its motor.