Carrier unit (1) comprising a textile carrier which at least partially comprises a display unit (2), an interface unit (5) which can be connected to a network (6), and a power supply unit (3) for supplying the display unit (2) and the interface unit (5) with electrical power, wherein the interface unit (5) is operatively connected to the display unit (2) for controlling said unit. Furthermore, an arrangement with a plurality of carrier units and a method for controlling the arrangement are specified.

Disclosed is a hull device designed to be reversibly attached to an outer surface of a ferromagnetic structure of a marine or submarine system or vessel. The device includes at least one attachment surface suitable for attaching the device to the structure, and a plurality of permanent magnets arranged in the vicinity of the attachment surface in order to attach the device to the structure.

In accordance with one embodiment of the present invention, a method of multi-use multi-vision modular covers comprising of aggregating multiple devices into physical meshes and virtual networks where devices exchange multi-source data transactions and transmissions between meshed devices to project on their respective screens the exchanged images, videos, and/or visual adjustments to produce multiple video See Through streams between meshed devices in static states and/or in motion. In a preferred embodiment, the invention is combination of devices, cameras, and/or screens that produce See-Through video streams with enhancements to hide, protect, and sustain modular permutations of invisible armors, invisible cloaks, invisible vehicles, invisible crafts, invisible land drones, invisible flying drones, invisible camo nettings, and other invisible configurations managed by manager-of-manager portal platforms that can provision, manage, and monitor all these configurations and deployments during a battle while producing synergies of invisible combined arms tactics to defeat the enemies of God.

Various embodiments include a magnetic compensation device for a drone for triggering mines comprising: a flux-guiding element comprising a soft magnetic material in the shape of an open or closed ring; a receiving chamber for the drone for holding the drone; and an electric coil device coupled magnetically to the flux-guiding element so a predetermined magnetic flux can be coupled into the flux-guiding element using the coil device. The flux-guiding element and the receiving chamber are arranged in relation to one another so that a magnetic flux brought about by the drone can be closed through the ring shape of the flux-guiding element.

A motion controller guides movement of a vessel in a manner that optimally balances performance and noise emitted by the vessel. During a training phase, for each of a plurality of states of a motion system, the controller measures 1) motion of the vessel concurrent with parameters of the motion system, and 2) acoustic response associated with the motion. A model representing the plurality of states is defined, where the model relates the parameters signals, vessel motion, and acoustic response associated with each of the plurality of states. During an operating phase, based on the model, the controller determines a subset of the plurality of states to satisfy a motion goal and an acoustic threshold. The controller then operates the motion system to maneuver the vessel according to the subset of the plurality of states.

A motion controller guides movement of a vessel in a manner that optimally balances performance and noise emitted by the vessel. During a training phase, for each of a plurality of states of a motion system, the controller measures 1) motion of the vessel concurrent with parameters of the motion system, and 2) acoustic response associated with the motion. A model representing the plurality of states is defined, where the model relates the parameters signals, vessel motion, and acoustic response associated with each of the plurality of states. During an operating phase, based on the model, the controller determines a subset of the plurality of states to satisfy a motion goal and an acoustic threshold. The controller then operates the motion system to maneuver the vessel according to the subset of the plurality of states.

A device for reducing the effective radar cross section (RCS) of a naval vessel is proposed, the device comprising a cladding panel, which can be mounted on vessel superstructures or cargo of the naval vessel, the cladding panel being permeable to radar beams, the device also comprising a reflection means, which reflects radar beams, and the reflection means also being embedded in the cladding panel and being aligned at least partially inclined with respect to a main plane of extent of the cladding panel.

A device for reducing the effective radar cross section (RCS) of a naval vessel is proposed, the device comprising a cladding panel, which can be mounted on vessel superstructures or cargo of the naval vessel, the cladding panel being permeable to radar beams, the device also comprising a reflection means, which reflects radar beams, and the reflection means also being embedded in the cladding panel and being aligned at least partially inclined with respect to a main plane of extent of the cladding panel.

The invention pertains to a device for signature adaptation, comprising a surface element arranged to assume a determined thermal distribution, wherein said surface element comprises at least one temperature generating element arranged to generate at least one predetermined temperature gradient to a portion of a first heat conducting layer of said surface element, characterized in that said device for signature adaptation comprises a liquid cooling element arranged to provide at least one liquid flow, thermally contacting an inner portion of said at least one temperature generating element so that thermal energy is dispersed from said at least one temperature generating element.

The invention pertains to a device for signature adaptation, comprising a surface element arranged to assume a determined thermal distribution, wherein said surface element comprises at least one temperature generating element arranged to generate at least one predetermined temperature gradient to a portion of a first heat conducting layer of said surface element, characterized in that said device for signature adaptation comprises a liquid cooling element arranged to provide at least one liquid flow, thermally contacting an inner portion of said at least one temperature generating element so that thermal energy is dispersed from said at least one temperature generating element.