Abstract: The present invention relates to a method for treating a surface of a non-conductive or carbon-fibers containing substrate using a conditioning step a selector treatment step and an activating step.

Abstract: Method for operation of a strap-down ship's gyro compass for optimal calculation of position and course angle on a ship, with three rotational rate sensors each mutually aligned to each other at a right angle, and two nominally horizontally aligned orthogonal acceleration sensors, without required specification of the geographic latitude and/or of the speed of the ship, characterized by the steps: a. Preparation of a set of dynamic equations based on the angular velocity components detected by the rotational rate sensor, b. Preparation of a measured data equation based on the force components detected by the acceleration sensors, c. Determination of the properties of the lever arm between the strap-down ship's gyro compass and the point of rotation of the ship, and d.

Abstract: Disclosed is a method for the manufacture of a multilayer structure comprising a first layer, a second layer and a third layer for example to form a capacitor. The multilayer structure comprises a first layer, a second layer and a third layer, wherein the first layer and the third layer each form at least one of at least two electrodes and comprise one or more pyrolyzed carbon nanomembranes or one or more layers of graphene, and the second layer is a dielectric comprising one or more carbon nanomembranes.

Abstract: Disclosed is a method for the manufacture of a multilayer structure comprising a first layer, a second layer and a third layer for example to form a capacitor. The multilayer structure comprises a first layer, a second layer and a third layer, wherein the first layer and the third layer each form at least one of at least two electrodes and comprise one or more pyrolyzed carbon nanomembranes or one or more layers of graphene, and the second layer is a dielectric comprising one or more carbon nanomembranes.

Abstract: A multilayer structure comprising a first layer, a second layer and a third layer, a capacitor comprising at least one multilayer structure, a capacitor comprising at least two two-layer structures, a method of manufacture of the multilayer structure, a method of manufacture of the capacitor, a microelectronic device and an energy storage device comprising the capacitor. The multilayer structure comprises a first layer, a second layer and a third layer, wherein the first layer and the third layer each form at least one of at least two electrodes and comprise one or more pyrolyzed carbon nanomembranes or one or more layers of graphene, and the second layer is a dielectric comprising one or more carbon nanomembranes.

Abstract: Method for operation of a strap-down ship's gyro compass for optimal calculation of position and course angle on a ship, with three rotational rate sensors each mutually aligned to each other at a right angle, and two nominally horizontally aligned orthogonal acceleration sensors, without required specification of the geographic latitude and/or of the speed of the ship, characterized by the steps: a. Preparation of a set of dynamic equations based on the angular velocity components detected by the rotational rate sensor, b. Preparation of a measured data equation based on the force components detected by the acceleration sensors, c. Determination of the properties of the lever arm between the strap-down ship's gyro compass and the point of rotation of the ship, and d.

Abstract: A multilayer structure comprising a first layer, a second layer and a third layer, a capacitor comprising at least one multilayer structure, a capacitor comprising at least two two-layer structures, a method of manufacture of the multilayer structure, a method of manufacture of the capacitor, a microelectronic device and an energy storage device comprising the capacitor. The multilayer structure comprises a first layer, a second layer and a third layer, wherein the first layer and the third layer each form at least one of at least two electrodes and comprise one or more pyrolysed carbon nanomembranes or one or more layers of graphene, and the second layer is a dielectric comprising one or more carbon nanomembranes.

Abstract: The present invention relates to a structured monolayer that is composed of low-molecular aromatics and fully cross-linked in the lateral direction, the monolayer having a pattern of functional groups on one of the two surfaces, and to a method for preparing such a structured monolayer, as well as to the use thereof.

Abstract: The invention relates to a method for transferring a nano-layer (1) from a first substrate (5, 105) to a second substrate (30, 130), wherein the nano-layer (1) comprises a self-aggregating monolayer with cross-linked phenyl units and/or a mono-atomic graphite layer (graphene), wherein the method comprises the following steps: a. applying a transfer medium (20, 120) onto nano-layer (1), wherein in this step or afterwards the transfer medium (20, 120) is transformed from a liquid or gaseous phase in a solid phase; b. separating the transfer medium (20, 120) and the nano-layer (1) from the first substrate (5, 105); and c. applying the transfer medium (20, 120) and the nano-layer (1) onto the second substrate (30, 130); and d. removing the transfer medium (20, 120).

Abstract: The present invention relates to a structured monolayer that is composed of low-molecular aromatics and fully cross-linked in the lateral direction, the monolayer having a pattern of functional groups on one of the two surfaces, and to a method for preparing such a structured monolayer, as well as to the use thereof.

Abstract: The invention relates to a method for transferring a nano-layer (1) from a first substrate (5, 105) to a second substrate (30, 130), wherein the nano-layer (1) comprises a self-aggregating monolayer with cross-linked phenyl units and/or a mono-atomic graphite layer (graphene), wherein the method comprises the following steps: a. applying a transfer medium (20, 120) onto nano-layer (1), wherein in this step or afterwards the transfer medium (20, 120) is transformed from a liquid or gaseous phase in a solid phase; b. separating the transfer medium (20, 120) and the nano-layer (1) from the first substrate (5, 105); and c. applying the transfer medium (20, 120) and the nano-layer (1) onto the second substrate (30, 130); and d. removing the transfer medium (20, 120).